The Experts below are selected from a list of 89577 Experts worldwide ranked by ideXlab platform

Lu Yang - One of the best experts on this subject based on the ideXlab platform.

  • A measurement system of High-Temperature Oxidation environment with ultrasonic Ir0.6Rth0.4 alloy thermometry.
    Ultrasonics, 2018
    Co-Authors: Gao Wang, Dongfang Yuan, Hanchang Zhou, Lin Xu, Miao Tian, Lu Yang
    Abstract:

    Abstract Iridium-rhodium is generally applied as a thermocouple material, with max operating Temperature about 2150 °C. In this study, a ultrasonic Temperature measurement system was designed by using Iridium-rhodium (60%Ir–40%Rh) alloy as an acoustic waveguide sensor material, and the system was preliminarily tested in a High-Temperature Oxidation environment. The result of ultrasonic Temperature measurement shows that this system can indeed work stably in High-Temperature Oxidation environments. The relationship between Temperature and delay time of ultrasonic thermometry up to 2200 °C was illustrated. Iridium-rhodium materials were also investigated in order to fully elucidate the proposed waveguide sensor’s performance in a High-Temperature Oxidation environment. This system lays a foundation for further application of High-Temperature measurement.

Zheng Yong - One of the best experts on this subject based on the ideXlab platform.

Gao Wang - One of the best experts on this subject based on the ideXlab platform.

  • A measurement system of High-Temperature Oxidation environment with ultrasonic Ir0.6Rth0.4 alloy thermometry.
    Ultrasonics, 2018
    Co-Authors: Gao Wang, Dongfang Yuan, Hanchang Zhou, Lin Xu, Miao Tian, Lu Yang
    Abstract:

    Abstract Iridium-rhodium is generally applied as a thermocouple material, with max operating Temperature about 2150 °C. In this study, a ultrasonic Temperature measurement system was designed by using Iridium-rhodium (60%Ir–40%Rh) alloy as an acoustic waveguide sensor material, and the system was preliminarily tested in a High-Temperature Oxidation environment. The result of ultrasonic Temperature measurement shows that this system can indeed work stably in High-Temperature Oxidation environments. The relationship between Temperature and delay time of ultrasonic thermometry up to 2200 °C was illustrated. Iridium-rhodium materials were also investigated in order to fully elucidate the proposed waveguide sensor’s performance in a High-Temperature Oxidation environment. This system lays a foundation for further application of High-Temperature measurement.

  • Ultrasonic Al₂O₃ Ceramic Thermometry in High-Temperature Oxidation Environment.
    Sensors (Basel Switzerland), 2016
    Co-Authors: Yanlong Wei, Gao Wang, Miao Tian, Yubin Gao, Zhaoqian Xiao, Haijian Liang
    Abstract:

    In this study, an ultrasonic Temperature measurement system was designed with Al2O3 High-Temperature ceramic as an acoustic waveguide sensor and preliminarily tested in a High-Temperature Oxidation environment. The test results indicated that the system can indeed work stably in High-Temperature environments. The relationship between the Temperature and delay time of 26 °C–1600 °C ceramic materials was also determined in order to fully elucidate the High-Temperature Oxidation of the proposed waveguide sensor and to lay a foundation for the further application of this system in Temperatures as High as 2000 °C.

Miao Tian - One of the best experts on this subject based on the ideXlab platform.

  • A measurement system of High-Temperature Oxidation environment with ultrasonic Ir0.6Rth0.4 alloy thermometry.
    Ultrasonics, 2018
    Co-Authors: Gao Wang, Dongfang Yuan, Hanchang Zhou, Lin Xu, Miao Tian, Lu Yang
    Abstract:

    Abstract Iridium-rhodium is generally applied as a thermocouple material, with max operating Temperature about 2150 °C. In this study, a ultrasonic Temperature measurement system was designed by using Iridium-rhodium (60%Ir–40%Rh) alloy as an acoustic waveguide sensor material, and the system was preliminarily tested in a High-Temperature Oxidation environment. The result of ultrasonic Temperature measurement shows that this system can indeed work stably in High-Temperature Oxidation environments. The relationship between Temperature and delay time of ultrasonic thermometry up to 2200 °C was illustrated. Iridium-rhodium materials were also investigated in order to fully elucidate the proposed waveguide sensor’s performance in a High-Temperature Oxidation environment. This system lays a foundation for further application of High-Temperature measurement.

  • Ultrasonic Al₂O₃ Ceramic Thermometry in High-Temperature Oxidation Environment.
    Sensors (Basel Switzerland), 2016
    Co-Authors: Yanlong Wei, Gao Wang, Miao Tian, Yubin Gao, Zhaoqian Xiao, Haijian Liang
    Abstract:

    In this study, an ultrasonic Temperature measurement system was designed with Al2O3 High-Temperature ceramic as an acoustic waveguide sensor and preliminarily tested in a High-Temperature Oxidation environment. The test results indicated that the system can indeed work stably in High-Temperature environments. The relationship between the Temperature and delay time of 26 °C–1600 °C ceramic materials was also determined in order to fully elucidate the High-Temperature Oxidation of the proposed waveguide sensor and to lay a foundation for the further application of this system in Temperatures as High as 2000 °C.

Fei Weng - One of the best experts on this subject based on the ideXlab platform.