Archive for the 'Energy Policy' Category

Science as Politics at Real Climate

Some fun and relief from the hourly gloom feed — Roger Pielke’s recent post illustrates nicely how advocacy blog Real Climate fights to restrict political choice to the Real Climate definition of Politically Correct. Roger begins:

Real Climate is a popular blog that advocates action on climate change. Its authors often uses bullying tactics to enforce a view that their views on science are the sole authoritative basis for judging political action. In turn, here at Prometheus I’ve occasionally used the actions of Real Climate as excellent illustrations of how climate science becomes so politicized and partisan by activist scientists. In this way the skeptics and the activist scientists engage in a dance that requires both to participate to reinforce the belief that science provides the basis for political action. So both have an interest in keeping debate on matters of science, rather than more explicitly on the far more important questions of policy and politics.

Lucky for us, the best example yet of these dynamics can be found in the
post that that Real Climate have put up today on Republican Vice Presidential candidate Sarah Palin. The Real Climate post seeks to elevate the importance of skepticism in the climate debate (yes, you read that right) so that it can knock it down, while at the same time ignoring far more meaningful issues related to climate policy, like whether a cap and trade program has any chance whatsoever of actually succeeding. In this way Real Climate serves to politicize climate science, make climate policy an even more partisan issue, and draw attention away from the policy questions that really matter most. (read on . . .)

More… and recommended:

Take Climate Change Seriously

Oxford professor Steve Rayner is co-author of one of the best recent papers on climate policy Kyoto Wrong Trousers: Radically Rethinking Climate Policy. Steve nails the key policy issues in a short “letter to the president” in the latest Wired:

Mr. President:

The outgoing administration failed to come to grips with climate change out of fear that reducing greenhouse gas emissions would damage the economy. But the decision to deal with climate change doesn’t lend itself to cost-benefit analysis. It is a strategic choice, like the decision to get married. You have an opportunity to define the nation’s character and upgrade its infrastructure — and bold action would be consistent with America’s historical role as a leader in innovation. It would also encourage India and China to participate in the effort. Here are a few points to keep in mind.

Cap and trade won’t work. The market for carbon offsets is widely touted as the best way to curb greenhouse gases. This would be fine if time were unlimited. However, the best available science suggests that we need to stabilize emissions by mid-century. That’s too soon for carbon prices to rise enough to drive the R&D necessary to enable cleaner alternatives to compete with fossil fuels. It doesn’t help that the cap-and-trade approach relies on underdeveloped monitoring and accounting systems that inevitably leave plenty of wiggle room for unscrupulous speculators to work the system, amassing fortunes while achieving nothing for the atmosphere.

New technology is critical.The only plausible way to curb emissions in the next few decades is to accelerate the development and adoption of low-carbon energy sources. Rather than setting targets for greenhouse gases, we should establish goals for installed technology, beginning with the most energy-intensive sectors, like electricity generation, ground transportation, and cement manufacturing. Similarly, international cooperation on emissions reduction should focus on the handful of countries responsible for the lion’s share of the problem. In the US and elsewhere, R&D funding should be directed toward technologies that otherwise might not come online for up to 20 years. This would fill the gap between the turnaround timeline for venture capital (three to five years) and for basic research (beyond 20 years).

Let the market decide. No amount of public investment will succeed if politicians are allowed to pick the winners. The program must be designed to widen the choices available to the market, not to preempt them. There is no silver bullet, but we can develop silver buckshot. The point is to ensure that money flows to a variety of options from which the market can select, not just the one that’s being developed in the district of a powerful member of Congress.

The Big Polluters: Just five countries are responsible for 56 percent of greenhouse gas emissions. Efforts to roll back climate change should focus on these nations.
Mr. President, this strategy is not just about throwing money at the problem. It will be necessary to review a wide range of policies that affect technology development and deployment, including intellectual property, defense procurement, taxation, and performance standards. Moreover, stabilizing the atmosphere does not address the legacy of past emissions. It is equally important to invest in infrastructure that will head off damage from extreme weather events caused by the climate change we’ve already set in motion.

Twice in the past century, the US dragged its feet before confronting threats to our civilization in the form of two world wars. But when it finally committed itself, it shot straight into the leadership position and dealt decisively with the problems. Climate change poses the same sort of challenge — and opportunity — at the beginning of the present century.

