Academic Division: Energy, Fluid Mechanics and Turbomachinery
Research group: Energy
Telephone: +44 1223 3 32641
In general, I have conducted research on various aspects of power generation, renewable energy, and solar air conditioning. As a result, I have acquired several skills and tools for analyzing a power generation cycle including energy, exergy, and economic analyses and optimizations. Additionally, I have worked with different solar collectors such as parabolic troughs, heliostat field collectors, and photovoltaic/thermal collectors (PV/T). Moreover, I have experience in both solar power generation and solar air conditioning. My research interests are, among others, in concentrated solar power, Photovoltaic/Thermal, gas turbine inlet cooling, power generation, thermal energy storage, solar power generation, solar air conditioning, desiccant-based air conditioning, solar fuel and hydrogen production, carbon capture and storage.
- Saghafifar, M., and Gadalla, M. “Analysis of Maisotsenko open gas turbine bottoming cycle.” Applied Thermal Engineering, 82:351–359, 2015.
- Saghafifar, M., and Gadalla, M. “Analysis of Maisotsenko open gas turbine power cycle with a detailed air saturator model.” Applied Energy, 149:338–353, 2015. Featured by the Advances in Engineering website as a key scientific article.
- Saghafifar, M., and Gadalla, M. “Innovative inlet air cooling technology for gas turbine power plants using integrated solid desiccant and Maisotsenko cooler.” Energy, 87:663–677, 2015.
- Saghafifar, M., and Poullikkas, A. “Thermo-economic optimization of air bottoming cycles.” Journal of Power Technologies, 95(3):211–220, 2015.
- Saghafifar, M., and Poullikkas, A. “Comparative analysis of power augmentation in air bottoming cycles.” International Journal of Sustainable Energy, 36(1):47– 60, 2017.
- Saghafifar, M., and Gadalla, M.“Performance assessment of integrated PV/T and solid desiccant air-conditioning systems for cooling buildings using Maisotsenko cooling cycle.” Solar Energy, 127:79–95, 2016. (25 most downloaded articles Feb 2016 – May 2016)
- Saghafifar, M., and Gadalla, M. “Thermo-economic analysis of conventional combined cycle hybridization: United Arab Emirates case study.” Energy Conversion and Management, 111:358–374, 2016.
- Gadalla, M., and Saghafifar, M. “Performance assessment and transient optimization of air precooling in multi-stage solid desiccant air conditioning systems.” Energy Conversion and Management, 119:187–202, 2016.
- Saghafifar, M., and Gadalla, M. “Thermo-economic analysis of air bottoming cycle hybridization using heliostat field collector: A comparative analysis.” Energy 112:698–714, 2016.
- Omar, A., Saghafifar, M., and Gadalla, M. “Thermo-economic Analysis of Air Saturator Integration in Conventional Combined cycles.” Applied Thermal Engineering, 107:1104–1122, 2016.
- Gadalla, M. and Saghafifar, M.,“Thermo-economic and comparative analyses of two recently proposed optimization approaches for circular heliostat fields: Campo radial-staggered and biomimetic spiral.” Solar Energy, 136:197–209, 2016.
- Saghafifar, M., Omar, A., Erfanmoghaddam, S, and Gadalla, M. “Thermoeconomic analysis of recuperated Maisotsenko bottoming cycle using triplex air saturator: Comparative analyses.” Applied Thermal Engineering, 111:431–444, 2017.
- Saghafifar, M., and Gadalla, M. “Thermo-economic evaluation of water-injected air bottoming cycles hybridization using heliostat field collector: Comparative analyses.” Energy, 119:1230–1246, 2017.
- Saghafifar, M., and Gadalla, M. “Thermo-economic optimization of hybrid solar Maisotsenko bottoming cycles using heliostat field collector: Comparative analyses.” Applied Energy, 190:686–702, 2017.
- Gadalla, M., and Saghafifar, M. “Energy and Exergy analyses of integration of pulse combustor in air bottoming cycle power plants.” Applied Thermal Engineering 121:674–687, 2017.
- Saghafifar, M., and Gadalla, M. “Solid Desiccant Air Conditioning System Using Maisotsenko Cooling Cycle in UAE.” In Proceedings of third International Conference on Water, Energy, and the Environment., 2015, Sharjah
- Gadalla, M., and Saghafifar, M. “Integrating a pulse combustor in air bottoming cycle power plants.” In proceedings of 7th International Exergy, Energy and Environment Symposium., 2015, Valenciennes
- Saghafifar, M., and Gadalla, M. “Improvement in spiral heliostat field layout thermo-economic performance by field zoning implementation.” ASME 2016 Power and Energy Conference and Exhibition., 2016, Charlotte North Carolina
- Gadalla, M., and Saghafifar, M. “Performance assessment and transient optimization of multi-stage solid desiccant air conditioning systems with building PV/T integration.” In SPIE Optics + Photonics for Sustainable Energy symposium., 2016, San Diego
- Saghafifar, M., and Gadalla, M. “Selecting a proper design period for heliostat field layout optimization using Campo code.” In SPIE Optics + Photonics for Sustainable Energy symposium., 2016, San Diego
- Saghafifar, M., and Gadalla, M. “A thermoeconomic comparative analysis between different approaches of specific carbon dioxide emission reduction for a simple gas turbine power plant.” In proceedings of 9th International Exergy, Energy and Environment Symposium., 2017, Split
- Madurawala, D., Saghafifar, M., and Gadalla, M. “Thermodynamic Analysis and Design of a Heliostat Field to Co-Produce Hydrogen and Electricity.” In ASME 2017 International Mechanical Engineering Congress and Exposition IMECE2017., 2017, Tampa
Mohammad Saghafifar is currently a PhD student in the Engineering department of the University of Cambridge. He is working under the supervision of Dr. Stuart Scott. He holds M.Sc. and B.Sc. in Mechanical Engineering from American University of Sharjah. For his Master studies, he investigated the feasibility of a 50 MWe solar hybrid combined cycle power plant with a topping gas turbine cycle and four different bottoming cycles. Power plant hybridization was accomplished by employing solar tower collector (Heliostat field collector). Three rather unconventional bottoming cycle configurations were chosen including gas turbine (air bottoming cycle), water injected gas turbine (water injected air bottoming cycle) , and the Maisotsenko cycle (Maisotsenko bottoming cycle). These three configurations along with the conventional combined power plant (steam bottoming cycle) were optimized by conducting thermo-economic and transient analyses in MATLAB to identify the most economically justified plant configuration for the UAE.
Department role and responsibilities