Book contents
- Frontmatter
- Contents
- About the Author
- Foreword
- Preface
- Disclaimer Note
- Acknowledgments
- Peer Review of Solar Power Generation Problems, Solutions, and Monitoring
- 1 Types of Energy Sources and Energy Production and Use
- 2 Significance of Large-Scale Photovoltaic Solar Power Energy Production
- 3 Concentrator Photovoltaic Technology
- 4 Issues and Problems Associated with Large-Scale Solar Power Systems
- 5 How to Design and Specify Large-Scale Solar Power Systems
- 6 Solar Power Construction and Project Management
- 7 Solar Power Financing
- 8 Large-Scale Solar Power System Legal Issues
- 9 Proposed Advanced Photovoltaic Solar Power System Technology Requirements
- 10 Microinverters and Peak Power Tracking (PPT) Technologies
- 11 Advanced Solar Power Generation and Integration with Smart Grid
- 12 Large-Scale Energy Storage Systems
- Appendix A Glossary: Solar Energy Power Terms
- Appendix B Feasibility Study and Example
- Appendix C Solar Power System Tests
- Appendix D Bakersfield, California, Solar Power Fire
- Appendix E U.S. Statewide Solar Initiative Programs and International Tariffs
- Appendix F Alternative and Solar Power Engineering Studies Program
- Appendix G Historical Timeline of Solar Power Energy
- Index
1 - Types of Energy Sources and Energy Production and Use
Published online by Cambridge University Press: 05 March 2016
- Frontmatter
- Contents
- About the Author
- Foreword
- Preface
- Disclaimer Note
- Acknowledgments
- Peer Review of Solar Power Generation Problems, Solutions, and Monitoring
- 1 Types of Energy Sources and Energy Production and Use
- 2 Significance of Large-Scale Photovoltaic Solar Power Energy Production
- 3 Concentrator Photovoltaic Technology
- 4 Issues and Problems Associated with Large-Scale Solar Power Systems
- 5 How to Design and Specify Large-Scale Solar Power Systems
- 6 Solar Power Construction and Project Management
- 7 Solar Power Financing
- 8 Large-Scale Solar Power System Legal Issues
- 9 Proposed Advanced Photovoltaic Solar Power System Technology Requirements
- 10 Microinverters and Peak Power Tracking (PPT) Technologies
- 11 Advanced Solar Power Generation and Integration with Smart Grid
- 12 Large-Scale Energy Storage Systems
- Appendix A Glossary: Solar Energy Power Terms
- Appendix B Feasibility Study and Example
- Appendix C Solar Power System Tests
- Appendix D Bakersfield, California, Solar Power Fire
- Appendix E U.S. Statewide Solar Initiative Programs and International Tariffs
- Appendix F Alternative and Solar Power Engineering Studies Program
- Appendix G Historical Timeline of Solar Power Energy
- Index
Summary
Introduction
In order to differentiate the forms of alternative energy sources, it is important to understand the various definitions of energy. Energy, as treated in physics, chemistry, and nature, occurs in numerous forms, all of which involve the ability to perform work. In these sciences, energy is a scalar quantity that is a property of objects and systems, and is conserved by nature.
Several different forms of energy, including kinetic energy, potential energy, thermal energy, gravitational energy, electromagnetic-radiation energy, chemical energy, and nuclear energy, have been defined to explain all known natural phenomena.
Conservation of Energy
Energy can be transformed from one form to another, but it is never created or destroyed. This principle, the law of conservation of energy, was first postulated in the early nineteenth century and applies to any isolated system. The total energy of a system does not change over time, but its value may depend on the frame of reference. For example, a seated passenger in a moving vehicle has zero kinetic energy relative to the vehicle, but does indeed have kinetic energy relative to the earth.
Understanding Energy Production and Use: A Historical Background
Upon establishment of agricultural societies and throughout millennia, some civilizations have established managerial rules in defense, economics, and education that have allowed them to survive and prosper, making their mark in the history. But other societies have dissolved in the annals of history.
Civilizations that established their mark were always led by leaders who maintained superiority in strategizing survival skills, which have constantly evolved as human knowledge progresses. Likewise, the downfall of major civilizations may have resulted from maintaining status quo strategies, which had once promoted their survival but later failed to meet new challenges.
What is significant is that progress in human knowledge develops from constant change and improvements in our understanding of the universal laws of nature, which follow dynamics of natural forces, energies, and events.
The anthropologist Max Gluckman remarked once that “a science is any discipline in which the fool of this generation can go beyond the point reached by the genius of the last generation.” Since strategizing is essentially information-based knowledge, and since information is always evolving at an ever-faster pace, every organizational activity must constantly keep pace with the information expansion simply to survive.
When making reference to any organizational activity, we must consider the extended boundaries of its context.
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