Natural Organic Matter in Water - Mika Sillanpää

Natural Organic Matter in Water (eBook)

Characterization and Treatment Methods

Mika Sillanpää (Autor)

eBook Download: PDF | EPUB

2014 | 1. Auflage
383 Seiten
Elsevier Reference Monographs (Verlag)
978-0-12-801719-7 (ISBN)

Approximately 77 percent of the freshwater used in the United States comes from surface-water sources and is subject to natural organic matter contamination according to the United States Geological Survey. This presents a distinct challenge to water treatment engineers. An essential resource to the latest breakthroughs in the characterization, treatment and removal of natural organic matter (NOM) from drinking water, Natural Organic Matter in Waters: Characterization and Treatment Methods focuses on advance filtration and treatment options, and processes for reducing disinfection byproducts. Based on the author's years of research and field experience, this book begins with the characterization of NOM including: general parameters, isolation and concentration, fractionation, composition and structural analysis and biological testing. This is followed by removal methods such as inorganic coagulants, polyelectrolytes and composite coagulants. Electrochemical and membranes removal methods such as: electrocoagulation, electrochemical oxidation, microfiltration and ultrafiltration, nanofiltration and membrane fouling.

Covers conventional as well as advanced NOM removal methods
Includes characterization methods of NOM
Explains removal methods such as: removal by coagulation, electrochemical, advanced oxidation, and integrated methods

Professor Mika Sillanpää is the head of the Laboratory at Lappeenranta University of Technology. His main function is conduct research and development activities and provides teaching and supervision for graduate and postgraduate students. He has 3760 total citations by 2683 documents.

Front Cover 1
NATURAL ORGANIC MATTER IN WATER: Characterization and Treatment Methods 4
Copyright 5
CONTENTS 6
CONTRIBUTORS 10
LIST OF ABBREVIATIONS 12
Chapter 1 - General Introduction 16
REFERENCES 27
Chapter 2 - Characterization of NOM 32
2.1 INTRODUCTION 33
2.2 GENERAL PARAMETERS 36
2.3 ISOLATION AND CONCENTRATION 38
2.4 FRACTIONATION 38
2.5 CHROMATOGRAPHIC METHODS 41
2.6 SPECTROSCOPIC METHODS 47
2.7 BIOLOGICAL TESTING 55
2.8 OTHER CHARACTERIZATION METHODS 56
2.9 CONCLUSIONS 57
REFERENCES 59
Chapter 3 - NOM Removal by Coagulation 70
3.1 INTRODUCTION 71
3.2 ALUMINUM-BASED COAGULANTS 76
3.3 FERRIC-BASED COAGULANTS 78
3.4 INORGANIC POLYMER FLOCCULANTS 78
3.5 ORGANIC POLYELECTROLYTES 81
3.6 COMPOSITE COAGULANTS 84
3.7 NOVEL COAGULANTS 86
3.8 CONCLUSIONS 88
REFERENCES 90
Chapter 4 - NOM Removal by Electrochemical Methods 96
4.1 INTRODUCTION 97
4.2 PRINCIPLES OF EC AND EO TECHNOLOGIES 98
4.3 EC AND EO TECHNOLOGIES IN NOM REMOVAL 107
4.4 CONCLUSIONS 118
REFERENCES 120
Chapter 5 - Membranes 128
5.1 INTRODUCTION 129
5.2 MICROFILTRATION 131
5.3 ULTRAFILTRATION 132
5.4 NANOFILTRATION 147
5.5 REVERSE OSMOSIS 158
5.6 MEMBRANE FOULING 160
5.7 CONCLUSIONS 164
REFERENCES 166
Chapter 6 - NOM Removal by Advanced Oxidation Processes 174
6.1 INTRODUCTION 175
6.2 AOPS IN NOM REMOVAL 177
6.3 UV LIGHT BASED APPLICATIONS 178
6.4 FENTON PROCESSES 185
6.5 HETEROGENEOUS PHOTOCATALYSIS AND CATALYTIC OXIDATION 195
6.6 ULTRASOUND IRRADIATION AND E-BEAM IRRADIATION 204
6.7 CONCLUSIONS 215
REFERENCES 218
Chapter 7 - NOM Removal by Adsorption 228
7.1 INTRODUCTION 229
7.2 ADSORPTION 229
7.3 ADSORBENTS AND THEIR CHARACTERISTICS 231
7.4 NOM REMOVAL FROM WATER BY ADSORPTION 233
7.5 CONCLUSIONS 248
REFERENCES 248
Chapter 8 - Ion Exchange 254
8.1 INTRODUCTION 255
8.2 REMOVAL OF NOM FROM WATER BY ION EXCHANGE 257
8.3 CONCLUSION 264
REFERENCES 285
Chapter 9 - Integrated Methods 290
9.1 INTRODUCTION 290
9.2 COUPLING COAGULATION WITH OTHER PROCESSES 290
9.3 COUPLING MEMBRANE TECHNOLOGY WITH OTHER PROCESSES 294
9.4 CONCLUSIONS 309
REFERENCES 309
BIBLIOGRAPHY 318
LIST OF JOURNAL TITLES WITH ABBREVIATIONS 366
INDEX 370

