President Obama’s Green Energy Jobs

The Problem
President Obama has proposed opening up millions of jobs to replace some of the millions lost in the recession by pushing development in the field of green energy. This is an excellent proposal, if possible, since it would accomplish four desirable goals at the same time, namely:

  • Help make the transition from a fossil fuel based energy economy to a green energy economy in order to reduce carbon dioxide and other bad emissions.
  • Start the U.S. on the road to a sustainable energy economy.
  • Reduce or perhaps eliminate the chronic trade deficit the U.S. runs in the world economy by reducing its oil and gas imports.
  • Provide the jobs the U.S. so desperately needs.

Several critics have stated that the President’s proposal is only politics, since the green energy field cannot provide millions of jobs and dependence on green energy sources may not even be achievable at the present time. Let us investigate this proposal without the political polemic to see if it is a realistic goal.

The Requirements
In order to accomplish the President’s job goals, we need to look for energy production options that have the following characteristics.

  • The energy production option should provide large numbers of jobs and yet not drive up the cost of the energy produced. Thus we are looking for a means of taking the money we normally would pay to the owners of oil and gas fields and pay it to US workers. Such an option, would allow us to pay no more for the energy and have the money paid go to American workers.
  • The programs the government supports must have job leverage-i.e., the money the government provides will produce jobs, but it will also encourage investors to provide new money that will produce even more jobs. Without leverage, millions of jobs requires billions of dollars which the US currently can’t afford
  • The jobs produced should be free from job replacement by computers and robots. In order for this to happen, working with humans must be the best to operate.
  • It should be possible for the chosen energy option to enter into the job production phase as soon as possible. We must think of results showing:
  • Political near term-1 1/2 years from now to be useful for the next election.
  • Near term-5 years from now.
  • Long term-10 years from now.
  • In order to accomplish the President’s green energy goals, we need to look for energy production options that have the following critical features, namely, the energy must be:
  • Plentiful enough to start covering the nation’s base load (electricity) needs in the near term and make fuels for portable power plants (autos, trucks and aircraft) that can replace fossil fuels in the long term as they peak out.
    • Safe and free from carbon dioxide and other pollutant production.
    • Price competitive with fossil fuels ($0.08-0.12/KWH), so it can start replacing fossil fuels now, and later, as fossil fuels peak out, replace them.
    • Able to use the existing energy distribution systems.

Potential Solutions
Several green energy options have been proposed, namely:

  • Nuclear fission reactors of a modified and improved design.
  • Land based wind turbines.
  • Shore based wave generators.
  • Land based solar cells and/or solar thermal generators.
  • Green fuels to replace fossil fuels such as alcohol and oil from food crops, waste wood, kelp and algae.
  • Land based deep thermal wells.
  • Ocean based wind turbines, wave generators and solar cells.

Let us explore each green energy option in sequence and match it to our list of requirements.

Nuclear Fission.A nuclear fission reactor is competitive in cost because the energy is as concentrated as is that from fossil fuels, so a relatively small amount of equipment is needed to exploit it. Such reactors are currently being used for base load (Load Factor ~0.98. Note that Load Factor is the fraction of time a source is on line providing energy) and can operate at ~$0.08/KWH or more. It emits no carbon dioxide. There is enough nuclear fuel to last more than 100 years without using breeder reactors (reactors that generate more fissionable fuel than it uses). If we use breeder reactors, there is enough fuel for several thousand years. Thus it meets all the green energy requirements except one, safety. Safety is the big issue, especially after the Japanese reactors did not fail safe when an earthquake and tsunami damaged them. The vulnerable element in the light water reactors currently being used in Japan and elsewhere is the coolant pump. Backup coolant pumps are always provided, but if all electricity is lost, both inside and outside the facility (as happened in Japan), the backup pumps are useless. The neutron absorbing control rods and emergency shut down systems will deploy without electricity and shut down the fission reaction, but the residual radioactivity in the fuel rods will continue to heat the rods and eventually melt them down (as apparently happened in Japan). If the coolant pump is off line long enough (as also apparently happened in Japan), the rods may melt through the containment vessel and vent radioactive material to the environment. It appears feasible to design some reactors (for example-pebble bed and certain fast reactors) with low enough energy density in the fuel elements so that the residual radioactivity will not melt them down, but instead fail safe. Or, it may be possible to make acceptable modifications to the current light water reactor designs. Getting rid of radioactive spent fuel is also a problem. The fuel elements must either be placed in long term storage, or treated and refined in a reactor until only short term radiation is left. Both these problems require research and development (R&D).

