Energy Alternatives
by Tom Giebultowicz
- Subjects
- Engineering, Environmental Engineering (Sustainability and Conservation)
- Licence
- CC BY 4.0, as LibreTexts states it
- Who can read
- Tweens profiles and older, judged from its title and subjects
Contents
LibreTexts writes equations in TeX, and here they show as TeX; the PDF has them typeset.
- Front Matter
- TitlePage
- InfoPage
- Table of Contents
- Licensing
- 1: Energy Alternatives { what's the meaning?}
- 1.1: Brief semantic considerations
- 1.2: Things to be chosen" What things, what choice?
- 1.3: Back to the definitions- which one? 2a or 2b?
- 2: General Remarks
- 2.1: Energy and power
- 2.1.1: Energy Conservation
- 2.1.2: Energy and Work
- 2.1.3: Energy Units
- 2.1.4: Power
- 2.1.5: Energy expressed in terms of power
- 2.2: Forms of Energy- Physicist’s View .
- 2.2.1: Potential Energy
- 2.2.2: Kinetic Energy
- 2.2.3: Energy of an Oscillator
- 2.2.4: Free Fall, Satellite Motion and the Mechanism of Tides
- 2.2.4.1: Free Fall
- 2.2.4.2: Circular Motion
- 2.2.4.3: Projectile Motion- Very Long Range
- 2.2.4.4: Satellite Motion
- 2.2.4.5: Tidal Forces
- 2.2.4.6: Extreme Tidal Effects
- 2.3: Thermal Energy and Heat
- 2.3.1: Forms of Energy and Power- an Engineer’s Approach
- 3: Fossil Fuels and Thermal Engines
- 3.1: Fossil Fuel Resources
- 3.2: How much energy there is in fossil fuels?
- 3.2.1: How much CO2 is released by burning various fuels
- 3.3: Heat Engines
- 3.4: The Efficiency of Thermal Engines
- 3.4.1: The First Law of Thermodynamics.
- 3.4.2: Entropy
- 3.4.3: The Second Law of Thermodynamics
- 3.4.4: Sad Consequences of the Second Law
- 3.4.5: The Efficiency of an Ideal Thermal Engine
- 3.4.6: Even sadder news
- 4: Nuclear Power
- 4.1: A Note from the Author
- 4.2: Nuclear Physics- Brief Review of Fundamental Facts
- 4.3: Radioactive Decay
- 4.3.1: Energy Units in Nuclear Physics
- 4.3.2: The Decay Constants and Half-Lives
- 4.4: Nuclear Cross Sections
- 4.5: Nuclear Fission
- 4.5.1: Fission and Fusion Energy
- 4.5.2: How to calculate the mass defect?
- 4.5.3: Energy Released by the Fission of a Single Nucleus
- 4.5.4: Nuclear Fusion
- 4.6: Controlling the Fission Chain Reaction- Nuclear Reactors
- 4.6.1: Essential Cross Sections
- 4.6.2: No magic tricks are necessary!
