Category Archives: Investment

Government Policies Are Shaping Our Countries Energy Future

As the United States government has grown, so has its influence on our society.  An area that the government has had an increasingly large influence is energy.  The government influences the type and quantity of energy and fuel sources we use today.  In order to finance ethanol producers the federal government has bolstered ethanol, a fuel source, through laws requiring its usage and through subsidies.  The strong support from the government has created a market for ethanol, but the large demand for ethanol would probably not exist if the government was not involved.  As many of you know ethanol offers a low Energy Returned On Energy Invested (EROEI); corn-based ethanol is roughly 1 and at worst has a negative EROEI.  Would a fuel that behaves like an energy converter be in high demand if the market were allowed to decide?  I would probably say no.  I believe the only thing that has been propping up ethanol is the strong support it has been getting from the federal government.  If the government were not supporting ethanol, it would have probably failed by now and we might see other more viable options.  Ethanol is not the only case, but ethanol is one of the best examples of why government should not be making energy decisions.

The United States Capital Building

Courtesy of Wikimedia

With promising advancements in fields like algae, diesel engines, and ammonia, it makes no sense for the government to endorse a fuel like ethanol.  Many of these more promising advancements are in the background operating quietly, which is a shame.  These advancements are competing with every other energy advancement on the market, but they have one major disadvantage, they have not yet gotten the full attention of the U.S. government.  Even without the full support of the federal government many of these other energy advances are progressing.  Imagine what might be if these energy technologies were only competing against other energy advancements, and not the government too.  While the government is out supporting things like ethanol in our gasoline and battery powered electric vehicles, which aggravate our energy problems, individuals are working hard trying to come up with real energy solutions.  It amazes me that our country is relying on politicians to dictate our energy future, when the free market should be.

In a free market profit motive is typically at the forefront of the decision-making.  This is directly related to EROEI without the people making the decisions even knowing it.  That is because typically a good EROEI will equate to a profit.  This is the type of force we need driving our energy future, not politicians that are swayed for personal and political reasons.  In the end the market will hopefully prevail and the energy advancement of the future will be chosen, but this is only if the federal government doesn’t make it impossible to exist.  The federal government should not be making decisive decisions about what energy we should use, but the government can help all possible alternative energy technologies by giving tax incentives.  Stopping the subsidizations of alternative energy would be ideal, and instead implementing tax incentives so the free market can have more freedom to work.  I believe that in order for new energy advancements to be successful, government must have as little interaction with them as possible.  Government is not capable of choosing the correct energy path for our future.


High-Speed Rail Infrastructure Debate

High-speed rail has the potential to greatly reduce travel times between many major cities, and to move people more efficiently.  I am a proponent of high-speed rail (HSR), but I am also cautious about how it is going to be implemented. According to an article in The Wall Street Journal, the freight train railroad companies (like CSX, CN, etc…) are not happy with the idea of putting HSR trains on their freight train tracks.

I started thinking about the logistics of having 200mph trains sharing the same track as 55mph trains, and common sense says its not a great idea.  The government is pushing to use current track infrastructure whenever possible because they are hoping to reduce costs and increase time to market.  I fully understand the government’s stance on this, and from there viewpoint it does make some sense.  The problem is that mixing slow trains and HSR trains on the same track does not make a lot of sense, i mean there is a reason why Europe and Asia have made separate HSR tracks.

If HSR is going to be a large part of our future lives, then building the infrastructure correctly from the beginning is absolutely CRITICAL.  I agree with the private companies that sharing rail space with HSR trains will cause bottlenecks and safety issues.  Also, if the private rail companies don’t want to share their tracks, then why should they have to?  HSR needs its very own infrastructure, separate from freight and slower moving Amtrak trains, otherwise we will end up with a HSR system that isn’t as good as it could be.  Also, some valuable information can be found from the Wall Street Journal article here.

What are your thoughts about this topic, and about high-speed rail (HSR)?

