Schlesinger predicts investments in 2006 will cause oil glut and denial of peak oil in future

Energy Security and Oil Dependence. Two Senate hearings from 2006.

In these two 2006 hearings (excerpts below), there is a constant refrain of our dependence on oil,  yet now, many congressional hearings are about our energy independence.  Apparently congress has forgotten this testimony of James Schlesinger, former Secretary of Defense:

“By about 2010, we should see a significant increase in oil production as a result of investment activity now under way. There is a danger that any easing of the price of crude oil will, once again, dispel the recognition that there is a finite limit to conventional oil.  In the longer run, unless we take serious steps to prepare for the day that we can no longer increase production of conventional oil, we are faced with the possibility of a major economic shock—and the political unrest that would ensue.In the longer run, unless we take serious steps to prepare for the day that we can no longer increase production of conventional oil, we are faced with the possibility of a major economic shock—and the political unrest that would ensue.”

More importantly, we face a fundamental, longer term problem. In the decades ahead, we do not know precisely when, we shall reach a point, a plateau or peak, beyond which we shall be unable further to increase production of conventional oil worldwide. We need to understand that problem now and to begin to prepare for that transition.

The underlying problem is that for more than three decades, our production has outrun new discoveries. Most of our giant fields were found 40 years ago and more. Even today, the bulk of our production comes from these old—and aging—giant fields. More recent discoveries tend to be small with high decline rates—and are soon exhausted. Since the issue is crucial—and is not widely understood—I have prepared a chart which lays bare the problem.

The upshot is, quite simply, that, as the years roll by, the entire world will face a prospectively growing problem of energy supply. Moreover, we shall inevitably see a growing dependency on the volatile Middle East.The United States is today the preponderant military power in the world. Still, our military establishment is heavily dependent upon oil. At a minimum, the rising oil price poses a budgetary problem for the Department of Defense at a time that our national budget is increasingly strained. Moreover, in the longer run, as we face the prospect of a plateau in which we are no longer able, worldwide, to increase the production of oil against presumably still-rising demand, the question is whether the Department of Defense will still be able to obtain the supply of oil products necessary for maintaining our military preponderance. In that prospective world, the Department of Defense will face all sorts of pressures at home and abroad to curtail its use of petroleum products, thereby endangering its overall military effectiveness.”

Former CIA director Woolsey predicts that the Saudi’s can lower prices to stop our development of shale oil or tar sands:

“Even if other production comes on line, e.g., from unconventional sources such as tar sands in Alberta or shale in the American West, their relatively high cost of production could permit low-cost producers, particularly Saudi Arabia, to increase production, drop prices for a time, and undermine the economic viability of the higher cost competitors, as occurred in the mid-1980s. For the foreseeable future, as long as vehicular transportation is dominated by oil as it is today, the Greater Middle East, and especially Saudi Arabia, will remain in the driver’s seat.”

Woolsey also nails the main problem of future oil shortages:

“The current transportation infrastructure is committed to oil and oil-compatible products. This fact substantially increases the difficulty of responding to oil price increases or disruptions in supply by substituting other fuels. There is a range of fuels that can be used to produce electricity and heat and that can be used for other industrial uses, but petroleum and its products dominate the fuel market for vehicular transportation…  To have an impact on our vulnerabilities within the next decade or two, any competitor of oil-derived fuels will need to be compatible with the existing energy infrastructure and require only modest additions or amendments to it.”

Our transportation system doesn’t have any oil substitute for the trucks, locomotives, and ships that do the actual work of civilization, which mainly have diesel engines that can only burn diesel — not gasoline, ethanol, diesohol, or other products. These diesel engines are so powerful and so efficient that Vaclav Smil argues diesel engines are as important as the diesel fuel they burn for the level of civilization we have now. I discuss the “liquid fuels transportation crisis” at great length in my book “When Trucks Stop Running“, which is mainly about what other fuels could substitute for oil, and whether heavy-duty transportation (i.e. locomotives and trucks) can be electrified.

Copulos points out that the hidden costs of oil were $780 billion in 2005, and that the military is becoming ever more dependent on oil, so shortages in the future could hamstring them. Presumably the hamstringing refers to future oil wars as the Great Game grows more desperate.

Jason Grumet at the National Commission on Energy Policy states that “Energy independence is simply unrealistic and has been ever since President Nixon first proposed to enshrine it as a national goal in the 1970s.”  He explains this is because the U.S. consumes a quarter of world oil but has “less than 3% of the world’s proved oil reserves, while 61% of world reserves are in the Middle East”.  He points out we will also be more dependent on foreign natural gas “given declining domestic production of natural gas—another fuel that plays an extremely important role in the U.S. economy. It appears inevitable that we will increasingly need to rely on overseas sources .”  He’s not wrong about that, despite the glut of fracked natural gas we have now. Like oil, natural gas is not going to last forever (see Peak Natural Gas).

Vinod Khosla makes grand promises about ethanol below.  His fortunes have fallen greatly since then.  60 minutes did a devastating piece on him in 2014 titled: The Cleantech crash: despite billions invested by the U.S. government in so-called “cleantech energy”, Washington and Silicon Valley have little to show for it”. And he is being sued for$75 million by the state of Mississippi for misleading investors about the quantities and yields of biofuels the KiOR cellulosic ethanol plant could produce, which is now bankrupt.  On top of that, Khosla is detested in California for closing off beach access to his property and demanding $30 million to allow access.

In 2016, cellulosic ethanol is still not commercialAnd not likely to ever be commercialAnd since diesel engines can’t burn ethanol or diesohol, irrelevant.

Former Senator Biden of Delaware, now Vice President, says “There can no longer be any doubt that our dependence on oil is a critical problem, one that must be addressed. The sheer size of this problem is such that there will be no quick fix“.

Alice Friedemann   www.energyskeptic.com  author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

1. Senate 109-860. May 16, 2006. Energy security and oil dependence. U.S. Senate hearing. 61 pages.

2. Senate 109-64. June 2006. Energy diplomacy and security. a compilation of statements by witnesses before the Committee on Foreign Relations. U.S. Senate. 98 pages

Excerpts from these two documents follow.

JAMES SCHLESINGER, former Secretary of Defense

By about 2010, we should see a significant increase in oil production as a result of investment activity now under way. There is a danger that any easing of the price of crude oil will, once again, dispel the recognition that there is a finite limit to conventional oil.

In the longer run, unless we take serious steps to prepare for the day that we can no longer increase production of conventional oil, we are faced with the possibility of a major economic shock—and the political unrest that would ensue.

More importantly, we face a fundamental, longer term problem. In the decades ahead, we do not know precisely when, we shall reach a point, a plateau or peak, beyond which we shall be unable further to increase production of conventional oil worldwide. We need to understand that problem now and to begin to prepare for that transition.

The underlying problem is that for more than three decades, our production has outrun new discoveries. Most of our giant fields were found 40 years ago and more. Even today, the bulk of our production comes from these old—and aging—giant fields. More recent discoveries tend to be small with high decline rates—and are soon exhausted. Since the issue is crucial—and is not widely understood—I have prepared a chart which lays bare the problem.

The upshot is, quite simply, that, as the years roll by, the entire world will face a prospectively growing problem of energy supply. Moreover, we shall inevitably see a growing dependency on the volatile Middle East. We shall have to learn to live with degrees of insecurity—rather than the elusive security we have long sought.

The United States is today the preponderant military power in the world. Still, our military establishment is heavily dependent upon oil. At a minimum, the rising oil price poses a budgetary problem for the Department of Defense at a time that our national budget is increasingly strained. Moreover, in the longer run, as we face the prospect of a plateau in which we are no longer able, worldwide, to increase the production of oil against presumably still-rising demand, the question is whether the Department of Defense will still be able to obtain the supply of oil products necessary for maintaining our military preponderance. In that prospective world, the Department of Defense will face all sorts of pressures at home and abroad to curtail its use of petroleum products, thereby endangering its overall military effectiveness.

The problem of energy security is of relatively recent origin. When mankind depended upon windmills, oxen, horses, etc., energy security was not a strategic problem. Instead, as a strategic problem it is a development of modem times—and reflects most crucially the turn to fossil fuels as increasingly the source of energy. The Industrial Revolution in the 19th century, strongly reinforced by the rapid growth of oil-dependent transportation in the 20th, unavoidably posed the question of security of supply. Imperial Germany took over Lorraine with its coal fields after the Franco-Prussian War—to insure its energy security. When Britain, pushed by Churchill, converted its Navy to oil early in the 20th century, it sought a secure supply of oil under its own control in the Persian Gulf—which incidentally increased its concern for the security of the Suez Canal. For the United States, where the production of oil had started and for long was primarily located, the question of security of supply did not arise until the 1960s and 1970s. Since then, we have regularly talked about—and sought by various measures—to achieve greater energy security. Such measures, limited as they were, have generally proved unsatisfactory. The nation’s dependence on imported hydrocarbons has continued to surge.

Until such time as new technologies, barely on the horizon, can wean us from our dependence on oil and gas, we shall continue to be plagued by energy insecurity. We shall not end dependence on imported oil nor, what is the hope of some, end dependence on the volatile Middle East—with all the political and economic consequences that flow from that reality.  Instead of energy security, we shall have to acknowledge and to live with various degrees of insecurity.

In addition to the long-term problem of the prospective limit on conventional oil production, we have a number of short-term or cyclical problems that have contributed to the current stringency and current high prices. Spare production capacity has essentially disappeared. This reflects the volatility of oil prices, which has led to a low rate of investment in new capacity, as well as an unexpected surge of demand, particularly from China and the United States. For many years, we have had excess capacity in refining. That, too, has largely disappeared, and we lack capacity to refine the heavy, sour crudes that remain available. Here in the United States, the problem has been amplified by the battering of gulf infrastructure by Hurricanes Katrina and Rita. We also have an added, self-inflicted problem of some 17 boutique blends of gasoline, mandated by state authorities.

The insurgency in Iraq has prevented the increase in production, even to the prewar level, that many expected. Long-term sanctions against Iraq, Iran, and Libya, both United States and international, have reduced their contribution to world supply.

In no way do the prospective investment decisions solve the long- term, fundamental problem of oil supply.

The effect of higher oil prices has been significantly higher incomes for producers. A much higher level of income has meant that a range of nations, including Russia, Iran, Venezuela, as well as gulf Arab nations have had their economic problems substantially eased. As a result, they have become less amenable to American policy initiatives. Perhaps more importantly, the flow of funds into the Middle East inevitably has added to the moneys that can be transferred to terrorists. As long as the motivation is there and controls remain inadequate, that means that the terrorists will continue to be adequately or amply funded. To the extent that we begin to run into supply limitations and to the extent that we all grow more dependent on the Middle East, this problem of spillover funding benefits for terrorists is not going to go away.

Of the well over $700 billion of that deficit, some $300 billion comes from oil and gas. It is recognized that the U.S. balance-of-payments deficit represents the locomotive that drives much of the world’s economies. In performing this service—for which we get little thanks—the United States is steadily adding to its financial obligations to others. How long this process can continue is uncertain, but high oil prices add to the dilemma.

JAMES WOOLSEY, Former CIA Director   

There are at least seven major reasons why dependence on petroleum and its products for the lion’s share of the world’s transportation fuel creates special dangers in our time. These dangers are all driven by rigidities and potential vulnerabilities that have become serious problems because of the geopolitical realities of the early 21st century. Those who reason about these issues solely on the basis of abstract economic models that are designed to ignore such geopolitical realities will find much to disagree with in what follows. Although such models have utility in assessing the importance of more or less purely economic factors in the long run, as Lord Keynes famously remarked: ‘‘In the long run, we are all dead.’’

PETROLEUM DEPENDENCE: THE DANGERS

  1. The current transportation infrastructure is committed to oil and oil-compatible products.

This fact substantially increases the difficulty of responding to oil price increases or disruptions in supply by substituting other fuels. There is a range of fuels that can be used to produce electricity and heat and that can be used for other industrial uses, but petroleum and its products dominate the fuel market for vehicular transportation.

Moreover, in the 1970s about 20% of our electricity was made from oil—so shifting electricity generation toward, say, renewables or nuclear power could save oil. But since today only about 3% of our electricity is oil-generated, a shift in the way we produce electricity would have almost no effect on the transportation or oil market.

There are imaginative proposals for transitioning to other fuels for transportation, such as hydrogen to power automotive fuel cells, but this would require major infrastructure investment and restructuring. If privately owned fuel cell vehicles were to be capable of being readily refueled, this would require reformers (equipment capable of reforming, say, natural gas into hydrogen) to be located at filling stations, and would also require natural gas to be available there as a hydrogen feed-stock. So not only would fuel cell development and technology for storing hydrogen on vehicles need to be further developed, but the automobile industry’s development and production of fuel cells also would need to be coordinated with the energy industry’s deployment of reformers and the fuel for them. Moving toward automotive fuel cells thus requires us to face a huge question of pace and coordination of large-scale changes by both the automotive and energy industries. This poses a sort of industrial Alphonse and Gaston dilemma: Who goes through the door first? (If, instead, it were decided that existing fuels such as gasoline were to be reformed into hydrogen on board vehicles instead of at filling stations, this would require onboard reformers to be developed and added to the fuel cell vehicles themselves—a very substantial undertaking.)

It is because of such complications that the National Commission on Energy Policy concluded in its December 2004, report ‘‘Ending the Energy Stalemate’’ that ‘‘hydrogen offers little to no potential to improve oil security and reduce climate change risks in the next 20 years.’’

To have an impact on our vulnerabilities within the next decade or two, any competitor of oil-derived fuels will need to be compatible with the existing energy infrastructure and require only modest additions or amendments to it.

  1. The Greater Middle East will continue to be the low-cost and dominant petroleum producer for the foreseeable future

Home of around two-thirds of the world’s proven reserves of conventional oil—45% of it in just Saudi Arabia, Iraq, and Iran—the Greater Middle East will inevitably have to meet a growing percentage of world oil demand. This demand is expected to increase by more than 50% in the next two decades, from 78 million barrels per day (bbl/d) in 2002 to 118 bbl/d in 2025, according to the Federal Energy Information Administration. Much of this will come from expected demand growth in China and India. One need not argue that world oil production has peaked to see that this puts substantial strain on the global oil system. It will mean higher prices and potential supply disruptions and will put considerable leverage in the hands of governments in the Greater Middle East as well as in those of other oil-exporting states which have not been marked recently by stability and certainty: Russia, Venezuela, and Nigeria, for example. Deep-water drilling and other opportunities for increases in supply of conventional oil may provide important increases in supply but are unlikely to change this basic picture.

Even if other production comes on line, e.g., from unconventional sources such as tar sands in Alberta or shale in the American West, their relatively high cost of production could permit low-cost producers, particularly Saudi Arabia, to increase production, drop prices for a time, and undermine the economic viability of the higher cost competitors, as occurred in the mid-1980s. For the foreseeable future, as long as vehicular transportation is dominated by oil as it is today, the Greater Middle East, and especially Saudi Arabia, will remain in the driver’s seat.

  1. The petroleum infrastructure is highly vulnerable to terrorist and other attacks

The radical Islamist movement, including but not exclusively al Qaeda, has on a number of occasions explicitly called for worldwide attacks on the petroleum infrastructure and has carried some out in the Greater Middle East. A more well-planned attack than what has occurred to date—such as that set out in the opening pages of Robert Baer’s recent book, ‘‘Sleeping With the Devil’’ (terrorists flying an aircraft into the unique sulfur-cleaning towers in northeastern Saudi Arabia), could take some 6 million barrels per day off the market for a year or more, sending petroleum prices sharply upward to well over $100/barrel and severely damaging much of the world’s economy. Domestic infrastructure in the West is not immune from such disruption. U.S. refineries, for example, are concentrated in a few places, principally the gulf coast. The recent accident in the Texas City refinery—producing multiple fatalities— points out potential infrastructure vulnerabilities, as of course does this fall’s hurricane damage in the gulf. The Trans-Alaska Pipeline has been subject to several amateurish attacks that have taken it briefly out of commission; a seriously planned attack on it could be far more devastating.

In view of these overall infrastructure vulnerabilities policy should not focus exclusively on petroleum imports, although such infrastructure vulnerabilities are likely to be the most severe in the Greater Middle East. It is there that terrorists have the easiest access, and the largest proportion of proven oil reserves and low-cost production are also located there. Nor is anything particularly useful accomplished by changing trade patterns. To a first approximation there is one worldwide oil market and it is not generally useful for the United States, for example, to import less from the Greater Middle East and for others then to import more from there. In effect, all of us oil-importing countries are in this together.

  1. The possibility exists, particularly under regimes that could come to power in the Greater Middle East, of embargoes or other disruptions of supply

It is often said that whoever governs the oil-rich nations of the Greater Middle East will need to sell their oil. This is not true, however, if the rulers choose to try to live, for most purposes, in the seventh century. Bin Laden has advocated, for example, major reductions in oil production and oil prices of $200/barrel or more. In 1979 there was a serious attempted coup in Saudi Arabia. Much of what the outside world saw was the seizure by Islamist fanatics of the Great Mosque in Mecca, but the effort was more widespread. Even if one is optimistic that democracy and the rule of law will spread in the Greater Middle East and that this will lead after a time to more peaceful and stable societies there, it is undeniable that there is substantial risk that for some time the region will be characterized by chaotic change and unpredictable governmental behavior. Reform, particularly if it is hesitant, has in a number of cases been trumped by radical takeovers (Jacobins, Bolsheviks). There is no reason to believe that the Greater Middle East is immune from these sorts of historic risks.

  1. Wealth transfers from oil have been used, and continue to be used, to fund terrorism and its ideological support

Estimates of the amount spent by the Saudis in the last 30 years spreading Wahhabi beliefs throughout the world vary from $70 billion to $100 billion. Furthermore, some oil-rich families of the Greater Middle East fund terrorist groups directly. The spread of Wahhabi doctrine—fanatically hostile to Shiite and Suffi Muslims, Jews, Christians, women, modernity, and much else—plays a major role with respect to Islamist terrorist groups: A role similar to that played by angry German nationalism with respect to Nazism in the decades after World War I. Not all angry German nationalists became Nazis and not all those schooled in Wahhabi beliefs become terrorists, but in each case the broader doctrine of hatred has provided the soil in which the particular totalitarian movement has grown. Whether in lectures in the madrassas of Pakistan, in textbooks printed by Wahhabis for Indonesian schoolchildren, or on bookshelves of mosques in the United States, the hatred spread by Wahhabis and funded by oil is evident and influential.

On all points except allegiance to the Saudi State, Wahhabi and al-Qaeda beliefs are essentially the same. In this there is another rough parallel to the 1930s—between Wahhabis’ attitudes toward al-Qaeda and like-minded Salafist jihadi groups today and Stalinists’ attitude toward Trotskyites some 60 years ago. The only difference between Stalinists and Trotskyites was on the question whether allegiance to a single state was required or whether freelance killing of enemies was permitted. But Stalinist hatred of Trotskyites and their free-lancing didn’t signify disagreement about underlying objectives, only tactics, and Wahhabi/Saudi cooperation with us in the fight against al-Qaeda doesn’t indicate fundamental disagreement between Wahhabis and al-Qaeda on, e.g., their common genocidal fanaticism about Shi’a, Jews, and homosexuals. So Wahhabi teaching basically supports al-Qaeda ideology.

It is sometimes contended that we should not seek substitutes for oil because disruption of the flow of funds to the Greater Middle East could further radicalize the population of some states there. The solution, however, surely lies in helping these states diversify their economies over time, not in perpetually acquiescing to the economic rent they collect from oil exports and to the uses to which these revenues are put.

  1. The current account deficits for a number of countries create risks ranging from major world economic disruption to deepening poverty, and could be substantial reduced by reducing oil imports

The United States in essence borrows about $2 billion a day, every day, principally now from major Asian states, to finance its consumption. The single largest category of imports is the approximately $1 billion per working day borrowed to import oil. The accumulating debt increases the risk of a flight from the dollar or major increases in interest rates. Any such development could have major negative economic consequences for both the United States and its trading partners. For developing nations, the service of debt is a major factor in their continued poverty. For many, debt is heavily driven by the need to import oil that at today’s oil prices cannot be paid for by sales of agricultural products, textiles, and other typical developing nation exports.

  1. Global-warming gas emissions from man-made sources create at least the risk of climate change

Although the point is not universally accepted, the weight of scientific opinion suggests that global warming gases produced by human activity form one important component of potential climate change. Oil products used in transportation provide a major share of U.S. man-made global warming gas emissions.

 

MILTON R. COPULOS, President, National Defense Council Foundation, Alexandria, VA

America is rushing headlong into disaster. What is worse, however, is that it is a disaster of our own design. More than three decades have passed since the 1973 Arab Oil Embargo first alerted the nation to its growing oil import vulnerability. Yet, despite this warning, we are now importing more than twice as much oil in absolute terms than we did in 1973, and the proportion of our oil supplies accounted for by imports is nearly double what is was then.

What makes this dependence even more dangerous than it was three decades ago is the fact that the global market has become a far more competitive place with the emerging economies of China, India, and Eastern Europe creating burgeoning demand for increasingly scarce resources.

Indeed, over the past decade the Chinese economy has grown at a frenetic pace, officially estimated at 9.2% in 2005. India’s growth rate for that year was 7.1%. In Eastern Europe, Belarus grew at 7.8%, the Czech Republic at 4.6%, and the Ukraine at 4.4%. This compares with 3.5% for the United States, 2.1% for Japan, and 1.7% for the European Union. As a result of this explosive growth, oil consumption in the developing countries is expected to increase at a rate of 3% annually over the next two decades. But even this figure may severely understate the problem. Indeed, China alone has accounted for 40% of the total increase in world oil consumption over the past several years. Moreover China plans to add 120 million vehicles to its automobile fleet over the next decade, ultimately requiring 11.7 million barrels per day of new crude oil supplies. India, too, is expected to continue to require increasingly large amounts of oil with a projected increase of 28% over just the next 5 years. Even conservative estimates suggest that nearly 30 million barrels per day of new oil supplies will be required by the year 2025 just to service the developing world’s requirements. When Europe and the Americas are included the requirement is closer to 40 million barrels per day. It is doubtful that new supplies sufficient to meet this skyrocketing demand will be found from conventional sources.

Nor is it just the potential physical shortfall of resources that is a source of concern. An even greater concern lies in the instability of U.S. sources of oil imports. The top six sources of U.S. oil imports, Canada, Mexico, Saudi Arabia, Venezuela, Nigeria, and Iraq account for 65.1% of all foreign crude reaching our shores and 38.9% of total domestic consumption. Of these, four, Saudi Arabia, Venezuela, Nigeria, and Iraq provide 38.2% of oil imports and 22.6% of total consumption. For a variety of reasons, none of the four I just mentioned can be considered a reliable source of supply. Venezuela’s President Hugo Chavez is a vocal opponent of the United States who has twice threatened to cut off oil shipments to the United States. Nigeria’s production has been repeatedly disrupted by civil unrest, and some 135,000 barrels of oil per day are lost to theft. Last month, a terrorist attack on the massive Saudi oil processing facility at Abqaiq was barely thwarted, but not before two of the terrorist’s explosive-laden cars were detonated. Moreover, this was not the only instance of an attempt to disrupt the flow of Saudi oil. In the summer of 2002, Saudi Interior Ministry forces blocked an al-Qaeda plot to attack and cripple the loading dock at Ras Tanura which handles 10% of the world’s oil supplies.

Attacks on oil facilities in Iraq are a frequent occurrence. Nor are the attacks on U.S. oil supplies a coincidence. In December of 2004, al-Qaeda issued a fatwa that said in part: We call on the mujahideen in the Arabian Peninsula to unify their ranks and target the oil supplies that do not serve the Islamic nation but the enemies of this nation. The fatwa went onto declare: Be active and prevent them from getting hold of our oil and concentrate on it particularly in Iraq and the Gulf.

Clearly, given the instability that characterizes four of our top six sources of oil, the question is not whether we will experience a supply disruption, but rather when. The disruption could occur as a consequence of a terrorist act, or could result from a politically motivated embargo. In the end, it doesn’t really matter why a disruption occurs, because the consequences would be identical, and severe.

The supply disruptions of the 1970s cost the U.S. economy between $2.3 trillion and $2.5 trillion. Today, such an event could carry a price tag as high as $8 trillion—a figure equal to 62.5% of our annual GDP or nearly $27,000 for every man, woman, and child living in America. But there is more cause for concern over such an event than just the economic toll.

A supply disruption of significant magnitude, such as would occur should Saudi supplies be interdicted, would also dramatically undermine the nation’s ability to defend itself.

Oil has long been a vital military commodity, but today has taken on even more critical importance. Several examples illustrate this point:

  • A contemporary U.S. Army Heavy Division uses more than twice as much oil on a daily basis as an entire World War II field army.
  • The roughly 582,000 troops dispatched to the Persian Gulf used more than twice as much oil on a daily basis as the entire 2-million man Allied Expeditionary Force that liberated Europe in World War II.
  • In Operation Iraqi Freedom, the oil requirement for our Armed Forces was 20% higher than in the first gulf war, Operation Desert Storm, and now amount to one barrel of refined petroleum products per day for each deployed service member.

Moreover, the military’s oil requirements will be even higher in the future. Therefore, a shortage of global oil supplies not only holds the potential to devastate our economy, but could hamstring our armed forces as well.

While it is broadly acknowledged that our undue dependence on imported oil would pose a threat to the nation’s economic and military security in the event of a supply disruption, less well understood is the enormous economic toll that dependence takes on a daily basis.

In October 2003, my organization, The National Defense Council Foundation, issued ‘‘America’s Achilles Heel: The Hidden Costs of Imported Oil,’’ a comprehensive analysis of the external costs of imported oil. The study entailed the review of literally hundreds of thousands of pages of documents, including the entire order of battle of America’s Armed Forces and more than a year of effort. Its conclusions into divided the externalities into three basic categories: Direct and Indirect economic costs, Oil Supply Disruption Impacts, and Military Expenditures. Taken together, these costs totaled $304.9 billion annually, the equivalent of adding $3.68 to the price of a gallon of gasoline imported from the Persian Gulf.

As high as these costs were, however, they were based on a crude oil refiner acquisition cost of $26.92. Today, crude oil prices are hovering around $60 per barrel and could easily increase significantly. Indeed, whereas in 2003 we spent around $99 billion to purchase foreign crude oil and refined petroleum products, in 2005 we spent more than $251 billion, and this year we will spend at least $320 billion.

But skyrocketing crude oil prices were not the only factor affecting oil-related externalities. Defense expenditures also changed. In 2003, our Armed Forces allocated $49.1 billion annually to maintaining the capability to assure the flow of oil from the Persian Gulf.

I should note that expenditures for this purpose are not new. Indeed, last year marked the 60th anniversary of the historic meeting between Saudi monarch King Abdul Aziz and U.S. President Franklin Roosevelt where he first committed our nation to assuring the flow of Persian Gulf oil—a promise that has been reaffirmed by every succeeding President, without regard to party.

In 1983 the implicit promise to protect Persian Gulf oil supplies became an explicit element of U.S. military doctrine with the creation of the United States Central Command, CENTCOM.

CENTCOM’s official history makes this clear stating in part: Today’s command evolved as a practical solution to the problem of projecting U.S. military power to the gulf region from halfway around the world. I am stressing the longstanding nature of our commitment to the gulf to underscore the fact that our estimates of military expenditures there are not intended as a criticism. Quite the opposite, in fact. Without oil our economy could not function, and therefore protecting our sources of oil is a legitimate defense mission, and the current military operation in Iraq is part of that mission.

To date, supplemental appropriations for the Iraq War come to more than $251 billion, or an average of $83.7 billion per year. As a result, when other costs are included, the total military expenditures related to oil now total $132.7 billion annually.

So, where does that leave us? In 2003, as noted, we estimated that the ‘‘hidden cost’’ of imported oil totaled $304.9 billion. When we revisited the external costs, taking into account the higher prices for crude oil and increased defense expenditures we found that the ‘‘hidden cost’’ had skyrocketed to $779.5 billion in 2005. That would be equivalent to adding $4.10 to the price of a gallon of gasoline if amortized over the total volume of imports. For Persian Gulf imports, because of the enormous military costs associated with the region, the ‘‘hidden cost’’ was equal to adding $7.41 cents to the price of a gallon of gasoline. When the nominal cost is combined with this figure it yields a ‘‘true’’ cost of $9.53 per gallon, but that is just the start.

Because the price of crude oil is expected to remain the $60 range this year, expenditures for imports are expected to be at least $320 billion this year. That amounts to an increase of $70 billion in spending for foreign oil in just one year. That increase would raise the total import premium or ‘‘hidden cost’’ to $825.1 billion, or almost twice the President’s $419.3 billion defense budget request for fiscal year 2006. If all costs are amortized over the total volume of imports, that would be equivalent to adding $5.04 to the price of a gallon of gasoline. For Persian Gulf imports, the premium would be $8.35. This would bring the ‘‘real’’ price of a gallon of gasoline refined from Persian Gulf oil to $10.86. At these prices the ‘‘real’’ cost of filling up a family sedan is $217.20, and filling up a large SUV $325.80.

We face a two-fold problem. The first part entails assuring adequate fuel supplies for the 220 million privately owned vehicles on the road today. These vehicles have an average lifespan of 16.8 years and the average age of our vehicle fleet is 8.5 years. Therefore, we will require conventional fuels or their analogs for at least a decade, even if every new vehicle produced from this day forth runs on some alternative.

The second part is how to affect a transition to alternatives to conventional petroleum. This transition will take much longer than a decade—perhaps a generation or more—but the longer we delay beginning to make the change, the longer it will take to accomplish.

