The Potential and Trend of End-Of-Life Passenger Vehicles Recycling in China

Total Page:16

File Type:pdf, Size:1020Kb

The Potential and Trend of End-Of-Life Passenger Vehicles Recycling in China sustainability Article The Potential and Trend of End-Of-Life Passenger Vehicles Recycling in China Yang Li 1, Kiyoshi Fujikawa 2, Junbo Wang 3, Xin Li 3, Yiyi Ju 4,* and Chenyi Chen 1 1 School of Business Administration, Zhongnan University of Economics and Law, Wuhan 430073, China; [email protected] (Y.L.); [email protected] (C.C.) 2 Applied Social System Institute of Asia, Nagoya University, Nagoya 4648601, Japan; [email protected] 3 College of Management Science, Chengdu University of Technology, Chengdu 610051, China; [email protected] (J.W.); [email protected] (X.L.) 4 Institute for Future Initiatives, The University of Tokyo, Tokyo 1130003, Japan * Correspondence: juyiyi@ifi.u-tokyo.ac.jp Received: 17 January 2020; Accepted: 12 February 2020; Published: 15 February 2020 Abstract: The contradiction between limited resources and rapid development in the automobile industry has been driving society to seek the supply of recyclable resources from End-of-Life Vehicles (ELVs). It has become an urgent need for vehicle recycling policymakers to have an overall understanding of the end-of-life (EoL) vehicle population, as well as for vehicle producers to note what and how they can benefit from ELV recycling. This paper estimated the potential population of EoL passenger vehicles, all recyclable resources from them, as well as the economic values of these recyclable resources. The results show that in 2030, with a lighter-weight trend of passenger vehicles, more than 26.3 million passenger vehicles will be retired with 19.1 million tons of recyclable steel and 6.2 million tons of plastics. The theoretical economic value of all recyclable resources will reach 101.3 billion yuan ($14.4 billion) in 2030, which is an average of approximately 2.4 thousand yuan ($341.8) for each EoL passenger vehicle. It is time for the vehicle producers to shift to a manufacturing mode considering such large potential of ELV recycling. The scenario analysis suggests that in the context of a light-weighting trend, ELV resource recovery in the future calls for improvement in the recycling and reuse technologies of plastics and rubbers. Keywords: End-of-Life passenger vehicles; recyclable resources; urban mining; scenario analysis 1. Introduction The past decades witnessed the increasingly acute contradiction between limited in-ground ore deposits and the demand for resources along with rapid urbanization [1]. Such contradiction has been driving society to search for other supply sources of secondary materials, compounds, or elements from anthropogenic stocks, namely, through urban mining [2]. These anthropogenic stocks include buildings, infrastructure, products, and other forms, among which end-of-life vehicles (ELVs) are one typical example of products containing plenty of resources available to be recycled [3]. Since the market of automobiles in China became the largest in the world in 2009, its scale of both production and sales has remained the top for ten continuous years. According to the China Association of Automobile Manufacturers [4] (2019), in 2018, the production and sales of vehicles in China were 27.81 million and 28.08 million vehicles, respectively, among which the production and sales of passenger cars are 23.53 million and 23.71 million, occupying a large share (over 80%) of the industry, with the rest of commercial vehicles such as buses and trucks (less than 20%). However, the rapid development of passenger vehicle ownership also leads to the concern of a boom in end-of-life Sustainability 2020, 12, 1455; doi:10.3390/su12041455 www.mdpi.com/journal/sustainability Sustainability 2020, 12, 1455 2 of 13 (EoL) passenger vehicles. Li et al. [5] (2019) investigated that the problem of recycling ELVs will become increasingly serious; a large number of scrapped vehicles flow into informal channels and black markets for resale, which results in significant environmental problems and safety hazards. Calling for the solution to the poor capacity and efficiency of recycling ELVs in China, as a premise, requires a basic understanding of the potential scale of them, as well as the potential benefits. Given the unclear potential of the recyclable EoL passenger vehicle population and a relatively high average recycling cost, it has become an urgent need for both vehicle recycling policymakers to have an