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Cấu trúc

  • Preface

  • Contents

  • Chapter 1. Fundamental of Power Plant

    • 1.1 Introduction

    • 1.2 Concept of Power Plant

    • 1.3 Classification of Power Plants

    • 1.4 Energy

    • 1.5 Types of Energy

    • 1.6 Power

    • 1.7 Power Development in India

    • 1.8 Resources for Power Generation

    • 1.9 Present Power Position in India

    • 1.10 Future Planning for Power Generation

    • 1.11 Power Corporations in India

      • 1.11.1 National Thermal Power Corporation

      • 1.11.2 National Hydro-Electric Power Corporation

      • 1.11.3 Rural Electrification Corporation

      • 1.11.4 Damodar Valley Corporation

      • 1.11.5 North-Eastern Electric Power Corporation Limited

      • 1.11.6 Bhakra Beas Management Board and Beas Construction Board

      • 1.11.7 Power Engineers Training Society (Pets)

      • 1.11.8 Central Power Research Institute (Cpri), Bangalore

      • 1.11.9 Nathpa, Jhaicri Power Corporation Limited

    • 1.12 Review of Thermodynamics Cycles Related to Power Plants

    • 1.13 Classification of Power Plant Cycle

      • 1.13.1 Carnot Cycle

      • 1.13.2 Rankine Cycle

      • 1.13.3 Reheat Cycle

      • 1.13.4 Regenerative Cycle (Feed Water Heating)

      • 1.13.5 Binary Vapour Cycle

      • 1.13.6 Reheat-Regenerative Cycle

      • 1.13.7 Formula Summary

    • 1.14 Fuels and Combustion

    • 1.15 Steam Generators

    • 1.16 Steam Prime Movers

    • 1.17 Steam Condensers

      • 1.17.1 Surface Condensers

      • 1.17.2 Jet Condensers

      • 1.17.3 Types of Jet Condensers

    • 1.18 Water (Hydraulic) Turbines

      • 1.18.1 Impulse and Reaction Turbines

    • 1.19 Science Vs. Technology

      • 1.19.1 Scientific Research

      • 1.19.2 Science and Technology Infrastructure

    • 1.20 Facts Vs. Values

    • 1.21 Atomic Energy

    • 1.22 Highlights of the Nuclear Power Programme

    • 1.23 Nuclear Power Corporation of India Limited

    • 1.24 Ocean Engineering Applications

  • Chapter 2. Non-Conventional Energy Resources and Utilisation

    • 2.1 Introduction

    • 2.2 Energy Science

    • 2.3 Various Energy Science

    • 2.4 Energy Technology

    • 2.5 Energy Technology and Energy Sciences

    • 2.6. Law of Conservation of Energy

    • 2.7 Facts and Figures about Energy

    • 2.8 Indian and Global Energy Sources

      • 2.8.1 The Sun

      • 2.8.2 Petroleum

      • 2.8.3 Natural Gas

      • 2.8.4 Coal

      • 2.8.5 Nuclear Energy

      • 2.8.6 Lpg (Liquefied Petroleum Gas)

