| Citation: | LI Hao, LIU Yong, ZHANG Xiang, et al. Effect of reaction progress on temperature measurement system error of gas analysis method[J]. Journal of Aerospace Power, 2025, 40（1）：20230075 doi: 10.13224/j.cnki.jasp.20230075
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It is generally believed that the error of gas temperature calculation based on enthalpy conservation method is caused by the error of direct measurement and the influence of high temperature decomposition. However, in the experiment of a certain high temperature combustion chamber, it was found that, taking thermocouple measurement results as the reference standard to evaluate the performance of gas analysis method under high temperature environment may introduce a large response error, so the turbulent flame experimental data of Sandia laboratory were used as reference standard to compare and analyze the temperature of each measuring point. The results showed that the overall average error of the temperature calculated by the enthalpy conservation method was small compared with the temperature measured in the experiment, but there were large errors in the initial reaction region and the combustion region. Further research found that: the uncertainty of temperature measurement in gas analysis was mainly derived from reaction progress. The uncertainty of temperature calculation results can be quantified by using reaction progress variable, and the applicable range of gas analysis method can be judged and limited, providing a reference for further research on the application of the enthalpy conservation temperature measurement method in the temperature measurement of turbulent flame and engine combustion chamber and the evaluation of uncertainty.
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