Smart Grid Communication Network Technologies

Below is a literature review, which is defined on Wikipedia as:

A literature review is a body of text that aims to review the critical points of current knowledge including substantive findings as well as theoretical and methodological contributions to a particular topic. Literature reviews are secondary sources, and as such, do not report any new or original experimental work.

This literature review is written for an audience that has a technical background, so many technical terms may not be explained or defined.  I hope you enjoy this literature review, and please feel free to leave comments.

Selected Review of Literature: Smart Grid Communication Network

Given the increased emphasis on energy efficiency, the current electrical grid is in need of a robust communication network.  The communication infrastructure will rely on three technologies: 4G wireless communications, fiber optics, and/or broadband over power lines (BPL) to reliably transmit low latency data at speeds of 2-to-5 Mbps per device (Sood, Fischer, Eklund, & Brown, 2009).  The smart grid will need to be able to handle two-way communication in order to share energy-related data amongst utilities and end-users (Aggarwal, Kunta, & Verma, 2010).  This communication system must handle large amounts of continual two-way data transmission from all electricity users, devices, and sensors in order to provide proper usage feedback to both the end-user and to the utility (Aggarwal, et al., 2010).  This paper will look at the three competing technologies, and some of the pluses and minuses of each.

Broadband Over Power Lines

Broadband over power line technology uses the electrical grid to transfer data on top of the AC power already being transferred through the power lines.  This allows utilities to build a communications network on top of the already existing infrastructure, i.e. the power lines (Srinivasa Prasanna, et al., 2009).  BPL typically has limited bandwidth because the current power grid infrastructure was not designed to transfer data, but according to Schneider, speeds of 5Mbps are achievable in distances less than 1 kilometer.  Increasing this distance will reduce the speeds that BPL can achieve, but using additional equipment can help alleviate that issue (2009).  BPL typically uses the 1-34 MHZ frequency range instead of AC’s 60HZ to transfer data (Tsiropoulos, Sarafi & Cottis, 2009).  According to Anderson, the estimated installation cost of BPL is $1000 per home, but offers the capability to reach any home with electrical service (2010).

Fiber Optics

Fiber optics are able to handle large amounts of data at much faster speeds than any of the other communication technologies discussed in this paper.  Utilities typically have the right away along their transmission lines, so this makes laying fiber optic cable relatively easy.  Fiber optic cables have the ability for transfer speeds of several hundred Gbps.  Since such high data rates are possible it makes fiber optics an expandable and relatively future-proof communication technology (Aggarwal, et al., 2010).  Another strong reason to pick fiber optics is the fact that there are many fiber optic cables already available.  This gives utilities the option of leasing current fiber optic infrastructure to help reduce costs and time to market (Sood, et al., 2009). With so many positive points one might wonder why other technologies are being considered for the smart grid communication system.  One thing to take in consideration is that fiber optics may not always be the most feasible solution in certain areas.  This could be due to location, cost, or regulatory restrictions.

4G Wireless

Since 4G wireless technologies are starting to be deployed nationwide, this gives utilities another great alternative to the other two communication technologies.  Wimax 4G is estimated to cost roughly $440 per home to install and is currently seeing transfer speeds between 3-to-6 Mbps per connection (Anderson, 2010).  With a lower cost per home than BPL and a higher transfer speed than BPL, this makes 4G a very attractive option for utilities where 4G service is available.  Wimax 4G also offers very low latency times (~10ms), so the smart grid can communicate with devices rather quickly (Sood, et al., 2009).  Although fiber optics have a much lower latency time (~5 µs per kilometer), Wimax 4G latency is still within current smart grid requirements (Sood, et al., 2009).  The ability to communicate to devices quickly is very important, especially if a breaker is in need of being kicked as fast as possible.  Another quality of Wimax is its closed loop power control features.  These features allow each device linked to the Wimax network to have its own power control settings, and this minimizes the power consumption of the Wimax radio equipment (Sood, et al., 2009).  The single biggest issue that Wimax 4G has is its ability to communicate with devices inside buildings and other radio frequency dead areas.  Another major problem is that 4G wireless communications do not provide coverage everywhere a home would be located.