In the near term, say the next 5 to 10 years, we essentially have two options. First, to make the greatest possible use of our readily accessible conventional domestic resources, particularly the oil and natural gas that lay off our shores. We should also consider using some of our 1,430 trillion cubic feet of domestic gas reserves as a feedstock for motor fuels produced through the Fischer-Tropsch process. Indeed, we currently have 104 trillion cubic feet of so-called ‘‘stranded’’ natural gas in Alaska and a pipeline with some 1.1 million barrels per day of excess capacity. Stranded gas could be converted into clean burning motor fuel and transported in the existing pipeline to the lower 48 states.

 

RICHARD G. LUGAR, INDIANA.  The committee meets today to consider strategies for reducing dependence on oil. This dependence brings intolerable costs to American national security and economic well-being. If oil averages just $60 a barrel this year, the import costs to the United States economy will be approximately $320 billion. This revenue stream emboldens difficult oil-rich regimes and enables them to entrench corruption and authoritarianism, fund anti-Western demagogic appeals, and support terrorism.

As global oil demand increases and the world becomes more reliant on reserves concentrated in unstable regions, the likelihood of conflict over energy supplies will dramatically increase, and energy-rich countries will have more opportunity to use their energy exports as weapons against energy-poor nations.

High prices over the past 10 months have demonstrated the vulnerability of supply. A global oil market tightened by underinvestment in production and surging global demand has been aggravated by hurricanes, unrest in Nigeria, speculation about developments in Iran, weakened capacity in Venezuela, and terrorist activity in Iraq and elsewhere. In this environment, the price shock from a major supply disruption could cause a recession.

Today we will concentrate on how our Government can speed up the transition to alternative, sustainable energy sources. We are cognizant that despite past campaigns for energy independence and constant improvement in energy intensity per GDP, we are more dependent on oil imports today than we were when President Nixon authorized Project Independence in 1973.

The American public and elected officials are becoming more aware of the severe problems associated with energy dependence and are more willing to take aggressive action.

The new realism of energy geopolitics requires us to abandon the notion that simply finding more oil will solve oil-driven threats to our national security. More than three-quarters of the world’s oil reserves are controlled by foreign governments. With global oil demand projected to rise from 83 million barrels a day to 120 million barrels per day by 2030, the security threats related to oil dependence will continue to intensify unless we make dramatic changes in policy. Efforts to reduce oil consumption must focus on developing sustainable fuels and increasing efficiency. I am pleased that the first commercial-scale cellulosic ethanol plant in the United States is ready for construction and that Americans are beginning to demand more fuel-efficient vehicles.   I have introduced Senate bill 2435, the Energy Diplomacy and Security Act, to reorient our diplomatic activities to give greater priority to energy matters.

VINOD KHOSLA, PARTNER, KHOSLA VENTURES, MENLO PARK, CA.   Since the President’s State of the Union and rising prices at the pumps, there has been a lot of talk about our oil addiction. I come here to talk not about what must be done but rather how to get it done simply, and pragmatically, in a manner aligned with the major political interests that carry clout in this country. We can not only do the right thing, but also the politically correct thing, I come to you today with ambitious goals, but goals that are grounded in sound science, technology, and business. I am convinced that we can replace the majority of our petroleum used for cars and light trucks with ethanol within 25 years. This is not an alternative fuel—it can be a mainstream fuel. More importantly, with a few simple policy changes, we can be irreversibly traveling down this path in less than 7 years.

Ethanol is substantially cheaper to produce today than gasoline before all subsidies and taxes. For example, the cost to produce ethanol in Brazil is less than $0.75 per gallon, while a U.S.-based corn to ethanol plant’s production costs are roughly $1.00 per gallon. That equates, even with U.S. costs, to about $1.25 per ‘‘gasoline equivalent’’ gallon of ethanol. Gasoline on the other hand costs $1.60–$2.20 or more per gallon to produce, depending upon the cost of a barrel of oil. Why shouldn’t it sell for much less than gasoline at the pump, except for the oil interests distorting the price to ensure they don’t lose their lucrative profit opportunity or temporary supply/demand dynamics? As new technologies ramp up, ethanol can be cheaper than gasoline even if oil drops to $35–$40 per barrel—a level it is not expected to reach according to the EIA. In addition to lower cost, E85 reduces volatile organic compounds by 15%, carbon monoxide by 40%, NOX by 10%, and sulfate emissions by 80% when compared to gasoline according to an estimate from one environmental organization. With ethanol, we get a fuel that is cheaper for consumers and automakers, cleaner and greener, and it takes Mideast terrorism fueling dollars and moves them to rural America.

We capitalize on American technology to create more jobs and cheaper transportation costs for the American public.

My friends from the Midwest tell me ethanol is the talk of coffee shops and maybe the most important thing in rural America in 30 years. It may also be the most important thing for global peace and welfare, the climate crisis, and for consumers. Fortunately, this time around the environmentalists, the automakers, the agricultural interests, the security and energy independence proponents, and even the evangelicals are all aligned. Finally, a cause all interests can rally behind.

The oil interests keep propagating myths like insufficient land, poor energy balance, and high production costs to curb enthusiasm for ethanol. This is reminiscent of the tobacco companies funding studies to prove that smoking does not cause cancer. The NRDC, more concerned about land use than the oil interest, estimate a modest 114m acres of land needs, Argonne National Labs and UC Berkley, among many others, have discounted the energy balance claims. In my opinion, these are bogus if not ill-intentioned claims and I will address these falsehoods one by one. Crop Land: Yields of corn are increasing

Based on my forecasts, I can see my way to yields increasing more than 10X to between 3,000 to 5,000 gallons per acre compared to 400 gallons per acre today, demolishing all land use and energy balance arguments.

Based on my forecasts, including the considerable upside afforded by technology innovations, biomass-based ethanol can replace most of our gasoline needs in 20 years, using less than 60m acres of land.

Energy Balance: The only study that claims corn ethanol has an unfavorable energy balance is an outdated study performed by Professor Pimentel. Both USDA and DOE-affiliated researchers claim that Pimentel’s 2005 study overstates energy requirements. Professor Kammen at UC Berkley further states that corn ethanol results in more than a 90-percent reduction in petroleum use and a moderate 10– 30-percent reduction in greenhouse gases. The NRDC agrees, stating that (1) corn ethanol is providing important fossil fuel savings and greenhouse gas reductions; (2) cellulosic ethanol simply delivers, profoundly, more renewable energy than corn ethanol; and (3) very little petroleum is used in the production of ethanol . . . a shift from gasoline to ethanol will reduce our oil dependence. Remember tobacco claiming and funding studies, forever, to prove that smoking does not cause cancer?

I came to you today with ambitious goals. I hope that you, too, are convinced that we can replace the majority of our petroleum used for cars and light trucks with ethanol within 25 years.

 

JASON S. GRUMET, Executive director, National Commission on Energy Policy, Washington, DC.

I have the privilege to speak to you today on behalf of the National Commission on Energy Policy (NCEP), a diverse and bipartisan group of energy experts that first came together in 2002 with support from the Hewlett Foundation and several other leading philanthropies. In December 2004, the Commission released a report entitled ‘‘Ending the Energy Stalemate: A Bipartisan Strategy to Meet America’s Energy Challenges.’’ The first chapter of that report was about oil security because our Commission believed then, and still does, that oil security is one of our Nation’s foremost economic, national security, and energy challenges.

This isn’t news to anyone, of course—least of all this committee. In fact, as national policy obsessions go, America’s oil dependence has been one of our most enduring. For more than 50 years, Congress and multiple administrations of either party have decried our reliance on imported oil and vowed to do something about it. Today, with oil prices topping $70 per barrel and gasoline prices at $3 per gallon, we are again enmeshed in an active debate over energy policy. The lack of real options to address near-term energy prices is a source of great frustration here in Congress and throughout the country.

Until, and unless, private markets reflect the full economic, security, and environmental costs of oil dependence—and until, and unless, consumers possess adequate information to make efficient choices—policies that rely solely on private market decisions will continue to fail.

Improving our energy security is a long-term challenge. This time, the problem of high prices and tight supplies will almost certainly get worse as growth in petroleum demand continues to outstrip the rate at which vehicle fuel economy improves and new sources of oil come on line. While biofuels hold great potential, near term gains will also be incremental when compared against our annual petroleum consumption. If history is a guide, public interest and support for long-term policies will wax and wane as the price of gasoline rises and falls.

RETHINKING ‘‘ENERGY INDEPENDENCE’’

Before delving into solutions, I would like to take on the somewhat heretical task of challenging the aspiration of ‘‘energy independence’’ with its attendant focus on reducing our Nation’s use of ‘‘foreign oil.’’ While emotionally compelling, these concepts are vestiges of a world that no longer exists. By failing to recognize the fundamentally global nature of the oil market, and the increasingly global nature of markets for natural gas, the call for energy independence has become an obstacle to effective policy design. There is one world market for oil. It is a fungible global commodity that has a single benchmark price. Wide disparities in the price of gasoline around the world are the product of national subsidies and taxes, but have nothing to do with how much oil different nation’s import or produce. Our economic vulnerability to oil price shocks is entirely a function of how much oil we use—the continent from which the oil was extracted has no bearing, whatsoever, on this equation.

As members of this committee know better than anyone else, some of the most profound consequences of America’s dependence on oil go well beyond the economic. It’s virtually impossible to put a dollar figure on all the costs of that dependence, but there is no question that our thirst for oil constrains our foreign policy, imposes burdens on our military, accounts for, approximately, one-third of the U.S. current account deficit which soared to $805 billion in 2005, swells the coffers of undemocratic and even actively hostile governments, and directly, or indirectly, provides some of the funding for terrorist organizations that mean us harm. These risks and vulnerabilities too, like those we face strictly in terms of our own economic well-being, will surely continue to grow if we don’t take action. Put simply, if current trends don’t change we face a global scramble for energy resources within this century that is sure to be economically and geopolitically damaging to all concerned.

Energy independence is simply unrealistic and has been ever since President Nixon first proposed to enshrine it as a national goal in the 1970s.

U.S. oil imports have been rising inexorably ever since. The United States, alone, currently accounts for fully one-quarter of world oil demand.

Our Nation holds less than 3% of the world’s proved oil reserves, while 61% of world reserves, by contrast, are located in the Middle East.

The United States will not have a serious policy to increase oil security until we achieve a significant increase in the fuel economy of our vehicles. A fundamental premise underlying the Commission’s oil security recommendations is the belief that we can neither drill nor conserve our way to energy security. We simply must address both the supply and demand sides of the equation if we are to have any hope of lasting success. As Congress and ordinary Americans search for solutions to the current costs of gasoline, it is painfully clear that there are no good near term options. We must accept this unfortunate reality and direct our attention to minimizing the harmful effects of the oil shocks that are likely to occur with increasing regularity and severity over the next 20 years.

Current projections indicate that oil production by the United States and other industrialized countries will decline by 6% over the next two decades, even as oil production in the former Soviet Union increases by nearly 50% and OPEC output increases 33%. This means that U.S. oil imports will continue to grow in the future, as they have for the last several decades, and that we like everyone else will increasingly need to rely on oil supplies that originate in what are now unstable and undemocratic regions of the world. Nor will our dependence on foreign sources of energy be limited to oil: Given declining domestic production of natural gas—another fuel that plays an extremely important role in the U.S. economy—it appears inevitable that we will increasingly need to rely on overseas sources for natural gas as well. The key, then, to greater energy security for the United States lies in recognizing—and better managing—our fundamental energy interdependence. Nearly all experts agree about the fundamental drivers behind today’s high oil prices and extreme market volatility. For some time now, rising global demand for petroleum—driven not only by growing U.S. demand, but in part by the very rapid modernization of countries like China and India—has been outpacing the discovery and development of new sources of supply. The result is that we now live in a world that requires approximately 85 million barrels of oil daily, but has only very little spare production capacity (as little as 2%, according to various estimates) and barely sufficient refining capacity. In this environment even small disruptions along the supply chain can cause serious repercussions.

The world is suffering from what can best be described as a ‘‘demand shock’’ as China, India, and much of the developing world modernize their economies and dramatically increase their use of motor vehicles.

In partnership with the organization, Securing America’s Energy Future (SAFE), NCEP has been exploring the potential consequences of today’s tight supply margins by examining the impacts of any number of possible disruptions in global oil supply. With help from industry and military experts, as well as from the Wall Street analysis firm, Sanford C. Bernstein and Co. LLC, we concluded that any number of truly unexceptional circumstances could cause global oil prices to literally skyrocket. As part of an oil crisis simulation called Oil ShockWave, we found that a mere 4% shortfall in daily world oil supplies could lead to a 177% increase in world prices. It wouldn’t take much, in other words, to send oil prices even higher— perhaps significantly higher—than they already are. With the U.S. transportation system over 97% reliant upon petroleum, the impacts of such an increase could be devastating.

As then-Chairman of the Federal Reserve, Alan Greenspan, observed in 2002, ‘‘All economic downturns in the United States since 1973 have been preceded by sharp increases in the price of oil.’’

Fuel economy requirements for passenger vehicles have been essentially unchanged since 1980. As a result, average fleet efficiency actually began to decline in recent years as large trucks and SUVs captured ever larger shares of the U.S. auto market.

On the demand side, the Commission recommends: 1. Significantly strengthening fuel economy standards for new passenger vehicles, while simultaneously reforming the existing CAFE program to reduce compliance costs and provide cost-certainty for manufacturers and consumers; 2. Creating incentives to accelerate the market penetration of highly efficient hybrid vehicles while also helping the domestic auto industry retool to meet growing demand for these vehicles; and 3. Exploiting opportunities to boost the efficiency of heavy duty vehicles and to improve the fuel-economy performance of the existing light duty vehicle fleet. Finally, to develop long-term alternatives to petroleum, the Commission recommends a sustained and vigorous effort to spur public and private sector investment in the development and early deployment of domestically produced transportation fuels derived from biomass and organic wastes. Of all available alternatives to petroleum fuels, the Commission believes that cellulosic ethanol holds the most potential for displacing a significant fraction of transportation oil demand within the next 20–30 years and should, therefore, be a focus of near term RD&D activities

Currently, the United States produces about 8.5 million barrels per day of oil (crude and products) and consumes about 21 million barrels per day of finished oil products.

The United States is thought to have about 25 billion barrels of proved, conventional oil reserves, the great majority in Alaska and off our Pacific coast with a smaller fraction off the Atlantic coast and the eastern Gulf of Mexico.

OIL DEMAND MEASURES.   While the Commission firmly believes that both supply and demand measures must be pursued as part of an effective strategy to enhance the Nation’s energy security, it is important to emphasize that when it comes to protecting the economy from oil price shocks, a barrel produced and a barrel conserved are not the same thing. The benefits of every added barrel of supply—whether produced domestically or abroad—accrue to oil consumers the world over, in the form of a marginal reduction in the market price. By contrast, the benefits that can be achieved through demand side measures and alternative fuel production—besides being much larger in absolute magnitude—are largely captured by those who implement them. The Commission, therefore, devoted significant attention to the potential for reducing our Nation’s oil demand, particularly in the transportation sector, which because it accounts for nearly 70% of current domestic consumption and is nearly solely dependent on petroleum fuels—is key to oil use in the broader U.S. economy.

Improving passenger vehicle fuel economy is by far the most significant and reliable oil demand reduction measure available to U.S. policymakers. As noted previously, CAFE standards played an important role in substantially reducing the oil intensity of the U.S. economy between the late 1970s and early 1990s. However, a longstanding political stalemate has blocked significant progress in fuel economy for over two decades. (See Fig. 5)

People often confuse our failure to increase domestic fuel economy with the view that technology options for improving vehicle efficiency have not advanced over the past two decades. Nothing could be farther from the truth. The efficiency of our automobiles increases annually. Estimates of this annual increase vary substantially from a low estimate of roughly 1.5% per year to a high estimate of over 5% per year.

However, with no requirement to direct these substantial efficiency gains toward achieving the public good of reduced oil dependence, vehicle manufacturers instead devoted recent technological advancements to simply maintaining fuel economy while dramatically increasing vehicle size and power. While vehicle fuel economy is now no higher than it was in 1981, vehicle weight has increased by 24% and horsepower has increased by over 100% over this same time period.

For the existing light duty vehicle fleet, simply ensuring that replacement tires have the same low-rolling resistance as original equipment tires can improve vehicle fuel economy by as much as 4.5% at very low cost to the vehicle owner.

Efficiency improvements are important not only because they produce demand reductions that will allow us to ‘‘buy time’’ to develop new alternatives to oil (a serious effort to diversify our fuel supply will likely take decades), but because they are essential to making many of those alternatives technologically and economically viable on a commercial scale. Biofuels and most other alternative fuels suffer from feedstock constraints, a lower energy density than gasoline, or both. Unless the vehicle fleet becomes more fuel efficient, efforts to promote a greater reliance on alternative fuels will likely falter due to inadequate supply or inadequate driving range.

DEVELOPING ALTERNATIVES TO OIL.  The United States burns nearly 140 billion gallons of gasoline each year and relies on petroleum-based fuels to supply nearly all of its transportation energy needs. To meaningfully improve our Nation’s energy security, alternative transportation fuels must be capable of being economically and reliably produced on a truly massive scale. The Commission identified four criteria that characterize a promising alternative fuel: (1) It can be produced from ample domestic feedstocks; (2) it has low net, full fuel-cycle carbon emissions; (3) it can work in existing vehicles and with existing infrastructure; and (4) it has the potential to become cost-competitive with petroleum fuels given sufficient time and resources dedicated to technology development. Among the variety of alternative fuel options potentially available for the light duty vehicle fleet, the Commission believes that ethanol produced from cellulosic biomass (i.e. fibrous or woody plant materials) should be the focus of near term federal research, development, and commercial deployment efforts. Let me briefly discuss the attributes of traditional corn-based ethanol and then turn to cellulosic ethanol.

For years, detractors of corn-based ethanol have asserted that the energy content of a gallon of ethanol is matched or even exceeded by the energy required to produce it. The Commission’s analysis disputes this conclusion, finding that corn-based ethanol provides nearly 20% more energy than it takes to produce.

The fundamental liability of corn-based ethanol is that there is simply not enough corn to begin to keep pace with expected growth in transportation energy demand, let alone to reduce current U.S. gasoline consumption in absolute terms. Put simply, it takes roughly 4% of our Nation’s corn supply to displace 1% of our gasoline supply. Even organizations devoted to ethanol advocacy agree that it will be difficult to produce more than 10–12 billion gallons of ethanol a year without imposing unacceptable demands on corn supply and significant upward pressure on livestock feed prices.

For cellulosic ethanol to succeed on a commercial scale important concerns about land requirements must be overcome and production costs must be reduced. The central challenge is producing enough feedstocks without disrupting current production of food and forest products. Some cellulosic ethanol can be produced from currently available waste products such as corn stalks, sugarcane bagasse, and wheat straw. Production volumes on the order of 50 billion gallons per year, however, will require improved high-yield energy crops like switchgrass, the integration of cellulosic ethanol production into existing farming activities, and efficiency improvements in the processes used to convert cellulosic materials into ethanol.

A Commission-sponsored analysis of the land required to produce enough cellulosic ethanol to fuel half of the current U.S. passenger vehicle fleet reveals the importance of the advancements noted above. Using status quo assumptions for crop yields, conversion efficiency, and vehicle fuel economy, Oak Ridge National Laboratory has estimated that it would take 180 million acres or roughly 40% of the land already in cultivation in the United States to fuel half the current vehicle fleet with cellulosic ethanol.

The Energy Policy Act of 2005 contains at least 10 major programs to promote ethanol derived from cellulosic feedstocks. These programs include explicit authorizations for more than $4.2 billion over the next decade to support critical R&D as well as ‘‘first mover’’ commercial facilities through a combination of grants, loan guarantees, and production incentives.

Research appears to indicate that when a small quantity of ethanol is blended into gasoline, the resulting mixture escapes more readily through the hoses and seals in the vehicle’s fuel system leading to more smog-forming emissions.

The Commission recognizes that Congress alone is responsible for appropriations, but can’t help but note that the high level of noncompetitive earmarks is undermining the strategic goals of our Nation’s bioenergy programs. For example, in 2004, of the $94 million in appropriations for DOE’s bioenergy programs, nearly $41 million was directed to earmarked projects. In 2005, earmarks accounted for nearly 50% of the program’s budget. Paradoxically, this high level of earmarks reflects the enthusiasm of many Members of Congress for promoting domestic alternatives to petroleum. However, an effective national effort that coordinates the efforts of Federal, State, and private institutions cannot be mounted under these circumstances.

CONCLUSION.  Sadly, there are no good options for delivering immediate relief from high prices at the gas pump. And while it’s understandable at times like this that people want to focus on price gouging, windfall profits, or restrictive environmental laws—as if our plight was somehow the result of a few greedy people or poorly written statutes—we must direct the vast majority of our attention to confronting the fundamental roots of our oil security predicament.

Prices may, of course, fall again in the months ahead. But there is almost no scenario in which the underlying causes of the current crisis simply resolve themselves without a concerted effort by the United States and other major oil-consuming nations to change course. The real tragedy would be if this ‘‘moment’’ simply passes as others have with no real progress toward a lasting solution. In short, there is no question that we will someday use less oil than we do now. The question is, rather, whether we arrive at that point on our own terms or on someone else’s. The Commission believes that the sacrifices we choose are infinitely preferable to those imposed on us by forces we cannot control.

JOSEPH R. BIDEN, JR., DELAWARE.  With gasoline at $3 a gallon, and with our most pressing foreign policy challenges centered in the oil-producing countries of the world, today’s hearing before the Foreign Relations Committee could not be more timely or more important. We heard a few weeks ago in this committee about the hidden costs of our dependence on foreign oil. The United States has just one third of the world’s oil reserves, and less than 5% of its population, but we consume fully one-third of the global oil output. Over 60% of the world’s oil reserves are held in the Middle East, and as one of our witnesses points out today, only 9% of world reserves are held in countries we would call ‘‘free.’’ We are dependent on oil, and that makes us dependent on countries with whom we will continue to have, at best, many differences and, at worst, open hostility. What Michael Mandelbaum has called ‘‘the axis of oil’’—an axis that stretches from Russia to Iran to Venezuela to Saudi Arabia—will have as great an impact on our national security as the so-called ‘‘axis of evil.’’

That dependence means we pay a huge price militarily for access to a resource that we cannot do without. One estimate suggests we pay as much as $825 billion a year in security expenditures to project our influence and secure access to oil.

Some part of every dollar we pay for imported oil finds its way into the hands of our sworn enemies. As some observers have put it, the war on terror is the first war in which we are paying for both sides in the conflict. Disruption to our economy from interruptions in supply can be huge, and will grow as our dependence grows. As Alan Greenspan has warned us, all economic downturns since the 1970s have been preceded by spikes in the price of oil. We pay a price environmentally for our dependence on oil, most profoundly in dealing with the repercussions of climate change, driven by our use of fossil fuels. There can no longer be any doubt that our dependence on oil is a critical problem, one that must be addressed. The sheer size of this problem is such that there will be no quick fix. Oil represents about 40% of our energy consumption and we import about 60% of the oil we use.   That statistic will not be transformed overnight. But there are other statistics that will not change, as well. China has accounted for fully 40% of the recent increase in global oil demand. It will put another 120 million vehicles on the road over the next 5 years. Along with India, and a reindustrializing Eastern Europe, that growth in global demand is not going to be reversed. The fit between global supply and demand today is extremely tight. Billions of dollars of new investment may keep pace with demand, but will do little to ease the price at the pump. And new supply, from conventional or unconventional sources of oil, will only hasten the process of climate change, and will simply delay our transition to the alternatives than can address our addiction to oil.

What are our alternatives to oil? In the short term, ethanol from corn could be a first step away from our oil addiction, by providing a liquid fuel that is compatible with existing internal combustion engines that power our cars, trucks, and buses. We will hear today about the costs and benefits of taking such a step, and the steps that must follow toward sugar or cellulosic ethanol. Ethanol will be just part of a broader energy policy that will reduce our dependence on oil, and will reduce the leverage that the oil-producing nations have over our foreign policy and our national security. If it was not clear before, it is now. Domestic energy policy is at the center of our foreign policy.

Mr. Khosla, you mentioned some intriguing possibilities with regard to the acreage issue. As you pointed out, sometimes critics of alternative plans point out that we are limited in this country by the number of acres we could devote. Usually the argument is made, first of all, with regard to corn ethanol, but then as you observe, maybe more generally with regard to switchgrass or biofuels materials that might come in the cellulosic ethanol in addition. In the figures that you gave—and sort of retrace this for us, if you will—you talked about 400 to 500 gallons of ethanol per acre coming from, as I understand, current practices. Is that in the corn field or the cellulosic field? What are the 400 or 500 gallons at this point?

Mr. KHOSLA. Sir, roughly 140-some bushels per acre times 2.7 or 2.8 gallons of ethanol per bushel would result in about 400 gallons per acre, roughly.

The CHAIRMAN. So that is the corn yield, the 140 bushels.

Mr. KHOSLA. Yes.

The CHAIRMAN. Now, how do we get from there to some multiple? And, ultimately, in the years beyond, you were even talking about 3,000 to 5,000, which is quite a jump.

Mr. KHOSLA. I expect that we can get to yields of corn, according to the National Corn Growers Association, approaching 2,000 bushels per acre.

The CHAIRMAN. 2,000 bushels per acre.

Mr. KHOSLA. By 2015.  I believe cellulosic technologies have the most impact when it comes to achieving yields of 3,000 gallons per acre.

The CHAIRMAN. Now, let me just run back through this because 2,000 bushels per acre in a timeframe of 2015——

Mr. KHOSLA. I’m sorry; 200 bushels per acre.

The CHAIRMAN. From my father’s experience on the same farm, 60 years ago, we were getting 40 or 50 and we are now getting 140 or 150 in our generation.  Even if we get to 200 bushels to the acre times 2.7, that gets you to 540 or so, which is not 3,000. So when you get to the 3,000 mark, there has got to be something else, and this is more in the cellulosic variety, I gather.

Mr. KHOSLA. A basic assumption I make is we can now get about 6 tons per acre of biomass yields. The best plant biologists in the country I have talked to completely support the notion that in 25 years, that yield can go up to 27.5 tons per acre. If we can do 27.5 tons per acre and 118 gallons per ton of biomass, then the numbers are what we get in this chart on page 58, roughly about 3,000 gallons per acre.

The CHAIRMAN. The skeptics would say, after all, there is not enough land left in America to do all these sorts of things. At best, this is still a niche idea in which you do a little bit of it, get maybe, single digits or 20% of our needs, but that is about where it ends. So, therefore, all this talk about independence—in my opening statement, I am talking about some grim facts, and that is, even if there is a lot of oil left on earth and if, in fact, there are a lot of reserves that are still not exploited, 77% plus are held by other governments. And these are not benign people. Somebody that shuts off the tap to Ukraine, for example, accomplishes something that you do not have to send aircraft over or tanks or what have you to do. You can obliterate a country this way. It is not advisable people do this very often. And that is one reason that we are talking about this because we have said as these things begin to close in, the knives get sharper and the elbows, likewise. People in a strategic position decide to use this aggressively against others and maybe against us. People who do not understand the existential problem here, not just for Ukraine, but, ultimately, for the United States, really need to wise up.

Both of you have mentioned, in one form or another, oil sands, Canada, Alberta. Now, the Energy Minister was in last week, and he said the problem there is that we cannot get people to do the work. Literally this is very tough work. It is very cold. It is very messy. It is very dirty. They cannot get enough Canadians, Americans, Mexicans, anybody in the hemisphere. The Mexican Energy Minister was there. They cannot furnish enough people from Mexico to make that work. So, theoretically, you have oil sands up there. We have, unfortunately, some human problems. How do you get people to work the oil sands? Now, eventually, we may get through that.

We still have people in denial that climate change or global warming is a real problem. This is almost a theological debate even with major newspapers and publications in this country. So although you are in a group of people that believe this is for real and we have to deal with it, as politicians we find a lot of people who do not believe in this, who think essentially it is sort of an elite group of people who meet with the Foreign Relations Committee from time to time and talk about things that are vaguely subversive to normal American practice.

Senator BIDEN. To the oil industry. They think it is subversive.

The CHAIRMAN. Now, finally, while I am spouting off about all of my prejudices, which you have listened to, on the CAFE standards, we have got a situation here. We debate this issue all the time. In the House committee last week, by a vote of 28 to 26, they, at least, had a nominal CAFE standard. Democrats on the committee, who voted en bloc against that—and they were the 26— said, well, this does not amount to anything. What you really need is a 33-miles-per-gallon standard. That was offered by one gentleman and that lost 37 to 16, as I recall. I do not know where they all stand now.

Senator BIDEN.  Mr. Grumet, you said that the National Highway Transportation Safety Administration, although it is well intended—the discussion of CAFE standards may not produce the effect we desire. What should we be doing here in Congress?