      • 2.8.7 Alcohol

      • 2.8.8 Gasohol

      • 2.8.9 Hydro Power

    • 2.9 Energy Exploited

    • 2.10 Energy Demand

    • 2.11 Energy Planning

    • 2.12 Introduction to Various Sources of Energy

      • 2.12.1 Conventional Sources of Energy

      • 2.12.2 Non-Conventional Sources of Energy

    • 2.13 Introduction to Various Non Conventional(Renewable) Sources of Energy

    • 2.14 Bio-Gas

      • 2.14.1 Aerobic and Anaerobic Bio-Conversion Process

      • 2.14.2 Raw Materials

      • 2.14.3 Properties of Bio Gas

      • 2.14.4 Bio Gas Plant Technology

    • 2.15 Wind Energy

      • 2.15.1 Wind Machine Fundamentals

      • 2.15.2 Aerofoil Design

      • 2.15.3 Wind Power Systems

      • 2.15.4 Economic Issues

      • 2.15.5 Selection of Wind Mill

      • 2.15.6 Recent Developments

    • 2.16 Solar Energy

      • 2.16.1 Solar Radiations

      • 2.16.2 Solar Thermal Power Plant

      • 2.16.3 Solar Energy Storage

      • 2.16.4 Recent Developments in Solar Power Plants

    • 2.17 Electrochemical Effects and Fuel Cells

      • 2.17.1 Reversible Cells

      • 2.17.2 Ideal Fuel Cells

      • 2.17.3 Other Types of Fuel Cells

      • 2.17.4 Efficiency of Cells

    • 2.18 Thermionic Systems and Thermionic Emission

      • 2.18.1 Thermoionic Conversion

      • 2.18.2 Ideal and Actual Efficiency

    • 2.19 Thermoelectric Systems

      • 2.19.1 Principle of Working

      • 2.19.2 Performance

    • 2.20 Geo Thermal Energy

      • 2.20.1 Hot Springs

      • 2.20.2 Steam Ejection

      • 2.20.3 Site Selection

      • 2.20.4 Geothermal Power Plants

      • 2.20.5 Advanced Concepts

    • 2.21 Ocean Energy

      • 2.21.1 Power Plants Based on Ocean Energy

    • 2.22 Other Technology

      • 2.22.1 Liquid Fuel

      • 2.22.2 Fuel Cell Technology

      • 2.22.3 Hydrogen Energy

      • 2.22.4 Hydrogen Energy Technology

      • 2.22.5 Battery Operated Vehicles

      • 2.22.6 Bio Fuel Technology

      • 2.22.7 Hydroelectric Power

      • 2.22.8 Innovative Heat Exchanger to Save Energy

  • Chapter 3. Power Plant Economics and Variable Load Problem

    • 3.1 Terms and Factors

    • 3.2 Factor Effecting Power Plant Design

    • 3.3 Effect of Power Plant Type on Costs

      • 3.3.1 Initial Cost

      • 3.3.2 Rate of Interest

      • 3.3.3 Depreciation

      • 3.3.4 Operational Costs

      • 3.3.5 Cost of Fuels

      • 3.3.6 Labour Cost

      • 3.3.7 Cost of Maintenance and Repairs

      • 3.3.8 Cost of Stores

      • 3.3.9 Supervision

      • 3.3.10 TAXES

    • 3.4 Effect of Plant Type on Rates(Tariffs or Energy Element)

      • 3.4.1 Requirements of a Tariff

      • 3.4.2 Types of Tariffs

    • 3.5 Effect of Plant Type on Fixed Elements

    • 3.6 Effect of Plant Type on Customer Elements

    • 3.7 Investor’s Profit

    • 3.8 Economics in Plant Selection

    • 3.9 Economic of Power Generation

    • 3.10 Industrial Production and Power Generation Compared

    • 3.11 Load Curves

    • 3.12 Ideal and Realized Load Curves

    • 3.14 Effect of Variable Load on Power Plant Design

  • Chapter 4. Steam Power Plant

    • 4.1 Introduction

    • 4.2 Essentials of Steam Power Plant Equipment

      • 4.2.1. Power Station Design

      • 4.2.2. Characteristics of Steam Power Plant

      • 4.3 Coal Handling

        • 4.3.1 Dewatering of Coal

      • 4.4 Fuel Burning Furnaces

        • 4.4.1 Types of Furnaces

      • 4.5 Method of Fuel Firing

        • 4.5.1 Hand Firing

        • 4.5.2 Mechanical Firing (Stokers)

      • 4.6 Automatic Boiler Control

      • 4.7 Pulverized Coal

        • 4.7.1 Ball Mill

        • 4.7.2 Ball and Race Mill

        • 4.7.3 Shaft Mill

      • 4.8 Pulverised Coal Firing

      • 4.9 Pulverised Coal Burners

        • 4.9.1 Cyclone Fired Boilers

      • 4.10 Water Walls

      • 4.11 Ash Disposal

        • 4.11.1 Ash Handling Equipment

      • 4.12 Smoke and Dust Removal

      • 4.13 Types of Dust Collectors

        • 4.13.1 Fly Ash Scrubber

        • 4.13.2 Fluidised Bed Combustion (Fbc)

