Chemical regulations and opportunities for ecodesign : case studies in the textile supply chain
By : ECOMUNDO
Speakers :
Pierrick Drapeau : regulatory expert and public affairs manager
Brice Kosinski : ecodesign project manager
Language : English
This document summarizes key findings from a study on the life cycle greenhouse gas emissions of the apparel industry. It finds that laundering accounts for 40-80% of total emissions for most garments due to the energy required. Fiber type is also important, with synthetics generally having higher emissions than plant-based fibers. The type of care, such as dry cleaning versus washing, can also significantly impact the carbon footprint of different fabrics. Overall, use phase and fiber selection are the two most important factors in determining a garment's life cycle greenhouse gas emissions.
Textile Research & Innovation in Europe from 2005 to 2025
Paolo Canonico, President of the Textile ETP
10th Annual Textile ETP Conference, Brussels, 25 March 2015
This project conducted the first large-scale environmental audit of Syria's textile industry. The audit assessed pollution from 10 textile mills, focusing on wastewater discharge. It found that textile production uses large amounts of water and generates significant wastewater. The project then developed individualized pollution prevention plans for each mill, introducing methods to control pollution and promote cleaner technologies. This work aimed to help the industry comply with environmental standards by improving performance.
Nnfcc market review bio based products issue twentyfive april 2014NNFCC
This document provides a summary of the April 2014 issue of the NNFCC Market Review on biobased products. It discusses research and developments in areas such as wood biorefining, industrial biotechnology, platform chemicals, and new product developments. Key highlights include a new biobased chemistry network in the US, simplified certification for biobased sugarcane, and new technologies for producing chemicals like adipic acid and glucaric acid from renewable feedstocks.
Circular economy MSJ at UFRJ 20 07 2015-finalMichael S J
1) The document discusses the concept of a circular economy as an alternative to the linear "take-make-dispose" economic model. It outlines some of the limitations and criticisms of seeing circular economy as the sole strategy for sustainable development.
2) Three types of redesign are proposed to help companies transition to more circular business strategies: redesigning products/services, value chains, and internal business practices. Case studies from healthcare equipment, electronics, and other industries are presented.
3) While circular economy concepts like recycling have potential, a fully circular economy may be difficult to achieve. Greater focus is needed on reducing waste produced from consumption and production. Policy support and alignment of actors will be needed to transition economies.
The document summarizes the WEAR Sustain project, a 3 million Euro EU-funded initiative from 2017-2018 that aimed to promote more sustainable and ethical development of wearable technologies. The project brought together wearable technology stakeholders across Europe to address issues like data privacy, environmental impact, and labor practices. It had four main elements: sustainable innovation funding; knowledge exchange events; developing an online wearables ecosystem; and creating ethics and sustainability guidelines. Selected collaborative teams received up to €50,000 to prototype projects addressing themes like reuse/waste, batteries, and data privacy. While schedules delays and production challenges were common, the project helped broaden views on sustainability and ethics in wearable technology development.
EaP GREEN: Experience of the implementation of EU Directives based on EPR pri...OECD Environment
The document discusses the implementation of EU directives based on extended producer responsibility (EPR) principles. It provides an overview of EU waste legislation and targets for various waste streams. It also describes a study on EPR systems in Europe that analyzed different EPR models, identified best practices, and proposed options to promote optimal use of EPR. The study examined EPR systems for various waste streams in multiple EU countries through in-depth case studies.
OECD Modelling Plastics Use Projections Workshop - Paulo LemosJack McNeill
The document discusses several European policies and initiatives aimed at reducing plastic waste and pollution:
1) All plastic packaging will be required to be reusable or recyclable by 2030. Rules will also promote the use of recycled plastics in products.
2) Directives will be implemented to increase plastic recycling rates to 55% by 2030 and reduce the impact of single-use plastics.
3) Other policies will address issues like microplastics, biodegradable plastics, and extended producer responsibility. The EU will also lead global cooperation on reducing plastic pollution and transitioning to a circular plastics economy.
