House hearing 2014: Should the U.S. export oil and natural gas?

[Of course selling off our gas and oil is a crazy stupid idea as this excellent article Shale Euphoria: The Boom and Bust of Sub Prime Oil and Natural Gas explains.  Alice Friedemann   www.energyskeptic.com ]

House 113–131. April 2, 2014. The Crude truth: evaluating U.S. Energy trade policy. House of Representatives. 67 pages.

Until recently, United States crude production had been on a steady decline. In 1970, domestic production peaked at 9.6 million barrels a day. By 2008, we were producing almost half. Only 5 million barrels were being pumped per day. Then America did what America does best, and innovated. New technologies of horizontal drilling and hydraulic fracturing ushered in an American energy revolution. Because of drilling in places like the Bakken and Eagle Ford, U.S. crude production has increased 56% since 2008. Some experts even believe that the United States will become the largest crude producer in the world by next year.

But not all is good news. The oil being found in these places is light sweet crude. Unfortunately, the majority of the refineries connected to the production sites are built to handle heavy sour crude. We need new refineries, new pipelines to be built to process the light crude but, of course, that will take years. In the meantime, we should sell our light crude abroad to those who want to buy it. That would bring billions of dollars and thousands of jobs into the economy of the United States. It is an obvious solution for a simple problem. Unfortunately, the Federal Government seems to be in the way again. In 1975, the Energy Policy and Conservation Act was passed, making it illegal to export United States crude. It was at the height of the Arab oil embargo. Congress wanted to insulate Americans from global price shocks and conserve domestic oil reserves. In reality, this ban achieved neither of those goals. The ban has not insulated United States consumers from the world market.

Domestic gasoline prices are largely set by the global crude price, not domestic price, since crude is a globally traded commodity. The United States still has to import about 46% of our crude. These imports face market uncertainty just like every other traded good. Lifting the ban is what would actually protect domestic consumers. U.S. crude on the world market decreases the market share of bad actors like Iran and unstable countries like Algeria.

For producers to want to drill they have to have a profit or make a profit. The crude export ban has driven the domestic price of crude so low that producers will not be able to make money off the drilling. If something isn’t done, economists predict the drilling will slow in the next 18 to 36 months. Perfectly good oil will sit in the ground because the government restrictions are in the way.

So domestic production companies are forced to cut back on drilling and they are going to also be forced to lay off American workers.

Brad Sherman, California. We have had several hearings on the export of natural gas both in the subcommittee and at the full committee. I believe this is the first to focus on the export of petroleum. These are dramatically different economic situations.

You can ship a barrel of oil most of the way around the world for maybe 1% of its value whereas natural gas, to liquefy, transport and then re-gasify you are talking about 40% of its value.

There are some bottlenecks because every barrel of oil produced in the United States with the exception of some on the Alaska North Slope and 25,000 barrels of heavy crude oil from California has to find its way to the U.S. market and so there could be problems of a short-term nature and you could see 1% wasted effort as we transport Alaskan crude to U.S. markets when it might be more efficient to transport Alaskan crude to Asian markets and import more from Africa or the Middle East. As we focus on the possibility of exports, I think a number of questions arise.

First, what it will do to jobs, particularly in the shipping industry. We now have a requirement that domestically shipped oil has to be shipped on U.S. flagged, U.S. crewed—that is to say U.S. staffed ships but not necessarily ships built in the United States. Do we want to go further and require that the ships be built here and how important is that for our national security to have the infrastructure of U.S. shipbuilding and a merchant marine? We also have to look at whether we can require U.S. ships be used for the export of oil to Asian markets. Another issue that comes up is the federal—is the possibility of free trade agreements. We already see that free trade agreements with regard to natural gas indicate that it is automatically considered in the national interest to allow exports of natural gas to countries that we have free trade agreements with. Will the same apply to petroleum? Will the same apply to the Trans Pacific Partnership currently under negotiation? And under those trade agreements will we be able to require U.S. flagged ships, ships with U.S. crews, and U.S. built ships? To me, the most important thing in allowing export is what will happen if there is a worldwide shortage or a market disruption. Why do we ban the export of U.S. crude? We did it in 1975 because we lived through 1973, and I think that we want to be in a situation where it is both legal and practical to require that U.S. crude be used only in the United States during a period that resembles 1973—when there is a shortage, a market disruption, a boycott or gas lines from some other source.

We can put that in law so it is legal and if the President declares a disruption of world petroleum markets but it also has to be practical. What will be the effect on our foreign relationships if in the middle of a worldwide shortage we stop oil tankers in the middle of the Pacific and require them to return to U.S. ports? What will be the practical effect of bringing that oil back, knowing that we will have built infrastructure on the idea that the U.S. will both export and import petroleum and now all of a sudden we are hoarding our own production for our own purposes? So I look forward to trying to resolve these problems because it is bad for our economy and bad for the environment to transport oil further than it would otherwise need to go or to mismatch produced oil with the refinery capacity, and I think it is in the interests of the environment not to have to transport oil further than it would otherwise have to go. Every ship is producing greenhouse gases.

Edward R. Royce, California, Chairman. I think you are holding a very important hearing at a very important time here as we start to think strategically about what it means in a world in which the United States increasingly has the capacity to ship oil to allies that are really under a great deal of pressure and how that could be used as part of our diplomatic efforts, for example, with Iran to maintain sanctions.

One of the things that I think should give us pause is that in our efforts to deny the regime in Tehran nuclear weapons capability the United States and our European allies levied devastating sanctions against Iran by doing one thing primarily in the original bill and that was targeting their ability to export oil and that severely limited their crude oil sales and denied them the ability to repatriate hard currency from those sales. Now, the sanctions against Iranian crude are often described as Iran’s Achilles heel, yet we are imposing the same kinds of sanctions on our own country since without a crude export relief valve oil companies will pull back on what will be increasingly uneconomic production. And the relief valve here is one that we could have used more effectively with respect to our allies because there were five of our allies that were still taking oil shipments from Iran. We could have supplied that differential. We could have brought additional pressure to bear, and should again this situation in Iran not be—not be solved in ensuing months or years, my hope is that we will have the capacity to think about what we could do in order to step in.

At the same time, the Russian annexation of the Crimean Peninsula was made easier by its energy grip over Eastern Europe and especially over Ukraine. Russia has large oil and gas reserves, not as large as ours. They don’t produce as much as we do but they do—but almost as much, and it accounts for 70% of their trade and 52% of the budget for Russia that goes to support their military and their government. The crisis in Crimea has done little to dampen Russian oil sales and Putin is freely selling oil and gas around the world and especially in Eastern Europe at monopoly prices and thus has unfortunately a tremendous amount of influence there. As we look at our strategies for the future, and I am going to quote General Martin Dempsey here, Chairman of the Joint Chiefs of Staff, he says, ‘‘As we look at our strategies for the future I think we have got to pay more and particular attention to energy as an instrument of national power, and I think that has to be factored in to the equation here. ‘‘If we increase our supply of oil, especially into Eastern Europe, we will dent Russia’s leverage on other countries and reduce the revenues that fund Russia’s aggression.’’

Lisa Murkowski, Alaska. In the Energy Committee we held a hearing on this issue several weeks ago. It was the first time in 25 years that there has been a hearing in the United States Senate on the issue of oil export. And put that into perspective. We haven’t had the opportunity to talk about it because we have been evaluating our energy portfolio truly from one of scarcity rather than one of abundance and how the landscape has changed. So this debate—this dialogue that you are beginning here in your committee is greatly appreciated and, again, very, very timely. Let there be no mistake that today’s issue—the ban on crude oil exports—is truly one in the national interest. In an area of doubt—of debt and deficits, the North American energy renaissance presents us with an opportunity to strengthen our position and resolve on the global stage while generating wealth, creating jobs, reducing our deficits and enhancing our national security.

Michael Jennings, CEO & President, Holly Frontier Corporation. We are a domestic independent refining company. We operate five petroleum refineries in the Central and Rocky Mountain states. We employ about 2,600 people directly and indirectly, a number that is probably 10 times that many associated with our contracted maintenance work. Our company is a merchant refining company. That means that we buy crude oil from those that produce it. We also have a wholesale marketing strategy so our products are distributed through convenience stores and big box retailers, none of which bear our name. But our products go out to a market that is in the center of the United States. We produce about 2.5% of the nation’s gasoline, diesel and related petroleum products through our plants each day.

As a merchant refiner, the key messages that I hope to convey to the committee today are as follows. Crude oil exports by the United States are likely to raise domestic crude prices and increase retail gasoline prices in the markets that our company serves by an estimated 10 to 15 cents per gallon of gasoline. Crude exports on the part of a country that imports nearly half of its crude oil requirements are, in our view, very unlikely to improve energy security or advance national interest as we will simply make ourselves more dependent upon crude oil imports as we export our own crude, and we need to be thoughtful about the nations from whom we would be importing that crude. Those with surplus are the OPEC producers and Russia.

The U.S. refining and petrochemical sector is a major employer and is making hundreds of billions of dollars of new investments over the next 10 years to increase manufacturing processing capacity along the Gulf Coast and in other places in order to manufacture and convert this wealth of new raw material that is being produced in the upstream.

We believe that this expanded production has helped in terms of our nation’s energy security. But though great strides have been made, the United States remains very dependent upon imported crude. This is not my opinion or the opinion of our company, simply a statement of the facts.

Current refining requirements are approximately 17 million barrels a day while domestic crude production was about 7.5 million barrels per day in 2013. That is projected to increase by a million barrels per day in 2014 but we are still importing at about 50% of our requirements. Supporters of lifting the ban on the crude exports argue that such a decision would make a move toward a freer global supply function, and certainly our company supports the development of freer energy markets. However, we have to be conscious of the fact that the global crude market is not occupied by free trade. It is dominated by OPEC, which is a cartel, and the country of Russia. Neither of these entities have free trade at their hearts. They are protecting their own domestic interests in cartel-setting volume requirements and other behavior.

I spoke earlier about the impact of pricing on U.S. gasoline in the face of potential crude oil exports, and our company’s view of that is there is probably a 10 to 20 cent per gallon uplift in the cost of gasoline, again, in the markets that we serve which would result from this policy decision. We take that by observing markets that are served by waterborne crude, principally New York Harbor, southern California and northwest Europe, and if we look at those gasoline prices wholesale pre-taxed against the prices that are traded in our markets supplied by domestic crude, we are seeing a 10 to 20 cent differential, with customers in Kansas, Oklahoma and Texas paying the lower number. We think that is something that the committee should take into consideration.

Government run national oil companies control approximately 85% of the world’s crude oil and 58% of production. In addition to these figures, and equally important to global prices, oil exports by the Organization for Petroleum Exporting Countries, or OPEC, constitute approximately 60% of the total petroleum traded internationally. EIA notes: “Due to the diverse situations and objectives of the governments of their countries, these national oil companies pursue a wide variety of objectives that are not necessarily market-oriented.” The level of control of the global crude oil market by national governments and a global cartel belies any claim that the market is free and open. With its market power, OPEC effectively influences crude oil production, supplies and pricing throughout the world through quotas and other controls. The facts make clear that OPEC controls supply to maintain prices where the member countries (including Iran, Iraq, Saudi Arabia and Venezuela) want them to be. OPEC is a cartel, and its existence is designed to control crude oil prices and preserve is members’ own domestic economies. Though American production has increased dramatically, it has not yet matured to the point at which it could significantly impact the price of crude in the global market.

The bottom line is that cheaper domestic crude means cheaper gasoline for consumers. This differential in pricing also means that consumers pay less for heating oil, propane and other critical petroleum products. As I have already stated, there exists a robust domestic demand for gasoline and other refined products in the region in which our company does business. 26 of the nation’s 139 refineries are located in the Midwestern and Plains states.

These plants process 3.7 million barrels per day of crude oil and produce 78 million gallons per day of gasoline and provide stable and high paying jobs for our workers. In this same region, gasoline demand is approximately 100 million gallons per day, a demand that is not readily shifted to other fuels or transportation sources given the predominantly rural and agricultural geography that comprises our market place. Exports could potentially raise costs and slow growth in an area of the country that is driving the American economy. In closing, we believe that any discussion of crude oil exports must be had in the broader context of developing a comprehensive 21st century energy policy for our nation. Though the expansion of production of crude oil in the United States has positively impacted consumers and our overall energy security, it does not tell the whole story. A meaningful discussion requires not only consideration of crude oil exports; but a consideration of the mandates created by the renewable fuel standard, completion of the Keystone XL pipeline and other infrastructure to support free flow of petroleum and products, a review of the EPA’s onerous Tier 3 gasoline rule, and a robust discussion on the future of domestic energy infrastructure. A holistic view is necessary in making decisions that will both shape energy policy, and help drive economic growth for decades to come.

A specific area of focus must be the renewable fuel standard. Insofar as our country has reached a point of security and independence in our crude supply to lift the export restrictions, it would be clear that we have no further need for the costly and inefficient crop-based fuel mandates created by the RFS to promote energy security. These bio-fuel mandates have and continue to drive up prices at the pump for American consumers and distort the price of refined petroleum products. Accordingly, I would encourage Congress to keep the RFS in mind as it debates issues associated with potential export of domestic crude.

Erik Milito, Upstream Director at the American Petroleum Institute. API has more than 580 member companies, which represent all sectors of America’s oil and natural gas industry. Our industry supports 9.2 million American jobs and 7.7% of the U.S. economy. The industry also provides most of the energy we need to power our economy and way of life and delivers more than $85 million a day in revenue to the federal government.

Today, America is producing nearly 50% more oil than we did in 2008. By 2015, International Energy Agency predicts the U.S. will surpass Saudi Arabia and Russia to be the world’s top crude oil producer. This is a new era for American energy, but our energy trade policies are stuck in the 1970s. The U.S. and China are the only major oil producers in the world that don’t export a significant amount of crude. It’s time to unlock the benefits of trade for U.S. consumers and further strengthen our position as a global energy superpower.

There also are strategic reasons to increase U.S. energy exports. As General Martin Dempsey, Chairman of the Joint Chiefs of Staff, recently said, “An energy independent and net exporter of energy as a nation has the potential to change the security environment around the world – notably in Europe and in the Middle East.” As we grow as an exporter, U.S. energy leadership has the potential to bolster America’s allies, expand our geopolitical influence, and our own self-imposed restrictions.

Kenneth B. Medlock III James A. Baker, III, and Susan G. Baker Fellow in Energy and Resource Economics, and Senior Director. Center for Energy Studies James A. Baker III Institute for Public Policy Rice University

During the past decade, innovative new techniques involving the use of horizontal drilling with hydraulic fracturing have resulted in the rapid growth in production of natural gas, crude oil and natural gas liquids from shale formations in the United States. This has transformed the North American gas market, generating ripple effects around the world and setting the stage for a period of global market transition. It has also contributed to the benchmark US domestic crude oil price West Texas Intermediate (WTI) becoming substantially discounted to global benchmark crudes. While this discount arose largely due to constraints on the ability to move crude oil away from Cushing, OK, it has triggered concerns that it is a harbinger of broader discounts of US crude oil prices relative to global market prices. Specifically, if a constraint on the ability to arbitrage a price differential drove the discount of WTl, then it stands to reason that a constraint on the ability to arbitrage US crude will more broadly emerge as the existing constraint banning US oil exports becomes binding. As a result, there has been significant interest in changing the long-standing laws banning oil exports.

Global crude oil demand is projected to increase to just short of 120 million barrels per day by 2040. The majority of the projected growth will come from developing Asian economies, particularly China and India, but also several other Asia-Pacific countries.

Importantly, demand in the countries of the Middle East is projected to grow among the fastest in the world, attributed to economic growth as well as heavily subsidized domestic energy prices. Of course, a lifting of subsidies would abate the projected growth, but absent a significant shift in domestic energy pricing policy, these countries will be challenged to maintain, much less grow, exports.

This signals a need for new sources of supply, and could move the geopolitical compass toward new supply growth areas, particularly those with abundant, accessible unconventional resources such as Canada and the US.

Of course, declining demand since 2008 has played a major part as well. This is particularly salient for petroleum product markets, as the US now exports (net) upwards of 3.5 million barrels per day of petroleum products, in fact, the combination of discounted crude oil, low cost natural gas, lower demand, and no policy-directed constraint on exporting refined products has allowed the U.S to effectively become a refining hub over the past few years, providing petroleum products to the global market place.

A Comment on Energy Security

The concept of energy security really began to take hold as a matter of national interest following the oil price shocks of the 1970s. In fact, every recession since World War II, except one, has been preceded by a run up in the price of oil. This strong correlation has prompted many policies aimed at mitigating the impacts of rising oil prices. As such, “energy security” generally refers to policies that aim to ensure adequate supplies of energy at a reasonable price in order to avoid the macroeconomic dislocations associated with energy price spikes or supply disruptions. So, how exactly do high oil prices negatively impact the economy? The literature on this matter is fairly deep, and there have been many proposed channels to convey the correlation, some of which carry a causal overtone.

… inflationary effects

  • Increases in the price of oil (energy) lead to inflation which lowers the quantity of real balances in an economy thereby reducing consumption of all goods and services.
  • Counter-inflationary monetary policy responses to the inflationary pressures generated by oil (energy) price increases result in a decline in investment and net exports, and consumption to a lesser extent.
  • trade balance effects Oil (energy) price increases result in income transfers from oil (energy) importing countries to oil (energy) exporting countries. This, in tum, causes rational agents in the oil (energy) importing countries to reduce consumption thereby depressing output.

… industrial influences If oil (energy) and capital are compliments in the production process, then oil (energy) price increases will induce a reduction in the utilization of capital as energy use is reduced. This, in turn, suppresses output.

If it is costly to shift specialized labor and capital between sectors, then oil (energy) price increases can decrease output by decreasing factor employment. If a recession is not unreasonably long, the high costs of training will cause specialized labor to wait until conditions improve rather than seek employment in another sector.

… and investment impacts In the face of high uncertainty about future price, which may arise when a price shift is unexpected, it is optimal for firms to postpone irreversible investment expenditures. Investments are irreversible when they are firm or industry specific.

Deborah Gordon Senior Associate, Energy and Climate Program Carnegie Endowment for International Peace. I began my career with Chevron as a chemical engineer and then spend over two decades researching transportation policy at Yale University, the Union of Concerned Scientists, and for a wide array of non-profit and private sector clients. I have authored books and many reports on transportation and oil policy making.

The U.S. is the major energy nation that is closest to being equal parts oil producer and oil consumer. Our energy situation stands in stark contrast to other nations. For example, China and Japan are majority consumers and Saudi Arabia and Russia are majority producers. America is in an enviable energy and economic position. We won’t want to either hoard or hand over all of our resources without first establishing policy goals and strategies. The challenge will be to determine what policy frameworks will balance the nation’s long-term oil trade objectives, national security, and global climate concerns.

Question #1: Given that the u.s. can already export unlimited volumes of petroleum products, under what conditions should if also be allowed to export crude? American crude generally cannot be exported, but there is no legal limit to exporting certain raw ultra-light oil components (natural gas liquids and condensates) and refined oil products. As of January 2014, product exports have increased 4-fold over the past eight years to 3.6 million barrel per day. Today’s oil trade is increasingly driven by valuable diesel, gasoline, jet fuel, and petrochemical feed stocks than crude oil. In 2013, the U.S. exported at least $150 billion in petroleum products, scoring the largest gain for any commodity in the U.S. economy.

A go-slow policy, will allow other nations to adjust to North America’s increased oil capacity. Those oil-rich nations that have built their economies on oil revenue are increasingly vulnerable to disruption. While reversing the export ban could increase global energy competition, it is also likely to change market dynamics and redirect refined product trade flows. It is unclear how the oil value chain will adjust in response to changes in upstream production and downstream refining factors. U.S. oil export policies must take these dynamics into consideration. Fostering market stability should be a primary consideration in deciding what conditions should apply to the U.S. in terms of future crude and petroleum product exports.

Question #2: Who would benefit most from reversing the U.S. oil export ban? Answering this question is not straightforward. It is unclear where exactly American light tight oil (LTO) fits into today’s oil value chain. Fracking in the U.S. is producing a different type of oil than Canada and increasingly OPEC are producing. And not all LTO, arc alike. Despite their generally high quality (light and sweet), U.S. LTO gravity ranges widely from 30 to over 70 degrees API-a huge spread. The Lightest of these oils are more like natural gas than conventional oil. Many U.S. and overseas refineries, have been retrofitted to handle heavy, sour oils, and cannot be fed a steady diet of LTO. In order to process Eagle Ford and Bakken oils, significant volumes of heavy oil must be imported and blended into LTO feedstocks. Depending on their quality, some LTOs may be better suited to petrochemical manufacturing.

Determining who benefits from exporting LTO is not simple. Oil producers (IOCs and independents), refiners, manufacturers, and the public each have different objectives that relate back to price spreads and uncertainty, and may not align with U.S. policymaker’s goals.

Figure 3: Price History for Selected Crude Types Oil producers and LTO leaseholders strongly advocate lifting the export ban. These stakeholders are responding to the potential for domestic LTO saturation in the Gulf Coast, widening price differentials between WTIILLS and Brent benchmarks, and an overly-simplistic view that easing the export ban would facilitate selling off more of the crude at a higher price from the Bakken, Eagle Ford, and o!her LTO oilfields. Industry analysts like Woodmac argue, however, that elude markets are complicated with different prices for various transportation mode and oil qualities. As such, relaxing the oil export ban may not necessarily eliminate the LTO discount to Brent. Instead it could invite cost-cutting arbitrage of U.s. and international crudes with unpredictable outcomes.

