IMS 2020 Intelligent Manufacturing Systems Intelligent Manufacturing Systems Sustainable manufacturing Dimitris Kiritsis.

Slides:



Advertisements
Similar presentations
2009 Transition Dynamics Enterprises, Inc. Used with permission. What You Need to Know about the Green Economy Add your name here.
Advertisements

An ecosystem for freight information services: the iCargo project
Sustainable Approaches: Industrial Ecology and Pollution Prevention Chapter 21 © 2004 Thomson Learning/South-Western.
L5: GP TECHNIQUES / 1 Asian Productivity Organization, Tokyo Organization of the GP Techniques.
IBM Energy & Environment © 2008 IBM Corporation Energy Efficiency in the Data Centre … and beyond Peter Richardson UK Green Marketing Leader.
SUSTAINABLE DEVELOPMENT AS GOOD BUSINESS Engineers’ International Roundtable Washington, DC John Carberry DuPont Wilmington, DE September 13, 2002.
Green Supply Chain Management. Introduction u Background u Product Life Cycle u Supply Chain Management u Industry Practices u The Future u Conclusions.
Leading Corporate Citizens McGraw-Hill/Irwin © 2002 The McGraw-Hill Companies, Inc., All Rights Reserved. In the Global Village Chapter 9 Ecological Thinking.
MODULE 3 THE ENVIRONMENTAL PRINCIPLES Session 2: Principle 8
Georgia Institute of Technology Systems Realization Laboratory Reducing Environmental Impact.
Environment and Business Course Overview Instructor: Jerry Patchell; Office Hours: Tuesday 12:00-14:00 Room 2352A TA: Kaxton Siu;
Shepard Bros., Inc. Committed to the Environment.
Chemical Engineering: new paradigms and environmental syllabus F.Gutiérrez, M.A.Sanchiz, M.T.Hernández, E.Atanes DPT. QUIMICA INDUSTRIAL Y POLIMEROS, TECHNICAL.
INTRODUCTION Course on Cleaner Production Middle East Technical University Department of Environmental Engineering Ankara 31 March 2008.
Sustainability. Sustainability Defined Sustainability commonly refers to the characteristic of a process or state which can be maintained at a certain.
Sustainability Internal Drivers and Self-Assessment Dennis J. Stamm VP, Director Lean Enterprise Consulting February 22, 2010.
Life Cycle Analysis and Resource Management Dr. Forbes McDougall Procter & Gamble UK.
Enterprise Systems Organizations are finding benefits from using information systems to coordinate activities and decisions spanning multiple functional.
GREENING SUPPLY CHAIN IN RETAIL SECTOR
Institute for Sustainable Manufacturing Sustainable manufacturing A (very) brief overview + evaluation matrix 1.
May 14, 2014; BOLOGNA The role of the Green Economy in promoting a new model of Development and Green Business Danilo Čeh, Project ZERO WASTE PRO ORGANISATION:
Smart Integrated Infrastructure The Progression of Smart Grid Presentation to National League of Cities Martin G. Travers – President, Telecommunications.
Design for the Environment Free Quality Assignment Andre Loumeau 11/19/2012.
Institute for Resource Efficient and Sustainable Systems Graz University of Technology From Cleaner Production to Zero Emissions May 12, 2005 From Cleaner.
Remanufacturing: Links to Sustainability Matt Bogoshian Senior Policy Counsel Office of Chemical Safety and Pollution Prevention U.S. Environmental Protection.
© 2009 IBM Corporation Let’s Build a Smarter Planet Thongchai Watanasoponwong – Country Manager Power Systems, STG September 15 th, 2009 Green IT เทคโนโลยีสีเขียวเพื่อสิ่งแวดล้อม.
TECHNICAL UNIVERSITY OF DENMARK G. Singh Bhander LCM2003 Conference Seattle, USA 22 – 25 September 1 DEPARTMENT OF MANUFACTURING ENGINEERING AND MANAGEMENT.
Greening beyond the firm: improving environmental performance through the supply relationship Dayna Simpson PhD Candidate University of Melbourne Supervisors:
