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Generic and Open-Source Exergy Analysis—Extending the Simulation Framework TESPy

doi: 10.3390/en15114087
Generic and Open-Source Exergy Analysis—Extending the Simulation Framework TESPy
Exergy-based methods support the identification of thermodynamic inefficiencies and the discovery of optimization potentials in thermal engineering applications. Although a large variety of simulation software is available in this field, most do not offer an integrated solution for exergy analysis. While there are commercial products on the market with such capabilities, their access for research and educational purposes is limited. The presented open-source software offers an integrated and fully automated exergy analysis tool for thermal conversion processes. In a first step, physical exergy is implemented, and the tool is then applied to three different example plants to highlight its capabilities and validate the implementation: A solar thermal power plant, a supercritical CO2 power cycle, and an air refrigeration cycle. The respective models and the results of the analyses are presented briefly. By providing the results in modern data structures, they are easily accessible and postprocessible. Future work will include chemical exergy to enable analyses of applications with conversion of matter. Additionally, the implementation of the exergoeconomic analysis and optimization is envisaged.
- Technical University of Berlin Germany
- TECHNISCHE UNIVERSITAET BERLIN Germany
- Fachhochschule Flensburg Germany
- Fachhochschule Flensburg Germany
- Technische Universitat Berlin Germany
Technology, generic topologies, T, exergy analysis; simulation; free and open-source software; thermal conversion processes; Python; generic topologies; Grassmann diagram; solar thermal power plant; supercritical carbon dioxide power cycle; air refrigeration cycle, simulation, free and open-source software, thermal conversion processes, exergy analysis, Python, ddc: ddc:620
Technology, generic topologies, T, exergy analysis; simulation; free and open-source software; thermal conversion processes; Python; generic topologies; Grassmann diagram; solar thermal power plant; supercritical carbon dioxide power cycle; air refrigeration cycle, simulation, free and open-source software, thermal conversion processes, exergy analysis, Python, ddc: ddc:620
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