Sunday, 28 November 2010

Clean Energy Helps the Environment

Conventional manufacturing of electricity is the major source of industrial air and water pollution in the United States. If you choose to utilize 100% renewable electricity instead of coal and oil, your impact on pollution control can be astounding. Wouldn't you like to be a part of the solution to the pollution problem? By choosing clean energy vs. coal and oil, you are not only making the world a better place to live environmentally right now, but for your children and generations to come in the future. Environmental Benefits
  • Absolutely no emissions of nitrogen oxide (NOx), carbon dioxide (CO2), sulfur dioxide (SO2), mercury or particulate matter going into our air, soil or water. The most common effects of these dangerous pollutants are mercury poisoning, climate change, smog and acid rain.
  • Does not necessitate fossil-fuel extraction through water or mining that seriously damages the landscape and water supply
  • Manufactured from limitless renewable sources that will in no way be depleted, unlike limited resources including fossil fuel sources which cause pollution.
  • Helps preserve and protect the environment for future generations
Economic Benefits
  • Green energy creates job opportunities in the green employment sector in the United States; between the years 1998 and 2007, clean energy jobs - a mixture of both white-and blue-collar careers - grew 9.1 percent, while the entire job rate increased by a mere 3.7 percent (Pew Charitable Trust)
  • Green energy helps protect the energy future of America by growing domestic energy sources.
  • Green energy is easily developed in rural areas, where renewable service plants are frequently developed to utilize the wide open spaces and green supply potential.
These are just a few of the reasons to choose the greener and cleaner electricity choices!

Peak Oil, Energy Wars and Powering Your Home in the 21st Century

What is peak oil and why worry?

About 20 years ago, a well respected geologist by the name of Hubbert proposed a radical new theory now known as 'peak oil' which basically says that at a certain point in the late 20th or early 21st century or thereabouts, the amount of easily recoverable oil on earth which had been used by humans was greater than 50% of ALL the oil on earth. He theorized that after this so-called 'Hubbert's Peak' the availability of oil would decrease dramatically. Not because there was no oil, but simply because we got all the easy stuff FIRST. What would be left would be the very difficult and expensive to extract deep sea oil, oil derivatives mined from shale and other hither to unprofitable deposits.

Whilst this does not sound too bad think about it like this: If we assume the first motor car appeared around the dawn of the 20th century then we used half the available oil in about 80 years. However, it must be remembered that for the major part of that 80 years, most of the people on earth had little or no access to motor vehicles. China for example was barely a developed nation for most of that time. THE United States uses about 25% of all the oil produced on earth and yet has little reserves of its own. It is almost entirely dependent on imported oil. China's extraordinary growth in the last ten years has seen an explosion of domestic wealth with the demand for motor vehicles increasing at an astonishing rate. With a population of over twice the U.S. there is no way that China has access to 50% of the worlds oil!

Energy Wars

Many eminent petroleum experts have debated Hubbert's theory however, many others agree with him. Some experts say we reached peak oil in 1985, some 2005. However, the debate over whether or not we have reached 'peak oil' rages and is mostly denied by the global oil companies. In any event, the fact is that the price of oil is steadily increasing and along with that so is the price of petroleum and almost every other product we use. Many see the problem as manifesting itself in the fight for the remaining major oil reserves in the Middle East. To the consumer like you and I, it will mean ever increasing prices with the cost of running a motor vehicle being just too high to contemplate. Another major cost for us these days, is the cost of power for your home or business. Imagine a world where the power is only available on certain days or at certain hours. Some poorer nations live with this reality right now. Its not science fiction!

Global Warming In The Age Of Oil

I have read various reports that predict that the age of oil will be a very small blip on the timeline of human history. It may last for 200 years, probably not even that long. However, the debate on the environmental impact of burning fossil fuels rages almost every day in newspapers and on television around the globe. Whilst it seems that for every expert proclaiming the effects of global warming, there is another equally qualified expert who loudly decries the very same effects. It does appear however that most of us now recognize that a century of pumping hydrocarbon emissions into our atmosphere has had some sort of derogatory effect on our natural environment. We cannot continue to spew effluent into the air and hope it will not impact us. This is another reason why alternative sources of energy need to be developed which are renewable and have little or no environmental impact. The most obvious sources of clean green renewable energy are solar and wind power.

Well What Can I Do?

Firstly, the only thing we can do about our dwindling oil supply is to use less of it both as individuals and for the whole human race across the board! The other solution is to find much more efficient means of converting oil to energy for our cars and power stations.

On a personal level, it would be prudent to take some steps to provide your family with some energy 'insurance'. What I mean by this, is think about generating your own power. The basis of solar and wind power generation has been around for many years. There are commercially available solar power systems and wind turbine power systems which work very well, are well designed and will provide years of free green power. For most of us however, the initial cost of commercially manufactured and installed systems will be prohibitive. But that need not put you off. There are lots of do it yourself manuals, guides and videos on the internet which offer a much more cost effective way of insuring your family's energy future. Shop around and if you're keen, you'll find that the solutions are pretty simple. It just needs motivation, a bit of handyman skill and not only can you save yourself some money but you can do your bit for a greener, more energy efficient world.

Oil, Energy, and Congress

Now that Congress has recessed for the end of the summer, what are we to make of the energy situation? At this point, I'm getting tired of hearing that $4.00 gasoline is good for me. How can it be good when Americans are spending less of their money on other goods and investing in their gas tanks? Is it good that transportation costs have sent my food bill sky rocketing? Is it good that many Americans have shortened their vacations and cut back on their entertainment spending? Is it good that the working poor are struggling between putting groceries in their home and fueling their cars to get to work?

Apparently our Congressional leaders and one presidential candidate say the answer is yes. While our Speaker of the House is trying to "save the planet", the rest of the world is out trying to find more oil & energy. Let's look at few recent examples:

Egypt announced last week the start of a 9 billion dollar oil refinery and petrochemical complex, which will be located on its north coast. The complex is expected to begin operation in 2010 and will be completed in 5 years. The facility will refine 350,000 barrels of oil per day.
The Tupi deepwater oil field is located offshore of Rio de Janeiro, one of Brazil's best tourist destinations. Last November, the Brazilian government announced that the location could contain five billion to eight billion barrels of oil. The Tupi oil field is expected to begin producing 100,000 barrels of oil in 2010, according to Petrobas, Brazil's national oil company. Petrobas hopes to bring production to one million barrels a day in about ten years.
Finland is building a 1600 megawatt nuclear power reactor. The country currently gets 28 percent of it electricity from nuclear power.
Japan is working to increase its nuclear power production of electricity from 30 percent to 37 percent by 2009 and 41 percent by 2017.
Now, besides threatening to sue the Saudi's and adding more taxes to oil, what has the United States government energy policy done? Let's look at a few examples:

From 2000 to 2007 domestic crude oil production fell 12.4 percent
Through a congressional mandate, 85 percent of the Outer Continental Shelf is off limits to oil exploration. It is estimated that the Outer Continental Shelf contains 90 billion barrels of oil
The Artic National Wildlife Refuge (ANWR) is estimated to have 10 billion barrels of oil; in 1995 President Clinton vetoed a bill authorizing oil production on 2,000 acres out of 19.6 million.
U.S. Senator Ken Salazar, Colorado, inserted language into the omnibus spending bill last December that places a moratorium on enacting rules for oil shale development on federal lands. The Green River Formation is estimated to have as much as 1.1 trillion barrels of oil shale.
As mandated by the 2007 energy bill signed by President Bush, the U.S. is now required to mix 9 billion gallons of biofuels into the gasoline supply. The mandate is met primarily with corn-based ethanol. At the start of the biofuel mandates, corn was $2 per bushel. The price of corn now is a little over $6 per bushel.
It seems the more our government gets involved, the worse the situation becomes. And where did common sense go? If I see that you need water, I wouldn't send you to a desert to find it. Yet, that's what we do with our oil exploration. Try to find it where we don't know if it exists.