Click to edit Master title style Click to edit Master text styles Second level Third level Fourth level Fifth level REA Workshop Module Four: Green Review.
Collaborative Environmental Procurement Strategies May 24, 2006 Pamela Brody-Heine Eco Stewardship Strategies Zero Waste Alliance.
LIFE CYCLE THINKING »DO NOT DESIGN PRODUCTS! INSTEAD, DESIGN PRODUCT CYCLES THAT ARE COMPATIBLE WITH SUSTAINABLE DEVELOPMENT.« (PRé Consultants) S10-A1:
What is productivity? As an integrated concept Output x Satisfaction
Mel Cossette Executive Director & Principal Investigator National Resource Center for Materials Technology Education 1 This center is sponsored by the.
M A N U F A C T U R I N G E X T E N S I O N P A R T N E R S H I P March 25, 2009 – Advanced Manufacturing Summit NIST MEP MEP Growth Framework: Sustainability.
STARTING POINTS FOR ENVIRONMENTAL POLICY HARI SRINIVAS ROOM: I-312 / International Environmental Policy.
TRP Chapter Chapter 4.1 Cleaner Production.
PNOs-Suppliers Technical Interfaces Heidelberg, 3 March 1998 DR 1 INTEGRATING ENVIRONMENTAL AWARENESS IN THE PROCUREMENT PROCESS DANILO RIVA.
Slack, Chambers and Johnston, Operations Management 5 th Edition © Nigel Slack, Stuart Chambers, and Robert Johnston 2007 The operations challenge Chapter.
ERT 319 Industrial Waste Treatment Semester /2013 Huzairy Hassan School of Bioprocess Engineering UniMAP.
6th Framework Programme Implementation of Priority New production Processes & Devices Dir G - DG Research Warszawa, 20go stycznia 2003.
Furniture Industry: Creating Value and Impact Through Sustainable Supply Chain Management – Steelcase Inc. Supply Chain Sustainability Michigan State University.
CITY LOGISTICS STRATEGIES AND POLICIES
Introduction to Sustainable Engineering. Be Prepared for Energy Engineering Technology Discussion Discuss what you (learner) know about sustainability.
Green Materials for building construction  Materials or products that Minimize resource use  Materials or products with Low environmental impact  Materials.
Georgia Institute of Technology Systems Realization Laboratory Dr. Bert Bras ME Environmentally Conscious Design & Manufacturing.
120 April 2016SPIRE Projects´ Conference 2016 Turning waste from steel industry into valuable low cost feedstock for energy intensive industry SPIRE Projects´
GREEN CHEMICAL FUTURES A major new international hub to support and drive transformation in Australia’s chemical industries.
Sustainability in the Supply Chain 5 © 2014 Pearson Education, Inc. SUPPLEMENT.
1 Chinese Taipei’s DfE Practices Ray Y. B. Reu Center for Environmental, Safety and Health Technology, ITRI.
Environment : Physical environment surrounding us: Air Water: Fresh water, rivers, oceans, etc. Soil: Lands, forests. Broader definition includes urban.
What is a Paradigm? A paradigm is a collection of beliefs and concepts held by a group of people, a set of theories, assumptions, and ideas that contribute.
Sustainability Internal Drivers and Self-Assessment Dennis J. Stamm
The operations challenge
AD13LM Land Management Lecture 4: Sustainable Planning
GUIDE TO GREEN SUSTAINABLE PROCUREMENT
Green Supply Chain Management
DEVELOPING A FRAMEWORK FOR BUSINESS ACTION ON WASH
Forging Links with Malaysian Manufacturers
An Integrated Industrial Policy for the Globalisation Era
Multidisciplinary nature of environmental studies Lecture #1
Challenges in a Changing World
Green ICT Actions in China
Sustainability Internal Drivers and Self-Assessment Dennis J. Stamm
Cleaner production Assessment in Dairy Processing
ENVIRONMENT BUSINESS MANAGEMENT PREPARED BY SAY PUNNAREAY, MBA
OECD Green growth strategy Measuring progress through indicators
EICC/GeSI focus: Corporate Responsibility
Challenges in a Changing World
METHODS FOR ANALYZING AND SUPPORTING A SUSTAINABLE PRODUCTION SYSTEM
4th ITU Green Standards Week
Presentation transcript:

IMS 2020 Intelligent Manufacturing Systems Intelligent Manufacturing Systems Sustainable manufacturing Dimitris Kiritsis

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision What is “Manufacturing” ? “Manufacturing covers the ‘Man-Industry Value Chain’, responding to human needs by the provision of products, processes and services. In broad terms, manufacturing is ‘the general trans-formation of all resources to meet human needs’ and this is why a smooth relationship must exist between supply and demand.” [Source: MANUFUTURE] 2

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision What is “Sustainability” ? Sustainable development – “the development that meets the needs of the present without compromising the ability of future generations to meet their own needs” [Brundtland Commission, 1987] Sustainability is a quality that permits to preserve, to keep, to maintain.... – traditionally defined with three dimensions: environmental, social, and economical, while a forth one, technology, should be added as fundamental 3

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision 4

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision … in the context of sustainable engineering means: – to apply scientific knowledge to the design and implementation of materials, structures, product, systems, processes, etc. that take into account constrains coming from the 4 pillars of sustainability – to develop solutions for the design, operational and organizational activities related to products, processes and services in the manufacturing sector 5

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision 6

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Sustainable Manufacturing is defined in the last draft of the IMS MTP initiative as follows: “Sustainable manufacturing is a platform for development of innovative manufacturing technologies which address world wide resources shortages and excess environmental load to enable an environmentally benign life cycle.” 7

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Performance, Quality and Safety Natural resources and Environment Lifecycle aspects 8

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Manufacturing must be sustainable in terms of: – Performance (resource efficiency, energy efficiency, pollution reduction, …) of Products and Processes – Quality of products (including services) and processes – Safety of people (workers and other people affected in one or another way by manufacturing processes or facilities and their products), facilities and infrastructure Maintenance of manufacturing facilities is important to sustain: – (i) the performance of product and processes – (ii) the quality of processes – (iii) safety during product use and process operation 9

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Manufacturing should: Address world wide resources shortages and excess environmental load to enable an environmentally compatible life-cycle. Achieve minimum energy and material consumption in manufacturing as well as over the entire life-cycle of products and services. 10

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Sustainability of manufacturing is more and more affected by life-cycle considerations: - from design, - procurement & production, - transportation & setting up operation, - use, maintenance and - retirement & end of life of products. Additionally, this happens at global level and so requires the consideration of related technical, operational, societal and cultural issues (mindset). 11

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Design of eco products Sustainability as a requirement for new product development New materials and manufacturing techniques Resource & Energy efficient manufacturing Clean Technologies Information systems for product lifecycle management Closing the product information loops Involve the "consumer/user" in the lifecycle value chain Safety and risk management Education at all levels & changing mindsets 12

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Best practices for sustainable manufacturing: – Design of sustainable products – Design of sustainable processes – Design of sustainable services Interdisciplinary approach for the social dimension & mindset changing Global sustainable manufacturing roadmap Suggestions for research programs 13

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Intelligent products – based on embedded devices, allowing innovative operation, use and service models for improving product sustainability by extending their life and by reducing the use of resources and the impact on the environment New materials – for the design of lighter products, allowing easiness of disassembly/recovery/recycling, with lower impact on the environment 15

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Recycling technologies – Including Remanufacturing Real-World Manufacturing - Minimal Manufacturing Integrate Environmental Factors in Supply Chain optimisations – Consider SME needs – Avoid sub-optimisations 16

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Zero defect & zero pollution – Consider non-manufacturing elements Intelligent processes – Self adapting clean and safe micro-processes Combine Disciplines – Mechanical – Electronics – Chemical – Biology ECO-FACTORY 17

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Sustainable LCA Corporate social responsability Eco-social aspects – socio-laboral – health – discrimination – child labor High-tech Engineering Asset Management – Maintenance - Critical function for safety – No-disposal 18

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision – Design for Environment (a.k.a. Eco-Design) Product development process that takes into accout the complete lifecycle of a product and considers environmental aspects at all stages of the manufacturing process Design for X – design for recycling; – design for disassembly; – design for energy efficiency; – design for remanufacture; – design for disposability – Green Chemistry – Green Procurement – Environmentally Conscious Manufacturing – Waste Minimization – Zero Waste 19

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Life Cycle Assessment Pollution Prevention (P2) Cleaner Production Total Cost Assessment Zero-Emissions Processes Energy Efficiency By-product Synergy Total Quality Environmental Management Factor 4, Factor 10, Factor X – X-fold increase in resource productivity 4Rs: Reduction, Reuse, Recycling and Recovery 20

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Closed Loop Lifecycle Management (CL2M) as an overall approach to product sustainability Going beyond manufacturing sustainability Include users and consumers Enabling tool for sustainable production & consumption 21

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision Sustainable production & consumption – what the customer wants and what the customer needs – considering safety, health & risk aspects – change mindsets Sustainable global business models 22

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision At all levels of the society Changing mindsets 23

IMS 2020 Intelligent Manufacturing Systems Supporting Global Research for IMS2020 Vision 24 Thank you!