環境資源報告成果查詢系統

104年度雲林縣離島工業區紅外線連續監測及有害污染物調查計畫

中文摘要 本計畫於104年8月26日開始執行,計畫內容包括紅外線連續監測作業、調查離島工業區廠區中PM2.5及金屬元素之濃度變化趨勢及分布特性、調查雲林地區鄰近工業區及遠離工業區PM2.5及金屬元素之濃度變化趨勢及分布特性及於離島工業區及附近地區進行VOCs之監測,以瞭解雲林地區VOCs之濃度變化趨勢。本年度計畫各工作項目執行成果,主要分述如下: 一、完成紅外線紅外線連續監測作業共390天次 1.南門及許厝測線最常出現物種皆為乙烯、丙烯,當風向為北風到東北風夾角時,較易測得高值。 2.超出嗅覺閾值之物種:南門測線為丁酮及乙醇;許厝測線為氨及乙醇。 二、完成揮發性有機氣體採樣分析56點次 (一) 第一次採樣:104年9月24至25日 檢測8測點均測得丙酮及甲醇,均為空氣中常見污染物種之一;廠區外測點以崙豐國小及四湖國中測得5種物種為較多,且均以崙豐國中的濃度相對較高,其中甲醇有最高濃度(18.9 ppb);廠區內三測點中以VCM廠測得的物種較多,共測得9種物種,且該測點主要測得物種為烷類化合物,其中以甲醇有最高的濃度(14.3 ppb);K8400樓頂則測得8種物種,其中以甲醇濃度最高為13.4 ppb。 (二) 第二次採樣:104年10月7至8日 檢測8點均測得丙酮、甲醇;廠區外測點中豐安國小及崙背國中均測得7種物種,以豐安國小所測得甲醇有最高濃度(30.9 ppb)、丙酮有最高濃度(11.4 ppb),而其他採樣點的丙酮均為10 ppb以下;廠區內K8400及AROMA-2均各測得9種物種,但以VCM廠所測得丙酮有最高濃度(14.9 ppb)、K8400所測得甲醇有最高濃度(20.8 ppb)。 (三) 第三次採樣:104年12月15至16日 檢測8點均測得丙烷、氯甲烷、丙酮、甲醇、甲苯、異丁烷;廠區外測點中新興國小及崙背國中均測得7種物種,以豐安國小所測得甲醇有最高濃度(17.6 ppb);廠區內AROMA-2測得8種物種,但以VCM廠所測得丙酮有最高濃度(13.7 ppb)、K8400所測得甲醇有最高濃度(142.0 ppb)。 (四) 第四次採樣:105年01月14至15日 檢測8點均測得丙烷、丙酮、甲醇、甲苯、正丁烷、異丁烷;廠區外測點中均測得7種物種,以豐安國小所測得甲醇有最高濃度(34.4 ppb);廠區內VCM測得10種物種,以VCM廠所測得丙酮有最高濃度(40.5 ppb)、K8400所測得甲醇有最高濃度(235.0 ppb)。 (五) 第五次採樣:105年3月17至18日 檢測8點均測得丙烷、甲醇、丙酮、甲苯、正丁烷及異丁烷;廠區外以豐安國小及新興國小均測得6種物種,以豐安國小所測得甲苯有最高濃度(8.10 ppb);廠區內AROMA-2測得9種物種,廠區內各測點物種濃度差異不大。 (六) 第六次採樣:105年5月26至27日 除新興國小外,檢測8點均測得丙酮;廠區外以豐安國小及崙背國小均測得2種物種;廠區外各測點物種濃度差異不大;廠區內K8400測得13種物種,以K8400所測得異戊烷有最高濃度(28.00 ppb)。 (七) 第七次採樣:105年6月27至28日 檢測6點均測得甲醇及丙酮;廠區外以新興國小測得5種物種為最多,廠區外各測點物種濃度差異不大;廠區內K8400測得25種物種,以K8400所測得異戊烷有最高濃度(86.50 ppb)。 三、完成懸浮微粒及相關分析90點次 PM2.5之平均濃度,第一次檢測日間以近程(離島工業區內)最高,中程(鄰近工業區)次之,遠程(遠離工業區)最低。夜間則因受到東北風之影響,以中程最高、近程次之,而以遠程最低;第二次檢測日夜間濃度以遠程最高、中程次之、近程最低,可能為因強烈東北風將近程或內陸之污染帶至所致;第三次檢測日夜間濃度以遠程最高、中程次之、近程最低,可能為因西南氣流將近程或內陸之污染帶至所致。 PM2.5中PAHs濃度部分,第一次及第二次檢測呈現近程與中程高於遠程之情形,顯示近程及中程仍受到工業排放之影響。夜間之濃度皆呈現較日間濃度為高,可能為夜間風速較日間低,故PAHs較易附著於PM2.5上,導致夜間有較高濃度。第三次檢測日間呈現遠程最高、近程次之、中程最低,可能受西南氣流導致遠程有較高濃度。 PM2.5中重金屬濃度部分,第一此檢測日夜間總重金屬濃度均為近程最高、中程次之、遠程最低,三區間日間濃度皆高於夜間,顯示日間人為活動對PM2.5中金屬濃度有影響;第二次檢測日夜間工業重金屬濃度皆為遠程最高、中程次之、近程最低,此現象可能是近程地區風速明顯較其他兩區為高,造成近程地區PM2.5形成不易,而低濃度PM2.5則導致其金屬濃度偏低;第三次檢測日間工業重金屬為遠程最高、中程次之、近程最低,此現象可能是西南風吹拂,將近程之污染帶至遠程所至。 PM2.5中離子濃度部分,日夜間以硫酸根離子為佔總離子最多,其次為銨根,由於硫酸根其主要來源多為石化燃料燃燒所形成之衍生性鹽類,如燃煤發電或重油燃燒之鍋爐等,故日間之比例較夜間高。 PM2.5中總碳濃度部分,第一次檢測為近程與中程高於遠程之情形,且日間高於夜間,顯示工業區及日間人為活動對PM2.5中碳濃度有貢獻;第二次檢測為遠程最高、中程及近程次之推測原因仍為各區受東北季風之影響,近程工業區與內陸之污染源被風帶至中程及遠程地區,故遠程有較高濃度;第三次檢測為遠程最高、近程次之、中程最低,推測原因為遠程除受近程影響外,亦受到內陸其他污染源導致。 氣態PAHs濃度部分,第一次檢測日間濃度高低為近程及中程高於遠程之情形,顯示近程地區日間可能受工業源之影響,有較高濃度且對近程地區有影響;第二次檢測,日間以近程為最低,此現象應是近程風速較其他兩區為高之影響;第三次檢測日夜間皆以遠程最高、中程次之、近程最低,此現象應為遠程受西南氣流影響,使氣態PAHs由近程傳輸到中程及遠程。
中文關鍵字 紅外線連續監測、揮發性有機物、多環芳香烴

