Modeling of Dish-Stirling Solar Thermal Power Generation
This paper brings together the thermal, electric, and control system models of the various components within the dish-Stirling system. A background of the various components is
A thermal heat-pipe receiver was chosen to isothermally convert the concentrated solar energy from the parabolic dish to the AMTET. Their findings unveiled that the solar dish –AMTEC system produced a net power of 18.54 kW with an efficiency of 20.6%. Fig. 25. The solar dish/AMTEC power system (Wu et al., 2010). 7.2. Micro-cogeneration
Solar dish/Stirling system A typical SDSS system is composed of a parabolic concentrator connected to a power conversion unit (PCU) as shown in Fig. 2 (a) and (b). The latter consists of a Stirling engine, a spiral cavity receiver, and an alternator.
It was indicated that the thermal efficiency was 25%, corresponding to a receiver temperature of 1596 K, for dish configuration system of 10.5 m diameter at a solar intensity of 1000 W/m2. (Beltrán-Chacon et al., 2015) established a theoretical model to assess the impact of operational and geometrical parameters on the SDSS thermal performance.
The developed system consists of a solar dish concentrator, photovoltaic thermal panels, and HDH desalination unit as shown in Fig. 38. The HDH unit contains an open-water closed-air flow configuration. The concentrator of the solar dish is used as a water heater.
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