Title :
Optimizing electronics end-of-life disposal costs
Author :
Reimer, Bryan ; Sodhi, Manbir S. ; Knight, Winston A.
Author_Institution :
Ind. & Manuf. Eng., Rhode Island Univ., Kingston, RI, USA
Abstract :
Increasing environmental concerns about the disposal of mass produced products have resulted in efforts to take back end-of-life consumer products. Legislation aimed at forcing manufacturers to take back electronics products at the end of their useful lives along with shrinking landfill capacity and the reluctance of communities to open new waste sinks, underscores the importance of developing methods and models for the management of end-of-life materials and products. These models are aimed at optimizing end-of-life disposal costs for electronic products. Analysis for minimizing the cost of the collection of end-of-life products, disassembly to remove target components, material separation sequences for bulk recycling and the smelting of material mixtures for precious metal recovery have been developed. This paper reports on an integrated electronics recycling model and a proposed solution technique using genetic algorithms. The models described can be used by recycling and material recovery processors for optimizing recycling operations and thus contribute towards the economic sustainability of electronics recycling. In addition the procedures described can be used during product design to evaluate the material content of products for improved end-of-life material recovery. These procedures also highlight logistical problems that must be addressed in the development of efficient infrastructures for material recovery in the future
Keywords :
economics; genetic algorithms; management; recycling; cost minimisation; disassembly; economic sustainability; electronics end-of-life disposal costs optimisation; electronics products take back; end-of-life materials management; end-of-life products collection; end-of-life products management; environmental concerns; genetic algorithms; integrated electronics recycling model; mass produced products disposal; material content; material mixtures smelting; material separation sequences; precious metal recovery; product design; recycling; Consumer products; Cost function; Genetic algorithms; Inorganic materials; Legislation; Recycling; Smelting; Virtual manufacturing; Waste management; Waste materials;
Conference_Titel :
Electronics and the Environment, 2000. ISEE 2000. Proceedings of the 2000 IEEE International Symposium on
Conference_Location :
San Francisco, CA
Print_ISBN :
0-7803-5962-3
DOI :
10.1109/ISEE.2000.857672