Due to the high cost of implementing a smart grid communication network it must be built with adequate capacity for future growth.  Utilities will need to plan their systems for increased usage during emergency situations, and for a lifespan of roughly 20 years (Wenpeng, Sharp, & Lancashire, 2010).  It is unlikely that any one-communication technology will reign supreme.  It is much more likely that we will see hybrid systems that implement several or all of these technologies for varying circumstances (Tsiropoulos, et al, 2009).


Aggarwal, A., Kunta, S., Verma, P.K. (2010). A proposed communications infrastructure for the smart grid. Innovative Smart Grid Technologies (ISGT) (1-5). Gaithersburg, MD. doi: 10.1109/ISGT.2010.5434764

Anderson, M. (2010). WiMax for smart grids. Spectrum, IEEE 47(7), 14-14. doi:10.1109/MSPEC.2010.5490999

Schneider, D. (2009). Is this the moment for broadband over power lines?. Spectrum, IEEE 46(7), 17-17.

Sood, V.K., Fischer, D., Eklund, J.M., Brown, T. (2009). Developing a communication infrastructure for the Smart Grid. Electrical Power & Energy Conference (EPEC) (1-7). doi: 10.1109/EPEC.2009.5420809

Srinivasa Prasanna, G.N., Lakshmi, A., Sumanth, S., Simha, V., Bapat, J., Koomullil, G. (2009). Data communication over the smart grid,” Power Line Communications and Its Applications. IEEE International Symposium (273-279). doi: 10.1109/ISPLC.2009.4913442

Tsiropoulos, G.I., Sarafi, A.M., Cottis, P.G. (2009) Wireless-broadband over power lines networks: A promising broadband solution in rural areas.  PowerTech, 2009 IEEE Bucharest (1-6). Bucharest, Romania:IEEE. doi: 10.1109/PTC.2009.5282200

Wenpeng Luan, Sharp, Duncan, Lancashire, Sol. (2010). Smart grid communication network capacity planning for power utilities. Transmission and Distribution Conference and Exposition (1-4). IEEE. doi: 10.1109/TDC.2010.5484223

Is The Obama Administration Good For Nuclear Energy?

Recently, President Obama announced an $8.33 billion loan guarantee to build a brand new nuclear power plant in Georgia. This could be the first new nuclear power plant in nearly 30 years, which is a big deal. Now before everyone gets all giddy about this announcement there are several things that need to be understood.

What is a Loan Guarantee?

A loan guarantee is a promise by a government to assume a private debt obligation if the borrower defaults. Most loan guarantee programs are established to correct perceived market failures by which small borrowers, regardless of creditworthiness, lack access to the credit resources available to large borrowers.

Basically, what this means is that the government is “cosigning” the loan and is responsible for the loan if anything goes wrong. This can be used to help finance projects that are risky, new or are having a hard time getting the amount of credit needed to finance the project.

What About the Radioactive Nuclear Waste?

Nuclear waste can be a scary thing when you consider the harmful potential of this substance. Typically nuclear waste is stored in pools of water or cement caskets on-site of the nuclear power plant. This system has proved to be relatively successful thus far, but a more permanent solution is needed. With the Obama administration’s cancellation of the Yucca Mountain project, which was supposed to be the nations repository for radioactive waste, many are left wondering what will happen to existing and future nuclear waste. With no clear long-term plan for radioactive waste, many are left wondering why the President would be in favor of building a new nuclear power plant.

Personally, I feel relatively safe with the cement caskets being used to store this waste. The cement caskets that store this radioactive waste are rated to be good for 90 years, so we still have some time to get a game plan.