overall understanding of the EoL passenger vehicle population, and for vehicle producers to note whether/how they can benefit from EoL vehicle recycling. The awareness of both recycling policymakers and vehicle producers may generate more incentives to promote resource recovery within the automobile industry, and further for a more sustainable development pathway of the whole industrial network. Regarding the literature on the estimation of ELV generation, Button et al. [6] (1993) and Kobo et al. [7] (2003) estimated such generation of ELVs by dynamic models of the in-use stocks and the lifetime spans of vehicles. Azmi and Tokai [8] (2017) demonstrated the necessity of estimating the population of ELVs in response to the changes in the vehicle ownership level. Pan and Li [9] (2016) revealed the benefits based on the technology adopted by leading enterprises, which is used in calculating the gross income and reduction of energy consumption and greenhouse gas emissions. Hedayati and Subic [10] (2011) proposed a decision-making support framework for the recovery of ELVs to provide an integrated sustainable treatment option. Frits M. Andersen et al. [11] (2007) described a model for the projection of the number of ELVs and presented a baseline projection, which adopted Weibull distribution functions to estimate the lifetime of vintages of vehicles. Hu et al. [12] (2013) further modeled the projected population of ELVs in China in 2015, 2017, and 2020, with the consideration of provincial diversities in China. Regarding the literature on the local development of passenger vehicles in China, Qiao et al. [13] (2019) focused on the economic and environmental benefits of electric vehicle recycling in China, based on the technology adopted by leading enterprises, the gross income and reduction of energy consumption, and greenhouse gas emissions are calculated to reveal the benefits. Flavius Ioan Rovinaru et al. [14] (2019) investigated the ecological and environmental impacts of ELV dismantling/recycling activities in Romania. Besides, Idiano D’Adamo et al. [15] (2020) presented some policy implications in terms of both the economic importance of the Likert scale and the relevance of synergy between the Circular Economy (CE) and technology. Regarding the literature on recyclable resources from ELVs, Jody et al. [16] (2006) divided the recoveries from ELVs into two categories including: i) rare metal and nonmetal elements with independently high economic values; ii) materials such as metal, plastics, and glasses, that may be blended again with virgin materials in the manufacturing process of vehicles. Xu et al. [17] (2016) targeted 17 rare earth elements from ELVs, which are typical examples of the mentioned first category, as well as designed four scenarios in Japan to explore the potential recovery. Their results show that NiMH batteries and motors containing NdFeB magnets can be identified as target components and 2700 ( 500) tons of rare earth elements can be recovered in 2030. This paper mainly focuses on ± the second category to provide an overall view of more resource forms. However, the estimation of recyclable resources from ELVs considering long-term economic factors has not been thoroughly discussed. Instead of discussing the policies directly influencing the resource recycling from ELVs, such as subsidies on legal ELV recycling, adjusting qualification standard of automobile dismantling, and the like, this paper focused on the trend of passenger vehicle retirement in response to the long-term economic factors (income growth and market demand saturation), which lays the foundation for further analysis of short-term policy changes. Li and Fujikawa [18] conducted an empirical analysis to estimate the potential of recyclable resources from EoL passenger vehicles. The estimated EoL passenger vehicles will reach 21.8 million, leading to the potential of 74.1 million tons of recyclable resources by 2020. This paper is an upgraded work of this previous work, with a focus on passenger vehicles (conventional fuel passenger vehicles and new energy passenger vehicles), the extended Sustainability 2020, 12, 1455 3 of 13 data to 2030, and additional estimation of the economic values of recyclable resources from EoL Sustainability 2020, ?, x FOR PEER REVIEW 3 of 13 passenger vehicles. InIn this this paper, paper, Weibull Weibull distribution distribution functions functions are are adop adoptedted as as the the tool tool to to reveal reveal the the distribution distribution patternpattern ofof lifetimelifetime spans spans for for durable durable goods, goods, namely namely the passenger the passenger vehicles. vehicles. Based on suchBased distribution, on such distribution,together with together the estimation with the of estimation new vehicle of demandsnew vehicle in the demands future, thein the generation future, the of EoLgeneration passenger of EoLvehicles passenger in China vehicles from 2020in China to 2030 from can 2020 be estimated. to 2030 can We furtherbe estimated. quantified We thefurther recyclable quantified resources the recyclablefrom EoL passengerresources from vehicles EoL and passenger their economic vehicles value and intheir