基本資訊

專案計畫編號 YLEPB-104-044 經費年度 104 計畫經費 17100 千元
專案開始日期 2015/08/27 專案結束日期 2016/08/26 專案主持人 曹志成
主辦單位 雲林縣環境保護局 承辦人 廖俊傑 執行單位 祥威環境科技股份有限公司

成果下載

類型 檔名 檔案大小 說明
期末報告 104年度雲林縣離島工業區紅外線連續監測及有害污染物調查計畫.pdf 0MB

The Infrared continuous monitoring and the survery of harmful air pollutions in Yunlin County on 2015

英文摘要 The project started on Aug 26th, 2015, which includes FTIR monitoring, offshore island industrial zones (in the factory), and Yunlin area near the industrial zones and away from the industrial area (outside the factory) for pollutant monitoring works. The pollutants include volatile contaminants (VOCs), PM2.5, and metal elements. Through the effective implementation of this plan, it can grasp the offshore island industrial zone preceding the sources of pollution, establish background of concentrations for the key site of industrial zone, and then clarify the impact from the Yunlin area offshore island industrial zones. The outcome of projects as follows: I. The completion of FTIR monitoring in 390 times. 1. Nan-Man and Shu-Tzu measuring line often measured species are ethylene, propylene. When the wind direction was from the north to northeasterly angle, and more easily measured the high value. 2. The species of exceeding odor threshold:Nan-Man measuring line is butanone and ethanol; Shu-Tzu measuring line is ammonia and ethanol. II. The completion of sampling and analysis for volatile organic gases in 56 times. i. The first sampling period: Sep 24th, 2015 - Sep 25th, 2015 Detection 8 measuring points had measured acetone and methanol, they were the kinds of common air pollutants. Measuring points outside of the factory as Lunfeng elementary school and Sihu junior high school had measured the highest quantities of 5 species, and the concentration of Lunfeng was relatively higher, which was the highest concentration of methanol (18.9 ppb).Three measuring points in the factory which VCM plant had measured more species as 9. The measuring point had measuresd main species were alkyl compounds, which was the highest concentration of methanol (14.3 ppb); K8400 measuring point had measuresd species as 8, which was the highest concentration of methanol as 13.4 ppb. ii. The second sampling period: Oct 7th, 2015 - Oct 8th, 2015 Detection 8 measuring points had measured acetone and methanol , measuring points outside of the factory as Fengan elementary school and Lunbei junior high school had measured 7 species, and the concentration of methanol (30.9 ppb) and acetone (11.4 ppb) of Fengan was the highest. The concentrations of acetone at other measuring points were less than 10 ppb; K8400 and AROMA-2 in factory area had measured 9 species, but the concentrations of acetone (14.9 ppb) of VCM plant was the highest, and the concentration of methanol (20.8 ppb) of K8400 was the highest. iii. The third sampling period: Dec 15th, 2015 - Dec 16th, 2015 Detection 8 measuring points had measured propane, chloromethane, acetone, methanol, toluene and isobutane, measuring points outside of the factory as Xinxing elementary school and Lunbei junior high school had measured 7 species, and the concentration of methanol (17.6 ppb) of Fengan was the highest . AROMA-2 in factory area had measured 8 species, but the concentrations of acetone (13.7 ppb) of VCM plant was the highest, and the concentration of methanol (142.0 ppb) of K8400 was the highest. iv. The fourth sampling period: Jan 14th, 2016 - Jan 15th, 2016 Detection 8 measuring points had measured propane, acetone, methanol, toluene, n-butane and isobutane, measuring points outside of the factory had measured 7 species, and the concentration of methanol (34.4 ppb) of Fengan elementary school was the highest; the VCM plant had measured 10 species, and the concentration of acetone (40.5 ppb) was the highest. The concentration of methanol (142.0 ppb) of K8400 was the highest. v. The fifth sampling period: Mar 17th, 2016 - Mar 18th, 2016 Detection 8 measuring points had measured propane, methanol, acetone, toluene, n-butane and isobutane, measuring points outside of the factory as Fengan and Xinxing elementary school had measured 6 species, and the concentration of toluene (8.10 ppb) of Fengan elementary school was the highest; AROMA-2 in factory area had measured 9 species and the species of each measuring points were a little difference in factory area. vi. The sixth sampling period: May 26th, 2016 - May 27th, 2016 Detection 8 measuring points had measured acetone except Xinxing elementary school. Measuring points outside of the factory as Fengan and Lunbei elementary school had measured 2 species, the concertration of measuring points outside of the factory were a little difference. The K8400 in factory area had measured 