High Quality Generator for CHP Power Plant with Ce, ISO and BV Certificate
|FOB Price:||US $8,000 / Set|
|Min. Order:||1 Set|
|Min. Order||FOB Price|
|1 Set||US $8,000/ Set|
|Production Capacity:||10 Set Per Month|
|Payment Terms:||L/C, T/T, Western Union|
- Model NO.: CW-CHP
- Certification: CE, ISO, CCC, BV
- Standard: Standard
- Transport Package: Plastic Membrane(Film) Packing or Carton Box Ect.
- Origin: Shandong, China
- Gas Source: Gas
- Power: ＜50kW
- Trademark: Jichai engine, Chargewe brand or OEM brand
- Specification: CE, ISO, BV
Benefits of Gas Engine CHP
The high efficiency of a CHP plant compared with conventional bought in electricity and site-produced heat provides a number of benefits including
1.On site production of power
2.Reduced energy costs
3.Reduction in emissions compared to conventional electrical generators and onsite boilers
Heat Sources from a Gas Engine
The heat from the generator is available in from 5 key areas:
1.Engine jacket cooling water
2.Engine lubrication oil cooling
3.Air intake intercooler
4.Engine exhaust gases
5.Engine generator radiated heat, second stage intercooler
1, 2 and 3 are recoverable in the form of hot water, typically on a 70/90˚C flow return basis and can be interfaced with the site at a plate heat exchanger.
The engine exhaust gases typically leave the engine at between 400 and 600˚C. This can be used directly for drying, in a waste heat boiler to generate steam/hot water, or via an exhaust gas heat exchanger combining with the heat from the cooling circuits.
A variety of different gas fuels can be used to facilitate cogeneration. In gas engine applications CHP equipment is typically applied to natural gas (commercial, residential and industrial applications), biogas, coal gas applications.
CHP System Efficiency
Gas engine combined heat and power systems are measured based upon the efficiency of conversion of the fuel gas to useful outputs. The diagram below illustrates this concept.
Firstly the energy in the fuel gas input is converted into mechanical energy via the combustion of the gas in the engine's cylinders and their resulting action in the turning of the engine's crankshaft. This mechanical energy is in turn used to turn the genset's alternator in order to produce electricity. There is a small amount of inherent loss in this process and in this example the electrical efficiency of the engine is 40%.
(Diagram key:HE 1 - Mixture intercooler, HE 2 - Oil exchange heater,HE 3 - Engine jacket water heat exchanger, HE 4 - Exhaust gas heat exchanger)