Recycling practices and material flow analysis of mercury-containing fluorescent lamps in Korea

Similar documents
Best Practice Guide Collection & Recycling Lamps. 13 December 2012

Guide to Starting Collection & Recycling For Lighting Equipment. Andrew Brookie Dakar, Senegal 02 July 2013

Summary of the Impact Assessment

Mercury Products Recovery In North Carolina

NATURAL RESOURCES The Universal Waste Rule in Missouri

MERCURY RECOVERY TECHNOLOGY

MERCURY RECOVERY TECHNOLOGY

Extended producer responsibility (EPR) and job creation in Korea

Waste fluorescent lamps in China: generation, risk, and collection

Discussion points for the internationally-harmonized EPR systems

AMBILAMP Association for Lamps Recycling

Recycling Today for a Cleaner Tomorrow. Recycling Services and Equipment

LED Tube T8 9W G13 DATA SHEET. Product Overview. Features. Safety and Maintenance

Lighting for Today s Sustainable World. Carla R. Bukalski, PE, LC, LEED Commercial Engineer Great Lakes

Collection and Recycling of Discharge Lamps

Rhode Island Universal Waste Rule

Product Stewardship for Mercury- Containing Lamps in Minnesota

Universal Waste Regulations and Electronic Waste Issues

Position Paper Globally Harmonized Limits on Mercury for Lighting LIGHTINGEUROPE

Common RCRA Violations, and Universal Waste Mgt. at DoD Facilities

Solid and Hazardous Waste

WRED Event: LightRecycle WA Goes Live! Peter Thermos and Lauren Kulokas July 30, 2015

Philippines: Proposed Loan for Energy Efficiency Project

Rare earth recovery from Urban Mines: Recycling of luminescent powder from fluorescent lamps. By Thomas Langer OSRAM AG

PROJECT SPECIFICATIONS FOR THE REMOVAL OF PCB AND MERCURY

Reform of the Containers and Packaging Recycling Law in Japan. April, 2006 Rengo Co., Ltd

IMPLEMENTATION OF SMM IN INDONESIA PERSPECTIVE

Leaders In Sustainability

United States of America. Measures to Implement the Minamata Convention on Mercury. Article 3: Mercury supply sources and trade

Presenta(on Outline Which Light Bulbs Contain Mercury Why is Mercury in Light Bulbs? Regula(ons (New State Law) Generator Responsibili(es

S1_04. Japan s s Effort in Management of Mercury Waste

and the Take-it-Back Nebraska Network A TOOL KIT FOR RETAILERS

Environmental Public Health Overview

GASIFICATION THE WASTE-TO-ENERGY SOLUTION SYNGAS WASTE STEAM CONSUMER PRODUCTS TRANSPORTATION FUELS HYDROGEN FOR OIL REFINING FERTILIZERS CHEMICALS

Product Safety Data Sheet

Management of transboundary movement and Recycling of wastes (e-wastes) in Thailand

Waste Management and Recycling in JAPAN

Product Stewardship in Maine

MERCURY DIVERSION STANDARD

Meeting One: Compact Fluorescent Lamp Recycling Project. Sponsors

Energy Efficient Lighting Technologies, Standards and Potential Savings Tbilisi, 15 December 2015

Sound waste management

Welcome to ChaseWarner Waste Management

2018 MARR Community Recycling & Waste Reduction Forum

SUMMARY. 1 Large household appliances. 2 Small household appliances. 3 Informatics and Telecommunication (IT) equipment. 4 Consuming products

The WORLD BANK. Final Report

Lamp Wastes Management Facility (LWMF) and Extended Producers Responsibility (EPR)

Stena & GRIAG LCD Recycling Safety first

Waste management in Estonia. Taimar Ala Estonian Environmental Board Deputy Director

Collection & Recycling. Closing the materials loop. Towards a circular economy

Substance Flow Analysis of Mercury from Industrial and Municipal Wastewater Treatment Facilities

REDESIGNING RESIDENTIAL RECYCLING

AMBILAMP. Organization (CRSO) for light in Spain

Universal Waste Management Plan. In compliance with 40 CFR 273 and GA EPD

Workshop on Session Law : Requirements and Opportunities Regarding Fluorescent Lamps and Mercury Thermostats

