Ricoh aims to reduce its environmental impact through technical innovation and encouraging employee participation in environmental activities. It has set goals to reduce environmental impact by 25% by 2013, 30% by 2030, and 87.5% by 2050 from a 2010 baseline. Ricoh is developing a circular economy approach through remanufacturing used products and parts to extend their lifecycles and reduce waste. This includes remanufacturing copiers, printers, toner cartridges, and other components, saving costs compared to new production and lowering environmental impact. Ricoh's long term strategy is transitioning to resource conservation and keeping environmental impact within Earth's limits.
The document discusses how Ricoh has used industrial symbiosis to manage supply chain risk and promote sustainability. It summarizes that Ricoh has implemented industrial symbiosis through waste exchange programs, remanufacturing, and facilitating partnerships between companies. This has helped Ricoh reduce costs, improve resource efficiency, extend product lifecycles, and decouple business growth from environmental impacts, supporting its long-term sustainability strategy.
Ricoh: Manufacturing in the Circular Economy - Base Cities Birmingham - April...Andy Whyle
Presentation made at Base Cities Birimingham (April 2013) showing Ricoh's approach to Zero Waste, Remanufacturing and how these aspects engage with the circular economy.
The presentation shows how Ricoh has implemented reverse logistics to retain control of it's assets (products), and then remanufactured the assets to reduce environmental impact and increase resource conservation. This falls in line with Ricoh's Comet Circle life cycle philosophy and Zero Waste to Landfill standard.
Ricoh UK Products Ltd (RPL) is considering implementing a Sustainable Urban Drainage System (SuDS) to help meet legal water quality requirements. Currently, RPL's surface water drains directly to local waterways, but a SuDS would naturally filter and reduce runoff. Using unused land and existing drainage maps, RPL could design various SuDS features like ponds, swales and permeable paving to improve water management while providing biodiversity benefits. The project would help RPL comply with increasing environmental regulations and reduce its annual surface water drainage charges.
Sustainability activities carried out by RPL, covering CO2 Reduction, Circular Economy (zero waste, remanufacturing) Corporate Biodiversity natural capital development and CSR stakeholder engagement.
Ricoh has implemented a long-term strategic approach to environmental sustainability since 2000, with staged targets to reduce environmental impact to one-eighth of 2000 levels by 2050. Key initiatives include achieving zero waste to landfill status since 2002, reducing energy usage and CO2 emissions by over 30% through investments in lighting, HVAC systems and on-site power generation, and establishing a circular economy through extensive remanufacturing and recycling programs.
Sustainable applied innovation pankaj shah and bipin patwardhan cwin18 indiaCapgemini
The document discusses sustainable applied innovation, including:
1. Key elements of sustainable innovation systems include sustainability requirements, innovation determinants, processes, actors/networks, and effects. Partner cooperation and demand-side changes are also important.
2. Sustainable innovation communities can take the form of contact networks, virtual communities, or promoters of specific projects, and may focus on research, solutions, markets, multi-actors, or production/logistics.
3. Creating sustainable innovation systems requires identifying catalysts, improving recognition of opportunities, and better connecting stakeholders in information flows.
The document discusses the principles of a circular economy in construction. It begins by noting that the world is facing a crisis due to resource depletion and environmental pollution from the current linear take-make-waste model. It then provides background on concepts like sustainable development and describes how the linear economy leads to negative outcomes. The circular economy aims to eliminate waste and continually reuse resources. The document outlines several principles of circular economy and provides frameworks like the "ReSOLVE" approach to applying circular design in construction, including strategies for clients, designers, suppliers and more.
This document discusses industrial symbiosis, which is a circular economy approach where companies collaborate and exchange materials, energy, water, and byproducts in an effort to achieve resource efficiency. It provides examples of companies engaging in industrial symbiosis through the National Industrial Symbiosis Programme (NISP) model, which connects over 15,000 companies. Industrial symbiosis has led to eco-innovation, cost savings, new revenue streams, and reductions in waste and carbon emissions. The European Commission recognizes industrial symbiosis as a key driver of green growth and innovation.
The document discusses how Ricoh has used industrial symbiosis to manage supply chain risk and promote sustainability. It summarizes that Ricoh has implemented industrial symbiosis through waste exchange programs, remanufacturing, and facilitating partnerships between companies. This has helped Ricoh reduce costs, improve resource efficiency, extend product lifecycles, and decouple business growth from environmental impacts, supporting its long-term sustainability strategy.
Ricoh: Manufacturing in the Circular Economy - Base Cities Birmingham - April...Andy Whyle
Presentation made at Base Cities Birimingham (April 2013) showing Ricoh's approach to Zero Waste, Remanufacturing and how these aspects engage with the circular economy.
The presentation shows how Ricoh has implemented reverse logistics to retain control of it's assets (products), and then remanufactured the assets to reduce environmental impact and increase resource conservation. This falls in line with Ricoh's Comet Circle life cycle philosophy and Zero Waste to Landfill standard.
Ricoh UK Products Ltd (RPL) is considering implementing a Sustainable Urban Drainage System (SuDS) to help meet legal water quality requirements. Currently, RPL's surface water drains directly to local waterways, but a SuDS would naturally filter and reduce runoff. Using unused land and existing drainage maps, RPL could design various SuDS features like ponds, swales and permeable paving to improve water management while providing biodiversity benefits. The project would help RPL comply with increasing environmental regulations and reduce its annual surface water drainage charges.
