Subject: Drop Seventy Five Percent off your power and gas bills.

From: Bill Slashing Trick <[email-masked]>
Date: Wed, 12 Mar 2014 10:14:00 -0800

This is not a gimmick or a joke.  We can show you how in very little time you can 
carve a huge chunk out of your power bill, and keep that money firmly seated in 
your wallet.  

We've put together an awesome and interesting video that shows you just that.

 http://www.lifemmage.com/energy.html

Leave power companies in the dust.  Why pay their exorbitant fees and just 
send your money over-seas?  That's ultimately were a ton of what you pay to 
the power companies is going.  It's a sad fact that most of the oil product that 
the power companies burn to make electricity is not coming from domestic 
production.  

Cut a huge swath into your power bill and at the same time keep your hard 
earned dollars at home.  

See what you can do today.  The video above is quick, interesting, and 
informative.  It answers your burning question about how to drop over 
seventy five percent off your monthly payment.

Stop anymore communication from:
Harrington Rapid Data Service
1540 SW Expy, San Jose, California, 95126
http://www.lifemmage.com/a23b3f2f.html
Please use this link or write us at the address
above.  

Once you destroy your electricity costs you probably want to explore 
moving your gas serviced heat and water heater to electricity.  Why?
What are some of the advantages?

Advantages of Electric Heat 

Electric heating has several advantages when compared to gas or oil furnaces and boilers. These include - 

The temperature can be controlled easily room by room or zone by zone. 

Electric heating systems are generally less expensive to purchase and install than others. 

If several space heaters are used, the house will not be thrown into a no-heat condition by the failure of one unit. 

Electric heat is quick to respond. 

Electric heat is clean (at least from the homeowner's perspective). 

Electric heat can be added on a localized basis to heat specific cool areas. 

Electric heat can take up less space in the house than other conventional systems (assuming space heaters are used). 

There is no chimney, so there is no off-cycle loss when the system is at rest. 

The system is safe because there is no combustion process. There is no chance of flames starting a fire or having combustion products contaminate the air. 

Electric heat can be very quiet. 

In most electric heating systems, there are few moving parts.

Electric Heat - Equipment Cost
Electric heating equipment is usually less expensive to install than fuel-fired systems. Where heating is infrequent (such as with buildings with high internal gains), the annual operating costs may be low as well. Where hours of use could be significant, increases in building insulation may prove desirable since operating savings usually provide an adequate financial offset.
Electric Heat - Comfort-Flexibility
Each area can be heated independently and controlled with individual thermostats. Additional areas that may be added in the future can be heated without expensive heating plant expansion. Year-round comfort is improved as a result of increased insulation.
Electric Heat Building Cost
Elimination of boiler, boiler room chimney, and fuel tanks, and the saving of valuable floor space reduces initial construction cost .
Electric Heat Safety
The danger of explosion, asphyxiation, and fuel leakage is eliminated.
Electric Heat Maintenance
No boiler cleaning pump replacements or possible freeze ups from boiler breakdowns. It may also be possible to eliminate the requirement of operating engineers in some areas.
Electric Heat - Cleaner
The elimination of flue, smoke and fumes reduces cleaning costs, janitorial expenses and redecorating costs.
The two general categories of boilers are hot water and steam boilers. Most small commercial buildings, manufacturers, and even some food processors use hot water boilers. Water is heated to appropriate distribution temperatures, typically 140-180F, and usually returned about 20F lower temperature for reheat. These systems are often "closed" with virtually no fresh water make-up. Where applicable, hot water boilers are preferred because they normally do not need operators or special water chemistry. Further, since they operate at lower temperatures, hot water boilers can operate at higher fuel conversion efficiencies than steam boilers.
Steam boilers are found in many different configurations, but all serve one purpose: to contain water and transform it into steam by the application of heat. Some boilers heat the steam even hotter than the boiling point temperature. This is referred to as superheated steam.
Within the electric boiler classification, there are two main types of electric boilers:
		Electric resistance
		Electrode