From 2000 to 2007 American oil companies increased the drilling of exploratory wells by 138 percent (on those 68 million acres of existing leases); oil production still fell to its lowest level since 1947. The American Petroleum Institute reported that oil companies had the highest second-quarter oil well activity since 1986.

The United States has successfully developed other forms of energy; clean coal plants, nuclear power, natural gas plants, solar & wind energy. Our most efficient and cheapest forms of energy production are under constant assault from the environmental movement. The U.S. uses 760 gigawatts of power plants to meet current needs. The North American Electric Reliability Corporation (NERC) estimates that we will need 135 gigawatts of new capacity in the next 10 years. As of now, only 57 gigawatts of power plants are planned. Why?

59 coal-fired plants were canceled in 2007 because of anticoal activist.
U.S. production of natural gas is beginning to decline because of environmental restrictions on exploration.
The National Resources Defense Council (NRDC) succeeded in stopping 13 natural gas power plants in southern California.
We have the best scientist, engineers and technicians in the world. Give them the opportunity to solve this challenge and they will. There are many private companies working on new technology to bring to the market. If our government is going to pick winners and losers through subsidies, many companies will not get into the market.

For example, NuScale Power, an Oregon-based startup company, is seeking federal clearance to begin its project to build a mini nuclear reactor. The reactor can power 45,000 homes, is 65 feet long and has no visible cooling tower. NuScale states that these reactors require no maintenance and do not need to be refueled. At the end of its useful life of about 30 years, the plant is returned to the factory.

This type of technology should be welcomed and encouraged by all. With a small footprint & no carbon emissions, these plants could replace many traditional coal and gas-fired power plants.

This situation does not require a billion dollar bail out from our government. Nor does it require raising taxes on the oil companies. Remember, we tried the windfall profits tax with President Jimmy Carter. That led to a 6 percent drop in the production of oil and a 15 percent increase in oil imports, according to the Congressional Research Service.

If congress would step back and allow all of the energy companies to explore and develop energy in a responsible way, we would not have to struggle with high energy costs. Take away all of the subsidies and let the market decide which means of energy is cheapest, environmentally sound and durable. American technology is more than capable of producing efficient energy and protecting the environment.

Instead of trying to spend more of my tax dollars, why doesn't congress spend more of their time, which we pay them for, to fix the regulatory landscape of energy production. Congress needs to enact some common sense environmental regulations. If they do, the market will give us a diverse supply of energy that is reliable - American made - and affordable

It's time to streamline & simplify this process, now.

Portable Cooling Guide - Maintaining Your Portable Air Conditioner

When you need supplemental cooling or you cannot install traditional air conditioners because of impracticality or cost, a portable air conditioner is a great solution. Portable air conditioners can be moved from room to room. They do not require permanent installation. All you need to do to make sure the portable air conditioner works properly is vent it through a window or wall.

The maintenance on portable air conditioners is almost as easy as the set up and operation. Of course, to operate a portable air conditioner the initial venting must be done. This means venting the exhaust hose with a venting kit. This usually comes included with the portable air conditioner when it is purchased and can be slid into a window. If venting through a window is not possible, then venting through a wall or drop ceiling is also acceptable. This helps the portable air conditioner with the cooling process.

Water drainage is also an important component of portable air conditioner maintenance. Portable air conditioners cool and remove water from the air. They use some of the water to cool the unit. This makes the entire process of cooling more efficient. Portable air conditioners deal with excess water in various ways. Some of them collect the water into buckets that need to be emptied regularly. The amount of water in the bucket depends on the climate conditioner and the amount of time the portable air conditioner is in operation. Some units use a self-evaporating technology so that most of the excess water is expended with the hot air discharge. Most air conditioners can support a drain hose so that water can be drained continuously. There are also condensate pumps that move the drained water through a hose that is directed outside or to a drain pump located inside.

Another important factor to consider when performing maintenance on your air conditioner is cleaning and/or replacing air filters. There are washable filters that remove particulates from the air. Some portable air conditioners even have built-in air purifiers that include ionizers for particles and carbon filters for odors and gas control. To maintain an allergy-free, healthy, breathable environment and a properly functioning unit, filters need to be cleaned and changed regularly. Depending on use, you will need to change or clean the filters on a monthly or bi-weekly basis. For washable filters simply slide the filter out, immerse it in warm water with mild detergent and rinse thoroughly before putting it back into the unit. Carbon filters will need to be replaced according to the manufacturer's directions (usually every few months or so.

The housing of your portable air conditioner needs to be cleaned as well. If the air conditioner is clean, the air volume increases. To clean the housing of your unit, wipe the surface with a soft, damp cloth after you have turned the unit off. You should never use abrasive chemicals or detergents because this can result in scratches and damage to the portable air conditioner housing. It is also important to keep the unit out of direct sunlight because this can change the surface color of the unit's body.

As for off season storage, you need to properly store your portable air conditioner when it is not needed to make sure it works with maximum cooling efficiency when it is needed again. To store properly, you'll need to turn off and unplug the portable air conditioner. Next, you should drain all of the condensate water from the water container. Then, to dry the interior of the unit, turn it on fan mode for several minutes. You should then clean the filters, wrap the cord around the cord hooks and pack the unit in its original carton if possible. Make sure you store it in a dry location. Some portable air conditioners have built-in heaters and can be used year-round. You should still maintain these like any other units. Maintaining your portable air conditioners keeps your house allergy free and your unit working properly. Start caring about your portable air conditioner today!

Why Window Air Conditioners Ice Up

One of the most frustrating problems with a window air conditioner is if it starts to ice up. For the owner of the air conditioner is can be perplexing.

When this problem occurs most people immediately think it is the fault of the refrigerant gas. More often the cause is the result of other difficulties.

It is most often the result of poor airflow.

Any time the airflow through an air conditioner is restricted the cooling system becomes affected. If taken to extremes the critical pressure-temperature balance of the cooling coil can be changed. If they drop too low the cooling coils surface temperature can drop below the dew point temperature of the room. When this happens the cooling coil will begin to operate as a refrigerator rather than an air conditioner. Rather than simply cooling the air it will collect and hold moisture. The moisture will freeze onto the cooling coil where it will appear as ice.

The primary job of an air conditioner is to de-humidify, not refrigerate, the room air. By removing the moisture from the room air it gives us a feeling of comfort. To do this though the temperature of the cooling coil must always be higher than the room's dew point. If it is allowed to drop below the dew point the air conditioner will start to produce ice.

With this information in mind the following are a few problems that can result in your air conditioner icing up:

1. Dirty filter.
To avoid this replace or clean your filter every couple of weeks of the cooling season. If a smoker do it every week. To clean filter remove from air conditioner, wet thoroughly, and lay in bottom of a sink. Sprinkle detergent (laundry detergent works well) onto filter surface. Allow to sit for a few minutes. Add warm water to sink so that filter is completely covered. Soak for 15 minutes. Remove from water and rinse. Allow to air dry.

2. Dirty or blocked cooling coil.
An air conditioner requires regular maintenance. Usually every two or three years. Every year would be best, but this can be costly unless you do it yourself. During cleaning the cooling coil should be degreased and washed to remove accumulated dirt and debris. Degreasing is important to remove any coatings on the coil. If not done greasy residue can trap and hold air borne particles. They will build up on the coil and affect heat transfer. If left too long this can result in the cooling coil becoming partially blocked. This will produce a lower airflow.

3. Dirty or blocked condenser coil.
The condenser coil is the one at the rear of the air conditioner. Its job is to dissipate the heat that is being removed from the room. Just like the cooling coil it too must be cleaned every few years. Since the condenser is on the outside of the home it becomes exposed to a lot of dirt, pollen, and smog. Since airflow direction is from inside to outside it is the inside surface of the condenser that becomes dirty. Therefore to clean this part the air conditioner must be completely disassembled. If not cleaned regularly an airflow blockage here can even burn out the compressor. Before this happens though the lowering of airflow will affect the overall operation. This can result in the compressor efficiency dropping, the internal pressure-temperature relationships being affected, and the resultant production of ice on the cooling coil.

