Fabrication and Performance Evaluation of Integrated Solar-Driven Membrane Distillation System with Serpentine-shape of Flat Plate Solar Collector for Seawater Desalination

M. Hanoin, N. Mohammed, M. A. I. Z. Arris, A. Bakar, N. M. Mokhtar, A. A. Razak
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引用次数: 2

Abstract

Solar-powered membrane distillation (SPMD) system has gained its popularity in desalination application for past decade credit to the system efficiency in producing pure water and the utilization of renewable energy. However, most of the past SPMD works used commercial solar thermal collector (STC) as the thermal energy supply to the feed solution and the study only focused on the performance of the system in terms of flux and salt rejection. In this work, a self-made flat plate solar collector (FPSC) with the serpentine-shape pipe was designed and fabricated to study the effect of the STC towards the membrane performance. Before testing, a simulation work of the fluid flow inside the serpentine-shape pipe of the FPSC was analyzed using NX 10.0 computer-aided design simulation. After that, the efficiency of the self-made FPSC system was tested directly to sunlight in order to identify the maximum irradiance and the temperature of the feed solution. Due to the fluctuation of solar irradiance, the experimental setup of the SPMD system was tested using a solar simulator, and the performance was compared with the membrane distillation (MD) system without integration with FPSC system. Based on the simulation data, it can be concluded that the heat losses across the pipe are due to the slower fluid velocity and sudden pressure drop, which attributed to centripetal force and pressure differences. Meanwhile, the outdoor evaluation data showed that the temperatures of collector and water inside the feed tank could reach up to 84°C and 64°C, respectively when the maximum irradiance of 938 W/m2 was applied. For the performance evaluation between with and without the self-made FPSC system, it can be seen that only marginal difference can be observed for the permeate flux and salt rejection with an average difference of 6.06% and 1.29%, respectively.
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蛇形平板太阳能集热器集成太阳能驱动膜蒸馏系统的研制及性能评价
近十年来,太阳能膜蒸馏(SPMD)系统因其生产纯净水的效率和可再生能源的利用而在海水淡化领域得到了广泛的应用。然而,过去的SPMD工程大多采用商用太阳能集热器(STC)作为进料液的热能供应,研究只关注系统在通量和盐的抑制方面的性能。本文设计并制作了一种自制的带有蛇形管的平板太阳能集热器(FPSC),研究了STC对膜性能的影响。试验前,利用NX 10.0计算机辅助设计仿真软件对FPSC蛇形管内流体流动进行了仿真分析。然后,直接在阳光下测试自制FPSC系统的效率,以确定最大辐照度和进料溶液的温度。由于太阳辐照度的波动,利用太阳模拟器对SPMD系统的实验装置进行了测试,并与未与FPSC系统集成的膜蒸馏(MD)系统进行了性能比较。根据模拟数据可以得出,管道上的热损失是由于流体速度变慢和压力下降突然造成的,这是由于向心力和压力差造成的。同时,室外评价数据显示,在最大辐照度为938 W/m2时,集热器温度可达84℃,进料槽内水温可达64℃。通过对自制FPSC系统的性能评价,可以看出,在渗透通量和除盐率方面,两者的平均差异仅为6.06%和1.29%。
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