PRICES include / exclude VAT
Homepage>IEEE Standards>29 ELECTRICAL ENGINEERING>29.130 Switchgear and controlgear>29.130.10 High voltage switchgear and controlgear>IEEE C37.100.7-2023 - IEEE Guide for the Evaluation of Performance Characteristics of Non-Sulfur Hexafluoride Insulation and Arc Quenching Media for Switchgear Rated Above 1000 V
Sponsored link
Released: 22.03.2024

IEEE C37.100.7-2023 - IEEE Guide for the Evaluation of Performance Characteristics of Non-Sulfur Hexafluoride Insulation and Arc Quenching Media for Switchgear Rated Above 1000 V

IEEE Guide for the Evaluation of Performance Characteristics of Non-Sulfur Hexafluoride Insulation and Arc Quenching Media for Switchgear Rated Above 1000 V

Format
Availability
Price and currency
English PDF
Immediate download
127.33 EUR
English Hardcopy
In stock
158.44 EUR
Standard number:IEEE C37.100.7-2023
Released:22.03.2024
ISBN:979-8-8557-0425-9
Pages:135
Status:Active
Language:English
DESCRIPTION

IEEE C37.100.7-2023

The guide reviews existing standards and performance criteria for switchgear rated above 1000 V. Each aspect of performance is discussed within the context of sulfur hexafluoride alternatives, how their behavior may differ from existing technologies, and how this behavior may lead to changes in the qualification process. Relevant analytical, numerical, and test methods are discussed which may contribute to the process of performance evaluation and evolution of the standards.

The purpose of this guide is to review the performance characteristics of current Sulfur Hexafluoride alternatives in gas insulated equipment (GIE) and compare these with the demands encountered in service. The guide reveals the reasoning behind existing standard requirements and presents information relevant to their adequacy for SF-alternatives.

New IEEE Standard - Active. Existing standards and performance criteria for switchgear rated above 1000 V are reviewed in this guide. Each aspect of performance is discussed within the context of Sulfur Hexafluoride alternatives, how their behavior might differ from existing technologies and how this behavior can lead to changes in the qualification process. Relevant analytical, numerical and test methods are discussed which contribute to the process of performance evaluation and future evolution of the standards.