Refiners are split on whether or not to lift the ban depending on numerous operational and geographic factors that determine their bottom line. To the extent the ban discounts U.S. crude to Brent, large U.S. refiners enjoy higher petroleum produce profits. Other U.S. refiners that can preferentially handle LTO also favor the export ban. Those refiners who cannot handle U.S. LTO feedstock because their infrastructure is designed for on low-quality oil imports from Canada, Mexico, and Venezuela are in favor of free trade and do not oppose ending export restrictions. European refiners who can better handle L TO and desire greater competition to moderate Brent pricing are in favor of loosening the U.S. oil export ban.

Manufacturers may not yet have a unified position. Chemical companies took a strong position on LNG exports. But major manufacturers have yet to do so on oil exports. Petrochemical companies worry that lifting the ban could increase the price of domestic crude, which now trades for less than its international counterpart. Still others believe that more oil in the global market will drive down energy prices and create jobs in the United States.

American consumers are concerned about what exporting U.S. oil will mean for gasoline prices. Simple assumptions-more oil at home means energy independence that will lower gasoline prices-lead to misperceptions. Prices are greatly influenced by global factors. Market volatility could be a real challenge in the future. And, in order for LTOs to be produced, global oil prices must remain high. The end of cheap oil and gasoline is over despite the U.S.’s new oil bounty.

GORDON. So about 10 years ago, 8 years ago, before light tight oil was really on anyone’s radar screen and even EIA missed it—everyone missed it, and there are reasons why separately I can discuss—but the move was made to change the entire refining sector to deal with what oil we thought was going to be the last oil on earth, this heavier barrel. And so now we have a situation where billions have been put into U.S. refineries up and down the Mississippi and into the Gulf that handle selective oils best—they are complex refineries and they handle the extra heavy oil. These refineries make diesel. They make more diesel, and diesel goes to your question—has a very high export value. We are exporting a tremendous amount of diesel. The light tight oils that now we found out we have and we don’t really yet have the refining capacity for make, preferentially, gasoline, which is the product we use, so you can imagine ships crossing in the night, you know, with all of this global trade where oil would go one way. It will get refined someplace else. The product will come back.

Mr. PERRY. Thank you, I just want to maybe go back to this last question about refined as opposed to unrefined. It seems to me that the refined product would be more dangerous maybe to the environment if it would spill as opposed to crude oil that comes from the ground—comes from the earth. But if I am wrong—am I wrong or—makes no difference whatsoever. We don’t care whether we spill gasoline or oil or crude. It is all the same?

Mr. JENNINGS. The refined product will evaporate if spilled and crude oil will not. So there is a difference. Worse to the water would be the crude oil, which would be residual in the water, where as to the air would be

Mr. MEDLOCK. But there is a difference between a naturally occurring seep and a spill. A naturally occurring seep is actually part of the local ecosystem that has evolved over thousands of years typically, whereas when you talk about a spill it is an introduction of a raw crude into an area that is not equipped to cope with it. So it is different.

Ms. GORDON. And I just wanted to add, because oils are now so different from each other—we still talk about it as oil coming out of the grounds—but the light tight oils, some of them, especially coming out of the Eagle Ford in Texas, are so light they are condensate and that is what Senator Murkowski was talking about maybe trying to change the definition of oil, and some of the oils coming out of the ground in Venezuela and Canada are so heavy they are on their way to coal. So we are talking about the definition of oil, hydrocarbons, really changing where it is not necessarily one thing anymore. It is a collective of a lot of different hydrocarbon arrangements.

Mr. JENNINGS. The refining system in the United States is, obviously, capable of making the different boutique fuels that are required in different markets throughout the country. They relate principally to vapor pressure, how volatile the material is, octane and now sulphur content is a big focus. The international standard often requires the tighter end of those specifications and so the export barrels typically will be those that would qualify for the most stringent U.S. markets as well.

Mr. PERRY. At what point in this discussion are producers going to leave the oil in the ground? Are we already doing that because refining capacity doesn’t exist? Is that already occurring now and if it isn’t at what point would that occur or will it never occur?

Mr. MEDLOCK. It will certainly occur if the discounts actually get to be sufficient enough. Currently there are a couple different things that are working against this. It is not just an export issue. It is also an infrastructure issue because currently in the Bakken, for example, in North Dakota we move a lot of that crude by rail, which is an order of magnitude more expensive than moving it by pipeline. And this goes back to, you know, getting the appropriate infrastructure in place and there is, obviously, a policy overlay here. But if you were to actually have the pipeline infrastructure in place to move that crude effectively, the netback to the wellhead would be priced $18 to $20 higher. And so that buys a lot more activity in the field. So it is, you know, I hate to focus this only on the export issue because it is broader than that. It actually is—it matriculates down in the infrastructure to move away from the wellhead. And moving crude by rail is a lot more expensive than moving it by pipe.

Ms. GORDON. I was just going to add because it came up, the, you know, consumers and the economy, of course, with oil and gasoline comes up all the time. These oils, if they are stranded in the ground, it will be because the price is too low. It will—it will take a much higher price. So we are talking about more abundance at a high price. This is so different than the 1970s where we were talking very low prices and then supply was getting stuck. This is a lot of capacity—physical capacity of hydrocarbons in the earth that can get out of the ground if the price gets really high. So we are not really—we will see volatility in the market but it is going to have to trend upward to get these oils into the market and move them around and refine them.

Mr. JENNINGS. The Middle East is still producing and exporting 10 to 15 million barrels per day of oil. Even with what we and our North American allies could do, I don’t believe in the near future in our lifetimes we are going to offset that effect.

Mr. YOHO. But it is possible. We can’t use oil or the petroleum products as a strategic diplomatic tool if we do not update our export oil policies and I for one will support the repeal of this policy to increase the ability for us to export so that we can use that as a bargaining chip.

Mr. Milito and Dr. Medlock, do you feel it is possible for us to achieve energy security in the U.S.?

Mr. MILITO. I think we are doing that right now with this tremendous advance in production that we are seeing. Going from 5 million barrels a day to 10 million barrels a day in just a few years is incredible. Nobody would ever have imagined that. Same on the natural gas side. We are expected to import $100 billion a year in natural gas and now we are looking to export.

Mr. YOHO. Well, I mean, that is just it. I mean, 10 years ago we were going to have to export all this but through technology and better techniques we are going to be a net exporter. Do you feel that we could be a net exporter on petroleum products too?

Mr. JENNINGS. First, I want to dispel the myth that it is just light or just heavy. Inside every heavy refinery is a light plant where you are going to not use the full kit. So these plants can refine light crude but not on an optimized basis. They don’t fully use all the capital. Probably half to five-eighths of our country’s refining capacity has capability to cut deeper into the heavy and sour barrel and make gasoline and diesel out of it and the remaining 30, 40% doesn’t have that capacity. What I would say, though, is that this is a snapshot at a point in time. There is a lot of investment being made—condensate splitters, and other things that refining plants are doing. We had one in Cheyenne, Wyoming, that was almost 100% running heavy Canadian. Now we run 50% Canadian, 50% light Bakken.

Currently, the United States is exporting about a million and a half barrels per day on a net basis of refined petroleum products.

Mr. SHERMAN. I would point out on the idea of Ukraine they can’t afford to pay Russia $10 a unit. Japan pays us or is paying $16 so if we were exporting natural gas the Japanese would be offering far more than the Ukrainians could afford to pay unless we want to tax the American people more so that we can provide $6 a unit.

The dream of the—of environmentalists I know is that the tar sands of Canada are never exploited. There are those who say they will build the pipeline—the Keystone. The environmentalists think they can stop that. There are those who say the Canadians will go east or west. There are Canadian environmentalists who are in touch with my California environmentalists who think they can stop that. How uneconomic is it to put that Canadian oil into tanker cars, take it on railroads to a U.S. domestic pipeline and then have it proceed? In other words, if we—if the environmentalists stop the Keystone—stop any pipeline—any Canadian pipeline and they stop any international-U.S. pipeline, can domestic U.S. pipelines bring that oil to the market economically although at lower profits to those who own the tar sands?

Ms. GORDON. Well, it is pretty powerful. You know, the investments up there, at least for the mined bitumen, which has all been invested, it wants to get out and it will do so at a lower profit if it means, you know, mothballing everything that is ready to get out there. So right now, it is moving by rail. There is—I think it is Valero, can’t remember who—someone has put in a variance actually that would take rail bit, which is the diluted—slightly diluted bitumen that you put on rail and then it would just put it right onto a tanker so it would come through—the question would be, is this even U.S. oil? I mean, are we just exporting foreign oil out of Texas by putting Canadian oil on bunkers?

Mr. SHERMAN. So bottom line, that Canadian oil—those tar sands will be exploited. If it is inefficiently on tanker cars it is still more economic than leaving that tar sand in the ground and—do I have that right?

Ms. GORDON. Yes, for the mined bitumen, which is about 20% of the resource, because all of that investment has been made. Big question mark for the in situ, the really deep bitumen that they have to heat out of the ground. It might be that investments aren’t made if it is difficult to move it to market. And then the big question about the oil sands is what do you do with the bottom of the barrel. If we could think of a way to get rid of that pet coke—the bottom of the barrel—they really wouldn’t be that different from any other oil. It is just that they have a very large bottom of the barrel.

Mr. JENNINGS. The difference in price to ship crude by rail versus pipeline from Canada to the Gulf of Mexico is only about $6 a barrel—$5 or $6 a barrel. That isn’t going to go into the producer’s decision making of whether or not to develop incremental oil sands capacity.

 

Posted in U.S. Congress Energy Policy | Tagged , | Comments Off on House hearing 2014: Should the U.S. export oil and natural gas?

Yet another 2013 house hearing about U.S. energy independence

House 113-1. February 5, 2013. American energy security & innovation: an assessment of North America’s energy resources. House of Representatives. 202 pages.

[Excerpts from the 202 page transcript of this hearing]

Representatives and speakers declaring the U.S. energy independent:

  1. Ed Whitfield, Kentucky
  2. Fred Upton, Michigan
  3. Joe Barton, Texas
  4. Daniel Yergin, Vice Chairman, IHS
  5. President Obama
  6. Harry Vidas, Vice President, ICF International

ED WHITFIELD, KENTUCKY: The title of today’s hearing is ‘‘American Energy Security and Innovation,’’ and we are going to focus on an assessment of North America’s energy resources. Certainly, one of the primary factors that affects the economy is energy policy, and certainly there are other factors as well but that plays a vital role.

I was reminded as I read the testimony last night that it wasn’t too many years ago when people throughout the country, experts and otherwise, were talking about the United States fossil fuels, for example, their resources were being depleted. We were running out of oil, we were running out of natural gas and we were going to have to be importing more. As a matter of fact, in January 2007, a CEO of one of our largest utility companies made the comment that we were running out of natural gas, production was declining and demand growing so he expected that imports would go from 3 percent of our national needs to 24 percent in 2020.

And then of course, we know what has happened. We have had all sorts of new discoveries—the Bakken field, the Eagle Ford, developments in Colorado—and most of these shale fields have been discovered on private lands, and even though the number of permits on public lands has gone down, the production on private lands has increased dramatically. So this is a real game changer. We have heard the term for many, many years, we have the opportunity to be energy independent, and that is actually the reality today, we have abundant resources that can meet the needs of this country on the electricity side and the transportation side for years and years to come.

We have seen increases in domestic oil production since 2007 and natural gas production since 2006, according to the Energy Information Administration. And EIA predicts that these upward trends will continue for years to come. At the same time, Canadian oil production is growing so fast that we will need the Keystone XL pipeline expansion project to bring the additional output to American refineries in the Midwest and Gulf Coast. In fact, the news is so promising that some analysts are talking about the possibility of achieving North American energy independence by the end of the decade. Of course, experts may disagree as to just how much energy potential is out there, but none would have claimed just a few years ago that our nation would reverse course and have the potential to become a true global energy supplier and powerhouse.

We are seeing a truly dramatic shift away from long-held beliefs about domestic oil and natural gas supplies. So much of our existing legislation is rooted in the assumption of domestic energy scarcity, not energy abundance. Needless to say, a wholesale rethinking of energy policy is in order, and today’s hearing is the first step in that process.

We will soon hear from one of our witnesses, Mary Hutzler of the Institute for Energy Research, America possesses nearly half of the entire world’s coal reserves. This is enough coal to continue its use at current rates for 500 years.

The good news is that a future of plentiful, affordable, and reliable supplies of North American energy is no longer just a dream.

BOBBY L. RUSH, ILLINOIS: The EIA reporting that U.S. crude oil production has increased from 5.1 million barrels per day in 2007 to 6.4 million barrels per day in 2012, the highest level since 1997. The EIA reports that in 2005, the United States imported 60 percent of the petroleum it consumed, and by 2012, that number had dropped to about 41 percent, the lowest level in decades. This decline can be attributed primarily to increased domestic oil production, the additional use of biofuels as well as the adoption of higher fuel efficiency standards for vehicles.

The EIA also projects that the United States will reduce its reliance on imported oil to less than 30 percent of consumption by 2035, and U.S. natural gas production will increase by 44 percent by 2040 due primarily to the projected growth in shale gas production.

FRED UPTON, MICHIGAN. Certainly, this hearing is a welcome one to examine the positive developments resulting from advancements in innovation and technology, the game-changing potential for North American energy independence. What was once believed to be unthinkable is certainly now within our grasp. For 3 decades, 30 years, the American people have been told that we are a Nation of declining resources at the mercy of OPEC. The story was nearly as gloomy with natural gas with forecasts of dwindling domestic supplies, higher prices, and rising imports from the Middle East.

In fact, in this committee, many may remember when we crafted a new title in the Energy Policy Act of 2005 to facilitate what we thought would be the new norm: pending reliance on imported gas from geopolitically unstable regions of the world, to add to our growing reliance on OPEC oil.

But thanks to American ingenuity and advanced technologies, the trends in domestic oil and natural gas production have in fact been turned upside down. In fact, the United States is now the world’s leading producer of natural gas, and the IEA is predicting that by 2020, U.S. oil production will exceed Saudi Arabia. 2020, let me repeat that, we are going to exceed the production in Saudi Arabia. Our overall energy landscape has changed dramatically in just a short period of time, and it is not only rewriting the economic outlook that we have as a Nation, but also beginning to change the geopolitical nature of global energy economics.

JOE BARTON, TEXAS. As we speak today, in the Barnett shale, there are over 16,000 producing natural gas wells, and last year they produced in the neighborhood of 2 trillion cubic feet of natural gas in that one field. With the miracle of hydraulic fracturing, we have unleashed a drilling and production revolution in this country, not only in natural gas but now that technology is being used in oil, and the State of North Dakota, which less than 10 years ago had probably fewer than 200 or 300 oil wells, is on track in that one State to produce over a million barrels of oil in the very near future, possibly this year. We can be energy independent if we want to. It is not a question of can we.

HENRY A. WAXMAN, CALIFORNIA. These are all positive developments. The question we must ask is whether we are on a sustainable course for the years to come. As we debate our energy future, this committee has a choice. It is an energy choice and a climate policy choice, and ultimately it is a moral choice.

Every decision to build a new fossil fuel-fired power plant, or construct a pipeline to transport tar sands, or drill for more oil off our Nation’s coasts has climate risks. We need to understand and weigh those risks before we lock in infrastructure that will produce carbon pollution for decades to come. There is an appeal to the energy resources we are discovering. We are stronger when we produce oil in the United States than when we import it from Saudi Arabia. We are better off when we produce our own natural gas than when we import LNG. But we also must recognize that the world has far more proven reserves of oil, gas and coal than we can ever safely use. The atmosphere has a rapidly shrinking capacity to safely absorb carbon.

STATEMENT OF ADAM SIEMINSKI . Drilling in tight oil plays in North Dakota, Montana, and Texas are expected to account for the bulk of the forecast production growth over the next 2 years. U.S. crude oil production could reach 8 million barrels a day in 2014, and we could get as high as 10 million barrels a day but that is not currently in our reference case. U.S. dry natural gas production has increased consistently since 2005, mainly because of the production of shale gas resources. Total marketed production averaged about 69 billion cubic feet in 2012, and EIA expects production will remain close to that level this year and next year. Crude oil and natural gas proved reserve additions

Demonstrated Reserve Base. The largest category of reserves is the demonstrated reserve base (ORB), which represents coal reserves in the ground that have been identified to specified levels of accuracy and are in thickness ranges and at depths that are considered minable. As of January 1, 2012, the demonstrated reserve base was estimated to contain 483 billion short tons. The ORB was originally estimated in 1974 by the U.S. Bureau of Mines

STATEMENT OF DANIEL YERGIN, Vice Chairman, IHS. The United States is in the midst of an unconventional revolution in oil and gas that fits that all-of- the-above strategy that Congressman Rush talked about

Those of you who participated in hearings in 2008 remember those dark, dire days when, I think as Chairman Whitfield reminded, the world was going to run out of oil and the United States was going to run out of oil even more quickly. How that has changed. Shale gas now has gone from 2% of our supply to 37% of our supply, and what is really dramatic is what has happened on oil, which instead of continuing its long decline has increased dramatically by almost 39% since 2008.

It is sobering to consider that without these technologies, and the oil output that has resulted from them, the sanctions on Iran might well have failed.

Certainly expanded domestic supply will add resilience to shocks and add to our security cushion. Moreover, prudent expansion of U.S. energy exports will actually add an additional dimension to U.S. influence in the world. However, there remains only one world oil market, and a disruption anywhere will be a disruption everywhere.

Owing to the scale and impact of shale gas and tight oil, it is appropriate to describe their development as the most important energy innovation so far of the 21st century. That is said with recognition of the major technological advances in wind and solar since 2000; but, as is described in The Quest, those advances are part of the “rebirth of renewables”. As actual innovations, solar and wind emerged in the 1970s and 1980s.

So far, this unconventional revolution is supporting 1.7 million jobs – direct, indirect, and induced. It is notable that, owing to the long supply chains, the job impacts are being felt across the United States, including in states with no shale gas or tight oil activity. For instance, New York State, with a ban presently in effect on shale gas development, nevertheless has benefitted with 44,000 jobs. Illinois, debating how to go forward, already registers 39,000 jobs.

In March, 2011, President Obama spoke about how “recent innovations have given us the opportunity to tap” large reserves of natural gas – “perhaps a century’s worth of reserves.” 

The question as to how the unconventional revolution will affect U.S. involvement in the Middle East is moving to the fore. Current net U.S. imports from the Persian Gulf are equivalent to 8% of total consumption. Even if that number goes down, the nature of U.S. interests in the region go well beyond direct oil imports to the importance of the region for the global economy and global security.

STATEMENT OF JENNIFER MORGAN. Directly relevant to this subcommittee are electric infrastructure and reliability are already being affected and are increasingly vulnerable to droughts and other disruptions caused by climate change. Current impacts on energy production are just the beginning. Unless we change course, these impacts will become more extreme, placing our energy infrastructure and our country at great risk, which brings me to my second point, which I think is very important. To avoid the most serious climate change impacts, our energy policy must drive low-carbon technologies forward now and build them out at a much larger scale.

Sea-level rise and associated storm surges and coastal flooding have significant economic implications. For example, damage estimates from Hurricane Sandy have ranged from $30 to $50 billion. In Florida, already occurring sea-level rise impacts are forcing Miami Beach to spend more than $200 million to overhaul its storm drainage system, and Hallandale Beach to spend $10 million 15 on new wells because of saltwater intrusion. Sea-level rise will require increased energy usage in the form of additional pumping for drainage and water supply, as well as for the energy-intensive process of desalinization. The vulnerability of the U.S. economy to sea-level rise is significant, with 41 million Americans living in coastal counties along the East Coast.

According to the National Oceanic and Atmospheric Administration (NOAA), over 65% of the contiguous United States experienced drought last September, causing widespread damage to the nearly $300 billion in annual agricultural commodities within the United States. Recent scientific findings have strengthened our understanding of the link between climate change, heat, and drought. For example, the heat wave leading to the Texas drought was found in a recent study” by NOAA and other institutions to be 20 times more likely to occur now than in the 1960. According to the recent draft National Climate Assessment, disruptions to agricultural production from climate change have increased in recent years and are expected to increase further over the next 25 years.

Extreme weather and climate events. According to NOAA, in 2012 the United States experienced 11 extreme weather events causing more than $1 billion in damages each? The economic losses from extreme events increased in part by the impacts of storm surge exacerbated by climate change are significant. For example, hurricanes have cost the U.S. Gulf Coast alone an average of$14 billion in damages per year, and the region could accumulate $350 billion in cumulative hurricane-related damages over the next 20 years. The 150-percent increase in population along the Gulf Coast over the last 50 years, to 14 million inhabitants, has further increased the potential for costly impacts from storm surge and associated hurricanes. The increase in frequency and cost of extreme weather events has caused ripple effects throughout the insurance industry, which recent research shows has experienced steadily increasing weather-related losses over the last two decades. Aggregate economic losses in 2011 attributed to extreme weather events were $55 billion,”and storms such as Tropical Storm Lee and Hurricane Irene were responsible for a combined $8.3 billion in damages that included coastal flooding. With the expectation that sea-level rise and future threats of storms such as Sandy will increase property losses, the financial risk will be transferred more to the public sector as the private sector cannot cover “high-risk” coastal properties.