Mr. GRUMET. I think this really does come down to a question of institutional capacity. The people at NHTSA are well-intended, hard-working people, and when they imagine how to make the optimum changes in CAFE, what they try to do is figure out what is the total social value of saving a gallon of gasoline and what is the cost of new technologies to achieve that, and they try like any good economists to make the lines cross. So what NHTSA just did was they reformed the structure of CAFE in ways that I think bring greater economic efficiency to the program. It gets you out of the idea that all cars have to meet the same standards. So it is kind of a continuum of weight-based results. And all of that is perfectly fine and good. But the key input was the number they put into the model to say what is the total social value of saving a gallon of gasoline over the next 10 years, and that was $1.70. They used, by law, the EIA projections of the cost of a gallon of gasoline, which are presumed to flatten out by around $2, and they take the taxes off that. So we get $1.60 of real value of a gallon of gasoline. And then when they looked through 50 different ways that gasoline and oil also affect our economy, the sum total of the benefits of reducing a gallon, they come up with is about 6 cents. And they looked hard within the abilities of a guy with green eyeshades and a computer. They looked actually at the value of spending less time standing at a gasoline station squeezing fuel into your tank. They looked at what they perceived to be the value of reducing air pollution. They looked at what they perceived to be the value of reducing the vulnerability to price shocks. They looked at the value of military, and I will read to you the quote from the regulatory impact statement. ‘‘The U.S. military presence in world regions that represent vital sources of oil imports also serves a range of security and foreign policy objectives that is considerably broader than simply protecting oil supplies. As a consequence, no savings in Government outlays for maintaining the Strategic Petroleum Reserve or a U.S. military presence are included among the benefits of the light duty truck CAFE standards.’’

Someone has to help NHTSA think about tensions with China, foreign policy prerogative, military costs, and things that are simply beyond their tools and competence.

Mr. KHOSLA. we are very, very close to a tipping point of permanently getting away from petroleum. I believe we have the capacity in this country to meet all of our needs within a relatively short period of time.

If you can imagine going beyond America, because it is transformative of rural America, it will repeat that phenomena all over the world. If one was to address the question of poverty, another question I am personally very interested in—and microfinance is my other area of endeavors—and you draw a poverty belt, it is all around the equator. The poverty belt runs 20 degrees north and 20 degrees south of the equator. That is the part of the world that will be rejuvenated completely by a switch to biomass fuels. We will address the poverty question much more effectively with this transformation and have global impact. Also, if one might imagine a map of the world, one can see America meeting its needs and Canada’s needs, sort of North America meeting its needs; South America supplying South America and Europe; Australia with lots of land supplying China; India being relatively self-sufficient; and Africa sort of being a big buffer zone for biomass. So one can almost paint a global picture of supply and demand and the regional and local balances that I am happy to elaborate in more detail, if you would like. That to me is the most exciting part of this transformation beyond just meeting our energy independence goals. It changes the planet beyond changing the face of rural America, and that is exciting. That is very exciting. And it is very doable. It is not esoteric.

RUSSELL D. FEINGOLD, WISCONSIN.  I appreciate the Chair’s unfailing commitment to the issue of energy security. He has been a constant voice, using this committee’s area of jurisdiction, warning us about the implications of our energy choices and today’s hearing continues these efforts. As we all know, our current over-dependence on oil poses grave risks for our country—for our national security, for our economy, and for our environment. While I remain saddened that we didn’t use last year’s energy bill to really push the envelope, I am optimistic that we will soon get it right and provide an energy vision to bring us into the 21st century.

NORM COLEMAN, MINNESOTA. I think this is one of the most important issues facing this country today. There’s no question about it. It is a national security issue. It is an economic security issue. It is about our present. It is about our future. So I am glad that we are thinking outside the barrel, and I think this is an opportunity

 

RICHARD G. LUGAR, INDIANA.   The Foreign Relations Committee meets today to consider the externality costs of U.S. dependence on fossil fuels. The gasoline price spikes following the Katrina and Rita hurricanes underscored for Americans the tenuousness of short-term energy supplies. Since these events, there is a broader understanding that gasoline and home heating prices are volatile and can rapidly spike to economically damaging levels due to natural disasters, terrorist attacks, or other world events. But, as yet, there is not a full appreciation of the hidden costs of oil dependence to our economy, our national security, our environment, and our broader international goals. Today, with the help of experts who have thought a great deal about these issues, we will attempt to more clearly define some of these costs. We are cognizant that this is a difficult and imprecise exercise. We are also aware that most, if not all, energy alternatives have some externality costs. But we are starting from the presumption that if we blithely ignore our dependence on foreign oil, we are inviting an economic and national security disaster. With less than 5% of the world’s population, the United States consumes 25% of its oil. If oil prices remain around $60 a barrel through 2006, we will spend approximately $320 billion on oil imports this year. Most of the world’s oil is concentrated in places that are either hostile to American interests or vulnerable to political upheaval and terrorism. More than three-quarters of the world’s oil reserves are controlled by national oil companies. And within 25 years, the world will need 50% more energy than it does now. These basic facts demand a major reorientation in U.S. policy aimed at reducing U.S. dependence on fossil fuels. Our goals must be to mitigate the short-term costs of our dependence on oil, while pursuing energy alternatives that would reduce the international leverage of petro-superpowers, improve environmental quality, cushion potential oil price shocks, stimulate new high-tech energy industries, and ground the American economy on energy sources that will neither run out nor be cut off by a foreign supplier.

There are at least six basic threats associated with our dependence on fossil fuels. First, oil supplies are vulnerable to natural disasters, wars, and terrorist attacks that can produce price shocks and threats to national economies. This threat results in price instability and forces us to spend billions of dollars defending critical fossil fuel infrastructure and choke points. Second, over time, finite fossil fuel reserves will be stressed by the rising demand caused by explosive economic growth in China, India, and many other nations. This is creating unprecedented competition for oil and natural gas supplies that drives up prices and widens our trade deficit. Maintaining fossil fuel supplies will require trillions in new investment—much of it in unpredictable countries that are not governed by democracy and market forces. Third, energy rich nations are using oil and natural gas supplies as a weapon against energy poor nations. This threatens the international economy and increases the risk of regional instability and military conflict. Fourth, even when energy is not used overtly as a weapon, energy imbalances are allowing oil-rich regimes to avoid democratic reforms and insulate themselves from international pressure and the aspirations of their own people. In many oil rich nations, oil wealth has done little for the people, while ensuring less reform, less democracy, fewer free market activities, and more enrichment of elites. It also means that the United States and other nations are transferring billions of dollars each year to some of the least accountable regimes in the world. Some of these governments are using this money to invest abroad in terrorism, instability, or demagogic appeals to anti-Western populism. Fifth, reliance on fossil fuels contributes to environmental problems, including climate change. In the long run, this could bring drought, famine, disease, and mass migration, all of which could lead to conflict and instability. Sixth, our efforts to facilitate international development are often undercut by the high costs of energy. Developing countries are more dependent on imported oil, their industries are more energy intensive, and they use energy less efficiently. Without a diversification of energy supplies that emphasizes environmentally friendly options that are abundant in most developing countries, the national incomes of energy poor nations will remain depressed, with negative consequences for stability, development, disease eradication, and terrorism.

Each of these threats comes with short- and long-term costs. As a result, the price of oil dependence for the United States is far greater than the price consumers pay at the pump. Some costs, particularly those affecting the environment and public health, are attributable to oil no matter its source. Others, such as the costs of military resources dedicated to preserving oil supplies, stem from our dependence on oil imports. But each dollar we spend on securing oil fields, borrowing money to pay for oil imports, or cleaning up an oil spill is an opportunity missed to invest in a sustainable energy future. Certain types of costs are extremely difficult to quantify. We understand that many national security risks are heightened by our oil dependence. But how, for example, would we assign a dollar figure to Iran’s use of its energy exports to weaken international resolve to stop its nuclear weapons program?

HILLARD HUNTINGTON EXECUTIVE DIRECTOR, ENERGY MODELING FORUM, STANFORD UNIVERSITY, STANFORD, CA

A number of knowledgeable experts, however, are concerned about the very real possibility of much more damaging shocks in the future. A group assembled by Stanford’s EMF thought that the odds of, at least, one very damaging shock over the next 10 years were higher than those of an oil market with some volatility but without such a shock. Although another major oil disruption is not a certainty, its likelihood is significantly high enough to be worrisome. Your odds of drawing a club, diamond, or heart from a shuffled deck of playing cards are three out of four. In the EMF study, the participants found that the odds of a foreign oil disruption happening over the next 10 years are slightly higher at 80%. Disruption events included surprise geopolitical, military, or terrorist turmoil that would remove at least 2 million barrels per day—an amount representing about 2.1% of expected global oil production. Foreign disruptions of this magnitude would have more serious effects on oil prices and the economy than we have seen with the Katrina and Rita hurricanes. Oil prices, however, would rise more and for longer than a few months or a heating season.

The approach identified four major supply regions where disruptions are most likely. These regions account for approximately similar shares of total world oil production. Collectively, they account for about 60% of total world oil production. The study lumped Algeria, Angola, Libya, Mexico, Nigeria, and Venezuela as the first region, called ‘‘West of Suez.’’ Saudi Arabia was the second region, and other Persian Gulf states—Iran, Iraq, Kuwait, Qatar, UAE, and Oman— were the third. Russia and the Caspian states comprised the fourth region.

The riskiest areas were the Persian Gulf countries outside of Saudi Arabia and several countries along the Atlantic Basin, such as Nigeria and Venezuela. The least risky area was Russia and the Caspian states. Although the participants found the possibility of disruptions was lower in Saudi Arabia than in several other vulnerable regions, disruptions there would tend to have larger effects.

In the second study on the economic consequences of a major disruption, we sought to understand how easily the economy could absorb such a shock. Figure 1 shows that oil price shocks preceded 9 of the last 10 recessions in the United States.

This finding was first advanced by Professor James Hamilton at University of California at San Diego and has been confirmed by numerous other researchers.

Some people think that oil shocks may not be a problem because the Federal Reserve Board could intervene and lessen the impact. I have a great deal of faith in the Federal Reserve Board. They have done a marvelous job in controlling inflation, which places the U.S. economy in a better position for offsetting oil disruptions than in previous decades. I am not yet convinced that they can compensate the economy for a large devastating disruption. They would have to make some important decisions very quickly at a time when fears were running rampant. They may also find it difficult to stimulate the economy because nominal interest rates are already very low, not only here but also abroad. For this reason, I think that the United States should seriously consider other types of insurance policies that would allow the Federal Reserve Board more leeway and flexibility in controlling our inflation rates.

As a general rule, strategies that reduce our dependence on oil consumption are more effective than policies that reduce our imports. One should view the world oil market as one giant pool rather than as a series of disconnected puddles. When events happen anywhere in the market, they will raise prices not only there but also everywhere that connect to that large pool. Since reducing our imports with our own production does not sever our link to that giant pool, disruptions will cause prices to rise for all production, including that originating in the United States. More domestic supplies do not protect us from these price shocks.

As a result of the 1970 oil price shocks, we shifted away from oil in many sectors in the early 1980s, but that trend has slowed considerably since then. Moreover, transportation remains strongly tied to oil use. The dependence on oil in transportation not only affects households directly through higher gasoline costs but it also raises the costs of transporting goods around the country.

In summary, the nation is vulnerable to another major disruption not because the economy imports oil but primarily because it uses a lot of oil, primarily for gasoline and jet fuel.

Oil-importing governments have committed significant political and military resources to the Middle East over a number of decades in order to provide regional stability that is critical to world oil supplies. Excessive exposure to oil vulnerability risks in this country increases these costs or reduces the capacity to pursue foreign policy objectives that are for mitigating nuclear proliferation, terrorism, and other risks that reduce global security.

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China consumes mind-boggling amounts of raw materials

September 10, 2015. China Consumes Mind-Boggling Amounts of Raw Materials. Visual Capitalist.China consumption raw materials

 

 

 

 

 

Over the last 20 years, the world economy has relied on the Chinese economic growth engine more than it would like to admit. The 1.4 billion people living in the world’s most populous country account for 13% of global GDP, which is significant no matter how it is interpreted. However, in the commodity sector, China has another magnitude of importance. The fact is that China consumes mind-bending amounts of materials, energy, and food. That’s why the prospect of slowing Chinese growth is likely to continue as a source of nightmares for investors focused on the commodity sector.

The country consumes a big proportion of the world’s materials used in infrastructure. It consumes 54% of aluminum, 48% of copper, 50% of nickel, 45% of all steel, and 60% of concrete.

China has consumed more concrete in the last three years than the United States did in all of the 20th century.

China is also prolific in accumulating precious metals – the country buys or mines 23% of gold and 15% of the world’s silver supply.

With many mouths to feed, China also needs large amounts of food. About 30% of rice, 22% of corn, and 17% of wheat gets eaten by the Chinese.

Lastly, the country is no hack in terms of burning fuel either. Notably, China uses 49% of coal for power generation as well as metallurgical processes in making steel. It also uses 13% of the world’s uranium and 12% of all oil.

These facts really hit home to show how important China is to the global consumption of raw materials. If China is unable to navigate its tricky transition to a consumer-driven economy and has a “hard landing”, it will be unlikely to see any growth in commodity prices triggered from the demand side. That said, supply is equally as important and it tells a different story: with companies like Glencore cutting copper production by 400,000 tons to better service its massive debt, the floor for commodities could be in.

 

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Most energy efficient: passenger bus, rail, or auto?

Preface. Weight reduces energy efficiency, so one way to make transportation more efficient is to light-weight rail cars, buses, trucks, and cars. For every 10% reduction in weight, up to 7.6% more fuel efficiency can be gained (Joost 2012). While a great deal has been done to lighten buses, cars and trucks, railcars aren’t replaced for decades.

So unless passenger rail cars are full, they can be the least energy efficient, even a passenger car with 4 people will carry more passengers per gallon.  This is often true, because the long trains running at rush hour continue to remain long as the time and cost to pay workers to shorten them mid-day is often not done.

Another issue with weight are that limits to growth in metals. Ore qualities are declining at the same time the energy to mine, crush, smelt, and fabricate metals is also in decline. The average weight of a vehicle in 1987 was 3,221, in 2022 it’s 4,156 pounds, with a Tesla Model X weighing almost 5,400 pounds.  And 3 billion more people are expected by 2050, and they’ll all want cars.

To get all the materials required, it won’t be long before we’re floating in outer space: by 2050, material consumption will need to almost triple to 180 billion tonnes of materials, almost three times today’s amount. If 180 billion tonnes grows in the future at 5% compound rate, in 497 years the entire earth will be consumed, all 5.972 x 10²¹ tonnes of it (Friedemann 2016).

When it comes to mass transit, efficiency is rated in people per gallon of gas. Full lighter-weight buses with diesel engines, which are nearly twice as energy efficient as gasoline engines, are the most efficient, and can be scaled up and down easily, and routed flexibly, unlike light rail.  Passenger rail cars are very seldomly replaced, the average U.S. Amtrak rail car is 21 years old today, in 2016 the average BART (bay area rapid transit) car was 40 years old.

What follows is based on the following document: NRC. 2015. Comparison of Passenger Rail Energy Consumption with competing modes. National Research Council, National cooperative rail research program, National Academies Press.

As the authors note in this paper “to date, decisions about train types and operating patterns in the passenger rail industry have not been strongly influenced by energy use and efficiency concerns”.

Alice Friedemann  www.energyskeptic.com  Author of Life After Fossil Fuels: A Reality Check on Alternative Energy; When Trucks Stop Running: Energy and the Future of Transportation”, Barriers to Making Algal Biofuels, & “Crunch! Whole Grain Artisan Chips and Crackers”.  Women in ecology  Podcasts: WGBH, Jore, Planet: Critical, Crazy Town, Collapse Chronicles, Derrick Jensen, Practical Prepping, Kunstler 253 &278, Peak Prosperity,  Index of best energyskeptic posts

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Since the 1970s, studies have always shown buses are more energy efficient than rail (and cars and airplanes).

After the 1973 and 1979 energy crises hundreds of energy efficiency studies were done, and hard to find since they’re stored as images not text (i.e. see May 1976 Bibliography for Transportation energy conservation, Transportation Center Library, Northwestern University, Evanston, IL)

Yet despite the inevitable decline of oil production, which probably started worldwide in 2018 for both conventional and unconventional, similar studies are rarely done today.  Nearly all papers today only care about greenhouse gas emissions.

One of these early studies by Mittal (1977) found if every seat had a passenger, a bus was by far the most energy efficient transportation mode (energy intensity BTU seat/mile):

Bus 500         Rail 1000         Compact car 1100         Average car 1600        Airplane  3600

A compact car comes close to being nearly as good as rail if all 4 seats are taken. When Mittal did this study, the average compact car had an average of 20 mpg.  But the best subcompact cars would have beaten rail since their combined 1977 city/highway miles per gallon were quite high: Honda Civic 44 (in 2016 at best 35), Honda Accord 42 (in 2016 at best 31), Toyota Corolla 41 (in 2016 at best 32), and so on (USDOE/AFDC 1977).

Based on actual ridership, rather than all seats filled, buses were still the most energy efficient, and compact autos (2.4 passengers) were even more energy efficient than trains:

Bus 1100, Compact auto 1900, Rail (Metroliner) 2000, Average Auto 2650, Rail intercity 3500, Airplane 6500

The Mittal study found that autos are most efficient from 50 to 60 mph.  But passenger trains reach peak energy efficiency at cruising speeds in the range of 20 to 30 mph, so to increase ridership and get people out of their cars, trains operate at faster, energy-inefficient speeds.

In 2016, buses are still more energy efficient than rail

Another reason rail tends to be less efficient than buses, or even autos, is that people usually need to drive to a train station, which adds to overall oil consumption.

This paper looked at other studies which I’ve summarized in Table 1. As you can see, buses perform on average 118% better than rail (from 24 to 218% better).   The numbers represent energy intensity in BTUs, so the lower the number the better.

And buses are better for other reasons — they can change routes, it’s easier to add more buses than to shorten and lengthen train cars.  In fact, in may passenger rail systems, it takes so much time, and so much money to remove rail cars during the day when there are few riders, that maximum length rush-hour trains run all day long, wasting tremendous amounts of fuel.

The best high-mileage cars would often beat rail as well, but since only average cars, with not-so-great miles per gallon were used in all of the studies, so I didn’t include autos, or airplanes, which are the worst wasters of oil by far.

Seat-miles per gallon (SM): ideal result: all seats are occupied.

Passenger –mile per gallon (PM): the actual energy efficiency given real ridership, also called the load factor, which is the average percentage of seats occupied by passengers.

Table 1. Energy intensity of bus versus rail

 NRC TABLE % Bus > Rail SM Bus

BTUs/ SM

Rail BTUs/

SM

% Bus >Rail PM Bus BTUs/

PM

Rail BTUs/ PM
Table 2-4 100 500 1000  
Table 2-4   82 1100 2000
Table 2-4   218 1100 3500
Table 2-6 90 551 1046  
Table 2-6 180 551 1542  
Table 2-6   83 1156 2114
Table 2-9   24 1290 1596
Table 2-9   193 860 2518
Table 2-9   93 880 1699
Table 2-9   122 921 2047
Table 2-10   117 659 1427

 

  • Table 2-4. Energy intensity of intercity passenger transportation modes (Mittal 1977)
  • Table 2-6. Energy intensity of Canadian passenger travel modes in 1996 (Lake et al. 1999)
  • Table 2-9. Energy intensity of passenger modes—selected Canadian routes (English et al. 2007)
  • Table 2-10. Emissions and energy intensity of passenger modes— selected routes in Spain (Alvarez 2010)

Passenger trains that aren’t full waste a lot of energy. Train-miles per gallon measures the overall energy efficiency of the entire train. With passenger trains, the heaver the train, the less energy efficient it will be.  The weight of passengers, even if the train is full, is usually not enough to make a difference.

Since locomotives and rail cars last 40 years, many mass transit systems are using heavy equipment that wastes fuel whether the train is full or empty.

When mass transit agencies are finally able to buy new equipment, the new locomotives and train cares are still heavy due to needing to comply with out-of-date rules on crash safety.  This prevents agencies from buying cheaper, lighter, safer, and far more energy-efficient European, Australian, or Asian equipment.

Buses have a hard time competing with rail when energy efficiency isn’t a priority

People find trains more pleasant, they often come with dome cars, bars, more comfortable seating, go faster, and have a smoother ride.  Who doesn’t love trains?  The middle class sees buses as lower-class and would prefer to ride trains – especially high-speed rail which would also get them to their destination faster.

Why electric train data was not included

As the authors note several times in this document:

“A tank or “meter-to-wheels” comparison [of electric to diesel-electric locomotives] ignores potentially significant losses associated with the generation and transmission of electricity from a remote generating site to the electric locomotive. The conversion of diesel fuel to energy for traction takes place on board the diesel-electric locomotive, so any losses that occur in conjunction with the conversion are incorporated into efficiency measurements. By contrast, losses associated with the generation and transmission of purchased electricity from a remote station to an electric locomotive occur before the electricity arrives at the train, so they generally are not reflected in measures of efficiency for the train. Measures of efficiency that are based on comparisons of the energy content of the purchased fuel to purchased kWh of electricity are thus skewed in favor of the electric train.”

The authors point out that under actual operating conditions, rather than the idealized coasting data used to get high-speed rail funding, electric trains tend to consume more energy than the statistics show: “Electrification does not generally improve passenger rail energy efficiency when direct and upstream energy consumption is considered, unless the regional generation profile contains a substantial amount of renewable power generation. When combined with track upgrades, implementation of higher horsepower electric locomotives may facilitate more rapid acceleration and higher operating speeds that actually increase energy consumption.”

Mittal looked at all-electric and diesel-electric energy intensity (BTU per seat-mile) at a steady cruising rate of 65 mph, and what the actual energy intensity would be when actually operating.  He found that the energy intensity of diesel-electric in real conditions increased from 35 to 85%, and all-electric increased from 164 to 229%.  The real figures for the all-electric locomotive would actually be much higher, since the calculation does not include the energy consumed by the power plant and lost over the transmission wires to the pantograph.

Hopkins also found the diesel-electric to be more energy efficient than the all-electric (115-170 seat-miles-per-gallon versus 65-95).

I also explain why diesel-electric locomotives are more energy efficient than all-electric locomotives in my book “When trucks stop running: Energy and the future of transportation” in the “Why electrify” section of “Can freight trains be electrified?”.

Conclusion

Conserving energy is only a priority in a crisis.  Meanwhile everyone’s been attending the all you can consume oil keg binge party since Spindletop first blew its lid.  It is human nature to party until the hangover begins rather than care or worry about future generations.

Some day, when fossil fuels are scarce and rationed, especially oil, people will wonder why such waste was allowed to happen.  Why wasn’t efficient mass transit built, mainly buses, to discourage cars, which guzzle 63% of transportation oil in the U.S.?  Why were CAFE standards abandoned for 30 years?

I’ve found two congressional hearings that discuss this.  In of them, Carole Browner, former head of the EPA describes her experiences in a mock exercise of an oil crisis (called the Oil ShockWave) where she played the role of the Secretary of Energy.  “In this position I was supposed to suggest a series of short-term steps that could be taken by the American public to reduce oil use. [So] I said we could impose a 55-mile per hour speed limit, which would save 134,000 to 250,000 barrels of oil a day, year-round daylight savings time to save 3,000 barrels per day, and a Sunday driving ban to save 475,000 barrels of oil per day.  The other Cabinet members  rejected these ideas. They did not think they would be acceptable to the American people.”

Carter also explains how it was in the interest of both oil and car companies to keep vehicles inefficient (Senate 111-78):

“We have gone back to the gas guzzlers which I think has been one of the main reasons that Ford and Chrysler and General Motors are in so much trouble now. Instead of being constrained to make efficient automobiles, they made the ones upon which they made more profit. Of course, you have to remember, too, that the oil companies and the automobile companies have always been in partnership, because the oil companies want to sell as much oil as possible, even the imported oil-the profit goes to Chevron and others. I’m not knocking profit, but that’s a fact. And the automobile companies knew they made more profit on gas guzzlers. So, there was kind of a subterranean agreement there”.

References

Friedemann A (2016) Limits to Growth? 2016 United Nations report provides best evidence yet. energyskeptic

House 110-19. November 7, 2007. Oil Shock: Potential for Crisis. U.S. House of Representatives.  52 pages.

Joost WJ (2012) Reducing Vehicle Weight and Improving U.S. Energy Efficiency Using Integrated Computational Materials Engineering. JOM volume 64: 1032–1038

Senate 111–78. May 12, 2009. Energy Security: Historical perspectives and Modern challenges. U.S. Senate committee on foreign

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Oil Dependence and what to do about it. Senate hearing 2007

[ In recent years there have been so many hearings proclaiming energy independence that I thought I should publish more sessions where Congress admits to a dependency on oil. The same old solutions and ideas appear: drill baby drill, ethanol, make cars more efficient, and a former Navy Admiral advises the Senate that oil wars are not a good way to reduce oil dependency.

Alice Friedemann   www.energyskeptic.com  author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

Senate 110-260. May 8, 2007.  Energy security and oil dependence–recommendations on policies and funding  to reduce U.S. Oil dependence.  U.S. Senate hearing.

Excerpts from this 50 page document follow.

Senator DORGAN. We’re here to take testimony and better understand the key steps and funding mechanisms that are necessary for reducing U.S. oil dependence and for future U.S. energy security. We’ll also discuss the results of an analysis conducted to assess the economic impact of implementing the recommendations to the Nation on reducing U.S. oil dependence, a report that has been put together by the Energy Security Leadership Council. That’s a group of distinguished business and military leaders who, like me, view U.S. oil dependence as detrimental to our long-term security interests as well as our economic health. I think it’s safe to say that the goal for all of us is to improve the national economic and energy security of the United States.

We are, this country, the top oil consumer in the world. Most of us know that we suck about 84 million barrels of oil a day out of this planet of ours. We stick little straws in the Earth and suck oil out, and we in the United States use fully one-fourth of it every single day. We are prodigious consumers of oil.

Much of our oil comes from where it is most vulnerable in the world. Some very vulnerable regions of the country have a substantial amount of the resources. We are about 60 plus percent dependent on foreign sources of oil. That clearly, it seems to me, is not in our best interest. About 70 percent—just shy of 70 percent of the oil that comes into this country is used for transportation. We are unbelievably dependent, and growing in that dependence, on oil that comes from very troubled parts of the world. A substantial part, of which, after we import it, is used for transportation. And so God forbid there should be some terrorist attack some day that would shut off the pipeline of oil coming into this country. We would not only see dramatic increases in the price of that which we could import, but we would also see substantial disruption and substantial problems, and I think our economy would suffer a very serious long-term problem.

Let me say that I also, coming from a State like North Dakota, have a pretty acute awareness of the energy issue, particularly with respect to oil. We drive exactly twice as much per person in North Dakota as New Yorkers do. It’s not unusual for somebody to jump in a pickup truck and drive 200 miles, one way, to get some parts for the combine and drive 200 miles back and then go to work after that.

It seems to me that there are no silver bullets to address these issues, but there are plenty of good ideas that we need to embrace. We need to find ways to conserve. We need to find ways to produce more, domestically. And we need to encourage, especially, our home grown biofuels industry in this economy. With input from the Energy Security Leadership Council, Senator Craig and I have introduced something called, the SAFE Energy Act of 2007 that has four cornerstone principles, to reduce oil dependency.

These include increasing auto efficiency, expanded production and the use of biofuels like ethanol and biodiesel, and producing more of our own oil and gas resources by allowing access to domestic reserves, particularly in the eastern Gulf of Mexico.

SENATOR PETE V. DOMENICI.  I am certain that there is no magic bullet or immediate panacea to remedy this global problem of supply and demand economics. But this much I know—in order to strengthen our energy and economic security we must do more to reduce our dependence on foreign oil. That requires a common sense, balanced approach. It means that policies of drill-only or conserve-only are not enough. Instead, we must support policies that advance conservation and efficiency at home, additional domestic production in an environmentally sound manner, and diversification of the kind of fuels that power our lives.

When I was chairman of the Energy Committee in 2005, we passed the most wide-ranging comprehensive energy policy in decades. This bill includes long-term innovative policies on efficiency, renewable energy, nuclear energy, electricity. It also established the first-ever renewable fuel standard which brought renewable biofuels into our mix to displace foreign oil and created literally thousands of jobs and millions of dollars in a revitalized rural economy in America. Last year, we passed the Gulf of Mexico Energy Security Act which opens up the 181 Area and 181-South Area in the Gulf of Mexico. In total, these 8.3 million acres are estimated to contain 1.26 billion barrels of crude oil and 5.83 trillion cubic feet of natural gas—enough natural gas to heat and cool 6 million homes for about 15 years. This will provide much needed natural gas relief for our industrial and home consumers, and will bolster our energy security by increasing our domestic oil and gas production. Finally, this year, we have passed a biofuels and energy efficiency bill out of the Energy and Natural Resources Committee

SENATOR LARRY CRAIG.  Americans are growing increasingly concerned that we are phenomenally dependent on unstable foreign sources of oil. In Nigeria today, three pipelines blew up. Six Chevron employees held hostage. It is a very unfriendly world out there. And that unfriendly world in the name of Petro-Nationalism has learned how to jerk the tail of the giant, us. And that’s a tragedy for us, potentially, if we don’t do something about it.   For this great Nation not to know what’s in the No Zone of the east coast, not to know what’s in the No Zone of the west coast, not to be optimizing that which is in the gulf, is a shame on us.

FREDRICK W. SMITH, CHAIRMAN, PRESIDENT AND CEO, FEDEX CORPORATION.

The Energy Security Leadership Council is a group of 20 business CEOs and retired military officers, who’ve been moved to action out of the conviction that oil dependence severely threatens the economic and national security of the United States. We would argue, in fact, that oil dependence is the most important security issue facing the Nation, with the possible exception of weapons of mass destruction.

In December the council unveiled a set of recommendations to the Nation on reducing U.S. oil dependence. The report outlines a comprehensive energy security strategy based on four measures: One, new strength in vehicle fuel efficiency standards; two, increased domestic oil production in conjunction with expanded environmental protections; three, greater availability of alternative fuels; and four, improved international arrangements to secure global oil supplies.

