CJ Tang
with Broad experience in development of thermal systems
Ph.D. in Mechanical Engineering, Penn State University
Thermal systems engineer with 15+ years of experience in assessing/developing gas turbine, heat pump, thermal management, refrigeration, & fuel cell systems and in providing innovative systems solutions. Modeler with proficiency in multi-domain steady-state & dynamic system modeling to consistently support each phase of thermal systems technology development. Project leader, knowledgeable in New Technology Introduction (NTI) processes, with ability to lead a cross-functional team to complete technology development from concept inception to proposal preparation, modeling, testing, system validation, and publication.
Recent Experience
- Modeling & simulation task leader supporting a DOE R&D program of building 10 MW sCO2 polite plant test facility: Developed steady-state and dynamic system models to support developments of system concept and control methods, published in Turbo Expo (GT2019-91443).
- Principal investigator for an ARPA-E heat pump program: Led a cross-functional team to develop advanced absorption heat pump technology from concept thru experimental technology demonstration (TRL5) within budget.
- Project leader to initiate a concept of an integrated system of compressed air energy storage/ gas turbine combined cycle: Developed several concepts, conducted techno-economic analysis to down-select concepts, presented the results to senior managers, and wrote a white paper.
Selected publications
in gas turbine, heat pump, energy storage, refrigeration, thermal management , & fuel cell systems
- D. A. Jones and C.-J. Tang, “Intercooled turbine with thermal storage system,” US10704467, 2020
- C.-J. Tang, P. J. Bonitatibus, J. B. McDermott, “Cooling systems and related method,” US20200208899A1, 2020
- C.-J. Tang and N. Tralshawala, “Systems and methods for operating a turbine engine,” US20200291857A1, 2020
- C.-J. Tang, P. J. Bonitatibus, and M. P. Rainka, “Absorption cycle apparatus and related method,” US20200172782A1, 2020
- C.-J. Tang, D. C. Hofer, V. V. Lissianski, “Method for natural gas liquefaction and filtration of solidified carbon dioxide,” US10465982, 2019
- C.-J. Tang and L. M. Hudy, “Cryogenic tank assembly,” US9752728, 2017
- V. V. Lissianski, DC Hofer, C.-J. Tang, and I. S. Hussaini, “Filter assembly for use in a natural gas liquefaction system and method of operating the same,” US20150157963A1, 2015
- C-J Tang, D. C. Hofer, V. V. Lissianski, “System and method for natural gas liquefaction,” US20160109177A1, 2015
- C.-J. Tang and A. S. Feitelberg, “Oxidizer for a fuel cell system,” US7416799, 2008
- A. P. Shapiro, N. Vora, C.-J. Tang, A. J. Hardy, and D. Westerkamp, “Waste heat driven desalination process,” US8545681, 2011
- C.-J. Tang and W. D. Gerstler, ”Thermal energy management system and method,” US8695363, 2014
- C.-J. Tang and W. D. Gerstler, ”Absorption chillers,” US20130312440A1, 2013
- C.-J. Tang, A. P. Shapiro, D. G. Laing, and H. C. Dhingra, ”Water self-sufficient turbine system,” US20120159957A1, 2012
- W. D. Gerstler and C.-J. Tang, “A Lithium bromide absorption chiller with cold storage,” Proceedings of the 11th International Sorption Heat Pump Conference, Padua, Italy, 2011
- C.-J. Tang, Y. Lee, and T. A. Litzinger, ”Simultaneous temperature and species measurements of the glycidyl azide polymer (GAP) propellant during laser-induced decomposition,” Combustion and flame, 117 (1-2), 244-256, 1999
Selected publications
in Steady-state & dynamic modeling
- C.-J. Tang, A. McClung, D. Hofer, and M. Huang, “Transient Modeling of 10 MW Supercritical CO2 Brayton Power Cycles Using Numerical Propulsion System Simulation (NPSS),” Turbo Expo: Power for Land, Sea, and Air 58721, 2019
- Huang, M., Tang, C. J., McClung, A., 2018, Steady state and transient modeling for the 10 MWe sCO2 test facility program., The 6th International Symposium on Supercritical CO2 Power Cycles, Pittsburgh, PA
- C. Horvath, Y Hwang, R Radermacher, W. D. Gerstler, and C.-J. Tang, “Waste heat and electrically driven hybrid cooling systems for a high ambient temperature, off-grid application,” Energy 66, 711-721, 2014
- C.-J Tang,”A study of steam-cooled humidified gas turbine cycles,” GT2011-45730, pp. 153-161
AWARDs & Honors
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Selected to serve on a final grant review panel for 2018 ARPA-E Open proposals
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Business Impact Project of the Year, GE Research, 2009
- President’s Discretionary Award, Plug Power, Dec. 2000