• Title/Summary/Keyword: WEEE

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Overview and Recent Development of Recycling Small Waste Electrical and Electronic Equipment (WEEE) (폐소형가전제품 재활용 현황과 전망)

  • Jung, Insang;Park, Jihwan;Hwang, Jongsoo;Choi, Wonhee
    • Resources Recycling
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    • v.24 no.4
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    • pp.38-49
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    • 2015
  • The importance of recycling came to the fore by increasing of waste electrical and electronic equipment(WEEE) generation. Small WEEE recycling in particular represents a big challenge in Korea because it has various items and components. Main materials of small WEEE are typically well known for metals (copper, iron, aluminum, etc.), PCBs and plastics. Not only Korea but also overseas, the laws for small WEEE were in effect in order to recycle effectively, but the technology is not catched up with the regulation which has to recycle an allocated account of WEEE. In addition, recycling technologies and processes for small WEEE are not developed enough to recycling center properly. In that sense, if we develope the recycling process, have not only technology competitiveness but also resource conservation, improving the environment and economic profits. Therefore, through the analysis of economic value of recycled small WEEE, and current technologies both domestically and internationally, we design conceptual recycling process of small WEEE, and consider the way forward.

Current Status on the Pyrometallurgical Process for Recovering Precious and Valuable Metals from Waste Electrical and Electronic Equipment(WEEE) Scrap (폐전기전자기기(廢電氣電子機器) 스크랩으로부터 귀금속(貴金屬) 및 유가금속(有價金屬) 회수(回收)를 위한 건식공정(乾式工程) 기술(技術) 현황(現況))

  • Kim, Byung-Su;Lee, Jae-Chun;Jeong, Jin-Ki
    • Resources Recycling
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    • v.18 no.4
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    • pp.14-23
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    • 2009
  • In terms of resources recycling and resolving waste disposal problems, it is very important to recover precious metals like Au, Ag and Pd and valuable metals like Cu, Sn and Ni from the scraps of waste electrical and electronic equipment(WEEE) that consists of detective electrical and electronic parts discarded during manufacturing electrical and electronic equipments and waste electrical and electronic parts generated during disassembling them. In general, the scraps of WEEE are composed of various metals and alloys as well as refractory oxides and plastic components. Precious and valuable metals from the scraps of WEEE can be recovered by gas-phase-volatilization, hydrometallurgical, or pyrometallurgical processes. However, the gas-phase-volatilization and hydrometallurgical processes have been suggested but not yet commercialized. At the present time, most of the commercial plants for recovering precious and valuable metals from the scraps of WEEE adopt pyrometallurgical processes. Therefore, in this paper, the technical and environmental aspects on the important pyrometallurgical processes through literature survey are reviewed, and the scale-up result of a new pyrometallurgical process for recovering the precious and valuable metals contained in the scraps of WEEE using waste copper slag is presented.

Resource Cyclical Dynamics Focused on the Waste of Electric and Electronic Equipment

  • Lee, Man-Hyung;Kim, Tae-Yong;Kim, Dong-Chan;Hong, Sung-Ho
    • Korean System Dynamics Review
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    • v.9 no.2
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    • pp.129-154
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    • 2008
  • As a practical means to upgrade urban sustainability, this paper focuses on resource cyclical systems concerned with the waste of electric and electronic equipment (WEEE) in Korea. Borrowing System Dynamics concepts and approaches, it examines behavioral changes of WEEE dynamics to observe whether the existing management methods can be readjusted. The measurement is based upon both reuse and material and thermal recycle simulation works in the individual stage of WEEE discharge, collection, and treatment, going beyond the traditional recycle-only customs. This research estimates that the newly introduced Extended Producer Responsibility (EPR) system would definitely exert a significant impact on the final stage of WEEE treatment, decreasing the final treatment volume in the first half of the research period. The trend, nonetheless, would be reversed in the second half, mainly owing to the additional waste volume originated from the local government and recycling center. Sensitivity analysis poses, among others, that the local government-supported reuse center should take charge of a pivotal role in the long run. The research also shows that sufficientand necessary conditions for the WEEE management and treatment should be given to the combined efforts, both from the private sectors and the public domains. Based on these research findings, the paper recommends that key stakeholders including the producer and the public organizations should devise how to jointly carry out specific agenda centered around partnership or network buildings.