Courtesy: Wikipedia

So the questions that immediately come to my mind are:

  • How long will these cement caskets actually last?
  • What do we do when these caskets start needing to be replaced, do we just move the waste to newer caskets?
  • Why don’t we start reprocessing nuclear waste to generate electricity?

Unfortunately the answers to these questions are topics of much debate. Clear answers to these questions do not appear to be in the immediate future.

Should the Government Be Guaranteeing Loans for Nuclear Plants?

With the pathetic financial state that our government is in, are they really in a position to even offer a loan guarantee? How can a government that is constantly raising its debt ceiling even consider having to pay 8 billion dollars for a power plant. If the government continues offering loan guarantees for nuclear power plants and some of the companies default on their loans, where is the money going come from to pay these loans?

Regardless of your political beliefs, the fact that the United States government is continuing to promise more expenditure should be a red flag. How much longer can we continue promising, borrowing and ‘printing’ money?

But Nuclear Energy is a Good Clean Source of Energy, right?

As many of you know, I am in favor of building new nuclear power plants, see my previous blog post here. Nuclear power offers many benefits and we are in need of diversifying our energy portfolio. There is no doubt in my mind that nuclear energy will play an important role in our energy future because of the increased energy demands and reduced availability of cheap/clean energy. Nuclear energy has been picking up steam for several years and it appears that it may finally be getting some much-needed attention. As nuclear energy continues to garner attention and becomes more cost beneficial, I am confident private investors will start investing in the construction of these plants.

Global Warming, Peak Oil, and Economic Crisis

When Zach and I started this blog, we agreed that it should be in the technical domain, rather than the political one as much as possible. The hope was that with high quality information available to the political class and activists, the “solutions” would be forthcoming. As time goes on though, it seems that even as difficult as our energy challenges are, the political ones are tougher. This reality requires the Energy Strain blog to deal with issues that may be considered to be more in the political domain.

For the moment, the world seems focused on “Climate Change.” Climate change is the new term for what was originally termed “Global Warming.” It is difficult to figure out who changed “Global Warming” to “Climate Change.” I would argue that both of these names are actually very poor names for this problem. One thing that we know for sure is that the Earth’s climate has been changing for the entire time that it has existed. It seems to me that if you wanted to come up with a name to motivate people to action, you would not use a term that describes something that is “normal.”

Peak Oil is an equally poor name for the problems that people are using it to describe. Peak oil, when used in the M King Hubbert sense, is a perfectly correct term. Hopefully we all know of the work of M King Hubbert, and his curves describing how oil fields age. The problem with the way that “Peak Oil” is now used is that it now means hundreds of different things to different people. From the simplest and obviously correct meaning, that a mathematical curve can be applied to the theoretical extraction rate of an oil province, Peak Oil is now also being used as a substitute term for we’re running out of oil, Malthus was right, all problems are caused by running out of oil, and the end is coming.

Economic crisis is also a very poor name for a widely varied set of symptoms. Economists originally called it “Sub-Prime” Crisis, then “Recession,” and now their favorite seems to be “Economic Crisis.” The names are likely to change as the symptoms of the end of the Industrial Age present themselves.

After studying the end of the Industrial Age for about five years, it all seems quite simple to me. These problems are all related, and must be contemplated and solutions proposed for the actual problems, not just the symptoms, and not with solutions that “feel good,” but rather solutions that fit the physics of the problem.

The problem is simple.
Man found a substance in Earth’s “basement” that allowed him to temporarily overcome the normal limit of living on Earth, that limit being: living on the energy that comes from the Sun. Man used the energy from this substance to continuously increase the amount of energy available from this substance. He also created an economic system that automatically creates more interest debt as time passes, and thus requires economic growth in order that it remain plausible that the interest accumulation could be repaid. As he used this substance, he put the undesired components into the atmosphere, hoping that it would be OK.