Sustainability activities carried out by RPL, covering CO2 Reduction, Circular Economy (zero waste, remanufacturing) Corporate Biodiversity natural capital development and CSR stakeholder engagement.
Ricoh has implemented a long-term strategic approach to environmental sustainability since 2000, with staged targets to reduce environmental impact to one-eighth of 2000 levels by 2050. Key initiatives include achieving zero waste to landfill status since 2002, reducing energy usage and CO2 emissions by over 30% through investments in lighting, HVAC systems and on-site power generation, and establishing a circular economy through extensive remanufacturing and recycling programs.
Sustainable applied innovation pankaj shah and bipin patwardhan cwin18 indiaCapgemini
The document discusses sustainable applied innovation, including:
1. Key elements of sustainable innovation systems include sustainability requirements, innovation determinants, processes, actors/networks, and effects. Partner cooperation and demand-side changes are also important.
2. Sustainable innovation communities can take the form of contact networks, virtual communities, or promoters of specific projects, and may focus on research, solutions, markets, multi-actors, or production/logistics.
3. Creating sustainable innovation systems requires identifying catalysts, improving recognition of opportunities, and better connecting stakeholders in information flows.
The document discusses the principles of a circular economy in construction. It begins by noting that the world is facing a crisis due to resource depletion and environmental pollution from the current linear take-make-waste model. It then provides background on concepts like sustainable development and describes how the linear economy leads to negative outcomes. The circular economy aims to eliminate waste and continually reuse resources. The document outlines several principles of circular economy and provides frameworks like the "ReSOLVE" approach to applying circular design in construction, including strategies for clients, designers, suppliers and more.
This document discusses industrial symbiosis, which is a circular economy approach where companies collaborate and exchange materials, energy, water, and byproducts in an effort to achieve resource efficiency. It provides examples of companies engaging in industrial symbiosis through the National Industrial Symbiosis Programme (NISP) model, which connects over 15,000 companies. Industrial symbiosis has led to eco-innovation, cost savings, new revenue streams, and reductions in waste and carbon emissions. The European Commission recognizes industrial symbiosis as a key driver of green growth and innovation.
This document discusses opportunities for eco-innovation and a circular economy approach within LED lighting supply chains. It notes that LEDs contain many critical and scarce materials that present opportunities for material recovery and recycling. The document explores technical and non-technical issues along the supply chain from material inputs to end of life. It suggests that collaboration across organizations will be needed to enable approaches like reuse, remanufacturing, and high quality recycling. The document also examines challenges like balancing substitution versus recycling and recovering value at end of life. It proposes possible solutions like developing new business models that share costs and value across the supply chain and establishing evaluation criteria for eco-innovative products and supply chain systems.
Strategic and visionary presentations sharing their latest success stories, lessons learned, challenges and next steps regarding natural refrigerant-based technologies in Southeast Asia.
This session focussed on the specific market demands and issues of the region, and available solutions.
Global South-South Expo
A presentation from solution Forum 2 organized by UNIDO
Clean Technologies for Green Industry is the theme for this forum and is the United Nations Industrial Development Organization (UNIDO) important contribution to the Global South South Development Expo 2013. It will focus on showcasing clean technology solutions that have been successfully implemented in developing countries, emphasizing Southern-grown technologies, as well as South-South, North-South-South triangular cooperation and PPP modalities
Cleaner Production is a preventative environmental strategy that aims to reduce waste at the source. It involves continuous application of best practices like good housekeeping, input substitution, process modification and technology changes to increase efficiency and minimize environmental risks. A CP assessment identifies waste sources and feasible options are evaluated through technical, economic and environmental analyses. Successful CP implementation leads to cost savings, productivity gains and improved environmental performance while meeting stakeholder needs. Governments can promote CP through regulations and incentives while financial institutions benefit from lower risks in clients pursuing CP.
CarE-Service Techno-polymer recycling by Radici GroupOlgaRodrguezLargo
Presentation of the recycling process developed in CarE-Service Project during the First Exploitation Webinar of the project held on 9th December 2020 by Radici Group
Accounting and reporting avoided emissions along the value chainLeonardo ENERGY
http://www.leonardo-energy.org/webinar/accounting-and-reporting-avoided-emissions-along-value-chain
Companies want to go beyond emission reductions in their own operation facilities and supply chains, by designing products that reduce emissions at downstream customers. A fuel efficient tire, for example, reduces greenhouse gas (GHG) emissions when driving a car. Such emission reductions are also called “avoided emissions”. Despite the opportunities, companies face challenges when introducing their innovative products to the market. The International Council of Chemical Associations and World Business Council for Sustainable Development commissioned Ecofys to write guidelines for accounting for and reporting greenhouse gas emissions avoided along the value chain of chemical products. The guidelines provide a global standard methodology and are a worldwide example on how to calculate and communicate the GHG benefits of products.
