Electrical Safety Engineering of Renewable Energy Systems:
Saved in:
| Main Author: | |
|---|---|
| Format: | Electronic eBook |
| Language: | English |
| Published: |
Newark
John Wiley & Sons, Incorporated
2022
|
| Series: | IEEE Press Ser
|
| Subjects: | |
| Online Access: | DE-573 |
| Item Description: | Description based on publisher supplied metadata and other sources |
| Physical Description: | 1 Online-Ressource (288 Seiten) |
| ISBN: | 9781119624998 |
Staff View
MARC
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| 245 | 1 | 0 | |a Electrical Safety Engineering of Renewable Energy Systems |c Rodolfo Araneo (University Of Rome, Rome, Italy), Massimo Mitolo (Irvine Valley College, Irvine, California) |
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| 505 | 8 | |a Intro -- Electrical Safety Engineering of Renewable Energy Systems -- Contents -- Preface -- Acknowledgments -- 1 Fundamental Concepts of Electrical Safety Engineering -- 1.1 Introduction -- 1.2 Electric Shock -- 1.2.1 Ventricular Fibrillation -- 1.2.2 The Heart-current Factor -- 1.3 The Electrical Impedance of the Human Body -- 1.3.1 The Internal Resistance of the Human Body -- 1.4 Thermal Shock -- 1.5 Heated Surfaces of Electrical Equipment and Contact Burn Injuries -- 1.6 Ground-Potential and Ground-Resistance -- 1.6.1 Area of Influence of a Ground-electrode -- 1.7 Hemispherical Electrodes in Parallel -- 1.8 Hemispherical Electrodes in Series -- 1.9 Person's Body Resistance-to-ground and Touch Voltages -- 1.10 Identification of Extraneous-Conductive-Parts -- 1.11 Measuring Touch Voltages -- 2 Safety-by-Design Approach in AC/DC Systems -- 2.1 Introduction -- 2.2 Class I PV Equipment -- 2.3 Class II PV Equipment -- 2.4 Ground Faults and Ground Fault Protection -- 2.5 Functionally Grounded PV Systems -- 2.6 Non-Ground-Referenced PV Systems -- 2.7 Ground-Referenced PV Systems -- 2.8 Fire Hazard in Ground-Referenced PV Systems -- 2.9 Faults at Loads Downstream the PV Inverter in Ground-referenced PV Systems -- 2.10 Non-Electrically Separated PV System -- 2.11 PV Systems Wiring Methods and Safety -- 2.12 d.c. Currents and Safety -- 2.13 Electrical Safety of PV Systems -- 2.14 Rapid-Shutdown of PV Arrays on Buildings -- 2.15 Hazard and Risk -- 3 Grounding and Bonding -- 3.1 Introduction -- 3.2 Basic Concepts of Grounding Systems: The Ground Rod -- 3.3 The Maxwell Method -- 3.4 Multiple Rods: Mutual Resistance -- 3.5 Ground Rings and Ground Grid -- 3.6 Complex Arrangements: Rings and Ground Grids Combined with Rods and Horizontal Electrodes -- 4 Lightning Protection Systems -- 4.1 Review of Natural Lightning Physics, Modeling and Protection | |
| 505 | 8 | |a 4.2 Lightning Protection of PV Systems -- 4.2.1 Ground-Mounted PV Systems -- 4.2.2 Rooftop Mounted PV Systems -- 4.2.3 Protection against Overvoltage -- 4.2.4 Surge Protective Devices (SPDs) -- 4.3 Lighting Protection of Wind Turbines -- 4.3.1 Lightning Protection System (LPS) -- 4.3.2 Step and Touch Voltages -- 4.3.3 Lightning Exposure Assessment -- 4.3.4 Assessment of the Average Annual Number of Dangerous Events NL Due to Flashes Directly to and near Service Cables -- 4.3.5 Lightning Protection Zones -- 4.4 High-Frequency Grounding Systems -- 4.4.1 Arrangement of Ground Electrodes -- 4.4.2 Effective Length of a Ground Electrode -- 4.4.3 Frequency-dependent Soil and Ionization -- 5 Renewable Energy System Protection and Coordination -- 5.1 Introduction -- 5.2 Power Collection Systems -- 5.3 Cable Connections -- 5.4 Offshore Wind Farm -- 5.5 Distributed Energy Resources: Battery Energy Storage Systems and Electric Vehicles -- 6 Soil Resistivity Measurements and Ground Resistance -- 6.1 Soil Resistivity Measurements -- 6.2 Wenner Method -- 6.3 Schlumberger Method -- 6.4 Multi-layer Soils -- 6.4.1 Ground Grid in Multi-layer Soil -- 6.4.2 Ground Rod in Multi-layer Soil -- 6.5 Fall-of-Potential Method for Ground Resistance Measurement -- 6.6 Slope Method for Grounding Resistance Measurement -- 6.7 Star-delta Method for Grounding Resistance Measurement -- 6.8 Four Potential Method for Grounding Resistance Measurement -- 6.9 Potentiometer Method for Grounding Resistance Measurement -- Appendix 1: Performance of Grounding Systems in Transient Conditions -- 1 Grounding System Analysis -- 2 Mathematical Model -- 3 Computation of Impedances -- 4 Green's Function -- 4.1 Static Formulation -- 4.1.1 One-Layer Ground -- 4.1.2 Two-Layer Ground -- 4.2 Dynamic Formulation -- 4.2.1 Equivalent Transmission Line Approach -- 5 Numerical Integration Aspects | |
| 505 | 8 | |a 5.1 Singular Term -- 5.2 Sommerfeld Integrals -- Appendix 2: Cable Failures in Renewable Energy Systems -- 1 Cable Failures in Renewable Energy Systems: Introduction -- 2 Possible Solutions -- 2.1 Optimal Solutions -- 2.2 Termite Attacks Prevention -- 3 Non-destructive Methods for Cable Testing and Fault-locating -- 3.1 Insulation Resistance (IR) Test -- 3.1.1 IR Measurement of the Cable Insulation (XLPE) -- 3.1.2 IR Measurement of the Polyethylene (PE) Cable Jacket -- 3.2 High-Potential Test -- 3.3 LCR Test -- 3.3.1 Insulation Resistance (IR) -- 3.3.2 Dielectric Absorption Ratio (DAR) -- 3.3.3 Polarization Index (PI) -- 3.3.4 Quality Factor (Q) -- 3.3.5 Dissipation Factor (DF) -- 3.3.6 Time Domain Reflectometry (TDR) Test -- 3.3.7 Arc Reflection (ARC) Test -- 3.3.8 Bridge Methods -- 3.4 Cable Fault Analysis -- 3.4.1 Prelocation -- 3.4.2 Pinpointing -- 4 Sheath and Jacket Repairs -- 5 Termite Baiting Stations and Monitoring -- 6 Termite-proof Cables -- Index -- EULA. | |
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Record in the Search Index
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| author | Araneo, Rodolfo 1975- |
| author_GND | (DE-588)1073876128 (DE-588)1224495667 |
| author_facet | Araneo, Rodolfo 1975- |
| author_role | aut |
| author_sort | Araneo, Rodolfo 1975- |
| author_variant | r a ra |
| building | Verbundindex |
| bvnumber | BV048221053 |
| classification_rvk | ZN 8580 |
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| contents | Intro -- Electrical Safety Engineering of Renewable Energy Systems -- Contents -- Preface -- Acknowledgments -- 1 Fundamental Concepts of Electrical Safety Engineering -- 1.1 Introduction -- 1.2 Electric Shock -- 1.2.1 Ventricular Fibrillation -- 1.2.2 The Heart-current Factor -- 1.3 The Electrical Impedance of the Human Body -- 1.3.1 The Internal Resistance of the Human Body -- 1.4 Thermal Shock -- 1.5 Heated Surfaces of Electrical Equipment and Contact Burn Injuries -- 1.6 Ground-Potential and Ground-Resistance -- 1.6.1 Area of Influence of a Ground-electrode -- 1.7 Hemispherical Electrodes in Parallel -- 1.8 Hemispherical Electrodes in Series -- 1.9 Person's Body Resistance-to-ground and Touch Voltages -- 1.10 Identification of Extraneous-Conductive-Parts -- 1.11 Measuring