This document summarizes key findings from a study on the life cycle greenhouse gas emissions of the apparel industry. It finds that laundering accounts for 40-80% of total emissions for most garments due to the energy required. Fiber type is also important, with synthetics generally having higher emissions than plant-based fibers. The type of care, such as dry cleaning versus washing, can also significantly impact the carbon footprint of different fabrics. Overall, use phase and fiber selection are the two most important factors in determining a garment's life cycle greenhouse gas emissions.
Textile Research & Innovation in Europe from 2005 to 2025
Paolo Canonico, President of the Textile ETP
10th Annual Textile ETP Conference, Brussels, 25 March 2015
This project conducted the first large-scale environmental audit of Syria's textile industry. The audit assessed pollution from 10 textile mills, focusing on wastewater discharge. It found that textile production uses large amounts of water and generates significant wastewater. The project then developed individualized pollution prevention plans for each mill, introducing methods to control pollution and promote cleaner technologies. This work aimed to help the industry comply with environmental standards by improving performance.
Nnfcc market review bio based products issue twentyfive april 2014NNFCC
This document provides a summary of the April 2014 issue of the NNFCC Market Review on biobased products. It discusses research and developments in areas such as wood biorefining, industrial biotechnology, platform chemicals, and new product developments. Key highlights include a new biobased chemistry network in the US, simplified certification for biobased sugarcane, and new technologies for producing chemicals like adipic acid and glucaric acid from renewable feedstocks.
Circular economy MSJ at UFRJ 20 07 2015-finalMichael S J
1) The document discusses the concept of a circular economy as an alternative to the linear "take-make-dispose" economic model. It outlines some of the limitations and criticisms of seeing circular economy as the sole strategy for sustainable development.
2) Three types of redesign are proposed to help companies transition to more circular business strategies: redesigning products/services, value chains, and internal business practices. Case studies from healthcare equipment, electronics, and other industries are presented.
3) While circular economy concepts like recycling have potential, a fully circular economy may be difficult to achieve. Greater focus is needed on reducing waste produced from consumption and production. Policy support and alignment of actors will be needed to transition economies.
The document summarizes the WEAR Sustain project, a 3 million Euro EU-funded initiative from 2017-2018 that aimed to promote more sustainable and ethical development of wearable technologies. The project brought together wearable technology stakeholders across Europe to address issues like data privacy, environmental impact, and labor practices. It had four main elements: sustainable innovation funding; knowledge exchange events; developing an online wearables ecosystem; and creating ethics and sustainability guidelines. Selected collaborative teams received up to €50,000 to prototype projects addressing themes like reuse/waste, batteries, and data privacy. While schedules delays and production challenges were common, the project helped broaden views on sustainability and ethics in wearable technology development.
EaP GREEN: Experience of the implementation of EU Directives based on EPR pri...OECD Environment
The document discusses the implementation of EU directives based on extended producer responsibility (EPR) principles. It provides an overview of EU waste legislation and targets for various waste streams. It also describes a study on EPR systems in Europe that analyzed different EPR models, identified best practices, and proposed options to promote optimal use of EPR. The study examined EPR systems for various waste streams in multiple EU countries through in-depth case studies.
OECD Modelling Plastics Use Projections Workshop - Paulo LemosJack McNeill
The document discusses several European policies and initiatives aimed at reducing plastic waste and pollution:
1) All plastic packaging will be required to be reusable or recyclable by 2030. Rules will also promote the use of recycled plastics in products.
2) Directives will be implemented to increase plastic recycling rates to 55% by 2030 and reduce the impact of single-use plastics.
3) Other policies will address issues like microplastics, biodegradable plastics, and extended producer responsibility. The EU will also lead global cooperation on reducing plastic pollution and transitioning to a circular plastics economy.
The document discusses various cleaner production technologies that can make textile chemical processing more environmentally friendly. It covers eco-friendly approaches to fiber cultivation, dyeing, finishing, and identifying eco-friendly textiles. Some key points include using bifunctional reactive dyes for lower color in effluent, iron complexes or glucose as alternatives to hydrosulphite in vat dyeing, and bio-finishing of denim which is now well-established.
Analysis of textile industry of PakistanAroosa Tahir
The document provides an overview and analysis of Pakistan's textile industry, which is an important sector that contributes 9.5% to GDP and employs 15 million people. It describes the various textile subsectors including cotton spinning, weaving, made-ups like hosiery and garments, and synthetic fiber manufacturing. The largest subsectors are cotton spinning and ready-made garments. The textile industry faces issues but remains important to Pakistan's economy, contributing over $10 billion in exports annually.
