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|a 621.31/24
|2 23
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|a UAMI
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|a Sahoo, Umakanta.
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|a A Polygeneration Process Concept for Hybrid Solar and Biomass Power Plant :
|b Simulation, Modeling, and Optimization.
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|a Newark :
|b John Wiley & Sons, Incorporated,
|c 2018.
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|a 1 online resource (297 pages)
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|a text
|b txt
|2 rdacontent
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|a computer
|b c
|2 rdamedia
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|a online resource
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|a Print version record.
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|a Cover; Title Page; Copyright Page; Contents; Foreword; Preface; 1 Introduction; 1.1 Global Scenario on Renewable Energy; 1.2 Indian Scenario on Renewable Energy; Exercise; References; 2 State-of-the-Art Concentrated Solar Thermal Technologies for End Use Applications; 2.1 Solar Thermal Technologies for Low Grade Heat Applications; 2.1.1 Flat Plate Collector System; 2.1.2 Built-In Storage Solar Water Heating System; 2.1.3 Evacuated Tubular Collector System; ETC Water Heating System Specification; 2.1.4 Cumulative Growth of SWHS Installation Capacity; 2.1.5 Performance Evaluation of SWHs.
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|a 2.1.6 Cost Benefits Analysis2.2 Solar Cooking; 2.2.1 Thermal Performance of Solar Box Type Cooker; 2.3 Solar Thermal Cooling; 2.4 Desalination System; 2.5 Industrial Process Heat applications; 2.6 Solar Thermal Technologies for Power Generation; 2.6.1 Parabolic Trough Collector; 2.6.2 Linear Fresnel Reflector; 2.6.3 Central Solar Tower; 2.6.4 Parabolic Dish; 2.7 Cooling with Process Heat in Cogeneration Process for Industrial Applications; 2.7.1 System Description; Exercise; References; 3 Resource Assessment of Solar and Biomass for Hybrid Thermal Power Plant; 3.1 Apparent Solar Time.
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|a 3.2 Solar Angles3.3 Solar Resources (DNI) In India; 3.3.1 Solar DNI from Satellite and Ground Measured Data; 3.3.2 DNI Assessment at NISE; 3.4 Biomass Resources in India; 3.5 Analysis of Solar DNI And Biomass Resources for Hybrid Power Plants; Exercise; References; 4 Solar Thermal Power Plant; 4.1 A Case Study of 1 MWe Solar Thermal Power Plant; 4.2 Major Components; 4.2.1 Parabolic Trough Collector; 4.2.2 Linear Fresnel Reflector; 4.2.3 Storage; 4.2.4 Nitrogen Blanketing System; 4.2.5 Heat Exchanger; 4.2.6 Power Block; 4.2.7 Balance of Plant-Utility Systems; 4.3 Performance of the Plant.
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|a ExerciseReferences; 5 Modeling and Simulation of Hybrid Solar and Biomass Thermal Power Plant; 5.1 Modeling Approach of a Hybrid Solar-Biomass Thermal Power Plant; 5.2 Thermodynamic Evaluation; 5.2.1 Energy Evaluation; 5.2.2 Exergy Evaluation; 5.3 Analysis of Hybrid Solar and Biomass Thermal Power Plant; Exercise; References; 6 Modeling, Simulation, Optimization and Cost Analysis of a Polygeneration Hybrid Solar Biomass System; 6.1 Modeling Approach of Polygeneration Process in an HSB Thermal Power Plant; 6.2 Thermodynamic Evaluation; 6.2.1 Energy Evaluation; 6.2.2 Exergy Evaluation.
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|a 6.3 Primary Energy Savings on the Polygeneration Process in an HSB Thermal Power Plant6.4 Optimization; 6.4.1 Objective Functions; 6.4.2 Decision Variable and Constraints; 6.4.3 Genetic Algorithm (GA); 6.5 Cost Analysis; 6.6 Analysis Of Polygeneration Process in an HSB Thermal Power Plant for Power, Cooling, and Desalination; 6.7 Optimization of the Polygeneration System; 6.8 Cost Analysis of a Polygeneration System; Exercise; References; Appendix 1; Nomenclature; Greek; Subscripts; Acronyms; Appendix 2; EES Software Coding; Appendix 3; Multiple Choice Questions (MCQ) with Answers; Answers.
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|a About the Author.
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|a The global warming phenomenon as a significant sustainability issue is gaining worldwide support for development of renewable energy technologies. The term "polygeneration" is referred to as "an energy supply system, which delivers more than one form of energy to the final user." For example, electricity, cooling and desalination can be delivered from a polygeneration process. The polygeneration process in a hybrid solar thermal power plant can deliver electricity with less impact on the environment compared to a conventional fossil fuel-based power generating system. It is also THE next generation energy production technique with the potential to overcome the undesirable intermittence of renewable energy systems. In this study, the polygeneration process simultaneous production of power, vapor absorption refrigeration (VAR) cooling and multi-effect humidification and dehumidification (MEHD) desalination system from different heat sources in hybrid solar-biomass (HSB) system with higher energy efficiencies (energy and exergy), primary energy savings (PES) and payback period are investigated, focusing on several aspects associated with hybrid solar-biomass power generation installations, such as wide availability of biomass resources and solar direct normal irradiance (DNI), and other technologies. Thermodynamic evaluation (energy and exergy) of HSB power has also been investigated, along with the VAR cooling system, the modelling, simulation, optimization and cost analysis of the polygeneration hybrid solar biomass system, all accompanied by multiple case studies and examples for practical applications. This volume provides the researcher, student and engineer with the intellectual tool needed for understanding new ideas in this rapidly emerging field. The book is also intended to serve as a general source and reference book for the professional (consultant, designer, contractor etc.) who is working in the field of solar thermal, biomass, power plant, polygeneration, cooling and process heat. It is a must-have for anyone working in this field.
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|a Includes bibliographical references and index.
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|a ProQuest Ebook Central
|b Ebook Central Academic Complete
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650 |
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|a Solar power plants.
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|a Biomass energy.
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|a Hybrid power systems.
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|a Centrales solaires.
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|a Bioénergie.
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|a Énergie
|x Systèmes hybrides.
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|a solar power plants.
|2 aat
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|a TECHNOLOGY & ENGINEERING
|x General.
|2 bisacsh
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|a Biomass energy
|2 fast
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|a Hybrid power systems
|2 fast
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|a Solar power plants
|2 fast
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|i Print version:
|a Sahoo, Umakanta.
|t A Polygeneration Process Concept for Hybrid Solar and Biomass Power Plant : Simulation, Modeling, and Optimization.
|d Newark : John Wiley & Sons, Incorporated, ©2018
|z 9781119536093
|
856 |
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