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A Study on the Establishment of the Standards for the Recycling Rate of Parts and Materials to Calculate Recyclability Rate of Electrical and Electronic Equipments (전기전자제품의 재활용가능률 산정을 위한 부품/소재의 재활용기준 정립에 관한 연구)

  • Yi, Hwa-Cho;Kang, Hong-Yun;Kim, Jin-Han;Shim, Kang-Sik;Kim, Jin-Ho;Han, Seong-Chul
    • Clean Technology
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    • v.14 no.4
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    • pp.232-241
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    • 2008
  • European directive DIRECTIVE 2002/96/EC requires minimum recycling & recovery rates on waste electrical and electronic equipment (WEEE). We tried to make references for recycling and recovery rates of parts and materials used in electrical and electronic equipment (EEE), which could be used to calculate recyclability and recoverability rates of a product in the development phase. First, we investigated recycling processes of WEEE and recycling and recovery characteristics of parts and materials. Based on the investigation results and the european recycling data, we made a data base of parts and materials for calculation of recycling and recovery rates of EEE. The developed DB was improved by reflecting advices of european experts.

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Overview and Recent Development of Recycling Waste Refrigerators (폐(廢) 냉장고(冷藏庫) 재활용(再活用) 현황(現況)과 기술(技術) 전망(展望))

  • Yang, Hyunseok;Kim, Geon-Hong;Kong, Man-Sik;Park, Kiejin;Lee, Gwang Weon;Kim, Bo Saeng
    • Resources Recycling
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    • v.22 no.4
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    • pp.70-80
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    • 2013
  • Waste refrigerator is the most large amount of item being recycled and the recycling process is the most complicated in WEEE (Waste Electrical and Electronic Equipment) because refrigerator is biggest product and consists of various parts and materials such as ferrous, non-ferrous, and plastics. Recently, recycling process of waste refrigerator has been being more complex since large capacity 2 door refrigerators and standing Kimchi refrigerators with various material are distributed on custom market. In addition, recycling of valuable resource from waste refrigerator is mandatory by WEEEs recycling legislation; therefore, high efficiency recycling enough for economic and environment-friendly recovery of valuable resource through present technical situation analysis and comparison of recycling technologies of waste refrigerator with advanced country.

A Study on the efficient implementation of information system for environmental management (효율적인 환경관리정보시스템(EMIS) 구축 방안에 관한 연구)

  • Kim, Ji-Myeong;Lee, Gwan-Seok
    • Proceedings of the Korean Society for Quality Management Conference
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    • 2006.11a
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    • pp.341-345
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    • 2006
  • 현대의 기업 활동을 위한 시장 상황은 제품에 대한 글로벌 환경규제가 갈수록 강화되어가고 있으며, 기업들은 생존을 위해서는 다양한 환경규제에 능동적으로 대응하며, 기업의 지속적인 성장을 모색해야 하는 것이 현실이다. 본 연구 논문에서는 글로벌 환경 정책의 변화 트랜드를 살펴보고, 글로벌 핵심 환경 규제 및 지침인 RoHS, WEEE, EuP, REACH 및 ISO 14000 환경경영시스템 등 국내기업들이 각종 환경 규제에 대응하기 위해서 구축하고 있는 환경관리 정보시스템들에 대하여 그 종류 및 형태를 살펴보고, 효율적인 환경관리정보시스템(EMIS) 구축을 위한 방안을 도출하였다.