        • 4.13.3 Types of Fbc Systems

  • Chapter 5. Steam Generator

    • 5.1 Introduction

    • 5.2 Types of Boilers

    • 5.3 Cochran Boiler

    • 5.4 Lancashire Boiler

    • 5.5 Locomotive Boiler

    • 5.6 Babcock Wilcox Boiler

    • 5.7 Industrial Boilers

    • 5.8 Merits and Demerits of Water Tube Boilers over fire Tube Boilers Merits

    • 5.9 Requirements of a Good Boiler

    • 5.10 High Pressure Boilers

      • 5.10.1 La Mont Boiler

      • 5.10.2 Benson Boiler

      • 5.10.3. Loeffler Boiler

      • 5.10.4. Schmidt-Hartmann Boiler

      • 5.10.5. Velox-Boiler

  • Chapter 6.Steam Turbine

    • 6.1. Principle of Operation of Steam Turbine

    • 6.2. Classification of Steam Turbine

    • 6.3. The Simple Impulse Turbine

    • 6.4. Compounding of Impulse Turbine

    • 6.5. Pressure Compounded Impulse Turbine

    • 6.6. Simple Velocity-Compounded Impulse Turbine

    • 6.7 Pressure and Velocity Compounded Impulse Turbine

    • 6.8. Impulse-Reaction Turbine

    • 6.9 Advantages of Steam Turbine over Steam Engine

    • 6.10. Steam Turbine Capacity

    • 6.11 Capability

    • 6.12 Steam Turbine Governing

    • 6.13 Steam Turbine Performance

    • 6.14 Steam Turbine Testing

    • 6.15 Choice of Steam Turbine

    • 6.16 Steam Turbine Generators

    • 6.17 Steam Turbine Specifications

  • Chapter 7. Fuels and Combustion

    • 7.1 Introduction

    • 7.2 Coal

    • 7.3 Coal Analysis

      • 7.3.1 Proximate Analysis

      • 7.3.2 Ultimate Analysis

      • 7.3.3 Heating Value

    • 7.4 Coal Firing

    • 7.5 Mechanical Stokers

    • 7.6 Pulverized-Coal Firing

    • 7.7 Cyclone Furnaces

  • Chapter 8. Diesel Power Plant

    • 8.1 Introduction

    • 8.2 Operating Principle

    • 8.3 Basic Types of IC Engines

      • 8.3.1 Two-Stroke, Spark Ignition Gas Engines/Petrol Engines

      • 8.3.2 Diesel Engines/Heavy Oil Engines

      • 8.3.3 Duel Fuel Engines

      • 8.3.4 High Compression Gas Engines

    • 8.4 Advantage of Diesel Power Plant

    • 8.5 Disadvantage of Diesel Power Plant

    • 8.6 Application of Diesel Power Plant

    • 8.7 General Layout of Diesel Power Plant

    • 8.8 Performance of Diesel Engine

      • 8.8.1 Indicated Mean Effective Pressure (Imep)

      • 8.8.2 Indicated Horse Power (Ihp)

      • 8.8.3 Brake Horse Power (B.H.P.)

      • 8.8.4 Frictional Horse Power (F.H.P.)

      • 8.8.5 Indicated Thermal Efficiency

      • 8.8.6 Brake Thermal Efficiency (Overall Efficiency)