Energy facilities will also likely be affected by sea-level rise. The contiguous United States has more than 280 electric power plants, oil and gas refineries, and other energy facilities which are situated on low-lying land and thus vulnerable to sea-level rise and episodic coastal flooding. Sea-level rise poses especially substantial challenges for sustaining reliable energy infrastructure in states such as Florida, where 26 energy facilities are located in especially vulnerable areas. In addition, power sector reliability is affected by extreme weather events. For example, in the aftermath of Hurricane Sandy and the Nor’easter that immediately followed, more than 8 million customers lost power. Refineries, natural gas distribution systems, and petroleum terminals were also affected by these storms. Meanwhile, because the majority of U.S. oil production and refining occurs in the Gulf Coast, hurricanes can impact national energy availability and price, as Hurricanes Katrina and Rita demonstrated in 2005. The nation’s power sector is also highly vulnerable to extreme drought. Water scarcity has emerged as one of the defining challenges of this century, yet a significant amount of water is needed to extract energy resources and use them to generate electricity. Limits on availability of ground and surface water are shaping the current operation and future location of America’s power plants. In 2011, over 85% of total electricity generation in the United States was produced by thermos-electric power plants fueled by nuclear and fossil energy sources, most of which rely heavily on substantial water resources for cooling, As fossil energy extraction trends toward unconventional resources and “enhanced” production, more water is needed relative to extracting the same amount of energy using conventional methods, According to the National Energy Technology Laboratory, there are 347 coal-fired power plants in 43 states vulnerable to water supply and/or demand concerns. In a future with increasing likelihood of droughts, our nation’s ability to meet growing energy needs through thermoelectric power generation will be highly vulnerable to climate change.

The U.S. power sector will require as much as $828 billion in capital investments and expenses before the end of this decade. Many of these investments will be for very long-lived assets from power plants to transmission systems. U.S. energy companies making investments today are considering 40+ year operational horizons and cannot ignore the potential for a future where climate policies and environmental risks influence the bottom line. One of the surest ways to saddle customers with higher costs from major stranded investments is to ignore the need to factor climate impacts into today’s decision-making processes. As a society, delaying the decision to act on climate change increases the overall cost of mitigating greenhouse gas (GHG) emissions. A recent study by KMPG found that the costs of environmental impacts for a wide array of industries are doubling operational costs every 14 years. The cost resulting from climate change, specifically, was estimated at 1% per year if early action is taken, but 5% per year of delay in establishing climate policy certainty. Other studies have found that climate change could put trillions of investment dollars at risk through 2030.

MARY J. HUTZLER. The Institute for Energy Research is a nonprofit think tank that conducts research and analysis concerning global energy issues.

But today’s hearing is focused primarily on the resource availability and the potential under our feet and off our shores to achieve domestic energy goals, almost unthinkable just a few years ago. In fact, for decades Americans were asking the question, where we will get the energy we need to heat our homes, fuel our cars and meet the demands of a strong 21st century economy. Due to hydraulic fracturing and horizontal drilling technologies, we no longer question whether we have the resources.

The myth of energy scarcity that has plagued our national conversation has been exposed. Just in the last year, the misleading refrain that the United States only possesses 2% of the world’s oil reserves has been replaced by the mounting evidence of our Nation’s resource abundance.

Increased oil sands imports from our neighbor Canada could free the United States from energy dependence on foreign countries where American workers face increasing threats of kidnapping by terrorists and even murder.

The United States has vast resources of oil, natural gas, and coal. In a few short years, a 40-year paradigm-that we were energy resource poor-has been disproven. lnstead of being resource poor, we are incredibly energy rich.

The amount of technically recoverable oil in the United States totals almost 90% of the entire oil reserves in the world. Technically recoverable resources are not equivalent to reserves, but comparing their magnitudes provides a way to measure size. IER’s estimate of technically recoverable oil in the United States is 1,422 billion barrels. That amount of oil can satisfy U.S. oil demand for 250 years at current usage rates or it can fuel every passenger car in the United States for 430 years. It is also more oil than the entire world has used in all human history. The technically recoverable natural gas resources in the United States total 40% of the world’s natural gas reserves. At 2,744 trillion cubic feet, it can fuel natural gas demand in the United States for 175 years at current usage rates, or selectively, it can satisfy the nation’s residential demand for 857 years or the nation’s electricity demand for 575 years.

Technically recoverable coal resources in the United States are unsurpassed and total 50% of the world’s coal reserves. At 486 billion short tons, it can supply our country’s electricity demand for coal for almost 500 years at current usage rates.

Natural Gas Replenishment

The Myth of Peak Oil, Natural Gas, and Coal For many years, we have heard of fossil fuels reaching their peak production levels or at the verge of being depleted.

The same is true for the myth of ‘peak’ coal. In 2007, David Hughes, Geologist for the Geological Survey of Canada, stated, “Peak coal looks like it’s occurred in the lower 48.” And yet, the United States still has the largest coal reserves in the world. Rather than depletion effects, our coal industry is faced with overly broad and restrictive regulations on the use of coal and increasing restrictions on coal production from the U.S. Environmental Protection Agency.

Harry Vidas, Vice President, ICF International. ICF estimates that the remaining technically recoverable U.S. natural gas resource base is 3,850 trillion cubic feet, which represents 155 years of current consumption. The U.S. shale gas resource is almost 2,000 TCF, 52% of the total.

Our current assessment of the U.S. oil resources in terms of technically recoverable resources is 264 billion barrels. This represents 110 years of production at current production rates.

Mr. SIEMINSKI. We took at look at how quickly natural gas could grow in transportation, and it is a very small number, a rounding error in terms of percentages. We use 3% of our natural gas to move natural gas in the pipelines, but when most people think about transportation, they are thinking about trucks or cars and so on. We believe that LNG in freight trucks and then eventually natural gas being turned into liquids like a high-quality diesel fuel—there is a plant under consideration down in Louisiana to do just that [my note: this project was cancelled]—could actually almost double the amount of total natural gas in transportation so that we could get up from 3% now to easily 6% and possibly as high as 8 or 9%. A lot of that is because natural gas, from a pricing standpoint, looks really, really attractive compared to global oil prices. So there is a lot of effort underway there.

Infrastructure issues take time. You can often get some production going and a lot of wells being drilled. Whether or not companies can then afford to build the pipeline infrastructure to move those products, oil and gas, around depends on their own view about how long the production activity will last. Because most of the pipeline infrastructure now is based upon traditional oil and gas and refineries and the like, not all these new plays are in areas where there is access to pipelines.

Mr. YERGIN. I think we have pretty much the same view as EIA, that, you know, it does now appear that natural gas will become an important fuel for large trucks, for railroads and so forth. At this point we don’t see it becoming a major fuel for private automobiles because of the nature of the infrastructure and so forth that would be needed.

Our thinking needs to catch up with reality. Our logistics need to catch up with new production. Everything has been turned upside down. Instead of going south-north, it is going north-south.

Mr. VIDAS. The analysis that we have done is very similar, that although we expect natural gas and liquefied natural gas vehicles to triple their use over the next 20 or 25 years, it still represents a relatively small part of the overall sector. The more likely way that natural gas could be used to displace oil would be through gas- to-liquids technologies or even using natural gas to generate electricity and then using electricity in battery cars.

Mr. BURGESS. the State of Texas has added almost a half million people over the past years from last summer to—the summer of 2011 to the summer of 2012, and the reason for that of course is the availability of energy and the cost of energy, and while energy in and of itself cannot be its own end, it does help drive our economy. So when we talk about not wanting to betray our children and future generations, I think we have a responsibility to the economy, and part of that responsibility is the energy supply that is available to our economy. Dr. Christensen talked about tipping points. I will just ask an open-ended question. I know you guys don’t like to speculate, but what kind of tipping point would we have seen with the economy in the last 4 or 5 years in the absence of shale?

Mr. YERGIN. If we had remained on the track that we had been on prior to when we were going to build all of those LNG receiving stations, we would probably be spending $100 billion a year now to import LNG into the country, so that would have been a big burden. Secondly, had we not seen this increase, this substantial increase in oil production, we would be paying a lot higher prices for oil, and it would be a much, much tighter and more vulnerable market and we would not have had what we have seen is that these supply chains are so long in our economy, these are dollars that stay here. They are going to jobs here rather than going into a sovereign wealth fund somewhere else in the world. So in that other universe, it would have been a much more difficult picture and more congruent with what seemed to be the picture in front of people in 2008.

Mr. SIEMINSKI. Virtually every economic study that I have seen suggests that higher domestic production of fuels leads to greater GDP, and when you get to the import issue you obviously have lower trade deficits. All of that helps the economy, leads to greater job creation, as Dr. Yergin said. I think one of the things to keep in mind is that the availability of relatively low-cost natural gas has actually helped to sustain some of the growth in wind and solar on the renewable side because those are intermittent sources. They need a backup supply and it is often natural gas that provides the backup for these rapidly growing renewables that are going to become a fairly significant part of U.S. energy production and consumption.

Mr. BURGESS. We have peaking demands in north Texas where in the summertime when the air conditioners are all cranked down low, even if you had a substantial wind component, you would never be able to keep up with that peak demand.

Mr. CASSIDY. Mr. Yergin, there are those that say that we shouldn’t export liquefied natural gas because in some way by doing so we will promote the production of more natural gas and therefore contribute to global warming, but what you are saying is that is absurd because if we don’t do it, Australia or Canada or some other country will export liquefied natural gas. Is that a fair statement?

Mr. YERGIN. Yes, I think people will fill the market and fill the need, and in fact are racing ahead to do that.

Mr. CASSIDY. Now, as they race ahead, it is fair to say that if is a $5 billion or $10 billion project to create one of these export terminals, those are a heck of a lot of jobs that will be sacrificed because of an absurd premise? Again, is that a fair statement? Being that if we don’t export liquefied natural gas, then natural gas will not be mined.

Mr. YERGIN. Well, I think in fact if you take a country like China, which as Adam Sieminski pointed out, it is very heavily oriented towards coal and wants to reduce its use of coal and use more natural gas to produce electricity to reduce pollution, they will look in one direction or another, and if we are sending natural gas we would be contributing to their reducing their pollution.

Mr. CASSIDY. So if we can create those jobs, we will simultaneously improve our economy, but too, improve, decrease carbon release worldwide potentially?

Mr. YERGIN. Yes. I think what is happening now is——

Mr. CASSIDY. I am going to let you hold that. If we don’t send energy to Japan, their economy will tank. That is on my mind when I go around to the exporters in Louisiana. I say what do you need to create more American jobs. They say more robust markets to export to. Right now Japan and Europe are in the doldrums. We need those economies to do better so we can create more American jobs. It is in our self-interest to make sure that they have adequate energy supply.

Mr. YERGIN. That is right, and it is in our political interest and it is in our economic interest.

Mr. DOYLE. I hear this a lot, that there is all this development that could be taking place on federal lands but the permitting process is so bad, and I think the map pretty graphically illustrates that there is just not much federal lands where the oil and gas shale plays are in the United States. I just wanted to provide that for clarification.

Mr. GARDNER.   That red spot on the map is in my district in northern Colorado. But there is tremendous opportunity for development in the gray spots, and a lot of that gray spot that you see in Colorado with the Rocky Mountain areas, it is BLM land, it is U.S. Forest Service land. They are unable to get permits through the BLM because of various bureaucracies. In fact, according to the Western Energy Alliance, over 100,000 jobs could be created in the western United States, primarily on those gray lands, if the permitting delays were simply lifted. Over 100,000 jobs could be created in the western United States. That is not because all the development is taking place in the red areas or the pink areas. That is because Bureau of Land Management and other agencies have been so slow in their permitting that we can’t get those permits through to create those kinds of jobs. So I think you would see a lot more red areas if we could actually get a government that was willing to allow us access to those resources in a responsible manner, and so I for one would like to see over 100,000 jobs being created in the western United States.

Mr. TONKO. And we are experiencing this period of relative abundance but we have been there before in our recent past history, so oil and gas markets are volatile and have led us to a false sense of energy security in the past. So how do we develop a national energy policy that is less shortsighted and more strategic? Basically, how can we best use these reserves to maximize——

Mr. GRIFFITH. So this is of great concern in my area because we have railroads, coal and utility companies. I would point out also that it is kind of interested that your written testimony indicates that the Chinese are using about 4 times as much coal as we are and that while they are building cleaner plants, they are not putting their older, less clean plants out of existence in the meantime, are they?

Ms. HUTZLER. No, they are not. With their GDP growth, they need all the power they can get, and in fact, according to the National Energy Technology Laboratory, they are building 60 to 80 gigawatts of coal-fired plants a year, and they think that will happen easily through 2016 and maybe further.

Mr. GRIFFITH. And so they are relying on coal including maybe some of our coal to generate their energy and the growth in their economy. Isn’t that true?

Ms. HUTZLER. Yes. They have to import coal now. They can’t produce enough themselves to satisfy their demand and we are exporting coal to them.

Mr. GRIFFITH. And so when I tell my constituents that not only are we damaging coal but we are also damaging jobs in the United States, we are allowing the Chinese to grow their economy while retarding our economy by not using our clean coal technology. Isn’t that correct?

Ms. HUTZLER. Yes.

Mr. GRIFFITH. And so for all intents and purposes, at least at this point in history, there is not the technology available for the United States to build any more clean coal plants, coal-fired electric generation plants, and we are really handicapping ourselves in relationship to our competitiveness with the Chinese. Isn’t that also true?

Ms. HUTZLER. Yes. Currently, CCS technology is not commercially available for these plants.

Mr. MARKEY Just a point. In 2009 in this committee and on the House Floor, Mr. Waxman and I built in $60 billion for clean coal technology, carbon capture and sequestration. We voted it out of this committee with no Republican support. Over the last 5 years, unfortunately, coal has dropped from 51% down to 35% of all electrical generation in the country, and what has gone up? Natural gas. It is less expensive and it is cleaner. So coal is being attacked but it is by the natural gas industry, so let us just get that clear, and we put the $60 billion in and the coal industry opposed the Waxman-Markey bill. They opposed now, and now they suffer from not having the investment in technology to make it cleaner. So don’t blame us, blame the coal industry for not wanting the funding and blame the natural gas industry for their technological breakthroughs that have allowed for the production of more and cheaper and cleaner sources of energy.

Mr. Sieminski, recently the Department of Energy released a study of the economic impacts associated with exporting large quantities of natural gas that was performed by NERA Consulting. The study used outdated 2010 EIA projection data and concluded that while exports would lead to higher domestic energy prices and adverse impacts to American manufacturing, the overall economic impact would be positive. Isn’t it true that EIA’s 2010 data predicted that domestic natural gas use in the power sector would decline between 2010 and 2020, though its use in the power sector has actually ended up growing by 27% just since 2010?

Mr. SIEMINSKI. Yes.

Mr. MARKEY. OK. That is all I needed to know. So way off. EIA was way off. Natural gas and the utility sectors not only did not go down, it has now gone up 27% since that report. Isn’t it true that EIA’s current projections of natural gas use in the transportation sector are seven times as high as the 2010 data used in the NERA study?

Mr. SIEMINSKI. And our supply estimates are also higher.

Mr. MARKEY. I am asking you to just go back to this study that is being relied upon. Is it not seven times higher in the transportation sector than NERA projected in just 2010?

Mr. SIEMINSKI. Yes, sir.

Mr. MARKEY. OK. Thank you. So this data was released in 2010, and since then 100 major manufacturing projects totaling $95 billion in investment have been announced. These are manufacturing facilities that would produce chemicals, fertilizer, steel, aluminum, gas, tires, plastics and other goods, all of which rely on cheap natural gas. That is what is driving this manufacturing. These announced projects alone would push U.S. industrial demand for natural gas 30% beyond the estimates used in the NERA study. Just yesterday, the Wall Street Journal described decisions made by German and Canadian companies to locate new facilities in the United States because of low natural gas prices. The Germans, the Canadians are coming to the United States with their manufacturing facilities. Do you believe that we should be making decisions about what to do with domestic natural gas in 2013 and beyond using data that reflected what was going on in that sector 3 years ago that vastly underestimated what is happening today?

Mr. SIEMINSKI. I think it is always better to have recent and accurate date in making forecasts but——

Mr. MARKEY. Especially since the data we are talking about is like a Frankie Avalon record except it only took 3 years to turn it into completely outdated information that was totally wrong about where we would be 3 years later. Last year your agency found that exporting 12 billion cubic feet per day of natural gas could lead to a 54% increase in domestic prices but today companies are applying to export nearly 3 times that amount. It seems to me that before we permit more natural gas exports to occur, we should have an understanding of the potential economic impacts on consumers, on the manufacturing sector and on the transportation sector in the United States in terms of our own internal domestic growth in those sectors of our economy and have it based upon real data, not old data that bears no resemblance to what is happening in the natural gas sector today.

This panel led by the Republicans voted in 2012 to repeal the ability of EPA to increase fuel economy standards for the vehicles which we drive. Let me just go down the line here and just ask each of you, do you support the repeal of the ability of the EPA to increase fuel economy standards or do you oppose repealing the authority? Can we just go down and we will just get your views on that way in which we deal with oil consumption in the United States?

Mr. KINZINGER. Last week’s Wall Street Journal, there was an article titled ‘‘Can Gas Undo Nuclear Power?’’ which discusses how low natural gas prices are problematic for our baseload energy production, and I would like to know your thoughts on low gas prices as it impacts fuel diversity into the future and existing domestic resources like nuclear.

Mr. YERGIN. I think what has happened with natural gas prices, remember, when people went out to start developing shale gas, it was—the incentive was very great for these independents. It was like $12 and now we know we are talking around $3, and that is really changing the marketplace, the electric power marketplace for everything, certainly including nuclear.

Mr. KINZINGER. So does that give you concerns for maybe the viability of nuclear in the future if this continues? And also, what do you think is going to happen? Do you think in 10 years if you can magically look forward that we will have a diverse energy supply or do you think we will have too many eggs in one basket?

Mr. YERGIN. Well, I think it is the—we have 4 reactors that are under construction, two projects now. I think that in this cost environment it is very hard to see anybody committing to a current generation of new power plants. The Secretary of Energy Advisory Board, the last session was partly devoted to small modular nuclear reactors, in other words, where there is technological innovation. And I think the other question about our nuclear fleet is, it is about 20% of our electricity. Lives have been extended. What happens after another 20 year and does that shrink away then.

Mr. POMPEO. I was reading an article about renewable energy, and in Eastern Europe they subsidized it even longer than we have and even more than we have, and they have had some power blackouts. There is an article in Bloomberg on October 25 that I would also like to submit for the record that talks about these energy blackouts. [The information appears at the conclusion of the hearing.]

You know, our grid could suffer the same kinds of things, in my view, if we have non-storable, non-reliable energy source. Do you have a view of the risk of us subsidizing this at such a rate that we get to a place where we have got less reliable electricity in America?

Ms. HUTZLER. Yes. Germany is a good example because they are phasing out their nuclear units and turning to renewable energy in its place, but obviously it has to be backed up, and it has caused instability to their grid. Neighboring countries are not allowing them to export their renewable energy, their wind energy, to them such as Poland, and in fact, industrial users are seeing some disruptions in their service that is causing them hundreds of thousands of dollars in equipment and they have already told the German government that either you fix this problem or we are going to leave.

Mr. POMPEO. Mr. Sieminski, you talked about renewables growing at a huge rate. It is easy to grow at a huge rate off a small base. It is still not a hugely important part of our energy resource base. When you made these assumptions about its economic growth, what did you assume for federal policy? Did you believe that we would continue our current—somebody on the other side of the aisle called it creative financing. But what assumptions did you make about state RPSs and these kinds of non-economic policies remaining in effect?

Mr. SIEMINSKI. Renewables go from about 13% to 16% of total electricity generation, so there is a lot of growth but it is still a small portion.

Posted in U.S. Congress Energy Independence | Tagged | Comments Off on Yet another 2013 house hearing about U.S. energy independence

It’s official – the U.S. is energy independent! House Hearing 2013

House 113-88. October 29, 2013. North American Energy Infrastructure act. House of Representatives.

[Excerpts from the 195 page transcript of this hearing] 

ED WHITFIELD, KENTUCKY. Over the last several months, this committee has received compelling testimony detailing how the United States has entered a new era of energy abundance. New technologies and American innovation are unlocking vast amounts of previously untapped domestic energy resources, meaning greater access to affordable and reliable energy for all Americans. In fact, the Energy Information Administration recently reported that the U.S. will be the world’s top producer of petroleum and natural gas in 2013, surpassing both Russia and Saudi Arabia. And we continue to be one of the world’s leading producers and exporters of coal.

GENE GREEN, TEXAS. The energy revolution bodes well not only for U.S. economic and security interests, but it also offers significant advantages for our North American allies: Canada and Mexico. Based on current projections, many analysts believe that the U.S., Canada, and Mexico could finally achieve North American energy independence by the end of the decade.

But energy supply alone is not sufficient to achieve North American energy independence. We must also have in place the energy infrastructure necessary to deliver affordable and reliable energy across our northern and southern borders. The legislation before us today will modernize and reform the approval process for energy infrastructure projects that cross the borders of the United States.

JAY MCNERNEY, CALIFORNIA. I do have significant concerns about the bill. I don’t think the case has been made for why projects that are not in the public interest should be approved. We should make sure that cross-border energy projects are in the broad public interest, receive a thorough environmental review, and provide adequate opportunities for public comment and participation. We shouldn’t have a rushed process that isn’t going to provide meaningful review.

