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Turbines, gas turbine

A more complex utility is combined heat and power (or cogeneration). Here, the heat rejected hy a heat engine such as a steam turbine, gas turbine, or diesel engine is used as the hot utility. [Pg.193]

Gas turbine Gas-turbine engines Gas turbine fuel Gas turbines... [Pg.435]

The produet slate of the eompanies listed is often mueh greater than indieated here. For most large manufaeturers, turboexpanders are only one of several produet types or eategories. These manufaeturers often also produee eompressors, steam turbines, gas turbines, and other maehinery. [Pg.489]

Cooling Fuel Cells Industry and Business, Energy as a Factor of Production in Turbines, Gas Turbines, Steam. [Pg.270]

See also Cogeneration Technologies Edison, Thomas Alva Electricity Electric Motor Systems Electric Power Transmission and Distribution Systems Matter and Energy Regulation and Rates for Electricity Siemens, Ernst Werner von Tesla, Nikola Thomson, Joseph John Townes, Charles Liard Turbines, Gas Turbines, Steam Volta, Alessadro Wlieatstone, Charles. [Pg.399]

See also Aerodynamics Diesel Cycle Engines Diesel Fuel Engines Environmental Problems and Energy Use Nuclear Fission Fuel Thermodynamics Transportation, Evolution of Energy Use and Turbines, Gas Turbines, Steam Waves. [Pg.1046]

See also Parsons, Charles Algernon Rankine, William John Macquorn Steam Engines Turbines, Gas Turbines, Wind. [Pg.1188]

On-site combined heat and power (CHP) which has existed for years, includes turbines, reciprocating engines and steam turbines. Gas turbines in the 500-kW to 250-MW produce electricity and heat using a thermodynamic cycle known as the Brayton cycle. They produce about 40,000-MW of the total CHP in the United States. The electric efficiency for units of less... [Pg.226]

Even though most of the nitrous oxide formed is converted back to N2 through thermal dissociation or through reaction with H or O atoms, this source of NO is important, for instance, in gas turbines. Gas turbines are characterized by high pressure and moderate temperatures, and here reactions (R119) through (R121) compete favorably with thermal NO formation and become the major source of NO. [Pg.606]

The three main compressor types are rotary, reciprocating, and centrifugal. The compressor drives can be constant or variable speed, and can be driven by electric motors, steam turbines, gas turbines, gasoline, or diesel engine drives. For a particular application, the type of compressor is selected by considering the required capacity and discharge pressure. [Pg.162]

There are three main categories of turbines (i) gas turbines, (ii) steam turbines and (iii) water turbines. Gas turbines are mostly used in aircraft (Chapter 11), though aircraft-derived gas turbines are used for naval vessel propulsion, for stand-by generation of electricity and gas pipeline compression. Steam turbines have become increasingly compact in design and run under more vigorous conditions. [Pg.272]

In reference to die CHP mode, the industrial power plant with HTGR could be named CHHP , because it provides three energetical connection points high-temperature heat, low-temperature heat, and electricity. With respect to electricity production, the achievement of a 40 - 43 % efficiency is possible when using steam turbines. Gas turbines reach efficiencies up to 48 %. A combination of both could even reach the 50 % level. Cogeneration applications are estimated to allow efficiencies in the range of 80 - 90 % [24]. [Pg.14]

Relative to other advanced combustion conversion systems, such as magnetohydrodynamics (MHD), ceramic blade turbine gas turbine, and potassium Rankine cycle, thermionic development costs should be substantially lower. The cost effectiveness is a result of the modularity of thermionics, which makes it possible to perform mean-ingftil ejqreiiments with small equipment. Thus, large investments should not be required until there is a high prob-abihty of success. [Pg.246]

Investigate the opetadon of vatious turbines, te a brief report explaining die operation of steam turbines, hydraulic turbines, gas turbines, and wind turbines. In a brief report, discuss why we need various modes of transportation. How did they evolve Discuss the role of public transportation, water transportation, highway transportation, tsultoad transportation, and air transportation. [Pg.102]

Investigate the operation of various turbines. Write a brief report explaining the operation of steam turbines, hydraulic turbines, gas turbines, and wind turbines. [Pg.148]

Heavy Industrial Gas Turbines. Gas turbines for use on the ground can be built more sturdily and larger than jet engines. These heavy units have been generally used for power generation or to drive heavy... [Pg.857]

Turbines are classified according to their principle of operation and the type of fluid that turns them. All turbines respond to impulse or reaction movement. The four main types of turbines are steam turbines, gas turbines, wind turbines, and water turbines. The primary function of a turbine is to convert steam, gas, wind, or water energy into mechanical energy that can be used to drive rotating equipment. [Pg.210]

Steam turbines Gas turbines Wind turbines Water turbines Diesel engines... [Pg.424]

