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  1. NTU Theses and Dissertations Repository
  2. 公共衛生學院
  3. 環境衛生研究所
請用此 Handle URI 來引用此文件: http://tdr.lib.ntu.edu.tw/jspui/handle/123456789/26247
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dc.contributor.advisor蔡詩偉(Shih-Wei Tsai)
dc.contributor.authorYing-Hsun Chenen
dc.contributor.author陳盈絢zh_TW
dc.date.accessioned2021-06-08T07:04:01Z-
dc.date.copyright2009-02-17
dc.date.issued2009
dc.date.submitted2009-01-19
dc.identifier.citation1. Dojlido J, Zbiec E, Swietlik R. Formation of the haloacetic acids during ozonation and chlorination of water in Warsaw waterworks (Poland). Water Research 1999;33:3111-8.
2. Rodrigues P, Esteves da Silva JCG, Antunes MCG. Factorial analysis of the trihalomethanes formation in water disinfection using chlorine. Presented at 10th International Conference on Chemometrics in Analytical Chemistry, Aguas de Lindoia, BRAZIL, Sep 10-15 2006.
3. Dalvi AG, Rasheed RA, Javeed MA. Haloacetic acids (HAAs) formation in desalination plants processes due to disinfectants, 2000.
4. Zwiener C, Richardson SD, De Marini DM, et al. Drowning in disinfection byproducts? Assessing swimming pool water. Environmental Science & Technology 2007;41:363-72.
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14. Erdinger L, Kuhn KP, Kirsch F, et al. Pathways of trihalomethanes uptake in swimming pools. International Journal of Hygiene and Environmental Health 2004;207:571-5.
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2003;12:503-21.
20. Caro J, Serrano A, Gallego M. Sensitive headspace gas chromatography-mass spectrometry determination of trihalomethanes in urine. Journal of Chromatography B-Analytical Technologies in the Biomedical and Life
Sciences 2007;848:277-82.
21. Jia M., Wu W., A. Yost R, et al. Simultaneous determination of trace levels of nine haloacetic acids in biological samples as their pentafluorobenzyl derivatives by gas chromatography/tandem mass spectrometry in electron
capture negative ion chemical ionization mode. Analytical chemistry 2003;75:4065-80.
22. Kim H, Haltmeier P, Klotz JB, et al. Evaluation of biomarkers of environmental exposures: Urinary haloacetic acids associated with ingestion of chlorinated
drinking water. Environmental Research 1999;80:187-95.
23. Polkowska Z, Kozlowska K, Mazerska Z, et al. Volatile organohalogen compounds in human urine: The effect of environmental exposure. Chemosphere 2006;62:626-40.
24. Polkowska Z, Kozlowska K, Mazerska Z, et al. Relationship between volatile organohalogen compounds in drinking water and human urine in Poland. Chemosphere 2003;53:899-909.
25. Wu F, Gabryelski Wojciech, Kenneth F. Improved gas chromatography methods for micro-volume analysis of haloacetic acids in water and biological matrices. Analyst 2002;127:1318-23.
26. Zsuzsanna K, L. Ashley D, M. CA. Quantitative detection of trichloroacetic acid in human urine using isotope dilution high-performance liquid chromatography-electrospray ionization tandem mass spectrometry. Analytical
chemistry 2002;74:2058-63.
27. Arthur CL, Pawliszyn J. Solid phase microextraction with thermal desorption using fused silica optical fiber. Analytical Chemistry 1990;62:2145-8.
28. Pawliszyn j. Solid Phase Microextracrion: Theory and Practice. 1997.
29. Arthur CL, Killam LM, Buchholz KD, et al. Automation and optimization of solid-phase microextraction. Analytical Chemistry 1992;64:1960-6.
30. Zhang Z, Pawliszyn J. Headspace solid-phase microextraction Analytical Chemistry 1993;65:1843-52.
31. Urbansky ET. Techniques and methods for the determination of haloacetic acids in potable water. Journal of environmental monitoring 2000;2:285-91.
32. Wiley J. Kirk-Othmer Encyclopedia of Chemical Technology. John Wiley & Sons, Inc., 2001.
33. Camel V. Microwave-assisted solvent extraction of environmental samples. Trends in analytical chemistry 2000;19:229-48.