Chapter 2

Characterization of NOM

Mika Sillanpää∗, Anu Matilainen∗∗, and Tanja Lahtinen† ∗Lappeenranta University of Technology, LUT Faculty of Technology, LUT Chemtech, Laboratory of Green Chemistry, Sammonkatu 12, 50130 Mikkeli, Finland ∗∗Finnish Safety and Chemicals Agency, Kalevantie 2, 33100 Tampere, Finland †University of Jyväskylä, Department of Chemistry, Organic Chemistry, Survontie 9 B, 40500 Jyväskylä, Finland

Abstract

Worldwide reports over the last few decades have shown that the amount of natural organic matter (NOM) in surface water is continuously increasing, which has an adverse effect on drinking water purification. For many practical and hygienic reasons, the presence of NOM in drinking water is undesirable. Various technologies have been proposed for NOM removal with varying degrees of success. The properties and amount of NOM, however, can significantly affect the process efficiency. To improve and optimize these processes, it is essential to characterize and quantify NOM at various points during purification and treatment. It is also important to be able to understand and predict the reactivity of NOM or its fractions at different stages of the process. Methods used in the characterization of NOM include resin adsorption, size exclusion chromatography, nuclear magnetic resonance (NMR) spectroscopy, and fluorescence spectroscopy. The NOM in water has been quantified with parameters including ultraviolet and visible, total organic carbon, and specific UV-absorbance. More precise methods for determining NOM structures have been developed recently: pyrolysis gas chromatography-mass spectrometry, multidimensional NMR techniques, and Fourier transform ion cyclotron resonance mass spectrometry. This chapter focuses on the methods used for the characterization and quantification of NOM in relation to drinking water treatment.

Keywords

Characterization; Chromatography; Concentration; Fractionation; Natural organic matter (NOM); Spectroscopy

Abbreviations

AFM

Atomic force microscopy

AOC

Assimilable organic carbon

AOPs

Advanced oxidation processes

ATR

Attenuated total reflectance

BDOC

Biodegradable dissolved organic carbon

COD

Chemical oxygen demand

DBP

Disinfection by-product

DBPFP

Disinfection by-product formation potential

DOC

Dissolved organic carbon

EEM

Excitation–emission matrix

ESI

Electrospray ionization

Fulvic acids

FIFFF

Flow field-flow fractionation

FTICR-MS

Fourier transform ion cyclotron resonance mass spectrometry

FTIR

Fourier transform infrared

GAC

Granular activated carbon

Gas chromatography

Humic acids

HMW

High molecular weight

HMBC

Heteronuclear multiple bond correlation

HPLC

High performance liquid chromatography

HPSEC

High performance size exclusion chromatography

HR-MAS

High resolution magic-angle spinning

ICP AES

Inductively coupled plasma atomic emission spectroscopy

Infrared

LC-MS

Liquid chromatography-mass spectrometry

LC-OCD

Liquid chromatography-organic carbon detection

Molar mass

MWD

Molecular weight distribution

NMR

Nuclear magnetic resonance

NOM

Natural organic matter

OCD

Organic carbon detection

PARAFAC

Parallel factor

PSS

Polystyrene sulfonate

Py-GC-MS

Pyrolysis gas chromatography-mass spectrometry

Reverse osmosis

RPHPLC

Reversed-phase high-performance liquid chromatography

SEC

Size exclusion chromatography

SEM

Scanning electron microscopy

SHA

Slightly hydrophobic acid

SUVA

Specific UV-absorbance

TEM

Transmission electron microscopy

THM

Trihalomethane

TOC

Total organic carbon

UV–Vis

Ultraviolet and visible

VHA

Very hydrophobic acid

2.1. Introduction

Natural organic matter (NOM) is a complex mixture of organic compounds. Some of this organic matter is negatively charged, and it can possess a wide variety of chemical compositions and molecular sizes (Thurman, 1985; Swietlik et al., 2004).