- 4.6.3: Controlling the Chain Reaction and Cooling the Assembly
- 4.6.4: Power Reactors
- 4.6.5: Generation IV Reactors and Thorium Fuel
- 4.7: NuScale’s Small Modular Reactors – an Oregon-born Project
- 4.8: The Pros and Cons of Nuclear Power
- 5: Hydropower
- 5.1: Introduction
- 5.2: The Origin of Hydropower
- 5.3: Methods of Harnessing Hydropower
- 5.3.1: The Kaplan and Francis Turbines
- 5.3.2: The Pelton Turbine
- 5.4: About One Famous Hydropower Plant Using Pelton Turbines
- 5.5: Pumped Storage Hydroelectric Plants (PSHP)
- 5.6: New Ideas for Hydraulic Energy Storage
- 6: Windpower
- 6.1: Applications- Winds Over the Seas
- 6.2: Winds Blowing over the Lands
- 6.3: Applications- Land and Off-shore Use
- 6.4: The Physics of a Wind Turbine
- 6.4.1: Problems with Wind Power
- 7: Direct Solar Power
- 7.1: Introduction
- 7.2: Harnessing Solar Power
- 7.3: The Concentrated Solar Power (CSP) Technology
- 7.3.1: Solar Towers Molten Salt Heat Storing Technology
- 7.3.2: Parabolic Troughs and Fresnel Mirrors
- 7.3.3: The Linear Fresnel Mirror CSP Technology
- 7.3.4: CSP – Pros and Contras
- 7.4: Photovoltaic Conversion of Solar Power
- 7.4.1: Theoretical Background the Nature of Light and the Photoelectric Effect
- 7.4.2: Semiconductors and Doped Semiconductors
- 7.4.3: The p-n Junction
- 7.4.4: Internal Photoelectric Effect in Semiconductors
- 7.4.5: PV Cells
- 7.4.6: Solar Cell Efficiency
- 7.4.7: Inverters
- 7.4.8: Pros and Cons of PV Solar Power Harnessing
- 8: Harnessing Power from Oceans and Seas
- 8.1: Introduction
- 8.2: Wavepower
- 8.2.1: Methods of Harnessing Wavepower
- 8.2.2: Attenuators
- 8.2.3: Point Absorbers
- 8.2.4: Other Wave Power Capturing Devices
- 8.3: Tidal Power
- 8.3.1: A Bit More of Physics
- 8.3.2: Tides in Coastal Regions, Tidal Currents
- 8.3.3: Methods of Harnessing Tidal Power
- 8.3.4: Tidal Power – Conclusions
- 8.4: Ocean Thermal Energy Conversion (OTEC)
- 8.5: Other Possible Ways of Extracting Power from Oceans
- 8.5.1: Ocean Currents
- 8.5.2: Osmotic (Salinity Gradient) Power Generation
- 9: Geothermal Power
- 9.1: The Non-Uniform Distribution of Geothermal Heat Flux
- 9.2: Geothermal Electricity Generation
- 9.2.1: The Flash Steam Method
- 9.2.2: The Binary Cycle Method
- 9.3: The Enhanced Geothermal Systems
- 9.4: Geothermal Heating
- 9.4.1: Shallow Geothermal Heating
- 10: Biofuels
- 10.1: The History of Biofuels
- 10.2: New Solid Biofuels
- 10.3: Liquid Biofuels
- 10.3.1: Bioethanol
- 10.3.2: Biodiesel Fuel
- 10.4: Other Ways of Harnessing Plant Energy- “Bioelectricity
- 11: Energy Storage
- 11.1: Introduction
- 11.2: Overcoming the Challenges of Wind Power
- 11.3: Problems with Solar Power- the \Duck Curve"
- 11.4: Energy Storage Technologies
- 11.4.1: Battery Storage
- 11.4.1.1: The Voltaic Cell
- 11.4.1.2: Lead-Acid Batteries
- 11.4.1.3: Lithium-Ion Batteries
- 11.4.1.4: The “Families” of Li-ion Batteries Manufactured
- 11.4.1.5: Batteries for Industry- and Grid-scale Storage
- 11.4.2: Electricity → potential energy → back to electricity (gravitational energy storage and compressed air energy storage).
- 11.4.3: Electricity → Kinetic Energy → Electricity Storage Scheme
- 11.4.4: Electricity → Thermal Energy → Electricity Storage Scheme
- 11.4.4.1: Molten Silicon
- 11.4.4.2: Heated Volcanic Rocks
- 11.4.4.3: Pumped Heat Energy Storage and Liquid Air Energy Storage
- 11.4.4.4: Small and Medium Scale Thermal Energy Storage
- 11.4.5: Electricity → Chemical Energy
- 11.4.5.1: The evolution of the hydrogen economy policy in the 21st century
- 11.4.5.2: Methods of Green Hydrogen Production
- 11.4.5.3: The recovery of energy stored in the form of hydrogen
- 11.4.5.4: Hydrogen storage and transportation issues
- 11.4.5.5: Hydrogen as a “green” fuel suitable for sea- sonal storage
- Back Matter
- Index
- Glossary
- Detailed Licensing
- Detailed Licensing