Recommended publications
  • Proposed Framework for End-Of-Life Vehicle Recycling System Implementation in Malaysia
    5.6 Proposed framework for End-Of-Life vehicle recycling system implementation in Malaysia Muhammad Azmi 1, Muhamad Zameri Mat Saman 1, Safian Sharif 1, Norhayati Zakuan 2, Salwa Mahmood 1 1Faculty of Mechanical Engineering, Universiti Teknologi Malaysia, 81310 Johor Bahru, Malaysia 2Faculty of Management and Human Resource Development, Universiti Teknologi Malaysia, 81310 Johor Bahru, Malaysia Abstract Normally in Malaysia, vehicles are being used extensively regardless of its age or condition. This situation is not only in rural areas but exists in major cities. Vehicle manufacturers expected their vehicles to last in 15 years, hence vehicles exceeding this limit are considered as End-of-Life Vehicle (ELV). The extensive usage of ELV may lead to vehicle failure which threatens the safety of its user as well as other road users. ELV usage also contributes to environmental pollution. In order to overcome this, a framework for ELV management needs to be developed. Prior to that, a survey was done to study the current practice being applied in Malaysia. This paper also study the existing framework applied by other countries as adaptation for Malaysian ELV recycling implementation framework. This framework is expected to assist the government in drafting new ELV related policies. Keywords: ELV; Framework; Vehicle Recycling; Vehicle Recovery 1 INTRODUCTION Canada and Taiwan had reported success in controlling the Total number of vehicle in Malaysia had reached a number of ELV off the road. cumulative amount of 21.25 million vehicles at the end of Due to the success of countries implementing ELV law, a year 2010 with an average of 12% increase of vehicle SWOT analysis on the respective framework had also been registration each year over the period of 5 years.
    [Show full text]
  • Vehicle Recycling. Focusing on Sustainability
    Vehicle Recycling. Focusing on Sustainability. Sustainability is a key word at every point in the BMW Groups process chain, from the development of energy-saving alternative vehicle concepts and environmentally sound production processes to environmentally friendly recycling. The BMW Group acknowledges that used cars are a particularly important source of secondary raw materials and by closing the gaps in the material cycle through recycling, we aim to make a meaningful contribution to the conservation of natural resources. Longstanding Involvement in Environmental Protection. Sustainable Business. The BMW Group has been actively involved in efficient recycling concepts for many years. The aim of our recycling process is to reclaim resources and materials con- tained in vehicles quickly and comprehensively in order to fill the gaps in material cycles and thus to use resources as sparingly and efficiently as possible. Protecting the environment and natural resources. At the beginning of the 1970’s, the BMW Group anchored environmental protection policy within its organization. Sustainable business is a main principle in both the Group’s corporate strategy and culture. Product responsibility also entails the environmentally compatible recovery of vehicles that have reached the end of their viability. The activities of the BMW Group to continuously opti- mize recycling are centred in BMW Groups own Recycling and Dismantling Centre (RDC). This is currently the world’s leading facility of its kind and is an authorised treatment facility. In addition, the RDC also provides important information for dismantling and drainage techniques, as well as creating recycling concepts for future vehicles. Whilst in the past the recycling focus lay on the environmentally responsible recovery of end-of-life vehicles, in recent years the increased scarcity of natural resources has lead to a change in focus.