      • 8.8.7 Mechanical Efficiency

    • 8.9 Fuel System of Diesel Power Plant

    • 8.10 Lubrication System of Diesel Power Plant

      • 8.10.1 Liquid Lubricants or Wet Sump Lubrication System

      • 8.10.2 Solid Lubricants or Dry Sump Lubrication System

      • 8.10.3 Mist Lubrication System

    • 8.11 Air Intakes and Admission System of Diesel Power Plant

    • 8.12 Supercharging System of Diesel Power Plant

      • 8.12.1 TYPES OF SUPERCHARGER

      • 8.12.2 ADVANTAGE OF SUPERCHARGING

    • 8.13 Exhaust System of Diesel Power Plant

    • 8.14 Cooling System of Diesel Power Plant

      • 8.14.1 OPEN COOLING SYSTEM

      • 8.14.2 NATURAL CIRCULATION SYSTEM

      • 8.14.3 FORCED CIRCULATION COOLING SYSTEM

    • 8.15 Diesel Plant Operation

    • 8.16 Efficiency of Diesel Power Plant

    • 8.17 Heat Balance Sheet

  • Chapter 9. Gas Turbine Power Plant

    • 9.1 Introduction

    • 9.2 Classification of Gas Turbine Power Plant

      • 9.2.1 Open Cycle Gas Turbine Power Plant

      • 9.2.2 Closed Cycle Gas Turbine Power Plant

    • 9.3 Elements of Gas Turbine Power Plant

      • 9.3.1. Compressors

      • 9.3.2. Intercoolers and Heat Exchangers

      • 9.3.3 Combustion Chambers

      • 9.3.4. Gas Turbines

    • 9.4 Regeneration and Reheating

      • 9.4.1 Regeneration

      • 9.4.2 Reheating

    • 9.5 Cogeneration

      • 9.5.1 Cogeneration — Why

      • 9.5.2 Cogeneration Technologies

    • 9.6 Auxiliary Systems

      • 9.6.1 Starting Systems

      • 9.6.2 Ignition Systems

      • 9.6.3 Lubrication System

      • 9.6.4 Fuel System and Controls

    • 9.7 Control of Gas Turbines

      • 9.7.1 Prime Control

      • 9.7.2 Protective Controls

    • 9.8 Gas Turbine Efficiency

      • 9.8.1 Effect of Blade Friction

      • 9.8.2 Improvement in Open Cycle

    • 9.9 Operations and Maintenance Performance

      • 9.9.1 Operation

      • 9.9.2 Maintenance Performance

    • 9.10 Troubleshooting and Remedies

    • 9.11 Combined Cycle Power Plants

    • 9.12 Applications of Gas Turbine

    • 9.13 Advantages of Gas Turbine Power Plant

    • 9.14 Disadvantages

  • Chapter 10. Nuclear Power Plant

    • 10.1 Introduction

    • 10.2 General History and Trends

      • 10.2.1 Major Events

      • 10.2.2 What Might Change the Current Situation?

      • 10.2.3 Technical History and Developments

      • 10.2.4 Developments after WW-2

    • 10.3 The Atomic Structure

    • 10.4 Summary of Nuclear Energy Concepts and Terms

      • 10.4.1 Summary of Features

      • 10.4.2 Fission

      • 10.4.3 Critical Mass

      • 10.4.4 Alpha Radiation

      • 10.4.5 Beta Particles

      • 10.4.6 Gamma Particles

      • 10.4.7 Uranium Fission

      • 10.4.8 Half Life, T

    • 10.5 Ethical Problems in Nuclear Power Regulation

    • 10.6 Chemical and Nuclear Equations

    • 10.7 Nuclear Fusion and Fission

    • 10.8 Energy from Fission and Fuel Burn Up

    • 10.9 Radioactivity

    • 10.10 Nuclear Reactor

      • 10.10.1 Parts of a Nuclear Reactor

      • 10.10.2 Nuclear Fuel

      • 10.10.3 Moderator

      • 10.10.4 Moderating Ratio

      • 10.10.5 Reflector

      • 10.10.6 Reactor Vessel

      • 10.10.7 Biological Shielding

      • 10.10.8 Coolant

      • 10.10.9 Coolant Cycles

      • 10.10.10 Reactor Core

    • 10.11 Conservation Ratio

    • 10.12 Neutron Flux

    • 10.13 Classification of Reactors

    • 10.14 Cost of Nuclear Power Plant

    • 10.15 Nuclear Power Station in India

    • 10.16 Light Water Reactors (LWR) and Heavy Water Reactors (HWR)

