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FTIR과 XRD를 이용한 α-Quartz 분석법 비교

Comparision of Analytical Methods for α-Quartz by FTIR and XRD

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This study compared FTIR with XRD method for the analysis of quartz by % recovery, coefficient of variation (CV) and influence of the interference. the results were as the following. 1. In FTIR method, the coefficient of determination (r2) was 0.9998 in a calibration curve of 695㎝−1, and the limit of detection was 4.9 ㎍/sample. 2. The highest recovery was 799㎝−1 (98.2%). 3. The CVpooled of the FTIR method was approximately 10% in three wave numbers. 4. The analysis of qualitative and quantitative for quartz is difficult with mixed cristobalite and iron oxide. 5. In XRD method with rotating sample holder and LynxEye detector, the coefficient of determination was 0.9996 in a calibration curve, and the limit of detection was 5.9 ㎍/sample. 6. The recovery and CV pooled were 104.3%, and 11%, respectively. 7. In muffle furnace ashing, the quartz weight decreased to 34% when the maximum weight of the iron oxide was more than eight times. In conclusion, the accuracy (% recovery) and precision (CV) of FTIR and XRD method for analyzing α-quartz were similar. FTIR method was a disadvantage for sample matrix because it indicates possibility of interference. However, XRD method distinguished specific crystalline forms of silica, and the majority of silicate minerals. In addition, XRD method recommend filter dissolution to pretreatment method.

Abstract

This study compared FTIR with XRD method for the analysis of quartz by % recovery, coefficient of variation (CV) and influence of the interference. the results were as the following. 1. In FTIR method, the coefficient of determination (r2) was 0.9998 in a calibration curve of 695㎝−1, and the limit of detection was 4.9 ㎍/sample. 2. The highest recovery was 799㎝−1 (98.2%). 3. The CVpooled of the FTIR method was approximately 10% in three wave numbers. 4. The analysis of qualitative and quantitative for quartz is difficult with mixed cristobalite and iron oxide. 5. In XRD method with rotating sample holder and LynxEye detector, the coefficient of determination was 0.9996 in a calibration curve, and the limit of detection was 5.9 ㎍/sample. 6. The recovery and CV pooled were 104.3%, and 11%, respectively. 7. In muffle furnace ashing, the quartz weight decreased to 34% when the maximum weight of the iron oxide was more than eight times. In conclusion, the accuracy (% recovery) and precision (CV) of FTIR and XRD method for analyzing α-quartz were similar. FTIR method was a disadvantage for sample matrix because it indicates possibility of interference. However, XRD method distinguished specific crystalline forms of silica, and the majority of silicate minerals. In addition, XRD method recommend filter dissolution to pretreatment method.

참고문헌 (44)