Sincerely,
Steve Rayner

Ausra: solar thermal venture raises another $60+ million

It’s good see Ausra securing another round. More smart money following the lead investors Khosla and KPCB. Solar thermal looks very promising — I think the normal engineering improvement cycle will achieve competitive electric generation pricing (i.e., no breakthroughs required as in the case of conventional PV solar):

Palo Alto, CA—October 01, 2008—Ausra, Inc., the provider of large-scale solar thermal energy systems for industrial processes and utility electricity generation, has secured $60.6 million in its latest preferred equity financing. Investors in this closing were led by KERN Partners of Calgary, Alberta, Canada; and also included Generation Investment Management, based in London, England; Starfish Ventures of Melbourne, Australia; and Ausra’s founding investors Khosla Ventures and Kleiner Perkins Caufield & Byers. The investor group committed these funds in support of Ausra’s reliable, cost-competitive technology, seasoned management team and global expansion.

I would be surprised if solar thermal is competitive with where nuclear power is likely to be in ten years, but every no-carbon energy source helps. Of course nuclear power might turn out not to be competitive with nanotech solar. So let’s avoid letting bureaucrats pick the winners.

Why revenue-neutral carbon taxes are superior to “cap and trade” schemes

[This is a revised version of an earlier post - Ed.]

To stabilize carbon emissions we need to choose effective policies that incentive investors and consumers to make low-carbon choices immediately — not twenty years in the future. The most critical investment decisions are those of the power generation utilities — who are rapidly constructing inexpensive coal-fired plants around the world. To stop that impending train wreck the electric utility boards of directors need certainty of the future costs of carbon emissions. I.e., we need to establish a “price on carbon” that produces immediate results.

Fortunately, the requirements for efficient taxation and regulatory policies have been thoroughly studied — we do not need to create new “Bi-partisan Commissions” to recommend structural options. The following summarizes some of the relevant research demonstrating that a revenue-neutral carbon tax scheme if far superior to the politically popular “cap and trade” schemes such as Kyoto or the European “Emissions Trading Scheme” (ETS).

A revenue-neutral carbon tax scheme can be implemented with nearly zero administrative cost — existing tax collection and auditing channels are almost all that is required to implement a new tax schedule. The price mechanism allows each investor to confidently plan for her future cost of emissions. The carbon tax option gives us certainty of future costs, transparency, and low transaction costs associated with the carbon pricing.

The opposite of certain is what we get with the quantity mechanism of cap-and-trade. The investor faces a volatile, uncertain profile of future emissions costs. The ETS experience has demonstrated great volatility. Volatility is the enemy of what we urgently need — that is fast decisions to stop building dirty coal power generation, substituting the larger capital investments required for low- or zero- carbon plants.

The cap and trade scheme creates a new administrative monster that will be impossible to kill off once it gets going. Envision an apparatus ten times bigger than the Dept of Agriculture. Do not forget that cap and trade requires measuring and auditing reported quantities of emissions. Cap and trade will create a rich growth medium for rent seeking — which leads inevitably to corruption.

In “Bootleggers, Baptists, and Global Warming” Bruce Yandle looks at the post-Kyoto negotiations in the light of the “bootleggers and Baptists” theory of regulation. Yandle points out that in the South, Sunday closing laws make it illegal to sell alcohol on Sunday. These laws are maintained by an inadvertent coalition of bootleggers and Baptists. The Baptists (and other religious denominations) provide the public outcry against liquor on Sunday, while the bootleggers (who actually sell liquor on Sunday) quietly persuade legislatures and town councils to maintain the closing laws. In this paper, Yandle explains that something similar is happening with the treaty negotiations over climate change. Baptists are the environmental groups, and bootleggers are the companies, trade associations, and nations that are seeking favors through the global warming negotiations.

In the previous post Life After Kyoto: Alternative Approaches to Global Warming Policies I reviewed the 2005 Nordhaus study of the same name — which I think very compactly demonstrates the real-world advantages of harmonized carbon taxes vs. cap-and-trade.

Non-economists will probably always be uncomfortable with using indirect instruments like prices, just as patients may wonder how little yellow pills can cure their disease. Nonetheless, the fact that prices are more indirect than quantity restraints should not prevent us from recognizing their superior power as a coordinator and motivator for global warming.

For an in-depth exposition of the superiority of the carbon tax strategy, see The Challenge of Global Warming- Economic Models and Environmental Policy by Yale’s William Nordhaus. You can read a clear discussion of the above issues by searching the PDF for this section The Many Advantages of Carbon Taxes [A. Prices versus Quantities for Global Public Goods].

