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Army requirements for micro and nanotechnology-based sensors in weapons health and battlefield environmental monitoring applications

机译:武器健康与战地环境监测应用中微型和纳米技术的传感器的陆军要求

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The Army Aviation and Missile Research, Development, and Engineering Center (AMRDEC) and the Army Research Laboratory (ARL) have initiated a joint advanced technology demonstration program entitled "Prognostics/Diagnostics for the Future Force (PDFF)" with a key objective of developing low or no power embedded sensor suites for harsh environmental monitoring. The most critical challenge of the program is to specify requirements for the embedded sensor suites which will perform on-board diagnostics, maintain a history of sensor data, and forecast weapon health. The authors are currently collaborating with the PDFF program managers and potential customers to quantify the requirements for remotely operated, micro/nano-technology-based sensors for a host of candidate weapon systems. After requirements are finalized, current micro/nanotechnology-based temperature, humidity, g-shock, vibration and chemical sensors for monitoring the out-gassing of weapons propellant, as well as hazardous gaseous species on the battlefield and in urban environments will be improved to meet the full requirements of the PDFF program. In this paper, performance requirements such as power consumption, reliability, maintainability, survivability, size, and cost, along with the associated technical challenges for micro/nanotechnology-based sensor systems operating in military environments, are discussed. In addition, laboratory results from the design and testing of a wireless sensor array, which was developed using a thin film of functionalized carbon nanotube materials, are presented. Conclusions from the research indicate that the detection of bio-hazardous materials is possible using passive and active wireless sensors based on monitoring the reflected phase from the sensor.
机译:军队航空和导弹研究,发展和工程中心(AMRDEC)和陆军研究实验室(ARL)已启动了一个题为“未来武力(PDFF)的预测/诊断”的联合先进技术示范计划,其开发的主要目标用于苛刻环境监测的低或无功率嵌入式传感器套件。该计划最关键的挑战是为嵌入式传感器套件指定将进行车载诊断,维护传感器数据的历史和预测武器健康的要求。该作者目前正在与PDFF计划经理和潜在客户合作,以​​量化用于一系列候选武器系统的远程操作,微/纳米技术的传感器的要求。在最终确定后,目前的微/纳米技术的温度,湿度,G击震,振动和化学传感器,用于监测武器推进剂的外出,以及在战场和城市环境中的危险气态物种将得到改善满足PDFF计划的全部要求。在本文中,讨论了性能要求,如电力消耗,可靠性,可维护性,生存能力,大小和成本以及在军事环境中运行的微/纳米技术的传感器系统的相关技术挑战。此外,还提出了使用透明碳纳米管材料薄膜开发的无线传感器阵列的设计和测试的实验室结果。来自研究的结论表明,基于监测来自传感器的反射相位的无源和有源无线传感器,可以采用生物危险材料的检测。

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