4. Inefficient compressor.
As describe above an inefficient compressor can cause icing up. If the compressor is not able to pump the refrigerant properly the cooing coil may not get cold enough to shut off the cold control. It can hover just above the cut off point. When this happens the cooling coil will begin to refrigerate. Ice on the cooling coil will result. If the compressor itself is at fault the air conditioner will have to be replaced. But note that many icing problems are misdiagnosed as bad compressors when they were actually one of the other faults discussed in this article.

5. Not enough refrigerant. Too much refrigerant.
Both scenarios can result in and icing condition. If your air conditioner was repaired recently suspect too much refrigerant. Mixed with an airflow problem this can be difficult to diagnose. If not repaired recently then suspect airflow problems before considering a refrigerant imbalance.

6. Outdoor temperature too low.
Icing can occur if the outside temperature falls below 60 Degrees Fahrenheit. If the outside temperature is too low the air conditioner pressure-temperatures can be affected. When the outside temperature falls the cooling coil temperature will also fall. So much that the coil will refrigerate the room air. This will result in the cooling coil beginning to produce ice. This problem is more prevalent in the fall. If it is hot during the day but cold at night suspect this problem as the cause of icing up. If this problem is suspected try running the air conditioner in the fan only position. Leave the re-circulating vent open. This will circulate the room air without cooling it, while bringing in a small amount of outside air during the night.

7. Oversized air conditioner.
If the air conditioner is too large for the room size icing up can result. If oversized the air conditioner can short-cycle. This condition is usually seen as the air conditioner starting and stopping every few minutes. Even though it runs almost constantly the air conditioner will give poor cooling. Use a sizing chart to determine what is the proper air conditioner size for that particular room.

8. Cold control not shutting off. If the cold control does not shut off the cooling coil surface temperature will drop below the room's dew point and begin to refrigerate. This will allow ice to build up onto the cooling coil.

9. Cold control bulb broken or loose. As in the previous paragraph this will result in the cold control not shutting off and ice to build up on the cooling coil. If this is suspected remove the front grille and inspect the bulb. If broken replace cold control. If bent, kinked, or not securely fastened suspect a problem here.

Also check out our other related articles about air conditioners:

How to Clean your Air Conditioner like a Pro

How to Size an Air Conditioner

Placement of a Window Air Conditioner

Air Conditioners - How to Cut Running Costs in Half

In today's world, most people have invested in one form of an air conditioner or another. We have either window air conditioners in our homes or central air conditioners. They keep us cool in the extreme summer heat without fail; however, have you ever set back and looked at the costs of running an air conditioner? When compared to the common household fan the amount of electricity required to run an air conditioner is phenomenal.

When using an air conditioner there are many different factors that can directly affect the cost of running it. These factors include the geographical location of your home, where you live and the amount of work the air conditioner has to do greatly influence the cost. If you live in an area that has mild summers and extremely cold winters, obviously your air conditioner will not have to work as hard. However, if you live in an area, that has warm winters and boiling summers the air conditioner will have to work double time to maintain comfort.

The difference in weather conditions from year to year will affect the costs as well. This is basically geared towards the difference in costs per year. One summer might be cooler than the next, which will lead to a greater bill.

The efficiency rating of your air conditioner plays an important role in the amount of electricity used. Most all appliances in today's world are rated, when you purchase an air conditioner it will have a tag telling you the amount of electricity that appliance uses. Look for air conditioners that use minimal electricity, which will save you money each year. If you have a model that is 10 years or older, it is definitely time to consider a new one.

Another important factor is the size of the air conditioner versus the house-cooling load. All air conditioners come in different sizes, and each will state the amount of space it is designed to cool. For example, an apartment could do with just one or two window air conditioners, while a three-bedroom house could not. Closely consider the amount of space you need to cool when considering an air conditioner. While larger air conditioners will cost more money, it will typically save you money in the long run on usage.

The setting on your thermostat greatly effects the cost. A higher setting will result in the air conditioner running less, while lowering the setting will cause it to run more often. One electric company suggests keeping the thermostat above 78 degrees. This can save you 10 to 20% on cooling costs.

Finally, the local cost of electricity influences the general cost of running your air conditioner. This is something you have no control over, however, you can control your own cost by saving energy.

Here is a general look at the difference of running an air conditioner vs. running a Ceiling or oscillating fan, at medium speed.

Running a central air conditioner that is three ton (and of average efficiency) for 8 hours per day for 15 days per month, with the average rate per kWh (kilowatt per hour) being 0.17, the average cost per month for the air conditioner alone will be $97.92. Amazing isn't it? This does not even include washer, dryer, lights, refrigerator, or stove, only the air conditioner.

On the other hand, running a ceiling fan or oscillating fan at medium speed, for 8 hours per day, for a full 30 days, at an average rate per kWh of 0.035 is only $1.43. With this comparison you could run 68 ½ fans for a full month before you would reach the cost of the central air conditioning unit.

There are many other things you can do to lower you electric bill. Things such as, inspect, clean, or replace your air conditioner filters monthly. When you are not in your home, raise the temperature on your thermostat, keeping in mind pets when you do. Lower the temperature of your water heater to 120 degrees, wash only full loads in your dishwasher or clothes washer, and use the energy saving cycle on the dryer.

Other steps you can take include, replacing incandescent bulbs with fluorescent lamps, this could save up to 75% on lighting costs. You should also caulk all windows, doors, and pipes to prevent air leaks in or out, use weather stripping around windows, doors and pipes as well. Have your ducts tested for air leaks; leaking ducts can reduce the efficiency of your air conditioner by up to 20%.

Window and Portable Air Conditioners

Perhaps the most widely used air conditioners are the window air conditioners. They are quite popular for heating and cooling in both domestic and commercial premises. The basic advantage of a window air conditioner is that unlike the central air conditioners and the split air conditioners, it fits well in the window giving a good look and it does not occupy any space of the room at all.

Moreover, window air conditioners do not need to be shifted every now and then from one place to the other. However, like any other air conditioning equipment, it produces noise, the intensity of which differs with the type and size of the window air conditioners. Constant noise can indeed be very disturbing and distressing to the home and surrounding residents.

It is, therefore, advisable for the consumer to compare window air conditioners by checking the sound power level labels on the unit or in the literature specifications. The noise levels are often given in decibel ratings and the higher the decibel level, the louder the unit will be. The sound pressure increases by a factor of ten for every 10-decibel increase. For example, 60 Decibels is 10 times louder than 50 Decibels and 100 times louder than 40 Decibels.

The compressor and the fan are combined in a single unit and mounted in the window air conditioners and this is the source of all the noise in the air conditioner. The other causes of noise could be worn bearings, cabinet rattles, dirty or rusty fan blades, worn rubber mountings and compressor wear. Regular maintenance can reduce the noise to some extent but with the passing of time, there is bound to be an increase in the level of the noise.

You should check whether your window air conditioner is vibrating or producing a rattling noise and if so, then it is not a normal situation. The reason for this can be improper installation or loose side panels. If, however, you hear a scraping noise, you should either take the help of an authorized service provider or you can also try to find out the cause and repair it yourself.

The following steps can help you in tracking the fault and repairing it:

You should tighten the screws holding the front panel onto the unit.
You should check carefully the window all round the unit. You should then turn the window air conditioner on and press your hand against the sash. If you find that as you press your hand against the sash, the sound changes in pitch, then you should put some wooden shims in the gap between the window air conditioners frame and the sash. If, however, the pitch of the noise changes when you press your hand on the glass, you should use some insulating cellophane tape between the glass and the frame. You might have to use putty if that does not reduce the noise.

If you feel that the sound is originating from within the unit, you should take the unit out of the window and check to see if the fan blades are bent. If so, just bend them back so that they match the others.