Nordhaus has probably done the best work demonstrating the many efficiencies of price schemes over quantity schemes. As just one example, a key requirement of any scheme is that it be adaptive. In Nature, 8 May 2008: among the 4 letters responding to the Nature PWG commentary is this letter from Richels, Tol and Yohe, which makes the point on the adaptive requirement better than I have [emphasis mine]:

In their Commentary ‘Dangerous assumptions’ (Nature 452, 531-531; 2008), Pielke et al. show that the 2000 Special Report on Emissions Scenarios (SRES) reflects unrealistic progress on both the supply and demand sides of the energy sector. These unduly optimistic baselines cause serious underestimation of the costs of policy-induced mitigation required to achieve a given stabilization level.

This is well known among experts but perhaps not to the public, which may explain why some politicians overstate the impact of their (plans for) climate policy, and why others argue incorrectly that ‘available’ off-the-shelf technologies can reduce emissions at very little or no cost.

The numbers presented by Pielke et al. are revealing, but they divert attention from a more serious problem underlying the SRES approach to calculating mitigation costs:
a failure to incorporate the dynamic nature of the decision problem into climate-policy analysis. Until we can keep adjusting the analysis by continually incorporating uncertainty, correction and learning, we shall continue to offer policy-makers an incomplete guide to decision-making.

The focus of policy analysis
should not be on what to do over the next 100 years, but on what to do today in the face of many important long-term uncertainties. The minute details of any particular scenario for 2100 are then not that important. This can be achieved through an iterative risk management approach in which uncertain long-term goals are used to develop short-term emission targets. As new information arises, emission scenarios, long-term goals and short-term targets are adjusted as necessary. Analyses would be conducted periodically (every 5-10 years), making it easier to distinguish autonomous trends from policy-induced developments — a major concern of Pielke and colleagues. If actual emissions are carefully monitored and analysed, the true efficacy and costs of past policies would be revealed and estimates of the impact of future policy interventions would be less uncertain.

Such an approach would incorporate recent actions by developed and developing countries. In an ‘act then learn’ framework, climate policy is altered in response to how businesses change their behavior in reaction to existing climate policies and in anticipation of future ones. This differs from SRES-like analyses, which ignore the dynamic nature of the decision process and opportunities for mid-course corrections as they compare scenarios without policy with global, century-long plans.

For a recent study of the costly, messy world of trading permits and offsets see the April 2008 working paper [PDF] by reliable sources Michael Wara and David Victor. Excerpt:

This article reviews the actual experience in the world’s largest offset market–the Kyoto Protocol Clean Development Mechanism (CDM)–and finds an urgent need for reform. Well- designed offsets markets can play a role in engaging developing countries and encouraging sound investment in low-cost strategies for controlling emissions. However, in practice, much of the current CDM market does not reflect actual reductions in emissions, and that trend is poised to get worse. Nor are CDM-like offsets likely to be effective cost control mechanisms.

This is excellent work — and compelling results. I hope that all the politicians pushing “son of Kyoto” deals will read it and think carefully about what they are proposing.

Tax and Charade

It is high time we started calling cap and trade what it really is — tax and charade.

Roger Pielke examines the upcoming emissions permits auction for the Regional Greenhouse Gas Initiative (RGGI) of 10 northeastern U.S. states participating in this new cap and trade program.

…The evolving performance of RGGI should add weight to the argument that cap and trade is simply not up to the challenge of reducing greenhouse gas emissions.

Toshiba 4S reactor for Galena Alaska

Here is some background on Toshiba’s offer to install their 4S micro-reactor for Galena Alaska. 4S stands for “Super-Safe, Small & Simple”.

The 4S design is described in the WNA paper “Small Nuclear Power Reactors” — excerpt:

The Super-Safe, Small & Simple - 4S ‘nuclear battery’ system is being developed by Toshiba and CRIEPI in Japan in collaboration with STAR work and Westinghouse in USA. It uses sodium as coolant (with electromagnetic pumps) and has passive safety features, notably negative temperature and void reactivity. The whole unit would be factory-built, transported to site, installed below ground level, and would drive a steam cycle. It is capable of three decades of continuous operation without refuelling. Metallic fuel (169 pins 10mm diameter) is uranium-zirconium enriched to less than 20% or U-Pu-Zr alloy with 24% Pu for the 10 MWe version or 11.5% Pu for the 50 MWe version. Steady power output over the core lifetime is achieved by progressively moving upwards an annular reflector around the slender core (0.68m diameter, 2m high in the 10 MWe version, 1.2m diameter and 2.5m high in the 50 MWe version) at about one millimetre per week. Burnup will be 34,000 MWday/t. After 14 years a neutron absorber at the centre of the core is removed and the reflector repeats its slow movement up the core for 16 more years. Burnup will be 34,000 MWday/t. In the event of power loss the reflector falls to the bottom of the reactor vessel, slowing the reaction, and external air circulation gives decay heat removal. A further safety device is a neutron absorber rod which can drop into the core. After 30 years the fuel would be allowed to cool for a year, then it would be removed and shipped for storage or disposal.