Electric resistance boilers consist of an electrically resistive element. The consequent heat is transferred to the water, heating it to the desired temperature. A thermostat controls the flow of electrical current, and thus the the heating. Electric resistance boilers are discussed in this section.
Electrode boilers are quite different in nature, and have a specialized application. They are used for industrial applications that require high heat output and quick recovery. Click here to learn more about electrode boilers.
Advantages
		Clean firing - no emissions of products of combustion
		No stack - with no combustion there is no venting or stack required
		Highly efficient with minimum losses
		Compact size - smaller volume and footprint than fossil fired boilers
		Available in wide range of sizes as boiler only or in tank-type models
Disadvantages
		Demand and energy charges can result in higher operating cost
Applications
Electric boilers can be applied wherever there is a need for hot water at 30 to 250 psig pressure, and steam at 15 to 250 psig pressure and in capacities up to about 3,000 kW (10 million BTUH) in a single unit with tank models up to 10,000 gallons.
Best Applications
		Winter heating, when demand charges are not invoked
		Areas with high gas prices, particularly with the DDC (the demand charge)
		Customers on RTP with limited summertme heating requirements
Applications to Avoid
High load factor installation where demand and energy costs outstrip the benefits.
Technology Types (Resource)
Electric boilers typically use resistance heating elements to convert electric energy to heat energy. Heavy duty medium watt density elements with low surface temperature provide excellent protection against oxidation and scaling. Elements are operated by heavy duty UL rated magnetic contactors. Safety controls are provided including low water cutoff and temperature and pressure relief valves. A wide range of options are available including step controls, circulating packages, voltages, circuit breakers, peak load controllers, and safety interlocks.
Efficiency
Electric boilers are relatively 100% efficient in converting power to heat (3,412 BTUH per kW or 293 kWh per million Btu) with only a minimal percentage of radiation loss from the exposed surfaces of the boiler.
This contrasts to fossil fuel boilers that have combustion efficiencies in the 60 to 80% range, depending on the boiler age and condition, plus other losses.
Combustion efficiency simply indicates the flue gas loss. Boiler efficiency also includes the blowdown and standby losses. Whether comparing new or existing boilers, their most efficient operating point is usually somewhere between 60-90% load. Typically, gas boilers exhibit larger standby loss because of the flue, which has a chimney effect for the heat in the boiler.
When you are evaluating a change in steam production due to a new steam use (which would increase steam generation) or steam conservation (which would obviously reduce steam production), be very careful to consider incremental boiler efficiency and incremental energy costs.
For more information

A heat pump is a device that extracts heat from a source and transfers it at a higher temperature. While all mechanical cooling systems are technically heat pumps, in HVAC terms, "heat pump" is reserved for equipment that can heat for beneficial purposes, rather than equipment that only removes heat for cooling. Dual mode heat pumps can provide either heating or cooling, while heat-reclaim heat pumps provide heating. An applied heat pump requires competent engineering for the specific application as opposed to the use of a manufacturer-designed unitary heat pump. The distinction between some models and applications can be rather fuzzy.

Heat pumps provide an important amplification of temperature that simple heat exchangers can not do. For example, efficient heat exchangers can preheat water or air up to 2 to 5F of the temperature of the heat source - but never as hot or hotter than the waste heat source. If a higher temperature is required, then a heat pump or a combination of heat exchanger and heat pump must be used. Most heat pumps used in HVAC applications today use a vapor compression cycle, similar to that used in a household refrigerator or home air conditioner and use an electric motor driven compressor, a condenser and an evaporator. Dual mode heat pumps include some form of cycle reversal where heating and cooling effects can be switched. Compressors can vary from small hermetically sealed units to large centrifugal machines. Industrial processes can be served by either this closed-vapor compression cycle, or by an open or mechanical vapor recompression or MVR cycle. Typical waste heat sources include out
 door or exhaust air, condenser or cooling tower water, well or other ground or surface water and heat rejected from industrial processes. The selection of the source depends on several variables such as suitability, availability, cost, and temperature. Where the source availability and the useful heat needs are not coincidental, thermal storage on either the hot or cold side should be considered.
Advantages
Heat pumps provide an important amplification of temperature that simple heat exchangers can not do.