Abstract
This paper presents a laser-based absorption technique for measuring temperature and CO concentration in high-pressure shock tubes. Two fundamental vibrations of CO (v" = 0, P8, 4.73 µm and v" = 1, R21, 4.56 µm) were selected for high-temperature sensitivity with a reduced influence from pressure broadening compared to previous work. Single-pass absorption (80 mm path length) was measured with two quantum-cascade lasers. The technique was demonstrated by measuring time-resolved temperature for non-reactive mixtures at 1100–1960 K and 1.2–9.7 bar. During partial oxidation of n-heptane, temperature and CO concentrations were measured with 4 µs time resolution at 1360–1670 K and 5.8–8.2 bar. Interference from broadband CO2 absorption was quantified and subtracted. Measured data in the burnout state are in excellent agreement with predictions from kinetics mechanisms (Mehl et al. Proc Combust Inst 33:193, 2011; Zhang et al. Combust Flame 172:116, 2016) over the entire range of operating conditions, which validates the performance of the current laser-absorption technique in reactive-mixture measurements. Additionally, time-resolved temperature and CO-concentration measurements agree well with predictions based on the Mehl et al. mechanism.
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Acknowledgements
Financial support of this work by the German Research Foundation within the DFG project 279056804 and 229633504. JBJ acknowledges support through the DFG Mercator Fellowship program. DH acknowledges support from Dr. Zhiming Peng, Tsinghua University and the state-sponsored postgraduate program for building high-level universities by China Scholarship Council (No. 201806210220).
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He, D., Nativel, D., Herzler, J. et al. Laser-based CO concentration and temperature measurements in high-pressure shock-tube studies of n-heptane partial oxidation. Appl. Phys. B 126, 142 (2020). https://doi.org/10.1007/s00340-020-07492-7
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DOI: https://doi.org/10.1007/s00340-020-07492-7