Now Industrial Man finds himself in the following situation.
1. The net energy (gross energy minus the energy used in the extraction) from fossil fuel is in decline.
2. His financial system is collapsing because repayment of the interest is not plausible, and the economy cannot grow enough without more energy to make it plausible.
3. The Earths formerly sequestered carbon is now in the atmosphere, and he is not sure exactly what it means. But most agree it’s probably not good.

So Global Warming, Peak Oil, and financial collapse are the same problem.
Maybe we should name the entire situation “DADESFFC” for Dying and Dysfunctional Energy System Feeding Financial Collapse. Ok, so maybe it’s not a sexy acronym. Or maybe it’s too complicated for some to understand. But the point is that without understanding the big picture, and without looking for solutions to the actual problems, we are left in the dark shooting at the symptoms.

Lately “Climate Change” has been in the news with the negotiations in Copenhagen, Denmark. Some of the activists seem to be advocating that we solve the problems with massive redistribution of wealth. Their solutions are simple–take money from the polluters and give it to the less fortunate. Problem Solved. If only it were anywhere near this easy.

The reality is that the technologies that are available to “replace” the current fossil fuel technologies are not drop-in replacements. A society created from alternative energy technologies will be profoundly different. Here are some of the technical challenges along with the implications of a post fossil fuel economy:

1. Renewable energy sources are powered by low density energy.
Low density means that the systems will be very large, and consume huge quantities of resources and labor in order to construct. In an economic sense, this by necessity means that the systems will be expensive.

2. Renewable energy sources have low energy return on energy investment (EROEI). Low EROEI means that renewable energy systems will have low profitability for their investors, and will take many years to return their initial investment. It also means that there is not room for mistakes in the implementation of these systems. Small mistakes in implementation that cause increased energy consumption, will convert low EROEI energy “production” systems into energy “sinks,” i.e., they cause consumption rather than provide energy.

3. Renewable energy systems are not a drop-in for fossil fuel technologies. This means that much of the most expensive equipment in our fossil fuel powered industrial economy must be replaced. A replacement society that is powered from renewable energy sources will be less wealthy, and have less complexity than a fossil fuel powered one. This may mean that there is no excess wealth to transfer from the former “wealthy” countries to the “developing” countries.

Simply transferring wealth from the “wealthy” fossil fuel consumers to the “developing” countries is very likely to aggravate the problems. It could leave the “wealthy” countries without enough surplus capital to develop renewable technologies, and it could just cause increased energy consumption in the “developing” countries.

Converting to a post fossil fuel era will not be easy. Resources will be scarce and financial systems very unstable. This means that in order to successfully accomplish it, we will have to understand what we are really up against, not choose one symptom and propose a “solution” for it that aggravates the real problem.

If we cannot solve the technical problems of operating a modern society from renewable energy, the only “deal” that we may be able to make is to lower our standard of living to their standard of living, if they agree not to try to raise theirs.

It goes without saying that this will be a difficult political sell, and I fear that those who are pushing these large redistributions aren’t as concerned about the environment as they claim, meaning that this would not be an acceptable solution, even though it may be the only one that is technically feasible with our current technology.

Crash Course

Crash Course: Economy, Energy, and the Environment

As discussed previously on this blog, with time more and more is understood about the effects of decreasing net energy on the industrial economy. Eventually one comes to the realization that nearly everything in Industrial Man’s world will change or will have to be changed.

Few things will have a bigger impact on the day to day life of everyone in the modern industrial world as the destabilization of the exponential financial system. All of us have been taught the “power” of compounding. In high school, I was told that if I put a little money in the bank each year, eventually my wealth would begin to grow in a near vertical curve. I learned this from a teacher who did not understand physics, and it would be 30 some years before I realized the absurdity of this curve. Where would the energy come from to cover my consumption if this were to occur and I were to spend that money? The answer is of course that the system would fatally collapse because the energy is not available.