This R&D will generate jobs, but they will be high level jobs (scientists and engineers) until the designs for safe reactors and safe spent fuel disposal methods are obtained and approved. After that, mid level jobs with job leverage building, modifying and operating the reactors will become available. It is expected that this effort and the government approval cycle will take a long time ( greater than one decade), so mid level jobs for the new nuclear plants are not expected for at least one and maybe two decades (long term). Even after one to two decades, the number of new workers produced will not be in the millions. If it were so, the energy would cost too much. The number of workers per KWH produced in nuclear plants is relatively small-larger than the number for fossil fueled plants, but still relatively small. The capital cost of the plant is large, but the fuel cost per KW produced is relatively small, which brings the overall cost down and makes it competitive with fossil fuel plants in most geographic areas and better than fossil fuels in others.

Land based wind turbines. Land based wind turbines are non-polluting but the energy is diffuse, and so requires a large amount of equipment to exploit it. Thus the capitol cost and resulting energy is expensive (~$0.10/KWH or more not accounting for down time), and it is not available all the time (Load Factor ~0.5 to 0.7 in good sites, less elsewhere), so the effective cost is even higher. Also, they require carefully selected windy sites that are not common enough to provide a significant part of the base load. It should be noted, however, that land used for wind turbines can be used for other purposes as well.

The R&D on wind turbines has been done, so they are ready to be installed. The only factor that keeps more from being installed (and thus creating jobs) is the lack of good sites, the low load factor and the high capital and maintenance costs which makes the energy cost high. The only way wind will become cost competitive is if the government subsidizes it (as has been done in the past) or if it is added to a home to provide domestic energy. Here the cost of the generator is small compared the cost of the home, so the high cost per KW is less important. This home market is currently being exploited where wind conditions are favorable. Thus wind turbines are useful, but appear best suited for operation in high energy cost areas on an as available basis, or in conjunction with homes. Wind turbines may eventually gain 10 to 20% of the energy market. A modest increase in new jobs is expected over the long term as fossil fuel becomes more expensive.

Shore based wave generators. Shore based wave generators are also non polluting, but the energy is diffuse, and so requires a large amount of equipment to exploit it. Thus the resulting energy is expensive, but not as expensive as land based wind turbines (~$0.09/KWH or more not accounting for down time), but it is not available all the time (Load Factor ~0.4 to 0.6 in good sites, less elsewhere), so the effective cost is even higher. Again, they require carefully selected wave sites that are not common enough to provide a significant part of the base load. Thus they are not suited for base load.

The R&D on wave generators has been done, so they are ready to be installed. The only thing that keeps more from being installed (and thus creating manufacturing and installation jobs) is the lack of good sites, the low load factor and the high capital and maintenance costs which makes the energy cost high. It is seldom practical to add them to a home, so this procedure for making them more popular is not available as it was with wind turbines. The only way wave generators can become competitive is if the government subsidizes them. Thus they are useful, but appear best suited for operation in high energy cost areas at the end of a long transmission line on an as available basis. Large numbers of new jobs are not expected from this area.