All disinfection methods (chlorine, ozone, chlorine dioxide, chloramines, and UV radiation) reportedly produce their own suite of disinfection by-products (DBPs) and bioreactive compounds in drinking water (Richardson et al., 2007). Present knowledge and experience show that the hydrophobic and high molecular weight (HMW) compounds of NOM are the most significant precursors to DBP formation (Hua and Reckhow, 2007; Chen et al., 2008). Hydrophilic matter may also play a key role in the formation of new compounds during disinfection, especially in waters with low humic components.

More efficient removal of NOM requires more knowledge of the organic matter present in raw water, and novel methods have been developed for the characterization of these organic compounds. At the same time, existing methods and techniques have been improved. These characterization methods are used to study the composition of NOM prior to treatment and during various stages of the treatment process (Chen et al., 2007; Sarathy and Mohseni, 2007; Her et al., 2008a; Liu et al., 2008; Tercero Espinoza et al., 2009; Zhao et al., 2009; Liu et al., 2010). The diversity of molecules that constitute NOM and the relatively low concentrations of NOM in water often make characterization difficult. There is, therefore, a significant need for methods that can either accurately characterize NOM in these dilute solutions or isolated or concentrated NOM.

The NOM in raw water must be characterized to understand its role in water treatment (Matilainen et al., 2011). Ideally, once the various NOM components and fractions of a raw water source have been determined, the treatment processes that will eliminate the most dominant NOM fractions could be selected. Yet, NOM contains literally thousands of chemical constituents. Thus, it is not realistic to characterize NOM on the basis of individual components, as discussed in the introduction, but it is more practical to identify groups of chemicals with similar properties (Croue et al., 2000).

An alternative approach to the characterization of NOM is to study how it reacts to DBP formation and the occurrence of different DBPs in drinking water (Culea et al., 2006; Kanokkantapong et al., 2006b; Chen et al., 2008; Cooper et al., 2008; Richardson et al., 2008; Blodau et al., 2009). The binding potential of NOM with inorganic and organic micropollutants may also be relevant to drinking water treatment (Gjessing et al., 2007; Laborda et al., 2009; Park, 2009).

Different unit processes remove different NOM fractions during water treatment (Haarhoff et al., 2010). Therefore, more sophisticated characterization techniques are required (Matilainen et al., 2011). Several complementary methods can provide definitive structural or functional information about NOM, and have been found to correlate well, allowing for comprehensive characterization (Jaouadi et al., 2012; Penru et al., 2013). These analytical methods also provide better information for process design and optimization than the conventional dissolved organic carbon (DOC) measurements.

DOC, chemical oxygen demand (COD), UV254, pH, turbidity, and color are common water quality parameters assessed by water treatment facilities in their quality control. Assessment of these parameters does not require sophisticated equipment, is simple and fast to perform, and can be automated. Yet, such assessments offer no information about the characteristics of NOM such as molar mass (MM) or hydrophobicity.

Traditionally, humic substances have been classified into three categories based on their solubility: humic acid (HA), fulvic acid (FA), and humin. This is an operational division, however; the terms do not refer to single compounds but to a wide range of compounds of similar origin (Uyguner-Demirel and Bekbolet, 2011). NOM may be characterized by high performance size exclusion chromatography (HPSEC) analysis, which determines the molecular weight distribution (MWD) of NOM (Chow et al., 2008; Korshin et al., 2009), or by fractionation techniques that use resins to divide the mixture of organic compounds of NOM into hydrophilic and hydrophobic fractions (Sharp et al., 2006a,b). Although these parameters provide useful information regarding the change in organic characteristics during treatment and impact on DBP formation, it has...

Erscheint lt. Verlag	7.10.2014
Sprache	englisch
Themenwelt	Sozialwissenschaften ► Kommunikation / Medien ► Buchhandel / Bibliothekswesen
Themenwelt	Technik ► Umwelttechnik / Biotechnologie
ISBN-10	0-12-801719-8 / 0128017198
ISBN-13	978-0-12-801719-7 / 9780128017197

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