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Application PDX to BOM of Auto Parts Manufacturers for Environmental Regulation Compliance (환경규제 준수를 위한 PDX 표준의 자동차 부품 업계 BOM 적용)

  • Lee, Jai-Kyung;Lee, Seung-Woo
    • Journal of the Korea Safety Management & Science
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    • v.12 no.2
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    • pp.133-138
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    • 2010
  • The environmental regulation of a product is a global trend. The environmental regulation directives such as RoHS, WEEE, ELV and REACH have impacted Korean export-oriented auto parts manufacturer and affects the export of the product to aboard. In electronics manufacture and auto parts manufacturer, there are different systems for environmental regulation compliance. Nowadays the automotive mechatronics parts in a car are increasing. The HEV and intelligent car will need more mechatronics parts. It is necessary to apply the environmental regulation system of electronics to the automotive parts. In this paper, we proposed the application of PDX standard used in electronic industry to the BOM of the auto parts manufactures and showed an example of generated BOM for selected auto part using PDX. The PDX-based BOM can be used for the recording of environmental substances of the automotive mechatronics part and help the collaboration across auto parts manufactures in accordance with environmental regulation.

EU's Environmental Regulations and the Countermeasures of the Firm in External Area -Focusing on the Cases in the Electrical and Electronic Industry- (EU 환경규제와 역외기업의 대응 -전기.전자산업의 사례 중심으로-)

  • Myung, Chang-Sig
    • Management & Information Systems Review
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    • v.22
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    • pp.167-191
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    • 2007
  • The EU has introduced various environmental protection policies and regulations which are stricter than accepted international standards. WEEE, RoHS, and EuP directives in the Electrical and Electronic Industry could have a direct effect on our exports to EU countries. To gradually enlarge exports to the EU, it is necessary to have a precise understanding of the EU's environmental regulations and prepare the relevant countermeasures to adequately cope with them. Korean companies should formulate concrete plans to meet the EU's environmental regulations in those industry. In order to decrease the negative effects that environmental regulations of EU give to Korea, the corporations and the government should change their present passive environmental policy and carry out the environmental- friendly policy. If Korean companies can adequately meet the standards set by the environmental policies and regulations of the EU, it will greatly enhance the competitiveness of companies in this market.

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Trend on the Recycling Technologies for Waste Electric and Electronic Equipment by the Patent Analysis (특허검색(特許檢索)에 의한 폐전기(廢電氣).전자기기(電子器機) 재활용(再活用) 기술(技術) 동향(動向))

  • Yoo, Kyoung-Keun;Lee, Jae-Chun;Jeong, Jin-Ki;Kang, Kyung-Seok
    • Resources Recycling
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    • v.18 no.4
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    • pp.70-81
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    • 2009
  • The patents were searched to investigate the trend and the direction of technologies about the recycling of WEEE (waste electric and electronic equipment). Database was collected from WIPS site, and then 223 patents were selected by investigating abstracts. The patents from 1986 to 2007 were analyzed according to countries, international patent classification (IPC), companies, technologies, and recycling-target materials. The most patents were applied in Japan and by Japan companies. Patents about physical pretreatment technology are the most among the patents of the WEEE recycling technologies. Patents about printed circuit boards among target materials are the most because of its high value-added.

A Study on the Standard Method to Calculate Recyclability Rate of Electrical and Electronic Equipments (전기전자제품의 재활용가능률 표준산정방법에 관한 연구)

  • Yi, Hwa-Cho;Kang, Hong-Yun;Shim, Kang-Sik;Kim, Jin-Han;Sim, Jae-Sul
    • Clean Technology
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    • v.15 no.1
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    • pp.23-30
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    • 2009
  • European directive DIRECTIVE 2002/96/EC requires the minimum recycling & recovery rate on the waste electrical and electronic equipments (WEEE). But, they do not have guidelines on the calculation methods for recycling and recovery rate. A standard method to calculate recyclability and recoverability rate of products in the designing stage is necessary for the manufacturers so that they can reflect the calculated result to the improvement of product design. In this work, we investigated the existing calculation methods for the recycling and recovery rates of WEEE and the recyclability and recoverability rates of electrical and electronic equipments (EEE). A method for the calculation of recyclability and recoverability rates for the EEE products in the development stage was developed. The newly-developed calculation method was applied to some EEE products and the calculated results were evaluated.