環保專案成果報告查詢系統

專案計畫編號
經費年度	113
計畫經費	4,820 千元
專案開始日期	2024/02/22
專案結束日期	2024/12/31
專案主持人	莊雅茹
主辦單位	國環院環境治理研究中心
承辦人	蔡睿澤
執行單位	財團法人工業技術研究院
專案分類	科技計畫
中文關鍵字	重金屬、產業轉型、監測技術
英文關鍵字	Heavy Metal, Industrial Transformation, Detection Technology
協同主持人	李晨瑜
共同主持人
計畫聯絡人	李晨瑜
計畫聯絡電話	03-5732317
計畫聯絡信箱	cylee78@itri.org.tw

中文摘要	金屬加工、表面處理以及電子工業等領域，其製程中所產生的大量廢水中多含重金屬，於製程中所產生的廢水皆須經過妥善處理，以減少對環境的衝擊，即時確認重金屬去除效率與控管放流水水質，選擇快速、適當的檢測或測量技術，亦是至關重要的一環；本計畫首先針對上述製程廢水中具重金屬污染潛勢之產業進行歸納，而後彙整並簡述前述產業常用之重金屬廢水處理及回收技術；此外，考量協助推行國內產業廢水重金屬綠色處理及回收趨勢，本計畫並針對國內具重金屬污染潛勢之產業別，進行其製程廢水中，重金屬特性、濃度及原料來源之彙整及歸納，並篩選出一電鍍示範廠，提出重金屬綠色處理及回收方案供其參考。此外延續前一年度之微電漿檢測技術開發成果，持續針對檢測性能、重金屬測項等進行優化，建立重金屬檢測檢量線及即偵測極限，四種金屬回歸直線的線性程度(R2)皆大於0.995，偵測極限部分以鉛最低為0.011 mg/L，其次為鎳之0.018 mg/L、銅之0.036 mg/L及鋅之0.061 mg/L，並採實際水樣進行測試，以外添加目標重金屬之方式，進行微電漿檢測技術驗證，銅、鋅及鉛之回收率落在88至115%之間，鎳的回收率較差僅約72.2%，原因為易受OH背景；最後，為推行微電漿檢測技術落地化應用，本計畫整合前處理設備、開發流程、電漿技術最佳化等各面向，建立微電漿感測雛型機，最後依原型機初步設計進行未來產品化之競爭力分析如成本及市場分析。
中文關鍵字	重金屬、產業轉型、監測技術

中文摘要

金屬加工、表面處理以及電子工業等領域，其製程中所產生的大量廢水中多含重金屬，於製程中所產生的廢水皆須經過妥善處理，以減少對環境的衝擊，即時確認重金屬去除效率與控管放流水水質，選擇快速、適當的檢測或測量技術，亦是至關重要的一環；本計畫首先針對上述製程廢水中具重金屬污染潛勢之產業進行歸納，而後彙整並簡述前述產業常用之重金屬廢水處理及回收技術；此外，考量協助推行國內產業廢水重金屬綠色處理及回收趨勢，本計畫並針對國內具重金屬污染潛勢之產業別，進行其製程廢水中，重金屬特性、濃度及原料來源之彙整及歸納，並篩選出一電鍍示範廠，提出重金屬綠色處理及回收方案供其參考。此外延續前一年度之微電漿檢測技術開發成果，持續針對檢測性能、重金屬測項等進行優化，建立重金屬檢測檢量線及即偵測極限，四種金屬回歸直線的線性程度(R2)皆大於0.995，偵測極限部分以鉛最低為0.011 mg/L，其次為鎳之0.018 mg/L、銅之0.036 mg/L及鋅之0.061 mg/L，並採實際水樣進行測試，以外添加目標重金屬之方式，進行微電漿檢測技術驗證，銅、鋅及鉛之回收率落在88至115%之間，鎳的回收率較差僅約72.2%，原因為易受OH背景；最後，為推行微電漿檢測技術落地化應用，本計畫整合前處理設備、開發流程、電漿技術最佳化等各面向，建立微電漿感測雛型機，最後依原型機初步設計進行未來產品化之競爭力分析如成本及市場分析。

