D6.2 Guideline

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D6.2 Guideline ECODESIGN GUIDELINE TABLE OF CONTENTS 01 02 Introduction 5 Ecodesign procedure step by step 15 1.1. What does ecodesign stand for? 5 2.1. Step 1 – Ecodesign project preparation 17 2.1.1. Creation of the working team 17 1.2. What opportunities can ecodesign bring to companies? 7 2.1.2. Definition of goals and motivations 19 1.3. Ecodesign and life cycle approach 9 2.1.3. Selection of the target product 21 1.4. How can ecodesign contribute to URBANREC? 13 2.2. Step 2 – Identification of product specifications 23 2.2.1. Product analysis 24 2.2.2. Environmental assessment tools 25 2.3. Step 3 – Definition of ecodesign strategies 28 2.3.1. Analysis of the ecodesign strategies 28 2.3.2. Selection of actions for environmental improvement 32 2.4. Step 4 – Action plan 35 2.4.1. New concept development 35 2.4.2. Definition of the ecodesign action plan 36 2.4.3. Internal evaluation of Ecodesign process (optional) 37 2 | URBANREC Bulky waste management 03 Ecodesign strategies for 3.2. Furniture 48 bulky products targeted in Urbanrec 38 3.2.1. Selection of low impact materials 48 3.2.2. Reduction of materials usage 48 3.1. Common strategies for all bulky products 39 3.2.3. Optimization of the distribution system 49 3.1.1. New concept development 39 3.2.4. Reduction of impact during use 50 3.1.2. Selection of low impact materials 40 3.2.5. Optimization of initial lifetime 50 3.1.3. Reduction of materials usage 44 3.2.6. Optimization of end-of-life systems 51 3.1.4. Optimization of production techniques 44 3.1.5. Optimization of the distribution system 45 3.3. Mattresses 52 3.1.6. Reduction of impact during use 46 3.3.1. Selection of low impact materials 52 3.1.7. Optimization of initial lifetime 46 3.3.2. Reduction of materials usage 54 3.1.8. Optimization of end-of-life systems 47 3.3.3. Optimization of the distribution system 54 3.3.4. Optimization of initial lifetime 55 3.3.5. Optimization of end-of-life system 56 3.4. Carpets 58 3.4.1. Selection of low impact materials 58 3.4.2. Reduction of materials usage 58 3.4.3. Optimization of the distribution system 58 3.4.4. Optimization of initial lifetime 58 3.4.5. Optimization of end-of-life system 59 3 | URBANREC Bulky waste management 04 05 Ecolabelling: communication Contributors, external sources of ecodesign achievements 60 and further information 65 4.1. Ecolabels for bulky products dealt in URBANREC project 64 5.1 URBANREC project’s participants 65 5.2. Sectorial / Products Eco-design guidelines of reference 65 4 | URBANREC Bulky waste management ENVIRONMENT LEGISLATION QUALITY 01 COSTS ECODESIGN SAFETY INTRODUCTION FUNCTIONALITY AESTHETICS 1.1. What does ecodesign stand for? ERGONOMICS Ecodesign is a process integrated within the product design and development that aims to reduce the environmental impact of the products throughout their entire life cycle, from the extraction of raw materials used for their manufacturing to their end of life. Ecodesign does not modify the basic process followed in the design and development of new products, but it complements this process with environmental criteria to be considered at the same level of priority as other traditional aspects, such as functionality, quality, safety, aesthetics and so forth (Figure 1). Figure 1. Ecodesign approach is not just about environment 5 | URBANREC Bulky waste management 01 | INTRODUCTION Materials Manufacturing ECODESIGN stands at the beginning of the life cycle of Ecodesign products and it is essential for ensuring their circularity (Figure 2). Products designed in a circular way minimise the Distribution use of resources and foster reuse, recovery and recyclability Recycling of materials. The European Commission aims to promote the circular design of products and it is considering expand- 1 ing the ecodesign policy , which has been successful for Consumption energy-related products (through Ecodesign Directive2 and Collection Energy Labelling Regulation3), to non-energy-related product Use groups like those targeted in the URBANREC project. Reuse Repair 1 European Commission (2019). Sustainable products in a circular economy - towards an EU product policy framework contributing to the circular economy SWD (2019) 91 final (https://ec.europa.eu/transparency/regdoc/rep/10102/2019/EN/SWD-2019-91-F1-EN- MAIN-PART-1.PDF) 2 Directive 2009/125/EC of the European Parliament and of the Council of 21 October 2009 establishing a framework for the setting of ecodesign requirements for energy-re- lated products (http://data.europa.eu/eli/dir/2009/125/oj) 3 Regulation (EU) 2017/1369 of the European Parliament and of the Council of 4 July 2017 setting a framework for energy labelling and repealing Directive 2010/30/EU (http:// data.europa.eu/eli/reg/2017/1369/oj) Figure 2. Circular economy model promoted by ecodesign (source: AIMPLAS) 6 | URBANREC Bulky waste management 01 | INTRODUCTION 1.2. What opportunities can ecodesign bring to companies? New markets Product designers and developers have a