지원사업
학술연구/단체지원/교육 등 연구자 활동을 지속하도록 DBpia가 지원하고 있어요.
커뮤니티
연구자들이 자신의 연구와 전문성을 널리 알리고, 새로운 협력의 기회를 만들 수 있는 네트워킹 공간이에요.
논문 기본 정보
- 자료유형
- 학술저널
- 저자정보
- 발행연도
- 2002.9
- 수록면
- 197 - 205 (9page)
이용수
초록· 키워드
오류제보하기
Volatile organic compounds (VOCs) are an important public health problem throughout the world. Many jmportant questions remain to be addressed in assessing exposure to these compounds. Because they are ubiquitous and highly volatile, special techniques must be applied in the analytical determination of VQCs.
Personal exposure measurements are needed to evaluate the relationship between microenvironmental concentrations and actual exposures. It is also important to investigate exposure frequency, duration, and intensity, as well as personal exposure characteristics. In addition to air monitoring, biological monitoring may contribute significantly to risk assessment by allowing estimation of absorbed doses, rather than just the external exposure concentrations, which are evaluated by environmental and personal monitoring.
This study was conducted to establish the analytic procedure of VOCs in air, blood, urine and exhaled breath and to evaluate the relationships among these environmental media.
The subjects of this study were selecled because they are occupationally exposed 10 high levels of VOCs. Environmental, personal, blood, urine and exhalation samples were collected. Purge & trap, thermal desorber, gas chromatography and mass selective deteclor were used to analyze the collected samples. Analytical procedures were validated with the "break through test", "recovery test for storage and transportation", "method detection limit test" and "inter-laboratory QA/QC study".
Assessment of halogenated compounds indicled that they were significantly correlated to each other (p value < 0.01). In a similar manner, aromatic compounds were also correlated, except in urine sample.
Linear regression was used to evaluate the relationships between personal exposures and environmental concentrations. These relationships for aromatic and halogenated are as follows:
Halogens_(personal) = 3.875 +0.068Halogens_(environmet) (R² = .930)
Aromatics_(personal) = 34217.757 - 31.266Aromatics_(environmet) (R² = .821)
Multiple regression was used to evaluate the relationship between exposures and various exposure determinants including, gender, duration of employment, and smoking history. The results of the regression modeling for halogens in blood and aromatics in urine are as follows:
Halogens_(blood) = 8.181 + 0.246 Halogens_(personal) + 3.975Gender (R² = .925),
Aromatics_(urine) = 249.565 + 0.135Aromatics_(personal) - 5.651D.S (R² = .735),
In conclusion, we have established analytic procedures for VOC measurement in biological and environmental samples and have presented data demonstrating relationships between VOCs levels in biological media and environmental samples.
Personal exposure measurements are needed to evaluate the relationship between microenvironmental concentrations and actual exposures. It is also important to investigate exposure frequency, duration, and intensity, as well as personal exposure characteristics. In addition to air monitoring, biological monitoring may contribute significantly to risk assessment by allowing estimation of absorbed doses, rather than just the external exposure concentrations, which are evaluated by environmental and personal monitoring.
This study was conducted to establish the analytic procedure of VOCs in air, blood, urine and exhaled breath and to evaluate the relationships among these environmental media.
The subjects of this study were selecled because they are occupationally exposed 10 high levels of VOCs. Environmental, personal, blood, urine and exhalation samples were collected. Purge & trap, thermal desorber, gas chromatography and mass selective deteclor were used to analyze the collected samples. Analytical procedures were validated with the "break through test", "recovery test for storage and transportation", "method detection limit test" and "inter-laboratory QA/QC study".
Assessment of halogenated compounds indicled that they were significantly correlated to each other (p value < 0.01). In a similar manner, aromatic compounds were also correlated, except in urine sample.