13 species, and the concentration of isopentane (28.0 ppb) was the highest. vii. The seventh sampling period: Jun 27th, 2016 - Jun 28th, 2016 Detection 6 measuring points had measured methanol and acetone, measuring points outside of the factory as Xinxing elementary school had measured 5 species, and it was the most species. The concentration of measuring points outside of the factory were a little difference. The K8400 in factory area had measured 25 species, and the concentration of isopentane (86.5 ppb) was the highest. III. The completion of relative analysis of particulate matter in 90 times The average concentration of PM2.5, at first test in the day-time(in offshore industrial zone) was the hightest followed by short-distance, mid-distance (near industrial zone), and long-distance (away from industrial zone). In the night time, due to the impact of northeast wind, the highest in mid-distance, short-distance, and the lowest in long-distance; At second test, day-night concentration was the highest followed by long-distance, mid-distance, and the lowest in short-distance due to strong northeast wind brought the pollution of inland or proximity; At third test, day-night concentration was the highest followed by long-distance, mid-distance, and the lowest in short-distance due to southwesterly airstream brought the pollution of inland or proximity. According to the concentration of PAHs among PM2.5, at the first and second test mid-distance and short-distance presented higher values than long-distance which showed the short and mid still affected by the industrial emissions. The concentration at night was rendered higher than the day. It may be the wind speed lower at night than day, thus PAHs easily attached to PM2.5, leading to the higher concentration at night. At the third test, day-time concentration was the highest followed by long-distance, short-distance, and the lowest in mid-distance due to southwesterly airstream. The concentration of total metal in PM2.5, the first test, the concentration of day and night were the highest equally followed by short-distance, mid-distance and long-distance was the lowest. At day time, the concentration of these three distances were higher than at night. It reveals that human activities affected concentration of metal in PM2.5. The second test, the concentration of metal both day and night were the highest followed by long-distance, mid-distance and the lowest were short-distance. The wind speed of short-distance was higher than the other two areas which resulting in the formation of PM2.5 were not easy to gather. The low concentrations of PM2.5 had resulted in its low metal concentrations. The third test, the concentration of metal in day-time was the highest followed by long-distance, mid-distance and the lowest were short-distance due to southwest wind brought the short-distance pollution to the long-distance. The concentration of sulfate ion in PM2.5, the most was sulfate of total ion during day and night and followed by ammonium ion. Due to the main source of sulfate was from fossil fuel combustion, mostly formed by the derivative salts, such as combustion of heavy oil or coal-fired power boilers, etc., thus the proportion of the daytime was higher than at night. The concentration of total carbon in PM2.5, the first detection of short-distance and long-distance were higher than long-distance and daytime higher at night. It showed that industrial areas and human activities contribute to concentration of carbon in PM2.5; the second detection of long-distance was the highest, mid-distance and the lowest short-distance because the northeast monsoon affected. The industrial area and the proximity of pollution sources inland were brought by the wind and to mid-distance and long-distance, so long-distance was the higher concentration. The third detection of long-distance was the highest, short-distance and the mid-distance was lowest because the short-distance and inland affected. The concentration of gaseous PAHs, the first test, concentration at day for the short and mid-distance were higher than long-distance. It reveals short-distance area may be affected by industrial sources at day; the second test, the concentration of the lowest was short-distance. It reveals wind speed of short-distance was higher than the other two areas; The third test, the concentration at day-night were the highest followed by long-distance, mid-distance and the lowest were short-distance. It reveals the southwesterly airstream affected the gaseous PAHs transmitted by the short-distance to the mid-distance and long-distance.
英文關鍵字 Open-path Fourier transform infrared, Volatile organic compounds, Polycyclic Aromatic Hydrocarbons