STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL

Disinfection byproducts (DbP) are organic micro-pollutants in water which is produced during disinfection. Due to its toxicity effect in ?g/L, DbPs must be removed to ensure water quality. Membrane technology is a promising method in molecular separation. This study aims to acknowledge the develo...

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Main Author: Yufrani Afred, Merymistika
Format: Theses
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/53960
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:53960
spelling id-itb.:539602021-03-12T13:38:50ZSTUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL Yufrani Afred, Merymistika Indonesia Theses Disinfectant byproducts, Membrane filtration, Catalytic membrane, hydrophilic polymer, nanomaterial, nanosheet INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/53960 Disinfection byproducts (DbP) are organic micro-pollutants in water which is produced during disinfection. Due to its toxicity effect in ?g/L, DbPs must be removed to ensure water quality. Membrane technology is a promising method in molecular separation. This study aims to acknowledge the development of technology and material membrane as well as their challenges and outlook in DbP separation. Based on study, membrane filtration including reverse osmosis (RO), nanofiltration (NF), ultrafiltration (UF), and forward osmosis (FO) have been developed for DbP separation. The separation mechanisms are dominated by steric and electrostatic exclusion effect. Catalytic membrane, nanoparticlecatalytic membrane reactor (Np-CMR), was also investigated for DbP degradation through reduction reaction, which simultantly produced organic acid. Overall, the performance of membranes for DbP removal or degradation achieved 40-100%. However, the development of membranes have challenges such as trade-off between permeability and selectivity, fouling, and operating cost. This has stimulated modification of polymer membrane with superhidrophilic and defect-free characteristic. Hydrophilic polymers and nanoparticles including metal oxide, aquaporin, graphene oxide (GO), and metal organic framework (MOF) have been utilized as modifier. Based on literature data, the DbP rejection or degradation rate of modified membranes were 30-50% higher than unmodified membranes. Furthermore, the development of membrane with nanosheet of nanomaterial (thickness <100nm and nanoporous) can be considered in this field. Additionally, the capability of Np-CMR membrane to produce organic acids may provide usefull insight on reuse of wastewater contaminated DbP. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Disinfection byproducts (DbP) are organic micro-pollutants in water which is produced during disinfection. Due to its toxicity effect in ?g/L, DbPs must be removed to ensure water quality. Membrane technology is a promising method in molecular separation. This study aims to acknowledge the development of technology and material membrane as well as their challenges and outlook in DbP separation. Based on study, membrane filtration including reverse osmosis (RO), nanofiltration (NF), ultrafiltration (UF), and forward osmosis (FO) have been developed for DbP separation. The separation mechanisms are dominated by steric and electrostatic exclusion effect. Catalytic membrane, nanoparticlecatalytic membrane reactor (Np-CMR), was also investigated for DbP degradation through reduction reaction, which simultantly produced organic acid. Overall, the performance of membranes for DbP removal or degradation achieved 40-100%. However, the development of membranes have challenges such as trade-off between permeability and selectivity, fouling, and operating cost. This has stimulated modification of polymer membrane with superhidrophilic and defect-free characteristic. Hydrophilic polymers and nanoparticles including metal oxide, aquaporin, graphene oxide (GO), and metal organic framework (MOF) have been utilized as modifier. Based on literature data, the DbP rejection or degradation rate of modified membranes were 30-50% higher than unmodified membranes. Furthermore, the development of membrane with nanosheet of nanomaterial (thickness <100nm and nanoporous) can be considered in this field. Additionally, the capability of Np-CMR membrane to produce organic acids may provide usefull insight on reuse of wastewater contaminated DbP.
format Theses
author Yufrani Afred, Merymistika
spellingShingle Yufrani Afred, Merymistika
STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
author_facet Yufrani Afred, Merymistika
author_sort Yufrani Afred, Merymistika
title STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
title_short STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
title_full STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
title_fullStr STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
title_full_unstemmed STUDY OF MEMBRANE TECHNOLOGY DEVELOPMENT FOR DISINFECTION BYPRODUCTS REMOVAL
title_sort study of membrane technology development for disinfection byproducts removal
url https://digilib.itb.ac.id/gdl/view/53960
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