Article


Cover

№4 2023

Title

Thermal emission cooling of aircraft elements. Review of modern studies

Authors

P.A. Arkhipov, A.V. Kolychev, M.V. Chernyshov, V.A. Kernozhitsky

Organization

Baltic State Technical University «VOENMEH» named after D.F. Ustinov
Saint Petersburg, Russian Federation

Abstract

The purpose of this article is to review the current state of research in the field of thermal emission cooling and the feasibility study effect and to highlight their potential applications in astronautics and rocket science, especially for reusable spacecraft and high-speed aircraft. The article summarizes the results of the work of several research groups from several universities in Russia, the USA and China. It discusses theoretical models and experimental developments of thermal emission cooling technology, without going into detailed methodologies. The main research in this area is carried out by teams from the universities of Michigan, Colorado, Vermont and Texas in the USA with the active support of Lockheed Martin Corporation. Experimental studies of this technology are already being actively carried out at these universities. Moreover, the results already obtained correlate well with the results of theoretical study, from which we can conclude about the prospects of research. The effect of thermoelectronic emission makes it possible to reduce the temperature of the leading edges of the spacecraft, which is especially important for reusable spacecraft and unmanned missions, where maintaining the optimal temperature of components becomes a key factor in the service life and reliability of the system.

Keywords

thermal emission cooling, thermoelectronic emission, thermal loads, reusable spacecraft

References

[1] Friedrichov S.A., Movnin S.M. Chapter 10. Physical foundations of emission electronics // Physical foundations of electronic technology. M.: Higher School, 1982, pp. 434–435, 608 p.

[2] Ushakov B.A., Nikitin V.D., Emelyanov I. Ya. Fundamentals of thermionic energy conversion. M.: Atomizdat, 1974.

[3] Neyland V. Ya., Tumin A.M. Aerothermodynamics of aerospace aircraft. Lecture notes. Zhukovsky: FALT MIPT, 1991.

[4] Kolychev A.V., Kernozhitsky V.A. Thermal protection of hypersonic aircraft (LA) using the phenomenon of thermoelectronic emission // Reshetnev readings, 2009, Vol. 1, no. 13, pp. 29–30.

[5] Kernozhitsky V.A., Kolychev A.V. The concept of development of methods and means of overcoming the thermal barrier // Information and space, 2011, no. 2, pp. 50–53.

[6] Kolychev A.V. et al. On the effect of thermal emission cooling on the efficiency of a gas turbine power plant // Problems of regional energy, 2020, no. 4 (48), pp. 45–57.

[7] Arkhipov P.A., Kolychev A.V., Kernozhitsky V.A. Thermionic cooling of elements of high-speed aircraft taking into account the limitation of spatial charge // Aerospace engineering and technology, 2023, Vol. 1, no. 1, pp. 105–116.

[8] Podkulsky S.P., Wilson V.S. Operation of a thermoelectronic converter with a /112/na/114/oriented tungsten emitter and a niobium collector in the presence of oxygen, NASA, 1970. Number GESP?9006.

[9] Efimov K.N. et al. Modeling of a thermal protection system based on thermal emission technology // Journal of Thermophysics and Heat transfer, 2020, Vol. 34, no. 3, pp. 548–555.

[10] Zimin V.P., Efimov K.N., Kernozhitsky V.A., Kolychev A.V., Ovchinnikov V.A., Yakimov A.S. Modeling of a thermal protection system based on thermal emission technology // Thermophysics and aeromechanics. 2020. Vol. 21. no. 2. pp. 227–240.

[11] Efimov K.N., Kolychev A.V., Kernozhitsky V.A., Ovchinnikov V.A., Yakimov A.S. Modeling of thermoelectronic thermal protection during the flow of a spherical blunted cone by supersonic air flow // Thermophysics of high temperatures, 2021, Vol. 59, no. 3, pp. 432–442.

[12] Zimin V.P., Efimov K.N., Ovchinnikov V.A., Yakimov A.S. Mathematical modeling of active thermionic thermal protection under high-enthalpy shell flow // Engineering and Physics journal. 2020. vol. 93. no. 3. pp. 517–528.

[13] Zimin V.P., Efimov K.N., Ovchinnikov V.A., Yakimov A.S. Numerical simulation of active thermionic thermal protection under high-enthalpy flow around a multilayer shell // High temperature thermophysics, 2019, Vol. 57, no. 6, pp. 898–906.

