Photovoltaic module reliability 1st edition by John H. Wohlgemuth – Ebook PDF Instant Download/DeliveryISBN: 1119459026, 9781119459026
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ISBN-10 : 1119459026
ISBN-13 : 9781119459026
Author: John H. Wohlgemuth
Provides practical guidance on the latest quality assurance and accelerated stress test methods for improved long-term performance prediction of PV modules This book has been written from a historical perspective to guide readers through how the PV industry learned what the failure and degradation modes of PV modules were, how accelerated tests were developed to cause the same failures and degradations in the laboratory, and then how these tests were used as tools to guide the design and fabrication of reliable and long-life modules. Photovoltaic Module Reliability starts with a brief history of photovoltaics, discussing some of the different types of materials and devices used for commercial solar cells. It then goes on to offer chapters on: Module Failure Modes; Development of Accelerated Stress Tests; Qualification Testing; and Failure Analysis Tools. Next, it examines the use of quality management systems to manufacture PV modules. Subsequent chapters cover the PVQAT Effort; the Conformity Assessment and IECRE; and Predicting PV Module Service Life. The book finishes with a look at what the future holds for PV. A comprehensive treatment of current photovoltaic (PV) technology reliability and necessary improvement to become a significant part of the electric utility supply system Well documented with experimental and practical cases throughout, enhancing relevance to both scientific community and industry Timely contribution to the harmonization of methodological aspects of PV reliability evaluation with test procedures implemented to certify PV module quality Written by a leading international authority in PV module reliability Photovoltaic Module Reliability is an excellent book for anyone interested in PV module reliability, including those working directly on PV module and system reliability and preparing to purchase modules for deployment.
Photovoltaic module reliability 1st Table of contents:
1 Introduction
1.1 Brief History of PVs
1.2 Types of PV Cells
1.3 Module Packaging – Purpose and Types
1.4 What Does Reliability Mean for PV Modules?
1.5 Preview of the Book
References
2 Module Failure Modes
2.1 Broken Interconnects
2.2 Broken/Cracked Cells and Snail Trails
2.3 Delamination
2.4 Corrosion of Cell Metallization
2.5 Encapsulant Discoloration
2.6 Failure of Electrical Bonds Particularly Solder Bonds
2.7 Glass Breakage
2.8 Junction Box Problems
2.9 Loss of Elastomeric Properties of Back Sheets
2.10 Reverse Bias Hot Spots
2.11 By‐Pass Diodes
2.12 Structural Failures
2.13 Ground Faults and Open Circuits Leading to Arcing
2.14 Potential Induced Degradation
2.15 Thin‐Film Specific Defects
References
3 Development of Accelerated Stress Tests
3.1 Thermal Cycling or Change in Temperature
3.2 Damp Heat
3.3 Humidity Freeze
3.4 Ultraviolet (UV) Light Exposure
3.5 Static Mechanical Load
3.6 Cyclic (Dynamic) Mechanical Load
3.7 Reverse Bias Hot Spot Test
3.8 Bypass Diode Thermal Test
3.9 Hail Test
References
4 Qualification Testing
4.1 JPL Block Buy Program
4.2 Evolution of IEC 61215 Qualification Test Sequence
4.3 IEC 61215 Test Protocol
4.4 How Qualification Tests have been Critical to Improving the Reliability and Durability of PV Modules
4.5 Limitations of the Qualification Tests
4.6 PV Module Safety Certification
References
5 Failure Analysis Tools
5.1 PV Performance – Analysis of Light I–V Curves
5.2 Performance as a Function of Irradiance
5.3 Dark I–V Curves
5.4 Visual Inspection
5.5 Infrared (IR) Inspection
5.6 Electroluminescence (EL)
5.7 Adhesion of Layers, Boxes, Frames, etc.
References
6 Using Quality Management Systems to Manufacture PV Modules
6.1 Quality Management Systems
6.2 Using ISO 9000 and IEC 61215
6.3 Why just Using IEC 61215 and ISO 9000 is No Longer Considered Adequate?
6.4 Customer Defined “Do It Yourself” Quality Management and Qualification Systems (IEC 61215 on Steroids)
6.5 Problems with the “Do It Yourself” System
References
7 The PVQAT Effort
7.1 Task Group 1: PV QA Guidelines for Module Manufacturing
7.2 Task Group 2: Testing for Thermal and Mechanical Fatigue
7.3 Task Group 3: Testing for Humidity, Temperature and Voltage
7.4 Task Group 4: Testing for Diodes, Shading and Reverse Bias
7.5 Task Group 5: Testing for UV, Temperature and Humidity
7.6 Task Group 6: Communications of Rating Information
7.7 Task Group 7: Testing for Snow and Wind Load
7.8 Task Group 8: Testing for Thin‐Film Modules
7.9 Task Group 9: Testing for Concentrator Photovoltaic (CPV)
7.10 Task Group 10: Testing for Connectors
7.11 Task Group 11: QA for PV Systems
7.12 Task Group 12: Soiling and Dust
7.13 Task Group 13: Cells
References
8 Conformity Assessment and IECRE
8.1 Module Conformity Assessment – PowerMark, IECQ, PVGAP, and IECEE
8.2 IECRE – Conformity Assessment for PV Systems
References
9 Predicting PV Module Service Life
9.1 Determining Acceleration Factors
9.2 Impact of Design and Manufacturing on Failure or Degradation Rates for PV Modules
9.3 Impact of Location and Type of Mounting on Failure or Degradation Rates for PV Modules
9.4 Extended Stress Testing of PV Modules
9.5 Setting Up a True Service Life Prediction Program
References
10 What does the Future Hold for PV and a Brief Summary
10.1 Current Work on Updating Standards
10.2 Looking to the Future
10.3 Brief Summary
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Tags: Photovoltaic, module reliability, John Wohlgemuth, accelerated stress