Touch Voltages -- 2 Safety-by-Design Approach in AC/DC Systems -- 2.1 Introduction -- 2.2 Class I PV Equipment -- 2.3 Class II PV Equipment -- 2.4 Ground Faults and Ground Fault Protection -- 2.5 Functionally Grounded PV Systems -- 2.6 Non-Ground-Referenced PV Systems -- 2.7 Ground-Referenced PV Systems -- 2.8 Fire Hazard in Ground-Referenced PV Systems -- 2.9 Faults at Loads Downstream the PV Inverter in Ground-referenced PV Systems -- 2.10 Non-Electrically Separated PV System -- 2.11 PV Systems Wiring Methods and Safety -- 2.12 d.c. Currents and Safety -- 2.13 Electrical Safety of PV Systems -- 2.14 Rapid-Shutdown of PV Arrays on Buildings -- 2.15 Hazard and Risk -- 3 Grounding and Bonding -- 3.1 Introduction -- 3.2 Basic Concepts of Grounding Systems: The Ground Rod -- 3.3 The Maxwell Method -- 3.4 Multiple Rods: Mutual Resistance -- 3.5 Ground Rings and Ground Grid -- 3.6 Complex Arrangements: Rings and Ground Grids Combined with Rods and Horizontal Electrodes -- 4 Lightning Protection Systems -- 4.1 Review of Natural Lightning Physics, Modeling and Protection 4.2 Lightning Protection of PV Systems -- 4.2.1 Ground-Mounted PV Systems -- 4.2.2 Rooftop Mounted PV Systems -- 4.2.3 Protection against Overvoltage -- 4.2.4 Surge Protective Devices (SPDs) -- 4.3 Lighting Protection of Wind Turbines -- 4.3.1 Lightning Protection System (LPS) -- 4.3.2 Step and Touch Voltages -- 4.3.3 Lightning Exposure Assessment -- 4.3.4 Assessment of the Average Annual Number of Dangerous Events NL Due to Flashes Directly to and near Service Cables -- 4.3.5 Lightning Protection Zones -- 4.4 High-Frequency Grounding Systems -- 4.4.1 Arrangement of Ground Electrodes -- 4.4.2 Effective Length of a Ground Electrode -- 4.4.3 Frequency-dependent Soil and Ionization -- 5 Renewable Energy System Protection and Coordination -- 5.1 Introduction -- 5.2 Power Collection Systems -- 5.3 Cable Connections -- 5.4 Offshore Wind Farm -- 5.5 Distributed Energy Resources: Battery Energy Storage Systems and Electric Vehicles -- 6 Soil Resistivity Measurements and Ground Resistance -- 6.1 Soil Resistivity Measurements -- 6.2 Wenner Method -- 6.3 Schlumberger Method -- 6.4 Multi-layer Soils -- 6.4.1 Ground Grid in Multi-layer Soil -- 6.4.2 Ground Rod in Multi-layer Soil -- 6.5 Fall-of-Potential Method for Ground Resistance Measurement -- 6.6 Slope Method for Grounding Resistance Measurement -- 6.7 Star-delta Method for Grounding Resistance Measurement -- 6.8 Four Potential Method for Grounding Resistance Measurement -- 6.9 Potentiometer Method for Grounding Resistance Measurement -- Appendix 1: Performance of Grounding Systems in Transient Conditions -- 1 Grounding System Analysis -- 2 Mathematical Model -- 3 Computation of Impedances -- 4 Green's Function -- 4.1 Static Formulation -- 4.1.1 One-Layer Ground -- 4.1.2 Two-Layer Ground -- 4.2 Dynamic Formulation -- 4.2.1 Equivalent Transmission Line Approach -- 5 Numerical Integration Aspects 5.1 Singular Term -- 5.2 Sommerfeld Integrals -- Appendix 2: Cable Failures in Renewable Energy Systems -- 1 Cable Failures in Renewable Energy Systems: Introduction -- 2 Possible Solutions -- 2.1 Optimal Solutions -- 2.2 Termite Attacks Prevention -- 3 Non-destructive Methods for Cable Testing and Fault-locating -- 3.1 Insulation Resistance (IR) Test -- 3.1.1 IR Measurement of the Cable Insulation (XLPE) -- 3.1.2 IR Measurement of the Polyethylene (PE) Cable Jacket -- 3.2 High-Potential Test -- 3.3 LCR Test -- 3.3.1 Insulation Resistance (IR) -- 3.3.2 Dielectric Absorption Ratio (DAR) -- 3.3.3 Polarization Index (PI) -- 3.3.4 Quality Factor (Q) -- 3.3.5 Dissipation Factor (DF) -- 3.3.6 Time Domain Reflectometry (TDR) Test -- 3.3.7 Arc Reflection (ARC) Test -- 3.3.8 Bridge Methods -- 3.4 Cable Fault Analysis -- 3.4.1 Prelocation -- 3.4.2 Pinpointing -- 4 Sheath and Jacket Repairs -- 5 Termite Baiting Stations and Monitoring -- 6 Termite-proof Cables -- Index -- EULA. |
