GET THE APP

Thermodynamic Overall Performance Evaluation of a New Solar Tower

Bioenergy and Bioresource:Open Access

Editorial - (2021) Volume 2, Issue 9

Thermodynamic Overall Performance Evaluation of a New Solar Tower-Geothermal

Khalid Altayib*
 
*Correspondence: Khalid Altayib, Department of Mechanical Technology, Jeddah College of Technology, Jeddah, Saudi Arabia, Email:

Author info »

Editorial Note

Although tons literature is posted on sCO2 and ORC blended cycles from the views of thermodynamic evaluation and optimization, constrained work has been accomplished specializing in cascaded usage of solar electricity and geothermal energy furthermore, auxiliary warmth assets of traditional geothermal are not in comparison to higher symbolize the sCO2-ORC blended cycle within the present take a look at, a thermodynamic solution system is proposed to estimate the combined cycle powered via sun power and common geothermal energy besides, thermodynamic fashions of the blended cycle also are utilized to explain the outcomes of layout conditions at the blended cycle performance. Then a genetic algorithm optimization is conducted to stability the thermal performance and internet power of a particular mixed cycle. The proposed approach may assist the thermodynamic evaluation of comparable strength cascaded utilization systems, and the effects from this paper will help better design the blended cycle the usage of supercritical carbon dioxide and natural working fluid. The use of geothermal wells with distinct temperatures and strain characteristics become taken into consideration. The software of a mixed device is a promising way to improve the device thermodynamically. The possibility of using the blended systems with two geothermal wells has no longer yet been completed. As try to full fill the distance in the field, a new combined power, natural fuel, and hydrogen machine changed into proposed considering geothermal wells.

Organic ranking cycle and ocused solar energy

The gadget consists of a singular flash configuration, Organic Ranking Cycle (ORC), Liquefied Natural Gasoline (LNG), and Proton Trade Membrane (PTM) systems. The proposed gad get is investigated fromelectricity, energy, and go economic aspects. Further, it aimed to perform a comprehensive parametric look at and optimize the system. Engineering Equation Solver (EES) is used to carry out the simulation and optimization. Hybrid sun and geothermal utilisation is a promising option for powerful exploitation of renewable power assets. Focused solar energy (FSE) systems with geothermal preheating are stated as an appealing answer, with supercritical CO2 (SCO2) cycle systems followed for power era way to the beneficial properties provided through CO2 as a running fluid. With the intention to in addition enhance the general overall performance of such structures, Organic Ranking Cycle (ORC) structures can be added as bottoming cycles to recover the warmth rejected from the topping SCO2 cycle system and additionally to utilise surplus geothermal warmness available after the brine is used for preheating inside the SCO2 machine. This paper proposes configurations of blended SCO2-ORC device for hybrid solar and geothermal energy generation and performs distinctive thermodynamic and financial tests based totally on real conditions in Seville, Spain. An innovative sun-geothermal-natural gasoline-pushed poly generation system is presented. It includes using organic ranking cycle, internal Combustion Engine, Polymer Electrolyte Membrane, and Humidification-Dehumidification desalination plant to provide power, hydrogen, warm water, and freshwater. Strength, Energy, go economic, and environmental analyses have been executed for the proposed machine.

Author Info

Khalid Altayib*
 
Department of Mechanical Technology, Jeddah College of Technology, Jeddah, Saudi Arabia
 

Received: 01-Dec-2021 Published: 22-Dec-2021

Copyright:This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

+44 7362 049930