07 Pepsi Cola Cooler Sustainability With Hydrocarbons Soykan DirikKoeppen Halvart
PepsiCo has implemented a sustainability strategy to reduce greenhouse gas emissions from its cooling equipment by transitioning to more energy efficient systems and alternative refrigerants like hydrocarbons. In 2009, PepsiCo's initiatives led to a 48% reduction in energy usage and the introduction of 48 new efficient cooler models. PepsiCo also transitioned Turkey to become 100% powered by hydrocarbon refrigerants and approved 15 hydrocarbon models for broader use. The company aims to continue expanding the use of hydrocarbons and pursuing a dual strategy using hydrocarbons and carbon dioxide based on application and market regulations.
This document provides an overview of key concepts from Chapter 12 on Design for Environment from the textbook Product Design and Development by Karl T. Ulrich and Steven D. Eppinger. It discusses how design for environment (DFE) aims to minimize a product's environmental impact over its lifecycle. DFE expands the traditional focus on production to consider the entire closed-loop lifecycle. Methods like life-cycle assessment and cradle-to-cradle design are introduced. Examples of companies implementing DFE through use of recycled materials, design for disassembly, and other strategies are also provided.
GreenBiz 17 Workshop Slides: "Applying Lifecycle Thinking to Zero Waste Goals"GreenBiz Group
For the past twenty-five years, Americans have embraced recycling as an important measurement of environmental performance. The idea that more recycling must be better has spurred the widespread adoption of zero waste goals, developed with the best intentions. However, a focus on recycling as many tons as possible does not always take into account the whole picture of the environmental impact of waste. Join this session to understand how a lifecycle thinking approach can help you develop waste goals and programs for your company that will achieve the greatest environmental benefits and business results.
This document summarizes an agenda for discussing eco-innovation at Mac Brothers Catering Equipment. It provides background on the company and discusses why sustainability is important from both shareholder and stakeholder perspectives. Key sustainability areas and eco-innovative strategies are identified, including improving transportation efficiency, offering energy efficient kitchen designs, and reusing frying oil. Business models are proposed around these strategies. Lessons learned highlight the challenges of gaining management buy-in, addressing SME needs, building customer awareness, and creating an innovation culture.
The document outlines Nike's climate plan and timeline of commitments to reduce their carbon footprint from 1992 to 2020. It includes phasing out greenhouse gases from footwear by 2005, joining the Climate Savers program in 2001 to reduce emissions from facilities and travel by 13% by 2005, and setting new targets in 2007 to achieve climate neutral operations and reduce supply chain emissions by 30% by 2020.
02 LH Ruiters Eco Innovation Pilot Project SA7391456
This document summarizes a project implemented by the National Cleaner Production Centre South Africa (NCPC-SA) in partnership with UNEP and Stellenbosch University. The project aimed to promote eco-innovation among small and medium enterprises in the metals fabrication sector in South Africa. Over 2015-2017, NCPC-SA worked with 5 companies, providing workshops and company visits to introduce eco-innovation approaches. Initial findings showed that companies found the process complicated and had concerns about costs and benefits. The project helped companies access new markets while improving environmental performance and productivity.
This document summarizes the different phases of an UNEP Eco-Innovation project conducted with several South African metal companies. It discusses the theory behind each phase and compares it to the realities encountered. Key phases included assessing companies, generating ideas, developing business models, and creating roadmaps. While the theory proposed structured processes, collecting data and gaining company buy-in proved challenging. Ultimately, only one company advanced to the implementation phase due to changing business conditions.
This document discusses eco-innovation in South Africa, including definitions, trends, benefits, and challenges. It notes that while South Africa has several policies that indirectly promote eco-innovation, regulation and initiatives are still not fully developed. A study found that most innovative manufacturing firms in South Africa did not report eco-innovation, suggesting untapped potential. The document concludes that government support programs could help boost private sector eco-innovation and the green economy.
The document discusses life cycle thinking and eco-innovation for businesses. It explains that eco-innovation aims to embed sustainability into a company's strategy, operations, and value chain through a holistic life cycle approach. The document provides an overview of conducting an eco-innovation process, which includes preparing by identifying markets for eco-innovation, setting a strategy by finding sustainability hotspots in a product's life cycle and targeting markets, and setting a business model to implement the sustainable strategy.
Energy Show 2022 - Opportunities and Challenges to Upgrades in the Commercial...SustainableEnergyAut
The Government's plan to address Climate change includes ambitious targets. This session will focus particularly on the targets relating to the retrofit non-domestic buildings. It will discuss some of the challenges and opportunities to meet these goals.
Discussions will be around a holistic approach to retrofitting of buildings, bringing the reduction in energy requirements to the fore.
Speakers will cover some of the main pressing questions faced by those designing and managing non-domestic buildings in today’s current climate. All speakers have extensive experience in their particular topic and have worked for many years within the construction industry.
The sub-topics included within this session are outlined below:
Challenges to Commercial Retrofit Ventilation Energy efficiency & Covid
Façade Upgrades and Carbon Reduction in Commercial Retrofit
Benefits of Building Digitalisation & Optimisation.
This session will be both practical and relevant for anyone designing, constructing and supplying these projects.
This document summarizes Ricoh's approach to sustainability and remanufacturing. It discusses Ricoh's goals of reducing environmental impact by 30% by 2030 and 87.5% by 2050 compared to 2000 levels through an eco-centric culture and technical innovation. Ricoh aims for zero waste to landfill and obtains 50% of materials from recycled or reused sources by 2050. The company focuses on resource conservation through remanufacturing used products and parts in its "Comet Circle" process to keep resources in use longer. Ricoh's Telford, UK site has achieved zero waste to landfill status since 2002 through rigorous segregation and finding markets for all waste materials.