Portable Air Conditioners Ensure Economy And Convenience

With the onset of the damp weather, it becomes difficult to survive without constant central air conditioning but that can prove to be quite expensive. The answer to this problem is a portable air conditioner as it has many advantages. It is easy to shift from one place in the home to another and that makes a portable air conditioner the ideal cooling system solution for your home, office or industrial site.

The portable air conditioners are easy and quick to install, as they do not involve any lifting or tearing up of windowsills. Moreover it can be shifted very easily from one place in the home to the other. For taking care of the hot spots in the central air conditioning, the portable air conditioners are far more convenient than window air conditioners. It is also ideal for window shapes, which present problems for installation. There is nothing like portable air conditioners for use as a spot cooler in the home.

A portable air conditioner is an excellent choice for saving money as just one unit needs to be purchased and it can be shifted easily to where you need it as it is mounted on castors and some can weigh only about 36 pounds. Moreover, as only one room is cooled at a time instead of the whole house, the total energy consumption is very low as compared to other air conditioning systems.

Another advantage of portable air conditioners is the energy efficiency that they provide. The average efficiency is in the 8 to 10 range although some are as high as 15, which is 50 percent better than most older central air conditioners. The small size of the portable air conditioners is very advantageous and as such it can fit in a corner or against a wall. It functions like an effective dehumidifier if you do not vent the warm exhaust air out through a window and its size is also the same as that of a room dehumidifier.

In order to reduce humidity and allergies, even the small ones remove 35 pints of moisture per day from the room air. The portable air conditioners also use the heat-exchange principle as the other air conditioners to cool and dehumidify the air. The operating principle is also similar to a window air conditioner as the room air circulates over cold evaporator coils to cool and dehumidify it inside the unit. The room air is exhausted outdoor after flowing over the hot condenser. There is no chance of already-cooled indoor air escaping outside as two ducts are now used.

Nowadays, you have electronic controls in most models and you can set the desired room temperature, blower speed, start and stop timer, and operation mode (cool, dehumidify, heat). The portable air conditioners also have hand-held remote control with which you can conveniently change all the settings as per your need.

The other features of portable air conditioners include a built-in air cleaner with an optional charcoal filter and oscillating louvers to distribute the cool air throughout the room. You can also switch off the louvers to direct the flow of air towards yourself, if you so desire.

Energy Efficiency - Purchasing an Energy Efficient Room Air Conditioner

Are you in the market for a new air conditioner? Have you been considering a room air conditioner instead of a central air conditioner but aren't sure what you should be looking for? Purchasing an air conditioner of any type should be researched before hand simply due to the amount of electricity your air conditioner could potentially use. If you purchase the wrong unit you may end up with extremely large monthly electric bills and inefficient cooling.

As a consumer you definitely want to find the best performing unit for you. You want to find a unit which is very energy efficient because not only will it save you money in the long run, it's better for the environment as well. Energy efficiency is about making the best or most efficient use of energy in order to achieve a given level of comfort and convenience.

What is a Room Air Conditioner?
A room air conditioner is an air conditioning system designed to cool a room or rooms instead of the entire house. Do you live in a smaller home, townhouse, condo or even apartment? Would you prefer or do you require a non-permaneant air conditioning installation? If you answered yes then a room air conditioner may be a good matched for you. In comparison to central air conditioners, room air conditioners are dramatically less expensive to operate - even though they are often less efficient.

While central air conditioners often need higher voltage connections a room air conditioner can often be plugged into any 15- or 20-amp, 115-volt household circuit. If you have a larger room air conditioner you may need a dedicated 115 volt-circuit. In only the most extreme cases will you ever need a dedicated 230-volt circuit.

Room air conditioners are often vented or window mounted so they can effectively expel hot air out. Be wary of any room air conditioner that does not offer proper ventilation.

How are Room Air Conditioners Rated?
If you are familiar with central air conditioners you may be already familiar with the SEER or Seasonal Energy Efficiency Ratio. Room air conditioners are rated not on in SEER but rather in EER or Energy Efficiency Ratio. The EER of a given room air conditioner is calculated by dividing the cooling capacity in British Thermal Units (BTU) per hour by the power input in watts. You can find room air conditioners offering a range of cooling powers from 5,500 BTU per hour to 14,000 BTU per hour.

While the national appliance standard requires that any room air conditioner built after 1990 to have an EER of 8.0 or greater, and the latest Energy Star standards require in some cases an EER of 10.7 or greater I support the American Council for an Energy-Efficient Economy's (ACEEE) recommendations. The ACEEE recommends at least an EER of 11.6. Why? This will guarantee your unit is energy efficient throughout the year and when it is needed most - the hottest summer months.

Selecting a Room Air Conditioner
Once you've decided to purchase a room air conditioner make sure you look for the Energy Star label. If every room air conditioner sold in the U.S. were Energy Star qualified, we could prevent 1.2 billion pounds of greenhouse gas emissions to put that into perspective that is equivalent to the emissions from 100,000 cars. Energy Star room air conditioners use at least 10% less energy than conventional models.

In the room air conditioner game Energy Star isn't the only certification to be looking for. You should also look for Association of Home Appliance Manufacturers or AHAM Certified units. Why? AHAM Certified room air conditioners have their EER ratings verified by an independent laboratory.

Getting the Right Size
Room air conditioners like all air conditioning units are rated by the number of British Thermal Units (BTU) of heat they can remove per hour. Another common way of rating air conditioners is by the "ton," some example are 5,500 BTU per hour or 14,000 BTU per hour.

Getting the right size room air conditioner for your application is crucial. If you get the wrong size you can easily waste large volumes of electricity. The size of your air conditioner depends upon:
  • How large is your home and how many do you have?
  • How much shade do you have? Do you have shade on your home's windows, walls, and roof?
  • Are the ceilings and walls of your home insulated properly?
  • Do you have air leaks?
  • How much heat do you, the occupants, and appliances generate?
Remember the key to any air conditioners efficiency and performance depend on you properly matching the size of the AC unit to your specific application.
If you find this a bit confusing then you can always use the free AHAM tool. AHAM offers a handy online tool which can help you calculate your air conditioner (or evaporative cooler) needs.

Installing your Room Air Conditioner
When you install a new room air conditioner you should try to locate the air conditioner in a window or wall area near the center of the room. It is also beneficial to install your air conditioner on the shadiest side of your house. Try not to let your installation increase air leakage - you can minimize this by fitting the either the room air conditioner or its ventilation snugly into its opening and sealing gaps with a foam weather stripping material.

Are Room Air Conditioners my only non-permeneant cooling option?
If you live in a drier climate, somewhere with a relatively humidity level below 50%, then you may be well matched for an "Evaporative Cooler" sometimes referred to as a "Swamp Cooler." An evaporative cooler cools by using a fan to force air through moistened pads. As the hot air passes through the pads, the pads absorb the heat and cool the air in some cases as much as 15-20 degrees.
Evaporative coolers are not for everyone. In the wrong climate, in the wrong conditions an evaporative cooler can create conditions of high humidity in the air which in turn can cause condensation and even corrosion.
In the right conditions and climate, evaporative coolers, can provide cost very effective cooling. When compared to air conditioners, evaporative coolers use an average of 75% less electricity. Evaporative coolers are very energy efficient.
If you think you are a good candidate for an evaporate cooler you can use the free AHAM tool referenced earlier to calculate the proper size for your specific application too.
In many parts of the world air conditioning can seem like a life saver, but it comes at a cost - first in dollars spent for electricity, and second in carbon dioxide pollution from the generation of electricity. According to the the American Council for an Energy-Efficient Economy (ACEEE) we create an astounding 140 million tons of CO2 cooling our homes. You can easily save electricity by purchasing a correctly sized Energy Star rated room air conditioner. 
By saving electricity you are doing your part to fight global climate change.

Sunday, 31 October 2010

Has Coal Gasification's Time Arrived

The global economy is affecting our industry dramatically. Rising demand for oil and natural gas means that power generators and industrial plants will be desperate for basic feedstock that helps feed the American economy.

