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Electrical generation

When heat-electric generating station turbine rotors are under operation there is a probability of forming surface cracks in axial canal and heat grooves. Evolution of the above defects can cause a serious crash. Therefore, in accordance with safety standards periodic inspection of the rotor component parts is required. [Pg.346]

Electrical double layer Electrical generation Electrical laminates... [Pg.354]

Electricity generation Electric lighting Electric melting Electric power Electric resistor furnaces Electric vehicles... [Pg.355]

EJ = 0.9488 X 10 Btu. Assumes market incentives of 2 /kWh on fossil fuel-based electricity generation, 2.00/10 Btu on direct coal and petroleum consumption, and 1.00/10 Btu on direct natural gas consumption. [Pg.13]

Table 35. Installed Nonutility Electricity Generation Capacity and Generation by Biofuel, 1986 ... Table 35. Installed Nonutility Electricity Generation Capacity and Generation by Biofuel, 1986 ...
Fig. 1. Thermal energy use vs temperature (2). Electricity generation is practical from thermal energy sources hotter than 150°C. Fig. 1. Thermal energy use vs temperature (2). Electricity generation is practical from thermal energy sources hotter than 150°C.
Fig. 6. In a binary electricity generation plant, the hydrothermal water from the weU, A, is passed through a heat exchanger, B, where its thermal energy is transferred to a second, more volatile working fluid. The second fluid is vaporized and deflvered to a turbine, D. After exiting the turbine the spent working fluid is cooled and recondensed in another heat exchanger, E, using water or air as the coolant, F. It is then fed back to the primary heat exchanger to repeat the cycle. Waste hydrothermal fluid, C, can be reinjected into the producing field. Fig. 6. In a binary electricity generation plant, the hydrothermal water from the weU, A, is passed through a heat exchanger, B, where its thermal energy is transferred to a second, more volatile working fluid. The second fluid is vaporized and deflvered to a turbine, D. After exiting the turbine the spent working fluid is cooled and recondensed in another heat exchanger, E, using water or air as the coolant, F. It is then fed back to the primary heat exchanger to repeat the cycle. Waste hydrothermal fluid, C, can be reinjected into the producing field.
In 1840 a hydrauHc power network, which involved large reciprocating pumps that were driven by steam engines, suppHed fluid power to London. However, concurrent technology in steam (qv) turbines and the electric generators outmoded such networks until hydrauHc systems were improved with the use of rotary pumps and oil. The rotary piston pump marked the transition from use of water to oil as the hydrauHc fluid (4). The use of vacuum-distilled, refined mineral oils were instmmental in the success of rotary axial piston pumps and motors such as the Waterbury variable speed gear... [Pg.261]

Nation Number of units Net power, MWe Percent of total electricity generated ... [Pg.234]

Safety provisions have proven highly effective. The nuclear power industry in the Western world, ie, outside of the former Soviet Union, has made a significant contribution of electricity generation, while surpassing the safety record of any other principal industry. In addition, the environmental record has been outstanding. Nuclear power plants produce no combustion products such as sulfuric and nitrous oxides or carbon dioxide (qv), which are... [Pg.234]

If possible comparisons are focused on energy systems, nuclear power safety is also estimated to be superior to all electricity generation methods except for natural gas (30). Figure 3 is a plot of that comparison in terms of estimated total deaths to workers and the pubHc and includes deaths associated with secondary processes in the entire fuel cycle. The poorer safety record of the alternatives to nuclear power can be attributed to fataUties in transportation, where comparatively enormous amounts of fossil fuel transport are involved. Continuous or daily refueling of fossil fuel plants is required as compared to refueling a nuclear plant from a few tmckloads only once over a period of one to two years. This disadvantage appHes to solar and wind as well because of the necessary assumption that their backup power in periods of no or Httie wind or sun is from fossil-fuel generation. Now death or serious injury has resulted from radiation exposure from commercial nuclear power plants in the United States (31). [Pg.238]