EIT Climate KIC Sustainable Production SystemsWWW.ERFC.GR
This document summarizes EIT Climate-KIC's Sustainable Production Systems program which addresses climate change and sustainable economic development through strategic innovation. It consists of 3 cause-related programs: Loop, which aims to close material loops and reduce emissions; Re-Industrialize, which helps carbon-intensive regions transition economically; and <<2°C Pathway to decarbonize high-emission industries. The programs include pathfinder, accelerator, demonstrator, and scaler projects, as well as flagships on circular economy plastics and regional economic transition. The overall goal is to recast materials production, reboot economies, and reduce industry emissions to help achieve a less than 2 degree global temperature rise.
This document discusses opportunities for eco-innovation and a circular economy approach within LED lighting supply chains. It notes that LEDs contain many critical and scarce materials that present opportunities for material recovery and recycling. The document explores technical and non-technical issues along the supply chain from material inputs to end of life. It suggests that collaboration across organizations will be needed to enable approaches like reuse, remanufacturing, and high quality recycling. The document also examines challenges like balancing substitution versus recycling and recovering value at end of life. It proposes possible solutions like developing new business models that share costs and value across the supply chain and establishing evaluation criteria for eco-innovative products and supply chain systems.
Strategic and visionary presentations sharing their latest success stories, lessons learned, challenges and next steps regarding natural refrigerant-based technologies in Southeast Asia.
This session focussed on the specific market demands and issues of the region, and available solutions.
Global South-South Expo
A presentation from solution Forum 2 organized by UNIDO
Clean Technologies for Green Industry is the theme for this forum and is the United Nations Industrial Development Organization (UNIDO) important contribution to the Global South South Development Expo 2013. It will focus on showcasing clean technology solutions that have been successfully implemented in developing countries, emphasizing Southern-grown technologies, as well as South-South, North-South-South triangular cooperation and PPP modalities
Cleaner Production is a preventative environmental strategy that aims to reduce waste at the source. It involves continuous application of best practices like good housekeeping, input substitution, process modification and technology changes to increase efficiency and minimize environmental risks. A CP assessment identifies waste sources and feasible options are evaluated through technical, economic and environmental analyses. Successful CP implementation leads to cost savings, productivity gains and improved environmental performance while meeting stakeholder needs. Governments can promote CP through regulations and incentives while financial institutions benefit from lower risks in clients pursuing CP.
CarE-Service Techno-polymer recycling by Radici GroupOlgaRodrguezLargo
Presentation of the recycling process developed in CarE-Service Project during the First Exploitation Webinar of the project held on 9th December 2020 by Radici Group
Accounting and reporting avoided emissions along the value chainLeonardo ENERGY
http://www.leonardo-energy.org/webinar/accounting-and-reporting-avoided-emissions-along-value-chain
Companies want to go beyond emission reductions in their own operation facilities and supply chains, by designing products that reduce emissions at downstream customers. A fuel efficient tire, for example, reduces greenhouse gas (GHG) emissions when driving a car. Such emission reductions are also called “avoided emissions”. Despite the opportunities, companies face challenges when introducing their innovative products to the market. The International Council of Chemical Associations and World Business Council for Sustainable Development commissioned Ecofys to write guidelines for accounting for and reporting greenhouse gas emissions avoided along the value chain of chemical products. The guidelines provide a global standard methodology and are a worldwide example on how to calculate and communicate the GHG benefits of products.
07 Pepsi Cola Cooler Sustainability With Hydrocarbons Soykan DirikKoeppen Halvart
PepsiCo has implemented a sustainability strategy to reduce greenhouse gas emissions from its cooling equipment by transitioning to more energy efficient systems and alternative refrigerants like hydrocarbons. In 2009, PepsiCo's initiatives led to a 48% reduction in energy usage and the introduction of 48 new efficient cooler models. PepsiCo also transitioned Turkey to become 100% powered by hydrocarbon refrigerants and approved 15 hydrocarbon models for broader use. The company aims to continue expanding the use of hydrocarbons and pursuing a dual strategy using hydrocarbons and carbon dioxide based on application and market regulations.
This document provides an overview of key concepts from Chapter 12 on Design for Environment from the textbook Product Design and Development by Karl T. Ulrich and Steven D. Eppinger. It discusses how design for environment (DFE) aims to minimize a product's environmental impact over its lifecycle. DFE expands the traditional focus on production to consider the entire closed-loop lifecycle. Methods like life-cycle assessment and cradle-to-cradle design are introduced. Examples of companies implementing DFE through use of recycled materials, design for disassembly, and other strategies are also provided.
GreenBiz 17 Workshop Slides: "Applying Lifecycle Thinking to Zero Waste Goals"GreenBiz Group
For the past twenty-five years, Americans have embraced recycling as an important measurement of environmental performance. The idea that more recycling must be better has spurred the widespread adoption of zero waste goals, developed with the best intentions. However, a focus on recycling as many tons as possible does not always take into account the whole picture of the environmental impact of waste. Join this session to understand how a lifecycle thinking approach can help you develop waste goals and programs for your company that will achieve the greatest environmental benefits and business results.