  1. Choi, B. S., "The current status and measures of pneumoconiosis in Korea", Journal of Korean Medical Association, 40(5), pp.609~615 (1997)
  2. Kim, H. W., "Silica", Report. Ministry of Labor, 37 (2005)
  3. "Korea Occupational Safety & Health Agency : Crystalline Silica. No. 2007-10-222, 2007 (Translated by Kim, B. W., Korean)", ~ (2007)
  4. Carmichael, R. S, "Practical Handbook of Physical Properties of Rocks and Minerals" (1989), CRC Press
  5. minerals, and a dusty world. in: Reviews in Mineralogy, Vol. 28, "Klein, C", Mineralogical Society of America, 8~59 (1993)
  6. Klein, C, "Manual of Mineralogy, 21 st Ed", pp.527~ (1993), John Wiley & Sons
  7. International Agency for Reserarch on Cancer World Health Organization, "IARC Monographs on the Evaluation of Carcinogenic Risks to Humans: Silica, Some Silicates, Coal Dust and Para-Aramid Fibrils. Vol. 68", pp.46~ (1997), IARC
  8. Threshold limit Values for Chemical Substances and Physical Agents exposure indices, "Ministry of Labor", ~, pp.No. 2007-25, 2007 (2007)
  9. "American Conference of Governmental Industrial Hygienists", Threshold Limit Values for Chemical Substances and Physical Agents and Biological Exposure Indices (2006), ACGIH
  10. Madson, F. A, "Review of quartz analytical methodologies - Present and Future Needs", Applied Occupational and Environmental Hygiene, 10(12), pp.991~1001 (1995)
  11. NIOSH Manual of Analytical Method, 4ed., Method 7500, "National Institute for Occupational Safety and Health", NIOSH, 2003, DHHS[DOI]
  12. "National Institute for Occupational Safety and Health on Centers for Disease Control and Prevention : NIOSH Hazard Review, Health Effects of Occupational Exposure to Respirable Crystalline Silica", 5~ (2002)
  13. "Occupatioanl Safety and Health Administration Analitical Laboratory : OSHA Manual of Analytical Method, OSHA Method No. ID-142, Salt Lake City, Utah. 1981 - Revised", ~ (1996)
  14. Choi, H. C., "Quantitative analysis of Quartz, Mica, and Feldspar in respirable coalmine dust in Taebaek area by Fransform Infrared Spectrophotometry", Korean Journal of Preventive Medicine, 21(2), pp.271~283 (1988)
  15. Oh, S. M, "A study of Worker's Exposure to Dust, Crystalline Free Silica and Lead in Ceramic Industry", Journal of Korean Society of Occupational and Environmental Hygiene, 4(2), pp.168~179 (1994)
  16. Phee, Y. G., "Analysis of Quartz Content and Particle Size Distribution of Airborne Dust from Selected Foundry Operations", Journal of Korean Society of Occupational and Environmental Hygiene, 7(2), pp.196~208 (1997)
  17. 김현욱, "호흡성 분진중 석영분석시 FTIR-직접필터법의 현장적용 가능성 연구", 한국산업위생학회지, 12(2), pp.73~78 (2002), 한국산업위생학회
  18. 신용철, "국내 광산 종류별 근로자의 유해물질 노출 평가- 발암성 물질을 중심으로 -", 한국산업위생학회지, 12(2), pp.95~105 (2002), 한국산업위생학회
  19. 신용철, "국내 일부 석탄광산 근로자들의 업무별 공기중 분진 및 유리규산 노출 평가", 한국산업위생학회지, 12(3), pp.146~154 (2002), 한국산업위생학회
  20. 김현욱, "FTIR을 이용한 결정형규산 분석시 직접필터법과 회화법의 비교", 한국산업위생학회지, 12(3), pp.155~161 (2002), 한국산업위생학회
  21. 박용선, "주물사업장에서 발생하는 호흡성분진의 농도 및 석영함유량에 관한 연구", 한국산업위생학회지, 13(1), pp.90~97 (2003), 한국산업위생학회
  22. Cheong, H. K., "A study on evalucation of worker exposure to diatomaceous earth dust and engineering control in a diatomite factory", Journal of Korean Society of Occupational and Environmental Hygiene, 1(0), pp.50~95 (1994)
  23. Kim, H. W., "Analysis of Quartz Contents by XRD and FTIR in Respirable Dust from Various Manufacturing Industries, Part I-Foundry", Journal of Korean Society of Occupational and Environmental Hygiene, 8(1), pp.50~66 (1998)
  24. Kim, H. W., "Analysis of quartz contents by XRD and FTIR in respirable dust from various manufacturing indus tries", Journal of Korean Society of Occupational and Environmental Hygiene, 9(1), pp.99~111 (1999)
  25. Guideline for Air Sampling and Analytical Method Development and Evaluation, "Kenney, E. R.", National Institute for Occupational Safety and Health, ~, pp.HHS NIOSH) Publication No. 95-117 (1995)
  26. Kenney, E. R., "Summary of the NIOSH guidelines for air sampling and analytical method development and evaluation", The Analyst, 121, pp.1163~1169 (1996)
  27. Taylor, J. K., "Quality Assurance of Chemical Measurement", pp.20~24 (1987), Lewis Publishers Inc.
  28. Kohyaman, N., "A new X-ray diffraction method for the quantitave analysis analysis of free silica in the airborne dust in working environment", Industrial Health, 23, pp.221~234 (1985)
  29. Hogan, TJ, "Particulates. in: Fundamentals of Industrial Hygiene, 4ed" (1995), National Safety Council
  30. Kim, B. W., "Workers' Exposure to Crystalline silica and Hexavalent chromium in the cement dust", Proceedings of the 41th Korean Society of Occupational and Environmental Medicine, pp.91~97 (2008), BEXCO
  31. Shulman, S. A., "Performance of Laboratories Measuring Silica in the Proficiency Analytical Testing Program", American Industrial Hygiene Association Journal, 53(1), pp.49~56 (1992)
  32. 피영규, "Fourier Transform Infrared Spectrophotometric Direct on Filter 방법을 이용한 석영 분석의 기초 연구", 한국산업위생학회지, 15(1), pp.1~7 (2005), 한국산업위생학회
  33. 피영규, "직접필터법을 이용하여 호흡성 분진내 석영을 정량분석할 때 크리스토바라이트가 미치는 영향", 한국산업위생학회지, 17(1), pp.21~30 (2007), 한국산업위생학회
  34. Bye, E, "Quantitative determination of silica mixtures by multivatiate calibration applied to infrared spectroscopy", Chemometrics and Intelligent Laboratory Systems, 14, pp.413~417 (1992)
  35. Dollberg, D. D, "Occupational health analytical chemistry : Quantitation using X-ray powder diffraction", ACS Symposium Series, 120, pp.43~ (1980)
  36. Suryanarayana, C, "X-ray Diffraction. in: A Practical Approach 1ed", pp.67~71 (1998), Springer
  37. Smith, D. K., "Evalution of the Detectability and Quantification of Respirable Crystalline Silica by Xray Powder Diffraction Method", Presented at the Crystalline silica Analytical Method Workshop of the Chemical Manufacturers Association (1991)
  38. Klug, H. P, "X-Ray Diffraction Procedures, 2ed" (1974), Wiley & Sons
  39. Chung, F. H, "Industrial Applications of X-Ray Diffraction", pp.441~465 (1999), CRC Press
  40. Bhaskar, R, "A comparative study of particle size dependency of IR and XRD methods for quartz analysis", American Industrial Hygiene Association Journal, 55(7), pp.605~609 (1994)
  41. Verma, D. K, "A Method for Determining Crystalline Silica in Bulk Samples by Fourier Transform Infrared Spectrophotometry", Annals of Occupupatioal Hygiene, 46(7), pp.609~615 (2002)
  42. Culity, B. D, "Elements of X-ray Diffraction, 3ed" (2001), Prentice-Hall, Inc.
  43. Peter, S., "The performance of laboratories analysing α-quartz in the workplace analysis scheme for proficiency (WASP)", Annals of Occupational Hygiene, 47(4), pp.269~277 (2003)
  44. Stepan, R, "Factor affecting the accuracy of airborne quartz determination", Journal of Occupational and Environmental Hygiene, 4, pp.80~86 (2007)

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