HENRY A. WAXMAN, CALIFORNIA. Climate change is the biggest energy challenge we face. Before approving a multibillion-dollar energy infrastructure project that will last for decades, we need to evaluate its climate impacts. That is the standard the President rightly set in June. But this test is a significant obstacle for tar sands pipelines because they would carry the dirtiest fuel on the planet. Over the last few years, House Republicans have repeatedly tried to short-circuit the process and mandate approval of the Keystone XL tar sands pipeline. The bill we are considering today goes even further. It creates a new process to rubberstamp every pending and future tar sands pipeline. The premise of the Upton bill is that tar sands pipelines should be approved quickly with no Federal environmental review, no public comment, and no consideration of important factors like climate change or even safety. Under this approach, legitimate concerns cannot even be raised. Mr. Chairman, not only is your voice strained and hard to come forward, everybody’s voices will be restrained. That is the wrong approach for making decisions about controversial projects. Keystone XL is a multibillion-dollar pipeline that will carry tar sands sludge. The oil industry financial analysts and Canadian Government officials say this pipeline is critical to realizing the oil industry’s plan to triple tar sands production. Well, environmental groups say the pipeline will lead to a massive increase in carbon pollution. Over one million Americans filed comments. One million Americans had their voices heard, Mr. Chairman. In a democracy, we need a permitting process that allows for public input. This bill does exactly the opposite. The July 2010 Enbridge pipeline spill in Marshall, Michigan, taught us that tar sands spills are much harder to clean up than regular oil spills. Almost $1 billion has been spent and they are still cleaning up the Kalamazoo River over 3 years later. Enbridge wants to expand another tar sands pipeline from Canada through North Dakota, Minnesota, and Wisconsin.

But if this bill becomes law, the permitting agency couldn’t even consider pipeline safety issues when deciding whether to approve that controversial pipeline.

In the Northeast, another divisive pipeline project would carry tar sands oil from Canada through New Hampshire and Vermont to Portland, Maine, where it would be loaded onto tankers. The project wouldn’t require any approval at all under this bill’s new permitting process. This bill virtually guarantees that Keystone XL and the other controversial pipelines with pending applications are approved within 2 years. It should really be called the Zombie Pipeline Act. Under this bill, even if the administration rejects KXL because it is not in the public interest, KXL could rise from the grave and reapply. It would then be rubber-stamped under the new process.

The Upton bill is not limited to oil pipelines. It also applies to cross-border natural gas pipelines and electric transmission lines. This bill would prevent permitting agencies from considering factors such as safety, electric reliability, engineering, and environmental impacts when deciding whether to approve these projects. Energy projects that are not in the public interest would be rubber-stamped.

And the bill would allow for unlimited exports of liquefied natural gas through Canada and Mexico with absolutely no controls or conditions. That is why domestic manufacturers like Dow, Alcoa, and Nucor have criticized the bill.

Mark P. Mills, Senior fellow, Manhattan Institute for Policy Research

Let me just present first a thought experiment. Imagine what would have happened over 7 years but for the extraordinary expansion in the oil and gas sector. I think the United States would have faced not a recession but a depression. If you consider the numbers as a context that the increased domestic production of hydrocarbons has contributed over $400 billion a year to the U.S. economy. It has attracted something like $200 billion plus and growing in foreign direct investment in the United States. It has driven down imports of oil by 45%, which has radically decreased the GDP-robbing trade deficit. We are, as others have noted, now a net exporter of hydrocarbon products for the first time since 1949 and on track, God willing and permit willing, to becoming a net exporter of significant amounts of natural gas, in our own EIA forecasts, about $2 trillion of additional private investment over the next decade in this sector.

It is already well recognized that the manufacturing sector directly related to oil/gas exploration, production, transport, and refinement has seen a growth and also has been recognized that the energy-intensive sector of the U.S. manufacturing economy is under a massive revival. In fact the American Chemical Council has pointed out that there is about $70 billion in investments underway now and about 100 projects in the United States that will come online in just the next few years that will yield about a million jobs and add about $300 billion to the GDP. These are astounding changes but they are frankly only part of the story and not enough. The revitalization of that ecosystem will spill over into the rest of the manufacturing ecosystem because of the proximity of high- quality, low-cost, high-reliability supplies and suppliers, because of the proximity of a revitalized labor source and also, frankly, the proximity of reinvestment in the American educational entrepreneurship and venture community that arises from this wealth that occurs.

It is obviously clear the United States could become economically energy independent and will be doing so very quickly. What is more interesting is the question of whether North America, the United States in combination with its two allies, could be, and will become the single-largest supplier of hydrocarbons to the world. This is a profound change in geopolitics, but more importantly, from a domestic perspective it is a profound change in the fortunes of U.S. companies across the entire industrial ecosystem and for high-paid permanent jobs in the middle markets and middle class.

This won’t come about easily because there are so many forms of legislation and regulations that are locked into a historical way of thinking, the paradigm of shortages, the paradigms of disappearing resources that we all know has now evaporated and no longer is the ruling paradigm. And it is in fact a permanent secular shift in the structure of the U.S. energy economy and the world energy economy. We can now become suppliers to the world in combination with our allies, not consumers of the world’s resources.

The North American Energy Infrastructure Act comes at time of a transformation in the energy landscape that almost no one anticipated. Only a few short years ago everyone was talking about peak oil and gas and about the imperative to find energy resources beyond hydrocarbons.

Instead, we find ourselves today in a world awash in the potential to produce enormous new quantities of oil and natural gas. And the epicenter of that transformation is North America. In a stunningly short time the U.S. has emerged to become the world’s fastest growing producer of oil and natural gas, vaulting North America to the absolute dominant global position in hydrocarbon energy production.

Imagine what our nation would look like today in the counter case — if the new technologies of oil and gas, and the tens of thousands of small and mid- sized businesses had not deployed that technology to release the hydrocarbon riches locked up America’s vast shale fields. The numbers make it clear that but for the hydrocarbon shale revolution, America may have slipped into Depression. Consider the facts.

The U.S. is now a net exporter of refined hydrocarbons for the first time since 1949, and is on track to become a major exporter of natural gas.

This is a total reversal of fortunes from a continent condemned to energy dependence to one awash in production. It is epitomized by the literal physical reversals in the direction of flows in oil and gas pipelines that now carry fuel from the heartland to the coasts, instead of vice versa. We have also seen the mission of liquid natural gas terminals reverse from import to export, a reversal in refineries from retirements to expansions, a reversal in shipyard construction, and reversal in a dozen-plus states from shrinking to expanding tax receipts and jobs.

The hydrocarbon sector is the single most dramatically expanding part of the entire U.S. economy and has been a shining light of growth and high-value full-time job creation – growth that has come without federal stimulus or new subsidies or preferences. This stands in stark contrast to slow or stagnant growth across nearly every sector of the economy reflected in the extraordinarily slow recovery in jobs and especially for well-paid middle- class full-time jobs.

The U.S. is now on track to become energy independent in economic terms. But that is only part of the story and only a first step towards a far more valuable opportunity. In combination with our North American allies, Canada and Mexico, this continent can quickly become the world’s largest supplier of hydrocarbons. The economic and geopolitical implications are far-reaching.

All this begs the obvious question: why wouldn’t we be doing everything possible to encourage and accelerate the North American hydrocarbon revolution? Especially in the context of the role of hydrocarbons in high- value manufacturing jobs — a sector at the very core of the kinds of employment growth so eagerly sought by citizens and their elected representatives.

And the energy-intensive manufacturing ecosystem’s expansion will spill over into and catalyze other manufacturing both upstream and downstream where other businesses will take advantage of the proximity to low-cost high-reliability supplies and suppliers, of the growth in local labor force skills, and benefit from the collateral advances and investments in new underlying technologies. That’s how industrial and economic ecosystem’s work. This is precisely what policymakers hope will happen when they try to “stimulate” such outcomes.

It bears noting that the dramatic growth in American oil and gas production has not arisen from new discoveries or the opening up of off-limits federal lands, but from new technologies and techniques that manufacture liquid and gaseous hydrocarbons from solid shale rock. Widely reported as “fracking” – hydraulic fracturing – the story is one of deep industrial innovation, digital technologies and software, driven and deployed largely by small businesses not Big Oil. It is a quintessentially American success story and a permanent secular shift in the energy landscape.

Imagine what would be possible with a bold North American initiative to optimize and rationalize each nation’s projects and infrastructure. The North American continent has more than double the oil and gas resources of the entire Middle East. Unleashing North America’s capabilities would ignite jobs and growth from the Yucatan Peninsula to the Arctic Circle. In less than two decades North America could surpass Middle Eastern production and become the dominant player in global energy markets.

But the American hydrocarbon sector not only contributes more to the GDP than does Silicon Valley, it has also contributed more to the reduction in the trade deficit, added more jobs, and generated more widespread wealth in more states and thus contributed more revenues and economic recovery.

Economic growth is the solution to essentially every problem facing the nation faces today from deficits to entitlement funding, from housing to political dysfunction.

MARY J. HUTZLER, Distinguished Senior Fellow, Institute for Energy Research

http://instituteforenergyresearch.org/wp-content/uploads/2013/10/Hutzler-Testimony-on-Cross-Border-Permits-FINAL.pdf

Oil. Total recoverable resources 1.79 trillion barrels – enough to fuel every passenger car in the U.S. for 430 years. Almost twice as much as the combined proved reserves of all OPEC nations.

Natural Gas. Total recoverable resources 4.244 quadrillion cubic feet. Enough to provide the U.S. with electricity for 575 years at current leves, enough to fuel homes heated by natural gas for 857 years, more than the next 5 largest national proved reserves (more than Russia, Iran, Qatar, Saudi Arabia, and Turkmenistan).

Coal. Total recoverable resuorces 497 billion short tons, enough to provide 500 years of electricity at current levels of consumption, more coal thanany other country in the world, more than the combined total of the top 5 non-north American countries reserves (Russia, China, Australia, India, Ukraine).

The vast energy riches of North America mean that our economic future can be bright, and we can choose to chart our own course to a greater degree than we have been led to believe during the past four decades of the myth of energy scarcity.

While Presidents have sought “energy independence” as a goal from President Nixon on through President George W. Bush, that elusive goal may finally be within reach according to many forecasters. The energy revolution that is going on in North America is historic, and since the resource base is so enormous, we are not limited by a shortage of energy.

Due to hydraulic fracturing and the shale oil and gas revolution, the United States is already the world’s largest natural gas producer and the world’s largest liquid fuels producer.

The energy pipeline transportation network of the United States is vast. It consists of over 2.5 million miles of pipelines, which could circle the earth about 100 times. These pipelines are operated by approximately 3,000 companies, and are regulated by the U.S. Department of Transportation. There are over 2 million miles of natural gas pipelines in the United States and over 180,000 miles of oil pipelines

Oil pipelines consist of crude oil pipelines and refined petroleum product pipelines that carry gasoline, jet fuel, home heating oil, diesel fuel and other petroleum products. Crude oil pipelines consist of gathering lines and trunk lines. Gathering lines are small pipelines generally from 2 to 8 inches in diameter that gather the oil from the wells and connect to larger trunk lines that are generally 8 to 24 inches in diameter. There are between 30,000 and 40,000 miles of small gathering lines located in Texas, Oklahoma, Louisiana, Wyoming, and other oil producing states. The crude oil trunk lines or transmission pipelines to which the gathering lines are connected carry crude oil from producing areas to refineries. The Trans Alaskan Pipeline System, which is 48 inches in diameter, is an example of such a pipeline. There are about 55,000 miles of transmission pipelines in the United States.

Refined product pipelines deliver petroleum products to large fuel terminals with storage tanks, from which tanker trucks make local deliveries to gas stations. These refined petroleum pipelines vary in size from relatively small at 8 to 12 inches in diameter to 42 inches in diameter and are found in almost every U.S. state. There are about 95,000 miles of refined product pipelines.

The natural gas pipeline system is organized somewhat differently because unlike oil, natural gas is delivered directly to homes through pipelines. There are about 20,000 miles of natural gas gathering lines that move natural gas to large cross8country transmission pipelines. These large distribution lines, of which there are about 305,000 miles, move the natural gas close to cities where much smaller lines carry it under streets to homes and businesses in almost every city and town in the United States, accounting for the vast majority of the pipeline mileage–over 1.8 million miles.

Forty years ago, the United States faced the 1973 Arab oil embargo setting off a series of policy initiatives in Washington designed to reduce our dependence on foreign oil. Despite them, domestic production of oil had declined and oil imports had increased until recently. Thanks to American innovation, new drilling technologies have allowed us to tap our vast shale resources and make the United States the largest liquid fuels and natural gas producer in the world. And with Canada’s vast proven oil reserves, the prospect of North American energy independence is no longer political rhetoric but a promising reality.

Pipelines have been used for 3/4 of a century providing the safest, most-efficient, and least-cost transport of oil and natural gas, but due to existing pipelines reaching near full capacity, oil transport by rail has increased dramatically. Last year, oil carried on trains from Canada to the United States increased 46 percent. EIA estimates that 1.37 million barrels of oil and petroleum products per day were moved by train during the first 6 months of 2013, up 40 percent in just one year.

The United States imported almost 3 trillion cubic feet of natural gas from Canada in 2012, 12 percent of our consumption that year. The United States gets 94 percent of its natural gas imports from Canada. The rest comes from Mexico and from overseas as liquefied natural gas. Canadian natural gas imports to the Northeast and Midwest, areas that also benefit from increased domestic production of the Marcellus Shale, are slightly declining, while Canadian natural gas imports into the Northwest are increasing. Four U.S. States, Minnesota, Montana, Idaho, and North Dakota, account for 75 percent of all the natural gas brought into the United States via pipeline. The border States serve as critical links for gas-dependent States like California where over 55 percent of electric generation comes from natural gas.

On the East Coast, Vermont, the first State to ban hydraulic fracturing, is entirely dependent on natural gas from Canada. On our southern border, the United States is a net exporter of natural gas to Mexico where exports have been on an upward trend since 2000 and have more than doubled since 2007. Mexico is also our third-largest supplier of oil and petroleum products supplying almost 400 million barrels in 2012, though this is down from its peak in 2006.

Steve Scalise, Louisiana. I want to ask Mr. Mills about some of the things that a lot of us on this committee have advocated for a long time, and that is North American energy independence. Of course we advocate an all-of-the-above energy strategy and of course we have seen a revolution, especially as it relates to natural gas, oil, and other technologies that have allowed us to access so much more natural resource here in America that allows us to be energy independent.

Mr. DINGELL. I have concerns about the bill as written and I hope that the changes can be made to ensure proper diligence is given to protect the public interests and our tremendous natural resources and that we can do this by using the review processes that are now in the law wisely and not by eliminating the NEPA environmental review process from the cross-boundary permit or from other things which appear to be important because what may be necessary for the situation on the Keystone pipeline may be quite different in other matters and may lead to some very significant regrets if we go the wrong direction. So I would like to see that we preserve an intelligent and reasonably expeditious review process. Mr. Blackburn, in your testimony you said if this bill were in effect for the Keystone XL pipeline project that only the State of Montana has an environmental review process. Would the Montana environmental review have been required to examine the pipeline siting over aquifers, wetlands, rivers, and other sensitive areas in other States?

Mr. BLACKBURN. No, Representative.

Mr. DINGELL.   I happen to have the privilege to live in the Great Lakes region, home for some 20% of the world’s freshwater supply, as well as a tremendous resource for hunting, fishing, recreational use, for industrial and transportation. Not too long ago we had a serious problem with an oil pipeline leaking approximately a million gallons into the Kalamazoo River. My concern is what would have happened had this pipeline been crossing the Detroit River, the St. Clair River, or some of the waters in the Great Lakes? If a pipeline were to leak oil into one of these rivers, it would flow into St. Clair down the Detroit River, past my district into Lake Erie. All the way the spill would affect vast private areas and State and Federal lands of Michigan, possibly Ohio, Canada, and the rest of the Great Lakes basin. Now, Mr. Kyles, this question to you. Your company operates pipelines across the St. Clair and Detroit Rivers. If you were to build a new liquefied petroleum gas pipeline under either of these rivers and this bill were in effect, would a Federal NEPA review for that pipeline be required? Please answer yes or no.

Mr. KYLES. Yes, it would be required but——

Mr. DINGELL. NEPA would be required if this bill were in effect?

Mr. KYLES [continuing]. Not according to this bill.

Mr. GREEN. You mentioned that the expansion of international power lines would support the development of clean non- emitting energy sources, including projects located in the United States. Can you elaborate further on how U.S. renewable projects benefit from the construction of transmission connections with Canada and why is cross-border infrastructure essential in maximizing North American clean energy potential?

Mr. BURPEE. Within Canada, there is a large amount of large hydro storage. There is a lot of wind being developed in both Canada and the U.S. The marriage of large hydro for storage and wind is ideal. Anything that is non-dispatchable or intermittent needs some form of storage. The cheapest, most efficient form of storage is large storage hydro, so they fit. As the systems evolve and we move away from carbon,

Mr. BLACKBURN. Yes, the environmental review process is critically important to landowners and other citizens throughout the pipeline routes. It, for example, allows them to understand something about economics for pipelines, which are critical to the national interest and allows them to understand the impacts to their own particular properties and the ways that those impacts can be limited. If we are going to ask landowners to take a bullet for the country, they should at least know that the pipeline is needed and what can be done to limit the harm.

JEFF C. WRIGHT, Director, Office of Energy Projects, Federal Energy Regulatory Commission.  

The Commission is responsible under the Natural Gas Act for authorizing the construction and operation of interstate natural gas pipeline and storage projects and for the construction and operation of facilities necessary to permit either the import or export of natural gas. The Commission conducts both a non-environmental and an environmental review of the proposed facilities. The environmental review, pursuant to the National Environmental Policy Act of 1969, or NEPA, is carried out with the cooperation of numerous Federal, State, and local agencies, and with the input of other interested parties.

Section 3(b)(1) of the bill states that the Commission shall approve a project within 120 days of receipt of a request to construct and operate border facilities unless the project is not in the national security interests of the United States, and that under proposed Section 3(b)(3), approval will not be a major Federal action under NEPA. This would differ substantially from the Natural Gas Act in that the proposed Act does not make any provision for procedures such as public notice, public comment, issuance of an order supporting a Commission decision, rehearing, or judicial review in conjunction with the Commission’s consideration of an application. A 120-day deadline would not permit construction of an adequate record, enable important agency consultation, or allow for meaningful public interaction in arriving at a decision. The proposed language could be read as giving the Commission no discretion in the issuance of an authorization unless there are national security concerns.

The Commission, by statute, is the lead agency in the approval of interstate pipeline facilities in the U.S. and at its borders. However, depending upon the location of the proposed facilities, there are other Federal statutes that are administered by Federal and State agencies that require authorizations prior to the Commission’s approval. Even if the Commission issues conditional approval, construction cannot begin until the other Federal authorizations are issued.

Further, border facilities, when considered on their own, do not usually constitute a major project. Nevertheless, a finding of no significant environmental impact still requires the Commission staff to conduct a NEPA analysis to be able to make such a conclusion. In addition, many border facilities require Commission-jurisdictional upstream pipeline facilities to be constructed.

Typically, Greenfield pipeline construction requires an environmental impact statement since there will be significant environmental disturbance. Under NEPA, an agency is charged with reviewing the cumulative impacts of a project. The related upstream facilities cannot be considered apart from the related border facilities. Separate consideration would invite charges of project segmentation and could result in a court reversal of a Commission decision. Therefore, the proposed 120-day approval process would hinder the ability of the Commission to consider stakeholder concerns and prevent the Commission from conducting a thorough analysis of a project involving border facilities, resulting in a decision whose sustainability is questionable.

DAVID K. MEARS, Commissioner, Department of Environmental Conservation, Vermont  

We do have concerns, however, about this legislation which takes a piece of the approval process for international transboundary projects and breaks it out of the traditional process that we have had and removes the environmental review under the National Environmental Policy Act. Our concerns are specific to this specific project that is under consideration in Vermont but also more broadly with the concept in general. The specific project in Vermont that we are concerned about is a pipeline that currently runs from Portland, Maine, to Montreal transporting light sweet crude for the most part. And the proposal that is actively under consideration is if it ends up being that Montreal becomes the Locust point for the transmission of tar sands oil, that that oil will in turn be transmitted through the pipeline, the pipeline would be reversed and transmitted from Montreal through Vermont to Portland. The pipeline is decades old. It has not experienced this type of crude oil in the past, which presents greater risks to the environment. The pipeline flows through an area of pristine and natural beauty in the area. It flows past drinking water supplies, over water supplies, wetlands, State parks, et cetera. Vermont is a State that is critically dependent upon its tourism, recreation-based economy for its economic livelihood. And so our concerns are that if this project is exempted from review, that those kinds of considerations, whether or not the pipeline needs to be upgraded or additional considerations around how to ensure safety will not be given proper consideration. Also, our concern relates to the exemption of this project from the NEPA environmental impact statement requirements, which provide for the opportunity for public involvement and participate in. That is a critical aspect for Vermonters. We have a strong tradition of participatory democracy. It is critical to us that our citizens and communities have the chance to fully understand what the risks and impacts are both to their communities in terms of the direct impacts of the pipeline but also the broader impacts of an international transboundary pipeline such as this one that has implications in terms of climate change and the broader energy markets.

We acknowledge and I agree with many of the concerns raised today with the existing process for transmission projects particularly in the oil pipeline context, but simply exempting them from the environmental review and placing a time constraint on to the Federal agencies that are involved in limiting the scope of their review will not achieve the purposes of achieving, as Mr. Mills has suggested we all would like to see, a more robust, efficient North American energy system. I think we all share that goal. I think we can do it in our current system of environmental laws without exempting transboundary projects such as this one, the pipeline reversal that I was referring earlier, from an environment to review.

