TENANGO-PIRIN, Oscar ;REYNOSO-JARDÓN, Elva ;GARCÍA, Juan Carlos;MARIACA, Yahir ;HERNÁNDEZ, Yuri Sara;ÑECO, Raúl ;DÁVALOS, Omar . Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles. Strojniški vestnik - Journal of Mechanical Engineering, [S.l.], v. 66, n.10, p. 581-590, october 2020. ISSN 0039-2480. Available at: <https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/>. Date accessed: 19 nov. 2024. doi:http://dx.doi.org/10.5545/sv-jme.2020.6883.
Tenango-Pirin, O., Reynoso-Jardón, E., García, J., Mariaca, Y., Hernández, Y., Ñeco, R., & Dávalos, O. (2020). Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles. Strojniški vestnik - Journal of Mechanical Engineering, 66(10), 581-590. doi:http://dx.doi.org/10.5545/sv-jme.2020.6883
@article{sv-jmesv-jme.2020.6883, author = {Oscar Tenango-Pirin and Elva Reynoso-Jardón and Juan Carlos García and Yahir Mariaca and Yuri Sara Hernández and Raúl Ñeco and Omar Dávalos}, title = {Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles}, journal = {Strojniški vestnik - Journal of Mechanical Engineering}, volume = {66}, number = {10}, year = {2020}, keywords = {thermal barrier coating; gas microturbine; turbine blade; thermal stress}, abstract = {Thermal barrier coatings play a key role in the operational life of microturbines because they reduce thermal stress in the turbine components. In this work, numerical computations were carried out to assess new materials developed to be used as a thermal barrier coating for gas turbine blades. The performance of the microturbine components protection is also evaluated. The new materials were 8YSZ, Mg2SiO4, Y3Ce7Ta2O23.5, and Yb3Ce7Ta2O23.5. For testing the materials, a 3D gas microturbine model is developed, in which the fluid-structure interaction is solved using CFD and FEM. Temperature fields and stress magnitudes are calculated on the nozzle and blade, and then these are compared with a case in which no thermal barrier is used. Based on these results, the non-uniform temperature distributions are used to compute the stress levels in nozzles and blades. Higher temperature gradients are observed on the nozzle; the maximum temperature magnitudes are observed in the blades. However, it is found that Mg2SiO4 and Y3Ce7Ta2O23.5 provided better thermal insulation for the turbine components compared with the other evaluated materials. Mg2SiO4 and Y3Ce7Ta2O23.5 presented the best performance regarding stress and thermal insulation for the microturbine components.}, issn = {0039-2480}, pages = {581-590}, doi = {10.5545/sv-jme.2020.6883}, url = {https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/} }
Tenango-Pirin, O.,Reynoso-Jardón, E.,García, J.,Mariaca, Y.,Hernández, Y.,Ñeco, R.,Dávalos, O. 2020 October 66. Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles. Strojniški vestnik - Journal of Mechanical Engineering. [Online] 66:10
%A Tenango-Pirin, Oscar %A Reynoso-Jardón, Elva %A García, Juan Carlos %A Mariaca, Yahir %A Hernández, Yuri Sara %A Ñeco, Raúl %A Dávalos, Omar %D 2020 %T Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles %B 2020 %9 thermal barrier coating; gas microturbine; turbine blade; thermal stress %! Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles %K thermal barrier coating; gas microturbine; turbine blade; thermal stress %X Thermal barrier coatings play a key role in the operational life of microturbines because they reduce thermal stress in the turbine components. In this work, numerical computations were carried out to assess new materials developed to be used as a thermal barrier coating for gas turbine blades. The performance of the microturbine components protection is also evaluated. The new materials were 8YSZ, Mg2SiO4, Y3Ce7Ta2O23.5, and Yb3Ce7Ta2O23.5. For testing the materials, a 3D gas microturbine model is developed, in which the fluid-structure interaction is solved using CFD and FEM. Temperature fields and stress magnitudes are calculated on the nozzle and blade, and then these are compared with a case in which no thermal barrier is used. Based on these results, the non-uniform temperature distributions are used to compute the stress levels in nozzles and blades. Higher temperature gradients are observed on the nozzle; the maximum temperature magnitudes are observed in the blades. However, it is found that Mg2SiO4 and Y3Ce7Ta2O23.5 provided better thermal insulation for the turbine components compared with the other evaluated materials. Mg2SiO4 and Y3Ce7Ta2O23.5 presented the best performance regarding stress and thermal insulation for the microturbine components. %U https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/ %0 Journal Article %R 10.5545/sv-jme.2020.6883 %& 581 %P 10 %J Strojniški vestnik - Journal of Mechanical Engineering %V 66 %N 10 %@ 0039-2480 %8 2020-10-14 %7 2020-10-14
Tenango-Pirin, Oscar, Elva Reynoso-Jardón, Juan Carlos García, Yahir Mariaca, Yuri Sara Hernández, Raúl Ñeco, & Omar Dávalos. "Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles." Strojniški vestnik - Journal of Mechanical Engineering [Online], 66.10 (2020): 581-590. Web. 19 Nov. 2024