New technologies will be created and innovation in our industry will continue to grow, which will invariably lead to more inventive uses for coal. With the right incentives and under the proper market conditions, companies will introduce relevant products and services too meet these needs and demands. Without this type of thinking in the energy sector -- where the ever-increasing demand for power and gas is tapping the availability of vital fuels and putting upward pressure on prices, it will result in dire consequences to the global economy.

As we all know, natural gas is a finite resource, which at the current rate of production and consumption would last about 60 more years in the United States. We also must face the fact that developing nations will expand and demand more of the world's oil and natural gas to fuel their growth. Since the U.S. comprises approximately five percent of the world population but uses about 30 percent of the energy, it is inevitable for that balance to shift, especially in light of the shift in manufacturing capacity to overseas markets.

With India and China seeking the same resources as the United States, costs for these commodities will rise. For instance, the U.S. Energy Information Administration (EIA) projects oil consumption to increase by 1/3 through 2030 while electricity demand will rise by 50 percent over the next decade. Some experts predict this will lead to oil that may cost as much as $100 a barrel while natural gas could run as high as $8+ per million BTUs, in the same time period.

As oil prices rise, it usually causes other commodities such as natural gas and coal to rise as well, generally at a lesser rate than oil. Coal typically rises at a rate of 40% of that of oil, making it the cheapest and most abundant alternative to oil, which would explain why the EIA projects its use to climb over the next two decades and does not expect nuclear or renewable energy to reduce coal's market share during this time.

There are solutions to the increasing demand for energy, and include several which use coal as its feed stock. Coal-to-liquids, is one in which coal is broken down to form a fuel oil. While potentially much cheaper per barrel than oil, it is capital intensive and requires that oil prices stay high to motivate investors to risk this capital. Coal gasification plants are another technology we have seen in the limelight in our industry. These are power facilities that clean the impurities from coal before it is burned and sent out the smokestack, or in most recent developments (mimicking a DOE project from the 70's), creating pipeline quality natural gas (PQNG).

When coal is burned, it produces sulfur dioxide and nitrogen oxide, which produces acid rain and smog. In addition it produces particulate matter and mercury. Under the Clean Air Act, those pollutants must be removed from exhaust gases that come out of the smoke stack. Coal combustion also produces carbon dioxide, which is not currently regulated. However the pressure to do so is increasing.

Coal gasification removes the sulfur dioxide, mercury and carbon dioxide from the "syngas" before it is combusted or converted to PQNG, say experts. And because the "syngas" is cleaner than raw coal, lower quantities of nitrogen oxide and particulate matter are produced during the combustion process. The carbon dioxide is more concentrated, which makes it easier to capture.

Four coal gasification power plants are now operating: two in the United States and two in Europe. American Electric Power expects to have engineering studies completed next month on two possible coal gasification plants in Ohio and West Virginia. It would like to have one or both facilities operational by decade's end. Duke Energy has picked up Cinergy's proposed coal gasification plant in Ohio, since the merger of the two organizations.

There are viable options to help reduce the global dependence on oil and natural gas. Employing energy efficient technologies is a good start as well as turning waste energy into power and heat.
To keep the global economy viable, creative solutions involving all different fuel forms are necessary. Coal will continue to play a major role, however the form of that role appears to be changing. New technologies are on the verge of becoming commercially commonplace, and those utilities who utilize the traditional combustion method must commit to controlling their emissions and their carbon footprints. Regulatory and market pressures are giving coal a chance to reinvent itself, and with oil and gas prices at their current levels, and no major relief in site, the bulk of the new power required will likely be provided using coal, the workhorse of the industry.

Coal is not without its problems. Eastern spot prices for coal have risen, and have reached their highest levels in more than 25 years. This is the second time in 4 years that coal prices have more than doubled their pre-2000 pricing levels . This spike has caused prices in new long term contracts to rise as well. The current prolonged spike in Eastern spot prices is mainly due to supply shortages, as demand has not grown much in recent years.

There are several reasons that coal prices have spiked. The coal industry has undergone significant consolidation over the past 15 years, with indications pointing to a continuation in that trend. The top ten producers controlled 64% of coal production in the U.S. in 2003, compared to only 36% in 1989. Three companies control 60-70% of production in the Powder River Basin, Northern Appalachia, and Colorado/Utah. This consolidation has contributed to the volatility of spot prices by reducing excess mining capacity along with the number competing for coal contracts.

The reduction in the number of small mines has affected the price of coal in recent years as well. An example of this is a 68% reduction in the number of small mines in Central Appalachia from 1989 to 2003. By reducing the number of small mines, the ability to meet spikes in demand are reduced, resulting in price spikes in the spot market.

There are other factors contributing to rising coal prices; including increase in demand, even though over the last 5 years the increase has been small. Other contributing factors are the reduction in the size of U.S. utility coal stockpiles, the reduction in miner productivity in all of the major coal producing regions (except Northern Appalachia), pressure from U.S. export coal demand, and the reduction decrease in the number of Class 1 railroads. 

With spot market coal prices increasing, where do the opportunities for coal exist? They exist with integrated coal gasification combined cycle plants. Gasification, also known as partial oxidation, has been commercially practiced for many years; especially in the chemical industry, where most of the installed plants produce ammonia, hydrogen or other chemicals. The feedstock for these plants has included natural gas, oil-derived fuels, petroleum coke and coal. Integrated Gasification Combined Cycle (IGCC) is often proposed as an alternate method of converting environmentally disadvantaged fuels into electricity. Some believe that IGCC units will not be built in the short term unless natural gas prices remain elevated, there is high load growth and a national cap on CO2 emissions are implemented. However, with the arrival of the Clean Air Interstate Rule (CAIR) and the Clean Air Mercury Rule , and the availability of high sulfur (i.e. 7 lb. /MMBtu) coal, such as Illinois Basin coal, (See Figure 2) the market for these fuels rests on a technology like IGCC and other gasification processes, which benefit from high sulfur content and which reduce emissions simultaneously. The technology's main long-term advantage is its ability to control greenhouse gas emissions. Integrated gasification combined cycle technology, combined with the sequestration of carbon stripped out in the process, is as close to a perfect solution for environmental emissions as there is. The biggest challenge will be to make it a reality, in light of the costs to develop gasification projects and their financial ramifications.

Gasification History
Gasification technology, although new to the power sector, has been widely used in the chemical industry for decades. Almost ten years ago, Tampa Electric opened an innovative power plant that turned coal, the most abundant but the dirtiest fossil fuel, into a relatively clean gas, which it burns to generate electricity. The plant emitted significantly less pollution than a conventional coal-fired power plant, and it was also 10 percent more efficient. 

Though there are many gasification plants currently on the drawing board, since that plant opened, however, no other similar plant has been built in the United States, mainly due to the price of constructing such a plant, (about 20% more expensive than to build a conventional pulverized coal unit) and to the abundant supply of natural gas, which had been, until recently, a lot cheaper.

In recent years there has been downward pressure on that price differential. GE Energy, a division of General Electric claims the technology offers operational cost savings that offset some of the higher construction costs. In addition, if Congress eventually limits carbon emissions, as many energy industry experts say they expect them to do, the technology's operational advantages could make it a bargain.

There are now several utility executives who are proponents of gasification, because they assume a carbon constrained world is inevitable. Duke/PSI, Bechtel, and General Electric Company have signed a letter of intent to study the feasibility of constructing a commercial, integrated gasification combined cycle (IGCC) generating station. This is the first plant of its kind announced under a GE-Bechtel alliance. However other projects utilizing this same alliance are close behind.
The operating savings for IGCC plants result from a number of factors, including more efficient combustion (15 percent more than conventional plants do, resulting in less fuel consumption). The plants also use about 40 percent less water than conventional coal plants, a significant consideration in arid locales, and given the increasing difficulty of securing water rights.
Many in the industry who anticipate stricter pollution limits believe the primary selling point of IGCC plants is their ability to chemically strip pollutants from gasified coal more efficiently and cost-effectively, prior to burning, rather than trying to clean the emissions on the back end.
Supporters of the technology believe that half of coal's pollutants - including sulfur dioxide and nitrogen oxides, which contribute to acid rain and smog - can be chemically stripped out before combustion. So can about 95 percent of the mercury in coal, at about a tenth the cost of trying to scrub it from exhaust gases racing up a smokestack.