Paul Blackburn and I have represented landowners threatened with condemnation by TransCanada and citizens concerned about oil spills and climate change resulting from proposed Keystone XL pipeline. I also plan to represent citizens of Minnesota on the Alberta Clipper pipeline expansion, which would probably be directly affected by this legislation. Various citizens of Minnesota might think about this. I would say that the citizens have a stake here and their rights and freedoms must be respected. One hundred and twenty days is simply not long enough, simply not long enough to allow citizens to be involved in these particular decisions, and this needs to be looked at in a broader context. The government offers pipelines a really sweet deal. First off, they get to condemn thousands of parcels of private property and property owners like the farmers and ranchers that I represent in South Dakota take this very personally. Also, once the pipeline is built, FERC guarantees the pipeline company profits forever as long as that pipeline operates, regardless of how much or how little it is used.

In contrast, landowners and citizens get a raw deal because they receive little benefit and shoulder many adverse financial and economic impacts.

As I noted, the Alberta Clipper pipeline is currently pending and it is critically important to recognize that the crude oil pipeline regulation process is radically different from the process for natural gas pipelines and for electric transmission lines. You know, applying this law to all three of them the same way doesn’t make a lot of sense. FERC does an extensive amount of review in natural gas pipelines, as the prior witness talked about, and the Department of Energy does a great deal, as well as all the regional transmission system coordinators do a lot of work for the transmission line planning. In contrast, the crude oil pipeline regulatory process is kind of the Wild West.

Congress should not allow crude oil pipelines to be built until a need for those pipelines is proven. Most regulative utilities have to do this before they get their tariffs guaranteed. This is a real problem, as shown by 2010 FERC petition filed by Suncor, one of the largest tar sands producers. Suncor argued that Enbridge should not have started construction of the Alberta Clipper pipeline because it was not needed and may never be needed, something that the public doesn’t know. Suncor stated—and I will cut to the quote—by the time the Alberta Clipper is finished, Suncor argued ‘‘shippers will have paid Enbridge hundreds of millions of dollars before they reach the point, if ever, where the operational benefits the Alberta Clipper justify their cost.’’

These kinds of economic issues are the kinds of things that the Federal Government should look at, and yet in 120 days it is something not possible to look at this economic analysis. The kind of analysis done in Canada by the National Energy Board and the kind of analysis done at States for need is critically important to determine if citizens are really protected. One hundred and twenty days is not enough. I would say that the Congress should really try to amend this entire system and make it rational for citizens so that we aren’t just simply building pipelines without a clear understanding of why and whether they are really in the citizens’ economic interests.

 

Posted in Oil & Gas, U.S. Congress Energy Independence | Tagged , | Comments Off on It’s official – the U.S. is energy independent! House Hearing 2013

House hearing on achieving North American energy independence

House 112-176. September 13, 2012. The American energy initiative part 28: A focus on the outlook for Achieving North American energy independence within the decade. House of Representatives. 167 pages.

Proclaimers of energy independence:

  1. Ed Whitfield, Kentucky
  2. Fred Upton, Michigan
  3. Joe Barton, Texas
  4. Mr. Harold Hamm, Chairman and CEO of Continental Resources and energy policy advisor to Governor Romney
  5. Daniel Ahn, Chief Commodities Economist at Citigroup in New York
  6. John Freeman, Energy Research Group at Raymond James
  7. Mark P. Mills, Senior Fellow, Manhattan Institute
  8. Steve Scalise, Louisiana

ED WHITFIELD, KENTUCKY. Today we are going to talk about what I consider some very good news, and that is the achievability of North American energy independence and particularly oil independence within the span of a mere decade.

So after many decades of hearing that the United States basically reached the end of its reserve, as a matter of fact, as recently as 2010 President Obama stated in a national address that we are running out of places to drill, and he still cites the outdated and misleading claim that we possess only 2 percent of the world’s oil reserves. But this pessimistic view is being blown away by reality.

The global implications are tremendous because the one thing that has not changed is the instability in the Middle East and the hostility of several major oil-producing nations towards the United States. However, the more oil that is produced in the United States and Canada, the less leverage OPEC or any of its individual member nations can exert over us. And now we have the chance to reduce that leverage virtually to zero with North American oil independence.

The geopolitical benefits alone are enough to make this goal worthwhile, and the economic benefits are simply icing on the cake. North American energy independence would bring with it hundreds of thousands, if not millions, of new jobs in a rejuvenated energy industry. Indeed, it would succeed where unfortunately our stimulus package failed, and rather than cost over $800 billion, it would actually add revenues to the Federal Treasury. And when you compare the real oil-industry jobs already being created in States like North Dakota, and as you know, in North Dakota right now, the unemployment rate is less than 3 percent, and all the experts agree that that primarily comes from the fact of the new oil fields that have been hit there, the jobs that are being created. And not only can we talk about oil but we also could talk about independence in natural gas because of the tremendous finds that we are finding.

Today, we are going to talk about some very good news – the achievability of North American energy independence, and particularly oil independence, within the span of a mere decade. However, in order for this potential good news to become reality, the federal government has to take certain steps to allow it to happen. I might add that it was not long ago that we were repeatedly told that we would have to live with declining U.S. and North American oil production.

Even more troubling is the fact that the president has blocked access to many energy-rich federal lands and offshore areas. Indeed, the increase in American oil production is especially impressive given that we have done it with one hand tied behind our back. According to the Congressional Research Service, fully 96% of the increase since 2007 has occurred on non-federal lands, where the Obama administration doesn’t have the power to block leasing or impose permitting delays. But on federally controlled lands and offshore areas, production has actually declined by two percent.

BOBBY L. RUSH, ILLINOIS. Unlike the simplistic Sarah Palin ‘‘Drill, baby, drill’’ Romney-Ryan energy plan, President Obama has put forward a comprehensive energy policy that encompasses concrete proposals to not only make us less reliant on imported oil from overseas but which also takes into account the serious issue of climate change. While my Republican colleagues are loathe to even mention the words ‘‘climate change’’ and have claimed it to be a hoax, I can assure you, Mr. Chairman, that most of the farmers across this Nation will disagree with that position as we have witnessed the worst year of record temperatures, drought and crop loss in modern American history.

FRED UPTON, MICHIGAN.   The advances in drilling technology that we will hear about today have accomplished more for the American people than all of the Solyndras and other federal stimulus giveaways combined. They have already rewritten the conventional wisdom that America’s natural gas production is declining, and are now doing the same for domestic oil production. In fact, predictions of dwindling North American oil supplies have been replaced with very realistic predictions of North American oil independence within a decade.

JOE BARTON, TEXAS. We have a possibility to be energy independent almost at any time we want to be in the next 10 to 15 years.

HENRY A. WAXMAN, CALIFORNIA.   Today’s hearing presents two different visions of an energy policy for America.

One vision doubles down on the energy policies of the past. Its mantras are ‘‘drill, baby, drill’’ and tax breaks for the oil industry. The other vision recognizes that energy is key to America’s economy, national security and environment. It supports a mix of energy sources to provide American consumers with affordable, clean energy. The choice is all of the above or oil above all, and the answer will affect the lives of every American.

Not so long ago, we actually implemented an energy plan written by and for the oil industry. In 2001, President Bush and Vice President Cheney unveiled the Bush administration’s energy plan, written in secret with oil, coal and other energy-industry interests.

So in 2005, I examined what had happened to energy prices and dependence on foreign oil under the Bush energy policy since 2001, using data and analysis from the EIA. Under the Bush-Cheney oil industry energy plan, gasoline prices more than doubled. Crude oil prices more than doubled. The average American family spent $2,000 more each year on energy costs. And the oil companies reaped record profits. This energy plan did not benefit America’s families. It did not boost our economy or improve our national security, and it certainly did not clean up pollution or address the threat of climate change.

Today we are discussing another Republican energy plan that was drafted with industry, especially the oil industry. And it is a backwards-looking plan that resurrects the Bush-Cheney policies. It calls for more tax breaks for oil companies, opening new areas to drilling, and putting the States in charge of issuing drilling permits on Federal lands.

The Obama administration’s energy policy is fundamentally different. President Obama hasn’t just promised to reduce our dependence on foreign oil; he has actually done it. For the first time in decades, we are importing less than half the oil we consume. His administration’s new motor vehicle standards will save more than 2 million barrels of oil per day. And U.S. domestic oil and natural gas production has reached record highs. Perhaps most important, the Obama administration has also made investing in clean energy technologies a national priority.

GENE GREEN, TEXAS. I think it is misleading to debate our energy independence based on geology, technological or economically achievable in the absence of other constraints. There are always external factors that affect the level of production.

Mr. Harold Hamm, Chairman and CEO of Continental Resources and energy policy advisor to Governor Romney. I’m here today to talk to you about the viability of American energy independence. I am here to testify to the policies needed to insure North American Energy Independence in the next decade. There are three basic policies needed to continue the march towards North American energy independence.

  1. Reasonable and consistent environmental regulations
  2. Encouraging development of federal lands
  3. Maintain tax policies that let us keep our own money to drill.

America is endowed with an estimated 139.6 billion barrels of recoverable oil-enough to replace Persian Gulf imports for the next 50 years. We also have undiscovered technically recoverable natural gas of 1445.3 trillion cubic feet.

We now have natural gas reserves of over a century.

With this extraordinary advance in technology we can now access the immobile oil

The tax provisions in place for over 50 years that let us keep our own money to reinvest in drilling are crucial to keep this energy revival going. We support comprehensive tax reform. When that process begins we should all be willing to make the case as to why provisions in the code are beneficial to all Americans. We will make the case that the repeal of these tax provisions would result in as much as a 40% decrease in drilling activity and stop this American energy renaissance.

Some call this expensing of ordinary business expense a “subsidy”.

Sixty-Two Percent of the known Oil Resources on Federal lands Are Off-limits. Based on resource estimates, these lands contain about 62 percent of the oil on federal land (19.0 billion barrels) and 41 percent of the natural gas (94.5 trillion cubic feet).

Daniel Ahn, Chief Commodities Economist at Citigroup in New York. Earlier this year, my colleagues and I published a report entitled ‘‘Energy 2020: North America, the New Middle East,’’ and I would like to take the opportunity to share and update its conclusions. North America has recently become the fastest-growing hydrocarbon producer and exporter in the world, and this trend should accelerate to the end of the decade. This energy renaissance has been driven by both declining domestic consumption and the successful deployment of new technologies to extract hitherto inaccessible oil and gas resources, particularly in tight and shale rock formations using horizontal drilling and hydraulic fracturing techniques. These two trends, declining demand and burgeoning supply, should have dramatic consequences for national energy security and for the domestic and global economy.

American dependence on imported oil outside of North America should shrink or even be eliminated entirely.

Global oil prices could fall by 15 or even 20 percent. Energy-intensive manufacturing industries such as petroleum refining, petrochemicals, fertilizers, iron, steel, aluminum smelting, all should strategically benefit. Natural-gas-fueled vehicles could proliferate on American roads. Distinguished committee members, a minor industrial revolution is in the making in our heartland. This is testament to the technical ingenuity and flexibility of American workers and enterprises and the bounty of our natural resources.

The United States was once the world’s largest oil producer for much of the 20th Century, after Russian production collapsed during the Revolution of 1917. The United States maintained this status for half a century, notably providing the oil necessary to fuel the critical Allied war effort throughout the two World Wars. However, faced with aging fields, American production peaked in 1970 and subsequently declined despite new production from Alaska. Increasing reliance upon imported oil proved a critical economic vulnerability during the oil shocks of the 1970s, fueling a painful period of economic malaise and high inflation. But 2007 proved a turning point, with record-high oil prices above $100 per barrel triggering two transformative factors that proved the “peak oil” pundits wrong again.

The United States and North America more broadly, is in the throes of a historic energy revolution, driven by two factors: declining consumption and growing production. Gasoline and other refined petroleum consumption in the US have been in decline since 2007, in part due to cyclical economic weakness but also structural factors. This structural trend is expected to continue due to demographic shifts, higher vehicle efficiency standards, and other energy efficiency savings. Meanwhile, North American production of hydrocarbon liquids and gas has skyrocketed. Most notably, new production from unconventional sources such as tight and shale rock formations have been made possible thanks to the deployment of hydraulic fracturing and horizontal drilling technologies. Given the confluence of declining consumption and growing production, and what is geologically, technologically, and economically feasible, we project that North America can potentially achieve energy independence (i.e. oil/gas net self-sufficiency) by 2020.

John Freeman, Energy Research Group at Raymond James.

America is already a major exporter of coal, and together with Canada, we are already self-sufficient when it comes to natural gas, and for the first time in over 50 years, there is clear visibility on how oil independence can be achieved.

Many of the themes I am going to describe today are sustainable trends driven by the private sector, and they can continue for a long time, even without additional policy steps.

The Nation’s all-time peak for petroleum imports was in 2005 at 13.5 million barrels a day. By 2011, imports were down to 9.7 million barrels a day. That reduction in imports was almost evenly balanced between rising domestic production and declining consumption, and we believe imports can disappear entirely by as early as 2020.

The nation’s oil demand began to fall well before the onset of the financial crisis in 2008. Between 1992 and 2005, demand was up every single year except one. Since 2005, demand has fallen every year except one. There are four long-term drivers, and in our view will result in a sustained decline in U.S. oil demand. The first driver is ongoing improvement in fuel economy. Between 2006 and 2011, the increase in average fuel economy of actual passenger car sales improved more in absolute terms than it had in the 15 years combined prior to that. Second, there is an ongoing decline in vehicle miles traveled. The use of public transport, greater reliance on Internet commerce, the fact that the number of automobiles per household peaked in 2007, due in part to demographics, are just some of the factors driving this trend.

In conclusion, America is blessed with an abundance of natural resources. We are the largest producer of natural gas in the world, the second largest producer of coal, and in the next several years will become the largest oil producer in the world. The future has never been brighter for achieving energy independence.

Summary of Testimony – John Freeman, Energy Research Group, Raymond James & Associates, Inc. Supply: • U.S. can become energy independent by 2020 • Before the end of this decade the U.S. will become the largest oil producer in the world • Three areas (Bakken, Eagle Ford, Permian) will drive 80% of the production growth

Daniel J. Weiss, a Senior Fellow at the Center for American Progress Action Fund, a tax exempt organization dedicated to improving the lives of Americans by transforming progressive values and ideas into policy. The question posed for this hearing is “A Focus on the Outlook for Achieving North American Energy Independence Within the Decade.”

Giving states the authority to allow drilling in National Park Service units and other public lands within their borders tempts them to seek oil revenues rather than safeguard health and natural resources. The New York Times noted “States, as a rule, tend to be interested mainly in resource development.” Yesterday the Center for American Progress released data highlighting 30 National Park units that face the prospect of future oil and gas drilling, including the Flight 93 Memorial and Everglades National Park. These places would be vulnerable if federal oversight of energy on public lands is eliminated in favor of more relaxed state regulations.

Parks with possible drilling

  •    San Antonio Missions National Historical Park — Texas
  •    Guadalupe Mountains National Park — Texas
  •    Palo Alto Battlefield National Historical Park — Texas
  •    Bluestone National Scenic River — West Virginia
  •    Cane River Creole National Historical Park — Louisiana
  •    Carlsbad Caverns National Park — New Mexico
  •    Chaco Culture National Historical Park — New Mexico
  •    Dinosaur National Monument — Colorado, Utah
  •    Everglades National Park — Florida
  •    Flight 93 National Memorial — Pennsylvania
  •    Fort Necessity National Battlefield — Pennsylvania
  •    Fort Union Trading Post National Historic Site — North Dakota, Montana
  •    Friendship Hill National Historic Site — Pennsylvania
  •    Glen Canyon National Recreation Area — Arizona, Utah
  •    Grand Teton National Park — Wyoming
  •    Great Sand Dunes National Park and Preserve — Colorado
  •    Gulf Islands National Seashore — Florida, Mississippi
  •    Hopewell Culture National Historical Park — Ohio
  •    Indiana Dunes National Lakeshore — Indiana
  •    Johnstown Flood National Memorial — Pennsylvania
  •    Jean Lafitte National Historical Park and Preserve — Louisiana
  •    Little River Canyon National Preserve — Alabama
  •    Mammoth Cave National Park — Kentucky
  •    Mesa Verde National Park — Colorado
  •    Nicodemus National Historic Site — Kansas
  •    Santa Monica Mountains National Recreation Area — California
  •    Steamtown — Pennsylvania
  •    Upper Delaware Scenic and Recreational River — New York, Pennsylvania
  •    Theodore Roosevelt National Park — North Dakota
  •    Washita Battlefield National Historic Site — Oklahoma

Parks with current drilling

  •    Alibates Flint Quarries National Monument — Texas
  •    Big Thicket National Preserve — Texas
  •    Lake Meredith National Recreation Area — Texas
  •    Padre Island National Seashore — Texas
  •    Aztec Ruins National Monument — New Mexico
  •    Big Cypress National Preserve — Florida
  •    Big South Fork National River & Recreation Area — Tennessee, Kentucky
  •    Cumberland Gap National Historical Park — Kentucky
  •    Cuyahoga Valley National Park — Ohio
  •    Gauley River National Recreation Area — West Virginia
  •    New River Gorge National River — West Virginia
  •    Obed Wild & Scenic River — Tennessee

Earlier this week the Washington Post reported that drought and rising temperatures are forcing water managers across the country to scramble for ways to produce the same amount of power from the hydroelectric grid with less water, including from behemoths such as the Hoover Dam. Hydropower is not the only part of the nation’s energy system that appears increasingly vulnerable to the impact of climate change, as low water levels affect coal-fired and nuclear power plants’ operations and impede the passage of coal barges along the Mississippi River. Drought conditions can also interfere with the hydraulic fracking employed to produce shale gas. Citi GPS found that Fracking is a water-intensive process. The EPA estimates that 1.2 to 3.5 million gallons of water is used to frack a well. Water is the very component in hydraulic fracking that makes the current shale gas and oil boom possible by creating fractures in the oil and gas-bearing shale gas rock thousands of feet below ground. Some of the largest tight oil and shale gas fields are in Texas plagued by drought in 2011 and 2012. NOAA predicts that the nationwide drought conditions will remain mostly unchanged through the end of November.

Giving states control of resource development on federal lands is a real threat to some of America’s most special places for hunting, fishing, hiking, and recreation. They could permit controversial projects near national parks such as uranium mining around the Grand Canyon, oil and gas drilling near Arches National Park in Utah, and coal mining 10 miles from that state’s picturesque Bryce Canyon National Park.

Oil companies not using federal leases

Despite their demand to open fragile, previously protected places for oil and gas production, oil and gas companies are not developing many of the leases that they already hold. A huge portion of leases held for public lands and waters lack exploration or development plans according to Department of Interior data. The department found that 56 percent of the leased acres onshore in the lower 48 states are not in production or exploration. The percentage is even larger offshore, where 72 percent of leased acres are dormant. This simply means that big oil companies currently hold the keys to vast amounts of publicly owned resources but have chosen not to develop them right now. As of the end of fiscal year 2011, there were more than 38 million onshore acres under lease, but the industry was only actively producing on just more than 12 million acres. The story holds true down the line, given that as of the end of fiscal year 2011, the industry was holding more than 7,000 authorized permits to drill with parcels that were unexplored or undeveloped. Idle leases in the Gulf of Mexico contain large amounts of oil. The tracts that are not producing oil or subject to pending or approved exploration and development plans are estimated to contain 17.9 billion barrels of “undiscovered technically recoverable resources” oil and 49.7 trillion cubic feet of UTRR natural gas. According to the same report from the Department of Interior, “More than 70% of the tens of millions of offshore acres under lease are inactive.” This includes almost 24 million acres that do not have “approved exploration or development plans” in the Gulf of Mexico. This area has an estimated 11.6 billion barrels of oil and 50 trillion cubic feet of natural gas.

the Energy Information Administration said a rapid increase in natural gas production from shale resources over the last 5 years has significantly affected natural gas prices and the relative attractiveness of Federal and Indian lands as areas for development of conventional natural gas resources.

As the price of natural gas dropped, there was a dramatic decline in the amount of public land nominated by the industry for leasing. Since fiscal year 2006 there has been nearly a 67% decline in the amount of onshore public land nominated by the industry in the Rocky Mountain States. As one industry expert told The Wall Street Journal, “It is safe to say that there will be fewer natural gas wells drilled in 2012.”

Given the current low price of natural gas, there is simply less demand from industry to drill at all, let alone on public lands. In addition, the oil and gas industry has been less focused on public lands and waters, since many of the best resources are currently located on private land. And oil companies drill where the best resources are.

John Purcell, Vice President of Wind Energy for Leeco Steel. Leeco Steel first began delivering steel plates and fabricated plate products to the wind industry in 2004. Revenue from the wind industry now accounts for nearly 40 percent of our company’s revenues. Leeco Steel has provided over 500,000 tons of steel plates to 12 tower manufacturing facilities in 12 States across the United States,

Mark P. Mills, Senior Fellow, Manhattan Institute. The United States is the largest single supplier of grains, accounting for about 40 percent of global exports. We enjoy the associated trade, jobs, and revenue benefits that come from being the world’s breadbasket. Technology is now doing for the American energy and fuel sectors what it previously did for the agricultural sector. In a complete reversal of the widely accepted energy paradigms of declining domestic hydrocarbon production, dependence, and shortage, it is now realistic for America not just to feed the world, but to fuel it as well. Last year the United States exported almost $140 billion in agricultural goods – and about $120 billion in hydrocarbons. Within a year or so, we will likely export more fuel and petroleum products than food. Shortly after that, hydrocarbon exports will exceed those from information technology equipment, and then quickly exceed automotive sector exports. This is only the beginning of what is possible. Policies that accelerate hydrocarbon production could create at least 3 million jobs and $3 to $7 trillion worth of economic benefits, and would completely reset energy geopolitics. I have outlined the staggering magnitude of the jobs and economic benefits in a Manhattan Institute report this past summer titled Unleashing the Energy Colossus, work that expands on similar bullish analyses from organizations like Citi bank, Wood McKenzie, HIS CERA, Deloitte, and industry insiders like Bentek Energy.