34. Llompart MP, Lorenzo RA, Cela R, et al. Optimization of a microwave-assisted extraction method for phenol and methylphenol isomers in soil samples using a central composite design. Analyst 1997;122:133-7.
35. Llompart MP, Lorenzo RA, R. Cela, et al. Phenol and methylphenol isomers determination in soils by in-situ microwave-assisted extraction and derivatisation. Journal of Chromatography A 1997;757:153-64.
36. Zhang X, Minear RA. Decomposition of trihaloacetic acids and formation of the corresponding trihalomethanes in drinking water. Water Research 2002;36:3665-73.
37. Ma Y. C., Chiang C. Y.. Evaluation of the effects of various gas chromatographic parameters on haloacetic acids disinfection by-products analysis. Journal of Chromatography A 2005;1076:216-9.
38. Nicholas E. Leadbeater RJSaTMB. Using in situ Raman monitoring as a tool for rapid optimisation and scale-up of microwave-promoted organic synthesis: esterification as an example. Organic & biomolecular chemistry 2007;5:822-5.
39. Sarrion MN, Santos FJ, Galceran MT. Solid-phase microextraction coupled with gas chromatography-ion trap mass spectrometry for the analysis of haloacetic acids in water. Journal of Chromatography A 1999;859:159-71.
40. Electronic Code of Federal Regulations. Tile 40: Protection of Environment. Part 136, Appendix B, Difinition and procedure for the detection of the method detection limit-Revision 1.11(http://ecfr.gpoaccess.gov/cgi/t/text/text-idx?c=ecfr&rgn=div9&view=text&nod
e=40:22.0.1.1.1.0.1.7.2&idno=40).
dc.identifier.urihttp://tdr.lib.ntu.edu.tw/jspui/handle/123456789/26247-
dc.description.abstractTrihalomethanes(THMs) and haloacetic acids(HAAs) are well known disinfection-by products (DBPs). DBPs can be formed by the reaction between the residual chlorine and the humic acids in raw water. People expose to DBPs through various daily activities, including swimming, for example. Due to poor ventilation and continuing adding organic matter from the swimmers, the concentrations of DBPs in swimming pools are usually higher than what was found in tap water.
The concentrations of DBPs in water as well as in air can be determined through environmental assessment. However, there are variations with human activities, rate of absorption, distribution, metabolism, and excretion. Therefore, it is difficult to assess the actual exposure through environmental monitoring. On the other hand, biological monitoring can be applied to evaluate the amounts human body absorbed, while blood, urine and expired breath were common specimens for biomonitoring. Among them, urine sample is favored because the procedure for sample taking is invasive, easily operated with convenience.
Current analytical method utilized different techniques to determine THMs and HAAs in urine, respectively. The procedures were cumbersome and time consuming. Therefore, the purpose of this study was to develop a co-analyzed method for THMs and HAAs in urin. The analytical procedure involved derivatization and extraction of THMs and HAAs simultaneously in urine with microwave assisted headspace solid phase microextraction(MAE-HS-SPME). Gas chromatography with electron capture detector (GC/ECD) was used for the determination. Parameters that might affect the derivatization and the extraction efficiency were optimized. The Carboxen/Polydimethylsiloxane (CAR/PDMS) fiber appeared to be most suitable for the analysis of THMs and HAAs. Besides, the efficiencies of the derivatization and extraction were increased by adding the same volume of acidic methanol as the sample for the derivatization. The esterification/extraction temperature was set at 45°C for 40 min with low stirring rate and without salt addition. For the desosrption and analysis, GC/ECD was used and the temperature of the injection port was set at 250°C and the SPME fiber was desorbed for 2 min. The matrix effect was observed in this study, hence the standard addition method is recommended to be applied. The relative standard deviations (RSDs) for the analysis were between 3.333%-24.052% and 3.615%-15.914% for THMs and HAAs, respectively. The accuracies were between 100±2.53% ~ 100±18.97% and 100±1.19% ~ 100±16.66% for THMs and HAAs, respectively. The method detection limits ranged from 0.043 to 30.33 ng/mL.