Land based solar cells and/or solar thermal generators. Land based Solar cells and solar thermal systems are non-polluting, but are dependent on sunshine, the most diffuse of all energy sources. Thus they require a lot of equipment and are one of the most expensive sources (~$0.17/KWH or greater, not accounting for down time), and they don’t operate all the time (Load Factor: ~0.4 to 0.6 in desert zones, less elsewhere) which increases the effective cost even more. Both need huge tracts of carefully selected land for each KW of power generated. (~0.1 KW/sq meter) which drives up cost. Furthermore, this land can’t be used for other purposes. In general, solar generators are not suited for areas near the ocean where clouds and fog are common. Thus land-based solar cells and solar thermal systems are not suited for base load generation where they must be economically competitive and reliable. Solar cells appear best suited for specialty use where cost and area is less important such as on top of electric cars to extend their battery range, or on top of houses to cover the day-time peak load. Here cells are used in conjunction with much more valuable items (cars and houses) so cost is of secondary importance. Solar thermal is useful near isolated desert communities because an energy storage system has been developed for them. Here, climate conditions and isolation from base load generators work together to make these generators more competitive.

Most of the R&D on solar cells and solar thermal has been done. The most important remaining research is the effort to increase the efficiency (and/or reduce the cost) of solar cells. Contracts are currently out to accomplish this goal. Success in this endeavor will make solar cells more attractive in the above-mentioned applications and gradually increase their use. Thus, a few new jobs (hundreds to thousands) in the R&D part of this area are expected in the near term. A more significant increase in new jobs is expected over the long term in this area as the cost of fossil fuel increases.

Sustainable synthetic fuels. Fuels obtained from plants and trees are non-polluting, but are dependent on sunshine, the most diffuse of all energy sources. The efficiency of conversion is less than that of solar cells, so in general, they will be the most expensive energy source. There is a mitigating factor, however. Some feed-stocks are available from other activities that reduce costs. Corn is available from efficient farmland operations. Alcohol from corn is currently being produced and used with gasoline to power autos. This option cannot be thought of as a long them solution, however. As population increases, the corn must be used for food as increasing corn prices show. The same is true of diesel oil from soybeans. This is not true of alcohol from waste wood. This source gets its feedstock from lumber processing and brush clearance operations throughout the US. This waste wood would normally remain unused. Long term production is possible and also desirable. It could help satisfy the need for a partial replacement for fossil fuels for portable applications (autos, trucks and aircraft), but it is not expected to replace them. Fuels from kelp and algae have to be grown, however, so they are subject to the bad economics of diffuse energy operations with large land use and capital outlay. These energy sources may become locally competitive in small markets, but they can’t replace fossil fuels for base load. Also they may have an environmental impact. Thus energy from plants is best suited to supply a portion of the fuel required for portable power plants such as cars, trucks and aircraft.

There is a significant amount of R&D to be done on synthetic fuels from waste wood, kelp, and algae. This R&D must be pursued to the point where cost and capability are known. Then the competitive position of each option in the overall energy scheme of the US can be established. A few tens of thousands jobs in R&D could result from government contracts in the political near term. More jobs (many tens of thousands) will come during the early production stage in the near to long term. The large number of jobs that might result when production ramps up will have to wait for the long term.

Land based deep thermal wells. Deep thermal wells are non-polluting and expected to be competitive in cost because the energy is concentrated as with nuclear fission and fossil fuels and so, with the exception of the well, requires a relatively small amount of equipment to exploit it and the fuel (heat from deep in the earth’s crust) is free. The land area required is small and modest in cost. New chemical drilling techniques for the well show promise in holding the cost of the very deep well down, but experimental cost details are not yet available. If the pilot well is inexpensive enough, deep thermal wells can be used to provide base load. The fuel (earth heat) is available near enough to the surface in many areas on the earth, and will last for the foreseeable future. It is non-polluting. It can use existing electrical distribution systems. The resulting wells can even be used to sequester carbon dioxide. The only disadvantages of this generator are that it is vulnerable to earthquake damage, and it is useable only in areas where the hot rocks needed are close enough to the earth’s surface to make drilling the well economically feasible. The vulnerability to earthquake damage may make it undesirable for earthquake zones such as coastal California, and the hot rocks are nearer the surface in the west of the US than in the east, but the potential operational area appears to be huge.