TY - JOUR AU - Tenango-Pirin, Oscar AU - Reynoso-Jardón, Elva AU - García, Juan Carlos AU - Mariaca, Yahir AU - Hernández, Yuri Sara AU - Ñeco, Raúl AU - Dávalos, Omar PY - 2020 TI - Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles JF - Strojniški vestnik - Journal of Mechanical Engineering DO - 10.5545/sv-jme.2020.6883 KW - thermal barrier coating; gas microturbine; turbine blade; thermal stress N2 - Thermal barrier coatings play a key role in the operational life of microturbines because they reduce thermal stress in the turbine components. In this work, numerical computations were carried out to assess new materials developed to be used as a thermal barrier coating for gas turbine blades. The performance of the microturbine components protection is also evaluated. The new materials were 8YSZ, Mg2SiO4, Y3Ce7Ta2O23.5, and Yb3Ce7Ta2O23.5. For testing the materials, a 3D gas microturbine model is developed, in which the fluid-structure interaction is solved using CFD and FEM. Temperature fields and stress magnitudes are calculated on the nozzle and blade, and then these are compared with a case in which no thermal barrier is used. Based on these results, the non-uniform temperature distributions are used to compute the stress levels in nozzles and blades. Higher temperature gradients are observed on the nozzle; the maximum temperature magnitudes are observed in the blades. However, it is found that Mg2SiO4 and Y3Ce7Ta2O23.5 provided better thermal insulation for the turbine components compared with the other evaluated materials. Mg2SiO4 and Y3Ce7Ta2O23.5 presented the best performance regarding stress and thermal insulation for the microturbine components. UR - https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/
@article{{sv-jme}{sv-jme.2020.6883}, author = {Tenango-Pirin, O., Reynoso-Jardón, E., García, J., Mariaca, Y., Hernández, Y., Ñeco, R., Dávalos, O.}, title = {Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles}, journal = {Strojniški vestnik - Journal of Mechanical Engineering}, volume = {66}, number = {10}, year = {2020}, doi = {10.5545/sv-jme.2020.6883}, url = {https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/} }
TY - JOUR AU - Tenango-Pirin, Oscar AU - Reynoso-Jardón, Elva AU - García, Juan Carlos AU - Mariaca, Yahir AU - Hernández, Yuri Sara AU - Ñeco, Raúl AU - Dávalos, Omar PY - 2020/10/14 TI - Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles JF - Strojniški vestnik - Journal of Mechanical Engineering; Vol 66, No 10 (2020): Strojniški vestnik - Journal of Mechanical Engineering DO - 10.5545/sv-jme.2020.6883 KW - thermal barrier coating, gas microturbine, turbine blade, thermal stress N2 - Thermal barrier coatings play a key role in the operational life of microturbines because they reduce thermal stress in the turbine components. In this work, numerical computations were carried out to assess new materials developed to be used as a thermal barrier coating for gas turbine blades. The performance of the microturbine components protection is also evaluated. The new materials were 8YSZ, Mg2SiO4, Y3Ce7Ta2O23.5, and Yb3Ce7Ta2O23.5. For testing the materials, a 3D gas microturbine model is developed, in which the fluid-structure interaction is solved using CFD and FEM. Temperature fields and stress magnitudes are calculated on the nozzle and blade, and then these are compared with a case in which no thermal barrier is used. Based on these results, the non-uniform temperature distributions are used to compute the stress levels in nozzles and blades. Higher temperature gradients are observed on the nozzle; the maximum temperature magnitudes are observed in the blades. However, it is found that Mg2SiO4 and Y3Ce7Ta2O23.5 provided better thermal insulation for the turbine components compared with the other evaluated materials. Mg2SiO4 and Y3Ce7Ta2O23.5 presented the best performance regarding stress and thermal insulation for the microturbine components. UR - https://www.sv-jme.eu/sl/article/effect-of-thermal-barrier-coating-on-the-thermal-stress-of-gas-microturbine-blades-and-nozzle/
Tenango-Pirin, Oscar, Reynoso-Jardón, Elva, García, Juan, Mariaca, Yahir, Hernández, Yuri, Ñeco, Raúl, AND Dávalos, Omar. "Effect of Thermal Barrier Coating on the Thermal Stress of Gas Microturbine Blades and Nozzles" Strojniški vestnik - Journal of Mechanical Engineering [Online], Volume 66 Number 10 (14 October 2020)
Strojniški vestnik - Journal of Mechanical Engineering 66(2020)10, 581-590
© The Authors, CC-BY 4.0 Int. Change in copyright policy from 2022, Jan 1st.
Thermal barrier coatings play a key role in the operational life of microturbines because they reduce thermal stress in the turbine components. In this work, numerical computations were carried out to assess new materials developed to be used as a thermal barrier coating for gas turbine blades. The performance of the microturbine components protection is also evaluated. The new materials were 8YSZ, Mg2SiO4, Y3Ce7Ta2O23.5, and Yb3Ce7Ta2O23.5. For testing the materials, a 3D gas microturbine model is developed, in which the fluid-structure interaction is solved using CFD and FEM. Temperature fields and stress magnitudes are calculated on the nozzle and blade, and then these are compared with a case in which no thermal barrier is used. Based on these results, the non-uniform temperature distributions are used to compute the stress levels in nozzles and blades. Higher temperature gradients are observed on the nozzle; the maximum temperature magnitudes are observed in the blades. However, it is found that Mg2SiO4 and Y3Ce7Ta2O23.5 provided better thermal insulation for the turbine components compared with the other evaluated materials. Mg2SiO4 and Y3Ce7Ta2O23.5 presented the best performance regarding stress and thermal insulation for the microturbine components.