Waste management in Austria Waste legislation in Austria. Seite

building material transparency:

Universal Waste Program FACILITIES MANAGEMENT DIVISION 1180 East Broad Street Athens, Georgia 30602

Review of the current Good Practice Document (Good Practices for Management of Mercury Releases from Wastes)

Recycling Electronics: Summary of Federal Efforts. Kim Bartels EPA Region 8 Pollution Prevention Program July 2009

REPORT FROM THE COMMISSION TO THE EUROPEAN PARLIAMENT, THE COUNCIL, THE EUROPEAN ECONOMIC AND SOCIAL COMMITTEE AND THE COMMITTEE OF THE REGIONS

Dry Cell Batteries and the Environment

Health Care Waste Management - To Reduce the Burden of Disease, Health- Care Waste Needs Sound Management, Including Alternatives to Incineration

10 th ANNUAL WASTE MANAGEMNET CONFERENCE & EXHIBITION WASTE TO OPPORTUNITIES. 19 TH July 2012 SIME DARBY CONVENTION CENTRE KUALA LUMPUR

MANAGEMENT OF ELECTRONIC WASTE IN THE UNITED STATES

Mercury management in Sweden

Advanced Waste Management and climate protection - Experiences in Germany Workshop Waste and Climate Change New Delhi

ECONOMIC IMPACT OF ADVANCED PLASTICS RECYCLING AND RECOVERY FACILITIES IN THE U.S.

Towards a Circular Economy in NL

Waste Management Plan of the Moravian-Silesian Region

Chapter Five Waste Processing, Treatment and Recycling Joe Green Dr Chris Wooldridge Cardiff University

Report on the Generation and Potential Recycling of Fluorescent Lights

Universal Waste Management

Prepared By: Elizabeth Arceneaux Date February 10, 2015 Page 1 of 5

The Socially Optimal Recycling Rate Thomas C. Kinnaman. 1 st International EIMPack Congress Lisbon November 2012

POLICIES AND PRACTICES FOR PLASTIC WASTE MANAGEMENT IN THAILAND

ASSESSMENT OF THE SOLID WASTE MANAGEMENT SYSTEM OF BAHIR DAR TOWN AND THE GAPS ISWM PLAN IDENTIFIED FOR THE DEVELOPMENT OF AN.

Solid Waste Management & Separate Collection of Recyclables

EU Legislation on Export/Storage/Disposal of Mercury

2. POLICY AND LEGISLATION

Product Environmental Profile HP CB304A, CB305A, Q8700A Spring 2006

WASTE-TO-ENERGY IN EUROPE WHERE ARE WE AND WHERE ARE WE GOING?

REPORT FROM THE COMMISSION TO THE EUROPEAN PARLIAMENT, THE COUNCIL, THE EUROPEAN ECONOMIC AND SOCIAL COMMITTEE AND THE COMMITTEE OF THE REGIONS

DUKE Occupational and Environmental Safety Office

2016 Manitoba Community Recycling & Waste Reduction Forum From Energy Efficiency to Environmental Leadership

Waste or Resource? The path to a Circular Economy and Sustainability

CRS-2 In 2001, lighting accounted for 8.8 % (101 billion kilowatt hours) of U.S. household electricity use. Incandescent lamps, which are commonly fou

STANDARDS FOR UNIVERSAL WASTE MANAGEMENT...

Priority Environmental Investment Programme

WASTE IS VALUE SUSTAINABLE WASTE AND RESOURCE MANAGEMENT IN DENMARK

Technical Advisory Committee June 9, 2005

WASTE IS VALUE SUSTAINABLE WASTE AND RESOURCE MANAGEMENT IN DENMARK

COLLIN COLLEGE EPA COMPLIANCE TOOLKIT

Title. Date July 13, 2012 Page 1 of 5

State of the Nation Report

NATIONAL TECHNICAL UNIVERSITY OF ATHENS UNIT OF ENVIRONMENTAL SCIENCE & TECHNOLOGY

Emas Report 2008 Nokia plant

Low Income Baseload Programs: Design & Implementation Lighting

Commonwealth of Virginia Locality Recycling Rate Report For Calendar Year 2014

WASTE MANAGEMENT, A KEY ELEMENT FOR ENVIRONMENTAL PROTECTION AND RESOURCES CONSERVATION

Transcription:

Recycling practices and material flow analysis of mercury-containing fluorescent lamps in Korea Yong-Chul Jang Chungnam National University, Daejeon, Korea

CONTENTS 4. Current issues of Spent Fluorescent Lamps management 2. EPR System of Fluorescent Lamps 1. Intro 3. MFA of Fluorescent Lamps 5. Future direction

1. Introduction

Intro. Intro. World General Lighting Market 4billion pcs/ year (Unit: million pcs) 6000 5000 4000 3000 2000 1000 0 2011 2012 2016 2020 Source : McKinsey, 2012 Total Incandescent Halogen HID LFL CFL (Compact Flourescent lamp) LED (Linear Flourescent lamp)

Intro. Fluorescent lamps Quantities of Mercury in Lamps Type of Lamps Avg. Amount CFL (Compact Fluorescent Lamps) 1-25 mg U-Tubes FL 3-12 mg Fluomeric Lamps LFL (Linear Flourescent Lamps) Mercury Reduced LFL 2 mg 10-50 mg 3-12 mg Mercury Vapour Lamps 25-225 mg Metal Halide Lamps 25-225 mg Sodium Vapour Lamps 20-145 mg Source : Guide to Recycling Mercury- Containg Lamps, Northewest Territories Environment and Natural Resource

Intro. Mercury and Minamata Convention Elemental and inorganic Hg : Exposed directly through occupation Organic (e.g., Methylmercury) : Exposed indirectly through diet (Bioaccumulation) Mercury is a chemical of global concern owing to its long-range atmospheric transport, its persistence in the environment, its ability to bioaccumulate in ecosystem and its significant negative effects on human health and the environment Recently, Minamata Convention was agreed to ban on new mercury mines, the phase-out of existing ones, control measure on air emissions in 2013.

MINAMATA CONVENTION ON MERCURY * Controlling the anthropogenic releases of mercury throughout its lifecycle has been a key factor in shaping the obligations under the convention

MINAMATA CONVENTION ON MERCURY

2. EPR System of FL in Korea

EPR : Extended ProducerResponsibility EPR system is an environmental protection strategy to decrease total environmental impact of a product, by making the producer of the product responsible for the entire life-cycle of the product and especially for the take-back, recycling and final disposal. Responsibility

Recycling targets of fluorescent lamp in Korea EPR system Linear shape(lfl) Round shape (FCL) U-tube shape (FPL) Contains inverter (CFL) 1 In Korea, there are 4 recycling targets of FL in EPR system. Each year, recycling target rate of used lamps is set and should be achived.

Flow of product Flow of waste Financial Flow Report System (Report result) (Report recycling responsibility and statistics) MOE (Ministery of Environment) Korea Environment Corperation (Target rate) (Guidance) (Monitoring) Producers (Share of expenses) Korea Light Recycling 1w Cooperative (Fund support) (Entrust) Recyclers Retailers (Collection & Disposal Fee) (Collection & Recycling) (Recylcing) Consumers (Households) Consumers (Industiral) Municipalities (Collectors) (Source: MOE, EPR 시행 10 년성과평가및발전방향연구, 2010)

Mercury lamps waiting for disposal at collection site in Korea (Source: SBS News2014. 10. 30) Improper disposal of mercury lamps causes a concern in community by media in 2014

FL recycling facilities in Korea Facility A Facility B Facility C A Equipment Straight type 1 line other type 3 line HID type1 line Straight& other type 1line Straight& other type 1line B Straighttype: Treatment 5,000 unit/h Straight & other type : Straight&othertype : C Capacity HID type : 2,500 unit/h 5,000 unit/h 5,000 unit/h Current recycling facility Future recycling facility Treatment Technology Modified MRT (Sweden) Modified Herbon (Germany) Modified Herbon (Germany) There are 3 FL recycling facilities operated in Korea 3 more FL recycling facilities are planned to operate in 2015

