Litcius/Paper detail

Overview on artificial intelligence in design of Organic Rankine Cycle

Dongpeng Zhao, Shuai Deng, Li Zhao, Weicong Xu, Wei Wang, Xianhua Nie, Mengchao Chen

2020Energy and AI56 citationsDOIOpen Access PDF

Abstract

Converting thermal energy into mechanical work by means of Organic Rankine Cycle is a validated technology to exploit low-grade waste heat. The typical design process of Organic Rankine Cycle system, which commonly involves working fluid selection, cycle configuration selection, operating parameters optimization, and component selection and sizing, is time-consuming and highly dependent on engineer's experience. Thus, it is difficult to achieve the optimal design in most cases. In recent decades, artificial intelligence has been gradually introduced into the design of energy system to overcome above shortcomings. In order to clarify the research field of artificial intelligence technique in Organic Rankine Cycle design and guide artificial intelligence technique to assist Organic Rankine Cycle design better, this study presents a preliminary literature summary on recent progresses of artificial intelligence technique in organic Rankine cycle systems design. First, this study analyzes four main procedures which constitute a typical design process of Organic Rankine Cycle systems and finds that design problems encountered during design process can be divided into three categories: decision making, parameter optimization and parameter prediction. In the second section, a detailed literature review on each design procedures using artificial intelligence algorithms is presented. At last, the state of art in this field and the prospects for the future work are provided.

Topics & Concepts

Organic Rankine cycleDegree RankineRankine cycleComponent (thermodynamics)Process (computing)Engineering design processEngineeringProcess engineeringComputer scienceIndustrial engineeringMechanical engineeringWaste heatHeat exchangerPower (physics)PhysicsOperating systemThermodynamicsQuantum mechanicsThermodynamic and Exergetic Analyses of Power and Cooling SystemsAdvanced Thermodynamic Systems and EnginesSolar Thermal and Photovoltaic Systems