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| discipline | Elektrotechnik / Elektronik / Nachrichtentechnik |
| discipline_str_mv | Elektrotechnik / Elektronik / Nachrichtentechnik |
| format | Electronic eBook |
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| id | DE-604.BV048221053 |
| illustrated | Not Illustrated |
| index_date | 2024-07-03T19:50:32Z |
| indexdate | 2024-07-20T05:58:44Z |
| institution | BVB |
| isbn | 9781119624998 |
| language | English |
| oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-033601792 |
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| physical | 1 Online-Ressource (288 Seiten) |
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| publishDate | 2022 |
| publishDateSearch | 2022 |
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| publisher | John Wiley & Sons, Incorporated |
| record_format | marc |
| series2 | IEEE Press Ser |
| spelling | Araneo, Rodolfo 1975- Verfasser (DE-588)1073876128 aut Electrical Safety Engineering of Renewable Energy Systems Rodolfo Araneo (University Of Rome, Rome, Italy), Massimo Mitolo (Irvine Valley College, Irvine, California) Newark John Wiley & Sons, Incorporated 2022 ©2022 1 Online-Ressource (288 Seiten) txt rdacontent c rdamedia cr rdacarrier IEEE Press Ser Description based on publisher supplied metadata and other sources Intro -- Electrical Safety Engineering of Renewable Energy Systems -- Contents -- Preface -- Acknowledgments -- 1 Fundamental Concepts of Electrical Safety Engineering -- 1.1 Introduction -- 1.2 Electric Shock -- 1.2.1 Ventricular Fibrillation -- 1.2.2 The Heart-current Factor -- 1.3 The Electrical Impedance of the Human Body -- 1.3.1 The Internal Resistance of the Human Body -- 1.4 Thermal Shock -- 1.5 Heated Surfaces of Electrical Equipment and Contact Burn Injuries -- 1.6 Ground-Potential and Ground-Resistance -- 1.6.1 Area of Influence of a Ground-electrode -- 1.7 Hemispherical Electrodes in Parallel -- 1.8 Hemispherical Electrodes in Series -- 1.9 Person's Body Resistance-to-ground and Touch Voltages -- 1.10 Identification of Extraneous-Conductive-Parts -- 1.11 Measuring Touch Voltages -- 2 Safety-by-Design Approach in AC/DC Systems -- 2.1 Introduction -- 2.2 Class I PV Equipment -- 2.3 Class II PV Equipment -- 2.4 Ground Faults and Ground Fault Protection -- 2.5 Functionally Grounded PV Systems -- 2.6 Non-Ground-Referenced PV Systems -- 2.7 Ground-Referenced PV Systems -- 2.8 Fire Hazard in Ground-Referenced PV Systems -- 2.9 Faults at Loads Downstream the PV Inverter in Ground-referenced PV Systems -- 2.10 Non-Electrically Separated PV System -- 2.11 PV Systems Wiring Methods and Safety -- 2.12 d.c. Currents and Safety -- 2.13 Electrical Safety of PV Systems -- 2.14 Rapid-Shutdown of PV Arrays on Buildings -- 2.15 Hazard and Risk -- 3 Grounding and Bonding -- 3.1 Introduction -- 3.2 Basic Concepts of Grounding Systems: The Ground Rod -- 3.3 The Maxwell Method -- 3.4 Multiple Rods: Mutual Resistance -- 3.5 Ground Rings and Ground Grid -- 3.6 Complex Arrangements: Rings and Ground Grids Combined with Rods and Horizontal Electrodes -- 4 Lightning Protection Systems -- 4.1 Review of Natural Lightning Physics, Modeling and Protection 4.2 Lightning Protection of PV Systems -- 4.2.1 Ground-Mounted PV Systems -- 4.2.2 Rooftop Mounted PV Systems -- 4.2.3 Protection against Overvoltage -- 4.2.4 Surge Protective Devices (SPDs) -- 4.3 Lighting Protection of Wind Turbines -- 4.3.1 Lightning Protection System (LPS) -- 4.3.2 Step and Touch Voltages -- 4.3.3 Lightning Exposure Assessment -- 4.3.4 Assessment of the Average Annual Number of Dangerous Events NL Due to Flashes Directly to and near Service Cables -- 4.3.5 Lightning Protection Zones -- 4.4 High-Frequency Grounding Systems -- 4.4.1 Arrangement of Ground Electrodes -- 4.4.2 Effective Length of a Ground Electrode -- 4.4.3 Frequency-dependent Soil and Ionization -- 5 Renewable Energy System Protection and Coordination -- 5.1 Introduction -- 5.2 Power Collection Systems -- 5.3 Cable Connections -- 5.4 Offshore Wind Farm -- 5.5 Distributed Energy Resources: Battery Energy Storage Systems and Electric Vehicles -- 6 Soil Resistivity Measurements and Ground Resistance -- 6.1 Soil Resistivity Measurements -- 6.2 Wenner Method -- 6.3 Schlumberger Method -- 6.4 Multi-layer Soils -- 6.4.1 Ground Grid in Multi-layer Soil -- 6.4.2 Ground Rod in Multi-layer Soil -- 6.5 Fall-of-Potential Method for Ground Resistance Measurement -- 6.6 Slope Method for Grounding Resistance Measurement -- 6.7 Star-delta Method for Grounding Resistance Measurement -- 6.8 Four Potential Method for Grounding Resistance Measurement -- 6.9 Potentiometer Method for Grounding Resistance Measurement -- Appendix 1: Performance of Grounding Systems in Transient Conditions -- 1 Grounding System Analysis -- 2 Mathematical Model -- 3 Computation of Impedances -- 4 Green's Function -- 4.1 Static Formulation -- 4.1.1 One-Layer Ground -- 4.1.2 Two-Layer Ground -- 4.2 Dynamic Formulation -- 4.2.1 Equivalent Transmission Line Approach -- 5 Numerical Integration Aspects 5.1 Singular Term -- 5.2 Sommerfeld Integrals -- Appendix 2: Cable Failures in Renewable Energy Systems -- 1 Cable Failures in Renewable Energy Systems: Introduction -- 2 Possible Solutions -- 2.1 Optimal Solutions -- 2.2 Termite Attacks Prevention -- 3 Non-destructive Methods for Cable Testing and Fault-locating -- 3.1 Insulation Resistance (IR) Test -- 3.1.1 IR Measurement of the Cable Insulation (XLPE) -- 3.1.2 IR Measurement of the Polyethylene (PE) Cable Jacket -- 3.2 High-Potential Test -- 3.3 LCR Test -- 3.3.1 Insulation Resistance (IR) -- 3.3.2 Dielectric Absorption Ratio (DAR) -- 3.3.3 Polarization Index (PI) -- 3.3.4 Quality Factor (Q) -- 3.3.5 Dissipation Factor (DF) -- 3.3.6 Time Domain Reflectometry (TDR) Test -- 3.3.7 Arc Reflection (ARC) Test -- 3.3.8 Bridge Methods -- 3.4 Cable Fault Analysis -- 3.4.1 Prelocation -- 3.4.2 Pinpointing -- 4 Sheath and Jacket Repairs -- 5 Termite Baiting Stations and Monitoring -- 6 Termite-proof Cables -- Index -- EULA. Energieversorgung (DE-588)4014736-8 gnd rswk-swf Elektrotechnik (DE-588)4014390-9 gnd rswk-swf Erneuerbare Energien (DE-588)4068598-6 gnd rswk-swf Technische Sicherheit (DE-588)4059233-9 gnd rswk-swf Technische Sicherheit (DE-588)4059233-9 s DE-604 Elektrotechnik (DE-588)4014390-9 s Erneuerbare Energien (DE-588)4068598-6 s Energieversorgung (DE-588)4014736-8 s Mitolo, Massimo Sonstige (DE-588)1224495667 oth Erscheint auch als Druck-Ausgabe Mitolo, Massimo Electrical Safety Engineering of Renewable Energy Systems Newark : John Wiley & Sons, Incorporated,c2021 978-1-119-62498-1 |