This document summarizes an agenda for discussing eco-innovation at Mac Brothers Catering Equipment. It provides background on the company and discusses why sustainability is important from both shareholder and stakeholder perspectives. Key sustainability areas and eco-innovative strategies are identified, including improving transportation efficiency, offering energy efficient kitchen designs, and reusing frying oil. Business models are proposed around these strategies. Lessons learned highlight the challenges of gaining management buy-in, addressing SME needs, building customer awareness, and creating an innovation culture.
The document outlines Nike's climate plan and timeline of commitments to reduce their carbon footprint from 1992 to 2020. It includes phasing out greenhouse gases from footwear by 2005, joining the Climate Savers program in 2001 to reduce emissions from facilities and travel by 13% by 2005, and setting new targets in 2007 to achieve climate neutral operations and reduce supply chain emissions by 30% by 2020.
02 LH Ruiters Eco Innovation Pilot Project SA7391456
This document summarizes a project implemented by the National Cleaner Production Centre South Africa (NCPC-SA) in partnership with UNEP and Stellenbosch University. The project aimed to promote eco-innovation among small and medium enterprises in the metals fabrication sector in South Africa. Over 2015-2017, NCPC-SA worked with 5 companies, providing workshops and company visits to introduce eco-innovation approaches. Initial findings showed that companies found the process complicated and had concerns about costs and benefits. The project helped companies access new markets while improving environmental performance and productivity.
This document summarizes the different phases of an UNEP Eco-Innovation project conducted with several South African metal companies. It discusses the theory behind each phase and compares it to the realities encountered. Key phases included assessing companies, generating ideas, developing business models, and creating roadmaps. While the theory proposed structured processes, collecting data and gaining company buy-in proved challenging. Ultimately, only one company advanced to the implementation phase due to changing business conditions.
This document discusses eco-innovation in South Africa, including definitions, trends, benefits, and challenges. It notes that while South Africa has several policies that indirectly promote eco-innovation, regulation and initiatives are still not fully developed. A study found that most innovative manufacturing firms in South Africa did not report eco-innovation, suggesting untapped potential. The document concludes that government support programs could help boost private sector eco-innovation and the green economy.
The document discusses life cycle thinking and eco-innovation for businesses. It explains that eco-innovation aims to embed sustainability into a company's strategy, operations, and value chain through a holistic life cycle approach. The document provides an overview of conducting an eco-innovation process, which includes preparing by identifying markets for eco-innovation, setting a strategy by finding sustainability hotspots in a product's life cycle and targeting markets, and setting a business model to implement the sustainable strategy.
Energy Show 2022 - Opportunities and Challenges to Upgrades in the Commercial...SustainableEnergyAut
The Government's plan to address Climate change includes ambitious targets. This session will focus particularly on the targets relating to the retrofit non-domestic buildings. It will discuss some of the challenges and opportunities to meet these goals.
Discussions will be around a holistic approach to retrofitting of buildings, bringing the reduction in energy requirements to the fore.
Speakers will cover some of the main pressing questions faced by those designing and managing non-domestic buildings in today’s current climate. All speakers have extensive experience in their particular topic and have worked for many years within the construction industry.
The sub-topics included within this session are outlined below:
Challenges to Commercial Retrofit Ventilation Energy efficiency & Covid
Façade Upgrades and Carbon Reduction in Commercial Retrofit
Benefits of Building Digitalisation & Optimisation.
This session will be both practical and relevant for anyone designing, constructing and supplying these projects.
This document summarizes Ricoh's approach to sustainability and remanufacturing. It discusses Ricoh's goals of reducing environmental impact by 30% by 2030 and 87.5% by 2050 compared to 2000 levels through an eco-centric culture and technical innovation. Ricoh aims for zero waste to landfill and obtains 50% of materials from recycled or reused sources by 2050. The company focuses on resource conservation through remanufacturing used products and parts in its "Comet Circle" process to keep resources in use longer. Ricoh's Telford, UK site has achieved zero waste to landfill status since 2002 through rigorous segregation and finding markets for all waste materials.
EIT Climate KIC Sustainable Production SystemsWWW.ERFC.GR
This document summarizes EIT Climate-KIC's Sustainable Production Systems program which addresses climate change and sustainable economic development through strategic innovation. It consists of 3 cause-related programs: Loop, which aims to close material loops and reduce emissions; Re-Industrialize, which helps carbon-intensive regions transition economically; and <<2°C Pathway to decarbonize high-emission industries. The programs include pathfinder, accelerator, demonstrator, and scaler projects, as well as flagships on circular economy plastics and regional economic transition. The overall goal is to recast materials production, reboot economies, and reduce industry emissions to help achieve a less than 2 degree global temperature rise.
This document summarizes a study on value-retention processes (VRPs) like remanufacturing, refurbishment, repair and reuse in the circular economy. It finds that these processes can provide substantial resource efficiency and environmental benefits compared to traditional linear production. However, VRPs currently only account for a small portion of production due to regulatory, market and infrastructure barriers. The study recommends policy and industry priorities to support adoption of VRPs and transition to a more circular economy. These include eliminating regulatory barriers, establishing standards, investing in VRP research, engaging customers, and designing products for disassembly and remanufacturing.