The recommendations replace the false hope of domestic energy independence with realistic policies for better managing the reality of global energy interdependence.  We believe the time has come for Americans to unite behind an aggressive campaign to reduce our dependence on oil and increase domestic and global energy security. The recommendations we’ve made are balanced policies. We consume now, more than 20 million barrels of oil a day, one-quarter of the world’s total. More than 60 percent of the oil we use is imported; 70 percent of that oil goes toward transportation, which relies on oil for 97 percent of delivered energy with almost no substitutes available. As the CEO of an organization of 280,000 people operating 677 aircrafts around the world and over 70,000 vehicles, I can assure you this issue commands our daily attention.

In the event of an oil crisis, transportation would break down and paralysis would spread into all economic sectors. A brief look at the history of Japan and Germany during World War II will illustrate the importance of energy vulnerability.

The American people must recognize that the 21st century global oil market is well removed from the free market ideal, as you mentioned. By some estimates, over 90 percent of all oil and gas reserves are now held by national oil companies that are partially or fully controlled by governments, many of whom do not have America’s best interest at heart.

The American people must be told the hard facts about energy security.

The time has come for Americans to unite behind an aggressive campaign to reduce our dependence on oil and increase domestic and global energy security. To succeed, we must move beyond the narrow interests, political polarization, and short-term thinking that have prevented meaningful national progress for the last 20 years.

Unless we tackle these hard choices, I have no doubt that oil dependence will result in major economic disaster for this country. Oil is the life-blood of our economy.

FedEx has grown because quick and efficient transportation creates value throughout the entire economy. In the event of an oil crisis, transportation would break down and paralysis would spread into all economic sectors.

Given these hard realities, we must accept that market forces alone will not solve our oil problems. Instead, government must step in to spur and, in some cases, require private-sector responses. This is not a decision I came to easily, and I am certainly not one to encourage regulation where other effective solutions are available. But the fact is the supply of oil—the most valuable commodity in the world—is determined by a group of men who gather together and collude in ways that would be considered illegal in the United States. To combat such anti-competitive practices, government intervention is not merely desirable—it is essential.

The Council’s approach tackles oil dependence through many policies, but none is more crucial than reformed and strengthened vehicle fuel-economy standards. Under the Council’s proposal, the fleet of new passenger cars and light trucks sold in the United States each year will have to get 4 percent more miles per gallon than the fleet of cars and light trucks sold the year before. The same improvement will be required for commercial trucks, which have never previously been subject to fuel- economy standards.

Four percent is not an arbitrarily chosen number. It reflects the historical annual gains that were achieved when the Nation last committed itself to fuel economy. It is also perfectly consistent with expert forecasts of potential future fuel economy improvements.

To improve energy security, America needs to get millions of fuel efficient cars on the road.

The fuel economy of medium and heavy trucks is well below what it could be. A 2002 study conducted by the U.S. Department of Energy (DOE) found that currently available technologies could raise tractor-trailer mileage from 6 mpg to 10 mpg. A more recent analysis performed by DOE in 2005 suggests that an even higher level is feasible. Potential improvements for medium trucks run as high as 90 percent. And, perhaps most importantly, these gains are not projected to have any negative impact on performance.

So, you may be asking, why don’t we have these trucks? Don’t truck operators look to minimize costs by adopting cost-effective fuel-saving technologies? The answer, of course, is that some do and some don’t. As with purchasers of passenger cars, it is often difficult for truck buyers to correctly value the financial benefit of fuel-efficiency investments that require large up-front investments and produce savings over an extended time. Lack of information about available technologies and their fuel saving potential may also slow adoption of fuel-saving technologies, especially since fuel efficiency depends on a combination of elements (e.g., engine, chassis, aerodynamics) that are often marketed by separate manufacturers. But if you ask me, the key reason for lagging truck fuel economy is that manufacturers have not made such vehicles available. The market failures that have worked against passenger fuel economy are also evident in the truck sector. Indeed, since the manufacture of commercial vehicles is even more concentrated than is the case for passenger vehicles, the effects of the market failure may be even more pronounced in this sector.

To improve energy security, we must use oil more efficiently, but we must not stop there. Diversifying our transportation fuel supply should also be a key part of our national strategy to reduce oil dependence. Without an expanded supply of alternatives, conventional petroleum will continue to power nearly all of our motor transport. Such reliance on a single non-substitutable input creates profound economic dangers.

Biofuels are part of the solution, but we should not fool ourselves into thinking that America can ‘‘grow’’ its way out of this problem. America’s fuel needs cannot be met with biofuels alone. Even Brazil, which has roughly the same land mass as the continental United States, but whose fuel requirements are only a small fraction of ours, still relies on oil for most of its transportation energy.

ADMIRAL GREGORY G. JOHNSON, UNITED STATES NAVY (RET.), FORMER COMMANDER, UNITED STATES NAVAL FORCES, EUROPE

Oil dependence is one of the most serious economic and national security challenges facing our Nation.

Ever since launching his war against the United States, Osama bin Laden has threatened attacks on oil installations in the Arabian Gulf region. Just last year massive oil supply shock was only narrowly averted when the al-Qaeda attack on the Abqaiq facility was barely foiled. Sixty percent of Saudi Arabia’s oil goes through this facility. Two weeks ago the Saudi authorities again uncovered an al-Qaeda plot that threatened oil infrastructure targets.

Iraq is also the scene of persistent insurgent and terrorist attacks on pipelines and pumping stations especially in the north of Iraq and in the offshore loading platforms in the northern Arabian Gulf. These attacks have curtailed Iraqi oil exports and cost the Iraqi government billions of dollars in revenue at a time when American taxpayers are spending billions on reconstruction. The danger of attacks in shipping is also quite real. In October 2002, the French supertanker, Limburg, was rammed by a small boat packed with explosives off the coast of Yemen. Most of all shipments from the Persian Gulf have to pass through a handful of maritime chokepoints. Fully one-half, 40 million barrels a day of oil, transiting our world’s oceans go through restricted waterways: the Strait of Hormuz, the Strait of Mirlocca, the Strait of Babel Mandeb, the Turkish Straits, and the Suez Canal. All of our regional combatant commands handle all security tasks. For instance, the European command, where I commanded naval forces at the close of my career is involved in oil security tasks and missions from the Caspian Sea Transcaucasus region to the Gulf of Guinea in West Africa. And you just heard what happened there today in Nigeria.

The armed forces of the United States have been extraordinarily successful in fulfilling their energy security mission but this very success may have weakened the Nation’s strategic posture by allowing America’s political leaders and the American public to believe that energy security can be achieved by military means alone. We need to change that paradigm. The U.S. military is certainly not the only instrument, in many cases not the best instrument, for confronting the strategic dangers that emanate from oil dependence.

This is particularly true when oil is used as a political weapon and we certainly all remember the 1973 oil embargo and the consequences of that. And that—we all know that Russia is beginning to exercise its commodity muscle as evidenced by the stop of natural gas exports to Ukraine, which, in turn, withheld natural gas destined for western Europe.

Energy exporting governments don’t need to resort to full-fledged embargoes to hurt U.S. and other importers. They can manipulate prices through less drastic production—cuts and by foregoing improvements in their infrastructure. Witness what is happening in Venezuela. Currently an estimated 90 percent of global oil reserves are controlled by national oil companies, NOX, which are highly susceptible to being influenced by political objectives. European Union’s reliance on Middle Eastern oil and Russian gas continues to complicate U.S. foreign policy efforts, especially with regard to stopping Iran from developing nuclear weapons. China, of course, exercises its interest in Sudanese oil by stymieing diplomatic efforts in Darfur. The U.S. Government must make comprehensive energy security a top strategic priority.

Clearly, we face committed enemies with the intent and capability to cause major disruptions. Some of their attacks on the Saudi oil economy have already succeeded, for instance their attacks on expatriate residential compounds in Riyadh in 2002 and in al-Khobar in 2004.

Iraq is the scene of persistent insurgent and terrorist attacks on pipelines and pumping stations, especially in the North of the country. These attacks have curtailed Iraqi oil exports and cost the Iraqi government billions of dollars in revenue at a time when American taxpayers are spending billions on reconstruction. If violence continues, and especially if it spreads to the south, where most export facilities are located, then all of Iraq’s oil production could be at risk. The danger of attacks on shipping is also quite real. In October 2002, the French supertanker Limburg was rammed by a small boat packed with explosives off the coast of Yemen.

Nearly all of our U.S. military commands handle oil security tasks. Central Command guards access to oil supplies in the Middle East. Southern Command defends Columbia’s Cano Limon pipeline. Pacific Command patrols tanker routes in the Indian Ocean, the South China Sea, and the Western Pacific. European Command, where I was in charge of all naval forces at the close of my career, is involved in oil security all the way from the Caspian Sea to West Africa. The armed forces of the United States

The 1973 Arab embargo is still the most famous example of the use of energy as a strategic political weapon. But in recent years, Russia has shown the most willingness to play this dangerous game, just as at the beginning of 2006 when it stopped natural gas exports to the Ukraine, which in turn withheld natural gas destined for Western Europe. The danger of conflict with a nuclear power like Russia should make it abundantly clear that there are limits on how we can use military power to guarantee energy flows.

In an oil-dependent world facing increasingly tight supplies, the growing power of the oil-exporting countries and the shifting strategic calculations of other importing countries have lessened U.S. diplomatic leverage. Iran, which exports to the U.S.’s European and Asian allies, has threatened to use the ‘‘oil weapon’’ to retaliate against efforts to constrain its nuclear program. Venezuala’s Hugo Chavez incessantly brandishes the threat to cut off oil to the U.S. And Russia’s growing self-assurance and assertiveness cannot be divorced from the leverage it enjoys because of its oil and gas resources. European Union reliance on Middle Eastern oil and Russian gas continues to complicate U.S. foreign policy efforts, especially with regard to stopping Iran from developing nuclear weapons. China, with its rapidly growing dependence on foreign oil, also blocks U.S. diplomatic initiatives in order to strengthen its own ties with oil exporters. Chinese opposition has helped thwart U.N. Security Council sanctions against Iran and prevented significant intervention in the Darfur region of Sudan.

Mr. KARSNER.  The question focusing on E85 pumps and flex fuel vehicles is emblematic of the problem as a whole. The problem as a whole is that we have a sufficiently mature technology and availability of resources that can help us mitigate and hedge the security risk; but we haven’t devised sufficient policy with a scale and a rate that would be commensurate with the magnitude of the challenge. So, with regard to E85 and flex fuel, last year we had a banner year—450 new stations added—equaling a total national capacity of 1,200 stations. So, even with 60, 70 percent growth year on year, 750 had been the total we had ever put out of flex fuel pumps. Even if we maintained that rate of 450 per annum—that record rate—of new E85 pumps across the Nation, it would still take us up to 100 years to get to a scale that would matter, 50,000 pumps available for the country.

Mr. SMITH. We have about 77,000 trucks, a little more.

Senator DORGAN. And what prevents you—you’re a big purchaser of trucks, one of the Nation’s largest, I assume—from saying, ‘‘You know what? I want more efficient trucks and so I’m going to make an informed choice as a purchaser and buy only this kind of truck.’’

Mr. SMITH. We, along with Eaton Corporation and the Environmental Defense Fund, pioneered a new electric hybrid pick-up and delivery (PUD) vehicle. It produces about 50% greater fuel efficiency, about 90 percent greater emissions efficiency or emissions reduction over our traditional diesel powered PUD vehicles. Those vehicles are about 75% more expensive from a capital acquisition cost. So, obviously, being in a competitive business, we can’t buy one set of vehicles if there is no economic return.

Senator DORGAN. Have you had other business executives look at you cross eyed and say, ‘‘What on earth are you thinking going to Washington asking for more regulation?’’

Mr. SMITH. Well the short answer to that is, yes. As you may know, Senator, I’ve spent a lot of time up here over the last 30 years basically arguing against Government regulation. It took a considerable intellectual journey for me to come to the point of concluding that absent Government action, regulation, if you will, the problem can’t be solved.

Dr. WESCOTT.  If we think about an oil shock hitting the U.S. economy as in 1973–74, the early 1980s, and in 1991, economists think about channels of influence or lines of impact on the economy. The first one is on the pocketbook of the average household. And energy, historically, has been somewhere between 3 to 9% of the family budget. So, in the low oil price days of the early 1990s for example, when it was just 3% of the family budget, obviously that was a small piece of the budget. Now as we get up to 8 to 10% of the family budget it gets a more substantial piece. And if it doubles, then you’re basically constraining the purchases that people can make of other things.

Approximately one-half of all U.S. households are basically cash constrained, they don’t have surplus funds. They don’t have thousands of dollars in the bank. And so, right off the bat if you jump the price of oil and double it, as we did in this oil shock, you’re forcing about one-half of American households to almost immediately cut back on their movies that they go to and their purchases of other items. So, that’s one of the key channels of influence.

Another key channel of influence is through the financial markets. And especially if it’s caused by a terrorist attack or something a 9/11 or one of these sorts of events, it can have psychological effects. And so, we know that after 9/11, for example, the U.S. stock market fell by almost one-quarter. The Dow Jones average fell. So, that has wealth effects on people. People tend to consume about 3 to 4 percent of their wealth every year. And if suddenly their household wealth is sharply reduced because of a bad psychology or fear of terrorism or whatever that could also have a negative effect on the economy.

The third way that it can affect the economy is direct industry effects. There is going to be some industrial activities that are just plain shut down immediately if prices double.

Some chemical factories would shut down. They just couldn’t—they couldn’t physically run their business. They’re tied into contracts or whatever and they would get less for selling their goods then it would cost them to make it. These would be some of the very disruptive effects of an oil shock.

Senator DORGAN.  When we talk about CAFE standards and the greater efficiency of the system that powers our vehicles, I’m in support of that greater efficiency. But I guess my preference would be that this be a bridge to get to the next technology, hydrogen fuel cells, for example. What’s your assessment of whether that’s 20 years or 40 years from now?

Mr. SMITH.   I am a believer that there will be technological breakthroughs. But, I think in our particular case what we have tried to do is to have very practical recommendations on what today’s technology is rather than, to use an old aviation term, you know, have a wish and a prayer that these technologies will be produced in the future.

The CEO of Auto Nation, came by to see me long ago and he gave me a chart that showed fuel economy ranked number 12 in buying choice reasons.  After sound systems, interior conveniences, seating capacity, ergonomics, in fact, it was even after cup holders.  The same thing actually applies in the industrial truck sector because the market responds to what’s here and now.

Senator DORGAN.  I, and several others, have been pushing very hard to move more aggressively toward a different technology future using hydrogen and fuel cells, where you get water vapor coming out the tail pipe. You get twice the efficiency of power to the wheel and hydrogen is everywhere. And so, ultimately I want to disconnect from our need and demand for oil. Now that’s not going to happen quickly but we need to make that happen at some point.  I especially want to find a way to pole vault to a different kind of energy future. More specifically from my standpoint, it ought to be a hydrogen fuel cell future.

The Commerce Committee today passed new CAFE standards. These are auto efficiency standards and I was a part of it. CAFE is a significant part of the SAFE Act, which I’m pleased about, but I know the administration will probably view this as a mandate, which in fact it is. What will be the administration’s position? I know the President has indicated he would not support a mandate. He thinks it should be voluntary and so on. Are we going to be facing a veto threat?

I would like, Secretary Karsner to really urge the administration to take a new look. The last time they testified before the Commerce Committee on this subject not many weeks ago, the refrain was, ‘‘Yes voluntary standards. Yes, improve it, but voluntarily.

No mandates. No regulation.’’ It seems to me all of us have to give a little here. And the only way to make progress on efficiency is not by saying to the auto industry, please help us. I mean we’ve seen for 25 years very, very little progress in this area. I think that this panel says it right and I think the Commerce Committee said it right this morning. It is time for us to take some aggressive and some bold action. And I hope you will pass that word back to the administration. We all ought to be working on the same sheet here and that is regulation. It should be mandatory.

ALEXANDER KARSNER, ASSISTANT SECRETARY FOR ENERGY EFFICIENCY AND RENEWABLE ENERGY, DEPARTMENT OF ENERGY

In his 2007 State of the Union Address, President Bush challenged our country to reduce gasoline consumption by 20 percent within the decade, the ‘‘Twenty in Ten’’ plan. The President called for a robust alternative fuel standard requiring the equivalent of 35 billion gallons of renewable and alternative fuels by 2017. Expanding the mandate established by the Energy Policy Act of 2005 is expected to decrease projected gasoline usage by 15 percent.

While the Department of Transportation has primary authority for addressing the President’s call to reform and elevate CAFE standards, the Department of Energy invests in the vehicle technologies and attests to their availability to increase fleet efficiency. Those provisions of the bill that broadly support the President’s vision of increasing efficiency alongside technologies to displace fuel consumption are integral to a comprehensive national strategy.

The United States and all major oil-consuming countries currently rely on imported petroleum as our major fuel source.

Secretary Bodman recently announced that the Department of Energy (DOE), under the authority provided in EPACT section 932 will invest up to $385 million for six commercial scale biorefinery projects over the next 4 years and up to $200 million for cellulosic biorefineries at 10 percent of commercial scale.

The question that is most urgently before this subcommittee, I believe, is how many Federal dollars will it take to satisfactorily address our addiction to oil. I suggest to you that there is no amount of Federal spending that can achieve this goal alone, without catalyzing private investment. If we are serious about changing our Nation’s energy portfolio, we must unleash the vast potential and transformative power of our capital markets.

The challenge for large-scale, up-front investments and clean energy is that the potential for outstanding returns must be realized over an extended period of time or the life cycle of the technologies use. This is true whether dealing with the solar roof top, cellulosic biorefineries, large wind farms, nuclear powerplants, energy efficient products like the ubiquitous compact fluorescent light bulb, or even transmission linking our clean energy resources with our national urban load centers.

Though the energy source is domestically available and generates little to no greenhouse gases, uncertainty over a technology’s life cycle risk and cost severely retards the amounts and types of private capital available being deployed. Effective capital formation requires the Federal Government to provide the necessary policy predictability and economic climate that enables massive investments at an accelerated pace. Responsible leveraging of Federal tax dollars to catalyze and accelerate private infrastructure financing and capital flows is essential to enable our national strategy of a new clean energy economy.

ROBERT F. WESCOTT, PRESIDENT, KEYBRIDGE RESEARCH LLC

Probably the single most important conclusion of the study is that by substantially reducing America’s oil dependency, the economy will be much better prepared to withstand a future oil shock, such as those that hit the U.S. economy and contributed to recessions in 1973–74, 1980–81, and 1991. That is, the ESLC energy package can be thought of as a self-financing insurance policy that will make the economy more robust in good times and more resilient in the face of potential future energy shocks.

  • The fuel economy measures included mandated 4 percent annual increases in fuel efficiency standards for passenger cars and light-duty trucks, strengthened fuel efficiency standards for medium-duty and heavy-duty trucks, and improved Federal Aviation Administration traffic routing for airplanes. Altogether it was assumed that primary oil demand could be reduced by 5.8 million barrels per day (mbd) by 2030 with these steps.
  • The study also assumed that expanded ethanol production could contribute 0.7 mbd for transportation by 2030 and that biodiesel could add 0.2 mbd to production, for a total of 0.9 mbd from biofuels.
  • Finally the study assumed that through a relaxation of moratoria on oil and gas drilling in the outer continental shelf (OCS) and through more rapid implementation of enhanced oil recovery methods, domestic oil and gas production could be boosted by 2.5 mbd by 2030.

We assumed, for example, that in order to achieve higher fuel efficiency, new automobiles would require new engines/motors, advanced controls, electronics, new materials, and batteries and would cost about 10 percent more each year than they did in the baseline scenario. We also took into account the fact that higher ethanol production would require a growing share of U.S. corn production, and that the price of agricultural products would rise as a result, and that ethanol production itself

KEY FINDINGS. Under the ESLC energy policy package, the study found that the U.S. economy will become significantly less oil intensive. By 2030 U.S. oil demand is projected to be 5.9 million barrels per day (mbd) less than in the baseline case, a reduction of 23 percent. In cumulative terms during the 2007 to 2030 period, the ESLC policy package reduces U.S. consumption by 22 billion barrels of crude oil equivalent through conservation and the use of alternative fuels. This aggregate figure is about 3 times the 7.4 billion barrels of crude oil consumed by the United States in 2006.

Compared to the baseline case, the supply enhancements and conservation measures combine to reduce imports of crude oil by 8.2 mbd by 2030, a 47.3 percent decrease. Cumulatively during the 24-year period under consideration, the United States would import 32.2 billion fewer barrels of foreign oil. This figure compares to estimated remaining proved reserves of 4.3 billion barrels for Prudhoe Bay in Alaska and less than 30 billion barrels for the entire United States.

Reduced U.S. demand on the global oil supply should lead to modestly lower world oil prices throughout the projection period. The baseline case assumes a nominal price of oil of $107 by 2030. This study estimates that the price of oil would be $95 per barrel, or about 13 percent lower, with the ESLC policy package. Lower oil imports and lower world oil prices would mean that by 2030, oil imports will be lower by $278 billion per year. During the 2007 to 2030 period, the Nation’s economy will avoid the expenditure of $2.5 trillion for imported crude oil.

R.M. ‘‘JOHNNIE’’ BURTON. thank you for the opportunity to appear here today to discuss with you the actions the Department of the Interior’s Minerals Management Service has taken to reduce U.S. oil dependence and to protect the Nation against supply disruptions. This committee has played an important role in shaping our domestic energy program, particularly with regard to encouraging environmentally sound development of our domestic oil and gas resources on the Outer Continental Shelf. The Department and its agencies, including the Minerals Management Service (MMS), serve the public through careful stewardship of our Nation’s natural resources. The Department also plays an important role in domestic energy development. One third of all energy produced in the United States comes from resources managed by the Interior Department. As energy demand continues to increase, these resources are all the more important to our national security and to our economy. The Energy Information Administration estimates that, despite increased efficiencies and conservation, over the next 20 years energy consumption is expected to grow more than 25 percent. Even with more renewable energy production expected, oil and natural gas will continue to account for a majority of energy use through 2030. Interior’s domestic energy programs, particularly offshore oil and gas production, will remain vital to our national energy portfolio for some time to come. The Federal Outer Continental Shelf (OCS) covers 1.76 billion acres and is a major source of crude oil and natural gas for the domestic market. In fact, according to the Energy Information Administration, if the Federal OCS were treated as a separate country, it would rank among the top five nations in the world in terms of the amount of crude oil and second in natural gas it supplies for annual U.S. consumption.

The Program continues to schedule annual lease sales in the Central and Western Gulf of Mexico. The Gulf of Mexico Energy Security Act (the Act), signed by President George W. Bush on December 20, 2006, requires oil and gas leasing in portions of the ‘‘Sale 181 Area’’ in the Central Gulf (2,028,730 acres) and in the Eastern Gulf (about 546,000 acres) Planning Areas as well as the ‘‘181 South Area’’ (5,762,620 acres). The total acreage of new areas in the Gulf offered under the proposed program is 8,337,443 acres. Under the 5-year program, the portion of the ‘‘Sale 181’’ area in the Central Gulf would be included in the October 2007 lease sale, and the portion in the Eastern Gulf would be offered for the first time in March 2008. The 181 South area is scheduled for lease in 2009 following additional environmental studies and requirements under the National Environmental Policy Act (NEPA). The leasing program schedules 8 sales in Alaska: 2 in the Beaufort Sea; 3 in the Chukchi Sea; up to 2 in Cook Inlet; and 1 in the North Aleutian Basin—in an area of about 5.6 million acres that was previously offered during Lease Sale 92 in 1985. These areas would be subject to environmental reviews, including public comment, and extensive consultation with state and local governments and tribal organizations before any lease sale proceeds. The program also includes a proposed sale in the Mid-Atlantic Planning Area, beyond 50 miles of the coastline of Virginia, in late 2011. This area was included in the 5-year program at the request of the Commonwealth of Virginia. This sale would only take place if the congressional moratorium is discontinued and the presidential withdrawal is modified for this area. This proposed sale area excludes a 50-mile coastal buffer from leasing consideration as requested by the Commonwealth of Virginia.

Our analysis indicates that implementing the new 5-Year OCS Oil and Gas Leasing Program would result in a mean estimate of an additional 10 billion barrels of oil, 45 trillion cubic feet of gas over a 40-year time span,

Posted in U.S. Congress Energy Dependence | Comments Off on Oil Dependence and what to do about it. Senate hearing 2007

Is the U.S. so energy independent we should export crude oil?

[ This is one of several House of Representative sessions discussing energy independence and whether to revoke the energy policy and conservation act of 1975 ban on crude oil export.

The only time so far I have ever seen a cautionary note about the reality of energy independence so far is in this session, in which Rep Bobby L. Rush of Illinois inserts Mason Inman’s “The Fracking Fallacy”, though Rush never brings this evidence up in the hearing.  A Nature editorial describes the findings as: “The EIA projects that production will rise by more than 50% over the next quarter of a century, and perhaps beyond, with shale formations supplying much of that increase. But such optimism contrasts with forecasts developed by a team of specialists at the University of Texas, which projects that gas production from four of the most productive formations will peak in the coming years and then quickly decline. If that pattern holds for other formations that the team has not yet analyzed, it could mean much less natural gas in the United States’ future.” 

Alice Friedemann   www.energyskeptic.com  author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

House 113-187. December 11, 2014. The energy policy and conservation act of 1975: Are we positioning America for success in an era of energy abundance? U.S. House of Representatives. 118 pages.

Excerpts follow:

ED WHITFIELD, KENTUCKY.   This morning’s hearing we are going to be focused on the Energy Policy and Conservation Act of 1975 (EPCA), which prohibited the export of crude oil. But as we all know, the trends behind the oil export restrictions have dramatically reversed themselves in recent years. Thanks to advances in hydraulic fracturing and directional drilling, domestic oil production has been sharply rising.  In fact, America may soon be producing more oil than it can handle. We will conduct a thorough analysis and give all points of view the opportunity to be heard before we consider whether to take action [to allow the export of crude oil].

JOE BARTON, TEXASI would hope in the new Congress we take a look at the bill that I have introduced this week, H.R. 5814 which repeals the ban on crude oil exports, and it requires a study reported to this committee of what we do with the Strategic Petroleum Reserve. It is a different world today, Mr. Chairman, and when you are number one you use that status. If we allow our producers to export the crude oil that can’t be consumed here in the United States or refined here in the United States, we put pressure on OPEC, we put pressure on Russia, we create jobs here at home, and we make sure that that world price which sets the crude oil price is based on real supply and demand, and that is a good thing for everybody.  [H.R. 5814 was not enacted]

LUCIAN PUGLIARESI, President, Energy Policy Research Foundation, Inc.  We want to make the distribution of crude oil efficient. That is why we need Keystone. We want to have good regulations. We want to open up the Federal lands a lot more. You know, all this production we have seen has come from Federal lands.

Traditionally, conventional oil had a very modest decline rate, maybe 5 percent, and a pretty high recovery factor, as much as 50 percent. What I don’t think we understand is that, even though we have this very high decline rate in these unconventional resources we have now, but we have to keep drilling, our recovery factor is quite small. Small improvements in this recovery factor are going to make a big difference. That is why we want—you know, we want to see this technology continue to progress.

Deborah Gordon, Director, Energy and Climate Program, Carnegie Endowment for International Peace.  The bottom line is that oils are changing and a more complex array of hydrocarbon resource is replacing conventional oil.  The truth is we know precious little about these new resources. The Nation needs reliable, consistent, detailed, open-source data about composition and operational elements of U.S. oils. Significant information gaps have accompanied the Nation’s oil—increased oil production.

Several EPCA provisions merit careful review and consideration and possible updating: One, widely expanding oil data collection, making this information publicly available; two, increasing the heavy-duty vehicle efficiency standards for trucks and marine vessels that move the oil and petroleum product that we are trying to consume less of at home; and, three, revisiting oil accounting practices so that the SEC is fully informed about oils that are on tap to bolster U.S. markets.

Do policymakers and the public have sufficient information about America’s oil? Unfortunately, they do not. Ironically, there is more detailed open-source data about OPEC crudes than the oils in the Bakken, Permian, and Eagle Ford. In seeking to obtain and verify these needed oil data, we have encountered several obstacles, from data inconsistencies, to withheld data, to Government limitations on expanding oil reporting.

There are so many reasons why the information is not there. The first reason is that the light tight oils are the newest kid on the block

Another one, having met with DOE, is that apparently the Energy Department can’t really collect data on oil freely. It turns out OMB—and I was kind of flabbergasted when I learned this— but OMB says this is duplication of effort. Industry submits data on oil. DOE doesn’t set reporting requirements for oil. Although, when you read EPCA, there is room for this to happen. It just hasn’t really evolved that way. So DOE is actually only getting the information that industry wants to report out. These are new oils; there is less information reported out. One of our partners tried to purchase data owned by big oil consultancies, and after negotiating about a year and hundreds of thousands of dollars, they were told the data wasn’t for sale because it is competitive. They don’t want the academic sector to compete with the consulting sector. So there a lot of concerns when it comes to oil data, especially as now more oils are out there.

What are the environmental risks these new oils pose?  There are several categories of higher emissions from oils. These include gassy oils, like the Bakken or Nigeria, where gas associated with oil is flared or burned instead of separated and sold; heavy oils, those that use more heat, steam, hydrogen through their value chains to yield more bottom-of-the-barrel products like petroleum coke, a coal substitute; watery oils, which are interesting, like those in California’s San Joaquin Valley where it takes a tremendous amount of energy to lift as much as 50 barrels of water for every one barrel of oil that you produce; and extreme oils like those in the Gulf of Mexico that are miles below the surface or those in the boreal peat bogs in Alberta, where carbon is naturally sequestered.