      • 10.16.1 Importance of Heavy Water

    • 10.17 Site Selection

    • 10.18 Comparison of Nuclear Power Plant and Steampower Plant

    • 10.19 Multiplication Factor

    • 10.20 Uranium Enrichment

    • 10.21 Reactor Power Control

    • 10.22 Nuclear Power Plant Economics

    • 10.23 Safety Measures for Nuclear Power Plants

    • 10.24 Site Selection and Commissioning Procedure

    • 10.25 Major Nuclear Power Disasters

    • 10.26 Chernobyl Nuclear Power Plant

      • 10.26.1 Reactor Design : Rbmk-1000

      • 10.26.2 Control of the Reactor

      • 10.26.3 Chernobyl Reactor Operations

      • 10.26.4 Accident\Safety Plans

    • 10.27 Safety Problems in Chernobyl Reactor Design

      • 10.27.1 System Dynamics

    • 10.28 Other, Earlier, Soviet Nuclear Accidents

  • Chapter 11. Hydro-Electric Power Plants

    • 11.1 Introduction

    • 11.2. Run-Off

    • 11.3. Hydrograph and Flow Duration Curve

    • 11.4. The Mass Curve

    • 11.5. Selection of Site for a Hydro-Electric Power Plant

    • 11.6. Essential Features of a Water-Power Plant

    • 11.7. Calculations of Water Power Plants

    • 11.8. Classification of Hydro-Plant

      • 11.8.1 STORAGE PLANTS

      • 11.8.2. RUN-OF-RIVER POWER PLANTS

      • 11.8.3. PUMPED STORAGE POWER PLANTS

    • 11.9 Power House and Turbine Setting

      • 11.9.1. Advantages and Disadvantages of Underground Power-House

    • 11.10 Prime-Movers

    • 11.11. Specific Speed of Turbine

    • 11.12 Draft Tubes

      • 11.12.1 METHODS TO AVOID CAVITATION

      • 11.12.2 Types of Draft Tubes

      • 11.12.3 DIFFERENT TYPES OF DRAFT TUBES

    • 11.13 Models and Model Testing

    • 11.14. Selection of Turbine

  • Chapter 12. Electrical System

    • 12.1 Introduction

    • 12.2 Generators and Motors

      • 12.2.1 Rotors

      • 12.2.2 Stators

      • 12.2.3 Ventilation

      • 12.2.4 High-Voltage Generators

    • 12.3 Transformers

      • 12.3.1. Constructional Parts

      • 12.3.2. Core Constructions

    • 12.4 Cooling of Transformers

      • 12.4.1 Simple Cooling

      • 12.4.2 Mixed Cooling

      • 12.4.3 Natural Oil Cooling

      • 12.4.4 Forced Oil Cooling

      • 12.4.5 Internal Cooling

    • 12.5 Bus-Bar

      • 12.5.1 Single Bus-Bar System

      • 12.5.2 Single Bus-Bar System with Sectionalisation

      • 12.5.3 Duplicate Bus-Bar System

    • 12.6 Busbar Protection

      • 12.6.1 Differential Protection

      • 12.6.2 Fault Bus Protection

  • Chapter 13. Pollution and its Control

    • 13.1 Introduction

    • 13.2 Environment Polllution due to Energy Use

    • 13.3 Environment Pollution due to Industrial Emissions

    • 13.4 Environment Polllution due to Road Transport

    • 13.5 Harmful Effects of Emissions

      • 13.5.1 BUILDING AND MATERIALS

      • 13.5.2 SOIL, VEGETABLE AND ANIMAL LIFE

      • 13.5.3 HUMAN BEINGS

    • 13.6 Steps Taken so far and their Impact

    • 13.7 Noise Pollution and Its Control

    • 13.8 Green House Gases and their Effects

    • 13.9 Fossil Fuel Pollution

      • 13.9.1 Urban Air Pollution

      • 13.9.2 Acid Rain

      • 13.9.3 Global Climate Change

      • 13.9.4 Stratospheric Ozone Depletion

      • 13.9.4 Acid Fog

    • 13.10 Pollution due to Combustion of Fuel

      • 13.10.1 Gas Fuel

      • 13.10.2 Methane

      • 13.10.3 Alkanes

    • 13.11 Pollution due to Gas Combustion

      • 13.11.1 Unburned Hydrocarbons (UHCS)

      • 13.11.2 Carbon Monoxide (CO)

      • 13.11.3 Nitric Oxide (NOx)