The document discusses sustainable design approaches for the chemistry-using industries. It proposes designing products and processes for the entire lifecycle, including for separation and recovery of materials. Examples are given of innovative coatings for ship hulls to reduce fouling without biocides and more efficient spray-on heating elements. The goal is to stimulate innovation that delivers value through more sustainable solutions.
This document discusses cleaner technology and waste reduction strategies. It defines cleaner technology as the continuous application of preventative strategies to increase efficiency and reduce risks. It discusses various cleaner technology practices like good housekeeping, input substitution, and technology changes. The benefits of cleaner technology include improving the environment, increasing economic benefits and productivity, and gaining competitive advantage. Barriers include a lack of information and competing priorities, while drivers include improvements in productivity and environmental reports.
This document provides information on environmental management accounting and material flow cost accounting (MFCA). It discusses how MFCA can be used internally by companies to identify costs associated with waste and inefficiencies. Examples are given of several Japanese companies that implemented MFCA and were able to reduce waste, lower costs, and increase productivity and profit as a result. The document also compares traditional cost accounting statements to those developed using MFCA.
Swiftnlift Announces clean tech startups in Singapore, 2021Swiftnlift
A Waste-To-Worth Solutions Partner Specialised In Transforming Waste Materials Into Reusable Products While Delivering Social And Environmental Benefits.
Presentation by Robin Wilson, Lead Technologist, High Value
Manufacturing, Technology Strategy Board.
This was delivered at the Advanced Manufacturin Strategy: One Year On
event held at NESTA, London on 29 October 2009.
European Green IT Webinar 2014 - MicroPro Computers (Ireland)GreenLabCenter
This document discusses MicroPro, an Irish company that designs and manufactures eco-friendly computers. It summarizes MicroPro's history since 1991 developing modular, upgradable, and recyclable computer models like the iameco v1, v3, and D4R laptop. These models are designed for longer lifespans, using recycled materials, and are ISO14001 and ISO9001 certified. The document also discusses barriers to marketing sustainable computers, opportunities for further product improvements through research partnerships, and MicroPro's current and proposed R&D projects focused on eco-innovation and the circular economy.
Opportunity to reduce carbon content in supply chain thesis
This is my YouTube channel please visit, https://www.youtube.com/channel/UCzqDP4ePIIuZ42KbFMaRw1g?sub_confirmation=1
Assessment and Analysis of GSCM Barriers using AHPIRJET Journal
This document discusses barriers to implementing green supply chain management (GSCM) in plastic industries using analytical hierarchy process (AHP). 47 potential barriers were identified from literature and interviews. A survey was conducted to determine the most important barriers. AHP was then used to prioritize the key barriers based on their calculated values. The top barriers included lack of human resources, technical expertise, and government support for adopting environmental policies. Identifying and addressing the primary barriers can help plastic industries more easily implement GSCM and improve their environmental performance.
IRJET- Reduction of Breakdown Hours Through Lean Technique in a High Volume L...IRJET Journal
This document summarizes a study on reducing breakdown hours through implementing lean techniques, specifically Total Productive Maintenance (TPM), in a manufacturing industry. The study identified that the foundry was a major contributor to breakdown hours. The objective was to reduce breakdown hours in the foundry by 25%. TPM initiatives like preventative maintenance, predictive maintenance, and autonomous maintenance were implemented. After implementation, breakdown hours were reduced by 20% in the industry, showing the effectiveness of TPM's proactive approach in improving productivity and efficiency.
IRJET- Reduction of Breakdown Hours Through Lean Technique in a High Volume L...IRJET Journal
This document summarizes a study on reducing breakdown hours through implementing lean techniques, specifically Total Productive Maintenance (TPM), in a manufacturing industry. The study identified that the foundry was a major contributor to breakdown hours. The objective was to reduce breakdown hours in the foundry by 25%. TPM approaches like preventative maintenance, corrective maintenance, and predictive maintenance were implemented. After implementation, breakdown hours were reduced by 20% in the industry, showing the effectiveness of TPM in improving productivity and efficiency.
- The document outlines several proposals that were successful in obtaining funding from the UK Sustainable Innovation Fund Phase 2 competition, including proposals related to biodegradable tree shelters, composite materials for automotive applications, digital identification for plastic recycling, and more.
- The proposals aim to support the development of more sustainable technologies and processes across various industries like agriculture, automotive, packaging, and manufacturing. If successful, they could help reduce environmental impacts and support a transition to a greener economy in the UK.
- All funded proposals will be subject to meeting grant conditions but have potential to advance sustainability goals in their respective areas through the proposed projects.
Life Cycle Thinking - Measuring and Managing Adrian Segens
Life Cycle Thinking (LCT) is about going beyond the traditional focus on production site and manufacturing processes to include environmental, social and economic impacts of a product over its entire life cycle.
To enable the circular economy, all manufacturers must be able to measure and manage the impacts of their products throughout their life cycle and develop strategies that will deliver a sustainable and profitable future.
This presentation explores both life cycle thinking and natural capital as two concepts that will play a vital role in that transition. It also includes a case study on how Philips are applying these ideas
This document discusses green manufacturing and sustainable development practices. It begins with an abstract that outlines how green manufacturing aims to conserve natural resources for future generations through improvements in production processes and recycling. The document then covers several key aspects of green manufacturing including cleaner production, using renewable resources like solar energy to generate steam, and utilizing waste materials from industries like sugarcane processing. Overall, the document promotes applying green technologies and innovative systems to manufacturing to reduce resource depletion, waste generation, and pollution while also improving economic outcomes.