[14] Efimov K. N., Ovchinnikov V.A., Yakimov A. S. Numerical modeling of thermoelectronic thermal protection with high-enthalpy flow around a multilayer shell // Engineering and Physics Journal, 2022, Vol. 95, no. 2, pp. 335–349.

[15] Zimin V.P. et al. Modeling of thermal emission thermal protection during convective heating of a composite shell // Space technology and technology, 2019, no. 1 (24), pp. 23–34.

[16] Alkandry H., Hanquist K., Boyd I.D. Conceptual analysis of electron transpiration cooling for the leading edges of hypersonic vehicles // 11th AIAA/ASME Joint Thermophysics and Heat Transfer Conference, 2014, p. 2674.

[17] Hanquist K.M., Hara K., Boyd I.D. Detailed modeling of electron emission for transpiration cooling of hypersonic vehicles // Journal of Applied Physics, 2017, Vol. 121, no. 5, p. 053302.

[18] Hanquist K.M., Alkandry H., Boyd I.D. Evaluation of computational modeling of electron transpiration cooling at high enthalpies // Journal of Thermophysics and Heat Transfer, 2017, Vol. 31, no. 2, pp. 283–293.

[19] Hanquist K.M., Boyd I.D. Computational analysis of electron transpiration cooling for hypersonic vehicles // 55th AIAA Aerospace Sciences Meeting, 2017, p. 0900.

[20] Hanquist K.M., Hara K., Boyd I.D. Modeling of electron transpiration cooling for hypersonic vehicles // 46th AIAA Thermophysics Conference, 2016, p. 4433.

[21] Hanquist K.M., Boyd I.D. Plasma Assisted Cooling of Hot Surfaces on Hypersonic Vehicles // Frontiers in Physics, 2019, Vol. 7, p. 9.

[22] Hanquist K.M., Boyd I.D. Comparisons of computations with experiments for electron transpiration cooling at high enthalpies // 45th AIAA Thermophysics Conference, 2015, p. 2351.

[23] Hanquist K. Modeling of electron transpiration cooling for leading edges of hypersonic vehicles: PhD Thesis, 2017.

[24] Ye M.Y., Takamura S. Effect of space-charge limited emission on measurements of plasma potential using emissive probes // Phys. Plasmas 7(8), 3457–3463 (2000).

[25] Takamura S., Ohno N., Ye M.Y., Kuwabara T. Space-charge limited current from plasma-facing material surface // Contrib. Plasma Phys. 44(1–3), 126–137 (2004).

[26] Campbell N.S. et al. Evaluation of computational models for electron transpiration cooling // Aerospace, 2021, Vol. 8, no. 9, p. 243.

[27] Bak J. et al. Experimental study of electron transpiration cooling with a 2-kW laser heating system // AIAA SCITECH 2022 Forum, 2022, p. 0983.

[28] Paxton O.L., Porat H., Jahn I.H. Experimental Results of the Electron Transpiration Cooling Effect in the X2 Expansion Tunnel // AIAA AVIATION 2023 Forum, 2023, p. 3808.

[29] Campbell N.S. et al. Evaluation of computational models for electron transpiration cooling // Aerospace, 2021, Vol. 8, no. 9, p. 243.

[30] Meyers J.M. et al. Characterization of LaB 6 Emitters in an Inductively Coupled Plasma Facility for Electron Transpiration Cooling Applications // AIAA AVIATION 2022 Forum, 2022, p. 3579.

[31] Chazot O., Helber B. Plasma Wind Tunnel Testing of Electron Transpiration Cooling Concept. Institut von Karman, Belgium, 2017.

[32] Kuehster A.E. Processing of mayenite electride and its composites in spark plasma sintering: PhD Thesis. Colorado State University, 2019.

[33] Tang X. et al. Enhanced thermionic emission of mayenite electride composites in an Ar glow discharge plasma // Ceramics International, 2021, Vol. 47, no. 12, pp. 16614–16631.

[34] Liang W. et al. Intrinsic connections between thermionic emission cooling effect and emission characteristics of W-La2O3 cathodes at high temperatures //Materials Letters, 2022, Vol. 308, p. 131172.



For citing this article

Arkhipov P.A., Kolychev A.V., Chernyshov M.V., Kernozhitsky V.A. Thermal emission cooling of aircraft elements. Review of modern studies // Spacecrafts & Technologies, 2023, vol. 7, no. 4, pp. 231-242. doi: 10.26732/j.st.2023.4.01


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