The heavier oils, don’t preferentially make more gasoline. They make more diesel.

The oil market is one of the least efficient markets. There are so many reasons: barriers to entry, barriers to exit, not enough information, externalities. There is far more efficiency in peach markets than in oil markets.

We have new oils, new conditions, and then we have huge growth in China in terms of demand that is sporadic. It is not going to be red hot consistently. It is a market. And so we do tend to talk about oil at a moment in time, maybe because it is sold on every corner, that it is as if this is the condition that exists for all time. But the reality is it is very dynamic and we could easily return with risks, differential risks, different consumption patterns. Even in America, we are selling a lot more SUVs right now. They are up tremendously.

John A. Yarmuth, KentuckyWhile everything looks wonderful right now with an abundance of oil and petroleum in the world and prices down, that would seem to mitigate against worrying about a crisis. But isn’t it entirely possible that we could return to a 1970s situation? I was a staffer here in the 1970s and remember those lines as well. So would it not be useful to have at least some contingency measure for an international outbreak or a war, terrorism, whatever it may be, that we have some way to protect our domestic supply in case of an emergency?

LOIS CAPPS, CALIFORNIA. This lack of transparency is very concerning not just for our assessment of oil export policy but for conducting proper oversight of the industry in general. If the industry is asking us to lift the export ban, I believe they need to provide the information that is so clearly needed to properly assess the very policy that they asking us to expand upon.

Ms. GORDON. Certainly taking the sulfur out will be fantastic for health and for the environment. But a bigger question with the heavier oils is petroleum coke and what happens with the very bottom of the barrels. So when you put coking capacity into these refineries, you basically remove the middle of the barrel and you end up with a lot more gasoline and diesel, which is good for profit, and then a lot more of a solid substance, called petroleum coke. And we are also exporting that. The U.S. has increased its petroleum coke exports to China 70-fold in the last several years. It is a coal substitute, and it is worse than coal in terms of emissions.

Petroleum coke is the bottom of the barrel after all the liquids from the heavy oil are wrung out in every refining process, but in very small amounts. Though with heavy oils, you have a lot of petroleum coke, a high-carbon bottom- of-the-barrel product. And so, when you put in coking capacity that actually cleaves these molecules, you get more liquids out, which is good, but then you get more solids out of your refinery. Petroleum coke is a solid fuel. If it is a very, very high-quality petroleum coke, which goes into steel and glass and ceramic manufacture. If it is a low-quality coke, high in sulfur, high in heavy metals— this is what comes out of the oil production process—that goes into power production and steam, and then you are basically burning coal. It has about 10 percent higher greenhouse gas emissions than coal and higher nickel, vanadium, sulfur, than some of the worst coals. So when coal is priced high, as it had been recently and before we were exporting a lot of our coal, China wanted petroleum coke because it was an economic benefit for them to burn coke instead of coal. Now prices of coal are low. And so coke is a little bit out of favor. And, if you remember, there was a news release in Detroit about a pile of petroleum coke that got a lot of attention in the press. It is very—it is black. It is voluminous. They are spreading it in Alberta over miles because they can’t export it. So it ends up being a problem. Canada wants to send America the heavy oil so that we can export the petroleum coke since we are closer to ports of call.

Prices have come down so petcoke is really priced to sell. It is very hard to get data on petcoke. It is not traded publicly, but person to person, company to company. Since it is a byproduct of refining and no one really wants to make petcoke, it builds up and you have to get rid of it.  Refiners want to get a lot of money for it. But, if they can’t, they still have to put it into the market. So the price is relatively volatile.

There are definitely things you could do with the fuel-grade petroleum coke. You could take heavy metals and the sulfur out and make it actually a beneficial industrial byproduct, but it is going to cost money to do that.

You have to look at the geopolitics and the kinds of oil that we would be exporting.  The light tight oil has backed Nigerian imports out of the U.S. As we produce more of that oil, we are importing no oil from Nigeria, and that has a geopolitical impact  on Nigeria. I think even though oil is not being used at all as a weapon, it ends up being something that can counteract the peacekeeping and the other efforts that we have in these very fragile nations around the world.

I think that Russia is reeling from the price of oil. It is not our exports that are changing what is going on in Russia right now. It is $60 a barrel oil that is changing what is going on in Russia

The problem we have is twofold. We have had many impassioned proposals to do something to help Ukraine with the Russian crisis and other geopolitical events. But the reality is that our oil and gas are owned by private companies, and they are likely to ship the oil or gas to where the market gives them the greatest profit. Right now,  it is assumed that the market for LNG primarily would be in the Far East, because the premiums there have been much higher than those in Europe. Though now we have LNG prices crashing in Asia to such low levels it is questionable whether we can deliver LNG into those markets competitively. By the time we actually have LNG ready to go, outside contracts have already been signed. Geopolitically, I think the issue of exports is extremely important. Our allies in Korea, Japan, and Taiwan are very desirous to have energy from the United States because they see an increasingly bellicose China threatening sea lanes which all of their energy imports come from, not only oil and gas but also coal. I think it does improve our diplomatic status to the extent that we send energy there, but again, these are going to be commercial choices made by the companies that own that oil and gas.

Global production is not site specific anymore and this is also going to happen in refining. The country that added more refining capacity to the world market than any other last year was Saudi Arabia. And China is also adding refining capacity.  Demand growth is happening in Latin America, the Middle East, Africa, Asia.  So the whole market is really shifting somewhat. I don’t think you can really draw a circle around North America very easily in this market.

There is certainly some transparency in the market. But I think the best example of why there isn’t enough information in the market is the explosiveness of the rail cars taking Bakken oil. The market really didn’t know the composition of that oil, and the equipment wasn’t really designed to deal with that oil. So I think that we are seeing physical manifestations of the fact that there isn’t enough transparency in this market

 

 

 

 

Posted in U.S. Congress Energy Independence | Tagged , , | Comments Off on Is the U.S. so energy independent we should export crude oil?

Why aren’t net energy and Energy Returned on Invested the basis of U.S. energy policy?

[ David Murphy doesn’t answer this question, but does give the history of EROI and more importantly, what this means for oil production and society. 

If we are going to spend money on fossil alternatives, wouldn’t it make sense to use EROI as a way of allocating funds to the most promising technologies?  I have yet to find a U.S. House or Senate hearing that mentions EROI, and seldom run across EROI in federal or state documents on energy, which are more concerned with the life cycle analysis of greenhouse emissions and coping with endless growth rather than energy efficiency.  Perhaps they don’t want to find out that the EROI is negative

I extracted the section of this paper that discusses EROI history, and after that, some excerpts from this very important paper about the EROI of conventional and unconventional oil (I’ve left the more difficult technical parts out, as well as most of the charts and figures)

Alice Friedemann  www.energyskeptic.com author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

Murphy, David J. December 2, 2013. The implications of the declining energy return on investment of oil production. Trans. R. Soc. A 2014 372 

A brief history of energy return on investment

In the late 1960s, Charles Hall studied the energy flows within New Hope Creek, in North Carolina, USA, to understand the migration patterns of the fish within the stream. His conclusions [16] revealed that, by migrating, the fish were able to exploit new sources of food, which, after accounting for the additional energy cost of migration, conferred a large net energy gain upon the fish. In other words, owing to the abundance of food in the new locations, the fish were able to gain enough energy not only to ‘pay’ for the energy expenditure of that migration but also to grow and reproduce. Comparing the energy gained from migration to the energy expended in the migration process was ostensibly the first calculation of EROI.

In the autumn of 1973 the price of oil skyrocketed following the Arab oil embargo (the so-called ‘first oil shock’), which sent most OECD economies tumbling into recession. The apparent vulnerability of OECD nations to spikes in the price of oil led many researchers to focus on the interaction between the economy and energy. Then, in 1974, the journal Energy Policy dedicated a series of articles to the energy costs of production processes. The editor of this series, Peter Chapman, began the series with a paper titled ‘Energy costs: a review of methods’, and observed that ‘this subject is so new and undeveloped that there is no universally agreed label as yet’ [17], and followed up two years later with a second paper [18]. Today this area of research is spread among a number of different disciplines, including, but not limited to, ecological economics, industrial ecology and net energy analysis, and the EROI statistic is just one of many indicators calculated.

Also during this period researchers started using Leontief input–output tables as a way to measure the use of energy within the economy [19–22]. For example, Bullard & Herendeen [23] used a Leontief-type input–output matrix to calculate the energy intensity (in units of joules per dollar) of every major industrial sector of the US economy. Even today this paper serves as a useful model for other net energy analyses [8,24]. In addition, a workshop in Sweden in 1974 and one at Stanford, CA, in 1975 formalized the methodologies and conventions of energy analysis [25,26].

In 1974, the US Congress enacted specific legislation mandating that net energy be accounted for in energy projects. The Nuclear Energy Research and Development Act of 1974 (NERDA) included a provision stating that ‘the potential for production of net energy by the proposed technology at the stage of commercial application shall be analyzed and considered in evaluating proposals’. Further influential papers by the Colorado Energy Research Institute, Bullard et al. and Herendeen followed this requirement [27–29]. Unfortunately, the net energy provision within the NERDA was never adopted and was eventually dropped.

In 1979, the Iranian revolution led to a cessation of their oil exports (the second oil shock), which precipitated another spike in the price of oil and squeezed an already strained US economy. Responding to this, and in an attempt to control deficits and expenditure, President Reagan of the USA enacted Executive Order 12291 in 1980. This order mandated that ‘regulatory action shall not be undertaken unless the potential benefits to society from the regulation outweigh the potential costs to society’. In other words, all US regulatory action had to show a net monetary benefit to US society, and the idea of measuring benefits in terms of net energy fell even further from the policy arena. Net energy analysis remained insignificant in US energy policy debates until the dispute over corn ethanol emerged 25 years later [30,31].

Although the political emphasis had now shifted towards economic analysis, the 1980s still provided useful papers on net energy analysis (e.g. [32]). In 1981, Hall published ‘Energy return on investment for United States petroleum, coal, and uranium’, which marked the first time that the acronym EROI was published in the academic literature [33]. Later that year, Hall & Cleveland [34] published ‘Petroleum drilling and production in the United States: yield per effort and net energy analysis’. This paper analysed the amount of energy being produced per foot drilled and found that the ratio had been declining steadily for 30 years. Further publications by Hall and colleagues then tested hypotheses relating economic growth to energy use, introduced explicitly the concept of energy return on investment and examined the EROI of most major sources of energy [35,36].

Following growing concern about environmental impacts, climate change and sustainability, documented in the Brundtland Report in 1987 [37], emphasis began to shift from energy analysis to greenhouse gas (GHG) emissions and life-cycle analysis. Life-cycle analysis (LCA) itself was born out of the process and input–output analyses codified in the aforementioned energy literature of the 1970s and 1980s, and can be used to calculate EROI and other net energy metrics. Beginning around the turn of the century, researchers began to recognize the complementarity between LCA and net energy and began publishing on the matter [38].

There was another surge in publications in net energy analysis in the 2000s, due mainly to a growing global interest in renewable energy, and therefore an interest in metrics that compare renewable energy technologies. The debate about whether or not corn ethanol has an EROI greater than one is a good example [30,31]. There has also been a number of studies using the input–output techniques developed in the 1970s to track emissions production and/or resource consumption across regions [39].

Today, research within the field of net energy analysis is expanding rapidly. The main renewable energy options, including, but not limited to, solar photovoltaics, concentrating solar, wind power and biofuels, have each been the focus of studies estimating their net energy yield [31,40,41]. Furthermore, with the expansion of oil production into ultra-deep water, tar sands and other unconventional sources, as well as developments with shale gas, there has been a renewed interest in whether or not these sources of energy have EROI ratios similar to conventional oil and gas, and publications are expected to be forthcoming.


Abstract.  Declining production from conventional oil resources has initiated a global transition to unconventional oil, such as tar sands. Unconventional oil is generally harder to extract than conventional oil and is expected to have a (much) lower energy return on (energy) investment (EROI). Recently, there has been a surge in publications estimating the EROI of a number of different sources of oil, and others relating EROI to long-term economic growth, profitability and oil prices. The following points seem clear from a review of the literature: (i) the EROI of global oil production is roughly 17 and declining, while that for the USA is 11 and declining; (ii) the EROI of ultra-deep-water oil and oil sands is below 10; (iii) the relation between the EROI and the price of oil is inverse and exponential; (iv) as EROI declines below 10, a point is reached when the relation between EROI and price becomes highly nonlinear; and (v) the minimum oil price needed to increase the oil supply in the near term is at levels consistent with levels that have induced past economic recessions. From these points, I conclude that, as the EROI of the average barrel of oil declines, long-term economic growth will become harder to achieve and come at an increasingly higher financial, energetic and environmental cost. 

Introduction

Today’s oil industry is going through a fundamental change: conventional oil fields are being rapidly depleted and new production is being derived increasingly from unconventional sources, such as tar or oil sands and shale (or tight) oil. Indeed, much of the so-called ‘peak oil debate’ rests on whether or not these sources can be produced at rates comparable to the conventional mega-oil fields of yesterday.

What is less discussed is that the production of unconventional oil most likely has a (much) lower net energy yield than the production of conventional crude oil. Net energy is commonly defined as the difference between the energy acquired from some source and the energy used to obtain and deliver that energy, measured over a full life cycle.

A related concept is the energy return on investment (EROI), defined as the ratio of the former to the latter (EROI=Eout/Ein). The ‘energy used to obtain energy’ (Ein) may be measured in a number of different ways. For example, it may include both the energy used directly during the operation of the relevant energy system (e.g. the energy used for water injection in oil wells) as well as the energy used indirectly in various stages of its life cycle (e.g. the energy required to manufacture the oil rig). Owing to these differences, it is necessary to ensure that the EROI estimates have been derived using similar boundaries, i.e. using the same level of specificity for Ein. Murphy et al. [1] suggested a framework for categorizing various EROI estimates, and, where applicable, I will follow this framework in this paper.

Estimates of EROI are important because they provide a measure of the relative ‘efficiency’ of different energy sources and of the energy system as a whole [2,3]. Since it is this net energy that is important for long-term economic growth [3–6], measuring and tracking the changes in EROI over time may allow us to assess the future growth potential of the global economy in ways that data on production and/or prices cannot.

Over the past few years, there has been a surge in research estimating the EROI of a number of different sources of oil, including global oil and gas [7], US oil and gas [8,9], Norwegian oil and gas [10], ultra-deep-water oil and gas [11] and oil shale [12]. In addition, there have been several publications relating EROI to long-term economic growth, firm profitability and oil prices [3,13–15]. The main objective of this paper is to use this literature to explain the implications that declining EROI may have for long-term economic growth. Specifically, this paper: (i) provides a brief history of the development of EROI and net energy concepts in the academic literature, (ii) summarizes the most recent estimates of the EROI of oil resources, (iii) assesses the importance of EROI and net energy for economic growth and (iv) discusses the implications of these estimates for the future growth of the global economy.

Energy return on (energy) investment, oil prices, and economic growth

The economic crash of 2008 occurred during the same month that oil prices peaked at an all-time high of $147 per barrel, leading to numerous studies that suggested a causal link between the two [47,48]. In addition, other researchers involved in net energy analysis began examining how EROI relates to both the price of oil and economic growth [3,13,15,49–51].

Murphy & Hall [3] examined the relation between EROI, oil price and economic growth over the past 40 years and found that economic growth occurred during periods that combined low oil prices with an increasing oil supply. They also found that high oil prices led to an increase in energy expenditures as a share of GDP, which has led historically to recessions. Lastly, they found that oil prices and EROI are inversely related (figure 2), which implies that increasing the oil supply by exploiting unconventional and hence lower EROI sources of oil would require high oil prices. This created what Murphy & Hall called the ‘economic growth paradox: increasing the oil supply to support economic growth will require high oil prices that will undermine that economic growth’.

Other researchers have come to similar conclusions to those of Murphy & Hall, most notably economist James Hamilton [47]. Recently, Kopits [50], and later Nelder & Macdonald [49], reiterated the importance of the relation between oil prices and economic growth in what they describe as a ‘narrow ledge’ of oil prices. This is the idea that the range, or ledge, of oil prices that are profitable for oil producers but not so high as to hinder economic growth is narrowing as newer oil resources require high oil prices for development, and as economies begin to contract due largely to the effects of prolonged periods of high oil prices. In other words, it is becoming increasingly difficult for the oil industry to increase supply at low prices, since most of the new oil being brought online has a low EROI. Therefore, if we can only increase oil supply through low EROI resources, then oil prices must apparently rise to meet the cost, thus restraining economic growth.

Skrebowski [51] provides another interpretation of the relation between oil prices and economic growth in what he calls the ‘effective incremental oil supply cost’.2 According to data provided by Skrebowski, developing new unconventional oil production in Canada (i.e. tar sands) requires an oil price between $70 and $90 per barrel. Skrebowski also indicates that new production from ultra-deep-water areas requires prices between $70 and $80 per barrel. In other words, to increase oil production over the next few years from such resources will require oil prices above at least $70 per barrel. These oil prices may seem normal today considering that the market price for reference crude West-Texas Intermediate ranged from $78 to $110 per barrel in 2012 alone, but we should remember that the average oil price during periods of economic growth over the past 40 years was under $40 per barrel, and the average price during economic recessions was under $60 per barrel (dollar values inflation adjusted to 2010) [3]. What these data indicate is that the floor price at which we could increase oil production in the short term would require, at a minimum, prices that are correlated historically with economic recessions.

Understanding the relationship between energy return on (energy) investment and net energy

The mathematical relation between EROI, net energy and gross energy can be used to explain why, at around an EROI of 10, the relation between EROI and most other variables, such as price, economic growth and profitability, becomes nonlinear. The following equation describes the relation between EROI, gross and net energy [3]: Embedded Image3.2Using this equation, we can estimate the net energy provided to society from a particular energy source or (rearranging) the amount of gross energy required to provide a certain amount of net energy [52]. We can also interpret equation (3.2) as follows: an EROI of 5 will deliver to society 80% of the gross energy extracted as net energy, while an EROI of 2 will deliver only 50%. This exponential relation between gross and net energy means that there is little difference in the net energy provided to society by an energy source with an EROI above 10, whether it is 11 or 100, but a very large difference in the net energy provided to society by an energy source with an EROI of 10 and one with an EROI of 5. This exponential relation between gross and net energy flows has been called the ‘net energy cliff’ [53] and it is the main reason why there is a critical point in the relation between EROI and price at an EROI of about 10 (figure 4).

Figure 4.

Figure 4.

The ‘net energy cliff’ graph, showing the relation between net energy and EROI. As EROI declines, the net energy as a percentage of total energy extracted declines exponentially. Note that the x-axis is in reverse order. (Adapted from Mearns [53].)

Calculating the minimum energy return on (energy) investment at the point of energy acquisition for a sustainable society

According to equation (3.2), as EROI declines, the net energy provided to society declines as well, and, at some point, the amount of net energy will be insufficient to meet existing demand. The point at which the EROI provides just enough net energy to society to sustain current activity represents the minimum EROI for a sustainable society. But estimating empirically the actual minimum EROI for society is challenging. Hall et al. [24] estimated that the minimum EROI required to sustain the vehicle transportation system of the USA was 3. Since their calculation included only the energy costs of maintaining the transportation system, it is reasonable to expect that the minimum EROI for society as a whole could be much higher. Exploring the minimum EROI for a sustainable society is beyond the scope of this paper. Instead, I will examine how, in theory, the minimum EROI could be calculated by using some simple models. I will first do this by examining how the idea of net energy grew from analysing the energy budgets of organisms.

The energy that an organism acquires from its food is its gross energy intake. Let us assume, for simplicity’s sake, that an organism consumed 10 units of gross energy, but to access this food it expended 5 units of energy. Given these parameters, the EROI is 2 (=10/5) and the net energy is 5. It is important to note that the expended energy created an energy deficit (5 units) that must be repaid from the gross energy intake (10 units) before any growth, for example, in the form of building fat reserves or reproduction, can take place.

An economy also must have an influx of net energy to grow. Let us assume that Economy A produces 10 000 units of energy at an EROI of 10, which means that the energy cost of acquisition is 1000 units and the net energy is 9000. Much like organisms, economies also have energy requirements that must be met before any investments in growth can be made. Indeed, researchers are now measuring the ‘metabolism of society’ by mapping energy consumption and flow patterns over time [54].4 For example, economies must invest energy simply to maintain transportation and building infrastructure, to provide food and security, as well as to provide energy for direct consumption in transportation vehicles, households and business, etc. The energy flow to society must first pay all of these metabolic energy costs before enabling growth, such as constructing new buildings, roads, etc.

As society transitions to lower EROI energy sources, a portion of net energy that was historically used for consumption and/or growth will be transferred to the energy extraction sector. This transfer decreases the growth and consumption potential of the economy. For example, let us assume that, as energy extraction becomes more difficult in Economy A, it requires an additional 1000 units of energy (2000 total) to maintain its current production of gross energy, decreasing the EROI from 10 to 5 and the net energy from 9000 to 8000. If the metabolism of the economy remains at 5000 units of energy, Economy A now has only 3000 units of energy to invest in growth and/or consumption (figure 5b).

If the EROI for society were to decline to 2, the amount of energy that could previously be invested in growth and consumption would be transferred completely to the energy extraction sector. Thus, given the assumed metabolic needs of Economy A in this example, an EROI of 2 would be the minimum EROI needed to provide enough energy to pay for the current infrastructure requirements of Economy A, or, to put it another way, an EROI of 2 would be the minimum EROI for a sustainable Economy A. If the EROI were to decline below 2, for example in some biofuel systems [31], then the net energy provided to society would not be enough to maintain the infrastructure of Economy A, resulting in physical degradation and economic contraction

Building off this idea of societal metabolism, we can gain additional insight into the relationship between EROI and economic growth by differentiating between three main uses of energy by society: metabolism, which could be described as the energy and material costs associated with the maintenance and replacement of populations and capital depreciation (examples include food consumption, bridge repair or doctor visits); consumption, which is the expenditure of energy that does not increase populations or capital accumulation and is not necessary for metabolism (examples include purchasing movie tickets or plane tickets for vacation; in general, this category represents items purchased with disposable income); and growth, which is the investment of energy and materials in new populations and capital over and above that necessary for metabolism (examples include building new houses, purchasing new cars, increasing populations).

Implications for the future of economic growth

The implication of these arguments is that, if we try to pursue growth by using sources of energy of lower EROI, perhaps by transitioning to unconventional fossil fuels, long-term economic growth will become harder to achieve and come at an increasingly higher financial, energetic and environmental cost.

Revolutionary technological advancement is really the only way in which unconventional oil can be produced with a high EROI, and thus enhance the prospects for long-term economic growth and reduce the associated financial, energetic and environmental costs. This technological advancement would have to increase the energy efficiency of unconventional oil extraction or allow for increased oil recovery from fields discovered already [56]. Alternatively, there could be massive substitution from oil to high EROI renewables such as wind or hydropower [57].

It is difficult to assess directly how much technological progress is being or will be made by an industry, but we can get a glimpse as to how the oil industry is faring by comparing how production is responding to effort. If new technological advancements, such as hydraulic fracturing and horizontal drilling, represent the types of revolutionary technological breakthroughs that are needed, then we should at least see production increasing relative to effort. The data, however, do not indicate that this is the case. From 1987 to 2000, when the US oil industry increased the number of rigs used to produce oil, there was, as expected, a corresponding increase in the amount of oil produced (figure 7). But from 2001 to 2012 the trend shows very little correlation between drilling effort and oil production.

[ My note: many energy analysts have postulated that secondary and tertiary methods of extracting oil NOW actually reduce the amount of oil produced later, resulting in production after peak oil being more like a cliff than a bell curve ]

Summary

The concept of energy return on investment (EROI) was born out of ecological research in the early 1970s, and has grown over the past 30 years into an area of study that bridges the disciplines of industrial ecology, economics, ecology, geography and geology, just to name a few. The most recent estimates indicate that the EROI of conventional oil is between 10 and 20 globally, with an average of 11 in the USA. The future of oil production resides in unconventional oil, which has, on average, higher production costs (in terms of both money and energy) than conventional oil, and should prove in time to have a (much) lower EROI than conventional oil. Similar comments apply to other substitutes such as biofuels. The lack of peer-reviewed estimates of the EROI of such resources indicates a clear need for further investigation.

Transitioning to lower EROI energy sources has a number of implications for global society. First, it will reallocate energy that was previously destined for society towards the energy industry alone. This will, over the long run, lower the net energy available to society, creating significant headwinds for economic growth. Secondly, transitioning to lower EROI oil means that the price of oil will remain high compared to the past, which will also place contractionary pressure on the economy. Third, as we try to increase oil supplies from unconventional sources, we will accelerate the resource acquisition rate, and therefore the degradation of our natural environment.

It is important to realize that the problems related to declining EROI are not easily solved.

Lastly, it seems apparent that the supply-side solutions (more oil, renewable energy, etc.) will not be sufficient to offset the impact that declining EROI has on economic growth. All of this evidence indicates that it is time to re-examine the pursuit of economic growth at all costs, and maybe examine how we can reduce demand for oil while trying to maintain and improve quality of life. A good summary of these problems is also given in Sorrell [72].

For society, we can either dictate our own energy future by enacting smart energy policies that recognize the clear and real limits to our own growth, or we can let those limits be dictated to us by the physical constraints of declining EROI. Either way, both the natural succession of ecosystems on Earth and declining EROI of oil production indicate that we should expect the economic growth rates of the next 100 years to look nothing like those of the last 100 years.

Posted in EROEI Energy Returned on Energy Invested, U.S. Congress Energy Policy | Tagged , , , | Comments Off on Why aren’t net energy and Energy Returned on Invested the basis of U.S. energy policy?

Let’s get rid of invasive species ASAP

Fire ant queens ready for flight. Hemingway, South Carolina. Wiki commons.

Fire ant queens ready for flight. Hemingway, South Carolina. Wiki commons.

 

 

 

 

 

 

 

Preface. Breaking news: if you can’t beat them, eat them! Wildlife officials are encouraging people to eat invasive bullfrogs (Eggett 2019). No limits and no license required. They can get up to 1.5 pounds and taste like chicken. They’re bad because they spread diseases and eat small birds, bats, mice, and native frogs.

Invasive species are very expensive to control, costing $1.4 trillion world-wide. The annual cost of impact and control are equal to 5 percent of the world economy. Invasive species reduce the yield and quality of food crops and livestock forage plants, kill trees, lower drinking water quality, reduce energy production, and decrease native biodiversity. Weedy species are expanding exponentially faster than the number of acres treated and restored every year, doubling the number of acres invaded every 8 years.

We need to take action now. Control will be even harder after oil declines, and unlikely to be at the top of the oil-rationing priority list.  On the other hand, we need to be careful about how we get rid of invasive species, since some of the treatment consists of health-harming pesticides. Let’s not repeat the disaster of what happened across the South when massive amounts of toxic chemicals were used to eradicate the fire ant to no effect (see The Fire Ant Wars by Joshua Buhs).

A few of the findings from the  2014 House of Representatives session on “Invasive species management on federal lands”:

  • Over 100 million acres (an area roughly the size of California) in the United States are suffering from invasive plant infestations.
  • The U.S. Environmental Protection Agency estimates the U.S. spends at least $138 billion per year to fight and control invasive plant and animal species
  • Some of the most damaging Invasive species include Asian Long-horned Beetle, Emerald Ash Borer, Gypsy Moth, Sudden Oak Death, Hemlock Woolly Adelgid, and Cogon grass. Municipal governments across the country are spending more than $1.7 billion each year to remove trees on city property killed by these pests.
  • The maximum economic impact potential of losing 1.2 billion trees from attack by Asian long-horned beetle is $669 billion.
  • Hemlock Woolly Adelgid has killed up to 90% of hemlock trees in the Appalachians from Georgia to Massachusetts. Loss of hemlock groves threatens unique ecosystems and watersheds.
  • About $16–$44 million dollars of hydropower generation is lost annually due to the salt cedar invasion in the United States.
  • S. agriculture loses $13 billion annually in crops from invasive insects, such as vine mealybugs
  • On a scale of biodiversity destruction, the EPA reports that invasive species rank second only to urban development.

Alice Friedemann  www.energyskeptic.com  Author of Life After Fossil Fuels: A Reality Check on Alternative Energy; When Trucks Stop Running: Energy and the Future of Transportation”, Barriers to Making Algal Biofuels, & “Crunch! Whole Grain Artisan Chips and Crackers”.  Women in ecology  Podcasts: WGBH, Jore, Planet: Critical, Crazy Town, Collapse Chronicles, Derrick Jensen, Practical Prepping, Kunstler 253 &278, Peak Prosperity,  Index of best energyskeptic posts

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House 113-18. May 16, 2014. Invasive species management on federal lands. House of Representatives.   72 pages.

Excerpts:

Rob Bishop, Utah.  The proliferation of invasive species on our public lands is impacting the health, the landscape, and it is increasing the risk of wildfire, affecting wildlife habitat, impacting the viability of land for multiple use, and perhaps most troubling, it is undermining the efforts of their neighboring land owners, who, unlike the Federal Government, are often taking proactive steps to reduce the threat of invasive species on their lands. This hearing is intended to take a first look at this issue. We are going to hear from the Forest Service about their efforts to tackle the growing threats to the 193 million acres that it manages. The Department of the Interior, unfortunately, chose not to talk to us about the 400 million acres that they manage.

PAUL RIES, Associate Deputy Chief, State and Private Forestry, U.S. Forest Service, U.S. Department of Agriculture

Invasive species are among the most significant environmental and economic threats facing our Nation.