Fig. 7. U.S. auclear power plant occupational radiation exposure, where ( ) corresponds to total radiation exposure, ( ) to the electricity generated, and (— -) to the radiation exposure per unit of electricity 5(Sv/(MW-yr)) (60). Courtesy of the Electric Power Research Institute. Fig. 7. U.S. auclear power plant occupational radiation exposure, where ( ) corresponds to total radiation exposure, ( ) to the electricity generated, and (— -) to the radiation exposure per unit of electricity 5(Sv/(MW-yr)) (60). Courtesy of the Electric Power Research Institute.
Uses of Plutonium. The fissile isotope Pu had its first use in fission weapons, beginning with the Trinity test at Alamogordo, New Mexico, on July 16, 1945, followed soon thereafter by the "Litde Boy" bomb dropped on Nagasaki on August 9, 1945. Its weapons use was extended as triggers for thermonuclear weapons. This isotope is produced in and consumed as fuel in breeder reactors. The short-Hved isotope Tu has been used in radioisotope electrical generators in unmanned space sateUites, lunar and interplanetary spaceships, heart pacemakers, and (as Tu—Be alloy) neutron sources (23). [Pg.193]

The first centralized electric generating plant in the United States was Edison s three-unit steam-engine-based station, which suppHed electric power to light approximately 5000 electric lamps in a group of homes and businesses in New York City in 1882. Also in 1882, the first hydroelectric power plant went into operation in Appleton, Wisconsin, generating approximately 25 kW of power, enough to power more than 200 100-watt light bulbs. [Pg.1]

In 1956, the world s first commercial nuclear power plant started operation in England. By the 1960s, many nuclear power plants were built worldwide. At the end of the twentieth century, nuclear generating plants are used widely by U.S. electric utiHties. Since 1984, these plants have provided the second largest share of total U.S. electricity generation, 21% of annual GW-h generated, behind coal-fired power plants (see Nuclearreactors). [Pg.1]


See other pages where Electrical generation is mentioned: [Pg.417]    [Pg.215]    [Pg.31]    [Pg.246]    [Pg.486]    [Pg.62]    [Pg.582]    [Pg.1]    [Pg.2]    [Pg.4]    [Pg.5]    [Pg.5]    [Pg.5]    [Pg.7]    [Pg.7]    [Pg.40]    [Pg.41]    [Pg.52]    [Pg.58]    [Pg.174]    [Pg.176]    [Pg.262]    [Pg.265]    [Pg.265]    [Pg.267]    [Pg.267]    [Pg.269]    [Pg.427]    [Pg.180]    [Pg.239]    [Pg.243]    [Pg.202]    [Pg.345]    [Pg.1]    [Pg.1]    [Pg.2]   
See also in sourсe #XX -- [ Pg.1119 ]




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Batteries Using Chemistry to Generate Electricity

Biomass electricity generation from

Boiler electrical generation

CEGB (Central Electricity Generating

Central Electricity Generating Board

Central Electricity Generating Board CEGB)

Central electricity generation

Coal-fired power plants electricity generation costs

Combined heat and power electricity generation

Conventional electric power generators

Denmark electricity generation

Diesel generators electrical protection

Diesel powered electricity generation

Diesel powered electricity generation applications

Diesel powered electricity generation cooling

Diesel powered electricity generation engine starting

Diesel powered electricity generation maintenance

EFISHG - electric field induced second harmonic generation

Economics electric power generation

Electric EFISH) generation

Electric Field Generation and Charge Conduction

Electric Field Second Harmonic Generation EFISH)

Electric and magnetic fields generated by the nucleus

Electric current generation

Electric difference generation

Electric discharge, generation

Electric field induced second harmonic generation , nonlinear optical

Electric field poling, second-harmonic generation

Electric field second harmonic generation

Electric field second harmonic generation theory

Electric field-induced second harmonic generation

Electric field-induced second harmonic generation EFISH)

Electric generating station

Electric generating station generation

Electric generation

Electric generation

Electric generators

Electric generators

Electric potential, generation

Electric potentials generated at crystal interface

Electric power generation

Electric power generation advantages

Electric power generation alkali metals

Electric power generation availability losses

Electric power generation bagasse

Electric power generation biomass-fueled

Electric power generation coal fueled

Electric power generation combined cycle plants

Electric power generation combined-cycle systems

Electric power generation commercial plants

Electric power generation electricity prices

Electric power generation elimination

Electric power generation energy losses

Electric power generation framework

Electric power generation from geothermal energy

Electric power generation fuel cell efficiency

Electric power generation integrated systems

Electric power generation plants

Electric power generation production ratios

Electric power generation small-scale

Electric power generation systems

Electric power generation technology

Electric power generation usage

Electric power generation using residual fuels

Electric power generation. See

Electric power generators

Electric power industry distributed generation

Electric second-harmonic generation

Electric third harmonic generation

Electric utility generation

Electric vehicle, power generation

Electric-field-induced second harmonic generation experiment

Electric-field-induced second harmonic generation technique (EFISH

Electric-field-induced second harmonic generation technique)