In the process of studying the decreasing net energy collapse of the exponential economy, I found a web-based course called “Crash Course” from Chris Martenson at This course is very good and is available on the web and via DVD. Chris Martenson has a very deep understanding of what is happening to the exponential financial system. Chris has a PhD in science and an MBA in finance and is the best teacher of this material that I have found. Chris even allows you to burn and sell his DVDs for profit.

Please check out the “Crash Course.” If you are stuck without high speed Internet, please contact us here at Energy Strain and we will send you a copy of the “Crash Course” DVD.

Google PowerMeter, helps monitor your energy usage.

Google announced a new service, Google PowerMeter, earlier this month.   Google is said to be currently testing this service internally.  I can’t wait for it go public because I know that I would use it.

In case you aren’t aware, Google PowerMeter is a service that will allow you to monitor energy usage in your home.  This will allow you to find high energy users and to help you reduce the amount of energy you consume.  For more information visit the Google PowerMeter site or the blog.  The blog also has some information on the ,”Plug into the Smart Grid” event that Google and GE co-hosted on February 17th.

If Google PowerMeter is as well refined as most of Google’s products, then this should be a very successful tool.  Nice!

Understanding the Low Prices of Oil and Gasoline

Oil prices have fallen from over $147 per barrel (42 gallons) in July of 2008 to $64 during this Friday’s trading. I was in Houston at the end of the week and drove by some gas stations that were selling unleaded regular for under $2.26 per gallon. This price looked shocking to me as I have become accustomed to the price of motor gasoline costing at least $3.50 per gallon and even $4 plus per gallon like it was this summer. So the question becomes, what is causing these low gasoline prices?

There are dozens of factors that cause the price of motor gasoline to fluctuate, as we are aware. Let’s look at the most important factors in conjunction with the current news to see if we can figure out what is causing the low price of oil.

Long Term Factors:

  • Oil Supply
  • If new reserves of oil are found, and can be brought online at a rate faster than existing oil fields are being depleted, the supply of oil will increase and the price will fall. If new oil supplies are not found or new extraction technologies fail to offset the aging of the fields, oil production will fall and prices will increase.

    There hasn’t been much in the news about oil supplies in the last few years. There have been no new large supplies of oil brought online in recent months. There have been no new discoveries that will substantially increase supply in the next six years. There have been no substantial new innovations in production/extraction technologies. Government reports show oil supplies looking very flat since the summer of 2005.

  • Intensity of Oil Usage and Technology
  • If technology is invented that makes oil less useful or desirable at its current market prices, oil demand will drop as the other inventions take its place. If technology is invented that makes oil more useful to the economy, oil prices will rise.

    There have been no substantial changes to the oil technologies that are powering our economy. No new engine designs or significant agricultural breakthroughs have been reported. Even positive news on oil efficient technologies has been scarce. Boeing has been promising 787s that are supposed to save 20% fuel, but not one has been delivered.

Intermediate Factors:

  • Annual Cycles of Demand
  • Each year, the demand for oil changes as the year progresses. Demand for finished products is highest in the summer during driving season and demand for crude is usually highest while the heating oil inventories are being built up and there is still pre-winter driving demand.

    Currently we are at the low point of demand. Driving season is over and heating season has not really started.

  • Amount of Economic Activity
  • Oil demand is a direct result of economic activity. As long as there is no new technology to supplant oil for many necessary parts of our economy, oil will be required in direct proportion to the economic activity. Think of a small business. If delivering $100 worth of pizza requires $10 of gasoline, delivering $90 of pizza will only require $9 of gasoline. If business picks up to $110 worth of pizza, about $11 of gas will be required to deliver it.