Both 10 MWe and 50 MWe versions of 4S are designed to automatically maintain an outlet coolant temperature of 550
C - suitable for power generation with high temperature electrolytic hydrogen production. Plant cost is projected at US$ 2500/kW and power cost 5-7 cents/kWh for the small unit - very competitive with diesel in many locations. The design has gained considerable support in Alaska and toward the end of 2004 the town of Galena granted initial approval for Toshiba to build a 4S reactor in that remote location. A pre-application NRC review is under way with a view to application for design certification in 2009 and construction and operating licence (COL) application by 2012. Its design is sufficiently similar to PRISM - GE’s modular 150 MWe liquid metal-cooled inherently-safe reactor which went part-way through US NRC approval process for it to have good prospects of licensing. Toshiba plans a worldwide marketing program to sell the units for power generation at remote mines, desalination plants and for making hydrogen. Eventually it expects sales for hydrogen production to outnumber those for power supply.

The L-4S is Pb-Bi cooled version of 4S.

Hyperion Power Generation: 25 MWe nuclear heat source

Invented at the famed Los Alamos National Laboratory, Hyperion small modular power reactors make all the benefits of safe, clean nuclear power available for remote locations. For both industrial and community applications, Hyperion offers reliable energy with no greenhouse gas emissions. Hyperion power is also cheaper than fossil fuels and, when you consider the cost of land and materials, watt to watt, Hyperion’s innovative energy technology is even more affordable than many developing “alternative” energy technologies.

Small enough to be transported on a ship, truck or train, Hyperion power modules are about the size of a “hot tub” — approximately 1.5 meters wide. Out of sight and safe from nefarious threats, Hyperion power modules are buried far underground and guarded by a security detail. Like a power battery, Hyperion modules have no moving parts to wear down, and are delivered factory sealed. They are never opened on site. Even if one were compromised, the material inside would not be appropriate for proliferation purposes. Further, due to the unique, yet proven science upon which this new technology is based, it is impossible for the module to go supercritical, “melt down” or create any type of emergency situation. If opened, the very small amount of fuel that is enclosed would immediately cool. The waste produced after five years of operation is approximately the size of a softball and is a good candidate for fuel recycling.

Perfect for moderately-sized projects, Hyperion produces only 25 MWe — enough to provide electricity for about 20,000 average American sized homes or its industrial equivalent. Ganged or teamed together, the modules can produce even more consistent energy for larger projects.

The Hyperion Power Module produces 25 MWe for five years — the module is then refueled at a Hyperion facility. It is analogous to a nuclear battery. More from the Hyperion site.

Hyperion is backed by venture capital firm Altira — who have an impressive and diverse portfolio in the energy technology sector.

NuScale Power: 45 MWe nuclear heat source

Rod Adams #100 podcast is especially interesting — even exciting when you consider the possibilities of mass manufactured, modular reactors. There are at least two venture-backed companies developing small reactors: NuScale Power and Hyperion Power Generation.

For this podcast Rod interviews CEO Paul Lorenzini and Chief Scientist Jose Reyes about their company’s 45 MWe natural circulation light water reactor. The NuScale reactor is about 1/30th the size of a typical modern light water reactor. Rod summarizes:

…Its advantage is that it produces power with a greatly simplified system that has no valves, pumps or external piping systems. It operates at temperatures and pressures that are familiar in the industry, uses fuel that can be manufactured on the same lines as conventional reactor fuel, and uses conventional pressure vessel technology that is small enough to be produced in a number of qualified factories.

One key feature of this small reactor is that it will be completely assembled in a factory and shipped to the site ready for installation.

The entire reactor assembly is only 60’ x 15’, prefabricated and shipped by rail, truck or barge. There are a number of other important advantages to the NuScale design. E.g., an expandable generation plant can be rapidly constructed from any number of 45 MWe modules. So a plant of say ten modules can then be online refueled one module at a time, temporarily taking offline only 10% of the baseload capacity. Of course, as load grows the operator can just add bite-size modules as required.

