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应用于储存和密封材料的氢辅助老化:综述

Hydrogen-Assisted Aging Applied to Storage and Sealing Materials: A Comprehensive Review.

作者信息

Habib A K M Ahsanul, Sakib Ahmed Nazmus, Mona Zarin Tasnim, Bhuiyan Md Monjur Hossain, Kazempoor Pejman, Siddique Zahed

机构信息

Department of Materials Science and Engineering, Rajshahi University of Engineering & Technology, Rajshahi 6204, Bangladesh.

Department of Aerospace and Mechanical Engineering, University of Oklahoma, Norman, OK 73019, USA.

出版信息

Materials (Basel). 2023 Oct 14;16(20):6689. doi: 10.3390/ma16206689.

Abstract

Hydrogen is a possible alternative to fossil fuels in achieving a sustainable energy future. Unlike other, older energy sources, the suitability of materials for storing, distributing, and sealing systems in a hydrogen environment has not been comprehensively studied. Aging, the extended exposure of a material to an environmental condition, with hydrogen causes degradation and damage to materials that differ from other technologies. Improved understanding of the physical and chemical mechanisms of degradation due to a gaseous hydrogen atmosphere allows us to better select and develop materials that are best suited to carrier and sealing applications. Damage to materials from aging is inevitable with exposure to high-pressure hydrogen. This review discusses the specific mechanisms of different categories of aging of storage and sealing materials in a hydrogen environment. Additionally, this article discusses different laboratory test methods to simulate each type of aging. It covers the limitations of current research in determining material integrity through existing techniques for aging experiments and explores the latest developments in the field. Important improvements are also suggested in terms of material development and testing procedures.

摘要

在实现可持续能源未来方面,氢是化石燃料的一种可能替代品。与其他较老的能源不同,在氢环境中用于储存、分配和密封系统的材料适用性尚未得到全面研究。老化,即材料长时间暴露于环境条件下,在氢气环境中会导致材料降解和损坏,这与其他技术不同。对气态氢气氛导致降解的物理和化学机制有更深入的了解,有助于我们更好地选择和开发最适合载体和密封应用的材料。暴露于高压氢气下,材料因老化而受损是不可避免的。本综述讨论了氢环境中储存和密封材料不同类型老化的具体机制。此外,本文还讨论了模拟每种老化类型的不同实验室测试方法。它涵盖了当前研究在通过现有老化实验技术确定材料完整性方面的局限性,并探索了该领域的最新进展。在材料开发和测试程序方面也提出了重要改进建议。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/44e3/10608210/bfe8a6162cbf/materials-16-06689-g001.jpg

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