    [Show full text]
  • Improving End of Life Vehicle's Management Practices: An
    Improving end of life vehicle’s management practices: An eco- nomic assessment through system dynamics Paolo Rosa§ and Sergio Terzi Department of Management, Economics and Industrial Engineering, Politecnico di Milano, Piazza Leonardo da Vinci 32, 20133 Milano, Italy § Corresponding author [email protected]; [email protected] Abstract End-of-Life Vehicles (ELVs), together with Waste from Electrical and Electronic Equipments (WEEE), are one of the most valuable sources of secondary raw materials. Their reuse for producing new goods is a well-known topic in the literature. However, End-of-Life (EoL) strategies implemented by companies remained the same since the last century, completely based on materials market prices. Progressively, this way of doing exposed the entire ELV recovery chain to a series of unwanted market risks. The purpose of this paper is proposing an alternative way to cope with the material’s mix evolution in cars through the recovery of automotive electronic components. By applying an already existing model based on the System Dynamics (SD) methodology to the Italian context, a real time comparison of several configurations (scenarios) of the national ELV recovery chain has been implemented. Results quantified the expected impact on profits of both dismantlers and shredders in about 9 and 7.6 billion euros within fifty years. This way, dismantlers should lead the new recovery process, considering the highest increase in profits. However, the level of risk related with this option has been hypothesised as higher than a scenario with shredders leading the business. Keywords: End of Life Vehicles; System Dynamics; Economic Assessment; Italian context.
    [Show full text]
  • Improving the Competitiveness of Green Ship Recycling
    Improving the Competitiveness of Green Ship Recycling Kanu Priya Jain Propositions accompanying the thesis Improving the Competitiveness of Green Ship Recycling from Kanu Priya Jain Sep 8, 2017 Delft University of Technology 1. The availability of a downstream market for second-hand goods is essential for a ship recycling yard to become competitive. (This thesis) 2. The lack of co-ordination between the stakeholders of the ship recycling industry is detrimental to cost-effective green ship recycling. (This thesis) 3. A ship cannot be called ‘futuristic’ until it is designed in such a way that it can also be recycled easily. 4. The more efficient and reliable the transportation system is, the more traumatic a deficiency will be for commuters. 5. The global climate will be better-off without UN climate change conferences. 6. Cooking is like a Chemistry experiment, quantity of each ingredient has a major influence on the end result. 7. Social media is a catalyst for exhibitionism, narcissism and depressions. 8. Assumptions are the most effective tool for a successful research. 9. The greatest hurdle to finish a thesis on time is procrastination. 10. Other than the traditional news media, daily commuting is the best way to be aware of local events. These propositions are regarded as opposable and defendable, and have been approved as such by the promotor prof. ir. J.J. Hopman and copromotor dr. ir. J.F.J. Pruyn. IMPROVING THE COMPETITIVENESS OF GREEN SHIP RECYCLING Kanu Priya Jain IMPROVING THE COMPETITIVENESS OF GREEN SHIP RECYCLING Proefschrift ter verkrijging van de graad van doctor aan de Technische Universiteit Delft, op gezag van de Rector Magnificus prof.
    [Show full text]
  • Vehicle Recycling Manual
    Vehicle Recycling Manual A Guide for Vehicle Recyclers You Auto Recycle The Key to a Better Environment Department of Ecology Hazardous Waste and Toxics Reduction Program October, 1997 Publication No. 97-433 printed on recycled paper The Department of Ecologys mission is simple: To protect, preserve and enhance Washingtons environment. These are responsibilities of great magnitude and we need your help. Consider how your daily actions affect the environment and take an active interest in pollution prevention. This booklet, put together cooperatively with the Department of Ecology and the Automotive Recyclers of Washington, briefly identifies areas of interest to your industry and provides some helpful information on how to reduce and manage waste at the source. This booklet is not intended to be a substitute for the states Dangerous Waste Regulations. For up to date information regarding specific or regulatory questions, your nearest Ecology regional office has specialists in the following programs: hazardous waste, solid waste, water quality and air quality. We are here to help! ✔ On-Site Technical Assistance ✔ Information and Referral Hotline ✔ Resource Center ✔ Workshops and Seminars ✔ Materials Exchange Information Contact the Department of Ecology at the phone number shown on the map below. (425) 649-7000 (509) 575-2490 (509) 456-2926 (360) 407-6300 AUTOMOTIVE RECYCLERS of WASHINGTON 1233 S Director St Seattle, Washington 98108 206-767-3149 / Fax 206-767-3291 Introduction Approximately 275 million tons of Waste reduction and pollution preven- hazardous waste are generated each year in tion practices can benefit the vehicle recycling the United States. That is enough to fill the industry in many ways, including: Louisiana Super Dome 7 times each year.