An overview of the technology and company is here [PDF]. Not discussed in the interview is how the NuScale economics compare to the large gigawatt size reactors such as the Westinghouse AP1000 — where the operator needs initially, or expands to a 30 module size plant.

More background on both NuScale and Hyperion can be found in this CleanTechnica article, also by Rod Adams — excerpt:

The system grew out of a DOE funded effort at Oregon State University (OSU) (corrected from initial post) called MASLWR (Multi-Application Light Water Reactor) that was developed to enable smaller markets to gain access to the benefits of nuclear fission energy - zero emissions, independence from fossil fuels, greater reliability, and increased levels of technical employment.

After the initial federal research grants ended and OSU published its results in 2003, the University continued funding the research and made continued improvements and refinements to the design. Several patents were filed in November 2007 and the company received its initial round of venture funding in January 2008.

NuScale’s employee roster is full of OSU graduates. It is also teaming with Kiewit a well established architect engineering firm with a history that dates back to before the depression.

NuScale is backed by venture firm CMEA Ventures - whose energy technology portfolio includes advanced battery innovator A123 Systems. So NuScale is in company with the fast horses.

Ten point plan to sustained reemergence of US nuclear power

Jack Spencer’s “top 10 list” is worth a read. Spencer’s list is mostly common knowledge to those who study energy policy, but includes such as “Open doors to legal immigration of skilled labor” — i.e., expand the H1-B visa program. The US in particular is in a world of hurt to meet the demand for nuclear knowhow, due to the three decade shutdown of new nuclear power.

Fells report: UK facing power cuts in 5 years

Let’s put it this way, the current UK energy policy is not fit for purpose — Professor Ian Fells

Security of electricity supply should now top the political agenda, even above climate change. There will be a shortfall in UK power generation of 23GW by 2020, rising to between 30GW and 35GW by 2027. An impending crisis in power generation is now emerging and could lead to a dramatic shortfall as early as 2012 – 2015. This arises from the closure of ageing nuclear and coal-fired stations. —
A Pragmatic Energy Policy for the UK

After a good bit of digging I found the full text of the recently released Fells Associates report here - A Pragmatic Energy Policy for the UK August 2008 [PDF]. It takes a very long time to catch up on electrical generation/distribution once an economy gets behind the demand curve. If Fells is correct, the UK supply problem is more stark — 23GW of nuclear and coal baseload generation will go dark by 2020. Fells concludes that new nuclear power won’t meet the 2020 deadline assuming a 10-year decision to switching online interval. Note: there are several ways to slash new nuclear plant delivery times. Unfortunately none are yet ready to perform in such a short interval as 2020. Arrays of mass-manufactured small nuclear plants looks the most attractive to me, and evidently to venture capitalists — there are at least two startups doing small nukes. Hyperion Power Generation [Santa Fe and Los Alamos, New Mexico — podcast Atomic Show #104] and NuScale Power [Corvallis, Oregon — podcast Atomic Show #100]

In addition, my research implies that there is a global scramble to build new nuclear plants, causing skyrocketing construction cost increases and bottlenecks of key components - such as giant forgings for the pressure vessels.

The report offers an unsurprising mix of stop-gap strategies, mainly building natural gas and coal plants - the latter to be”carbon capture and storage (CCS) ready”, for when the technology becomes proven.

Long term [beyond 2020] the report favors adding to the generation mix large-scale tidal power — the “Severn barrage”. I wonder if this is where the steel interest comes in? The report was commissioned by steel magnate Andrew Cook CBE of William Cook Holdings Limited, Sheffield, UK.

Let’s hope that the UK can avoid the “slow motion train crash” that is derailing the South African economy [which they call “rolling brownouts”] — caused by the government’s deafness to pleas for new plants.

Here’s the Executive Summary from the Fells report:

1.1 Security of energy supply must now be seen as taking priority over everything else, even climate change. UK imports of both gas and oil are accelerating, just as the fragility of supplies from Russia and the Middle East becomes more apparent and the UK heads towards the loss of one third of its generating capacity over the next 12 years. A new energy policy must be scheduled to meet the impending energy gap with an overarching long-term vision that will ensure security of supply, protect the environment, and at the same time, be deemed feasible by the engineers, financiers and utility managers who will have to implement it.

