Reman Co-Design: A Combined Design and Remanufacturing Optimization Framework for the Sustainable Design of High-Value Components

Author:

Behtash Mohammad1,Liu Xinyang2,Davied Matthew3,Thompson Todd4,Burjes Roger5,Lee Michael3,Wang Pingfeng2,Hu Chao1

Affiliation:

1. University of Connecticut Department of Mechanical Engineering, , Storrs, CT 06269

2. University of Illinois at Urbana-Champaign Department of Industrial & Enterprise Systems Engineering, , Champaign, IL 61801

3. John Deere Reman–Springfield; Deere & Company , Springfield, MO 65803

4. John Deere Power Systems; Deere & Company , Waterloo, IA 50701

5. John Deere Drivetrain–Waterloo; Deere & Company , Waterloo, IA 50701

Abstract

Abstract Remanufacturing is a process that returns end-of-life equipment to as-new conditions and offers numerous environmental and economic benefits. To fully capitalize on remanufacturing, its synergistic interactions with design must be fully realized and addressed during the design stage. Although this fact is widely recognized in the literature, most of the current studies focus primarily either on the design or remanufacturing aspects of design for remanufacturing (DfRem). In an effort to offer a more integrated DfRem approach than those reported in the literature, we propose a new combined design and remanufacturing optimization (reman co-design) framework that takes a holistic approach by leveraging the intricate interplay between design and remanufacturing. The aim of this formulation is to identify the optimal decisions that maximize the benefits of remanufacturing throughout the entire lifespan of a product. To showcase the utility of the new formulation, we are using a case study of a hydraulic manifold, (re)manufactured by John Deere. Using this industry example, we compare the results of reman co-design to the ones from a decoupled remanufacturing design approach. Results reveal that remanufacturing benefits are better realized and improved upon when using the developed reman co-design approach.

Funder

Office of Energy Efficiency and Renewable Energy

Publisher

ASME International

Subject

Computer Graphics and Computer-Aided Design,Computer Science Applications,Mechanical Engineering,Mechanics of Materials

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