The document discusses the importance of green ICT and reducing electronic waste. It argues that better upfront design of computers is more important than recycling in addressing this issue. It recommends design changes like using fewer toxic materials, making components easier to repair or upgrade to extend lifespan, and designing for easy recycling. The document also advocates for global extended producer responsibility laws that incentivize companies to take responsibility for recycling their own products and reduce wasteful design.
Solwatt is a comprehensive programme designed by Solvay to implement an energy management system on large energy-intensive industrial sites.
The review phase follows two streams:
The technical stream, aiming at documenting in an action plan a minimum of 10% savings through a series of short payback incremental improvements.
The behavioural and management stream, aiming at fostering a lasting culture of energy management and savings on the site, with a detailed structure of KPIs and KAIs.
Solwatt® is a comprehensive programme designed by Solvay to implement an energy management system on large energy-intensive industrial sites.
The review phase follows two streams:
The technical stream, aiming at documenting in an action plan a minimum of 10% savings through a series of short payback incremental technical improvements.
The behavioural and management stream, aiming at fostering a lasting culture of energy management and savings on the site, with a detailed structure of KPIs and KAIs and a managerial action plan.
2. Worldwide sales of $23billion
(£14.6 billion) year end March 2012
No 1 Share of Global MFP Market
100,000+ Employees Worldwide
Market Leader since 1936
200+ Countries & Regions
Who are Ricoh?
3. Ricoh Global Manufacturing
■ Shanghai Ricoh Digital Equipment Co.,
Ltd.
■ Ricoh UK Products Ltd. (RPL) ■ Ricoh Industrie France S.A.S.
■ Ricoh Asia Industry (Shenzhen), Ltd. ■ Ricoh Manufacturing (Thailand), Ltd.
■ Ricoh Electronics, Inc
California & Georgia
U.S.A
UK
France
China
Thailand
■ Ricoh Components &
Products (Shenzhen) Co.,
Ltd.
■ Ricoh Japan
14 Production
Sites.
6. The Future -
Resource
Conservation
Ricoh Group's global
environmental conservation:
Keeping environmental impact
within the self-recovery
capabilities of the Earth
1
2
7. THE
PERFECT
STORM
2030
World's
population
will rise
from 6bn
to 8bn
(33%)
Demand for
food will
increase by
50%
Demand for
energy will
increase by
40%
Demand for
water will
increase by
30%
Professor Sir John Beddington, UK
Government Chief Scientist (2009)
What’s the problem?
14. Copper
Earth movers capacity = 255 tonnes
0.2% = 0.5 tonnes of copper per load
Business Opportunity?
Oil prices / mining capacity decreasing
1 Load = Equivalent to 3,400 donkeys
Future manufacturing impact?
Copper availability decreases
Copper price rises to unaffordable
manufacturing costs …….
No production / products ……
No Business Continuity .
15. Transition to a sustainable economy
Resilient to changing
environmental conditions
Operates within
environmental limits
Low carbon and resource
efficient
16. IEMA – From Waste to Resources
Resources are the life blood of
manufacturing. Without a clear
view of supply risks and an active
and ambitious strategy to manage
those risks, businesses will be
increasingly vulnerable to price
volatility, supply chain
disruption and business
continuity risks.
Susanne Baker, AIEMA, EEF and Chair of
Materials Security Working Group Read
more about Susanne’s work at
www.iema.net/rm111
22/04/2015 16
17. The Circular Economy
COLLECTION
Extradition of
biochemical
feedstock2
Anaerobic
digestion
/composting
Biogas
Restoration
Biological
nutrients
Mining/materials
manufacturing
Technical nutrients
Farming
collection1
Biochemical
feedstock
COLLECTION
1. Hunting and fishing
2. Can take both post harvest & post consumer waste as an input
Source: Ellen MacArthur Foundation economy team
18. IEMA – From Waste to Resources report
22/04/2015 18
21. Manufacturing Today
The sustainable ideal is a balanced
3Ps approach
Most of today’s product tends towards
1st life/ single use (profit centric)
Sustainable design is increasing, but
not yet the mainstream
Paradigm Solution -
Robust reverse logistics
Life cycle (Comet Circle) drive
towards retention of assets
Ricoh’s role is to learn, and move
towards resource conservation.
Planet
People Profit
Profit
23. Land use
(factory construction/
landscaping).
Collection
/ Recycling
Water Timber
Crude
Oil
(fuel)
Natural
Gas
Coal
Zinc
Ore
Nickel
Ore
Coppe
r Ore
Molybdenu
m
Platinu
m
Chromium
Ore
Manganese
Ore
Silver
Ore
Bauxite
Lead
Ore
Tin Ore
Crude Oil
(raw Material)
Silver
Ore
Gold Ore
Titanium
C O
(carbon
Monoxide)
NOx
(Nitrogen
Oxide)
SOx
(Sulphur
Oxide)
CO2
(Carbon
Dioxide)
N20
(Nitrous
Oxide)
CxHy
(hydro
Carbons)
CH4
(Methane)
Dust
NMVOC
(Non-methane
Hydrocarbons)
Slag
Unspecifie
d Solid
Waste
Sludge
BOD
(Biological
Oxygen
Demand)
COD
(Chemical
Oxygen
Demand)
SS
(suspende
d Solids)
Logistics/
Marketing
Procurement of
raw materials
Use/ Maintenance
Input Output
Design/
Manufacturing
Continuous INPUT of resources to create products and OUTPUT of
chemical substances, a linear relationship between these two are to
be the basis of increasing the negative environmental impact on the
Earth.
