BS EN IEC 61788-23:2018

# BS EN IEC 61788-23:2018 - Superconductivity: Metrology and Measurement## OverviewBS EN IEC 61788-23:2018 is the definitive standard for the metrology and measurement of superconducting materials and devices. Developed by the International Electrotechnical Commission (IEC), this standard provides detailed guidelines and requirements for the accurate testing and characterization of superconducting properties.## Key Benefits- Ensures reliable, reproducible measurements of critical superconducting parameters- Enables consistent benchmarking and comparison of superconducting materials and components- Supports the development and quality control of advanced superconducting technologies- Facilitates compliance with international regulations and industry best practices## Technical Specifications### Measurement Techniques- Covers a range of measurement techniques, including: - Critical current - Critical temperature - Critical magnetic field - AC loss - Thermal conductivity - Electrical resistivity### Measurement Conditions- Specifies requirements for measurement conditions, such as: - Temperature - Magnetic field - Current - Voltage - Pressure### Measurement Uncertainty- Provides guidance on determining and reporting measurement uncertainty- Ensures accurate, reliable data for superconducting material and device characterization### Compliance and Traceability- Aligns with relevant international standards, including: - EN 61753-121-3:2010 (Identical) - IEC 61788-23:2018 (Identical)- Supports traceability to national and international measurement standards## ApplicationsBS EN IEC 61788-23:2018 is an essential reference for a wide range of industries and applications, including:- Superconducting electronics and devices- Superconducting magnets and coils- Superconducting power transmission and storage- Cryogenic systems and components- Superconducting materials research and developmentBy adhering to the rigorous requirements of this standard, organizations can ensure the accurate characterization and reliable performance of their superconducting technologies, ultimately driving innovation and advancing the field of superconductivity.