      • 13.11.4 Soot

    • 13.12 Pollution due to Liquid Fuel

      • 13.12.1 Atomization

      • 13.12.2 Vaporization

      • 13.12.3 Modes of Combustion

    • 13.13 Pollution due to Solid Fuel

    • 13.14 Air Pollution by Thermal Power Plants

    • 13.15 Water Pollution by Thermal Power Plants

    • 13.16 Environment Concerns and Diesel Power Plants

    • 13.17 Nuclear Power Plant and the Environment

      • 13.17.1 The Fuel Cycle

      • 13.17.2 Wastes

    • 13.18 Radiations from Nuclear-Power Plant Effluents

    • 13.19 Impact on Pollution Load and Air Quality in Delhi

      • 13.19.1 Environmental Concerns

      • 13.19.2 Pollution Levels

      • 13.19.3 Measures to Combat Pollution

    • 13.20 Method for Pollution Control

    • 13.21 Control of Marine Pollution

  • Appendix

  • Glossary

  • Bibliography

  • Index

Nội dung

[...]... plants, which are discussed in this book, are, 1 Steam power plant 2 Diesel power plant 3 Gas turbine power plant 4 Nuclear power plant 5 Hydro electric power plant The Steam Power Plant, Diesel Power Plant, Gas Turbine Power Plant and Nuclear Power Plants are called THERMAL POWER PLANT, because these convert heat into electric energy FUNDAMENTAL OF POWER PLANT 3 1.4 ENERGY Energy is the capacity for doing... 8.14.3 Forced Circulation Cooling System 8.15 Diesel Plant Operation 8.16 Efficiency of Diesel Power Plant 8.17 Heat Balance Sheet Chapter 9 : Gas Turbine Power Plant 9.1 Introduction 9.2 Classification of Gas Turbine Power Plant 9.2.1 Open Cycle Gas Turbine Power Plant 9.2.2 Closed Cycle Gas Turbine Power Plant 9.3 Elements of Gas Turbine Power Plants 9.3.1 Compressors 9.3.2 Intercoolers and Heat... Cost of Nuclear Power Plant Nuclear Power Station in India Light Water Reactor (LWR) and Heavy Water Reactor (HWR) 10.16.1 Importance of Heavy Water 10.17 Site Selection 10.18 Comparison of Nulcear Power Plant and Steam Power Plant 10.19 Multiplication Factor 10.20 Uranium Enrichment 10.21 Reactor Power Control 10.22 Nuclear Power Plant Economics 10.23 Safety Measures for Nuclear Power Plants 10.24 Site... Accidents Chapter 11 : Hydro-Electric Power Plants 11.1 11.2 11.3 11.4 11.5 11.6 11.7 11.8 Introduction Run-Off Hydrograph and Flow Duration Curve The Mass Curve Selection of Site for a Hydro-Electric Power Plant Essential Features of a Water -Power Plant Calculations of Water Power Plants Classification of Hydro -Plant 11.8.1 Storage Plants 11.8.2 Run-of-River Power Plants 327 327... 130 131 132 132 (xi) 3.12 Ideal and Realized Load Curves 3.13 Effect of Variable Load on Power Plan Design 3.14 Effect of Variable Load on Power Plant Operation Chapter 4 : Steam Power Plant 4.1 Introduction 4.2 Essentials of Steam Power Plant Equipment 4.2.1 Power Station Design 4.2.2 Characteristics of Steam Power Plant 4.3 Coal Handling 4.3.1 Dewatering of Coal 4.4 Fuel Burning Furnaces 4.4.1 Types... Diesel Power Plant 8.1 Introduction 8.2 Operating Principle 8.3 Basic Types of IC Engines 8.3.1 Two-Stroke, Spark Ignition Gas Engines/Petrol Engines 8.3.2 Diesel Engines/Heavy Oil Engines 8.3.3 Duel Fuel Engines 8.3.4 High Compression Gas Engines 8.4 Advantage of Diesel Power Plant 8.5 Disadvantage of Diesel Power Plant 8.6 Application of Diesel Power Plant 8.7 General Layout of Diesel Power Plant. .. population depends on these natural resources Depletion of these natural resources such as fuel, fodder, and housing power plant; 1.2 CONCEPT OF POWER PLANT A power plant is assembly of systems or subsystems to generate electricity, i.e., power with economy and requirements The power plant itself must be useful economically and environmental friendly to the society The present book is oriented to conventional... country, enough emphasis has been given for thermal Power plants in the IX plan period The location of hydel -power plants is mostly determined by the natural topography available and location of thermal plants is dictated by the source of fuel or transportation facilities available if the, power plant is to be located far from coalmines For nuclear power plant any site can be selected paying due consideration... FUNDAMENTAL OF POWER PLANT 1.13 CLASSIFICATION OF POWER PLANT CYCLE Power plants cycle generally divided in to the following groups, (1) Vapour Power Cycle (Carnot cycle, Rankine cycle, Regenerative cycle, Reheat cycle, Binary vapour cycle) (2) Gas Power Cycles (Otto cycle, Diesel cycle, Dual combustion cycle, Gas turbine cycle.) 1.13.1 CARNOT CYCLE This cycle is of great value to heat power theory although... proportional to the square of its speed 1.6 POWER Power is the rate doing work, which equals energy per time Energy is thus required to produce power We need energy to run power plants to generate electricity We need power to run our appliances, and heat our homes Without energy we would not have electricity The units of power are watts, joules per second, and horsepower, where ; 1 Watt = 1 joule per second . Water -Power Plant 349 11.7 Calculations of Water Power Plants 351 11.8 Classification of Hydro -Plant 352 11.8.1 Storage Plants 352 11.8.2 Run-of-River Power Plants 354 (xvi) 11.8.3 Pumped Storage Power. 238 8.4 Advantage of Diesel Power Plant 238 8.5 Disadvantage of Diesel Power Plant 238 8.6 Application of Diesel Power Plant 238 8.7 General Layout of Diesel Power Plant 239 8.8 Performance of. Power Plant 253 8.17 Heat Balance Sheet 255 Chapter 9 : Gas Turbine Power Plant 267 9.1 Introduction 267 9.2 Classification of Gas Turbine Power Plant 267 9.2.1 Open Cycle Gas Turbine Power Plant

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