Honeydew is a sticky substance excreted by phloem-feeding insects like aphids and whiteflies that feed on cotton plants. It contains sugars like trehalulose, melezitose, sucrose, fructose and glucose that cause stickiness. The random deposits of honeydew on cotton fibers and bolls makes the fibers sticky. This stickiness causes problems at various stages of cotton processing like ginning, spinning and weaving by clogging machinery. It also lowers fiber and yarn quality. Heat and moisture during processing can further increase stickiness. Effective insect control and reducing humidity during ginning and processing can help manage stickiness.
This document discusses various types of standards and specifications used in the textile and apparel industry. It defines standards as established measures or criteria used for comparison and consistency. It outlines the benefits of standards in facilitating communication, production efficiency, interchangeability and competition. The document then describes different levels of standards including company, industry, government and consensus standards. It also defines and provides examples of different types of standards and specifications such as test methods, specifications, practices and terminologies. Finally, it discusses important organizations related to textile standards development including AATCC, ASTM, ASQ, AAFA, (TC)2, ANSI and ISO.
The document discusses characterization and treatment of effluents from textile chemical processing. It notes that textile effluents are diverse in nature and contain a variety of organic and inorganic materials used in various textile processes. Common effluent treatment methods discussed include primary treatment like screening and neutralization, secondary biological treatment using activated sludge or oxidation ponds, and tertiary treatments like adsorption or reverse osmosis. It emphasizes the importance of waste minimization techniques to reduce pollution at source.
This document discusses the future of industries in Pakistan. It outlines the major industries currently in Pakistan, including textiles, sugar refining, fertilizers, and cement. It then provides a brief history of industrial development from the embryonic stage in 1947 to recent growth in tertiary/service industries. It identifies factors inhibiting growth, such as high costs, environmental challenges, and political instability. The document concludes that Pakistan has shown growth averaging 6% annually but its industrial fate depends on access to cheap materials, an easy tax policy, infrastructure development, political stability, and access to cheap finance. The industrial revolution in Pakistan is still to take place.
The document discusses the process of singeing in textile manufacturing. It covers the objectives of singeing fabrics, suitable materials, common singeing methods like plate, roller and gas singeing. It describes the components and functioning of gas singeing machines. The document also mentions newer techniques like bio-singeing using enzymes and considerations for different fiber types during singeing. Precautions to be taken for effective singeing without damage to fabrics are highlighted.
Softening finishes are important textile chemical treatments that use chemical softeners to give fabrics an agreeable, soft hand by making them supple, pliant, sleek and fluffy with some smoothness, flexibility, better drape and pliability. Softening finishes counteract the embrittlement of fabrics during preparation by removing natural oils and waxes or fiber preparations and replenishing softness through the application of chemical softeners.
The document discusses various auxiliaries and chemicals used in dyeing and finishing processes in the textile industry. It defines textile auxiliaries as chemicals that help processing operations like dyeing and printing by speeding them up or making them more efficient. It provides examples of common auxiliaries like sequestering agents, wetting agents, levelling agents, and discusses their functions. It also discusses chemicals used in specific processes like bleaching, mercerizing, soaping and printing.
This document provides definitions and information about various textile chemicals. It defines acid dyes as a large class of dyes that are applied from acidic solutions to polyamide fibers like nylon. There are many types of acid dyes with a wide variety of properties. The document also provides definitions and brief descriptions of other chemicals used in textiles like acrylic fiber, alginate, ammonia, alum, aniline, and cellulose. It provides technical details on how these chemicals are used for processes like dyeing, printing, and fiber production.
The document summarizes Pakistan's textile industry, which is the largest in the country. Pakistan is the 44th largest cotton grower globally and the 3rd largest cotton exporter. The textile industry includes cotton, yarn, fabric, home textiles, apparel, and made-ups. The industry offers excellent quality cotton, state-of-the-art technology, and competitive prices. It aims to expand further in value-added sectors through new initiatives and compliance with global standards.
