在压力外壳中使用liso2电池的潜在危险和设计解决方案

J. Mather, J. McHarg
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摘要

锂电池的明显优势,即长存储寿命,优异的温度性能,以及出色的体积和重量效率,使这些电池成为海底电子仪器电源的优秀候选人。如果考虑到二氧化硫锂电池(LiSO2)的化学性质,这一点尤其正确,因为它具有长期成功的海底部署历史,并且在低温下具有最小的钝化特性。锂离子电池的卓越品质被对安全的严重担忧所掩盖。如果电池被滥用,它们可能会排放二氧化硫和其他有毒气体,爆炸,燃烧,这种担忧是有道理的;或者当包装在海底压力外壳中时,会导致灾难性的外壳故障。为了量化电池失效的各种模式,并定义包装锂离子电池的设计准则,进行了滥用测试并进行了评估。这包括对单个电池和完整电池组件的实际测试。滥用条件包括高倍率放电、充电、电池翻转、外部加热和海水浸泡。测试在压力外壳内外进行。记录了各种测试的温度和压力曲线,并分析了气体样品,以确定电池故障产品的构成。还对防止电池失效的安全特性和压力外壳包装技术进行了评估,这些技术旨在对电池失效产品进行密封或控制通风。本报告总结了这些测试结果,为金霸王LO26SX电池组件或用于海底系统的等效锂离子电池组件提供了设计指南。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Potential Hazards And Design Solutions In Using LiSO2Batteries In Pressure Housings
The obvious advantages of lithium batteries, i.e., long storage life, excellent temperature performance, and outstanding volumetric and weight efficiencies, make these batteries an excellent candidate for the power source for undersea electronic instruments. This is especially true if the lithium sulfur dioxide battery (LiSO2) chemistry, which has a history of successful long term undersea deployments and minimal passivation characteristics at low temperature, is considered. The superior qualities of the LiSO2battery have been overshadowed by a serious concern for safety. This concern is justified if the cells are abused so they may vent SO2and other toxic gases, detonate, burn; or when packaged in an undersea pressure housing, cause catastrophic housing failure. In an effort to quantify various modes of battery failure and define design guidelines for packaging LiSO2batteries, abuse testing was performed and evaluated. This included actual testing on individual cells as well as on completed battery assemblies. Abuse conditions included high rate discharge, charging, cell reversal, external heating and sea water immersion. Tests were performed in and out of pressure housings. Temperature and pressure profiles were recorded for the various tests and gas samples analyzed to determine the constitution of the battery failure products. Safety features which protect against cell failures and pressure housing packaging techniques, aimed at battery failure product containment or controlled venting, were also evaluated. These test results which are summarized in this report provide design guidelines for LiSO2battery assemblies of Duracell LO26SX cells or equivalent for use in undersea systems.
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