The biggest long-term draw for gasification technology is its ability to capture carbon before combustion. If greenhouse-gas limits are enacted, that job will be much harder and more expensive to do with conventional coal-fired plants. It is estimated that capturing carbon would add about 25 percent to the cost of electricity from a combined-cycle plant burning gasified coal, but that it would add 70 percent to the price of power from conventional plants.

Disposing of the carbon dioxide gas stripped out in the process, however, is another matter. Government laboratories have experimented with dissolving the gas in saline aquifers or pumping it into geologic formations under the sea. The petroleum industry has long injected carbon dioxide into oil fields to help push more crude to the surface. Refining and commercializing these techniques is a significant part of a $35 billion package of clean energy incentives that the National Commission on Energy Policy is recommending.

The recent energy bill has some incentives for industry to adopt gasification technology, and the Department of Energy will continue related efforts. These include FutureGen, a $950 million project to demonstrate gasification's full potential - not just for power plants but as a source of low-carbon liquid fuels for cars and trucks as well, and, further out, as a source of hydrogen fuel.
The Integrated Gasification Combined Cycle Process

In the IGCC process, coal or another carbon containing material (petroleum coke, coal fines, and residual oil) is converted to synthetic gas, composed mainly of carbon monoxide and hydrogen, which is cooled, cleaned and fired in a gas turbine. Next the gas turbine generates hot exhaust that passes through a generator to produce steam to power a steam turbine, whereby electricity is produced by both the gas and steam turbine-generators.

The feedstock is prepared and fed to the gasifier in either dry or slurried form. The feedstock reacts in the gasifier with steam and oxygen at high temperature and pressure in a reducing (oxygen starved) environment. This produces the synthesis gas, or syngas, made up of more than 85% carbon monoxide and hydrogen by volume, and smaller quantities of carbon dioxide and methane.

Coal gasification is a chemical process that removes potentially harmful matter such as sulfur and volatile mercury from the synthesis gas before combustion, when they are much easier and less expensive to remove. Non-volatile heavy metals can be removed in a non-leachable slag which can be usable in construction and building industries, becoming a potential added revenue stream for such a plant. The removal occurs because of the high temperature in the gasifier, and results in inorganic materials such as ash and metals into the vitrified slag material, resembling course sand. With some feedstocks, valuable metals are concentrated and recovered for reuse. The synthesis gas that is produced is much cleaner than raw coal, so it produces lower quantities of particulate matter and nitrogen oxides when it goes through the combustion process.

IGCC vs. Coal Combustion
There is a dramatic difference in the level of pollution reduction when comparing an IGCC facility to that of a traditional pulverized coal plant. A pulverized coal plant produces flue gas and flyash which compose the majority of the pollutants from the coal. Though the flue gases can be cleaned using current technology, which is capable of removing a large portion of the pollutants, it is not without cost, and those costs can be prohibitive.

Gasification on the other hand removes these pollutants more effectively and efficiently, without producing the additional wastes that the coal combustion process does, such as additional carbon dioxide, and sludges that contain sulfur (up to 5 lbs./lb. of sulfur removed). The removal of volatile mercury and carbon dioxide is a much more expensive process in traditional combustion plants, and it appears that this requirement will soon be looming over the industry, due to continued environmental constraints. To remove high levels of mercury from a coal combustion plant, it requires the injection and removal of powdered activated carbon, and the success depends heavily on the coal feedstock and other pollution control equipment
An Example of the levels emissions from an IGCC plant compared to a supercritical pulverized coal plant (SCPC) is in Table 1.

Table 1
Pounds of Pollutants per MWh
Pollutant IGCC SCPC
SO2 0.47 1.19
NOx 0.50 0.72
PM-10 0.06 0.16
Pollutant IGCC SCPC
Hg (Volatile Mercury) >90% Removed 30-80% Removed
Source: Eastman Gasification Services
1) Assumes Eastern bituminous coal with 2.2% sulfur
2) For IGCC, NOX is corrected to 15% O2, For SCPC NOX is corrected to 6% O2
3) Assumes IGCC plant is equipped with an amine scrubber, packed activated carbon bed for Hg, and no SCR
4) Assumes SCPC plant is equipped with wet flue desulfurization
The levels of pollutants for an IGCC can achieve additional reductions from those shown in Table 1, by using enhanced sulfur removal technologies such as Rectisol.

IGCC Economics & Financing
One of the hottest topics in the industry these days is coal gasification and IGCC. At recent industry conferences, the coal gasification sessions were standing room only. Commercial banks are interested in the topic as well, but not without reservations. The attraction is the potentially lucrative offtake agreements from such a project. Depending on where the plant is situated, as much as 30 percent of a project's revenues can come from non-electricity production, for such things as hydrogen, nitrogen, sulfur and carbon sequestration.

One of the biggest problems with the growth of IGCC in the past is that the turbines and the gasification equipment came from different vendors, and no one wanted to guarantee the whole package, since there were uncertainties related to the other's equipment. In 2003, Eastman Chemical Company's Eastman Gasification Services Company signed a cooperative agreement with ChevronTexaco under which Eastman was to provide operations, maintenance, management and technical services to ChevronTexaco projects. In 2004, GE acquired the Chevron-Texaco gasification technology, and has paired that up with their existing turbine business, with guarantees around both. In addition they have partnered with Bechtel in a consortium, in order to construct the plants. Eastman Gasification continues to be prepared to provide their services to these projects. All these collaborative efforts help lend credibility and financability to these projects, by helping to eliminate the technology's risk.

The total cost associated with building an IGCC facility is around $1 billion+, with some industry experts claiming that the technology costs 20% more than a pulverized coal plant. Without substantial federal and state subsidies, the future of IGCC technology is considered by some to be dim. In addition, credit ratings may be at stake for utilities, making airtight commitments with regulators a necessity, in order to avoid negative rating action. Strategies to manage the financial and regulatory risks will have to be in place to help insure this.

According to Eastman Gasification Services Company however, the capital costs for new coal gasification power plants are now estimated to be at parity with the newest generation of pulverized coal power plants. The capital costs for pulverized coal plants have risen in recent years and are projected to continue in that direction, due to the increasing severity of federal air pollution regulations. With coal gasification, there are fewer environmental side effects, and it is predicted that the costs will actually head downward as commercialization of the technology moves forward, improvements are incorporated into future designs and increased operating experience is realized.

Solid fuel plants have been recently bid for less than $1,000/kW on a turnkey basis, which is 30-40% of the cost of the first few IGCC plants. Since then, capital cost reductions have been achieved through gas turbine performance improvements, gasification system enhancements, IGCC configuration changes, and finally by moving further down the learning curve in the EPC process that has provided additional efficiencies. An example of configurations changes that have reduced costs is GE's coupling of a 9FA based combined cycle with high efficiency quench (HEQ) which resulted in a 10% reduction in costs of electricity. The reduction was due to a large portion of the high temperature heat exchanger in the gasification plant being eliminated. GE's next generation of gas turbines, such as the GE "H" machine, are expected to provide significant performance improvements and capital cost reductions. These types of improvements will continue to provide additional economic benefits for IGCC. The capital cost of an IGCC plant is estimated to be between $1,200 to $1,400/kW and is expected to go down from there. This range is competitive with the newest generation of supercritical pulverized-coal plants

When you consider total variable costs for a coal gasification plant versus any other fossil fuel based electric power generating facility, (including natural gas) O&M, fuel, waste disposal, and byproducts credits, they are much better with coal gasification. This is a result of the higher O&M costs of coal gasification being offset by lower fuel costs from higher efficiency, lower environmental treatment costs, and lower waste disposal costs. In addition, with the production of marketable by-products such as hydrogen, nitrogen, and sulfur, additional revenue streams can be provided. Finally, with the looming Clean Air Mercury Rule limiting the emissions from new power plants, and expected carbon removal requirements likely being instituted in the future, the costs for removal of these constituents has to be considered, and it is much less for gasification than other technologies.

