Mao Zhenghao, Wang Jianchao, Gong Youjin, Yang Heng, Zhang Shunping
Institute of Nuclear Physics and Chemistry, China Academy of Engineering Physics, Mianyang 621900, China.
Nanomaterials and Smart Sensors Research Laboratory, Department of Materials Science and Engineering, Huazhong University of Science and Technology, Wuhan 430074, China.
Micromachines (Basel). 2018 Nov 19;9(11):606. doi: 10.3390/mi9110606.
In a new E-nose development, the sensor array needs to be optimized to have enough sensitivity and selectivity for gas/odor classification in the application. The development process includes the preparation of gas sensitive materials, gas sensor fabrication, array optimization, sensor array package and E-nose system integration, which would take a long time to complete. A set of platforms including a gas sensing film parallel synthesis platform, high-throughput gas sensing unmanned testing platform and a handheld wireless E-nose system were presented in this paper to improve the efficiency of a new E-nose development. Inkjet printing was used to parallel synthesize sensor libraries (400 sensors can be prepared each time). For gas sensor selection and array optimization, a high-throughput unmanned testing platform was designed and fabricated for gas sensing measurements of more than 1000 materials synchronously. The structures of a handheld wireless E-nose system with low power were presented in detail. Using the proposed hardware platforms, a new E-nose development might only take one week.
在新型电子鼻的研发中,需要对传感器阵列进行优化,以便在应用中对气体/气味分类具有足够的灵敏度和选择性。研发过程包括气敏材料的制备、气体传感器的制造、阵列优化、传感器阵列封装以及电子鼻系统集成,这需要很长时间才能完成。本文介绍了一套平台,包括气敏薄膜平行合成平台、高通量气体传感无人测试平台和手持式无线电子鼻系统,以提高新型电子鼻研发的效率。采用喷墨打印技术平行合成传感器库(每次可制备400个传感器)。为了进行气体传感器选择和阵列优化,设计并制造了一个高通量无人测试平台,用于同步对1000多种材料进行气敏测量。详细介绍了低功耗手持式无线电子鼻系统的结构。使用所提出的硬件平台,新型电子鼻的研发可能仅需一周时间。