The United States can, quite literally, drill, dig, build, and ship its way out of the current economic and jobs malaise. The new reality of hydro carbon abundance makes possible not only energy independence, but also a credible scenario in which the Middle East is displaced as the world’s primary energy exporter.

Hydrocarbons currently supply 85% of the world’s energy and every forecast sees them as central for the foreseeable future. Essentially all growth in global energy demand is now outside of the United States.

When asked what constrains expansion, businesses across the country universally cite the crushing weight of the existing regulatory system. Policies and regulations have evolved unintentionally to become complex, over-reaching, and often capricious. Regulations are suppressing American energy productivity.

Peter Howard, President and CEO Canadian Energy Research Institute.

Western Canada:

  • Conventional light Crude 562,000 bbls/day
  • Condensate (C5+) 128,000 bbls/day • Conventional Heavy Crude 422,000 bbls/day
  • Upgraded Bitumen (SCO) 846,000 bbls/day
  • Non-Upgraded Bitumen 759,000 bbls/day

From Eastern Canada:

  • Conventional light Crude 272,000 bbls/day Total 2,989,000 bbls/day

In 2011 Canada’s average daily exports were 2,138,000 bbls per day with 98% of those volumes going to the United States.

CONVENTIONAL Oil AND Oil SANDS

Canada’s conventional oil production (light and heavy) peaked in the mid-70s at 2,200,000 bbls/day and has been on a steady decline since that point in time until recently. In 2010/2011 the year over year production rate increased. The reason: applying horizontal drilling technology to old oil fields to access bypassed oil and increase the recoverable oil percentage. During those years the number of oil directed wells increased from 1,647 wells in 2008 to 3,109 in 2010 and 4,339 in 2011 with horizontal wells accounting for 60% of the total. CERrs conventional oil model is forecasting a conservative increase in conventional oil of 200,000 bbls/day by 2015 and an optimistic increase of 300,000 bbls/day.

Oil sands currently produce, on average, 1,618,000 bbls/day (2011) with 60% sourced from mining operations and 40% from in situ operations. Production ramp-ups and debottlenecking efforts over the next 2 years will expand production to 2,200,000. By 2013, an additional 408,000 bbls/day is scheduled to be connected from projects that are currently under construction and due on stream prior to 2015. Additional volumes of 1,300,000 bbls/day have been approved by the regulator and are awaiting start of construction. Also, there is another 1,300,000 bbls/day from projects that are waiting for approval by the regulator and a further 1,000,000 bbls/day from projects that have been announced. Total potential from the oil sands is 5,300,000 bbls/

The current capacity of the export pipelines from the WCSB from an operational point of view is 3,450,000 bbls/day.

 

Mr. POMPEO. Mr. Hamm, it wasn’t very long ago that there was peak oil, we are about out of the stuff. All of American energy policy really for the last 25, 30 years under both parties was premised on that notion. Any validity to the fact that you are wrong, that what we have heard from these economists today is wrong and that we do have this challenge in front of us in the near term?

Mr. HAMM. There are several believers in peak oil. I wasn’t in that group. You know, there are still some people, I guess, that maybe are talking about peak oil. But, you know, frankly it is supply and development and we are seeing so many other oil plays across the United States today that, you know, it is almost too many to quantify at this time. But the big ones that we have, of course the Bakken and Eagle Ford, and that is adding so much supply here in the United States, plus natural-gas production across the United States brings a lot of liquid with it as well.

Mr. MILLS. If I might just briefly add on your question about peak oil because it is a very interesting one, the abundance of oil production and natural gas in the United States is not a consequence of us suddenly discovering that there is oil or gas here. We didn’t find a new planet or a country; we got new technology. And what is interesting with the technology aspect of this is, technology unleashes the resources, not finding the resources per se, and it is an indicator of what the future holds, the idea whether this is a peak or not. We can look at patents as sort of a forward-looking indicator of what is emerging. So we did some research and looked at the last 5 years the numbers of patents issued in non-hydrocarbons, about 60,000. The number of patents issued in the same 5 years in the hydrocarbon fields is 150,000. So this is a permanent shift in the technological revolution.

Steve Scalise, Louisiana. I think a lot of us have been pushing to get North America energy independence within a decade. It is clearly a goal that we can achieve, but it is also clearly a goal that can’t be achieved under the current policies of President Obama,

 

 

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Dennis Coyne predicts world coal production peak in 2025-2030

See Coyne’s article at:

Dennis Coyne. March 11, 2016. Coal Shock Model. peakoilbarrel.com

[ The IPCC has not invited geologists to estimate fossil reserves, and sides with the “no limits to growth” economists.  The IPCC believes that too expensive or technologically unavailable energy resources will be exponentially available in the future out to 2100 because of magical thinking, not geology, because homo sapiens are so clever we can do anything, regardless of the laws of physics, and that if enough money is printed, anything is possible. 

But if peak oil, peak coal, peak natural gas, and peak electricity have already happened or will soon, then IPCC  projections are far too high, and we ought to be more concerned with reducing our use of fossil fuels, especially oil (the master resource), rather than greenhouse gas emissions.  After all, reducing the use of fuel reduces greenhouse gases. Oh well, we are about to use less fossil fuels regardless, especially once the master resource, oil, declines, since it makes all other resources available via transportation (and specialized mining, agricultural, construction, and other trucks).  Energy efficiency is not a solution, we need to actually reduce the amount of fossil fuels used every year to stay under the depletion curve.  It isn’t clear whether or not our economic system could handle that, since it is based on endless growth. 

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

 

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Limits to Growth is on schedule. Collapse likely around 2020

Alice Friedemann   www.energyskeptic.com  author of “When Trucks Stop Running: Energy and the Future of Transportation”, 2015, Springer and “Crunch! Whole Grain Artisan Chips and Crackers”. Podcasts: Practical Prepping, KunstlerCast 253, KunstlerCast278, Peak Prosperity , XX2 report ]

 

Climate scientists and others have in the past few years issued a steady stream of analyses showing that without immediate remedial actions, a disastrous future is headed our way. But is it a four-decade-old study that will prove prescient?

That study, issued in the 1972 book The Limits to Growth, forecast that industrial output would decline early in the 21st century, followed quickly by a rise in death rates due to reduced provision of services and food that would lead to a dramatic decline in world population. To be specific, per capita industrial output was forecast to decline “precipitously” starting in about 2015.

Well, here we are. Despite years of stagnation following the worst economic crash since the Great Depression, things have not gotten that bad. At least not yet. Although the original authors of The Limits to Growth, led by Donella Meadows, caution against tying their predictions too tightly to a specific year, the actual trends of the past four decades are not far off from the what was predicted by the study’s models. A recent paper examining the original 1972 study goes so far as to say that the study’s predictions are well on course to being borne out.

That research paper, prepared by a University of Melbourne scientist, Graham Turner, is unambiguously titled “Is Global Collapse Imminent?” As you might guess from the title, Dr. Turner is not terribly optimistic.

He is merely the latest researcher to sound alarm bells. Just last month, a revised paper by 19 climate scientists led by James Hansen demonstrates that continued greenhouse-gas emissions will lead to a sea-level rise of several meters in as few as 50 years, increasingly powerful storms and rapid cooling in Europe. Two other recent papers calculate that humanity has already committed itself to a six-meter rise in sea level and a separate group of 18 scientists demonstrated in their study that Earth is crossing multiple points of no return. All the while, governments cling to the idea that “green capitalism” will magically pull humanity out of the frying pan.

Four decades of ‘business as usual’

At least global warming is acknowledged today, even if the world’s governments prescriptions thus far are woefully inadequate. In 1972, the message of The Limits to Growth was far from welcome and widely ridiculed. Adjusting parameters to test various possibilities, the authors ran a dozen scenarios in a global model of the environment and economy, and found that “overshoot and collapse” was inevitable with continued “business as usual”; that is, without significant changes to economic activity. Needless to say, such changes have not occurred.

In the “business as usual” model, the capital needed to extract harder-to-reach resources becomes sufficiently high that other needs for investment are starved at the same time that resources begin to become depleted. Industrial output would begin to decline about 2015, but pollution would continue to increase and fewer inputs would be available for agriculture, resulting in declining food production. Coupled with declines in services such as health and education due to insufficient capital, the death rate begins to rise in 2020 and world population declines at a rate of about half a billion per decade from 2030. According to Dr. Turner:

“The World3 model simulated a stock of non-renewable as well as renewable resources. The function of renewable resources in World3, such as agricultural land and the trees, could erode as a result of economic activity, but they could also recover their function if deliberate action was taken or harmful activity reduced. The rate of recovery relative to rates of degradation affects when thresholds or limits are exceeded as well as the magnitude of any potential collapse.”

The World3 computer model simulated interactions within and between population, industrial capital, pollution, agricultural systems and non-renewable resources, set up to capture positive and negative feedback loops. Dr. Turner writes that changing parameters merely delays collapse. The current boom in fracking natural gas and the extraction of petroleum products from tar sands weren’t anticipated in the 1970s, but the expansion of new technologies to exploit resources pushes back the collapse “one to two decades” but “when it occurs the speed of decline is even greater.”

Turner collapse chartSo how much stock should we put in a study more than 40 years old? Dr. Turner asserts that actual environmental, economic and population measurements in the intervening years “aligns strongly” to what the Limits to Growth model expected from its “business as usual” run. He writes:

“[T]he observed industrial output per capita illustrates a slowing rate of growth that is consistent with the [business as usual scenario] reaching a peak. In this scenario, the industrial output per capita begins a substantial reversal and decline at about 2015. Observed food per capita is broadly in keeping with the [Limits to Growth business as usual scenario], with food supply increasing only marginally faster than population. Literacy rates show a saturating growth trend, while electricity generation per capita … grows more rapidly and in better agreement with the [Limits to Growth] model.”

Peak oil and difficult economics

Rising energy costs following global peak oil will make much of the remaining stock uneconomical to exploit. This is a critical forcing point in the collapse scenario. And as more energy is required to extract resources that are more difficult to exploit, the net energy from production continues to fall. John Michael Greer, a writer on peak oil, observes that, just as it takes more energy to produce a steel product than it did a century ago due to the lower quality of iron ore today, more energy is required to produce energy today.

Net energy from oil production has vastly shrunken over the years, Mr. Greer writes:

“[T]the sort of shallow wells that built the US oil industry has a net energy of anything up to 200 to 1: in other words, less than a quart out of each 42-gallon barrel of oil goes to paying off the energy cost of extraction, and the rest is pure profit. … As you slide down the grades of hydrocarbon goo, though, that pleasant equation gets replaced by figures considerably less genial. Your average barrel of oil from a conventional US oilfield today has a net energy around 30 to 1. … The surge of new petroleum that hit the oil market just in time to help drive the current crash of oil prices, though, didn’t come from 30-to-1 conventional oil wells. … What produced the surge this time was a mix of tar sands and hydrofractured shales, which are a very, very long way down the goo curve. …

“The real difficulty with the goo you get from tar sands and hydrofractured shales is that you have to put a lot more energy into getting each [barrel of oil equivalent] of energy out of the ground and into usable condition than you do with conventional crude oil. The exact figures are a matter of dispute, and factoring in every energy input is a fiendishly difficult process, but it’s certainly much less than 30 to 1—and credible estimates put the net energy of tar sands and hydrofractured shales well down into single digits. Now ask yourself this: where is the energy that has to be put into the extraction process coming from? The answer, of course, is that it’s coming out of the same global energy supply to which tar sands and hydrofractured shales are supposedly contributing.”

It is that declining energy availability and greater expense that is the tipping point, Dr. Turner argues:

“Contemporary research into the energy required to extract and supply a unit of energy from oil shows that the inputs have increased by almost an order of magnitude. It does not matter how big the resource stock is if it cannot be extracted fast enough or other scarce inputs needed elsewhere in the economy are consumed in the extraction. Oil and gas optimists note that extracting unconventional fuels is only economic above an oil price somewhere in the vicinity of US$70 per barrel. They readily acknowledge that the age of cheap oil is over, without apparently realising that expensive fuels are a sign of constraints on extraction rates and inputs needed. It is these constraints which lead to the collapse in the [Limits to Growth] modelling of the [business as usual] scenario.”

New oil is dirty oil

The current plunge in oil and gas prices will not be permanent. Speculation on why Saudi Arabia, by far the world’s biggest oil exporter, continues to furiously pump out oil as fast as it can despite the collapse in pricing frequently centers on speculation that the Saudis’ pumping costs are lower than elsewhere and thus can sustain low prices while driving out competitors who must operate in the red at such prices.

If this scenario pans out, a shortage of oil will eventually materialize, driving the price up again. But the difficult economics will not have disappeared; all the easy sources of petroleum have long since been tapped. And the sources for the recent boom — tar sands and fracking — are heavy contributors to global warming, another looming danger. The case for catastrophic climate disruption due to global warming is far better understood today than it was in 1972 — and we are already experiencing its effects.

Dr. Turner, noting with understatement that these gigantic global problems “have been met with considerable resistance from powerful societal forces,” concludes:

“A challenging lesson from the [Limits to Growth] scenarios is that global environmental issues are typically intertwined and should not be treated as isolated problems. Another lesson is the importance of taking pre-emptive action well ahead of problems becoming entrenched. Regrettably, the alignment of data trends with the [Limits to Growth] dynamics indicates that the early stages of collapse could occur within a decade, or might even be underway. This suggests, from a rational risk-based perspective, that we have squandered the past decades, and that preparing for a collapsing global system could be even more important than trying to avoid collapse.”

Sobering indeed. Left unsaid (and, as always, there is no criticism intended in noting a research paper not going outside its parameters) is why so little has been done to head off a looming global catastrophe. Free of constraints, it is not difficult to quantify those “powerful societal forces” as the biggest industrialists and financiers in the world capitalist system. As long as we have an economic system that allows private capital to accumulate without limit on a finite planet, and externalize the costs, in a system that requires endless growth, there is no real prospect of making the drastic changes necessary to head off a very painful future.

Just because a study was conducted decades in the past does not mean we can’t learn from it, even with a measure of skepticism toward peak-oil fast-collapse scenarios. If we reach still further back in time, Rosa Luxemburg’s words haunt us still: Socialism or barbarism.

Pete Dolack writes the Systemic Disorder blog and has been an activist with several groups. His book, It’s Not Over: Learning From the Socialist Experiment, is available from Zero Books.

Posted in 2) Overshoot, Limits To Growth, Scientists | Tagged , , | Comments Off on Limits to Growth is on schedule. Collapse likely around 2020

Millions of hours of magnetic tape will be lost forever

[ Sarah Everts writes about the race to save magnetic tape in the August 21, 2014 issue of NewScientist in Wiped out: The race to save our video heritage. This article suggests that the fix is to convert magnetic tape to digital.  But digital will not last for centuries, and also suffers from the possibility of media that no longer have devices to play them, especially in the future when the electric grid isn’t always up and the consequent inability to make today’s computer chips is lost (also from lack of rare earth metals, etc).  I’ve paraphrased and put in excerpts of this article below.  Alice Friedemann  www.energyskeptic.com ]

What’s at stake

Whether recordings of people speaking near-extinct languages, video documentation of earthquakes in action, footage of Nobel laureates in their labs or defining moments in sport and culture, a goodly portion of recent human memory is encoded on thin strips of black ribbon. The Co-ordinating Council of Audiovisual Archives Associations has recently estimated that worldwide some 200 million hours of culturally valuable audiovisual content is in danger of disappearing entirely if it isn’t converted into a preservable digital format.

Richard Wright, a former technology manager of the BBC archives estimates 70% of content on magnetic tape will be lost within a decade due to slow rates of converting them to digital media.

Magnetic tape begins to degrade chemically in anything from a few years to a few decades, depending on its precise composition.  Often it’s not only the tapes degrading, but also the technical know-how to play them at all, or the machines to play the dizzying 60 plus formats of magnetic tape invented since 1956.  Tapes vary from a quarter of an inch to two inches wide, have differing real and cassette dimensions, and specific playback equipment for each one. Magnetic tapes are made in dozens of ways as well, and manufacturers won’t disclose how their tapes were made even though they’re obsolete now, making it hard for researchers to understand why they’re degrading.

The problem: Magnetic tape suffers from fading magnetism over time and “sticky shed”

The structural base of most magnetic tape is a thick layer of polyester, although in older audio tape it can be acetate, paper or polyvinyl chloride. Whatever the base, information is encoded in a thin coating of magnetic particles embedded in a polyurethane-based binder. In the earliest tapes, these particles were made of iron oxide. Other magnetic particles have since come on the scene. Barium ferrite is less rust-prone and has a smaller particle size, allowing information to be encoded more densely. Chromium dioxide is ideal when a recording has a lot of high-frequency sound.

The range of frequency and volume that a tape can record, and the ease of recording and re-recording, are determined by the size of the particles, their range in size, and their orientation on the tape. Various lubricants make the tape flow smoothly through the player, plasticisers make it supple, and antifungal agents and antioxidants extend its life. There are also other ingredients whose identities are proprietary, says Eric Breitung, a conservation scientist at the US Library of Congress in Washington DC.

A common problem magnetic tape suffers from is “sticky shed”, which occurs when the polyurethane binder that holds magnetic particles on the tape begins to break down and leach out – when stored in humid conditions, for example. Even if the recording remains playable, the tapes can easily get stuck or ripped in machines. The fix is baking them to dry out moisture and restabilize the polyurethane by heating them to  50 °C from hours to weeks.

 

Posted in Preservation of Knowledge | 1 Comment

E. O. Wilson to save humanity from extinction, get rid of religion

[ Below is an excerpt, out of order, from New Scientist’s 21 Jan 2015 interview with E.O. Wilson “Religious faith is dragging us down“. The extinctions we cause will kill us too, says the sociobiology pioneer – the best thing would be to eliminate religions]

Why is biodiversity loss suicidal for humans?

The major theme of my upcoming book will be that we are destroying Earth in a way that people haven’t appreciated enough, and that we are eroding away the biosphere through species extinction, like the death of a thousand cuts.

I want to examine the new ideology of the anthropocene – namely those who believe that the fight for biodiversity is pretty much lost and we should just go on humanizing Earth until it is peopled from pole to pole; a planet by, of and for humanity. It sounds good, but it’s suicidal.

The biosphere is an extremely complex system, and razor thin: if you look at it from the side, from orbit, you can’t even see it with unaided vision. That’s where we live, and that’s what produced us, plastered on the surface of our planet. We were not just created separately in some manner and then lowered into the biosphere. Everything about us – our minds, our bodies – is conditioned to exist in those exact conditions created by our biosphere.

The beautiful equilibrium of the living world is a result of all the species, plants, animals and microorganisms around us. As it is eroded away, the living world is almost certainly going to reach a tipping point where its equilibrium is going to decay and unravel. And when that happens, the whole thing collapses – and we collapse with it.

JG: Why does our species seem to ignore scientific warnings about Earth’s future?

WILSON: I think primarily it’s our tribal structure. All the ideologies and religions have their own answers for the big questions, but these are usually bound as a dogma to some kind of tribe. Religions in particular feature supernatural elements that other tribes – other faiths – cannot accept. In the US, for example, if you’re going to succeed in politics, it’s a prerequisite to declare you have a faith, even if some of these faiths are rather bizarre. And what they’re saying is “I have a tribe”. And every tribe, no matter how generous, benign, loving and charitable, nonetheless looks down on all other tribes. What’s dragging us down is religious faith.

The important thing is that it appears that humans, as a species, share a religious impulse. You can call it theological, you can call it spiritual, but humans everywhere have a strong tendency to wonder about whether they’re being looked over by a god or not. Practically every person ponders whether they’re going to have another life. These are the things that unite humanity.

[Our built-in] transcendent searching has been hijacked by the tribal religions. So I would say that for the sake of human progress, the best thing we could possibly do would be to diminish, to the point of eliminating, religious faiths. But certainly not eliminating the natural yearnings of our species or the asking of these great questions.

The question I most want answered now is whether or not there’s life on other planets. I’ve just got to know!

Jason Grow (JG): Your new book, The Meaning of Human Existence, addresses a huge question. What inspired you to tackle it?
Wilson: I think it’s time to be audacious. The central questions of religion and philosophy are three in number: where do we come from, what are we and where are we going? We now have a pretty good picture of how humanity arose in Africa, what intermediate forms existed, the rate at which these forms evolved and the circumstances in which they evolved. So of those three great questions, we have most of the answer for where we come from. And in this book I take up the question: what are we? We’re starting to close in on that one. We need to know where we came from and what we are to have the self-understanding to sensibly plan where we’re going.

JG:  So will you examine humanity’s future next?

Wilson: I’m writing a trilogy. The first was The Social Conquest of Earth, which dealt with where we come from. The Meaning of Human Existence deals with what we are. And the final part, The End of the Anthropocene, will look at where we are going.

[ Religion is the main reason birth control and abortion are illegal or hard to get. Obviously one child per woman would be the most humane solution to declining energy and natural resources (see posts on population). Overpopulation has led to massive pollution of land, air, and water, the destruction of (rain)forests, biodiversity, fisheries, topsoil, clean water, and every other problem facing us.