The document discusses Pakistan's textile industry, which is the 4th largest cotton grower and 3rd largest cotton exporter and consumer. It outlines Pakistan's strengths in the textile industry, including its large spinning sector with modern machinery, vertically integrated production facilities, skilled workforce, and focus on quality, social compliance, environmental standards, and security. The textile industry offers excellent quality cotton, a range of yarns and fabrics, and competitive prices.
pretreatment is the heart of wet processing.Nazmul Islam
Pretreatment is an essential process for textile materials prior to dyeing and printing. The key processes include singeing, desizing, scouring, bleaching, and mercerizing. Singeing burns off protruding fibers to smooth the surface. Desizing removes starch coatings from warp yarns. Scouring makes the fabric highly absorbent by removing natural oils and impurities. Bleaching removes natural colorants to whiten the fabric. Mercerizing improves luster, strength, and dye uptake of cotton fabrics. All pretreatment processes prepare textiles for downstream applications.
This document discusses textile chemical processing and provides details about specific processes including singeing. It begins with an overview of why chemical processing is needed after manufacturing to make fabrics usable for clothing. It then lists common textile processing steps and provides more in-depth explanations of gray inspection, stitching, singeing, and different types of singeing machinery. The key information is that chemical processing makes fabrics softer, more absorbent and removes dirt/color to make them suitable for clothing after loom manufacturing. It also details common steps like inspection, stitching, and singeing methods to smooth fabrics.
Introduction to preparatory processes in textile chemical processingSK RAJU
This document provides an overview of preparatory processes in textile chemical processing. It discusses the stages involved which include grey checking, stamping, mending, shearing, singeing, desizing, scouring, bleaching and optical whitening. Specifically for cotton materials, it describes how singeing removes protruding fibers, desizing removes sizing added during weaving, and scouring removes natural impurities. Bleaching then removes natural colors like yellow, while optical whitening eliminates any remaining yellow hue.
Here are the key points from the interview with the HR manager:
- Promotions are based on merit and employees' performance over time as assessed through the company's performance review/appraisal system.
- Hard work, taking on additional responsibilities, and achieving set objectives can lead to promotions over time. The appraisal process helps identify employees ready for promotions.
- Training and development opportunities are provided to help employees improve their skills and advance in their careers. This includes on-the-job training as well as external courses.
- Vacant higher positions are first offered internally to deserving employees before considering external candidates. This rewards loyalty and allows for internal career growth.
- There is no fixed timeline for promotions,
All steps of preparation of fabric for dyeing.Amit kumar
The document describes various wet processing steps for textiles, including:
- Pretreatment processes like singeing, shearing, and cropping to remove surface fibers and impurities.
- Preparation steps like greige inspection and stitching before wet processing.
- Desizing to remove starch coatings from warp yarns.
- Scouring to remove natural and added impurities using alkalis.
- Bleaching to whiten fibers using oxidizing agents.
The summary highlights the key goal of pretreatment, preparation steps, and common wet processing steps like desizing, scouring, and bleaching that are used to clean and treat textiles.
The textile industry is the largest manufacturing industry in Pakistan, contributing approximately 8.5% to the GDP and employing over 30% of the manufacturing workforce. It faces several challenges including outdated machinery, a lack of research and development, high production costs due to energy shortages, and insufficient worker training. The government and industry associations seek to overcome these issues to strengthen Pakistan's textile export market and take advantage of the country's competitive labor costs.
This document provides information on chemicals used in various textile wet processing stages. It discusses chemicals used in pre-treatment processes like desizing, scouring, bleaching and mercerization. Specific chemicals are listed along with their functions in each process. The document also covers latest specialty chemicals used in pre-treatment like cracking agents, bleach processors and surfactants. Finally, it briefly introduces dyes and dyeing process.
This document provides definitions and background information on various textile terms. It begins with an introduction to textiles and defines key terms like fiber, filament, yarn and fabric. It then discusses the history of natural fibers like cotton, wool and silk. The document also summarizes the development of various man-made fibers like rayon, nylon, acrylic and polyester. It provides timelines of when these fibers were first invented and commercialized. The document is intended to serve as a reference for textile engineering students.
