BS ISO 17340:2020 - High Speed Compression Test for Porous and Cellular Metals

Discover the cutting-edge standard for testing the ductility of metallic materials with the BS ISO 17340:2020. This comprehensive standard is essential for professionals in the field of materials science and engineering, providing a detailed methodology for conducting high-speed compression tests on porous and cellular metals. Released on May 28, 2020, this standard is a crucial tool for ensuring the quality and performance of advanced metallic materials.

Key Features

• Standard Number: BS ISO 17340:2020
• Pages: 26
• Release Date: 2020-05-28
• ISBN: 978 0 539 12686 0
• Status: Standard

Comprehensive Ductility Testing

The BS ISO 17340:2020 standard provides a rigorous framework for ductility testing, specifically tailored for porous and cellular metals. These materials are increasingly used in a variety of applications due to their unique properties, such as lightweight structure and high strength-to-weight ratio. Understanding their behavior under compression is vital for their effective application in industries ranging from aerospace to biomedical engineering.

Why Choose BS ISO 17340:2020?

This standard is indispensable for professionals who demand precision and reliability in their testing processes. By adhering to the guidelines set forth in BS ISO 17340:2020, you can ensure that your materials meet the highest standards of quality and performance. The standard outlines the necessary equipment, procedures, and conditions for conducting high-speed compression tests, ensuring that your results are both accurate and reproducible.

Applications and Benefits

The high-speed compression test is particularly beneficial for evaluating the mechanical properties of porous and cellular metals, which are often used in applications where energy absorption and impact resistance are critical. This includes:

• Aerospace: Lightweight components that require high strength and energy absorption capabilities.
• Automotive: Crash-resistant structures and components that enhance vehicle safety.
• Biomedical: Implants and prosthetics that benefit from the biocompatibility and structural integrity of cellular metals.
• Construction: Innovative building materials that offer superior performance and sustainability.

Detailed Methodology

The BS ISO 17340:2020 standard provides a step-by-step guide to conducting high-speed compression tests, including:

• Preparation of test specimens to ensure consistency and accuracy.
• Calibration and setup of testing equipment to meet specified requirements.
• Execution of the compression test under controlled conditions.
• Analysis and interpretation of test results to assess material performance.

Stay Ahead with the Latest Standards

In a rapidly evolving field, staying up-to-date with the latest standards is crucial. The BS ISO 17340:2020 standard reflects the latest advancements in materials testing, providing you with the tools you need to maintain a competitive edge. By implementing this standard, you can enhance the reliability and credibility of your testing processes, ultimately leading to better product development and innovation.

Conclusion

The BS ISO 17340:2020 standard is an essential resource for any professional involved in the testing and application of porous and cellular metals. With its comprehensive guidelines and detailed methodology, this standard ensures that you can conduct high-speed compression tests with confidence and precision. Invest in the quality and performance of your materials by incorporating the BS ISO 17340:2020 standard into your testing protocols today.

BS ISO 17340:2020

This standard BS ISO 17340:2020 Metallic materials. Ductility testing. High speed compression test for porous and cellular metals is classified in these ICS categories:

• 77.040.10 Mechanical testing of metals

This document specifies methods for high speed compression testing, at room temperature, of porous and cellular metals having a porosity of 50 % or more. The speed range applicable to this test method is 0,1 m/s to 100 m/s (or 1 s^?1 to 10³ s^?1 in terms of the initial strain rate when the specimen height is 100 mm).