What little control women have had over their lives and fates during this brief age of oil is likely to vanish after civilization collapses and  energy slaves are replaced with human slaves. Although many Hindu, Muslim, and other conservative religious women aren’t considered “slaves”, they often have no control over who they marry, family planning, careers, ability to travel, the chance to become educated.  Which is damn close to being slavery.  Getting rid of religion will never happen, we’re hardwired for it, and consequently the Biblical phrase “Be fruitful and multiply, and fill the earth, and subdue it; and rule over the fish of the sea and over the birds of the sky and over every living thing that moves on the earth” has the potential to drive us and most other species extinct.    Alice Friedemann   www.energyskeptic.com  ]

Posted in Biodiversity Loss, Extinction, Scientists Warnings to Humanity, World's Best Scientists | Tagged , , , | 3 Comments

Corrosion eats $552 billion of infrastructure a year (6% of GDP)

Preface. United States infrastructure was built when the EROI of oil was very high and minerals and metals were cheap due to high ore concentrations. This study was done in 2002, since then, things have gotten much worse (see ASCE 2013 Infrastructure report card). ASCE estimates the bill to fix corrosion is now $3.6 trillion.

Globalization was made possible by really large ships that can be up to 80 times more energy efficient than trucks, and carry up to 90% of internationally traded goods. Yet these behemoths last only 29 years on average before they’re scrapped, and double-hulls have made super-rust possible, accelerating corrosion.

Alice Friedemann   www.energyskeptic.com  author of  “Life After Fossil Fuels: A Reality Check on Alternative Energy”, 2021, Springer; “When Trucks Stop Running: Energy and the Future of Transportation”, 2015, Springer; Barriers to Making Algal Biofuels, and “Crunch! Whole Grain Artisan Chips and Crackers”. Podcasts: Collapse Chronicles, Derrick Jensen, Practical Prepping, KunstlerCast 253, KunstlerCast278, Peak Prosperity , XX2 report

***

USDOT. March 2002. Corrosion cost and preventive strategies in the United States. U.S. Department of transportation, Federal highway administration. 784 pages.

NACE. Corrosion costs and preventive strategies in the United States.

cost of corrosion per economic sector in $ billions

cost of corrosion per economic sector in $ billions

Cost of corrosion in industry categories

Summary of Total Cost

The cost of corrosion was estimated for the individual economic sectors. The total cost due to the impact of corrosion was $137.9 billion per year. Since not all economic sectors were examined, the sum of the estimated costs does not represent the total cost of corrosion to the entire U.S. economy. By estimating the percentage of U.S. GDP of the sectors for which corrosion costs were not determined and extrapolating the cost numbers to the entire U.S. economy, a total cost of corrosion of $276 billion was estimated. This is approximately 3.1 percent of the nation’s GDP. The indirect corrosion costs (i.e., the costs incurred by other than owners and operators as a result of corrosion) are conservatively estimated to be equal to the direct cost; giving a total direct plus indirect cost of $552 billion (6 percent of the GDP). Evidence of the large indirect corrosion costs are: (1) lost productivity because of outages, delays, failures, and litigation; (2) taxes and overhead on the cost of corrosion portion of goods and services; and (3) indirect costs of non-owner/operator activities.

Infrastructure

cost of corrosion infrastructure

The U.S. infrastructure and transportation system allows for a high level of mobility and freight activity for the nearly 270 million residents and 7 million business establishments. In 1997, more than 230 million motor vehicles, ships, airplanes, and railroad cars were used on 6.4 million km (4 million mi) of highways, railroads, and waterways connecting all parts of the United States. The transportation infrastructure also includes more than 800,000 km (approximately 500,000 mi) of oil and gas transmission pipelines, 8.5 million tanks for hazardous materials storage, and 18,000 public and private airports. The annual direct cost of corrosion in the infrastructure category is estimated at $22.6 billion.

Highway Bridges: Based on the National Bridge Inventory Database, there are 586,000 bridges in the United States, half built between 1950 and 1994. Of this total, 435,000 bridges are made from steel and conventional reinforced concrete, 108,000 bridges are constructed using pre-stressed concrete, and the balance is made using other materials of construction. Approximately 15 percent of the bridges are structurally deficient, primarily due to corrosion of steel and steel reinforcement. The dollar impact of corrosion on highway bridges is considerable. The annual direct cost of corrosion for highway bridges is estimated to be $8.3 billion, consisting of $3.8 billion for the annual cost to replace structurally deficient bridges over the next 10 years, $2.0 billion for maintenance and cost of capital for concrete bridge decks, $2.0 billion for maintenance and cost of capital for concrete substructures (minus decks), and $0.5 billion for maintenance painting of steel bridges. Life-cycle analysis estimates indirect costs to the user due to traffic delays and lost productivity at more than 10 times the direct cost of corrosion.

Conventional Reinforced-Concrete Bridges. The primary cause of reinforced-concrete bridge deterioration is chloride-induced corrosion of the black steel reinforcement, resulting in expansion forces in the concrete that produce cracking and spalling of the concrete. The chloride comes from either marine exposure or the use of deicing salts for snow and ice removal. Because the use of deicing salts is likely to continue, if not increase, little can be done to prevent bridge structures from being exposed to corrosive chloride salts.

The expected service life of a newly constructed bridge is typically 75 years and up to 120 years for stainless steel rebar construction.

Steel Bridges. The primary cause of corrosion of steel bridges is the exposure of the steel to atmospheric conditions. This corrosion is greatly enhanced due to marine (salt spray) exposures and industrial environments. The only corrosion prevention method for these structures is to provide a barrier coating (paint).

Gas and Liquid Transmission Pipelines: There are more than (328,000 mi) of natural gas transmission and gathering pipelines, (74,000 mi) of crude oil transmission and gathering pipelines, and (82,000 mi) of hazardous liquid transmission pipelines. For all natural gas pipeline companies, the total investment in 1998 was $63.1 billion, from which a total revenue of $13.6 billion was generated. For liquid pipeline companies, the investment was $30.2 billion, from which a revenue of $6.9 billion was generated. At an estimated replacement cost of ($1,117,000 per mi), the asset replacement value of the transmission pipeline system in the United States is $541 billion; therefore a significant investment is at risk with corrosion being the primary factor in controlling the life of the asset. The average annual corrosion-related cost is estimated at $7.0 billion, which can be divided into the cost of capital (38 percent), operation and maintenance (52, percent), and failures (10 percent). With a range of corrosion O&M cost of $3,100 to $6,200 per krn ($5,000 to $10,000 per mi), the total corrosion O&M cost ranges from $2.42 billion to $4.84 billion.

If corrosion is allowed to progress unchecked, the integrity of the pipeline will eventually be compromised. Depending on the flaw size, the pipeline material properties, and the pressure, either a leak will form or a rupture will occur. Typically, a rupture of a high-pressure natural gas pipeline results in a sufficient release of stored energy to blow the pipeline out of the ground. An annual direct cost of corrosion-related accidents for both gas and liquid pipelines is estimated to range from $471 million to $875 million.

A liquid (non-compressible) pipeline has less stored energy than a natural gas pipeline; therefore. a rupture does not immediately result in a major explosion. However, once leaked out into the environment, a major explosion can occur upon ignition of an explosive liquid product. For a hazardous liquid product pipeline, the environmental impact can be as significant as the risk of an explosion. The risk of an oil leak from the TransAlaskan pipeline, for example, has continued to be the primary driver for the aggressive corrosion prevention and inspection program maintained by the operator. Of major concern is the risk of product leakage into surface waters, thereby, contaminating water supplies.

Corrosion of the pipe wall can occur either internally or externally. Internal corrosion occurs when corrosive liquids or condensates are transported through the pipelines. Depending on the nature of the corrosive liquid and the transport velocity, different forms of corrosion may occur, including uniform corrosion, pitting/crevice corrosion, and erosion-corrosion. Figure 3 shows an example of internal corrosion that occurred in a crude oil pipeline due to high levels of saltwater and carbon dioxide (CO2).

There are several different modes of external corrosion identified on buried pipelines. The primary mode of corrosion is a macro-cell form of localized corrosion due to the heterogeneous nature of soils, local damage of the external coatings (holidays), and/or the disbandment of external coatings. Figure 4 shows typical external corrosion on a buried pipeline. The 25-mm-(1 -in-) grid pattern was placed on the pipe surface to permit sizing of the corrosion and nondestructive evaluation (NDE) wall thickness measurements.

Stray Current Corrosion. Corrosion can be accelerated through ground currents from dc sources. Electrified railroads, mining operations, and other similar industries that utilize large amounts of dc current sometimes allow a significant portion of current to use a ground path return to their power sources. These currents often utilize metallic structures (pipelines) in close proximity as a part of the return path. This “stray” current can be picked up by the pipeline and discharged back into the soil at some distance down the pipeline close to the current return. Current pick-up on the pipe is the same process as cathodic protection, which tends to mitigate corrosion. The process of current discharge off the pipe and through the soil of a dc current accelerates corrosion of the pipe wall at the discharge point. This type of corrosion is called stray current corrosion.

Microbiologically Influenced Corrosion (MIC). Microbiologically influenced corrosion (MIC) is defined as corrosion that is influenced by the presence and activities of microorganisms, including bacteria and fungi. It has been estimated that 20 to 30 percent of all corrosion on pipelines is MIC-related. MIC can affect either the external or the internal surfaces of a pipeline. Microorganisms located at the metal surface do not directly attack the metal or cause a unique form of corrosion. The byproducts from the organisms promote several forms of corrosion, including pitting, crevice corrosion, and under-deposit corrosion. Typically, the products of a growing microbiological colony accelerate the corrosion process by either: (1) interacting with the corrosion products to prevent natural film-forming characteristics of the corrosion products that would inhibit firther corrosion, or (2) providing an additional reduction reaction that accelerates the corrosion process. A variety of bacteria have been implicated in exacerbating corrosion of underground pipelines and these fall into the broad classifications of aerobic and anaerobic bacteria. Obligate aerobic bacteria can only survive in the presence of oxygen, while obligate anaerobic bacteria can only survive in its absence. A third classification is facultative aerobic bacteria that prefer aerobic conditions, but can live under anaerobic conditions. Common obligate anaerobic bacteria implicated in corrosion include sulfate reducing bacteria (SRB) and metal-reducing bacteria. Common obligate aerobic bacteria include metal-oxidizing bacteria, while acid-producing bacteria are facultative aerobes. The most aggressive attacks generally take place in the presence of microbial communities that contain a variety of types of bacteria. In these communities, the bacteria act cooperatively to produce conditions favorable to the growth of each species. For example, obligate anaerobic bacteria can thrive in aerobic environments when they are present beneath biofilms/deposits in which aerobic bacteria consume the oxygen. In the case of underground pipelines, the most aggressive attack has been associated with acid-producing bacteria in such bacterial communities

Stress Corrosion Cracking. A particularly detrimental form of pipeline corrosion is known as stress corrosion cracking (SCC). SCC is defined as the brittle fracture of a normally ductile metal by the conjoint action of a specific corrosive environment and a tensile stress. On underground pipelines, SCC affects only the external surface of the pipe, which is exposed to soil and groundwater at locations where the coating is disbonded. The primary component of the tensile stress on an underground pipeline is in the hoop direction and results from the operating pressure. Residual stresses from fabrication, installation, and damage in service contribute to the total stress. Individual cracks initiate in the longitudinal direction on the outside surface of the pipe. The cracks typically occur in colonies that may contain hundreds or thousands of individual cracks. Over time, the cracks in the colonies interlink and may cause leaks or ruptures once a critical-size flaw is achieved. Figure 7 shows an SCC hydrostatic test failure on a high-pressure gas pipeline (see later section on hydrostatic testing). The two basic types of SCC on underground pipelines that have been identified are classical or “high pH” cracking (pH 9 to lo), which propagates intergranularly, and “near-neutral pH” cracking, which propagates transgranularly. Each form of SCC initiates and propagates under unique environmental conditions. Near-neutral pH SCC (< pH 8) is most commonly found on pipelines with polyethylene tape coatings that shield the cathodic protection current.(5) The environment that develops beneath the tape coating and causes this form of cracking is dilute carbonic acid. Carbon dioxide from the decay of organic material in the soil dissolves in the electrolyte beneath the disbonded coating to form the carbonic acid solution. High-pH SCC is most commonly found on pipelines with asphalt or coal tar coatings. The high-pH environment is a concentrated carbonate bicarbonate solution that develops as a result of the presence of carbon dioxide in the groundwater and the cathodic protection system.

Fresh Water. Airborne or splash zone attack is normally not a problem at freshwater facilities; however, air pollution can cause potential problems. Under certain flow conditions, such as turbulent flow or cavitation, fresh water can cause severe corrosion to submerged metallic elements. Ice damage also can limit the effectiveness of coatings on bulkhead walls and support piling. Piers and docks, bulkheads and retaining walls, locks. dams, and navigational aids exposed to freshwater environment experience corrosion-related problems. The most common areas of attack include submerged and splash zones on support piles (piers. docks, and navigational aids) and steel sheet piling (bulkheads and retaining walls). These zones are also found on locks (steel gates, hinges. intake’discharge culverts, valves, and sheet pile walls), dams (steel gates, hinges. intakeidischarge culverts. grates, and debris booms). and navigational aids (anchorages).

Hazardous Materials Storage: There are approximately 8.5 million regulated and non-regulated aboveground storage tanks (ASTs) and underground storage tanks (USTs) for hazardous materials (HAZMAT) in the United States. While these tanks represent a large investment, and good maintenance practices would be in the best interest of the owners, federal and state environmental regulators are concerned with the environmental impact of spills from leaking tanks. In 1988, the US. Environmental Protection Agency set a December 1998 deadline for UST owners to comply with the requirement to have corrosion control on all tanks, as well as overfill and spill protection. Thus, tank owners face considerable costs related to clean-up and penalties imposed by the government if they would not be in compliance. It is estimated that the annual cost of corrosion for ASTs is $4.5 billion and for USTs is $2.5 billion per year, resulting in a total annual direct corrosion cost of $7.0 billion.

The largest costs are incurred when leaking USTs must be replaced with new tanks. The soil remediation costs and oil spill clean-up costs are significant as well. In the last 10 years, the most common problem associated with USTs occurred at gasoline service stations that did not have corrosion protection on their USTs.

Utilities

cost of corrosion utilities

Utilities form an essential part of the US, economy by supplying gas, water, electricity, and communication. All utility companies combined spent $42.3 billion on capital goods in 1998, an increase of 9 3 percent from 1997. Of this total, $22.4 billion was used for structures and $19.9 billion was used for equipment. The total annual direct cost of corrosion in the utility category is estimated to be $47.9 billion.

Gas Distribution: The natural gas distribution system includes 1,730,000 miles of relatively small-diameter, low-pressure piping, which is divided into 1,080,000 miles of distribution main and 650,000 miles of services. There are approximately 55 million services in the distribution system. A large percentage of the mains (57 percent) and services (46 percent) are made of steel, cast iron, or copper, which are subject to corrosion. The total annual direct cost of corrosion was estimated at approximately $5.0 billion.

The typical distribution of piping diameters is between 40 mm and 150 mm (1.5 in and 6 in) for main distribution piping and 13 mm to 20 mm (0.5 in to 0.75 in) for service piping. A small percentage of mains and services is larger diameter pipe, typically for commercial and industrial application. Several different materials have been used for distribution piping. Historically, distribution mains were primarily made of carbon steel pipe; however, since the 1970s, a large portion of the gas distribution main lines have been made of plastic, mostly polyethylene (PE), but sometimes polyvinyl chloride (PVC). A large percentage of mains (57 percent) and services (46 percent) are made of metal (steel, cast iron, or copper). The methods for monitoring corrosion on the lines are the same as those used for transmission pipelines; however, leak detection is the most widely used technique.

Drinking Water and Sewer Svstems: According to the American Waterworks Association (AWWA) industry database, there is approximately 876,000 mi of municipal water piping in the United States. This number is not exact, since most water utilities do not have complete records of their piping system. The sewer system consists of approximately 16,400 publicly owned treatment facilities releasing some 155 million m3 41 billion gallons) of wastewater per day (1995). The total annual direct cost of corrosion for the nation’s drinking water and sewer systems was estimated at $36.0 billion. This cost was contributed to by the cost of replacing aging infrastructure. the cost of unaccounted-for water through leaks, the cost of corrosion inhibitors, the cost of internal mortar linings, and the cost of external coatings and cathodic protection.

Americans consume and use approximately 550 L of drinking water per person per day, for a total annual quantity of approximately 56.7 billion m’. The treated drinking water is transported through 1.4 million km of municipal water piping. The water piping is subject to internal and external corrosion. resulting in pipe leaks and water-main breaks. The total cost of corrosion for the drinking water and sewer systems includes the cost of replacing aging infrastructure. the cost of unaccounted-for water, the cost of corrosion inhibitors, the cost of internal cement mortar linings, the cost of external coatings, and the cost of cathodic protection.

In March 2000, the Water Infrastructure Network WIN) estimated the current annual cost for new investments, maintenance, operation, and financing of the national drinking water system at $38.5 billion per year, and of the sewer system at $27.5 billion per year. The total cost of corrosion was estimated from these numbers by assuming that at least 50 percent of the maintenance and operation costs are for replacing aging (corrosion) infrastructure, while the other 50 percent would be for system expansions. This results in an estimated cost of corrosion for drinking water systems of $19.25 billion per year and for sewer systems of $13.75 billion per year. WIN stated that the current spending levels are insuficient to prevent large failure rates in the next 20 years. The WIN report was presented in response to a 1998 study(”) by AWWA and a 1997 study by the EPA. Those studies had already identified the need for major investments to maintain the aging water infrastructure. In addition to the costs for replacing aging infrastructure, there is the cost for unaccounted-for water. One city reported a constant percentage of unaccounted-for water of 20 percent in the last 25 years, with 89 percent of its main breaks directly related to corrosion. Nationally, it is estimated that approximately 15 percent of the treated water is lost. The treatment of water that never reaches the consumer results in inflated prices (national lost water is estimated at $3.0 billion per year) and extra capacity in treatment facilities to produce the lost water. Adding these three major cost items results in a total annual cost of corrosion of $36.0 billion per year for drinking water and sewer systems combined.

Electrical Utilities: The electrical utility industry is a major provider of energy in the United States. The total amount of electricity sold in the United States in 1998 was 3,240 billion GWh at a cost to the consumers of $218 billion. Electricity generation plants can be divided into seven generic types: fossil fuel, nuclear, hydroelectric, cogeneration, geothermal, solar, and wind. The majority of electric power in the United States is generated by fossil and nuclear supply systems. The total annual direct cost of corrosion in the electrical utility industry in 1998 is estimated at $6.9 billion, with the largest amounts for nuclear power at $4.2 billion and fossil fuel at $1.9 billion, and smaller amounts for hydraulic and other power at $0.15 billion, and transmission and distribution at $0.6 billion.

The fossil fuel sector (including gas turbines and combined cycle plants) is the largest, with a generating capacity of approximately 488 GW, and a total generation of 2.2 million GWh in 1998. In 1998, approximately 102 nuclear stations were operational, with a generating capacity of 97.1 GW, and a total generation of 0.67 million GWh.

The total direct cost of corrosion in the electric utility industry in 1998 is estimated at $6.889 billion per year. In comparison, an Electric Power Research Institute (EPRI) study(“‘ estimated the cost of corrosion to the user/consumer to be $17.27 billion per year.

Because of the complex and often corrosive environments in which power plants operate, corrosion has been a serious problem, with a significant impact on the operation of the plants. In the 1970s and the 1980s, major efforts were spent on understanding and controlling corrosion in both nuclear and fossil fuel steam plants, and significant progress was made. However, with the aging of several plants, old problems persist and new ones appear. For example, corrosion continues to be a problem with electrical generators and with turbines. Specifically, stress corrosion cracking in steam generators in PWR plants and boiler tube failures in fossil fuel plants continue to be problems. There are further indications that aging of buried structures, such as service water piping, has started to result in leaks that cannot be tolerated

Telecommunications: The telecommunications infrastructure includes hardware such as electronics, computers, and data transmitters, as well as equipment shelters and the towers used to mount antennas, transmitters, receivers, and television and telephone systems. According to the U.S. Census Bureau, the total value of shipments for communications equipment in 1999 was $84 billion. An important factor for corrosion cost is the additional cost of protecting towers and shelters, such as painting and galvanizing. In addition, corrosion of buried copper grounding beds, as well as galvanic corrosion of the grounded steel structures, contributes to the corrosion cost. For this sector, no corrosion cost was determined because of the lack of information on this rapidly changing industry. Many components are being replaced before physically failing because the technology has become obsolete in a short period of time.

Transportation

cost of corrosion transportation

The transportation category includes vehicles and equipment, such as motor vehicles, aircraft. railroad cars, and hazardous materials transport, that make use of the U.S. highways, waterways, railroads, and airports. The annual cost of corrosion in the transportation category is estimated at $29.7 billion.

Motor Vehicles: U.S. consumers, businesses, and government organizations own more than 200 million registered motor vehicles. Assuming an average value of $5,000, the total investment Americans have made in motor vehicles can be estimated at more than $1 trillion. Since the 1980s, car manufacturers have increased the corrosion resistance of vehicles by using corrosion-resistant materials, employing better manufacturing processes, and by designing corrosion-resistant vehicles. Although significant progress has been made, further improvement can be achieved in the corrosion resistance of individual components, such as fuel and brake systems, and electrical and electronic components. The total annual direct cost of corrosion is estimated at $23.4 billion, which is divided into the following three components: (1) increased manufacturing costs due to corrosion engineering and the use of corrosion-resistant materials ($2.56 billion per year), (2) repairs and maintenance necessitated by corrosion ($6.45 billion per year), and (3) corrosion-related depreciation of vehicles ($14.46 billion per year).