great influence on Marketing the life cycle of products and on their associated environmen- tal impacts. The German Federal Agency for the Environment Legislation estimates that about 80% of the environmental impacts of the Innovation products are defined during the design stage. Once the prod- ucts materialize and enter the market, there is little room to Costs modify them and reduce their environmental impacts. This fact ( Environmental) highlights the need for implementing ecodesign in companies Quality to produce more environmentally friendly products. Besides the reduction of the environmental impacts of prod- ucts, ecodesign can offer other competitive advantages to manufacturing companies based on competitiviness (Figure 3). Figure 3. Benefits of ecodesign for companies (source: AIMPLAS) 7 | URBANREC Bulky waste management 01 | INTRODUCTION ECODESIGN ADVANTAGES 1 Increase in product quality: Ecode- 4 Access to new markets: Ecodesign sign provides a more detailed and can provide companies with new in-depth knowledge of the product, business opportunities like green which can help companies to identi- procurement (either public or pri- fy and improve critical aspects other vate) and it can serve as a green than environmental ones like func- marketing tool to attract environ- tionality, durability, reparability and mentally aware customers (e.g., so forth. through ecolabelling of products). 2 Cost reduction: Many ecodesign 5 Promotion of eco-innovation: strategies aim to minimize the con- Ecodesign can stimulate the re- sumption of resources, such as raw search and development of more materials and energy, thus resulting efficient processes, as well as the in economic savings for companies. innovation in the search for products with better environmental perfor- mance. 3 Improvement of the corporate image: Companies that effectively and publicly assume commitments 6 Anticipation to future regulations: to improve the environmental per- The application of ecodesign strat- formance of their products can egies by companies provides an strengthen their leadership and experience that will be very valuable corporate image and the prestige of when more stringent environmental their brands. regulations enter into force (e.g., the current ecodesign EU directive only applies to energy-related products, but it could be extended to other product groups in the near future). 8 | URBANREC Bulky waste management 01 | INTRODUCTION MATERIALS 1.3. Ecodesign and life cycle approach The life cycle of products (Figure 4) typically begins with the extraction of resources from the environment to ob- tain both raw materials and energy. Then, materials and energy take part in manufact uring, transportation, use and eventually reuse, recycling or disposal of products. END OF LIFE PRODUCTION The life cycle approach is a way of thinking that consid- ers all these stages in the life cycle of products (from the cradle to the grave) as a whole system. This approach helps to make decisions by understanding how every choice influences what happens at each life cycle stage, thus ensuring that these decisions will positively impact on the environment, the economy and the society. USE DISTRIBUTION Figure 4. The life cycle of a product (source: AIMPLAS) 9 | URBANREC Bulky waste management 01 | INTRODUCTION The actions taken by companies to improve the environ- mental performance of their products have traditionally been focused on manufacturing processes and operations at their own production sites. This is where companies feel most comfortable as they have more knowledge of the pro- cesses as well as direct control over the actions. However, the production stage often has a limited contribution to the total life cycle impact of products (Figure 5). Figure 5. Traditional approach for the environmental improvement of products (source: AIMPLAS) 10 | URBANREC Bulky waste management 01 | INTRODUCTION ECODESIGN goes beyond the traditional focus on manufactur- ing processes, since it follows a life cycle approach to increase the environmental performance of products throughout their whole life cycle. Companies need to comprehensively consider the environmental impacts of all life cycle stages when making decisions on product design. To do this, there is a large set of life cycle approaches from qualitative to comprehensive quan- titative methods. The, latter are based on the life cycle assess- ment (LCA). LCA results are not easy to understand and to compare. But there are some online tools ready to be used by bothe experts and non-experts in Life Cycle Assessment - ECOLIZER: It quickly and easily calculates the environmental impact of a product. The overall environmental impacts but also the impact of each phase in the life cycle of the product are assessed. These impacts can be also compared to other products within the tool (Figure 6). - GUF TOOL: It scores the multi-criteria environmental impacts of a urban furniture product against an ideal product in a single value.
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