| spellingShingle | Araneo, Rodolfo 1975- Electrical Safety Engineering of Renewable Energy Systems Intro -- Electrical Safety Engineering of Renewable Energy Systems -- Contents -- Preface -- Acknowledgments -- 1 Fundamental Concepts of Electrical Safety Engineering -- 1.1 Introduction -- 1.2 Electric Shock -- 1.2.1 Ventricular Fibrillation -- 1.2.2 The Heart-current Factor -- 1.3 The Electrical Impedance of the Human Body -- 1.3.1 The Internal Resistance of the Human Body -- 1.4 Thermal Shock -- 1.5 Heated Surfaces of Electrical Equipment and Contact Burn Injuries -- 1.6 Ground-Potential and Ground-Resistance -- 1.6.1 Area of Influence of a Ground-electrode -- 1.7 Hemispherical Electrodes in Parallel -- 1.8 Hemispherical Electrodes in Series -- 1.9 Person's Body Resistance-to-ground and Touch Voltages -- 1.10 Identification of Extraneous-Conductive-Parts -- 1.11 Measuring Touch Voltages -- 2 Safety-by-Design Approach in AC/DC Systems -- 2.1 Introduction -- 2.2 Class I PV Equipment -- 2.3 Class II PV Equipment -- 2.4 Ground Faults and Ground Fault Protection -- 2.5 Functionally Grounded PV Systems -- 2.6 Non-Ground-Referenced PV Systems -- 2.7 Ground-Referenced PV Systems -- 2.8 Fire Hazard in Ground-Referenced PV Systems -- 2.9 Faults at Loads Downstream the PV Inverter in Ground-referenced PV Systems -- 2.10 Non-Electrically Separated PV System -- 2.11 PV Systems Wiring Methods and Safety -- 2.12 d.c. Currents and Safety -- 2.13 Electrical Safety of PV Systems -- 2.14 Rapid-Shutdown of PV Arrays on Buildings -- 2.15 Hazard and Risk -- 3 Grounding and Bonding -- 3.1 Introduction -- 3.2 Basic Concepts of Grounding Systems: The Ground Rod -- 3.3 The Maxwell Method -- 3.4 Multiple Rods: Mutual Resistance -- 3.5 Ground Rings and Ground Grid -- 3.6 Complex Arrangements: Rings and Ground Grids Combined with Rods and Horizontal Electrodes -- 4 Lightning Protection Systems -- 4.1 Review of Natural Lightning Physics, Modeling and Protection 4.2 Lightning Protection of PV Systems -- 4.2.1 Ground-Mounted PV Systems -- 4.2.2 Rooftop Mounted PV Systems -- 4.2.3 Protection against Overvoltage -- 4.2.4 Surge Protective Devices (SPDs) -- 4.3 Lighting Protection of Wind Turbines -- 4.3.1 Lightning Protection System (LPS) -- 4.3.2 Step and Touch Voltages -- 4.3.3 Lightning Exposure Assessment -- 4.3.4 Assessment of the Average Annual Number of Dangerous Events NL Due to Flashes Directly to and near Service Cables -- 4.3.5 Lightning Protection Zones -- 4.4 High-Frequency Grounding Systems -- 4.4.1 Arrangement of Ground Electrodes -- 4.4.2 Effective Length of a Ground Electrode -- 4.4.3 Frequency-dependent Soil and Ionization -- 5 Renewable Energy System Protection and Coordination -- 5.1 Introduction -- 5.2 Power Collection Systems -- 5.3 Cable Connections -- 5.4 Offshore Wind Farm -- 5.5 Distributed Energy Resources: Battery Energy Storage Systems and Electric Vehicles -- 6 Soil Resistivity Measurements and Ground Resistance -- 6.1 Soil Resistivity Measurements -- 6.2 Wenner Method -- 6.3 Schlumberger Method -- 6.4 Multi-layer Soils -- 6.4.1 Ground Grid in Multi-layer Soil -- 6.4.2 Ground Rod in Multi-layer Soil -- 6.5 Fall-of-Potential Method for Ground Resistance Measurement -- 6.6 Slope Method for Grounding Resistance Measurement -- 6.7 Star-delta Method for Grounding Resistance Measurement -- 6.8 Four Potential Method for Grounding Resistance Measurement -- 6.9 Potentiometer Method for Grounding Resistance Measurement -- Appendix 1: Performance of Grounding Systems in Transient Conditions -- 1 Grounding System Analysis -- 2 Mathematical Model -- 3 Computation of Impedances -- 4 Green's Function -- 4.1 Static Formulation -- 4.1.1 One-Layer Ground -- 4.1.2 Two-Layer Ground -- 4.2 Dynamic Formulation -- 4.2.1 Equivalent Transmission Line Approach -- 5 Numerical Integration Aspects 5.1 Singular Term -- 5.2 Sommerfeld Integrals -- Appendix 2: Cable Failures in Renewable Energy Systems -- 1 Cable Failures in Renewable Energy Systems: Introduction -- 2 Possible Solutions -- 2.1 Optimal Solutions -- 2.2 Termite Attacks Prevention -- 3 Non-destructive Methods for Cable Testing and Fault-locating -- 3.1 Insulation Resistance (IR) Test -- 3.1.1 IR Measurement of the Cable Insulation (XLPE) -- 3.1.2 IR Measurement of the Polyethylene (PE) Cable Jacket -- 3.2 High-Potential Test -- 3.3 LCR Test -- 3.3.1 Insulation Resistance (IR) -- 3.3.2 Dielectric Absorption Ratio (DAR) -- 3.3.3 Polarization Index (PI) -- 3.3.4 Quality Factor (Q) -- 3.3.5 Dissipation Factor (DF) -- 3.3.6 Time Domain Reflectometry (TDR) Test -- 3.3.7 Arc Reflection (ARC) Test -- 3.3.8 Bridge Methods -- 3.4 Cable Fault Analysis -- 3.4.1 Prelocation -- 3.4.2 Pinpointing -- 4 Sheath and Jacket Repairs -- 5 Termite Baiting Stations and Monitoring -- 6 Termite-proof Cables -- Index -- EULA. Energieversorgung (DE-588)4014736-8 gnd Elektrotechnik (DE-588)4014390-9 gnd Erneuerbare Energien (DE-588)4068598-6 gnd Technische Sicherheit (DE-588)4059233-9 gnd |
| subject_GND | (DE-588)4014736-8 (DE-588)4014390-9 (DE-588)4068598-6 (DE-588)4059233-9 |
| title | Electrical Safety Engineering of Renewable Energy Systems |
| title_auth | Electrical Safety Engineering of Renewable Energy Systems |
| title_exact_search | Electrical Safety Engineering of Renewable Energy Systems |
| title_exact_search_txtP | Electrical Safety Engineering of Renewable Energy Systems |
| title_full | Electrical Safety Engineering of Renewable Energy Systems Rodolfo Araneo (University Of Rome, Rome, Italy), Massimo Mitolo (Irvine Valley College, Irvine, California) |
| title_fullStr | Electrical Safety Engineering of Renewable Energy Systems Rodolfo Araneo (University Of Rome, Rome, Italy), Massimo Mitolo (Irvine Valley College, Irvine, California) |
| title_full_unstemmed | Electrical Safety Engineering of Renewable Energy Systems Rodolfo Araneo (University Of Rome, Rome, Italy), Massimo Mitolo (Irvine Valley College, Irvine, California) |
| title_short | Electrical Safety Engineering of Renewable Energy Systems |
| title_sort | electrical safety engineering of renewable energy systems |
| topic | Energieversorgung (DE-588)4014736-8 gnd Elektrotechnik (DE-588)4014390-9 gnd Erneuerbare Energien (DE-588)4068598-6 gnd Technische Sicherheit (DE-588)4059233-9 gnd |
| topic_facet | Energieversorgung Elektrotechnik Erneuerbare Energien Technische Sicherheit |
| work_keys_str_mv | AT araneorodolfo electricalsafetyengineeringofrenewableenergysystems AT mitolomassimo electricalsafetyengineeringofrenewableenergysystems |