Aquatic and terrestrial invasive plants, pathogens, vertebrates, invertebrates, algae, and fungi have become established on millions of acres across North America.

These infestations are degrading watershed condition and ecosystem functionality, reducing forest and rangeland productivity, increasing the risk of wildfire and soil erosion, causing declines in recreational use and enjoyment, negatively impacting human health and safety, threatening native fish and wildlife populations and their associated habitats, causing declines in property values, and undermining the economy at all levels.

Invasive species cause billions of dollars in damage each year in the United States. Pimentel et al. (2001) estimated damage from invasive species world-wide totaled at more than $1.4 trillion per year.

Forest Service invasive species management performance is outcome driven, with a focus on treating and restoring priority areas to improve watershed condition and reduce the long-term impacts of invasive species. To achieve this, national forests and grasslands typically treat nearly 400,000 acres of priority aquatic and terrestrial invasive species infestations annually using an integrated management approach. Since 2007, more than 2 million acres of lands and waters have been restored to protect against aquatic and terrestrial invasive species across National Forest System lands and waters.

The Forest Service provides technical and financial assistance to State natural resource and agricultural agencies, tribal governments, and other Federal land management agencies to respond to and manage forest pests that threaten the Nation’s 851 million acres of rural and urban forests of all ownerships.

In FY 2012, Forest Service Research and Development delivered 169 invasive species tools including the identification of key pathways for invasion by new forest pests; methods for detecting, monitoring, and controlling the walnut twig beetle; release and recovery guidelines for biological control agents for emerald ash borer; and an assessment of the potential impacts of hemlock woolly adelgid predators.

The Forest Service International Programs also work to protect our forests from invasive species damage. For example, the program works with Chinese counterparts who have partnered with us to address one of the most destructive invasive forest pests, the emerald ash borer (EAB). The Forest Service continues to work with the USDA Agricultural Research Service (ARS) to better understand why the borer is so resilient and pervasive.

K. GEORGE BECK, Professor of Weed science, Colorado State University, Healthy Habitats Coalition

The data on this particular slide show the number of infested acres in 2009, acreage treated and restored and the increase of infested acres for six Federal agencies that have a responsibility to manage invasive species. Only 3.2% of existing infested acres were treated and restored in 2009. Weed scientists indicate that invasive weeds typically spread at a rate of 12 to 16% a year. Treating and restoring only 3.2% of infested acres annually, coupled with a 12% increase, indicates that Federal infested acres will double by 2017 and will surpass 100 million acres at that time.

Federal agencies are acquiring about 3.5 times more acres of invasive weeds annually than they are treating and restoring. This plan decidedly will never be successful and will continuously produce more and more infested acres, thus preventing realization of land management goals and objectives. Just as importantly, however, these ever-expanding acres of invasive weeds on federally managed lands will serve as a constant source of propagules to disperse to new locations.

These data show the National Invasive Species Council budget, which is assembled by asking the agencies for what they have done, and putting those figures into one of these seven budget categories. The Federal Government spent $1.563 billion in fiscal year 2009 on invasive species management, stating that $642 million was spent on control and management. HHC members have years of experience designing weed management plans, and our calculations differ substantially from the Federal data.

Agencies indicated they treated and restored 1,603,805 acres in 2009. Our calculations suggest the following when early detection/rapid response is budgeted at $1,000 per acre, restoration at $300 per acre, and controlled herbicide at $100 per acre. As you can see, our calculations indicate that far less appears to have been spent on control and management than that stated by the Federal agencies, and there remains about $305 million that cannot be readily placed into one of the next budget categories.

It appears, then, that agencies are spending more money per acre to control invasive weeds than is necessary. The Healthy Habitat Coalition recommends that Federal agencies must treat and restore at least 15% of infested acres annually to overcome this management deficit.

The data in this table show that within 10 years, 19.2 million acres would be treated and restored using this plan, which represents a 39% decrease of infested acres, as opposed to over 120% increase using their current approach over the same time period.

In addition to treating and restoring many more acres annually than Federal agencies currently do, they also must be more efficient and effective with taxpayer dollars. Many university extension professors have spent considerable effort over the past 25 years educating and training Federal personnel about invasive weeds and their management. The inadequate Federal performance in spite of this extensive educational effort by so many also suggests, then, that their efforts are likely insufficient. We, as a Nation, are digressing, rather than progressing, on invasive species management.

Invasive species is an insidious and occasionally sinister economic and environmental issue—it is not new.

The Canada thistle, for example, was first declared noxious in the United States in 1795 in Vermont. A little overgrazing by one user, in this instance, opened the door for invasion of the common area by Canada thistle, which in turn decreased everyone else’s ability to raise the sustenance needed to survive. It was the tragedy of the commons where one person’s use of the environment influenced the next person’s use and invasive species continue to plague us in this fashion to this day.

In spite almost three decades of work with the Federal Government to control and manage invasive species, little progress has been made and what progress that has occurred is grossly insufficient on a national scale. A multitude of taxa require our immediate management attention; zebra and quagga mussels, New Zealand mudsnails, Burmese pythons, feral hogs, emerald ash borers, gypsy moths, Asian carp, snakehead fish—the list of invasive species is long.

The Healthy Habitat Coalition’s collective experience, however, is with invasive weeds and we will focus on the continued growth of various weed species and the need for better control and management measures on lands and waterways throughout the country. The data in Table 1 outline the amount of infested acres, the amount of acres treated, and the increase of infested acres for the six major Federal Agencies who have jurisdiction over invasive species.

Totals from table 1: Infested acres 49,481,709, Treated & restored acres 1,603,805, Percent treated and restored 3.2%, New Acres Annually 5,769,349, Total Net Infested Acres 53,847,807 (2009), over 110 million acres infested in 2018 due to not enough treatment done per year

As with other integrated management systems for weeds, use of fire to manage invasive weeds must be integrated with other tools such as seeding to provide competition to ward off recovering weed species and allow completion of land management goals and objectives. Burning mixed brush-cheatgrass stands destroys some to many weed seeds and allows for about one season to establish desirable vegetation before cheatgrass re-establishes and dominates the site again

Establishing competitive perennial grass species may successfully keep cheatgrass from re-establishing. If, however, the system is left alone after burning, cheatgrass or medusahead will re-invade. Burning stands of yellow starthistle also will provide excellent population control if combined with herbicide treatment and seeding (DiTomaso et al. 2006b). Burning stands of perennial weeds such as Canada thistle, leafy spurge, Russian and other knapweeds, or tamarisk rarely is effective because of the plants’ capability to re-grow from its root system and dominate a site again.

These and other similar invasive weeds may recover soon enough after a prescribed burn to preclude establishment of seeded species. If fire is used to control perennial forbs or grasses, herbicides likely will have to be integrated into the management system to allow sufficient suppression of the target weed for a long enough time to give seeded species the opportunity to establish.

The decision to do nothing seems inexpensive and harmless on the surface but nothing could be farther from reality. The problem with invasive species is their populations always seem to expand and cause harm, albeit, a species can be problematic in one location or setting and not another. Most invasive species and certainly invasive weed populations develop in a sigmoid curve pattern and after a lag time following introduction, their populations increase exponentially until site saturation when their populations are limited by resource availability.

The problem is one never knows where on the curve the population at any given population lies. Even with cheatgrass, the invaded location/site might be new and at the bottom of the curve when population control is most easily obtained or it could be at beginning of the exponential phase but it is difficult at best to make such a determination. The best response is to NEVER DO NOTHING because doing nothing can be the most expensive decision one can make due to the subsequent population growth by the invasive weed and the resulting havoc it wreaks upon the native plant community and the animals it supports! Doing nothing simply yields the site to the invasive species.

The least expensive weed to control is the one that is not present—however, prevention is not free. The perception that prevention is simply steps taken to keep stuff out that currently does not exist in a particular location is accurate for certain and possibly represents the greatest cost savings to taxpayers. Cleaning equipment between uses and locations seems a logical prevention approach along with using certified weed seed-free hay, forage, mulch or gravel, and careful screening of ornamental and agricultural introductions can be of tremendous benefit in the battle against invasive species.

Prevention also means decreasing population abundance of existing weed infestations so they are not a source for new ones to develop some distance— close or far— from the infested site.

Diffuse knapweed (Centaurea diffusa) was targeted in Colorado where hand pulling twice annually was compared to mowing three times annually, to mowing twice followed by herbicide in fall, to herbicide application alone. Control of diffuse knapweed rosettes and bolted plants was best 1 year after treatments were exerted where a herbicide was used alone or in combination with mowing compared to mowing alone or hand pulling. Herbicides alone were about 1 percent of the total cost of hand pulling and the latter was completely ineffective.

Duncan and Clark (2005) cite numerous examples of the environmental and economic impacts caused by invasive weeds. Pimentel et al. (2005) calculated that invasive species impact the U.S. economy by more than $120 billion annually and $36 billion of this was caused by invasive weeds.

Some examples of plants and plant pests that move in interstate and foreign commerce that have become problems for State inspection, quarantine, agriculture, and natural resource authorities include:

  • Arunda donax; common name giant reed; imported as an ornamental in many U.S. States and now being considered for biofuel production.
  • Pennisetum setaceu; fountain grass; imported as an ornamental and now one of Hawaii’s most damaging invasive plant species.
  • Imperata cylindrica; cogongrass; used as packing material and imported for forage and erosion control. Now an aggressive invasive species problem in the Southern and Eastern United States as far north as Michigan.
  • Anoplophora glabripennis;
  • Asian longhorned beetle; accidentally introduced in wood packing materials; destructive wood boring pest expanding its range in the United States.
  • Agrilus planipennis; emerald ash borer; arrived accidentally in cargo from Asia; first discovered in Michigan in 2002 and since spread to 17 other States in upper Midwest and Northeast.
  • Lythrum salicaria; purple loosestrife; introduced as an ornamental but now prohibited in most States. Considered by some to be the poster child for invasive species.
  • Sturnus vulgaris; European starlings; introduced into New York 1890s and have since spread across continental United States and may even be helping to spread other invasive species such as Russian olive (Elaeagnus angustifolia).

A few examples of costs to States for invasive species that have arrived via interstate and foreign commerce and then become established in States are:

  • Emerald ash borer in Ohio projected costs for landscape value losses, tree removal and replacement range from $1.8 to $7.6 billion (in Ohio alone).
  • Data from nine U.S. cities Atlanta, GA; Baltimore, MD; Boston, MA; Chicago, IL; Jersey City, NJ; New York, NY; Oakland, CA; Philadelphia, PA; and Syracuse, NY) indicates maximum economic impact potential of losing 1.2 billion trees from attack by Asian long-horned beetle is $669 billion. Estimates were based upon losses accrued to data.
  • Economic impact by purple loosestrife in 19 Eastern and Northcentral States was estimated to be $229 million annually because of decreased value of wetlands, hay and pasture, fur harvest, migratory bird hunting, and wildlife observation and photography.

RANDY C. DYE, West Virginia Forester, President, National Association of State Foresters 

Forested landscapes cover approximately one-third of the total land area of the United States, including 100 million acres in urban environments. Every American benefits from forests, whether in the form of wood products for construction or paper, neighborhood amenities, wildlife habitat, carbon sequestration, clean water and air, and even our spiritual well-being. Many Americans’ jobs are linked to trees. The U.S. forest products industry employs nearly 900,000 people; it is among the top 10 manufacturing sector employers in 47 States.

  • Invasive species know no boundaries; they span landscapes, land ownerships, and jurisdictions. The damage they cause costs the American public an estimated $138 billion each year, which makes them a significant drain on the national economy.
  • Private landowners and small communities are some of the hardest hit by invasive species infestations.
  • Invasive species can be exceptionally damaging in urban environments where ecological systems are already stressed. Invasive species threaten the quality of life and the property values of millions of metropolitan residents across the country.
  • Currently, 42%—400 of 958—of the plant and animal species listed by the Federal Government as threatened or endangered have been negatively affected by invasive species.
  • Invasive species populations have depleted water supplies, poisoned wildlife and livestock, and directly impacted thousands of acres of native forests and rangelands.
  • Public recreational opportunities and experiences have become severely de graded by rapid infestations of invasive species, in many cases hampering access, reducing recreational quality and enjoyment, and decreasing the aesthetic values of public lands

Some of the most damaging Invasive species include Asian Long-horned Beetle, Emerald Ash Borer, Gypsy Moth, Sudden Oak Death, Hemlock Woolly Adelgid, and Cogon grass.  Municipal governments across the country are spending more than $1.7 billion each year to remove trees on city property killed by these pests. Homeowners are spending $1 billion to remove and replace trees on their property and they are absorbing an additional $1.5 billion in reduced property values.

The scope of the impacts of these pests is demonstrated by a brief description of the threats they pose:

  • The Asian Longhorned Beetle kills trees in 15 botanical families—especially maple and birch which constitute much of the forest reaching from Maine to Minnesota and urban trees worth an estimated $600 billion.
  • Emerald Ash Borer occupies more than 200,000 square miles in 18 States. More than 200 million ash trees in the Plains States and additional trees in the South are at risk to this pest. Homeowners and municipalities collectively will pay more than $10 billion over the next 10 years to remove dead ash trees that would otherwise fall and could cause property damage or even loss of life.
  • Hemlock Woolly Adelgid has killed up to 90% of hemlock trees in the Appalachians from Georgia to Massachusetts. Loss of hemlock groves threatens unique ecosystems and watersheds.
  • Goldspotted Oak Borer has killed up to 80,000 California live oak and black oak trees in San Diego County in less than 15 years. The insect threatens oaks throughout California, including close to 300,000 oak trees growing in greater Los Angeles and Yosemite Valley.
  • Sudden Oak Death affects 143 different plant species and continues to spread in California’s 14 impacted counties as well as Curry County, Oregon. In 2012 alone, nearly 400,000 trees were lost to Sudden Oak Death in California.

Some examples of plants and plant pests that move in interstate and foreign commerce that have become problems for State inspection, quarantine, agriculture and natural resource authorities are:

There are numerous examples of high priority pests arriving via foreign commerce through airport and harbor hubs. Wooden pallets, used in transporting goods have been especially problematic in introducing wood borer insects (e.g. Asian Long- horned Beetle, Emerald Ash Borer). These pests are now being spread through a variety of local pathways, with firewood as a major vector. The National Association of State Foresters (NASF) has encouraged the U.S. Department of Agriculture (USDA) to move expeditiously to provide a standardized treatment and certification procedure for the interstate movement of all firewood. The firewood industry is largely unregulated, with little or no national regulatory guidelines outside of pest specific quarantine areas and states. This lack of Federal regulation has led many States to seek or pass their own firewood regulations for specific pests.

Cogon grass, a noxious weed infesting pastures and forests first appeared in Alabama as an escape from orange crate packing in 1912. It was intentionally introduced from the Philippines into Mississippi as a possible forage in 1921 and then introduced into Florida in the 1930s and 1940s as a potential forage and for soil stabilization purposes. It now extends as far north as South Carolina and west to Texas.

Some examples of the associated costs to States for invasive species that have arrived via interstate and foreign commerce and then become established in States are:

The Asian Long-horned Beetle kills trees in 15 botanical families—especially maples and birches which constitute much of the forest reaching from Maine to Minnesota and urban trees worth an estimated $600 billion. Emerald Ash Borer occupies more than 200,000 square miles in 18 States. More than 200 million ash trees in the Plains States and additional trees in the South are at risk to this pest. Homeowners and municipalities collectively will pay more than $10 billion over the next 10 years to remove dead ash trees that would otherwise fall and cause property damage or even loss of life.

JASON FEARNEYHOUGH, Director, State of Wyoming, Department of Agriculture  

Wyoming began its battle with invasive species in 1895 with its first noxious weed law targeting Russian thistle, or what many of you may recognize as the western tumbleweed. At that time, homeowners were limited in their ability to identify the plant and lacked the resources to control the spread of the species. This made it easy for Russian thistle to establish itself throughout the State and the West in spite of the legislature’s well intended efforts. While the law didn’t stop the Russian thistle, it created the foundation for the State’s current weed and pest program. Today, we are able to assist land owners and managers

Because of these programs, the State has eradicated Yellow starthistle (a toxic plant that covers more than 12 million acre in California) and we have kept our waterway clear of Eurasion watermilfoil and the invasive quagga mussel.

This is no longer just an agricultural issue. We have a broader understanding of the impacts these species play on our ecological systems, communities, recreation, and human health.

Teton County Wyoming is situated in the northwest corner of the State and it is approximately 3 million acres in size. Within its boundaries, the majority of land is managed by Federal agencies who oversee Yellowstone National Park and Grand Teton National Park, the National Elk Refuge, and the Bridger Teton National Forest. The county’s natural resources draw in millions of tourist annually with visitors from all corners of the world who are potentially bringing noxious weed seeds or non-native insects in their luggage, as hitchhikers on their cars, or as food.

A good regional example of insufficient on the ground support is cheatgrass. Wyoming and many Western States have been working diligently to avoid the listing of the sage-grouse as an endangered species and a primary threat to the species is sage brush degradation due to invasive grasses. Cheatgrass matures quicker then native grasses, is highly susceptible to fire and recovers from fire quicker than native grasses. Sage brush communities historically experience wildfires on a 50 year or more cycle, but cheatgrass can reduce that cycle to 5 years or less which makes it difficult for native sagebrush to re-establish. Simply stated, with no sagebrush there is no sage- grouse.

These examples are based on my experiences as Director of the Wyoming Department of Agriculture, but the issue of lacking resources for invasive species in not limited to my State or the West. Each State has its own set of invasive species issues and management needs. In the Southeast it may be giant African snail or Burmese python; in the Midwest it may be Asian carp or Asian longhorn beetle; in the Southwest it may be feral pigs or fire ants. Looking at these few examples, it’s easy to see how invasive species are costing the United States nearly $120 billion in losses annually. This includes the litany of new invasive plants, insects, and animals USDA–APHIS works to stave off at our harbors and ports each year.

Some examples of plants and plant pests that move in interstate and foreign commerce that have become problems for State inspection, quarantine, agriculture and natural resource authorities.

Many of the invasive species Wyoming deals with were introduced through intra-State or foreign commerce. Wyoming lists 25 plant species as State priority weeds. Some of these plants such as Dalmatian toadflax and Russian olive were deliberately introduced as ornamental plants or trees and have escaped cultivation. Some weeds and pests such as Hoary cress, cheatgrass and emerald ash borer were introduced through packing materials. Other weeds such Russian knapweed and quackgrass likely made their way into the United States through contaminated seed. Many of the aquatic invasive species such as quagga mussels and Eurasian watermilfoil were likely introduced through ballast water discharge or through the aquarium trade.

According to the Hawaii Department of Agriculture they share some similar invasive species issues, in addition to some State specific concerns. They noted varroa mites which were accidentally introduced on the island of Oahu in 2007 from California. The varroa mites have been a significant issue for the contiguous United States since 1987. The introduction to Hawaii is notable as prior to 2007 the State represented a unique location within the United States to produce honey bees without the threat of varroa mites. Some of the more State-specific issues Hawaii deals with include little fire ants and coqui frogs introduced through imported plants, and siam weed and fireweed that were likely introduced through contaminated seed. Little fire ants and coqui frogs are also present in Florida, but are not currently found throughout the contiguous States.

Some examples of the associated costs to States for invasive species that have arrived via interstate and foreign commerce and then become established in States:

The costs of invasive species are staggering from the impacts side. The following is a small collection of the economic impacts from various invasive species.

  • Leafy spurge costs producers and taxpayers an estimated $144 million/year in just four States alone (MT, WY, ND and SD).
  • It is estimated that $16–$44 million dollars of hydropower generation is lost annually due to the salt cedar invasion in the United States.
  • Purple loosestrife is responsible for $45 million/year in agricultural losses for the United States.
  • Colorado wheat farmers estimate loses from cheat grass and jointed goatgrass to be near $24 million annually.
  • S. agriculture loses $13 billion annually in crops from invasive insects, such as vine mealybugs.
  • An aquatic invasive plant, Eurasian watermilfoil, reduced Vermont lakefront property values up to 16% and Wisconsin lakefront property values by 13%. In Wyoming, the local Weed and Pest Control Districts collectively spend over $15 million annually for the management of invasive species. Besides direct management, this includes salaries, equipment and other administrative costs.
  • The State of Wyoming also allocates an additional $350,000 for the management of invasive weeds and another $1.5 million annually for the management of the invasive vector-borne disease West Nile virus.
  • The Wyoming Game and Fish spends $426,000 annually on the inspection of boats for aquatic invasive species.

None of these figures include the costs associated with State quarantines, nursery stock inspection and seed inspection programs that assist in preventing the introduction of new invasive species in Wyoming.

JAMES D. OGSBURY, Executive Director, Western Governors’ Association 

Aquatic and terrestrial invasive species are causing extensive damage across western landscapes, coastal areas and Pacific Islands—and have been doing so for some time. In California alone, over 1,000 non-native species have been identified. All over the region, invasive species are harming natural environments and habitat, recreational uses, shore and marine uses, industrial and municipal uses, grazing, and timber harvests.

Invasions of non-native species are resulting in: Decreased biodiversity of native plants, birds, reptiles, and mammals; Increased vulnerability of native species, some of which are endangered and threatened species; Electrical power outages and disruptions; Physical disruption of water supply systems and increased flood damage; Increased wildfire severity (especially from non-native grass); Reduced value of Federal, State and private lands; and Economic harm to communities.

Let me illustrate the Governors’ concerns with several specific examples of invasive species that are now creating challenges for the West: Aquatic Mussels Aquatic invasive species (such as zebra and quagga mussels) are spreading into more western water bodies each year. Western States are on high alert to contain, control, and prevent their proliferation.

The most common sources for the introduction of these species are recreational watercraft and materials sold by aquatic plant and animal suppliers.

Invasion of these mussels result in impairments to water supplies for drinking, energy production, and irrigation.

The economic consequences are severe. For example, the operators and customers of large power plants and water users are spending millions of dollars to clean out zebra mussels from water facilities and additional funds to retrofit those facilities to prevent future invasions.

In addition, native fish and wildlife habitat are negatively impacted when these species become established in streams, lakes, estuaries and other water bodies. Western States have committed significant resources to man watercraft inspection and decontamination stations for invasive species, but this tactic cannot be the only line of defense.

California currently dedicates over $7 million annually to prevent the spread of quagga and zebra mussels into and within State. Decontaminating quagga/zebra mussel fouled watercraft at their source, especially federally managed water bodies, such as Lake Mead National Recreation Area, is essential, or we will continue to witness the spread of quagga and zebra mussel to new areas in the Western United States.

These growing costs do not include local reservoir prevention program or control expenses for water agencies in southern California, including the Metropolitan Water District, which currently spends millions of dollars annually to treat infested Colorado River water. Interception—whether at the source or at the borders—is critical for California, where water project control costs can run as high as $40 million dollars annually if mussels infest the system.

Cheatgrass is an aggressive invader of ponderosa pine, mountain brush, and other rangeland and forest areas in the West. Its ability to rapidly grow, reproduce and overtake native grasses makes it especially troublesome on ranges, croplands, and pastures. Where it becomes dense and dominant, cheatgrass can make wildfires even more severe because they burn easily. After a wildfire, cheatgrass thrives and out-competes native shrubby seedlings such as antelope bitterbrush. Cheatgrass can also diminish recreational opportunities, reduce available forage, degrade wildlife diversity and habitat, and decrease land values.

In California, invasive aquatic plants, such as water hyacinth and other invasive plants have proliferated to the point that they obstruct navigation and create hazards for boats and other watercraft; impair recreational uses such as swimming, fishing, and hunting; damage water delivery and flood control systems; alter water quality; and degrade the physical and chemical characteristics of fish and wildlife habitat. California’s aquatic weed control activities cost over $6 million annually.

The National Invasive Species Council defines an invasive species as ‘‘an alien species whose introduction does or is likely to cause economic or environmental harm or harm to human health.’’ The rapid spread of invasive species remains one of our country’s biggest environmental problems, a situation complicated by the sheer number of invasive species, lack of a coordinated and comprehensive effort to prevent introductions, monitor and survey for new introductions, and the remarkable ability of invasive species to adapt, reproduce and ultimately overtake entire ecosystems.

Invasive species are a global problem. The annual cost of impacts and control efforts equals 5% of the world’s economy. The U.S. Environmental Protection Agency estimates the country spends at least $138 billion per year to fight and control invasive plant and animal species, such as the emerald ash borer beetles that have destroyed millions of trees in the East and Midwest. Invasive species influence the productivity, value, and management of a broad range of land and water resources in the West, ultimately limiting the direct and indirect goods and services these ecosystems are capable of producing.

Over 100 million acres (an area roughly the size of California) in the United States are suffering from invasive plant infestations.

On a scale of biodiversity destruction, the EPA reports that invasive species rank second only to urban development. Invasive species have been identified by the Chief of the U.S. Department of Agriculture Forest Service as one of the four significant threats to our Nation’s forest and rangeland ecosystems.

The Western Governors recognize that the spread of invasive species results from a combination of human behavior, susceptibility of invaded environments, and biology of the invading species. These characteristics are not dictated by geopolitical boundaries, but rather by ecosystem-level factors, including climate change, which often cross State borders. Scientists and land managers across the West have expressed the need to develop a strategy for more aggressive invasive species prevention, early detection, and management.

Invasive species have significant negative economic, social, and ecological impacts which include, but are not limited to:

  • Reduction of the value of streams, lakes, reservoirs, oceans, and estuaries for native fish and wildlife habitat;
  • Degradation of water resources for human uses including drinking water, energy production, irrigation systems and other water uses;
  • Decreased real estate property value and increased costs of property development;
  • Detraction from the aesthetics and recreational value of wildlands, parklands, and other areas;
  • Degradation of ecosystem functions and values, including populations of desirable species;
  • Reduction of the yield and quality of desirable crop and forage plants that are important in production of our food supply;
  • Reduction of native biodiversity, resulting in a growing number of threatened, endangered and extinct species (Note: invasive species have contributed directly to the decline of 42% of the threatened and endangered species in the United States);
  • High cost of control;
  • Reduction of preferred native vegetation important to native fish and wildlife as well as livestock.

Aquatic invasive species such as the zebra mussel, quagga mussel, and Eurasian water milfoil are spreading into more western water bodies each year.

DEBRA HUGHES, Executive Director, New Mexico Association of conservation districts

New Mexico is the Land of Enchantment with diverse ownership and uses. Forty percent of our land is owned by the Federal Government—predominately by U.S. Forest Service (USFS) at 20% and the Bureau of Land Management (BLM) at 17%; 17% is owned by the State; 10% by the tribes; and 33% by private landowners, but most ranches in the West include ownership and management of private, State and Federal land. NM land uses include ranching and agriculture, oil and gas, and recreation, to name a few. We have diverse wildlife habitat from deserts to mountains; home to deer and elk and much more, including several prominent candidate species such as the Dune Sage Lizard and the Lesser Prairie Chicken.

Specific projects Restore New Mexico has been responsible for include Salt Cedar restoration work along the Delaware River, Creosote Restoration in Last Chance Canyon, Sagebrush and Juniper treatment south of Cuba, New Mexico, reclamation of the Sulimar Oil Field, Henery Tank Mesquite treatments, and Sagebrush shaving adjacent to the Taos Field Office.

Steven A. Horsford, Nevada. Invasive species are a growing problem across millions of acres of Federal land. The spread of invasive species is costing billions of dollars and negatively impacts agriculture, commerce, water quality, and wildlife habitat.  Invasive species monitoring, control, and eradication is time consuming and expensive.  We can probably use our resources better.  In my home State of Nevada, we have massive invasive species issues, the worst being the invasion of the quagga mussel. Cheatgrass and other noxious weeds are also increasing fire risk and impacting sage grouse habitat.

Cynthia M. Lummis, Wyoming.   Invasive species, like cheatgrass, have great implications for wild fires and Wyoming’s efforts to prevent the listing of the sage grouse, a huge issue for us right now. So, any solution in a State like Wyoming because of the tremendous amount of Federal land ownership, has to involve an effective Federal commitment.

References

Eggett J (2019) How to catch and cook bullfrogs. Utah division of Wildlife Resources. https://wildlife.utah.gov/news/wildlife-blog/628-how-to-catch-and-cook-bullfrogs.html

Posted in BioInvasion, Congressional Record U.S. | Tagged , , , , , | 3 Comments

U.S. Senate hearing on our aging water infrastructure

[ Even though conventional oil production has been on a plateau since 2005, there is no sense of alarm or urgency to try to fix infrastructure before oil is rationed and not enough exists to replace or repair it. Some day people will ask why energy was used to build skyscrapers, keep roads smooth as a babies bottom in the empty deserts of Nevada, and a million other non-essential uses, instead of fixing dams and replacing century old water delivery systems.  After all, if our hydroelectric dams fall apart, there won’t be any electricity to power the elevators in Trump towers, without water delivery systems we’ll all be drinking lead, giardia and cholera laced water, grow less food as irrigation systems fall apart, be unable to transport goods on inland rivers as locks fail, be unable to cool power plants and have to shut them down, or treat and get rid of sewage wastes.

Alice Friedemann   www.energyskeptic.com  author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

USEPA. April 2010. Aging Water Infrastructure. U.S. Environmental Protection Agency, EPA Science matters newsletter Vol 1 #1

USEPA. April 2010. Aging Water Infrastructure. U.S. Environmental Protection Agency, EPA Science matters newsletter Vol 1 #1

Senate 113-225. July 25, 2013. Aging Water Infrastructure. United States Senate hearing, 68 pages.

