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The novelties of this work are thermal management in the triangular and cubical concentrator collectors along with turbulent water, oil, ethylene glycol, and glycerin. Present learn about optimized and multiplied the efficiency of attention solar parabolic collector. Three-dimensional computational fluid dynamics (CFD) simulations are performed using FLUENT software to study fluid flow, turbulence, heat transfer, and thermal energy consumption on the nanoparticles water, ethylene glycol, oil, and glycerin sides for various solar panel configurations. CFD Performance Analysis is performed under turbulent flow conditions for circular and octagonal collector configurations. The fluid drift is turbulent, incompressible, steady, and totally developed. The collectors with triangular and cubical move areas have been investigated with water, oil, ethylene glycol, and glycerin fluids. The top half of these go sections is a collector and the lower half is insulated. According to the result, enthalpy performance of the triangular collector using oil, ethylene glycol, and glycerin developed 12%, 26%, and 30%, respectively. Also, total surface heat flux for a cubical collector using ethylene glycol, water, oil, and glycerin increased 25.2%, 41%, 5.9%, and 26.6%, respectively, more than triangular collector. Moreover, surface incident radiation in triangular collector for ethylene glycol, water, oil, and glycerin were 64%, 1.4%, 12.2%, and 7.4%, respectively, more than cubical collector. In addition, radiation heat flux of triangular collector for ethylene glycol, water, oil, and glycerin developed 76%, 8.5%, 85%, and 82%, respectively, more than cubical collector. Finally, performance efficiency of water in cubical collector, oil in triangular, ethylene glycol, and glycerin increased 16%, 11.1%, 11.8%, and 4%, respectively, more than cubical collector.

Thermal management and develop energy storage in performance improvement of triangular and cubical parabolic collectors