•  Persian
    • Persian
    • English
  •   ورود
  • دانشگاه فردوسی مشهد
  • |
  • مرکز اطلاع‌رسانی و کتابخانه مرکزی
    • Persian
    • English
  • خانه
  • انواع منابع
    • مقاله مجله
    • کتاب الکترونیکی
    • مقاله همایش
    • استاندارد
    • پروتکل
    • پایان‌نامه
  • راهنمای استفاده
View Item 
  •   کتابخانه دیجیتال دانشگاه فردوسی مشهد
  • Fum
  • Articles
  • ProfDoc
  • View Item
  •   کتابخانه دیجیتال دانشگاه فردوسی مشهد
  • Fum
  • Articles
  • ProfDoc
  • View Item
  • همه
  • عنوان
  • نویسنده
  • سال
  • ناشر
  • موضوع
  • عنوان ناشر
  • ISSN
  • شناسه الکترونیک
  • شابک
جستجوی پیشرفته
JavaScript is disabled for your browser. Some features of this site may not work without it.

Crossflow Filtration of Sodium Chloride Solution by A Polymeric Nanofilter: Minimization of Concentration Polarization by a Novel Backpulsing Method

نویسنده:
Masoud Kambarani
,
Hossein Bahmanyar
,
Mohammad Ali Mousavian
,
سیدمحمود موسوی
,
Seyed Mahmoud Mousavi
سال
: 2016
چکیده: In the present study, the production of low-salt water from salty water by nanofiltration as well as membrane fouling was investigated. Furthermore, a new method was proposed and tested experimentally for creating the backpulse in order to minimization of fouling and increase of the filtration efficiency. In the proposed method, the permeate was used instead of gas for creating the backpulse. To test the quality of this method, experiments were conducted using NaCl solution. In these experiments, the backpulse interval was changed and in constant backpulse duration, the effect of this parameter on the permeate flux was investigated. The results confirmed the effectiveness of the proposed system, especially when the concentration of the saline solution was increased.
یو آر آی: http://libsearch.um.ac.ir:80/fum/handle/fum/3359782
کلیدواژه(گان): Nanofiltration,Membrane,Fouling,Cross flow filtration,Backpulse duration,Backpulse interval
کالکشن :
  • ProfDoc
  • نمایش متادیتا پنهان کردن متادیتا
  • آمار بازدید

    Crossflow Filtration of Sodium Chloride Solution by A Polymeric Nanofilter: Minimization of Concentration Polarization by a Novel Backpulsing Method

Show full item record

contributor authorMasoud Kambaranien
contributor authorHossein Bahmanyaren
contributor authorMohammad Ali Mousavianen
contributor authorسیدمحمود موسویen
contributor authorSeyed Mahmoud Mousavifa
date accessioned2020-06-06T13:33:31Z
date available2020-06-06T13:33:31Z
date issued2016
identifier urihttp://libsearch.um.ac.ir:80/fum/handle/fum/3359782
description abstractIn the present study, the production of low-salt water from salty water by nanofiltration as well as membrane fouling was investigated. Furthermore, a new method was proposed and tested experimentally for creating the backpulse in order to minimization of fouling and increase of the filtration efficiency. In the proposed method, the permeate was used instead of gas for creating the backpulse. To test the quality of this method, experiments were conducted using NaCl solution. In these experiments, the backpulse interval was changed and in constant backpulse duration, the effect of this parameter on the permeate flux was investigated. The results confirmed the effectiveness of the proposed system, especially when the concentration of the saline solution was increased.en
languageEnglish
titleCrossflow Filtration of Sodium Chloride Solution by A Polymeric Nanofilter: Minimization of Concentration Polarization by a Novel Backpulsing Methoden
typeJournal Paper
contenttypeExternal Fulltext
subject keywordsNanofiltrationen
subject keywordsMembraneen
subject keywordsFoulingen
subject keywordsCross flow filtrationen
subject keywordsBackpulse durationen
subject keywordsBackpulse intervalen
journal titleIranian Journal of Chemistry and Chemical Engineeringfa
pages135-141
journal volume35
journal issue4
identifier linkhttps://profdoc.um.ac.ir/paper-abstract-1061264.html
identifier articleid1061264
  • درباره ما
نرم افزار کتابخانه دیجیتال "دی اسپیس" فارسی شده توسط یابش برای کتابخانه های ایرانی | تماس با یابش
DSpace software copyright © 2019-2022  DuraSpace