Xinzhe Zhang
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Xinzhe Zhang has a total of 14 co-authors. Here are the top co-authors by number of shared publications:
- Bin Yu
School of Aerospace Engineering, Zhengzhou University of Aeronautics, Zhengzhou, China
2 shared publications - Guoju Li
School of Aerospace Engineering, Zhengzhou University of Aeronautics, Zhengzhou, China
2 shared publications - Bin Yu
Zhengzhou University of Aeronautics
1 shared publication Chuankun Zang
Zhengzhou University of Aeronautics
1 shared publication- Guojie Zhang
School of Mechanical and Power Engineering, Zhengzhou University, Zhengzhou, China
1 shared publication Guoju Li
Zhengzhou University of Aeronautics
1 shared publication
Latest Publications
- 13 September 2026
- Published by Taylor & Francis in International Journal of Modelling and Simulation
- p. 1-18
Multi-objective optimization of TC4/UHMWPE fiber metal laminates for enhanced ballistic performance under fragment impact
1. Fiber metal laminates (FMLs) combine the impact resistance of metallic layers with the lightweight and high-specific-strength characteristics of fiber-reinforced composites, and have been widely...
- 13 September 2026
- Published by Taylor & Francis in International Journal of Modelling and Simulation
- p. 1-18
Multi-objective optimization of TC4/UHMWPE fiber metal laminates for enhanced ballistic performance under fragment impact
1. Fiber metal laminates (FMLs) combine the impact resistance of metallic layers with the lightweight and high-specific-strength characteristics of fiber-reinforced composites, and have been widely...
- 15 August 2025
- Published by Springer Nature in Aerospace Systems
- p. 1-14
Study on the effect of nose shape for penetration performance of air-to-ship missile warhead with semi-armor-piercing
- 15 August 2025
- Published by Springer Nature in Aerospace Systems
- p. 1-14
Study on the effect of nose shape for penetration performance of air-to-ship missile warhead with semi-armor-piercing
- 1 April 2025
- Published by AIP Publishing in Physics of Fluids
- Vol. 37 (4)
Progress in the research on non-equilibrium condensation of the compressor in the supercritical CO2 closed Brayton cycle system
The supercritical carbon dioxide (S-CO2) closed Brayton cycle holds significant promise for revolutionizing the future of efficient and comprehensive new energy utilization. However, the compressor operation in this cycle is characterized by rapid pressurization, which induces substantial fluctuations in temperature and pressure, potentially triggering non-equilibrium condensation of S-CO2. This phenomenon disrupts the flow field within the compressor, thereby decreasing the overall performance of the cycle system. Therefore, exploring this mechanism is of great significance for improving the performance of the cycle system. This work summarizes various improvement types of S-CO2 closed Brayton systems and engineering applications across various fields. Subsequently, it reviews the development of non-equilibrium condensation theories within S-CO2 compressors, focusing on the nucleation and growth models. In addition, the current research status of condensation characteristics of S-CO2 under high-speed and high-pressure conditions is summarized, based on convergent-divergent nozzle experiments and simulations. This work systematically reviews the progress in non-equilibrium condensation research within S-CO2 closed Brayton cycle system compressors, from various perspectives, such as the origin of the technological bottleneck, the nature of the scientific problem, and the current state of research. By reviewing the current status of the compressor blade humidity control method under non-equilibrium condensation, it is proposed that the technology of active blade humidity control based on multi-objective coordination should be the direction of further research. The findings of this analysis can provide a reference for the design and further research on compressor blades in the S-CO2 closed Brayton cycle system.
- 1 April 2025
- Published by AIP Publishing in Physics of Fluids
- Vol. 37 (4)
Progress in the research on non-equilibrium condensation of the compressor in the supercritical CO2 closed Brayton cycle system
The supercritical carbon dioxide (S-CO2) closed Brayton cycle holds significant promise for revolutionizing the future of efficient and comprehensive new energy utilization. However, the compressor operation in this cycle is characterized by rapid pressurization, which induces substantial fluctuations in temperature and pressure, potentially triggering non-equilibrium condensation of S-CO2. This phenomenon disrupts the flow field within the compressor, thereby decreasing the overall performance of the cycle system. Therefore, exploring this mechanism is of great significance for improving the performance of the cycle system. This work summarizes various improvement types of S-CO2 closed Brayton systems and engineering applications across various fields. Subsequently, it reviews the development of non-equilibrium condensation theories within S-CO2 compressors, focusing on the nucleation and growth models. In addition, the current research status of condensation characteristics of S-CO2 under high-speed and high-pressure conditions is summarized, based on convergent-divergent nozzle experiments and simulations. This work systematically reviews the progress in non-equilibrium condensation research within S-CO2 closed Brayton cycle system compressors, from various perspectives, such as the origin of the technological bottleneck, the nature of the scientific problem, and the current state of research. By reviewing the current status of the compressor blade humidity control method under non-equilibrium condensation, it is proposed that the technology of active blade humidity control based on multi-objective coordination should be the direction of further research. The findings of this analysis can provide a reference for the design and further research on compressor blades in the S-CO2 closed Brayton cycle system.