1.2 Current policy is set out in the 2007 White Paper. It supersedes the White Paper of 20032, which had strong elements of wishful thinking, by suggesting that selective renewables, combined with energy efficiency, would satisfy the demand gap without the need to replace the nuclear baseload capacity – an error finally rectified with the January 2008 White Paper on nuclear power.3 Nonetheless, the current 2007 paper is flawed. It misunderstands market prerequisites and technical barriers and is founded on weak energy arithmetic. Yet it is still the platform from which UK energy policy must implement the ambitious political targets of EU policy, in accordance with which 20% of all energy consumption across the EU must be from renewable sources by 2020. The UK commitment is a renewable energy target of 15%. The implications are alarming. We are currently at 1.3%6 – third from bottom in the EU league table with only Luxembourg and Malta below us. This will require a monumental shift in investment and build rate for renewables across all energy sectors. Furthermore, it implies that 40% of electricity will have to come from renewables.7 Currently renewables produce just 4.5%.

1.3 These targets are demonstrably unattainable. In-depth discussions with engineers and utility managers to discover what can actually be done, and the probable consequences of such actions, should have taken place. It might have prevented bizarre pronouncements such as the construction and installation of 7000 offshore wind generators in the North Sea, which would mean installing 10 turbines a day from now to 2020 (utilising the average 60 possible working days per year). This is 10 times the best installation rate achieved anywhere for offshore installation, yet the UK has just one suitable heavy-lifting barge available at the current time. The rush to impose biofuel quotas in motor fuel serves as another example. The full impacts of the rapidly developing biofuels sector with regard to climate change and food supply seem not to have been understood.

1.4 This report addresses the failings that have led to a fundamental undermining of the UK’s security of supply and serves to heighten the sense of urgency about the growing energy gap. Electricity generation in particular is becoming a matter of grave concern.

1.5 The current situation is fragile. Two nuclear stations, Hartlepool and Heysham (a total of 2.4GW) are offline until 2009, and two more, Hunterston and Hinkley, are on reduced output – examples of what to expect from an ageing fleet. The planned decommissioning of nuclear power plant of 7.4GW by 2020 and 9.8GW by 20239(respectively 10% and 13% of current generating capacity) will leave just one plant, Sizewell B, operational. In addition, there is the expected closure of 12GW (15% of current generating capacity) of coal- and oil-fired generating plant by 201610 as a result of the EU Large Combustion Plant Directive (LCPD) of 2008, aimed at reducing emissions. In all a total of 23GW (30% of generating capacity) will need to be replaced by 2020, and from 30GW to 35GW by 2027.11 This is almost entirely base load capacity. Renewables have a role to play, but unrealistic expectations have elevated them above their capabilities. Renewables will not replace base load. The default position is gas, yet our reserves are diminishing to the extent that we will be importing 80% of our gas requirements by 202012, increasing our dependence on supplies from unstable political regimes and volatile markets. Furthermore, this will derail attempts to reduce CO2 emissions, which will continue to rise.

1.6 The ‘market will deliver’ philosophy is wishful thinking. The market cares nothing for the environment. It caters for today’s generation, not tomorrow’s. The market needs the right investment framework and incentives to contemplate long-term projects. The present Government’s vacillation over energy policy, nuclear being the salient example, has severely hindered development. Additionally, procrastination over carbon capture and storage (CCS) is holding back the coal industry from utilising our indigenous supplies. Inconsistent intervention is not helpful either. The renewables market has been distorted through unbalanced support for low-capital renewables with least return in energy terms, such as wind.

1.7 A determined and urgent course of action is of paramount importance to address this major threat to the long-term economy, security and social well being of the United Kingdom. The key elements to a new energy policy are laid out below. They draw together to form a cohesive action plan, the Route Map to Energy Survival for the UK(see page 25), a strategy that determines the priorities and is deemed to be feasible by those who will have to implement it. It demonstrates how a new energy policy must now divide into two distinct timescales – a short-term strategy to deal with the impending energy gap without impeding the long-term strategy of ensuring our energy requirements in an era when oil and gas will become increasingly scarce and the role of electricity takes on an even greater importance in sustaining our civilisation.

2. The key elements of a pragmatic energy policy must satisfy the following three fundamental criteria.
•Ensure security of supply both in the short term (up to 2020) and the long term (2020 – 2050)
•Protect the environment by striving to achieve CO2 and renewable-energy targets
•Remain technically feasible from an engineering perspective






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