Electric-generating facilities

Electric-generating facilities stations

Electrical Discharge Ozone Generators (EDOGs)

Electrical Generating Stations

Electrical discharge ozone generator (

Electrical energy, generation

Electrical energy, generation reactor

Electrical fields, generation

Electrical fields, generation electrophoresis

Electrical generation compared with process stream

Electrical generation work/heat ratio

Electrical generators

Electrical generators

Electrical power generation

Electrical power generation, German

Electrical power generator

Electrically generated intramolecular

Electrically generated intramolecular proton transfer

Electricity Generation Cost Simulation

Electricity Generation Cost Simulation Model

Electricity generated from coal-fired power

Electricity generating

Electricity generating industry

Electricity generation

Electricity generation

Electricity generation Germany

Electricity generation Ireland

Electricity generation Italy

Electricity generation Spain

Electricity generation Sweden

Electricity generation United Kingdom

Electricity generation United States

Electricity generation average capacity factors

Electricity generation capital cost

Electricity generation fuel cost

Electricity generation operating cost

Electricity generation photovoltaic panels

Electricity generation sensitivity

Electricity generation solar power plant

Electricity generation statistics

Electricity generation test system

Electricity generation thermal power plant

Electricity generation world

Electricity generation, direct

Electricity generation, renewables

Electricity generators

Electricity generators

Electricity generators, solar thermal

Electricity power generation

Electricity power generation available fuels

Electricity power generation bearings

Electricity power generation boiler water treatment

Electricity power generation capital cost

Electricity power generation casings

Electricity power generation coal handling

Electricity power generation consumables costs

Electricity power generation economic considerations

Electricity power generation electrical equipment

Electricity power generation environmental aspects

Electricity power generation fuel costs

Electricity power generation generated voltages

Electricity power generation piping systems

Electricity power generation running speed

Electricity power generation shafts

Electricity power generation water systems

Electricity power generators

Electricity power generators cooling

Electricity power generators excitation

Electricity power generators synchronous

Electricity solar electric generation

Electricity supply industry generation capacity

Electricity, steam-generated

Electrochemical cell electric potential difference generated

Electrochemical generation, of electricity

Electroporation electric pulse generators

Energy resources electric generator

Faraday, Michael electric generators

Fuel maximum electricity generation

Future costs, nuclear power plant generating electricity

Gas Turbine and Electric Generator Controls

Generating Electrical Power with Fuel Cells

Generation of Electrical Energy

Generation of electricity

Generator capacity, electricity costs

Geothermal energy electricity generation

Large-scale electric power generation

Nuclear Fission Generates Some of Our Electricity

Nuclear Power Using Fission to Generate Electricity

Nuclear energy electricity generating station

Nuclear fission electricity generation

Nuclear power generating electricity, future costs

Nuclear power industry electricity generating station

Oxidation-reduction reaction spontaneous, generating electricity from

Photochemical electricity generation

Portable equipment electricity generators

Power, definitions electric generation

Power, electric generation thermal

Radioisotope thermal electric generator

Renewables solar-generated electricity

Second harmonic generation electric field dependence

Solar Thermal Electric Generation Produces Electricity

Static electricity, generation

Steam turbines for electricity generation

Thermal plant electricity generation

Thermal plant electricity generation Rankin Cycle

Thermal plant electricity generation applications

Thermal plant electricity generation fuels

Thermo-electric generators

Third-harmonic generation electric field induced second

UK Central Electricity Generating Board

Ultrashort Electric Pulse Generation

United Kingdom , electrical generating capacity

Uranium nuclear-powered electricity generation using

Utilities electric generators

Voltaic (or Galvanic) Cells Generating Electricity from Spontaneous Chemical Reactions

Voltaic Cells Using Spontaneous Reactions to Generate Electrical Energy

WATER CAN BE USED TO GENERATE ELECTRICITY

Waste electric power generation

Waterfall, electricity generation

Wind-based electricity generation

Wind-based electricity generation Germany

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