Linear regression was used to evaluate the relationships between personal exposures and environmental concentrations. These relationships for aromatic and halogenated are as follows:
Halogens_(personal) = 3.875 +0.068Halogens_(environmet) (R² = .930)
Aromatics_(personal) = 34217.757 - 31.266Aromatics_(environmet) (R² = .821)
Multiple regression was used to evaluate the relationship between exposures and various exposure determinants including, gender, duration of employment, and smoking history. The results of the regression modeling for halogens in blood and aromatics in urine are as follows:
Halogens_(blood) = 8.181 + 0.246 Halogens_(personal) + 3.975Gender (R² = .925),
Aromatics_(urine) = 249.565 + 0.135Aromatics_(personal) - 5.651D.S (R² = .735),
In conclusion, we have established analytic procedures for VOC measurement in biological and environmental samples and have presented data demonstrating relationships between VOCs levels in biological media and environmental samples.
목차
서론
연구 및 방법
결과
고찰
참고문헌
참고문헌 (0)
참고문헌 신청함께 읽어보면 좋을 논문
논문 유사도에 따라 DBpia 가 추천하는 논문입니다. 함께 보면 좋을 연관 논문을 확인해보세요!
-
VOCs의 위해성 평가를 위한 노출분석 방법 연구
Environmental Analysis Health and Toxicology
2002 .06
-
제철소 근로자의 벤젠/톨루엔/크실렌 국소환경 측정을 이용한？ 총 노출 예측
한국환경보건학회지
2007 .01
-
화학실험실의 휘발성유기화합물 노출에 대한 정량적 평가전략
한국산업보건학회지
2011 .01
-
주거환경 및 개인 생활습관에 따른 화학물질 노출수준 차이 - 국민환경보건기초조사
한국환경보건학회지
2019 .01
-
나노물질의 측정전략의 주요 쟁점
한국환경보건학회지
2011 .01
-
Levels of blood lead and urinary cadmium in industrial complex residents in Ulsan
대한직업환경의학회지
2017 .07
-
사회·인구학적 요인과 시간활동양상에 따른 톨루엔 개인노출의 영향요인 분석
한국환경보건학회지
2017 .01
-
무균조제 항암제 취급의 안전관리
약학회지
2011 .01
-
도시지역 휘발성유기화합물에 대한 건강위해성평가
환경독성보건학회 심포지엄 및 학술대회
2017 .05
-
공단지역 주민에서 휘발성 유기오염물질의 호흡기 노출에 대한 생체지표 평가 ( Exposure Assessment of Volatile Organic Matters ( VOCs ) Using Exposure Biomarker in the Residents Living Near Petrochemical Industry Areas )
Environmental Analysis Health and Toxicology
2000 .10
-
소비 생활용품의 노출계수 조사 방법의 고찰
한국환경보건학회지
2013 .01
-
ENVIRONMENTAL EXPOSURE TO MAGNETIC FIELDS IN TRANSPORTATION SYSTEMS
한국보건교육건강증진학회 학술대회 발표논문집
1998 .11
-
급성 아황산가스 폭로후 흰쥐의 폐에 유발된 염증반응에 관한 연구
Tuberculosis and Respiratory Diseases
1994 .01
-
PCA와 ANN을 이용한 VOC 측정기기 개발
Environmental Analysis Health and Toxicology
2004 .06
-
Exposure Index를 이용한 이동형 디지털 X선 장치의 흉부촬영 적정노출조건에 관한 연구
대한디지털의료영상학회논문지
2011 .01
-
가습기살균제 사용에 따른 피해 신청자들의 특성 및 노출평가 오류 영향요인 분석
한국환경보건학회지
2019 .01
-
건설업 유해화학물질 노출 모델의 개발 및 검증: Tier-1 노출 모델
한국산업보건학회지
2014 .01
-
Overview of the Development of the Korean Exposure Factors Handbook
예방의학회지
2014 .01
-
흡입 노출 모델 알고리즘의 구성과 시나리오 노출량 비교
한국산업보건학회지
2019 .01
-
스타이렌 폭로 근로자의 환경중 폭로농도와 생물학적 모니터링에 관한 연구
한국산업보건학회지
1997 .01
이 논문의 저자 정보
이 논문과 함께 이용한 논문
최근 본 자료
댓글(0)
0
UCI(KEPA) : I410-ECN-0101-2009-539-013657619