The R&D on deep thermal wells is well under way. A pilot well is being drilled. If the well is found to be economical in producing energy, expansion into large energy production is expected to proceed rapidly because there are fewer political and safety problems to overcome in order to get permits than, for example, for nuclear fission reactors. The number of workers required per KW produced is relatively small, however, because each well produces a large amount (megawatts) of power, and the workers needed per well is small. So millions of jobs will not be forthcoming in this area. Certainly, the jobs it does produce will not come in the political near term. It will take at least five years to see a significant increase in jobs in this area.

Ocean based wind turbines, wave generators and solar cells. These energy sources are non-polluting and capable of generating large amounts of energy but depend on diffuse energy sources, so they would be expected to require a large amount of equipment and so be expensive. This turns out to be wrong for five reasons:

  • They can be built and operated all together on one vessel to save capital and maintenance expense.
  • The operator lives on the vessel and grows his/her food on the vessel as well to save operating expense. Part of the operator’s pay is the food and living quarters provided for him and his family who can also live aboard.
  • The owner will often be the operator to save overhead and capitol expense.
  • The vessel can be moved to find optimum operating conditions (Load Factor ~0.85 to 0.95)
  • The three energy sources complement each other, so one is operating at near optimum almost all the time.

Thus, the cost per KWH is estimated at ~$0.03/KWH or more. Note that each vessel produces only a modest amount of power (100 to 400 KW), so many millions of vessels are required to obtain the total power required in the US, but each vessel is expected to be profitable by itself. Here we appear to have found a means of taking the money we normally would pay to the owners of oil and gas fields and pay it to US workers who will produce the energy we use. The energy produced (electricity) can be converted into nitrogen fertilizer concentrate immediately with easy transport to land, and a ready market. This frees up natural gas (currently used to make fertilizer) for use to generate base load electricity. It can also be converted into hydrogen and oxygen, or, by use of the plant residues from the food grown, converted into natural gas and oil and transported to land. Thus, it can provide fuels for portable applications (autos, trucks and aircraft). This synthetic gas and oil from ocean energy can gradually replace the fossil natural gas and oil as it peaks out and the US can move smoothly into renewable energy.

The R&D on ocean based wind turbines, wave generators and solar cells is nearly complete. The prototype is 95% done. After prototype completion, production can be turned over to existing boat building yards, so moving into production phase can be quickly accomplished. There is a ready market for the product (fertilizer) of the vessel, so production should increase steadily. Millions of jobs can result when you count the construction workers and the operators of the vessels. These jobs are not subject to replacement by computers and robots. With this energy source, we pay no more for the energy and our money will go to American workers. However, these jobs will not come in the political near term. It will take at least five years to see a significant increase in jobs in this area.

Can President Obama’s proposal to create millions of jobs in the field of green energy along with a gradual shift out of fossil fuels into sustainable carbon free energy be achieved? The short answer is yes, but the jobs and the transition will not come about in the political near term (1 years). We must wait for at least five years (near term) before green energy employment begins to ramp up significantly. It appears possible in the long term, however, to work out an energy supply system where we pay no more for the energy, and the payments go to American workers rather than oil field owners. Let us investigate this answer in more detail and draw conclusions.

The value of nuclear reactors for base load (electrical energy) in many (but not all) geographical areas justifies the R&D necessary to make them safe. Safety is especially important in the wake of Japan’s earthquake and tsunami problems. Government contracts appear justified. This effort will create some new jobs in the near term (5years) and more in the long term (10years). However, large numbers of jobs will not come in the political near term (1 years). Even in the long term, the new jobs will not number in the millions. More likely, it will be in the hundreds of thousands. In spite of the safety issues, there is an important position for nuclear fission as a replacement for fossil fuels in the future energy production pattern in the US.

