NIU «MEI»
Russian Federation
GRNTI 50.07 Теоретические основы вычислительной техники
BBK 3297 Вычислительная техника
The paper presents an approach to the reconstruction of the flame temperature field using a spectral ratio pyrometer. The device registers the intensity of the radiation from the measured flame in several spectral ranges using interference filters and photodiodes. Signal amplification occurs using the developed transimpedance amplifier. The pyrometer determines the temperature by measuring the ratio of the radiation intensity in two different spectral ranges. The signal is determined by integrating the intensity of the flame radiation along the optical system line of sight. Measurement of flame from several angles allows to get the Radon transform for this area. Calculation of the inverse transformation allows to obtain the field of local flame temperatures. The work presents an experimental setup for measuring flame local temperatures and software that allows to automate the measurement process and restore tomograms of temperature fields.
high gas temperatures measurement, spectral ratio pyrometer, tomography of temperature, Radon transform
1. Aviacionnye pravila - 25. Normy letnoy godnosti samoletov transportnoy kategorii - Mezhgosudarstvennyy aviacionnyy komitet, OAO «AVIAIZDAT», 2009. 274 s.
2. Alihodzhina N.V., Flanden V.S., Anikin K.A. Pirometr i plamya // Nauka segodnya: fundamental'nye i prikladnye issledovaniya Materialy mezhdunarodnoy nauch.-prakt. konferencii. V dvuh chastyah. 2017. S. 24-26.
3. Bakulev V.I., Golubev V.A., Nechaev Yu.N. i dr. Teoriya, raschet i proektirovanie aviacionnyh dvigateley i energeticheskih ustanovok / pod red. V.A. Sosunova, V.M. Chepkina. M.: MAI, 2003. 688 c.
4. Golencov D.A., Romanov V.B., Saharov V.B. Pirometr spektral'nogo otnosheniya dlya opredeleniya temperatury gazovyh potokov // Opticheskie metody issledovaniya potokov: Trudy VIII Mezhd. nauch-tehnich. konferencii. M.: Izd-vo ZAO Firma «Znak», 2005. S. 178-181.
5. D'yachenko N.H., Baturin S.A., Lozhkin V.N. Metod vysokotemperaturnoy pirometrii plameni v dizele // Dvigateli vnutrennego sgoraniya. M.: NIIinformtyazhmash, 1977. № 4-77-14. S. 12-14.
6. Levin G.G., Vishnyakov G.N. Opticheskaya tomografiya. M.: Radio i svyaz' 1989. 224 s.
7. Novikov V.N., Saharov V.B., Smirnov L.I. Pirometr spektral'nogo otnosheniya // Izmeritel'naya tehnika. 1987. № 12. S. 42-43.
8. Poroykov A.Yu., Saharov V.B. Pirometr spektral'nogo otnosheniya dlya izmereniya vysokih temperatur v gazovyh potokah // Pribory i tehnika eksperimenta. №6, 2016. S. 131-132.
9. Poroykov A.Yu., Flanden V.S., Lapickiy K.M. Tomograficheskaya sistema izmereniya lokal'nyh temperatur plameni s pomosch'yu pirometra spektral'nogo otnosheniya // Pribory i tehnika eksperimenta. № 1, 2019. S. 110-116.
10. Pohlebaev D.V., Saenko G.I., Klevec K. V. Pirometr spektral'nogo otnosheniya // Informacionnye i izmeritel'nye sistemy i tehnologii. Sbornik nauchnyh statey po materialam Mezhdunarodnoy nauchno-tehnicheskoy konferencii. 2016. S. 83-87.
11. Saharov V.B., Sadovin M.A., Poroykov A.Yu. Osobennosti opredeleniya vysokoy temperatury gazovogo potoka pirometrom spektral'nogo otnosheniya // AVIADVIGATELI XXI VEKA. Moskva 24-27 noyabrya 2015 g. Sbornik tezisov dokladov. M.: CIAM, 2015. S. 813-815.
12. Sen'kov A.G., Firago V.A. Optimizaciya harakteristik pirometrov spektral'nogo otnosheniya // Vestnik BGU. Seriya 1, Fizika. Matematika. Informatika. 2009. № 1. S. 47-54.
13. Frolov Yu.V. (red.) Teoriya goreniya i vzryva. T. 1. M.: Nauka, 1981. 412 s.
14. Frunze, A.V. Pirometry spektral'nogo otnosheniya: preimuschestva, nedostatki i puti ih ustraneniya // Fotonika, 2009. № 4 -S. 32-37.
15. Cai W., Kaminski C. F. Tomographic absorption spectroscopy for the study of gas dynamics and reactive flows// Progress in Energy and Combustion Science. 2017. Vol. 59. P. 1-31.
16. Hsieh J. Computed tomography: principles, design, artifacts, and recent advances. Bellingham, WA: SPIE, 2009. 562 pp.
17. Kak A. C., Slaney M. Principles of computerized tomographic imaging. Society for Industrial and Applied Mathematics, 2001. 329 pp.
18. Kranendonk L.A., Caswell A.W., Hagen C.L., Neuroth C.T., Shouse D.T., Gord J.R., Sanders S.T. Temperature measurements in a gas-turbine-combustor sector rig using sweptwavelength absorption spectroscopy // Journal of Propulsion and Power. 2009. Vol. 25. №. 4. P. 859-863.
19. Wang F., Wu Q., Huang Q., Zhang H., Yan J., Cen K. Simultaneous measurement of 2-dimensional H2O concentration and temperature distribution in premixed methane/air flame using TDLAS-based tomography technology // Optics Communications. 2015. Vol. 346. P. 53-63