    [Show full text]
  • A Case Against E-Waste
    A Case against E-Waste: Where One Country’s Trash is (Not) Another Country’s Treasure: Developing National E-Waste Legislation to Regulate E-Waste Exportation By Dominique C. French B.A., May 2007, University of South Florida J.D., May 2010, University of Baltimore School of Law A Thesis Submitted to The Faculty of The George Washington University Law School in partial satisfaction of the requirements of for the degree of Masters of Laws January 31, 2012 Thesis directed by Dean Lee Paddock Associate Dean for Environmental Studies Acknowledgements The author wishes to thank her parents for their support and love throughout the law school process. She never would have made it through without them. ii Abstract A Case Against E-Waste: Where One Country's Trash is Not Another Country's Treasure: Developing National E-Waste Legislation to Regulate E-Waste Exportation Over the past decade, the proliferation of electronic devices in the waste stream has caused an increase in exportation of used electronics to third world countries. As a result of this exportation, several health and environmental issues have manifested. A large percentage of these wastes are shipped to third world countries where the devices are improperly disposed of either through burning or open disposal. The result of such improper disposal is the release of toxic constituents in to the environment. This paper delves in to detail about the toxicity of electronic components, and examines the health and environmental effects of improper disposal of e-waste in third world countries. After discussing the negative implications that improper disposal of e-waste, the paper will examine the current state and local laws that the United States has regarding e-waste disposal, and will discuss the inherent inadequacies.
    [Show full text]
  • The Economic and Ecological Impacts of Dismantling End-Of-Life Vehicles in Romania
    sustainability Article The Economic and Ecological Impacts of Dismantling End-of-Life Vehicles in Romania Flavius Ioan Rovinaru, Mihaela Daciana Rovinaru * and Adina Viorica Rus Faculty of Economics and Business Administration, Babes-Bolyai Univesity, 400591 Cluj-Napoca, Romania; fl[email protected] (F.I.R.); [email protected] (A.V.R.) * Correspondence: [email protected] Received: 25 September 2019; Accepted: 6 November 2019; Published: 15 November 2019 Abstract: In a global market characterized by the trend of saving non-renewable resources, recycling has become one of the key factors that alleviates the rarity of resources and preserves existing ones. One of the largest industries that consumes natural resources is the automotive industry. This includes not only resource consumption but also the environmental effects of each new unit produced in this industry. As a result, recycling end-of-life vehicles has become an increasingly obvious and widespread concern. This paper proposes a preliminary analysis of the dismantling/recycling activities in Romania compared to other economies (e.g., USA). It aims to determine the impact that dismantling end-of-life vehicles has, according to the legislation in the field, on the economy and the environment. In order to obtain a complete picture, it is obvious that further research is needed. Keywords: Auto recycling policy; end-of-life vehicles (ELVs), automobile shredder residue (ASR), dismantling; recycling economy; environment 1. Introduction In a world preoccupied by environmental issues and recycling, the auto industry and the vehicles involved in everyday traffic generate a sum of debates, controversies, and, usually in the end, a lot of actions.