The total cost of corrosion to owners of motor vehicles is estimated at $23.4 billion per year or 79 percent of the Transportation category (see figure 13). This cost is divided into the following three components: (1) increased manufacturing costs due to corrosion engineering and the use of corrosion-resistant materials ($2.56 billion per year), (2) repairs and maintenance necessitated by corrosion ($6.45 billion per year), and (3) corrosion-related depreciation of vehicles ($14.46 billion per year).

Ships: The U.S. flag fleet can be divided into several categories as follows: the Great Lakes with 737 vessels at (62 billion ton-mi), inland with 33,668 vessels at (294 billion ton-mi), ocean with 7,014 vessels at (350 billion ton-mi), recreational with 12.3 million boats, and cruise ship with 122 boats serving North American ports (5.4 million passengers). The total annual direct cost of corrosion to the U.S. shipping industry is estimated at $2.7 billion. This cost is divided into costs associated with new construction ($1.1 billion), with maintenance and repairs ($0.8 billion), and with corrosion-related downtime ($0.8 billion).

Railroads: In 1997, there were nine Class I freight railroads (railroads with operating revenues of more than $256.4 million). These railroads accounted for 71 percent of the industry’s (170,508 mi) of railroad. There were 35 regional railroads (those with operating revenues between $40 million and $256.4 million and/or operating at least 560 km (350 mi) of railroad). The regional railroads operated 34,546 km (21,466 mi) of railroad. Finally, there were 5 13 local railroads operating more than 45,300 km (28,149 mi) of railroad. The elements that are subject to corrosion include metal members, such as rail and steel spikes; however, corrosion damage to railroad components are either limited or go unreported. Hence, a corrosion cost could not be determined.

One area where corrosion has been identified is in electrified rail systems, such as those used for local transit authorities. Stray currents from the electrified systems can inflict significant and costly corrosion on non-railroad-related underground structures such as gas pipelines, waterlines, and underground storage tanks.

Railroad Cars: In 1998, 1.47 million freight cars and 1,962 passenger cars were reported to operate in the United States. Covered hoppers at 28 percent make up the largest portion of the freight-car fleet, with tanker cars making up the second largest portion at 18 percent. The type of commodities transported range from coal (largest volume) to chemicals, motor vehicles, farm products, food products, and metallic and non-metallic ores and minerals. Railroad cars suffer from both external and internal corrosion. It is estimated that the total annual direct cost of corrosion is approximately $0.5 billion, divided over external coatings ($0.25 billion) and internal coatings and linings ($0.25 billion).

It is estimated that the total annual corrosion-related maintenance cost for railroad cars is approximately $504 million ($958 million for external coatings and $246 niillion for internal coatings and liners

The rate of corrosion has to be controlled in order to: ( 1) prolong the service life of the car. (2) prevent contamination of the transported product, such as food products or high-purity chemicals, and (3) prevent hazardous spills that could contaminate the environment and pose a public safety hazard. Protection from internal corrosion is achieved by using organic coating systems or rubber linings. As an alternative. cars for certain corrosive cargo services are manufactured from corrosion-resistant materials, such as aluminum or stainless steel. which raises the price of a car twofold.

Waterways and Ports: In the United States, (25,000 mi) of commercial navigable waterways serve 41 states, including all states east of the Mississippi River. Hundreds of locks facilitate travel along these waterways. In January 1999, 135 of the 276 locks had exceeded their 50-year design life. The oldest operating locks in the United States are Kentucky River Locks 1 and 2. U.S. ports play an important role in connecting waterways, railroads, and highways. The nation’s ports include 1,914 deep-water (seacoast and Great Lakes) and 1,812 along inland waterways. Corrosion is typically found in piers and docks. bulkheads and retraining walls, mooring structures, and navigational aids. There is no formal tracking of corrosion-related costs. The U.S. Army Corps of Engineers estimated annual corrosion-related costs for locks and dams to be approximately $70 million at 5 percent of the O&M budget of $1.4 billion.(39′ Because of the aging of the structures however, high replacement costs are anticipated due, in part, to corrosion. The annual corrosion cost of ports and waterways owned and/or operated by public port authorities is estimated at $182 million.’401 The U.S. Coast Guard maintains navigational aids such as light structures, buoys, and other saltwater and freshwater exposed structures. In 1999, the corrosion-related cost for maintaining these structures was estimated at $4 1 million. The total annual cost of corrosion for waterways and ports is $293 million ($70 million + $1 82 million + $4 1 million). This must be a low estimate since the costs of harbor and other marine structures are not included.

The reinforced-concrete structures exposed to the marine environment suffer premature corrosion-induced deterioration by chlorine ions in seawater. Corrosion is typically found in piers and docks, bulkheads and retaining walls, mooring structures, and navigational aids. The marine environment can have varying effects on different materials depending on the specific zones of exposure. Atmosphere, splash, tide, immersion, and subsoil have very different characteristics and, therefore, have different influences on corrosion. Atmospherically exposed submerged zones and splash zones typically experience the most corrosion. These zones are found on piers and docks (ladders, railings, cranes, and steel support piles), bulkheads and retaining walls (steel sheet piling, steel-reinforced concrete elements, backside, and anchors on structures retaining dredged fill), and mooring structures and dams (steel gates, hinges, intakeidischarge culverts, grates, and debris booms). Stationary navigational aids suffer from corrosion of support piles and steel-reinforced concrete pile caps. Floating steel buoys are subject to corrosion as well.

Aircraft: In 1998, the combined aircraft fleet operated by U.S. airlines was more than 7,000, of which approximately 4,000 were turbojets. The fleet includes the Boeing 707, DC-9, Boeing 727, DC-10, and the earlier versions of the Boeing 737 and 747. At the start of the jet age (1950s to 1960s), little or no attention was paid to corrosion and corrosion control. One of the concerns is the continued aging of the airplanes beyond the 20-year design life. Only the most recent designs (Boeing 777 and late version 737) have incorporated significant improvements in corrosion prevention and control in design and manufacturing. The total annual direct cost of corrosion to the U.S. aircraft industry is estimated at $2.2 billion, which includes the cost of design and manufacturing ($0.2 billion), corrosion maintenance ($1.7 billion), and downtime ($0.3 billion).

The annual (1996) corrosion cost to the U.S. aircraft industry is estimated at $2.225 billion, which includes the cost of design and manufacturing at $0.225 billion, corrosion maintenance at $1.7 billion, and downtime due to corrosion at $0.3 billion (see figure 15). With the availability of new corrosion-resistant materials and an increased awareness of the importance of corrosion to the integrity and operation ofjet aircraft, the current design service life of 20 years has been extended to 40 years without jeopardizing structural integrity and significantly increasing the cost of operation.’

Airports: The United States has the world’s most extensive airport system, which is essential to national transportation and the U.S. economy. According to 1999 Bureau of Transportation Statistics figures, there were 5.324 public-use airports and 13,774 private-use airports in the United States. A typical airport infrastructure is complex. and components that might be subject to corrosion include the natural gas distribution system, jet fuel storage and distribution system, deicing storage and distribution system, vehicle fueling systems, natural gas feeders, dry fire lines, parking garages, and runway lighting. Generally, each of these systems is owned or operated by different organizations or companies; therefore, the impact of corrosion on an airport as a whole is not known or documented. However, the airports do not have any specific corrosion-related problems, that have not been described elsewhere in this report.

Hazardous Materials Transport: According to U.S .Department of transportation, there are approximately 300 million hazardous materials shipments of more than 3.1 billion metric tons annually in the United States. Bulk transportation of hazardous materials includes overland shipping by tanker truck and rail car, and by special containers that are loaded onto vehicles. Over water, ships loaded with specialized containers, tanks, and drums are used. In small quantities, hazardous materials require specially designed packaging for truck and air shipment. The total annual direct cost of corrosion for hazardous materials transport is more than $0.9 billion. The elements of the annual corrosion cost include the cost of transporting vehicles ($0.4 billion per year), the cost of specialized packaging (S0.5 billion per year), and the direct and indirect costs ($0.5 million per year and an unknown value, respectively) of accidental releases and corrosion-related transportation incidents.

The total cost of corrosion for HAZMAT transportation is at least $0.887 billion per year (see figure 17). The elements of this cost include the corrosion-related cost of transport vehicles ($400 million per year), the cost of specialized packaging ($487 million per year), and the direct cost of $0.5 million per year of accidental releases and other corrosion-related transportation incidents. The indirect costs of releases are not known.

Production and Manufacturing

cost of corrosion production and manufacturing

This category includes industries that produce and manufacture products of crucial importance to the U.S. economy and the standard of living in the United States. These include oil production, mining, petroleum refining, chemical and pharmaceutical production, and agricultural and food production. The total annual direct cost of corrosion in this category was estimated to be $17.6 billion.

Oil and Gas Exploration and Production: Domestic oil and gas production can be considered to be a stagnant industry, because most of the significant available onshore oil and gas reserves have been exploited. Oil production in the United States in 1998 consisted of 3.04 billion barrels. The significant recoverable reserves left to be discovered and produced are probably limited to less convenient locations such as in deep water offshore, remote arctic locations, and difficult-to-manage reservoirs with unconsolidated sands. The total annual direct cost of corrosion in the U.S, oil and gas production industry is estimated at $1.4 billion, made up of $0.6 billion for surface piping and facility costs, $0.5 billion in downhole tubing expenses, and $0.3 billion in capital expenditures related to corrosion.

The majority of cost-savings for any oil production facility is in the prevention of failure in one of the production arteries, such as downhole tubing, surface pipelines, and production vessel. Downhole tubing, surface pipelines, pressure vessels, and storage tanks in oil and gas production are subject to internal corrosion by water, which is enhanced by the presence of CO2 and H2S in the gas phase. Internal corrosion control is a major cost item consideration. The total cost of corrosion in the U.S. oil and gas production industry is estimated to be $1.372 billion annually, made up of $589 million for surface piping and facility costs. $463 million in downhole tubing expenses, and $320 million in capital expenditures related to corrosion.

Mining: In the mining industry, corrosion is not considered to be a significant problem. There is a general consensus that the life-limiting factors for mining equipment are wear and mechanical damage rather than corrosion. Maintenance painting, however, is heavily relied upon to prevent corrosion, with an annual estimated expenditure for the coal mining industry of $0.1 billion.

Petroleum Refining: Petroleum is the single largest source of energy for the United States. The nation uses twice as much petroleum as either coal or natural gas. The U.S. refineries represent approximately 23% of the world’s petroleum production, and the United States has the largest refining capacity in the world, with 163 refineries. In 1996, U.S. refineries supplied more than 18 million barrels per day of refined petroleum products. The total annual direct cost of corrosion is estimated at $3.7 billion. Of this total, maintenance-related expenses are estimated at $1.8 billion, vessel turnaround expenses at $1.4 billion, and fouling costs are approximately $0.5 billion annually.

The total annual cost of corrosion for the petroleum refining industry is estimated at $3.692 billion, which is 2 1 percent of the Production and Manufacturing category (see figure 2 1). Of this total, maintenance-related expenses are estimated at $1.767 billion, vessel turnaround expenses at $1.425 billion, and fouling costs are approximately $0.500 billion annually. The costs associated with corrosion control in refineries include both the processing side and water handling. Corrosion-related issues regarding the processing side include the handling of organic acids, referred to as naphthenic corrosion, and sulfur species, particularly at high temperatures, as well as water carryover in processing vessels and pipelines. Water handling includes concerns with corrosives such as H2S, C02, chlorides, and high levels of dissolved solids.

Increasing regulation and pressure from environmental groups have forced the ref neries to implement defensive strategies where little attention is paid to improved corrosion control. This is compounded by overseas market forces, such as OPEC, which control the price of the feedstock oil. In a commodity-driven industry that is struggling to compete in the world market, investment in more effective corrosion control strategies often takes a backseat to across-the-board cost-cutting measures. The majority of pipelines and vessels in refineries are constructed of carbon steel, and opportunities for significant savings exist through the use of low-alloy steels and alloy-clad vessels, particularly as increasingly higher fractions of acidic crude oil are refined.

Chemical, Petrochemical, and Pharmaceutical: The chemical, petrochemical, and pharmaceutical industries play a major role in the U.S. economy by providing a wide range of products. The chemical industry includes those manufacturing facilities that produce bulk or specialty compounds by chemical reactions between organic and/or inorganic materials. The petrochemical industry includes those manufacturing facilities that create substances from raw hydrocarbon materials such as crude oil and natural gas. The pharmaceutical industry formulates, fabricates, and processes medicinal products from raw materials. The total annual direct cost of corrosion for this industry sector is estimated at $1.7 billion per year (8 percent of total capital expenditures). No calculation was made for the indirect costs of production outages or indirect costs related to catastrophic failures. The costs of operation and maintenance related to corrosion were not readily available; estimating these costs would require detailed study of data records of individual companies.

Pulp and Paper: The $165 billion pulp, paper, and allied product industry supplies the United States with approximately 300 kg of paper per person per year. More than 300 pulp mills and more than 550 paper mills support its production. The total annual direct cost of corrosion is estimated at $6.0 billion, with the majority of this cost in the paper and paperboard-making industry, and calculated as a fraction of the maintenance costs. No information was found to estimate the corrosion costs related to the loss of capital.

Agricultural: Agriculture operations are producing livestock, poultry, or other animal specialties and their products, and producing crops, including fruits and greenhouse or nursery products. According to the National Agricultural Statistics Service, there are approximately 1.9 million farms in the United States. Based on a 1997 census, the total value of farm machinery and equipment is approximately $15 billion per year. The two main reasons for replacing machinery or equipment include upgrading old equipment and substituting because of wear and corrosion. Discussions with people in this industrial sector resulted in an estimate of corrosion costs in the range of 5 percent to 10 percent of the value of all new equipment. The total annual direct cost of corrosion in the agricultural production industry is estimated at $1.1 billion.

Food Processing: The food processing industry is one of the largest manufacturing industries in the United States, accounting for approximately 14 percent of the total US, manufacturing output. Sales for food-processing companies totaled $265.5 billion in 1999. Because of quality-of-food requirements, stainless steel is widely used. Assuming that the stainless steel consumption and cost in this industry is entirely attributed to corrosion, a total annual direct cost of corrosion is estimated at 52.1 billion. This cost includes stainless steel usage for beverage production, food machinery, cutlery and utensils, commercial and restaurant equipment, appliances, aluminum cans, and the use of corrosion inhibitors.

Electronics: Corrosion in electronic components manifests itself in several ways. Computers, integrated circuits, and microchips are now an integral part of all technology-intensive industry products, ranging from aerospace and automotive to medical equipment and consumer products, and are therefore exposed to a variety of environmental conditions. Corrosion in electronic components are insidious and cannot be readily detected; therefore, when corrosion failure occurs, it is often dismissed as just a failure and the part or component is replaced. Particularly in the case of consumer electronics, devices would become technologically obsolete long before corrosion-induced failures would occur. However, capital-intensive industries, with significant investment in durable equipment with a considerable number of electronic components, such as the defense industry and the airline industry, tend to keep the equipment for longer periods of time, and corrosion is likely to become an issue. Although the cost of corrosion in the electronics sector could not be estimated, it has been suggested that a significant part of all electronic component failures are caused by corrosion.

Home Appliances The appliance industry is one of the largest consumer product industries. For practical purposes, two categories of appliances are distinguished: “Major Home Appliances” and “Comfort Conditioning Appliances.” In 1999, a total of 70.7 million major home appliances and a total of 49.5 million comfort conditioning appliances were sold in the United States, for a total of 120.2 million appliances. The cost of corrosion in home appliances includes the cost of purchasing replacement appliances because of premature failure due to corrosion. For water heaters alone, the replacement cost was estimated at $460 million per year, using a low estimate of 5 percent of the replacement being corrosion-related. The cost of internal corrosion protection for all appliances includes the use of sacrificial anodes ($780 million per year), corrosion-resistant materials (no cost estimate), and internal coatings (no cost estimate). The cost of external corrosion protection using coatings was estimated at $260 million per year. Therefore, the estimated total annual direct cost of corrosion in home appliances is at least $1.5 billion.

Government. Federal, state, and local governments play important roles in the U.S. economy with a 1998 GDP of approximately $1.1 trillion ($360 billion federal. $745 billion state and local). While the government owns and operates large assets under various departments, the US. Department of Defense (DOD) was selected for analysis because of its significant impact on the U.S. economy. A second government sectors elected is nuclear waste storage under the U.S. Department of Energy (DOE).

Defense: The ability of the DOD to respond rapidly to national security and foreign commitments can be adversely affected by corrosion. Corrosion of military equipment and facilities has been. for many years, a significant and ongoing problem. The corrosion-related problems are becoming more prominent as the acquisition of new equipment is decreasing and a large degree of reliability of aging systems is expected. The data provided by the military services (Army, Air Force, Navy, and Marine Corps) indicate that corrosion is potentially the number one cost driver in life-cycle costs. The total annual direct cost of corrosion incurred by the military services for both systems and infrastructure was estimated at $20 billion.

A considerable portion of the cost of corrosion to the Army is attributed to ground vehicles, including tank systems, fighting vehicle systems, fire support systems, high-mobility multipurpose wheeled vehicles (HMMWV), and light armored vehicles. Other systems that are affected by corrosion include fring platforms and helicopters. Many of the Army systems are well beyond their design service lives and because of generally aggressive operating environments, corrosion is becoming increasingly severe and costly. While often replacement of the aging systems is not budgeted, insufficient use is being made of existing technology to maintain these systems in a cost-effective manner. Even with the procurement of new equipment such as the HMMWV, the use of corrosion-resistant materials and design are often neglected in favor of quantity of procurement and system properties. In recent years, the Air Force has experienced considerable corrosion problems. As with the commercial aircraft industry, corrosion on airframes in the past has not been considered to have a significant impact on structural integrity; therefore, a “find and fix” approach has long been the preferred way to deal with corrosion in aircraft. With no significant hiding available for new system acquisition, the Air Force is forced to extend the operational life of many of the aircraft, such as the KC-135 tanker, far beyond their design service life

Nuclear Waste Storage: Nuclear wastes are generated from spent nuclear fuel, dismantled nuclear weapons, and products such as radio pharmaceuticals. The most important design item for the safe storage of nuclear waste is effective shielding of radiation. Corrosion is not considered a major issue in the transportation of nuclear wastes due to the stringent packaging requirements and the relatively short duration of the transport. However, corrosion is an important issue in the design of the casks used for permanent storage with a design life of several thousand years. A 1998 total life-cycle cost analysis by DOE for the permanent disposal of nuclear waste in Yucca Mountain, Nevada, estimated the total repository cost by the construction phase (2002) at $3.9 billion, with an average annual cost (from 1999 to 21 16) of 920.5 million. Of this cost, S42.2 million is corrosion-related.

NACE has a powerpoint of the 2002 study: http://www.nace.org/Publications/Cost-of-Corrosion-Study/

[ About this report: done from1999 to 2001 by CC Technologies Laboratories, Inc., with support from the FHWA and NACE. Its main activities included determining the cost of corrosion control methods and services, determining the economic impact of corrosion for specific industry sectors, extrapolating individual sector costs to a national total corrosion cost, assessing barriers to effective implementation of optimized corrosion control practices, and developing implementation strategies and cost-saving recommendations. ]

 

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Coal plants are causing water shortages in China

Wong, E. March 22, 2016. Report Ties Coal Plants to Water Shortage in Northern China. New York Times.

China’s consumption of coal, a major contributor to climate change and the country’s horrific air pollution, is worsening a severe water shortage in the northern part of the country, Greenpeace said in a report released Tuesday. China’s coal-fired power plants consume more water where water is scarce than plants in any other country, according to the report, which assessed global water depletion from coal use.

A decades-long drought in northern China — home to the bulk of the country’s coal production and consumption — is worsening, and the central and local governments are grappling with widespread desertification. Officials have relocated millions of people. Beijing, the capital, where more than 20 million people live, has extremely low water levels.

The problem is so severe in the north that China has built an enormous series of canals, the South-North Water Diversion Project, to transport water hundreds of miles from the Yangtze River.

In much of northern China, people are using water faster than it can be regenerated, Greenpeace said, “posing a serious threat to local ecology.”

At the end of 2013, China had 45% of the world’s coal-fired power plants, with a total installed capacity of 804 gigawatts, according to research by Greenpeace and a summary of findings in its 60-page report, “The Great Water Grab.” Nearly half of the plants were in water-scarce areas, and those had a total annual water consumption of 3.4 billion cubic meters, enough to meet the basic needs of about 186 million people, the researchers found.

Across all of China, coal-fired power plants consume 7.4 billion cubic meters of water each year, enough to meet the needs of 406 million people, or about 30% of the nation’s population, according to the report.

Plants proposed for construction would worsen the problem, the report found. Half of those plants, which would have a total installed capacity of 237 gigawatts, would be built in water-scarce areas. They would consume 1.8 billion cubic meters of water, equal to the annual needs of 100 million people, the report said. The plants would cost about $100 billion to build, and they would worsen the country’s huge overcapacity in coal-fired power plants.

After China, the top countries with the highest water consumption by coal-fired plants in water-scarce areas were India, the United States, Kazakhstan and Canada. China also tops the list for proposed coal-fired plants in water-scarce areas, followed by India, Turkey, the United States and Kazakhstan.

The Greenpeace report was based on modeling done by a Dutch engineering firm, Witteveen & Bos. Data on existing and proposed coal-fired power plants at the end of 2013 was drawn mainly from Platts World Electric Power Plants Database.

 

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