General SFL recycling process in Korea Linear Lamp Input Other type Lamp Input Cutting base Shredder Drum sorting Drum sorter Base outlet Glass sorting Mixed metal sorting Glass heating Powder heating Glass cooling Powder cooling Mercury distillator Fine metal sorting Powder outlet Mercury recovery Source : Korea Lighting Recycling Corporation

Statistic Data of FL Management in Korea (Unit : 1,000 unit) 200,000 Fluorescent Lamp 150,000 100,000 50,000 0 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 Lamp manufacutred 118,836 138,586 134,148 130,750 120,268 116,233 126,756 148,289 164,438 149,452 SFL Recycled 17,369 26,398 29,546 27,282 30,711 32,655 35,269 37,952 49,196 42,707 Recycling target 17,469 26,192 26,390 29,439 27,802 27,896 33,083 42,262 49,331 49,020 SFL Recycling target has been continuously increasing since 2004 SFL recycling rate is still low compared to the amount in the market.

3. MFA of lamps in Korea

MFA MFA Definition MFA (Material Flow Analysis)is an analytical method of quantifying flows and stocks of materials or substances in a well-definedsystem. It is based on the law of mass conservation. Defining system boundary Selection of target material & Setting system boundary Quantifying flow and stocks Investigation of general material flow in each life-cycle stage Setting data range & collection of data Calculation & Verification of data Result analysis Drawing material flow diagram <MFA Process >

MFA Target of MFA subject of Fluorescent lamps FL Filament lamp Discharging lamp High pressure discharge lamp Low pressure discharge lamp Special FL System boundary : Household sector Time boundary : 1 year (2013) Defining system boundary Resource Extraction Product Manufacture Product Use Waste Disposal Waste Recycling Waste Collection

MFA Data collection & Sourcesfor MFA of FL Data collection : Field & Literature survey Data of disposal stage was not sufficent whereas data of production stage and recycling stage is avalilable to collect Stages difficult to collect data were estimated through field survey, literature investigation, expert adivce When data estimated through mass balance had uncertainty, they were modified and complemented with consideration of material flow interrelationship Life cycle Data Data collection method Statistics Import FL Import Production Use Collection Recycling Disposal Shipment FL Production Domestic market Export LED market Household use Industrial use Stock Municipality collection Collection by entrustment Dumping Inputof RC Output of RC Incineration Landfill Literature survey Field survey & advice

MFA Output data collection Unit : 1,000 unit Total Output Import Production Shipment Stock Domestic Market Export 2013 149,453 107,521 45,958 45,572 4,129 41,932 3,640 *Source : Statistics Korea, Korea Environment Corporation Shipment = Domestic Market + Export Total Output= Domestic Market+ Import

MFA (Household) Disposal data Estimation Disposal (Unbroken) in MSW bags (7%) Product Life Time Source KoreanStandards & Certification Green Purchasing Network Product Life time (Years) 2.47 2.81 OSRAM 5.21 Take-back to store(0.3%) Survey Result In Daejeon city others(2.7%) Average 3.5 Disposal (Broken) in MSW bags (3.2%) Collection box (83.8%)

MFA Example-Lifetime Produce 1000 unit/ year, Product Life time : 4 years (Household) Disposal data Estimation Disposal Disposal in envelope (Not broken) Disposal in envelope (Broken) Collection box Take-backto the store 2013 3,209 1,406 36,832 132 1,187 42,766 Etc. Unit : 1,000 unit 1,000 FL 1,000 FL 1,000 FL 1,000 FL 1,000 FL 2011 2012 2013 2014 2015 Total The number of SFL by disposal shape was estiamted based on citizen survey Stock = The number of disposal replacement period = around 149 million unit