With gas prices increasing to their current levels, the ownership cost of an IGCC has become competitive with that of conventional, natural gas-fired combined cycle plants. The range that this remains true is when natural gas rises above $4/mmBtu. Most forecasts of long range gas prices indicate that gas will be above this level for the foreseeable future.

State & Federal Incentives for Development
The Clean Coal Power Initiative (CCPI) is the President's response to the National Energy Policy recommendations for developing advanced clean coal technologies to ensure clean, reliable, and affordable electricity for the future of the U.S. CCPI is a ten year, $2 Billion DOE program involving multiple solicitations for coal-based power generation technologies that significantly enhance efficiency, environmental performance, or economics relative to state-of-the-art technologies. The purpose of the program is to try to accelerate the implementation of these new advanced technologies through demonstration at the commercial-scale level. They require 50% cost sharing by industry participants.

Many states, whose coal industries have been dramatically affected by environmental laws requiring reductions in sulfur, have implemented various incentives, including grants and tax abatement, in order to encourage the use of coal mined in their state. States whose resources include high sulfur coal, such as that found in Illinois, western Indiana and Kentucky, Ohio and various areas in Appalachia have borne the brunt of the job losses in the coal industry, and have seen the market for their coal being dramatically reduced. Many of these states are anxious to put these mines back in business and their unemployed miners back to work. The incentives were put in place to do that, and many of these incentives are specifically focused on IGCC, in order to spur development, while acknowledging the concerns of environmentalists.

Indiana
Early in 2005, clean energy legislation unanimously passed out of the Indiana Senate which provides additional incentives for clean coal gasification plants. Senate Bill 378 provides tax credits for companies who build and operate integrated coal gasification power plants in Indiana. The legislation established the Coal Gasification Technology Investment Tax Credit, which applies to newly constructed IGCC plants that exclusively use Indiana coal. The amount of the tax credit would equal 10 percent of a $500 million investment plus 5 percent of the investment above that amount. The tax credit would be divided over a ten year period.

In April 2005, Indiana's General Assembly passed tax incentives that would save Duke $75 million on a $1 billion IGCC plant that they are considering building in a cooperative arrangement with GE/Bechtel, if it were powered with coal from Indiana's mines.

In 2002 Indiana's governor signed a clean-coal law, whereby electric utilities either building new generating stations or repowering existing power plants using Illinois Basin coal are eligible for potential financial incentives including up to 3% over their normal rate of return. The Indiana Utility Regulatory Commission (IURC) determines the actual level of incentives to be awarded on a case-by-case basis. 

Since 1987, coal consumption in Indiana has increased by 30 percent, while Indiana's coal production had increased by only 3 percent. Currently over half of the 43 million tons of coal used to generate electricity is imported into Indiana. If Indiana coal were to replace 22.5 million tons of the now imported coal, it would add $1.35 billion and 18,000 jobs to that state's economy. Therefore it is obvious why the state has implemented these incentives.

West Virginia
West Virginia, through using coal as its premier electric generating source material, receives $13.1 to $17.3 billion of annual economic output, $4.1 to $5.6 billion of annual household income; and 111,747 to 162,143 jobs. Taken a step further, coal is responsible for $66 to $114 billion of annual state economic output, $38 to $55 billion of annual household income and 1.1 to 1.7 million jobs, across the entire Southern Appalachian region. In other words, coal is a huge part of their economy, and it is likely to negotiate incentives to use some of their high sulfur coal

Kentucky
The Kentucky Coal Association (KCA) has declared that economic incentives to promote Kentucky coal are a priority for the 2006 legislative session and during the interim committee meetings. KCA has helped pass legislation in the past including severance tax credits for thin seam coal and incentives for utilities to burn Kentucky coal, so it is a reasonable expectation that they will be successful in putting incentives in place.

Numerous governmental programs exist in Kentucky that might benefit an IGCC facility. These include:
-Enterprise zone programs
-Tax increment financing
-Tax credits
-Job assessment fee
-Industrial revenue bonds

Ohio
The Ohio Coal Development Office (OCDO), within the Ohio Air Quality Development Authority (OAQDA), co-funds the development and implementation of technologies that can use Ohio's vast reserves of high sulfur coal in an economical, environmentally sound manner. Ohio generates nearly 90 percent of its electricity from coal and is the third largest consumer of coal and the fourth largest consumer of electricity in the U.S.

Projects supported by the OCDO are sought through public solicitations and requests-for-proposals and cost-share is required. Proposals are reviewed by independent technical reviewers, and then submitted to the Office's statutorily created Technical Advisory Committee (TAC), a 15-member group comprised of public and private members having an interest in coal, power production, and the environment. Projects favorably recommended by the TAC are submitted to the OAQDA for final approval, then grant negotiations commence.

Illinois
Illinois has an extensive program in place to provide incentives to those willing to use high sulfur Illinois Coal which will put unemployed miners back to work. In recent years, the State of Illinois passed the Coal Development Act, which has the following provisions:
-Provides $3.5 billion in bonds for coal and energy projects under a consolidated Illinois State Finance Authority
-Allows sales and utility tax exemptions for new power plant construction started after July 1, 2001
-Gives property tax breaks of up to $4 million over 10 years for new power plants and transmission lines
-Orders the Governor Energy Cabinet to help develop clean-coal technology, help power companies gain required permits more quickly and look into creating a transmission corridor from the south to the north part of the State
-Calls for the IEPA to start investigating more limits on SO2, NO2, mercury, and CO2

The Department of Commerce and Economic Opportunity has pushed coal infrastructure grants through its Office of Coal Development and Marketing (OCDM). The coal infrastructure grants aim to increase domestic and international use of Illinois coal. The Illinois Clean Coal Review Board, established by Southern Illinois University and funded initially by monies from the sale of power plants of Commonwealth Edison Company, provides grants to innovative technologies seeking to increase utilization of Illinois coal resources.

In Illinois, programs that might benefit an IGCC generation facility include:
-Enterprise zone programs
-Grants
-Temporary property tax relief
-Tax increment financing
-Development corporation loan program
-Community development assistance program
-Work force development program
-Community block grant program
-Linked deposit program
-Others

Conclusion
With the costs of BTU's on the rise across the board, including not only natural gas and crude oil, but coal as well, the overall challenge in the energy business today comes down to replacing a higher cost Btu with a lower cost and being able to finance the cost differential. To do so means the banks and financial community have to believe that the spread will remain great enough between the sources for the life of the project, or mechanisms must be in place to protect these investments.

With recent advances in IGCC technology and development, including the ability of these facilities to burn high sulfur coal, such as that found in the Illinois Coal Basin and other high sulfur coal reserves, while meeting or exceeding all necessary environmental regulations, Gasification became a viable source of energy. Coupling those advances with public and governmental support of the technology by way of loans, grants and tax abatement, the bundling of the turbine provider with the gasifier so that they can wrap the guarantees, and improvements in operations, Integrated Gasification Combined Cycle technology is likely to become the solution to the looming domestic energy needs of the United States.