Land based wind turbines appear to be able to make a significant (10 to 20%) contribution to the energy production pattern in the US especially when joined to house construction where its high cost per KWH is not significant compared to the cost of the home and the value is high in a rising energy cost market. It is not a base load contender, however. The home addition market is already being exploited. No government contracts appear necessary. A gradual increase in jobs is expected, but not in the millions, more likely in the tens of thousands in the long term.

Solar cells appear to have a significant (15 to 25%) market when combined with cars (to increase the range of battery powered electric cars), and homes (to cover a portion of daytime peak load). This is because the high cost of solar cells is small compared to the cost of homes and autos and the value of the energy is high in a rising energy cost market. This market is beginning to be exploited. Solar cells are not base load contender, however. The only government contracts needed are already underway, namely, those aimed at increasing efficiency and reducing cost. A gradual increase in jobs in this area is expected, but not in the millions, more likely in the hundreds of thousands in the long term.

Synthetic fuels from waste wood, kelp and algae are expected to have a significant market for use in autos, trucks and aircraft. Of these, fuel from waste wood is expected to be the leader because the feedstock is so widely and cheaply available from sawmills and brush clearance. Government contracts to develop and sort out these fuels are recommended. They have the potential of becoming a significant contributor (15 to 25%) in the race to replace fossil fuels with carbon free, sustainable fuels. These fuels do not appear to be base load contenders. R&D jobs in the tens of thousands are possible in the political near term. In the long term, several hundreds of thousands of jobs in this area appear likely.

Land based deep thermal wells are a potential leader in the race to replace fossil fuels for base load. Perhaps 30 to 40% of the base load could be supplied with this source. A pilot well is underway, and if successful, contracts to jump-start the drilling of new production wells should be considered. R&D jobs in the thousands are possible in the political near term. More are possible in the near term. In the long term, several hundreds of thousands of jobs in this area appear likely.

If the prototype tests are successful, ocean based wind, wave and solar cell generators appear to be in a position to eventually cover all remaining carbon free energy requirements as the fossil oil and gas fuels peak out. This would ensure a smooth transition to a green, sustainable energy economy. This energy source can provide fossil fuel generated commodities (such as nitrogen fertilizer currently made from natural gas) in the near term, and synthetic fuels (such as hydrogen, oil and natural gas) in the long term. It can provide literally millions of good paying, attractive jobs in the near to long term when you count the ocean vessel construction workers as well as the operators.

Green Energy Credits Can Help Your Business Profit from Being Green!

Here’s a thought: can we control pollution by building a nation-wide program that can give financial incentives to industries that can better their environmental and operational baselines? A program for carbon emissions trading, trading green energy credits, does just that. The credits, and the trading system that has evolved from them, are a unique way to control air pollution that could benefit your company on the bottom line as well.

The 1990 Clean Air Act amendments defined a new era in means of control of air pollution: provide for an overall limit on emissions, for specific pollutants for specific industries, and let the industries work together to make certain it works, by giving them a way to benefit from doing better than the permit requires. This program was the result of the recognition that we need electricity, that energy generation emits pollutants, and that simply demanding massive reductions in emissions is a certain way to make the cost of electricity very high.

Under the EPA program, a “Cap”, or a maximum permitted amount of emissions, is defined for a group of sources. Permit holders are given allowances to emit a specific quantity of pollutants (e.g., a “ton”). The total number of allowances across a target group defines the level of the cap.

Industries can meet their emissions compliance targets by technology, that is, with air pollution control equipment, or by acquiring allowances from other permit holders, at a price. So, those who do better than their permit requirements have allowances available that can be sold to other operators, which provides all the parties in the group with a market-based means of achieving compliance, since the total amount of allowances represents the maximum allowable total emissions from that industry group.