    [Show full text]
  • End-Of-Life Management of Waste Automotive Materials and Efforts to Improve Sustainability in North America
    Sustainable Development and Planning IV, Vol. 2 853 End-of-life management of waste automotive materials and efforts to improve sustainability in North America R. Paul Automotive Recycling Consultant, Society of Automotive Engineers International, USA Abstract This paper will discuss the results of evaluating the North American automotive recycling infrastructure and vehicles processed, materials recycled, parts reused and management of waste materials including alternative treatments for automotive shredder residue. Data and other available information regarding these activities and material volumes will be presented to demonstrate the success of vehicle recycling. Vehicle recycling, component reuse and metal recovery is important to governments, vehicle manufacturers, suppliers, material recyclers, dismantlers and shredders. The highly efficient car recycling infrastructure serves to divert materials from landfill and recycle metals from a high volume consumer product and serves as an alternative source of low cost components for repair of vehicles that might otherwise be taken out of service. Although N. America has no single comprehensive, automotive specific law similar to Europe or Japan, there are myriad federal, state and local regulations that require vehicle pretreatment, fluid collection, separation of selected materials of concern and landfill restrictions. Keywords: automotive recycling, vehicle recyclability, component reuse, material recycling, vehicle pre-treatment, shredder residue and sustainable development. 1 Introduction Motor vehicles provide a huge benefit to society and many cultural and personal transportation advantages in developed and developing regions around the world. WIT Transactions on Ecology and the Environment, Vol 120, © 2009 WIT Press www.witpress.com, ISSN 1743-3541 (on-line) doi:10.2495/SDP090802 854 Sustainable Development and Planning IV, Vol.
    [Show full text]
  • Reverse Logistics and Large-Scale Material Recovery from Electronics Waste Jonathan Seth Krones
    Reverse Logistics and Large-Scale Material Recovery from Electronics Waste by Jonathan Seth Krones Submitted to the Department of Materials Science and Engineering in partial fulfillment of the requirements for the degree of Bachelor of Science in Materials Science and Engineering at the MASSACHUSETTS INSTITUTE OF TECHNOLOGY September 2007 °c Jonathan Seth Krones, MMVII. All rights reserved. The author hereby grants to MIT permission to reproduce and distribute publicly paper and electronic copies of this thesis document in whole or in part. Author.............................................................. Department of Materials Science and Engineering August 20, 2007 Certified by. Randolph E. Kirchain, Jr. Assistant Professor of Materials Science and Engineering and Engineering Systems Division Thesis Supervisor Accepted by . Caroline A. Ross Professor of Materials Science and Engineering Chair, Departmental Undergraduate Committee 2 Reverse Logistics and Large-Scale Material Recovery from Electronics Waste by Jonathan Seth Krones Submitted to the Department of Materials Science and Engineering on August 20, 2007, in partial fulfillment of the requirements for the degree of Bachelor of Science in Materials Science and Engineering Abstract Waste consolidation is a crucial step in the development of cost-effective, nation-wide material reclamation networks. This thesis project investigates typical and confor- mational tendencies of a hypothetical end-of-life electronics recycling system based in the United States. Optimal waste processor configurations, along with cost drivers and sensitivities are identified using a simple reverse logistics linear programming model. The experimental procedure entails varying the model scenario based on: type of material being recycled, the properties of current recycling and consolidation practices, and an extrapolation of current trends into the future.