These improvements have opened the door to development of new IGCC generation facilities, such as the one by Duke, AEP, Southern Company, Exelsior Energy, Steelhead Energy, etc. However, an investigation of the transmission, fuel, and water availability, as well as, an understanding of the environmental and stakeholder issues is still critical to the identification and development of attractive sites, just as with any power plant option would require. As we have seen, these pieces can fit together in numerous ways highlighting the existence of numerous attractive sites in the Illinois Coal Basin and elsewhere in high sulfur coal territory, where there is potential to negotiate long term coal contracts for coal whose demand isn't as high as it once was. Many believe the coal in this region will some day be the center of a huge energy complex for the U.S. Furthermore, with the increase in gasification projects that gasify coal and convert it to either PQNG, ultra-clean diesel or other liquid fuels, gasification is becoming closer and closer to being a commercial reality. Some of these gasification projects are even looking to partner with renewable energy technologies in order to achieve additional economies and convert non-dispatchable power to a dispatchable source by combining the technologies.

There is still a capital cost premium for gasification. In the interim (approximately 3-5 years), before commercialization, operation improvements and/or new environmental regulations narrow the price differential gap of gasification's capital costs as compared to those of other technologies, incentives provided by both state and federal sources, coupled with long term contracts for the high sulfur coal and the use of hedging strategies, will be the way the first wave of gasification plants will get built. In the near term, these projects may be able to achieve the required economics through the sale of various byproducts, such as enhanced oil recovery, sulfur, and other chemicals.

Acknowledgements
I would like to thank Steve Shaw of Power Holdings, LLC and Dennis Corn of Eastman Gasification Services Company for their insight and advice.

Mr. Brian Hill is the co-founder of Superna Energy LLC in Chicago, Illinois. Superna is a full-service management consulting firm providing services to the Energy and Utility Industry, with a primary focus on new generation.

Mr. Hill has over 23 years of experience in the energy industry. Prior to forming Superna, Mr. Hill was MCR Performance Solutions, a consulting and technology firm and was an owner of MWH Global, a $1 billion worldwide energy, environmental and water engineering/construction conglomerate. Prior to MWH he held management roles with Sargent & Lundy LLC, a $300 million international engineering firm focused on global energy infrastructure projects. Mr. Hill started his career with Exelon Corporation, a $15 billion electric utility holding company, where he spent more than 14 years in various management roles.

Mr. Hill received a B.S. degree in Mechanical Engineering from Marquette University and is a licensed P.E. in the State of Wisconsin. He also earned a masters degree in business administration from Loyola University

Russia As an Efficient and Clean Global Energy Provider

Russia as an efficient and clean global energy provider
Russia has enormous potential to be both an efficient and clean global energy provider. Although Russia has a global image as an oil and gas supplier, the "tide is turning" as clean energy initiatives and strategies give rise to investment opportunities and a New Energy Russia.

Why should Russia be interested in efficient and clean energy and what are the benefits?
Russia is one of the largest energy providers in the world and also one of the world's most inefficient energy users and producers. Increasing efficiency will lead to cost savings which can then be channeled into clean and alternative energy projects to capture new and growing market share in the global energy market.

The global demand for alternative and clean energy is growing every year and Russia has a chance to capitalize on this demand with a country full of opportunities to provide clean energy not only domestically, but globally. To do this Russian companies and the Russian government must reverse the relaxed and short-sighted view that Russia will forever live and prosper from the sale of oil, gas, and coal.

Russia can also benefit from positive PR as being a reliable, efficient, and also clean energy provider which is well positioned for life after oil.

Implementation Strategies for clean energy in Russia
Knowledge and technology exchange - This can include scientists, engineers, companies, and governments sharing information and collaborating together to create new energy solutions and technology. As the Russian government plays a key role in Russian energy, their support is the key to driving growth in the market.

Funding of projects, companies, and research - Long-term capital and funding for alternative energy projects and companies is a major necessity as new energy projects can require large up-front investments. Again, the Russian government will be crucial for this strategy as it controls a large share of the Russian energy market.

Public awareness and acceptance including subsidies and tax incentives - The average Russian person, much like the average Russian company and government official, is indifferent at best to implementing clean energy solutions. The best way to change this perception would be a PR campaign aimed at creating awareness and a call to action for citizens and companies to implement clean energy solutions. The Russian government could also offer subsidies and tax incentives for investors to promote the growth of new companies, technology, and production of clean energy in Russia.

Legal Restructuring - Re-working and re-writing laws in Russia to support clean energy initiatives is essential for opening the energy market for growth in clean energy solutions.

Alternative Energy Options
Biofuel - As Russia has a large and growing timber industry, companies can process timber waste as bio-fuel. Russia can also exploit wheat, rye, and corn and utilize it's large land resources to supply bio-fuel. The demand for bio-fuels is growing and the price makes it competitive with less clean alternatives such as diesel oil. Russia's Biotechnology Corp believes that Russia is capable of exporting nearly 40 Million Tons of bio-fuel per annum, with up to 7 Million Tons after the processing of Russian timber.

Wind - Russia's seaside areas such as Sochi provide ample area for large wind farms. Greta Energy of Canada has an ambitious program to develop wind farms across multiple regions of Russia with an expected capacity of 394 MW.

Geothermal - This is one area where Russia has already implemented successful projects and has had the most development. There is vast potential in Kamchatka and the Kuril Islands for geothermal projects. Geothermal energy is utilized for heating and electricity production in the Northern Caucasus and the Russian Far East.

Water - Untapped Siberian rivers could be utilized for hydro-electric power stations and tidal projects along the Pacific coast could make this a very natural progression for companies such as RusHydro. In fact, RusHydro is Russia's largest hydro-generating company and the second biggest in the world. They are also utilizing renewable energy sources such as water flows, wind, tidal, and geothermal energy to generate a total capacity over 25,000 MW.

Solar - Although many do not consider this as a viable option for Russia, consider Rusnano, which is currently investing in the production of high-efficiency solar power plants in Russia. Also, the Russian company Nitol is hoping to increase its' production silicon wafers to a capacity of 60 MW. Russia is the largest country in the world and has ample land for solar energy generation and production facilities.

Nanotechnology - The Kremlin's bet for the future of Russian energy lies with nanotechnology and the Russian government has invested billions of dollars for the development of this sector. "Nanotechnology will be the (foundation) for all industries in a science-driven economy," said Mikhail Kovalchuk, director of Moscow's Kurchatov Institute. "Nanotechnology will be the driving force of the Russian economy - if it can overcome the legacy of the recent past."

Efficiency Strategies
Oil well and refinery efficiency - Not only can Russia become more efficient with this expensive process, but it can also sell the added energy to the markets and keep pace with the ever increasing global demand for oil and gas. New technologies, drilling techniques, and equipment can improve the efficiency, but usually requires large capital investment.

Natural gas and subsequent distribution efficiency - As gas is transported along hundreds of kilometers much of it is lost in transit. Here again, a large up-front investment is required.
Improving domestic heating and electricity transmission - Russia has one of the largest energy intensity ratings in the world, and 2 times more than the US. This inefficiency can affect economic growth and is partly due to the harsh climates experienced in many parts of Russia. The savings can be used to fund alternative energy programs or further increase efficiency of domestic resources. As an example, Russia's heat production loses half of the available energy during the creation and transportation process.

Program and incentives for energy efficient consumers - PR, tax incentives, and the availability of energy efficient products and technologies can push Russian consumers to start being more energy conscious. This can offset the gradual increase of domestic energy prices.

Barriers
Energy Efficiency - Currently Russian's enjoy artificially priced energy far below the level of world market prices and the costs are subsidized by the Russian Government. Inefficient infrastructure such as central heating for the majority of Russia's population also complicates the problem of creating more efficient domestic energy production

Alternative Energy - Lack of public support and a relaxed, short-term view of Russian Government officials and Russian energy companies regarding energy and natural resource utilization. As strong public policy is required from the Russian Government to implement sweeping changes to legislation, investment, taxation, and public support, alternative energy could be on a very slow growth path in Russia.

Outlook for Investors
With the exception of a few companies such as RusHydro and Rusnano, the Russian alternative energy market can certainly be considered in an infant stage. The growth of Russia as an efficient and clean global energy provider is almost certain to present investors with a wealth of opportunities.

What do you think about the future of Russia as an efficient and clean global energy provider? Send us your comments.

Brian Schweitzer - RusKey Biz
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