The effects of decomposition from trihaloacetic acids on the determination of THMs were also investigated.
en
dc.description.provenanceMade available in DSpace on 2021-06-08T07:04:01Z (GMT). No. of bitstreams: 1
ntu-98-R95844013-1.pdf: 662304 bytes, checksum: 1aae1af606f15e9cf1e64de5cab5c51d (MD5)
Previous issue date: 2009
en
dc.description.tableofcontents致謝................................................ I
中文摘要.............................................II
ABSTRACT.............................................IV
TABLE OF CONTENTS....................................VI
LIST OF FIGURES ...................................VIII
LIST OF TABLES ......................................IX
CHAPTER 1 INTRODUCTION................................1
1.1 DISINFECTION BY-PRODUCTS IN WATER ................1
1.2 EXPOSURES OF DISINFECTION-BYPRODUCTS .............2
1.3 METABOLISM .......................................3
1.3.1 Trihalomethanes ................................3
1.3.2 Haloacetic acids ...............................3
1.4 HEALTH EFFECTS ...................................4
1.4.1 THMs ...........................................4
1.4.2 HAAs ...........................................5
1.5 BIOLOGICAL MONITORING.............................5
1.6 ANALYTICAL METHODS FOR THMs AND HAAs IN URINE.....7
1.7 OBJECTIVES........................................8
1.8 FRAMEWORK OF THE STUDY ...........................9
CHAPTER 2 MATERIALS and METHODS......................10
2.1 REAGENTS and MATERIALS ..........................10
2.2 METHODS .........................................12
2.2.1 Solid phase microextraction, SPME .............12
2.2.2. Microwave synthesis...........................14
2.3 EXPERIMENTAL ....................................15
2.3.1 Stock solutions and working solution ..........15
2.3.2 Urine treatment ...............................16
2.3.3 Sample derivatization and extraction procedure.16
2.3.4 Instrumentation ...............................17
2.3.5 Linearity, precision and recovery..............17
2.3.6 Matrix effects ................................17
CHAPTER 3 RESULTS AND DISCUSSIONS ...................18
3.1 FIBER SELECTION .................................18
3.2 DEORPTION TEMPERATURE and EFFICIENCY ............18
3.3 DERIVATIZATION –EXTRACTION TEMPERATURE..........19
3.4 DERIVATIZATION–EXTRACTION TIME..................19
3.5 DERIVATIZATIOG REAGENT...........................20
3.6 EFFECT OF IONIC STRENGTH.........................20
3.7 STIRRING RATE ...................................21
3.8 MATRIX EFFECT....................................21
3.9 METHOD VALIDATIONS ..............................21
3.10 THE DECOMPOSITION OF TRIHALOACETIC ACIDS .......23
CHAPTER 4 CONCLUSIONS ...............................24
REGERENCES...........................................26
APPENDIXES ..........................................31
dc.language.isoen
dc.subject尿液zh_TW
dc.subject鹵乙酸zh_TW
dc.subject三鹵甲烷zh_TW
dc.subject微波輔助zh_TW
dc.subject固相微萃取zh_TW
dc.subjectHAAsen
dc.subjectTHMsen
dc.subjecturineen
dc.subjectSPMEen
dc.subjectmicrowave assisteden
dc.title以固相微萃取技術結合微波輔助建立尿中三鹵甲烷與鹵乙酸之同步分析方法zh_TW
dc.titleDetermination of Trihalomethanes and Halogenated Acetic Acids in Urine with Microwave-Assisted Solid-Phase Microextractionen
dc.typeThesis
dc.date.schoolyear97-1
dc.description.degree碩士
dc.contributor.oralexamcommittee林嘉明(Jia-Ming Lin),陳美蓮(Mei-Lien Chen)
dc.subject.keyword三鹵甲烷,鹵乙酸,微波輔助,固相微萃取,尿液,zh_TW
dc.subject.keywordTHMs,HAAs,microwave assisted,SPME,urine,en
dc.relation.page58
dc.rights.note未授權
dc.date.accepted2009-01-19
dc.contributor.author-college公共衛生學院zh_TW
dc.contributor.author-dept環境衛生研究所zh_TW
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