    [Show full text]
  • End of Life Vehicle Solutions
    end of life vehicle solutions P.O. BOX 3282 Farmington Hills, MI. 48333-3292 March 12,2018 Susan Speake Trust Fund Manager Assessment & Remediation; Office of Land Resources Arkansas Department of Environmental Quality 5301 Northshore Drive North Little Rock, AR 72118-5317 Subject: End of Life Vehicle Solutions Corporation Annual Manufacturers' Implementation Report Dear Ms . Speake, Arkansas's Code Title 8, Chapter 9, Subchapter 8-9-607 (Mercury Switch Removal Act of 2005) requires vehicle manufacturers to annually report on the implementation of a mercury minimization plan including: • the number of mercury-added switches collected • a description of the mercury switch capture rate achieved • the number of end-of-life vehicles containing mercury switches • the number of end-of-life vehicles processed for recycling • a description of how mercury switches were managed • a description of additional actions that may be implemented to improve the mercury minimization plans in the event that the required capture rate is not achieved • a description of the amounts paid to cover the costs of implementing the mercury minimization plan • steps being taken by manufacturers to design vehicles and components for recycling This report is provided by End of Life Vehicle Solutions Corporation on behalf of its member automotive companies. The participating members of ELVS are: FCA US LLC (formerly Chrysler Group LLC) ; Ford Motor Company; Mack Trucks Inc; Mercedes-Benz USA, LLC; Mitsubishi Motors North America, Inc; Navistar, Inc. ; Nissan North America, Inc; PACCAR, Inc; Porsche Cars North America Inc.; Subaru of America, Inc; Toyota Motor Sales USA, Inc.; Volkswagen Group of America, Inc; Volvo Car USA, LLC; and Volvo Trucks North America.
    [Show full text]
  • Quantitative Assessment of Material Composition of End-Of-Life Ships Using Onboard Documentation Abstract
    This is the author’s post-print version. Article published by Elsevier in journal ‘Resources, Conservation and Recycling’ is available at http://www.sciencedirect.com/science/article/pii/S0921344915301452 Quantitative assessment of material composition of end-of-life ships using onboard documentation K.P. Jain*, J.F.J. Pruyn^, J.J. Hopman# Department of Maritime and Transport Technology, Faculty of 3mE, Delft University of Technology, Mekelweg 2, 2628CD, Delft, The Netherlands * [email protected], ^ [email protected], # [email protected] doi:10.1016/j.resconrec.2015.11.017 URL (open till 11.02.2016): http://authors.elsevier.com/a/1SFiU3HVLKP6HC Abstract: Ship recycling yards around the world offer a price to the ship owners for buying an obsolete vessel to demolish and recycle based on the ship’s end-of-life weight. The offer price is mainly based on the type of ship and the estimated quantity of steel available. The steel weight estimation, in terms of percentage of lightweight (LDT), is carried out either on the basis of recycling yards’ experience or by an expert opinion without using any scientifically rigorous method. The accurate quantification of all the material streams of an end-of-life ship is needed for planning the ship recycling process with better resource allocation and waste management strategies, especially in light of the Hong Kong convention and the new EU regulation on ship recycling. It might also assist in better estimation of cost and income of recycling the ship. A literature survey of the subject found that a clear knowledge gap exists in this area of study, only aggregate data of materials of ships is available, no ship by ship data exist.
    [Show full text]
  • White Paper on IPLA
    Advanced text issued without formal editing WHITE PAPER ON THE INTERNATIONAL PARTNERSHIP FOR EXPANDING WASTE MANAGEMENT SERVICES OF LOCAL AUTHORITIES (IPLA) IPLA is coordinated through the joint efforts of: Advanced text issued without formal editing IPLA’s logo was designed with the contribution of: Environmental Management Centre C-29, Royal Industrial Estate 2nd Floor, Naigoan X Road, Wadala Mumbai – 400031, India ACKNOWLEDGEMENT This white paper was prepared with inputs from Dr. Prasad Modak, Executive President, Environmental Management Centre, India, for the CSD Intersessional Conference on Building Partnerships for Moving towards Zero Waste held in Tokyo, Japan, from 16 to 18 February 2011. The paper has also taken into account comments and feedbacks received in the Conference.The views expressed herein are those of the author only and do not necessarily reflect the views of the United Nations. Advanced text issued without formal editing Contents Executive Summary………………………………………………………………………………………i 1. Preamble..................................................................................................................................... 1 1.1 Waste Management Challenges Faced by LAs ................................................................... 1 1.2 Addressing the Needs of LAs ............................................................................................... 4 2. Mission, Scope and Focus ......................................................................................................... 6 3. Structure
    [Show full text]