MFA (Household) Recycling Data collection Straight FL Compact FL Contains inverter Average % Ratio Glass 134.60 89.60 54.90 103.43 80.2% Fluorescent material SFL componets by product type Unit : g, % 2.80 0.90 0.05 1.64 1.3% Metal 1.45 1.20 0.60 1.18 0.9% Aluminum 2.25-3.30 1.95 1.5% Glue 9.10 2.90 90 7.25 5.6% Plastic - 9.80 18.90 7.18 5.6% Inverter - - 25.40 6.35 4.9% SFL recycling amount by componets % Ratio Recycling amount Actual result* Glass 80.2% 4,447 4,015 Plastic 5.6% 308 372 Aluminum 2.4% 134 170 Powder 11.8% 655 469 Sum 100.0% 5,545 5,025 * Source : Korea Environment Corporation Unit : g, % Sum 150 104 111 128.96 100.0% * Source : Development of valuable material recovery technology of Waste lighting equipment, 2011

MFA Import 107,521 Unit 1,000 Time 2013 Production 45,958 Shipment 45,572 Domestic demands 41,932 Total Domestic demands 149,453 Generation from home 42,766 Collection box 36,832 Retailers 132 Collection by city 36,964 Recycling 36,964 glass 4,447 ton plastic 308 ton Al 134 ton particulate 665 ton Storage 386 Use in home 140,226 Disposal bag with broken 1,406 Disposal bag 3,209 Others 1,187 Incineration 3,481 landfills 2,321 Export 3,640 Hidden flow Sold to industrial sector 106,687 Collectors 5,743 Solid waste Recycling 5,743 Disopsal

4. Current issues of lamps Management in Korea

Disposal Stage If SFLs are discharged in broken shape, mercury vapor will be exposed to the surrounding environment Mixed waste in SFL collection box caused additional cost and labor force on segregation and collection stage

Current issues of SFL Management in Korea 74% Recycling rate Collection Stage Unit : 1,000 unit Household Industrial Generation Recylcing Household 50,000 36,964 Industrial 100,000 5,793 6% Recycling rate Recycling rate from industrial sectors is relatively low compared to household sectors

Transportation Stage Transportation cost is high because of long distance from municipality to recycling facility Cumulated SFL have been issued in capital region because of high transportation cost and long distance

Recycling Stage Mercury concentration in recovery materials was higher than standard level(0.005mg/l) There is no regulation on mercury concentration in recovery materials of SFL Mercury concentration in workplace atmosphere was higher than OSHA PEL standard in US (lower than 0.1 mg/m 3 every moments) Management of elemental mercury storage and transportation was incomplete Introdunced recycling technology from abroad was modified or some facilities are eliminated for convenience

5. Future Directions and summary

Future Direction Remediation direction of SFL management Short term Mid term Long term Disposal stage Establishment of more effective collection system for SFL of industrial sector Expension of EPR subject lamp containing mercury Addition of LED lamp to the EPR system Collection stage Installation more collection box for residents availablity Establishment of take-back system for retailers Management of SFL of industrial sector to the industrial waste registration system Recycling stage More strict recycling guidlines Establishment of safe recovery and recycling foundation for mercury Development of recyling technology for LED lamp

Future Direction Current states and anticipation of the world LED industry (Trillion won) Replacement New installation 42.9 34.6 27.4 20.3 15.5 9.2 2011 2012 2013 2014 2015 2016 Scale of entire lamp market Scale of LED lamp market Market share of LED (%, triilion won) 75 170 160 52 147 143 123 127 131 134 138 28 21 15 128 9 6 4 83 2 30 41 2 5 8 12 21 09 10 11 12 13 14 15 18 20 (Year) (Source: Meritz Investment Bank Research Center) LED lamp market is anticipated to sharply grow with decreasing LED price and impelmentation of carbon emission trading system Life-time of LED lamp (30,000-50,000 hours) is 3~4 times longer than that of fluorescent lamp(8,000 hours)

Future Direction LED lamp Even though LED lamp doesn t contain Mercury, it has hazardous and valuable materials such as antimony, copper, lead, nickel, and zinc In some crushed specimen, leaching test results showed some concerns of leaching due to several hazardous materials found in LED lamp (Lim et al., 2010) Some EU country have already been implementing LED recycling duty with fluorescent lamp It may be required to add LED lamp to the EPR system and establish appropriate management directives

Thank you for your attention!

Q&A