Power can be generated with several types of steam turbines, gas turbines (units 12, 27 and 30). Electrical generators can be driven by steam turbines or gas turbines. [Pg.235]

There are enormous number of utility units which can be employed in a utility system, namely boilers, back-pressure /condensing turbines, gas turbines, electric motors, steam headers at different pressure levels, condensers, auxiliary units, and all of their different combinations. If all of them are included in a superstructure, it will be too large to be... [Pg.282]

Another issue relating to the choice of pressure is that, as we have shown in Section 7.3, an improvement in the overall efhciency of fuel systems can be achieved by combining high-temperature fuel cells with gas turbines. Gas turbines require pressurised (typically 5 bar) hot exhaust gas. Solid oxide fuel cells are very suitable for this application, as they can run in a pressurised mode and have a high exhaust gas temperature. MCFCs could also be combined with GTs but the exhaust temperature is lower. In addition, for the reason described above, the molten carbonate system is not so amenable to pressurisation. Such systems are thus unlikely to be developed. [Pg.201]


See other pages where Turbines, gas turbine is mentioned: [Pg.399]    [Pg.195]    [Pg.640]    [Pg.1045]    [Pg.1287]    [Pg.512]    [Pg.626]    [Pg.166]    [Pg.57]    [Pg.488]    [Pg.338]    [Pg.30]    [Pg.399]    [Pg.338]    [Pg.399]    [Pg.1262]    [Pg.269]   
See also in sourсe #XX -- [ Pg.51 , Pg.53 ]




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AVIATION AND OTHER GAS TURBINE FUELS

Aircraft Gas Turbines

Aviation gas turbine fuel

Basic gas turbine cycles

Case 1 Small Scale Gas Turbine Burner

Catalytic Combustion for Gas Turbines

Ceramic gas turbine engines

Chemically recuperated gas turbine

Combined cycle gas turbines

Combined-cycle gas turbine plants

Combustion for Gas Turbine Applications

Combustion gas turbine

Combustion gas turbine arrangements

Combustion gas turbine performance calculation

Control gas turbines

Development of the gas turbine

Efficiency of a closed circuit gas turbine plant

Efficiency of an open circuit gas turbine plant

Efficiency of gas turbines

Enclosed Turbines or Gas Compressor Packages

Engines gas turbine

Evaporative gas turbines

Fuel Cell-Gas Turbine Hybrid System

Fuel and Gas Turbine Hybrid Systems

Fuels for gas turbines

Fundamental Gas Turbine Considerations

Gas Turbine Driven Generators

Gas Turbine Exhausts

Gas Turbine Integration with an MCFC

Gas Turbine Technology

Gas Turbine and Electric Generator Controls

Gas Turbines and Engines

Gas turbine

Gas turbine

Gas turbine blades

Gas turbine fuel

Gas turbine generators

Gas turbine heat recovery steam generator

Gas turbine industrial

Gas turbine integration

Gas turbine lubricants

Gas turbine modeling

Gas turbine modular helium reactor

Gas turbine modular helium reactor (GT-MHR) power plant

Gas turbine modular helium reactor GT-MHR)

Gas turbine modular helium-cooled reactor

Gas turbine power generation system

Gas turbine reactor

Gas turbine, integrated

Gas turbines Air compressor

Gas turbines Brayton cycle

Gas turbines advanced

Gas turbines applications

Gas turbines combustors

Gas turbines component development

Gas turbines compressors

Gas turbines efficiency

Gas turbines fuel cells

Gas turbines fuel rates

Gas turbines in cogeneration

Gas turbines system

Gas-turbine components

Gas-turbine power plant

Heat engine gas turbines

Helium gas turbine

Hydrogen gas turbine

Institution of Diesel and Gas Turbine

Institution of Diesel and Gas Turbine Engineers

Low-NOx Technologies for Gas Turbine Applications

Micro Gas Turbine Engines

Micro-gas turbines

National Gas Turbine Establishment

Novel gas turbine cycles

Open circuit gas turbine plant

Performance gas turbine

Range of operation for a gas turbine CHP plant

Recuperative gas turbine

Reheating in the upper gas turbine cycle

Rich-lean gas turbine combustor

Siemens - SOFC Integration with Gas Turbines

Specification, Gas Turbine

Stationary gas turbines

Steam Turbines and Gas Expanders

Steam and gas turbines

Steam gas turbines

Steam-Injected Gas Turbines

Tests gas turbine

The combined cycle gas turbine (CCGT)

The gas turbine as a cogeneration

The unmatched gas turbine CHP plant

The work output and rational efficiency of an open circuit gas turbine

Thermodynamic Analysis of Gas Turbines

Turbines exhaust gases, useful fuel

Unmatched gas turbines

Use of Hexaaluminates in Catalytic Combustor for Gas Turbines

Wet gas turbine plants

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