Simulators Selection for Design and Simulation of a CSP-Driven Forward Osmosis Process

Samya Sigue, S. Abderafi, Sebastion Vaudreuil, T. Bounahmidi
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引用次数: 2

Abstract

Coupling of desalination technologies and renewable energy systems is relatively a new concept, which is used either to provide energy to a desalination system or to generate simultaneously power and drinking water. The aim of this paper is to select the most convenient simulator to study a plant combining concentrated solar power and forward osmosis dedicated to electricity and drinking water producing for populations in arid regions. Thus, a state of the art of the available steady-state simulators has been carried out. The design and simulation models and the use of these simulators in the already-published papers have been investigated. It has been revealed that there is a lack of simulators having all the required models to analyze solar energy-driven desalination processes. Thereby, most authors use two simulators, one general for chemical processes and the other specific to renewable energy systems. Besides that, simulators with pre-built models for FO unit does not exist. Open source solutions were selected over commercial ones for several reasons. They offer open access to the application elements, so new modules can be easily added or modified. Furthermore, they can interoperate and communicate with other applications. Finally, based on the supported models and development tools, we have chosen SAM and DWSIM as the suitable open source simulators for our project.
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csp驱动正向渗透过程设计与模拟的模拟器选择
海水淡化技术和可再生能源系统的耦合是一个相对较新的概念,用于为海水淡化系统提供能源或同时产生电力和饮用水。本文的目的是选择最方便的模拟器来研究集中太阳能和正向渗透相结合的装置,用于干旱地区人口的电力和饮用水生产。因此,对现有的稳态模拟器进行了研究。在已发表的论文中,对这些仿真器的设计和仿真模型及其使用进行了研究。据透露,缺乏具有分析太阳能驱动的海水淡化过程所需的所有模型的模拟器。因此,大多数作者使用两种模拟器,一种用于化学过程,另一种用于可再生能源系统。除此之外,不存在预先建立FO单元模型的模拟器。选择开源解决方案而不是商业解决方案有几个原因。它们提供对应用程序元素的开放访问,因此可以很容易地添加或修改新模块。此外,它们还可以与其他应用程序进行互操作和通信。最后,基于所支持的模型和开发工具,我们选择了SAM和DWSIM作为适合我们项目的开源模拟器。
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