In the future, if natural resources are to be depleted the we won’t be
able to continue our normal business activities. We wonder if there is
a way to avoid running out of resources as opposed to such linear
activities.
Extracted
Resources for the
business activities
such as
•Energy resource
•Mineral resource
•Renewable
Resources
Substances that
discharge in the
process of
business activities.
Resource Security
26. Eco Line - Remanufacturing Process
Remanufactured machines (BS-MADE
8887-220)
Striped to chassis
All mortality parts replaced /All panels
sprayed
All firmware / software modifications fitted
Completely Re-branded and sold as new
line
Quality Control: inspected and assured the
same as new products
Extending the life cycle, reducing
environmental impact
27. Life Cycle Analysis
Raw material Manufacture Customer usage
Recycle
& disposal
Remanufacturing = 38% Environmental impact reduction
28. Life Cycle: Comet Circle
deployment
Customer
Operating
Company
Product
Manf.
Parts
Manf.
Materials
Manf.
Materials
Supplier
Maintenance
Parts
Recovery
Materials
Recovery
Material
Separation
Raw material
recovery
Incineration with
Energy Recovery
Final
Disposal
Recovery
Secondary User of
Materials
Recycling
Centre
Green
Centre
Remanufacturing Zero Waste
29. Business Benefits
22/04/2015 Version: [###] Classification: Internal Owner: [Insert name] 29
Asset Remanufacturing of Ferrite Rollers
Product /
Process
Apolon C1 Fuser
How
Much
200 units per month
Business
Benefit
Saving compared to manufacturing new
= £13/Roller
Comment
s
First stage of Remanufacturing
development, development and
justification of the process was
challenging, but ultimately developed a
low skill cost effective process
requirement.
+ Comet
Shifts
2
30. Business Benefits
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Asset Jupiter OPC unit
Product /
Process
Remanufacture of unit including reuse
of aluminium drum and weight (rather
than recycling).
How
Much
7000 drums saved over 1 years
production.
Business
Benefit
Savings compared to buying new units
= £61,000
Comment
s
extension and development of the
Ferrite roller process
+ Comet
Shifts
2
31. Business Benefits
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Asset Supplies Remanufacturing Department
Product /
Process
European wide sourced Toner cartridge
Remanufacturing of AIO / PCU / Fuser units
How Much reverse logistics return 55tonnes / month. 52
tonnes are remanufactured (Process yield is
95%, with 5% sent for recycling).
Business
Benefit
Based on the avg selling cost within the
Ricoh demand chain the process is worth
€11 million per month, the direct benefit to
the manufacturing process compared to
buying virgin materials and parts is €2
million per month.
Comments Now established as part of European
manufacturing operations
+ Comet
Shifts
3
32. Business Benefits
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Asset Machines Remanufacturing
Product /
Process
Remanufacturing of copiers and production
printers following BS887-2
How Much 160 units per month
Business
Benefit
40% cost savings compared to new models,
reducing environmental impact by 38%
Comments Established as part of RPL manufacturing
operations
+ Comet
Shifts
3
33. 22/04/2015 Version: [###] Classification: Internal Owner: [Insert name] 33
Caterpillar estimate that 35% of their costs
lie in overheads, while the majority – 65%
– are materials costs. So salvaging
materials gives a greater business
advantage for the company over their
competitors, where goals are often focused
on driving down overhead costs.
Michelin Fleet Solutions, offering tyre
management to optimise the performance of
large truck fleets— in Europe, 50% of large
truck fleets externalise their tyre
management. By maintaining control over the
tyres throughout their usage period, Michelin
is able to collect them at end of the leases
and extend their technical life (i.e. re-
treading) and reintegration into the material
cascade at end of life.
From Selling Tires
to Selling Kilometres
Resource Conservation
34. 34
Renault’s ability to structure and run its
reverse logistics chain and access a
steady stream of cores, together with its
deployment of highly skilled labour, has
allowed the company to grow its
remanufacturing operations into a 200
million euro business.
Resource Conservation
Kingfisher
• Researching, developing and
implementing circular business model
trials
• Delivering Kingfisher’s Net Positive
objective of selling 1000 products with
closed loop credentials by 2020
• Creating a strong network of suppliers
who are aligned around the need to
transition to a circular economy
35. Summary
Strategy: to develop business to maintain materials for productivity
Develop a long term approach (2050 Plan)
Zero Waste underpins Remanufacturing
Increasing Supply Chain awareness of Reverse Logistics
Circular Economy deployment
Diversification of operation (remanufacturing)
Result:
Manufacturers and Customers now beginning to grasp Resource
Conservation as a strategic issue.
Reduced environmental impact of operation, extended life cycle of
materials, resulting in an increased ability to maintain future business
continuity (Sustainability).