    Consider some recent news:

    “Feds to slash interest rates as recession looms”
    “Chrysler to cut 25% of salaried workers”
    “NorthWest Airlines loses 317 Million dollars, announced schedule cuts”
    “Trading in Austrian Airlines halted”
    “Airlines see load factors drop despite capacity cuts”
    “Southwest loses $120,000,000 first loss in 17 years, will cut unpopular flights”
    “Gainey Trucking can’t pay owner”
    “Canadian truckers face losses from diesel fuel shortage”
    “UPS faces precipitous declines on overnight shipping”

Short Range Factors:

  • Speculation
  • Speculation tends to increase the volatility or the size of the price cycles; it also therefore increases the height of the highs and the depth of the lows. The reason for this is simple. If a speculator sees that each day for a year the price of gasoline is $3.00, there is no way for him or her to make any money from buying or selling it. He would just end up buying it, sitting on it, and selling it again at the same price, making no money and wasting his time. The speculator makes his money when the price deviations increase. If the price is dropping, he sells what he has and increases the market supply, causing the price to go down further. If the price is going up, he buys more to sell at a later time. Deferred selling shrinks the available market supply and raises prices.

    Consider this quote from in an article about how OPEC is on its own as investors flee from oil speculation:

    “This time, however, OPEC is on its own. With speculators fleeing, the cartel is going to have to build a floor under oil prices through disciplined production cuts. This isn’t a group known for discipline, however. And given the wheezing global economy, OPEC has only an outside chance of pushing prices back up to $100 a barrel even if they manage to significantly slash output.”

    From this and similar articles, it is clear that investors are selling oil positions due to both the oversupply and subsequent price drop, as well as the fact that they need money to cover losses in other areas of the falling market. This causes the price of oil to drop even further, but can only continue until investors sell off all of their positions. After this, the price of oil will begin to rise even if speculators do not buy again.

  • Weather
  • The weather can affect both the supply and the demand of oil. Unusual weather events can be things like extreme cold snaps in the Northeast Unites States, resulting in the demand for heating oil to increase substantially. Conversely, very mild winters cause decreased heating oil demand. On the supply side, weather can decrease supply by preventing the transportation of oil from the point of production to the consumer or refiner.

    Searching the news about the weather, it looks as though the weather has been very friendly to the price of oil. There have been no weather-related reasons for declines in supply or evidence that demand has strayed from the seasonal norms in the last few months.

  • Accidents and/or Malicious Destruction
  • Accidents or malicious destruction of petroleum equipment that is necessary for petroleum production can cause oil supplies to drop and prices to increase.

    There has been no substantial accidental or malicious damage to the petroleum infrastructure in the last few months.

The current low price of oil is caused primarily by what economists call “demand destruction.” That is, as economic activity winds down, the demand for oil drops and the market verges on a glut in supply. The price will stay low and most likely go lower as long as the following continues:

The weather stays good.
There are no accidents or attacks on the petroleum infrastructure.
The speculators continue to sell.
The economy continues to decline.

The last one is the most important because the health of our currently configured industrial economy is directly related to how much oil is being consumed–much like your car requires fuel in proportion to how much work it does. Let’s hope that we can get the economy going well enough again to bring on some unprecedented high prices. If not, we will be dealing with more economic disaster and unemployment.

Daniel J Swanson

Google Invests in Energy

According to an article at CleanTechnica’s website,, the philanthropic arm of Google, has invested close 10 million dollars into Geothermal. This investment is supposed to help progress the use of Geothermal energy, among other things. Geothermal uses the heat under the earth’s surface to spin turbines to create energy (electricity for the grid). Geothermal plants run continuously and if built correctly, seem to be renewable.

If a geothermal plant has a larger capacity than what the geothermal location can supply eventually the geothermal plant’s energy production capacity will decrease. Eventually if things are unchanged the geothermal plant can cease to produce energy due to the geothermal location not being able to replenish the heat within geothermal formation. If, however, the plant lowers it’s production levels or stop operating for a time it is possible for the geothermal formation to replenish itself.

With the attention and funding from a company like Google, geothermal energy might be given a little extra boost. Geothermal is a promising resource that if used correctly could offer many lasting benefits.