中文關鍵字

重金屬、產業轉型、監測技術

類型	檔名	檔案大小	說明	最新版公開日期
期末報告	@成果報告(定稿)-2024 國環院產業轉型水體重金屬檢測技術開發研究(F).pdf	5MB		2025/2/3 上午 12:00:00

摘要	Many industries generate large amounts of heavy metal-containing wastewater during their processes, such as metal processing, surface treatment, and the electronics industry. Proper treatment of these wastewater streams is essential to reduce environmental impact and ensure that effluent quality meets environmental standards. Therefore, selecting efficient and suitable detection or measurement technologies to monitor the removal of heavy metals is crucial. The project began by categorizing industries with high potential for heavy metal contamination and summarizing the common heavy metal wastewater treatment and recovery technologies used in these industries. Additionally, to support the promotion of green treatment and recovery trends in domestic industrial wastewater, the project consolidates and organizes data on the characteristics, concentrations, and sources of raw materials of heavy metals in wastewater from industries with potential heavy metal contamination in Taiwan. A demonstration electroplating plant was selected, and a green treatment and recovery plan for heavy metals were proposed for reference. Furthermore, building on the previous year's development of microplasma detection technology, this project continued to optimize detection performance and focus on improving the measurement of heavy metals. The project already established calibration lines for heavy metal detection and define the detection limits. Test results show that the linearity (R2) of calibration lines for copper, zinc, and lead is greater than 0.995, and the detection limits are as follows: lead at 0.011 mg/L, nickel at 0.018 mg/L, copper at 0.036 mg/L, and zinc at 0.061 mg/L. Tests using actual water samples with added target heavy metals showed recovery rates for copper, zinc, and lead between 88% and 115%, while nickel recovery was lower at approximately 72.2%, possibly due to interference from OH background. Finally, to implement the microplasma detection technology in practical applications, this project integrated pretreatment equipment, process development, and plasma technology optimization. A prototype of the microplasma sensor was established, and a competitiveness analysis for future product commercialization, including cost and market analysis, were conducted. This series of efforts will not only improve the efficiency of heavy metal wastewater treatment but also actively promote the application of green treatment and recovery technologies in domestic industries.
英文關鍵字	Heavy Metal, Industrial Transformation, Detection Technology

摘要

Many industries generate large amounts of heavy metal-containing wastewater during their processes, such as metal processing, surface treatment, and the electronics industry. Proper treatment of these wastewater streams is essential to reduce environmental impact and ensure that effluent quality meets environmental standards. Therefore, selecting efficient and suitable detection or measurement technologies to monitor the removal of heavy metals is crucial. The project began by categorizing industries with high potential for heavy metal contamination and summarizing the common heavy metal wastewater treatment and recovery technologies used in these industries. Additionally, to support the promotion of green treatment and recovery trends in domestic industrial wastewater, the project consolidates and organizes data on the characteristics, concentrations, and sources of raw materials of heavy metals in wastewater from industries with potential heavy metal contamination in Taiwan. A demonstration electroplating plant was selected, and a green treatment and recovery plan for heavy metals were proposed for reference. Furthermore, building on the previous year's development of microplasma detection technology, this project continued to optimize detection performance and focus on improving the measurement of heavy metals. The project already established calibration lines for heavy metal detection and define the detection limits. Test results show that the linearity (R2) of calibration lines for copper, zinc, and lead is greater than 0.995, and the detection limits are as follows: lead at 0.011 mg/L, nickel at 0.018 mg/L, copper at 0.036 mg/L, and zinc at 0.061 mg/L. Tests using actual water samples with added target heavy metals showed recovery rates for copper, zinc, and lead between 88% and 115%, while nickel recovery was lower at approximately 72.2%, possibly due to interference from OH background. Finally, to implement the microplasma detection technology in practical applications, this project integrated pretreatment equipment, process development, and plasma technology optimization. A prototype of the microplasma sensor was established, and a competitiveness analysis for future product commercialization, including cost and market analysis, were conducted. This series of efforts will not only improve the efficiency of heavy metal wastewater treatment but also actively promote the application of green treatment and recovery technologies in domestic industries.

英文關鍵字

Heavy Metal, Industrial Transformation, Detection Technology