Excerpts:

BRIAN SCHATZ, U.S. SENATOR FROM HAWAII.  Today the Subcommittee on Water and Power is holding an oversight hearing on aging water infrastructure in the United States. In 2008 this subcommittee held a similar hearing and we learned then that the maintenance backlog for the Bureau of Reclamation’s water facilities alone exceeded $3.2 billion. Unfortunately this situation hasn’t improved much in the last 5 years. In fact we just witnessed a near disaster right here in the Nation’s capital when water in Prince George’s County was nearly shut off to tens of thousands of residents during the hottest week of the summer due to an aging water main that was about to collapse. This incident has brought much needed attention to today’s hearing topic.

Just this year the American Society of Civil Engineers gave the United States a D or worse for nearly every water infrastructure category on its report card. This is not acceptable because the impacts of a failing water system can be profound. Dam failures pose a significant risk to the safety of our communities and deteriorating water treatment facilities can lead to water borne illnesses.

The Bureau of Reclamation is the Nation’s largest wholesale water supplier serving more than 31 million people, providing irrigation water for 10 million acres of farm land and is the second largest producer of hydroelectric power in the West.

The Army Corps of Engineers maintains over 700 dams with 353 hydropower generating units that can provide up to 25 percent of our country’s hydropower.

As Chair of this subcommittee I often think about the connection between energy and water. The topic of aging infrastructure is a critical component of the energy/water nexus. So much of our water infrastructure is tied to energy.

Hydropower is the obvious example, but water infrastructure is also responsible for irrigation which helps to grow our biofuels and is used for cooling at power plants and used to extract and move energy resources such as coal, oil and gas. When our water infrastructure begins to break down not only do we lose water through leaky pipes, we also waste energy. So aging water infrastructure quickly becomes a topic of concern for those of us interested in the production of energy and energy efficiency.

The economic impacts of unreliable water delivery and waste water treatment services increase costs to businesses and to households. According to a report from the American Society of Civil Engineers, between now and 2020 the cumulative loss to the Nation’s GDP would be over $400 billion. Disruptions to electric generation due to aging water infrastructure will also increase the cost of electricity to those states and regions that use Federal hydropower.

Many challenges exist in managing and financing the upgrades and repairs needed to mitigate the impacts of aging water infrastructure. Further, severe weather events are increasing stresses on existing facilities. Floods will strain waste water systems and ongoing drought will mean reduced hydroelectric power generation.

LOWELL PIMLEY, Deputy Commissioner of Operations, Bureau of Reclamation, Department of the Interior

Maintaining our infrastructure is becoming more costly over time due to the conditions of some of our components, cost increases in the broader economy and the need for additional facilities, rehabilitation, replacement and extraordinary maintenance.

Most of Reclamation’s major dams, reservoirs and hydroelectric plants and irrigation systems are 60 or more years old. A facility’s age is not the sole measure of its condition, but the condition of each component really is the central factor in the long term maintenance needs of the general asset.

Our large portfolio of water resource infrastructure constantly presents new maintenance, replacement and modification challenges. The aging process will inevitably lead to increased pressure on Reclamation and our 350 operating partners’ budgets. As such Reclamation and the operating entities anticipate infrastructure maintenance needs will continue to grow over time.

We are the Nation’s largest wholesale water supplier, and the 348 reservoirs we administer have a total storage capacity of 245 million acre-feet of water. We bring water to more than 31 million customers and provide approximately 20 percent of western farmers with water to irrigate about 10 million acres of farmland. We are also the Nation’s second largest producer of hydroelectric power, generating more than 40 billion kilowatt-hours of energy each year. In the 111 years since Reclamation’s creation, the Federal government has invested almost $19 billion in original development costs for our facilities. In present value terms, the amount that the Federal government has spent to construct this infrastructure is estimated to be $94.5 billion.

JAMES R. HANNON, CHIEF OF OPERATIONS AND REGULATORY, ARMY CORPS OF ENGINEERS, DEPARTMENT OF THE ARMY

The infrastructure that the Corps helps to maintain includes 705 dams, 14,700 miles of levees, 13,000 miles of coastal harbors and channels, 12,000 miles of inland waterways, 241 locks and hydropower plants at 75 sites with 353 generating units. These projects help provide protection and reduce risk to the Nation, facilitate approximately 2 billion tons of commerce to move on the Nation’s waterways and can provide up to 24 percent of the Nation’s hydropower.

Almost 60 percent of our locks are at least 50 years old. Almost half of our dams at our hydropower plants are more than 50 years old.

CHARLES V. STERN, Specialist in Natural Resources Policy, CONGRESSIONAL RESEARCH SERVICE

As the Nation’s dams, levees, divergent structures and other water resource infrastructure age, decision-makers are faced with the question of whether to operate Federal water projects under the current statutory framework or to alter existing policies to facilitate the repair, rebuilding or transfer of those assets. My testimony will focus on water resource infrastructure owned by the Federal Government. The Federal Government owns water resource facilities with a combined replacement value of about $352 billion. The Bureau of Reclamation and the Army Corps of Engineers are the principle agencies charged with constructing and maintaining these investments, many of which are more than 50 years old.

The second anticipated challenge is financing. Several assessments have concluded that aging water resource infrastructure is likely to become a greater challenge over time due to increasing repair needs and expected flat or declining appropriations

Reservoir Storage Restrictions: According to the Corps and Reclamation, at least twelve federal reservoirs are currently operating at lower storage levels than designed as a result of dam safety concerns, some of which relate to aging infrastructure;

Hydropower Unavailability and Forced Outages: According to agency data, over all hydropower peak availability over the last 10 years was down by about 7% and 9% at Corps and Reclamation units, respectively. Forced outages for both agencies were also up over this same period.

Lock Unavailability: According to Corps data, lock unavailability, which often occurs due to repairs related to deteriorating infrastructure, has increased by approximately 45% over the last 20 years in terms of the number of lock outages and has increased by almost three-fold in terms of hours of repair.

GERALD E. GALLOWAY, PE, PH.D., GLENN L. MARTIN INSTITUTE PROFESSOR OF ENGINEERING, UNIVERSITY OF MARYLAND, COLLEGE PARK, MD 

The nation’s neglect of its water resources infrastructure threatens our long-term economic vitality and our national security. This infrastructure is aging and is not being upgraded to meet the demands of this century. Much of what we do every day and many of our economic successes are tied to the availability of water infrastructure. The gradual deterioration of what was once a world class water resources infrastructure can only have deleterious effects on the nation. To this end, I would like to make some points about the aging water infrastructure of the United States:

  1. There is no question that our water infrastructure is aging and that its condition is fragile. Study after study has made this clear. The impacts from having aging infrastructure are substantial and without action they will become critical. Because most of this infrastructure is out of sight and because many fine professionals work every day to keep it operating under difficult conditions, the full extent of the challenge we face is generally not understood by government officials, businesses, and the public.
  1. Climate change will exacerbate the impacts of this aging and will increase the potential for system disruptions and collapse. Climate change could be a ‘‘tipping point.’’
  1. There is a substantial link between the production of energy and the condition of the water resource infrastructure. In many cases these linkages are overlooked or are poorly understood. Energy needs water and water needs energy.
  1. The nation must take steps to address the aging infrastructure problem. It is another case of ‘‘pay me now’’ or ‘‘pay me a lot more later.’’ A failure to act on aging infrastructure will have serious consequences now and will increasingly burden our children and grandchildren. Delay only drives up costs. Priorities must be established based on the risks to public safety and the national economy. A fix-as-fails approach is unsustainable and short sighted.

OUR AGING WATER INFRASTRUCTURE: What Is It?

The nation’s water infrastructure is found in every city and village across our land. It is the dams that provide storage for floodwaters, water supply, recreation, hydropower, downstream navigation, and environmental stewardship. It is in the engineered rivers that carry millions of tons of cargo from farm fields, fuel extraction, and factories to ports and facilities and that drive domestic and international trade. It is the irrigation canals that carry millions of gallons of water to many of the same farm fields. It is the levees, coastal barriers and other flood mitigation activities that provide security for those living in areas at risk of flooding and hurricanes.

The extent of this infrastructure becomes apparent in examining the statistics on the numbers and nature of structures. However, true appreciation emerges in recognizing the diversity behind these numbers. Dams vary in size from the giant (Grand Coulee) to the small (local recreation dams). Major locks and dams on the Mississippi provide 1200 foot chambers for transiting vessels, while small facilities facilitate commerce and recreation on rivers like the Monongahela and the Ouachita. Water and wastewater treatment facilities serve millions of our citizens in metropolitan areas but also provide support to the residents of small villages.

The statistics describe a massive national asset base:

  1. 87,000 dams in the National Inventory of Dams and tens of thousands smaller dams that are not. The average age of the 87,000 dams is 52 years. Of 14,000 high hazard dams, 2000 are deficient. More than half of the 2525 hydroelectric dams regulated by the Federal Energy Regulatory Commission (FERC) are older than 80 years.
  2. At least 40,000 miles of levees. Because, in the case of many levees, the current structures were built on top of or integrated within earlier structures, it is difficult to accurately determine their ages. The legacy of many of the major structures dates to the late 19th or early 20th century. Reports by FEMA and the US Army Corps of Engineers indicate serious deficiencies in many of the structures.
  3. 8,116 miles of irrigation canals for which the federal government is responsible and thousands of miles of canals operated by local sponsors.
  4. 54,000 community drinking water systems with over one million miles of pipe. In 2002, EPA estimated that by 2020 the useful life of 9% of the nation’s drinking and waste water piping will have expired and 36% will be in poor or very poor condition. There are some 240,000 water main breaks each year. Even the National Capital Region is not immune.
  5. 14,780 municipal waste water treatment facilities. The normal life span of such facilities varies by type but is in the range of 25 years for mechanical-electrical components and 50 years for structures. As with drinking water piping, there is no national inventory of wastewater piping but estimates range from 700,000 to 800,000 miles, much of which was installed immediately following World War II and its now at the end of its useful life.  The growing need to develop adequate storm water capacity adds to the challenge. (Capacity limitations of 19th century storm water drainage caused a significant flood in the Washington DC Federal triangle in 2006
  6. 12,000 miles of commercially navigable channels, with over 200 lock chambers.8 More than 50% of the locks and dams have exceeded their design life, and many are over 70 years old.
  7. 300 commercial harbors and 600 smaller harbors. The viability of these facilities is a function of the maintenance of adequate channel and harbor width and depth. The growing size of modern vessels exceeds the current depths of many coastal ports and inadequate dredging has reduced the capacity of many inland ports.

Grading the condition of the water infrastructure

Every four years, ASCE sends the nation a Report Card for America’s Infrastructure, which grades the current state of its national infrastructure on a scale of A through F. In 2013, ASCE’s most recent Report Card gave the nation’s infrastructure an overall grade of D+, a slight rise from the 2009 Report Card.

In the water arena all categories were rated at D or below except for ports which were rated C l. ASCE indicates that since 1998, grades in all categories have been near failing primarily due to delayed maintenance and underinvestment.

The cost to the nation to remediate identified deficiencies and support modernization of the national infrastructure by 2020 is in excess of $3.6 trillion.

Unfortunately, the exact condition of the infrastructure is not accurately known and aging continues. Recent reports on dams and levees indicate that in the case of levees both the exact location and condition of a substantial percentage of the national levee stock is unknown. In the case of dams, lack of funding for inspections and differences among standards applied by states call into question the uniformity and arguably the reliability of the assessments that are made. Some dams such as those related to mine tailings receive only cursory review emphasizing only the potential risks to miners and not necessarily to surrounding communities. Water and wastewater systems are buried, and even with sophisticated technologies, accurate assessment of their condition is difficult and costly to obtain.

Much of the national water infrastructure has exceeded its design life and some is approaching the century mark. Major levee failures such as those in New Orleans result in billions of dollars of damages. Dam failures in the past have resulted in significant loss of life. As was illustrated in the weeks following Superstorm Sandy, loss of water and wastewater systems can bring communities to their knees and shut down all economic activity. Offices are unable to open and factories are unable to produce. When flood structures fail or their capacity is exceeded, transportation corridors are closed and health and sanitation facilities become inaccessible.

CLIMATE CHANGE AND POPULATION GROWTH

According to the 2011 study, America’s Climate Choices, conducted by the National Research Council at the behest of U.S. Congress (P.L. 110-161), ‘‘. . .climate change is occurring, is very likely caused by human activities, and poses significant risks for a broad range of human and natural systems.’’ The study points out the potential for sea level rise and large storms to result in significant coastal erosion and for more intense rainfall to increase the probability of flooding in selected areas around the nation. The study notes that these threats make it ‘‘prudent to design the infrastructure for transportation, water, and utilities to withstand a range of weather extremes including intense rainfall flooding and drought scenarios. . .

  • A Federal Advisory Committee Draft Climate Assessment14, released earlier this year, found that:  ‘‘Summer droughts are expected to intensify in most regions of the U.S., with longer term reductions in water availability in the Southwest, Southeast, and Hawai’i [sic] in response to both rising temperatures and changes in precipitation.
  • Floods are projected to intensify in most regions of the U.S., even in areas where average annual precipitation is projected to decline, but especially in areas that are expected to become wetter, such as the Midwest and the Northeast.
  • Expected changes in precipitation and land use in aquifer recharge areas, combined with changes in demand for groundwater over time, will affect groundwater availability in ways that are not well monitored or understood.
  • Sea level rise, storms and storm surges, and changes in surface and groundwater use patterns are expected to challenge the sustainability of coastal freshwater aquifers and wetlands.’’
  • The assessment also reports that the ‘‘reliability of water supplies is being reduced by climate change in a variety of ways that affect ecosystems and livelihoods in many regions. . ..’’

The 2012 report by a task committee of the Intergovernmental Panel on Climate Change, Managing the Risks of Extreme Events and Disasters to Advance Climate Change Adaptation, identifies many of the same impacts.

Growth in population will also influence the need for infrastructure activity. The U.S. Census Bureau currently projects that the population of the United States will increase by 27%, 85 million, between now and 2050.  This growth will increase the need for expansion and upgrading of much of the water infrastructure and, as indicated below, will increase the number of people at risk to floods and coastal storms. The aging infrastructure may well be both too old and too small.

In June 2013, the Federal Emergency Management Agency released a report indicating the increases in potential flooding across the United States that could result from climate change and population growth between now and 2100.16 ‘‘For the [contiguous US] riverine environment, the typical 1% annual chance floodplain area nationally is projected to grow by about 45%, with very large regional variations. The 45% growth rate is a median estimate implying there is a 50% chance of this occurring. . . 30% of these increases in flood discharge, SFHA, and base floodplain depth may be attributed to normal population growth, while approximately 70% of the changes may be attributed to the influence of climate change. . . for the coastal environment, under the assumption of a fixed shoreline, the typical increase in the coastal SFHA is projected to also be about 55% by the year 2100, again with very wide regional variability. The 55% increase is a median estimate so there is a 50- percent chance of this occurring.’’ Figure 3 provides the geographic distribution of these changes.

Climate and population change will have direct effects on our aging water infrastructure. Structures designed to protect against current or past flooding and coastal erosion threats may not be able to stand up against the forces of larger events or deal with the increased magnitude of these events. Increases in population, will in many cases require current water and wastewater systems to be not only upgraded but also to be sized to the increased demands that will be expected. Additional surface or subsurface storage may be required and older facilities may not be in a position to be modified or expanded. Major storm flows, which are currently stressing many of existing dams and levees, may increase even more under climate change and further threaten those that rely on these structures. Sea level rise is already affecting the US East and Gulf coasts.

Droughts will also increase the stress on water infrastructure. During droughts rivers run low and substantially increase the amount of dredging and other maintenance activities required in channels and at ports. Droughts result in severe stress on water supply systems, whether for agricultural or municipal and industrial use. They also increase the pressure for additional storage or expansion of the water supply storage in existing facilities.

THE ENERGY AND WATER NEXUS

There is a substantial link between water and energy. This should be recognized and addressed in in plans to deal with aging water infrastructure.

In 2012, the heads of 15 of the world’s largest National Academies met in to discuss important scientific issues facing the world community.  The ‘‘Energy and Water Linkage: Challenge to a Sustainable Future’’ was one of three topics addressed by the group. Following the meeting, in which I was fortunate enough to participate as a facilitator, the Academy heads signed a statement identifying the issues they had discussed. In this statement, they reported that:

  • Needs for affordable and clean energy, for water and adequate quantity and quality, and for food security will increasingly be the central challenges for humanity: these needs are strongly linked. . . It is critically important that planning and investment in energy and water infrastructure and associated policies take into account the interaction between water and energy. A systems approach based on specific regional circumstances and long-term planning is essential. Viewing each factor separately will lead to inefficiencies, added stress on water availability for food protection and for critical ecosystems, and a higher risk of major failures or shortages in energy supply.’’
  • They also noted that energy production requires water and that the production of water supplies in adequate amounts and quality requires energy. They pointed out that fossil fuel and nuclear power plants and solar thermal require large water withdrawals and some water consumption and indicated that even use of ‘‘increasingly important ‘unconventional sources’ such as tar sands gas hydrates in gas and oil and tight formations have substantial implications for quantity and quality of water. . .producing alternative transportation fuels, in particular biofuels. . . can involve substantial impacts on water resources and water quality’’ .

Our aging inland waterway infrastructure also has a significant tie to energy production. Twenty-two percent of the nation’s energy products are carried on inland waterways barges that are energy efficient. Inland waterways separate potentially volatile cargo from heavily populated areas. Operating as part of the national intermodal transportation system, waterways also provide alternative routes should problems occur with energy product movement on parallel systems such as pipelines and rail, increasing the resilience of the overall system and the resultant national security.

Hydropower production, although providing only 8 to 12 percent of the national energy pool, provides critical services in many parts of the country. 20th century development in the Tennessee Valley and in the Columbia basin relied on use of low cost hydroelectric power. Many communities are reliant on hydropower for base supply and many others for the peaking power necessary to meet electricity needs during periods of high demand. Many of the nation’s hydropower facilities are aging and, although carefully supervised by the Federal Energy Regulatory Commission and state agencies, require substantial and continuous attention. Again, where rate setting becomes political instead of true cost based, funding challenges will develop.

WHAT MUST BE DONE?

Filling the information gaps As a follow-up to Katrina, in 2009 a congressionally directed National Committee on Levee Safety reported that considerable attention needed to be paid to the development of an inventory of the nation’s levees and their conditions. Some work has been accomplished by the U.S. Army Corps of Engineers and FEMA in addressing levees under their oversight but the work is far from complete and no action has been taken by the Congress on recommendations of the National Committee on Levee Safety. The condition of tens of thousands of miles of levees in the US has yet to be assessed and many of these levees have yet to be precisely located.

Information about the condition of only 75% of the 87,000 dams has become part of a national inventory of these structures. We know where the dams are located and if their failure would pose a threat to those below the dams, but we have yet to complete thorough assessments of the condition of all dams. Some of these dams date to before the Civil War. On a positive note, the condition of the approximately 4000 dams under federal oversight has, for the most part been assessed and continues to be monitored, even if funds to deal with identified problems cannot be fully addressed. Four percent of dams are federally owned and the Federal Energy Regulatory Commission (FERC) provides oversight of an additional 2525 private and public dams.19 In 2007, Section 2032 of the Water Resources Development Act (PL 110-114) directed the President to, within two years, conduct an analysis of the vulnerability of the nation to flooding.

Such an analysis would identify the exposure—what is in the path of a potential flood or storm surge—and the vulnerability of affected communities to such events. Vulnerability reflects the ability of existing flood protection infrastructure to carry out the functions for which it was designed. No funds have been appropriated by Congress for this activity, in the nearly six years since the law was passed and, as a result, no analysis has taken place.

The Environmental Protection Agency has invested resources in gathering information about the condition of water and wastewater infrastructure and has prepared reports that identify the challenge the nations faces in drinking and waste water. Such analyses however represent only estimates and given that much of the infrastructure is below ground, there is considerable uncertainty with the completeness of the survey information.

The inland waterway community has suggested raising the tax on fuel use by their vessels to increase the amount of funding available in the Inland Waterway Trust Fund to carry out needed infrastructure renewal. Legislation to this end is currently being considered in the Water Resources Development Act, but even this self-taxing has opponents who see it as a violation of the ‘no new taxes’ principle.

Much of the infrastructure for ports and harbors is privately or non-federal government owned as opposed to being supported by the federal government. Various approaches have been used to successfully modernize the on-land infrastructure necessary to operate the ports. Funding of dredging to maintain channel depth and width is shared by the federal government and local sponsors and, where the federal government does not have plans for its share of the work, local sponsors must either assume the entire cost or live with the consequences of inefficiently sized channels.

Similarly a large percentage of dams are privately or non-federally owned. There are a few state loan or grant funding sources to rehabilitate dams and some federal funding through the Department of Agriculture Natural resources Conservation Service, but these funds usually only support state or municipally owned dams. Private owners, even the most conscientious ones, typically do not have the funding needed to do necessary safety upgrades.

ON BEING BOTH REALISTIC AND HONEST

The nation is faced with an aging water resources infrastructure and with resource significant requirements to properly maintain and upgrade this infrastructure, and to adapt it to the potential impacts of climate change and growth. Unless there are significant and rapid changes in the national economy and adjustment of long-standing responsibilities, it is unlikely that the federal government will be in a position to fund the needed maintenance, rehabilitation and upgrades. It is more likely that new approaches will have to be taken and that much of the burden will continue to rest at the local level. This fact must be recognized by all concerned.

 

Continuing to believe or to support beliefs that somehow enormous sums of money will be found by the federal government to completely eliminate this significant national backlog in the infrastructure is unrealistic and support of this belief is unethical. For example, the Senate version of the Water Resources Development Act contains provisions that would provide local levee districts access to $300 million annually for levee repairs. Given that the maintenance backlog is estimated to be over $50 billion, it would be foolish for levee districts across the country to believe that all they need do is wait until their turn for funding to deal with the infrastructure deficiencies they currently face. Similarly, putting off other actions such as price rises for services in the hope that they may later be found to be necessary, is unrealistic and deceptive. It should be made clear that federal resources that are available will go to those facilities where there is the highest national interest and need and where the return on investment is highest and the greatest risks to life and property exist.

The nation must take steps to address the aging infrastructure problem. A failure to act on aging infrastructure will have serious consequences now and will increasingly burden the future.

CHARLES KIELY, Assistant General Manager, District of Columbia Water & Sewer Authority 

DC Water serves the more than 17 million people who live, work and visit the District every year. We maintain and operate 1,350 miles of water pipe, over 3,700 valves, 4 pump stations, 5 reservoirs, 3 elevator water tanks, more than 9,300 public hydrants that deliver our current water across Washington, DC. The median age of the water system is over 78 years old with some pipes in service today that were installed before the American Civil War.

Once that water is used it is returned to our sewer system that is even older than the water system with a median age of 85 years old. The sewer system has 1800 miles of separated and combined water and storm water lines, 9 base water pumping stations, 16 storm water pumping stations, 12 inflatable dams and a swirl facility. The existing sanitary sewer system in the District dates back to 1810.

I have with me an actual section of tuberculated, unlined, cast iron main that we frequently encounter on our drinking water system to bring to the surface what lies deep along the ground in many areas across the country. Tuberculation is the cause of corrosion materials inside the pipe that accumulate over time. As these deposits grow they restrict the flow of water for everyday use and fire suppression. The tuberculated deposits can also impact the quality of the water we deliver and they promote microbiological activity and can cause discolored water and can also impact disinfection. This aging infrastructure that delivers water and sewer services is a vital resource to every home, business and facility in the District, including the Capitol. Our work also affects vital ecosystems and our rivers and waterways. Balancing the delivery of service, improvements in treatment and the cost to ratepayers is one of the largest challenges facing DC water today.

We are ramping up to replace 1 percent of this infrastructure per year, 3 times the rate of replacement in previous years, but still on a hundred year replacement cycle.

Unlike roads and bridges our extensive assets are very deep underground and problems can persist for many years without detection. Some may recall that DC Water was involved in emergency work recently at 14th Street where segments of the road fell down and actually collapsed the sewer that was constructed in 1897. All told the emergency repairs caused most of the intersection to be closed for 11 days.

Emergency repairs are costly and they do not rehabilitate or replace the 100-year-old assets that remain in the ground.

Moreover, extreme weather events place additional stress on the aging combined sewer system. For unusually intense rain events in the summer and fall of 2012 resulted in damaging overland flooding and sewer line backups in homes located in a section of the northeast boundary trunk sewer. This system originally constructed by the Federal Government in the late 1800s was identified as insufficient soon after its construction. More recent development and the associated increase in a previous area only exacerbated the problem.

DC Water is responsible for maintaining approximately 150,000 sewer laterals in public space and we replace approximately 400 per year. A sewer lateral is the underground pipe, typically four inches in diameter that connects the home or business to the main sewer line.

Disruptions from aging infrastructure are not limited to commercial areas downtown. Recently, an 8-inch water main break on a residential street washed out two manholes that extended 50 feet below the surface to a deep sewer. The restoration work took 31 days and ultimately cost our customers over $600,000. While the repair was taking place, DC Water had to run pumps and generators to bypass the sewer flow. The street was closed for over one month causing a major inconvenience to our customers in the neighborhood.

 

 

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The dark side of religion: how ritual human sacrifice helped create unequal societies

April 5, 2016. The dark side of religion: how ritual human sacrifice helped create unequal societies. University of Auckland, New Zealand.

Journal article: Watts, J., et al. April 14, 2016. Ritual human sacrifice promoted and sustained the evolution of stratified societies. Nature 532, 228–231

A new study finds that ritual human sacrifice played a central role in helping those at the top of the social hierarchy maintain power over those at the bottom.

“Religion has traditionally been seen as a key driver of morality and cooperation, but our study finds religious rituals also had a more sinister role in the evolution of modern societies,” says lead author of the study Joseph Watts.

Researchers from the University of Auckland’s School of Psychology, the Max Planck Institute for the Science of human History in Germany and Victoria University, wanted to test the link between how unequal or hierarchical a culture was – called social stratification – and human sacrifice.

The research team used computational methods derived from evolutionary biology to analyse historical data from 93 ‘Austronesian’ cultures. The practice of human sacrifice was widespread throughout Austronesia: 40 out of 93 cultures included in the study practised some form of ritualistic human killing.

Early Austronesian people are thought to have originated in Taiwan and, as they moved south, eventually settled almost half the globe. They spread west to Madagascar, east to Rapa Nui (Easter Island) and south to the Pacific Islands and New Zealand.

Methods of ritual human sacriifice in these cultures included burning, drowning, strangulation, bludgeoning, burial, being cut to pieces, crushed beneath a newly-built canoe or being rolled off the roof of a house and decapitated. Victims were typically of low social status, such as slaves, while instigators were usually of high social status, such as priests and chiefs.

The study divided the 93 different cultures into three main groups of high, moderate or low social stratification. It found cultures with the highest level of stratification were most likely to practice human sacrifice (67%, or 18 out of 27). Of cultures with moderate stratification, 37% used human sacrifice (17 out of 46) and the most egalitarian societies were least likely to practice human sacrifice (25%, or five out of 20).

“By using human sacrifice to punish taboo violations, demoralize the underclass and instil fear of social elites, power elites were able to maintain and build social control,” Mr Watts says.

Professor Russell Gray, a co-author of the study, notes that “human sacrifice provided a particularly effective means of social control because it provided a supernatural justification for punishment. Rulers, such as priests and chiefs, were often believed to be descended from gods and ritual human sacrifice was the ultimate demonstration of their power.”

A unique feature of the research was that the use of computational evolutionary methods enabled the team to reconstruct the sequence of changes in human sacrifice and social status over the course of Pacific history. This allowed the team to test whether sacrifice preceded or followed changes in social status.

Co-author, Associate Professor Quentin Atkinson says: “What we found was that sacrifice was the driving force, making societies more likely to adopt high social status and less likely to revert to egalitarian social structure.”

Posted in Human Nature | 1 Comment

Shale Euphoria: The Boom and Bust of Sub Prime Oil and Natural Gas

[ U.S. house hearings have stated that the U.S. is energy independent, that shale oil and gas will give us a century of energy independence: House 112-176 in 2012, House 113-1 2013, and several others.  In fact we have so much oil and gas, that we ought to export it: House 113–131 2014.  This article explains how the middle class was fleeced yet again by Wall Street and banks.

Even though dozens of companies have gone bankrupt, they are still drilling because (Durden 2016):

  1. Daily costs for operating wells are below current spot prices. While drilling new wells is not economical, it is perfectly logical to keep exploiting existing wells. Fracked wells usually start to see a significant decline in production after about two years of operations, though bankrupt companies will see production fall, two years can be a very long time to pump.
  2. “Creditors want to extract maximum value from the company and the best way to do that …is to keep the oil flowing. Bid-ask spreads on oil assets for sale are simply too wide for most companies to be interested in selling assets while in Chapter 11. Instead, creditors maximize the present value of their assets by continuing to pump oil. This oil can either be stored leading to a large risk free profit, or it can be sold on the spot market. Either way, bankrupt producers are acting in the best interests of their creditors by continuing to pump. Unfortunately, those actions are not in the best interests of the broader industry or energy sector stock investors.
  3. Management at bankrupt producers also have little reason to do anything other than keep the crude flowing. In the current energy market, getting a job is very difficult, especially for top managers coming from a bankrupt producer. As a result, managers rationally want to make sure they stay useful in Chapter 11 and that means trying to convince creditors to keep the company operating rather than converting to a Chapter 7 liquidation. Not all O&G firms should be kept operating – some firms are better off being liquidated – but creditors often lack the necessary industry expertise to be able to distinguish between firms that have a future after emerging from Chapter 11, and those that don’t and are better off in a Chapter 7 sale. And again, management has very little incentive to put themselves out of a job by recommending Chapter 7.