Those who have money for technology install it and reduce their emissions. They can sell their excess allowances to those who do not have the newer technology, and they will certainly sell them for as much as they can–at more than the cost of the technology-thereby eventually forcing the others to spend the capital budget to be competitive.

Further, EPA regularly removes a number of allowances from the pool to ratchet down the total amount of air pollution. This program has been overwhelmingly successful in controlling Acid Rain.

So interest has been building in finding a similar means to reduce greenhouse gases. EPA doesn’t regulate these yet in this fashion. But a financial market has developed that is willing to assign values to credits, and in Europe an already existing program provided a model.

In the US, the Chicago Climate Exchange allows its members to trade carbon financial instruments, based on caps and offsets agreed to by members and the exchange. Members trade contracts based on 100 metric tons of carbon emissions per contract. The mechanism for defining the cap is a baseline of operations for each business or member. If your operation does not directly emit carbon dioxide, other emissions can be converted to carbon dioxide equivalents, using a Greenhouse Gas Protocol from the World Business Council for Sustainable Development. The membership requires a legally binding commitment to a phased reduction in carbon generation.

Entities who provide and trade these credits include car makers and coal companies, forestry companies, cities, waste companies, universities, and states. The emissions sources and offset projects are found across the hemisphere and include fleet fuels, forest plantings and agricultural methane control schemes–things that benefit our air via reduction of CO2.

So, how do you control air pollution, without limiting the benefits of of the energy we use as a modern civilization? Create a way to make limiting air pollution less costly, and even profitable! If anyone tells you you can’t make money by controlling pollution, tell them there is power in green! it’s green, like money, and trades, like commodities, and traders and industries both benefit!

Earn Thousands From Government Energy Schemes

Heating your home can be expensive, but there are schemes, initiatives and other things you can do that can save you thousands of pounds and improve your energy efficiency.

Warm Front is one such scheme which can literally save you thousands of pounds. It is a government funded initiative which is managed by Eaga. The scheme is designed to support people who may be vulnerable to fuel poverty this includes low income families and the disabled and elderly. It provides a package of insulation and heating improvements which can amount to the value of 6,000 where oil or renewable technologies are recommended. To qualify you must own your own home or rent from a private landlord. You should also receive certain specified benefits as well.

However, even if you do not qualify for a Warm Front grant you can still apply for the Heating Rebate Scheme and receive up to 300. To qualify you must live in an English local authority be over 60 and own your own home. The work carried out must also exceed 300 including VAT.

The Clean Energy Cash Back or Feed-in Tariff (FIT) Scheme was introduced on 1st April 2010 and promises to pay long-term, guaranteed payments to homes and businesses for generating electricity from small-scale renewable electricity systems, such as solar panels and wind turbines. The scheme is intended to give people an incentive to utilise green energy and cut their fuel bills. The money paid to homeowners is also tax free.

For homeowners with a well positioned 2.5kW solar panel this could amount to 900 cash back from the excess electricity they generate but do not use as well as further savings on electricity bills. Similar schemes to FIT have worked well in countries such as Germany for the last 10 years.

The Renewable Heat Incentive is a fixed payment for the renewable heat which is generated by a household and is set to be launched in April 2011. Although it is similar to the Feed-in Tariff initiative there are some significant differences due to the fact that most homes generate heat via oil or gas boilers, unlike electricity there is no National Grid for Heat.

To benefit from The Renewable Heat Incentive (RHI) you have to install a renewable heating system such as solar thermal panels, heat pumps or a biomass boiler. Once this has been done an estimate is given based on how much heat your system will produce. Based on this estimate a fixed amount is paid. The RHI will be available to everyone including businesses and is designed to incentivise investment into renewable energy.

Everyone can potentially earn money from being more environmentally conscious and investing in renewable energy. Even if you are unsure about how to go about installing a renewable energy system for your electricity and heating needs you can employ the services of an energy consultant for as little as 50. They will usually provide advice and a report on what to install and how you can maximise the effectiveness of a renewable energy system.