Lately I’ve read about very high fracking productivity.  Here’s the real scoop: “The notion of ‘rig productivity’ has to be taken with caution.  We can’t assume that the best-posted performance in the field is the norm for all wells…There is a statistical distortion at play. Starting in late 2014, the severe downturn in oil prices forced the industry to park three-quarters of their rigs and ‘high-grade’ their inventory of prospects. Producers focused on only their best rocks, drilling with only the most efficient rigs. All the low productivity stuff was culled out of the statistical sampling, skewing the average productivity numbers much higher.” Peter Tertzakian, Chief Energy Economist, and Managing Director at ARC Financial Corp (ASPO USA Peak Oil Review August 22, 2016)

Oil and Gas companies going broke in the news:

Alice Friedemann  www.energyskeptic.com author of “When Trucks Stop Running: Energy and the Future of Transportation, 2015, Springer]

FEASTA. March 23, 2016. Shale Euphoria: The Boom and Bust of Sub Prime Oil and Natural Gas. Foundation for the Economics of Sustainability.

The aim of this article is to show that the shale industry, whether extracting oil or gas, has never been financially sustainable. All around the world it has consistently disappointed profit expectations.Even though it has produced considerable quantities of oil and gas, and enough to influence oil and gas prices, the industry has mostly been unprofitable and has only been able to continue by running up more and more debt.

How could this be? It seems paradoxical and defies ordinary economic logic. The answer is to be found in the way that the shale gas sector has been funded. It is part of a bubble economy inflated by monetary policy that has kept down interest rates. This has made investors “hunt for yield”. These investors believed that they had found a paying investment in shale companies – but they were really proving that they were susceptible to wishful thinking, vulnerable to hype and highly unethical practices that enabled Wall Street and other bankers to do very nicely. Those who invested in fracking are going to lose a lot of money.

A Global Picture of disappointed expectations

Around the world big expectations for fracking have not been realized. One example is Argentina where shale oil reserves were thought to rival those in the USA. It is a country where there has been local opposition while central government pushed the industry in alliance with multinational companies and its own company YPC. However profitability has been elusive. To have any hope of profitability shale development has to be done at scale to rapidly bring down costs enough to make a profit. That requires a lot of capital and companies will not make this capital available without being sure that they are going to make a lot of money – but they cannot be sure until they have done tests for up to two years.

“It’s a sort of chicken and egg dilemma. Without profits, the estimated $20 billion a year needed to develop the play won’t come. And without this investment in drilling tens of thousands of wells, the economies of scale won’t be reached on the fields to cut costs.

“A reason not to rush into production — only 400 wells have been drilled — is that wells must be tested for up to two years to gauge the potential of the shale rock before a company will commit billions of dollars. This is especially the case now that low global oil prices have slimmed investment budgets for frontier plays.” (Charles Newbury, “Struggles to cut cost delay oil production in Argentina” Platts Oilgram News. August 17th 2015 at http://blogs.platts.com/2015/08/17/cut-cost-delay-oil-play-argentina/ )

The situation in Argentina highlights the underlying problem for the economics of shale oil and shale gas. Unconventional oil and gas fields have much higher costs than conventional ones. Tapping “conventional” oil and gas from permeable geological strata is cheaper in that the oil and gas flows underground and can be pumped out with less engineering. In contrast an “unconventional gas field” has to release the gas from impermeable rock and therefore needs up to 100 more wells for the same amount of gas (or oil). A field must achieve economies of scale to have any chance of making a profit. It needs more activity underground to fracture the rock and it needs more activity on the surface to facilitate that. That is why it is more dangerous to the environment and public health – and also why it is more financially expensive. It requires more ongoing capital equipment too. Without a high gas (or oil) price all of these activities cannot be made profitable.

Looked at in this way “unconventional oil and gas” is not the magical answer for peak oil (or later for peak natural gas) that it might have once seemed to be. To be long term viable the fracking sector requires three things: favorable geology, high oil and gas prices and easy and cheap credit. All three have proven elusive, making for disappointing results in all of the locations around the world where it has been tried. Unconventional gas is struggling to get off the ground outside of the USA and Australia. And in the USA, where it started, although it managed to get the credit to pay for the capital expenditure there are now grave doubts that a mountain of credit will ever be paid pack.

But let’s look outside of the USA too. Take Europe for example. In 2011 the international oil and gas industry and the Polish government thought Poland was going to be a major source of shale gas. 75 exploratory wells were drilled up to 2015 and 25 were fracked. The amount of gas recovered was one tenth to one third of what was needed for the wells to be commercially viable. Besides retreating from Poland, the industry has pulled out of nascent shale drilling efforts in Romania, Lithuania and Denmark, usually citing disappointing yields.

In the UK and Ireland too fracking is still stuck at the pre-exploratory stage, largely because of the rapid and powerful development of a movement of opposition. Although not definitive, a moratorium in Scotland and a “presumption against” fracking by planners in Northern Ireland, are political set backs for the industry. Yet even if the public and political opposition was not there, there would be reasons to doubt that fracking is viable in the UK. The doubt starts with the geology. While the British Geological Survey has produced maps of shale layers, and while it has been suggested that the carbon content might be there, the data is lacking for other key parameters, for example for rock porosity. In addition the shale in the UK has more folds and faults when compared to US fields. This might to lead to more earthquakes which would damage the wells – plus leading to a potential failure to achieve the pressure needed for fracturing if fracking fluid leaks into small faults when pushed underground.

Oil and Gas Prices

Now there are further doubts because of low and falling oil and gas prices. Here the issues are a little different for oil compared to natural gas on the one hand and for the situation in the USA as compared to other producing zones in the world on the other. That said, what all exploration and production companies are facing, whether in oil or gas production or whether in the USA or elsewhere, is that prices that are too low. It is proving difficult or impossible for most producers to make a profit given the costs of extracting and distribution. That has been especially noticeable for shale gas. Let us however first look at oil prices.

During the crash of 2007-2008 global oil prices crashed from a high peak but then recovered again. Between November 2010 and September 2014 there were 47 months in which oil prices were over $90 a barrel. This period of high oil prices can be described as being broadly reflective of supply and demand. On the demand side the global economy recovered, to a large degree stimulated by a massive credit-fueled residential and infrastructure boom in China. This pumped up demand. On the supply side production from Libya and Iran was kept out of the world market because of the turmoil in Libya and sanctions against Iran. Thus, while there was some production increase from Saudi Arabia and, eventually, even more from Iraq, these increases were largely cancelled by Iran and Libya. Demand exceeded supply and prices remained high but the situation began to change in the autumn of 2014.

On the demand side the Chinese economy stalled while on the supply side production increased. OPEC as a whole was not the main source of that increasing production, and nor was Russia – the main source of increasing oil production was the boom in US shale oil. For reasons to be explored, production from the USA continued to soar even though prices fell and after a price rally early in 2015 prices continued to fall into 2016.

A similar downward trend has occurred around the world in natural gas prices – though in the USA they have been lower far longer – and certainly too low to allow for profitability.

In regard to gas the issues are somewhat different from oil because the market for natural gas is less globally networked. Natural gas markets are based on global regions and different gas prices in different parts of the world. Thus there is a North American gas market, a European gas market and a market in the far east. There are multiple long distance gas pipelines that are important economically and geopolitically. Wars and rivalries are fought over pipeline routes – this is a component in the Syrian conflict. However natural gas could not be transported so easily between continents – until recently, because now there is an infrastructure for sea transported liquefied natural gas under development (LNG). Sea transported LNG begins to change things because it makes the market for natural gas more globally competitive.

At a risk of simplifying a varied picture, natural gas prices in various areas have been stable at a low level or drifting downwards over the last two years and insufficient for profitability in a gas fracking sector. In both the USA and Europe natural gas prices are half of what they were in 2014. In the USA this has been because of overproduction of gas, conventional and unconventional, with conventional production declining and being replaced and overtaken by unconventional production – as of late in 2015 however shale gas production too began to fall. For years production has been unprofitable in all but the best areas and in decline. Now it is in decline generally.

In Europe production decline because of depleting conventional gas fields has not prevented a fall in the gas price because demand has been falling too and this is likely to remain the case. Thus a recent report published by the Natural Gas Programme of the Oxford Institute for Energy Studies, concludes that European gas demand will not recover its 2010 level until about 2025. The decline in demand has been due to warmer winters but also due to low demand because of the low growth in manufacturing which has shifted to Asia, because of low population growth and because of energy saving measures too. At the time of writing it is being suggested that the competitive threat from the development of an LNG infrastructure will encourage Gazprom to change its pricing strategy to try to fight off future competition from sea transported supplies. In summary, it is highly likely that the gas price in Europe will remain low for a long time. If so, this completely undermines any remaining case for fracking for natural gas in Europe, and particularly Britain.

At current gas prices all the exploration and production companies active in the UK and Ireland would struggle to make a profit. There are 4 studies of extraction costs of natural gas by fracking in the UK – by Ernst and Young, Bloomberg, Oxford Institute of Energy Studies and Centrica. All have maximum and minimum extraction costs. Current gas prices per therm are less than the minimum extraction cost in the lowest study. So for the industry to continue at all it has to assume that gas prices will rise in the future.

shale costs

Low Gas price vs high extraction costs: Zachery Davis Boren, Greenpeace Energy Desk; August 2015 http://energydesk.greenpeace.org/2015/08/20/super-low-gas-price-spells-trouble-for-fracking-in-the-uk/

So what is the future for oil and gas prices? Of course the future is inherently uncertain – a President Trump might provoke any number of wars making America great again – it is difficult to see how Muslims could be banned from entry into the USA without that affecting oil and gas imports from Muslim countries. Or again heightened conflict between Iran and Saudi Arabia might escalate with massive consequences, and not just for the oil and gas price. In these and other conceivable situations, the more chaos the less companies will want to invest anyway. Whether prices are high, or low, if there is too much turmoil conditions will not favor new investment. But leaving aside extreme geo-political scenarios will prices go up or will they go down? If oil and gas prices rise will this be sufficiently and for long enough for unconventional gas to be developed sustainably in the narrow financial or business sense?

The rising price scenario

It is important to grasp the idea that a rising prices scenario is only credible in conditions where a proportion of the industry has been driven out of the business – which is the hope of the Saudi oil industry. What the Saudis would like to see is not only the US fracking companies driven to bankruptcy but the banks that fund them with badly burned fingers and unwilling to finance the industry any more. That said the Saudis too have limited pockets. Their current aggressive foreign policy has to be funded from somewhere and it is conceivable that they could lose the capacity to push the anti-shale agenda through to the bitter end.

If the oil price does bounce back the beneficiaries would be the survivors. There is a view then that the current low prices will eventually lead, not only to falling production in the future but to bankruptcies and capital expenditure cut backs both in the conventional and unconventional sectors. It would speed the decline of oil fields like those in the North Sea where investment is now being slashed. With declining supply, inventories will be sold off, the market will move back into balance…. and then further the other way – so that eventually demand again exceeds supply. Higher prices, possibly spiking, will encourage new investment and the fracking companies will surge back at the other side of the crisis.

What must however be assumed for this to happen is that at some point “growth will resume” because, over the last 200 years, it always has. If growth resumes the demand for energy will revive in order to feed it – making more material production and consumption possible. Some economists argue that one factor encouraging a revival in demand ought to be the low energy prices themselves. Higher energy prices act as a drag on the economy so low energy prices should do the opposite – i.e. stimulate it. In a recent speech the chair of the US Federal Reserve, Janet Yellen, said that falling energy prices had, on average put an extra $1,000 in the pockets of each US citizen. It is assumed that this would encourage extra spending and thus extra income.

The falling or stagnant prices scenario

An alternative view is more skeptical about the revival of the global economy and of demand because of the high level of debt. In an economy where indebtness is low, falling energy prices probably would act as a stimulus for energy consumers. But will there be any or enough stimulus where the debt to income ratio is high? In an indebted economy windfall gains from reduced energy prices are likely to be partly used to pay off debts rather than being spent.

A further issue is what will happen because of the way in which the finance sector has made itself vulnerable? It has channeled substantial credit to the energy sector – to exploration and development companies that now have difficulties paying this credit off? It certainly will not help in finding investment money to get fracking off the ground in the UK and elsewhere if it all ends in tears in the USA.

In the pessimistic scenario, if the economy does not revive then there can be some skepticism that energy prices will revive too. This is the scenario in which deflationary conditions continue and even deepen. In this view, the global economy is entering a long period of stagnation, decline and chaos. Some economists are describing how growth has slowed using descriptive phrases like “secular stagnation”. The fate of the Japanese economy from the early 1990s onwards gives grounds for comparison and concern. After a quarter of a century Japan has not escaped prolonged recessionary conditions. Because the global economy is highly indebted central banks have driven down interest rates to zero and now even below that. This has led to a bubble in asset markets but it has done little to spur generalized economic growth.

There could be a vicious circle here – without demand arising and a sustained growth process pushing up energy prices, the profitability of the unconventional sector will never be sufficient to make future investment in that sector pay. In these circumstances future oil and gas production will not rise. Production will fall in the USA, especially as more of the identified sweet spots in the best plays are exhausted.

In textbook supply and demand theory falling supply should eventually lead, ceteris paribus, to a rise in prices that justifies more investment and therefore more production. However “ceteris paribus” (other things remaining unchanged) does not apply in a stagnating or a declining economy. A declining economy is not one where private economic actors invest money in the hope of a future return because the necessary confidence and conviction about the future is not there. Purchasing power is hoarded, purchases are deferred where possible, debts are paid off where possible. These actions tend to intensify the deflation. If this is what happens, and it seems likely, it will make the problems of the shale gas sector even worse.


The Fracking Companies and the Finance Sector

Before the current difficulties, Wall Street made a fortune in fees arranging debt finance for the US shale sector. Investors who were “looking for yield” instead of the ultra low interest rates payable on government debt thought the way to find that yield was to pile their money into junk finance to fund the frackers. Despite the economic reality Wall Street encouraged the misinvestment. Now the wall of energy sector junk finance repayable in the future is huge. The further forward one goes the higher it is. How much of this debt will ever be repaid? And what will happen to those who lent it if it is not? Given what has already been said the long run ability of the sector to repay its debt seems highly questionable. How did it come to this?

debt wall

Source: http://www.artberman.com/art-berman-shale-plays-have-years-not-decades-of-reserves-february-23-2015/

For several years prior to the crash of 2007-2008 the finance sector in the USA were knowingly giving loans to people with no income, no jobs and no assets. The people who organized this were doing so because they were earning fees on each loan arranged. What did they care about the virtual certainty that the loans would never be paid back? The crash was the inevitable result – the consequence of an ethical catastrophe. The banks had packaged the loans up into mortgage backed securities and sold them on so that someone else other than the originating bank carried the risk. Ratings agencies played their role in this crooked system and got fees rating securities that others called “toxic trash” as AAA. Meanwhile derivatives contracts against defaults on these rotten securities were also sold even though it was not possible to pay up when the defaults happened – without being bailed out by the monetary authorities, as happened with AIG.


The Shale Bubble – toxic water, toxic air and toxic finance too

For several years after 2007-2008 shale was the next big money spinner – and the next ethical catastrophe for Wall Street. Just as it was blindingly obvious for years that sub prime would crash, but it was a nice money spinner at the time, so Wall Street has made a lot of money pumping up the shale bubble. All the evidence about health and environment costs have been ignored and the information about them suppressed. The information about the economics was ignored too. Of course, someone has to lose eventually but “while the music has played” there has been plenty of money for all sorts of players – petroleum engineers and geologists, PR companies, corrupt politicians, the companies supplying the pipelines, rigs and fracking gear. They had their snouts in the money trough and in many cases abandoned their ethics and their critical faculties while they were feeding.

Nor were investors looking closely enough at where they were going or at what they were funding. Even before the current price crash, many US fracking companies, just like those in Argentina and Poland, were struggling to make real profits yet vast quantities of money were channeled to them. Honest and astute observers who could see that the shale boom was a Wall Street induced bubble were ignored. One example was a report written by Deborah Rogers in early 2013 in which she drew attention to the difference between the reality and the message put out by the PR machine.

According to Rogers “Industry admits that 80% of shale wells ‘can easily be uneconomic.’ Massive write-downs have recently occurred which call into question the financial viability of shale assets and possibly even shale companies. In one case, assets were written off for more than 50% of the purchase price within a matter of months……publicly traded oil and gas companies have essentially two sets of economics. There is what may be called field economics, which addresses the basic day to day operations of the company and what is actually occurring out in the field with regard to well costs, production history, etc.; the other set is Wall Street or “Street” economics. This entails keeping a company attractive to financial analysts and investors so that the share price moves up and access to the capital markets is assured. “Street” economics has more to do with the frenzy we have seen in shales than does actual well performance in the field. With the help of Wall Street analysts acting as primary proponents for shale gas and oil, the markets were frothed into a frenzy. Boom cycles have the inherent characteristic of optimism. If left unchecked, such optimism can metamorphose into a mania such as we saw several years ago in the lead up to the mortgage crisis. (Deborah Rogers, “Shale and Wall Street” Energy Policy Forum 2013 http://shalebubble.org/wp-content/uploads/2013/02/SWS-report-FINAL.pdf)

Long before the price slide beginning late in 2014, the much hyped boom was not what it seemed. Roger’s article shows many parallels between the crazy and unethical excesses of Wall Street prior to the 2007 crash and what has been happening in the shale boom. As had happened with subprime mortgages which were bundled up to become part of mortgage backed securities and then sold on – new kinds of financial assets were invented and sold to allow the unwary to invest their money in order as to “get a part of the action” and participate in the shale bonanza too. One bank instrumental in all of this was Barclay’s Capital, working together with a company called Chesapeake Energy. To help Chesapeake the Barclay’s financial wizards invented a structure called a Volumetric Production Payment (VPP). Rogers quotes a finance industry magazine, Risk, from March 2012.

“The main challenges in putting together the Chesapeake VPP deal were getting the structure right and guiding the rating agencies and institutional investors—who did not necessarily have deep familiarity with the energy business—through the complexities of natural gas production.”

The resulting financial assets were highly complex, off balance sheet, and as Barclay’s admitted the rating agencies had to be “guided” so that they could understand the complexities of the deal. (So much for the competence and independence of the resulting “rating”).

Production taking precedence over profitability (and over economic rationality)

The result was that current profitability took second place to an industry PR narrative about what was supposedly going to happen in the future as the shale companies grew and grew. Prior to the crash of 2007 bank employees were under pressure and being incentivised by bonuses to make as many loans as possible – even though many loans were unsound. Now the fracking company managers were being incentivised to produce as much product as possible even though they were losing money.

The measure of the future dream was production growth rather than what it ought to have been – profitable production growth. The latter depended on whether that production growth was actually covering costs of production and it was not.

It should be stressed again that this was happening before the current price slide. For example an analyst Arthur Berman looked at the financial figures for Exploration and Development Companies representing 40% of the US shale industry for 2013 and 2014 and found them to be powerfully in the negative. There was a $14 billion negative cash flow in 2014. (http://www.artberman.com/art-berman-shale-plays-have-years-not-decades-of-reserves-february-23-2015/)

berman

Nevertheless the good news headlines about the production growth kept the share prices rising and the managers were on bonuses to make that production growth happen. Apart from the skeptics and the communities whose environments and health were under attack, the industry, the government, some naïve academics and Wall Street, all played their part in pumping up the dramatic narrative of the resurgent American Oil and Gas Dream. Eventually the USA would rival Saudi Arabia and more…becoming great again no doubt. As a more recent article in the Wall Street Journal explained:

“Markets have been waiting for U.S. energy producers to slash output during a period of depressed crude prices. But these companies have been paying their top executives to keep the oil flowing. Production and reserve growth are big components of the formulas that determine annual bonuses at many U.S. exploration and production companies. That meant energy executives took home tens of millions of dollars in bonuses for drilling in 2014, even though prices had begun to fall sharply in what would be the biggest oil bust in decades. The practice stems from Wall Street’s treatment of such companies’ shares as growth stocks, favoring future prospects over profitability. It has helped drive U.S. energy producers to spend more unearthing oil and gas than they make selling it, energy executives and analysts say.

It has also helped fuel the drilling boom that lifted U.S. oil and natural-gas production 76% and 31%, respectively, from 2009 through 2015, pushing down prices for both commodities. “You want to know why most of the industry outspent cash flow last year trying to grow production?” William Thomas, CEO of EOG Resources, said recently at a Houston conference. “That’s the way they’re paid.” (Ryan Dezember, Nicole Friedman and Erin Aillworth. “Key Formula for Executives Pay: Drill Baby Drill” http://www.wsj.com/articles/key-formula-for-oil-executives-pay-drill-baby-drill-1457721329)

The Euphoric Economy at Work – how to rip off manic investors

All of this raises the question of how, with profitability so low, this reckless show has managed to stay on the road for so long and still continues. A cynical answer would be to say that the function of Wall Street is to connect the greedy and stupid with people and institutions without scruples who will spend their money for them. For this to happen optimism must be generated at all times whether this optimism has any foundation or not. The study of bubbles is all about people who are able to swim in an ethical sewer oblivious to their environment. They are too “euphoric” or high on the prospect of making a lot of money to calmly calculate what is happening. Another word for this is mania. It helps to consider this as a period of collective madness like a mania – a period of collective excitement in which the capacity for ethical and other judgements are impaired.

In this collective insanity one can think of the money making calculations like this – if you buy the right to drill and are able to identify the geologically favorable “sweet spots” then at first the results are likely to be good. Instead of then drilling the less favorable locations and seeing your profits fall away you tell beautiful stories to another company with deep pockets enticed by the good news of the early success. So it is possible to sell the less favorable areas. Or maybe you sell the company, merging it with another. In this Wall Street (or the City of London no doubt) will come to your aid because it makes nice fees from mergers and acquisitions. The new owners then makes the loss. It is the buying company that then has to write down its balance sheet when it subsequently discovers that it was sold a mirage.

The stories about being duped are never told as loudly and plainly as the stories of the wonderful shining future that sell the fraud in the first place. That’s because managers do not like to speak loudly about their incompetence to avoid the embarrassment of admitting they were duped. It is usually possible to deny that it would have been possible for them to know what was happening and, after all, why should these managers care when it was other people’s money that they were losing? (The money of shareholders or bond holders).

But if the faith in the industry can be maintained then these kind of deals can at some time make the banksters and crooked production company bosses much more money than merely by drilling and fracking for shale gas or oil. Thus buying and selling drilling leases (bundled up together just like sub prime mortgages were) was a great money spinner for companies like Chesapeake. The greater the euphoria generated, the more money to be made. This is Deborah Rogers again:

“Aubrey McClendon, CEO of Chesapeake Energy, stated unequivocally in a financial analyst call in 2008: ‘I can assure you that buying leases for x and selling them for 5x or 10x is a lot more profitable than trying to produce gas at $5 or $6 mcf.’”

Eight years later Aubrey McClendon was dead. He had been charged on a federal indictment of bid rigging from late 2007 to 2012 and drove his car at high speed into a bridge. There was a strong suspicion that he had killed himself.

The madness of shale goes on. Wall Street and the shale companies are still managing to play the same game of passing the risk parcel to the bigger fools who will take the loss. If people can be persuaded to buy into the companies just before they go bust then the smarter and bigger players can get out. At the time of writing (March 2016) there are suspicions that the banks are orchestrating a rise in the price of oil in order to help the shale companies raise capital which will enable them to pay off the banks while letting “the suckers” take the fall. This led one analyst to describe the glut, not just of oil, but of stupidity.

“Even the experts are stunned by this unprecedented glut in stupidity of managers of other people’s money: “Billions of dollars of dilutive equity continue to roll in with seemingly no end in sight,” Houston-based oil investment bank Tudor, Pickering, Holt & Co. said in a research note.” (http://oilprice.com/Energy/Crude-Oil/In-Risky-Move-Wall-St-Backs-Shale-With-Nearly-10-Billion-In-Equity.html)

Ethical or Financial Bankruptcy – which is more fundamental?

It is common in economics to refer to markets becoming frothy at times like this. Commentators seek to find the fundamentals underlying the “froth” (perhaps better described as scum). But what are “the fundamentals” in this story? The really fundamental thing is not that this sector is financially bankrupt – it is that it is ethically bankrupt too. An ethically bankrupt sector is definitely not sustainable. Any economic sector that destroys the environment including the climate, assaults public health and then enlists government in a corrupting endeavour to write and use the regulations in such a way as to undermine the very possibility of resistance is corrupt to the core. An industry that destroys people’s health and environment and then settles in court on condition that people are bound to secrecy about what has happened to them, as is common practice in the USA, cannot be trusted to tell the truth. It does not surprise in the least therefore that the unethical business methods of this sector, as well as the unethical methods of its allies in finance, also rely on trickery and defrauding anyone stupid enough to invest their money in it.

What will happen in the USA will no doubt have a big impact for the future credibility of the fracking industry in the UK and elsewhere in the world. That story is not yet in its final chapter but what has happened in the USA is already a cautionary tale and we would be stupid to ignore it. Local authorities in the UK should be careful that they are not caught out picking up the environmental costs of a collapsing industry. It has already happened in the USA and Canada – the advantage of limited liability to an industry without ethics is that it enables it to pass the cost of clearing up to communities after bankruptcies.

“CBC News reported that falling gas and oil prices have prompted many smaller companies to abandon their operations in Alberta, Canada, leaving the provincial government to close down and dismantle their wells. In the past year alone, the number of orphaned wells in Alberta increased from 162 to 702. At the current rate of work,
deconstructing the inventory of wells abandoned just in the past year alone will be a 20-year task.” (Source: Johnson, T. (2015, May 11). Alberta sees huge spike in abandoned oil and gas wells. CBC News. http://www.cbc.ca/news/canada/calgary/alberta-sees-huge-spike-in-abandoned-oil-and-gas-wells-1.3032434 )

In conclusion – a mountain of debt that will never be repaid?

People might ask, if the future of fracking is so much in doubt then why bother to build a movement of opposition to oppose it? The answer can be expressed by adapting a famous quote by John Maynard Keynes. In the original Keynes says “the market can remain irrational longer than you can remain solvent”. The market can also remain irrational long enough to do a lot of damage. What this article has barely done at all is refer to what are called, in economics-speak, the “external costs” of fracking – the damages to climate, to local environments and to public health. Nor has this article examined the claimed benefits to employment and to local economies which are usually grossly overstated. There is now plenty of evidence about these things. What I have tried to do instead is to show that even in the narrowest of meanings of “economic” fracking does not make sense. A lot of damage is being done and there will be little positive to show for it. The ability to continue this destructive path is due to the legacy of political influence of the fossil fuel lobby in government and in the finance sector. The legacy influence has been strong enough to ignore and crush the opposition despite the damage. In the USA it can be argued that the fracking boom has been an irrational, unethical and ultimately unprofitable attempt to extend the lifetime of fossil fuels in order to keep the oil and gas industry in work, aided and abetted by Wall Street. It is an industry trying to secure a future for an influential network of professional and business interests that should, in truth, be being wound down – including the engineers, the university departments of petroleum geology, the regulators to name a few. A mountain of debt has been accumulated to perpetuate the illusion that these people have a future in which they can go on much as before – a mountain of financial debt that will never be repaid.

Stupidity has a knack of getting its way – Albert Camus

Sources and further reading:

On geological uncertainties: Mason Inman “Can Fracking Power Europe?”, March 2016 at http://www.scientificamerican.com/article/can-fracking-power-europe/

Charles Newbury, “Struggles to cut cost delay oil production in Argentina” Platts Oilgram News. August 17th 2015 at http://blogs.platts.com/2015/08/17/cut-cost-delay-oil-play-argentina/

Low Gas price vs high extraction costs: Zachery Davis Boren, Greenpeace Energy Desk; August 2015 http://energydesk.greenpeace.org/2015/08/20/super-low-gas-price-spells-trouble-for-fracking-in-the-uk/

European natural gas supply and demand: https://www.oxfordenergy.org/publications/the-outlook-for-natural-gas-demand-in-europe/ and https://www.oxfordenergy.org/wpcms/wp-content/uploads/2016/01/Gazprom-Is-2016-the-Year-for-a-Change-of-Pricing-Strategy-in-Europe.pdf

Oil Majors as a source of investment capital http://www.telegraph.co.uk/business/2016/02/12/oil-firms-urged-to-avoid-dangerous-investment-cuts /

Deborah Rogers, “Shale and Wall Street” Energy Policy Forum 2013) http://shalebubble.org/wp-content/uploads/2013/02/SWS-report-FINAL.pdf

Fragility of UK explorer’s finances: http://www.companywatch.net/wp-content/uploads/2016/01/oil-and-gas-smaller-cap-research-11-January-2016-final.pdf

Crisis in US Shale Sector: http://www.bloomberg.com/news/articles/2016-03-11/oil-boom-fueled-by-junk-debt-faces-19-billion-wave-of-defaults

Arthur Berman “The Miracle of Shale Gas and Tight Oil is Easy Money” http://www.artberman.com/the-miracle-of-shale-gas-tight-oil-is-easy-money-part-i/

http://www.artberman.com/art-berman-shale-plays-have-years-not-decades-of-reserves-february-23-2015/

http://www.cnbc.com/2016/03/02/ex-chesapeake-ceo-mcclendon-dies-in-car-wreck-day-after-indictment.html

Ryan Dezember, Nicole Friedman and Erin Aillworth. “Key Formula for Executives Pay: Drill Baby Drill” http://www.wsj.com/articles/key-formula-for-oil-executives-pay-drill-baby-drill-1457721329

“Energy in the economy”: Brian Davey Credo. Economic Beliefs in a World in Crisis Feasta books 2015. http://www.credoeconomics.com Chapters 32 and 33.

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