Dirty Laundry - Analyzing Solutions to Fashion's Plastic ProblemGeorgina Annenberg
This document analyzes potential solutions for reducing microfiber pollution from clothing in New York City. It provides background on microplastics and microfibers, explaining that synthetic textiles are a major source and washing machines are unable to capture fibers shed during washing. Potential downstream solutions discussed include add-on filtration for laundromats and integrated filtration in washing machines. Upstream solutions center around developing truly biodegradable fibers. The document recommends policies like microfiber labeling on clothing, educating consumers, and taxing brands to encourage industry changes that can help reduce microfiber pollution.
The textile industry is one of the most polluting industries due to its heavy use of water, energy, and chemicals throughout the production process. It generates large amounts of solid and liquid waste. Life cycle assessment is a systematic approach to evaluate the environmental impacts of a textile product or process from raw material extraction through production, use, and disposal or recycling. This chapter discusses the structure of the global textile industry supply chain and some of the major sources of pollution, including wastewater discharges containing hazardous chemicals that pose threats to human and ecosystem health.
The document discusses various cleaner production technologies that can make textile chemical processing more environmentally friendly. It covers eco-friendly approaches to fiber cultivation, dyeing, finishing, and identifying eco-friendly textiles. Some key points include using bifunctional reactive dyes for lower color in effluent, iron complexes or glucose as alternatives to hydrosulphite in vat dyeing, and bio-finishing of denim which is now well-established.
Analysis of textile industry of PakistanAroosa Tahir
The document provides an overview and analysis of Pakistan's textile industry, which is an important sector that contributes 9.5% to GDP and employs 15 million people. It describes the various textile subsectors including cotton spinning, weaving, made-ups like hosiery and garments, and synthetic fiber manufacturing. The largest subsectors are cotton spinning and ready-made garments. The textile industry faces issues but remains important to Pakistan's economy, contributing over $10 billion in exports annually.
Honeydew is a sticky substance excreted by phloem-feeding insects like aphids and whiteflies that feed on cotton plants. It contains sugars like trehalulose, melezitose, sucrose, fructose and glucose that cause stickiness. The random deposits of honeydew on cotton fibers and bolls makes the fibers sticky. This stickiness causes problems at various stages of cotton processing like ginning, spinning and weaving by clogging machinery. It also lowers fiber and yarn quality. Heat and moisture during processing can further increase stickiness. Effective insect control and reducing humidity during ginning and processing can help manage stickiness.
This document discusses various types of standards and specifications used in the textile and apparel industry. It defines standards as established measures or criteria used for comparison and consistency. It outlines the benefits of standards in facilitating communication, production efficiency, interchangeability and competition. The document then describes different levels of standards including company, industry, government and consensus standards. It also defines and provides examples of different types of standards and specifications such as test methods, specifications, practices and terminologies. Finally, it discusses important organizations related to textile standards development including AATCC, ASTM, ASQ, AAFA, (TC)2, ANSI and ISO.
The document discusses characterization and treatment of effluents from textile chemical processing. It notes that textile effluents are diverse in nature and contain a variety of organic and inorganic materials used in various textile processes. Common effluent treatment methods discussed include primary treatment like screening and neutralization, secondary biological treatment using activated sludge or oxidation ponds, and tertiary treatments like adsorption or reverse osmosis. It emphasizes the importance of waste minimization techniques to reduce pollution at source.
This document discusses the future of industries in Pakistan. It outlines the major industries currently in Pakistan, including textiles, sugar refining, fertilizers, and cement. It then provides a brief history of industrial development from the embryonic stage in 1947 to recent growth in tertiary/service industries. It identifies factors inhibiting growth, such as high costs, environmental challenges, and political instability. The document concludes that Pakistan has shown growth averaging 6% annually but its industrial fate depends on access to cheap materials, an easy tax policy, infrastructure development, political stability, and access to cheap finance. The industrial revolution in Pakistan is still to take place.
The document discusses the process of singeing in textile manufacturing. It covers the objectives of singeing fabrics, suitable materials, common singeing methods like plate, roller and gas singeing. It describes the components and functioning of gas singeing machines. The document also mentions newer techniques like bio-singeing using enzymes and considerations for different fiber types during singeing. Precautions to be taken for effective singeing without damage to fabrics are highlighted.
Softening finishes are important textile chemical treatments that use chemical softeners to give fabrics an agreeable, soft hand by making them supple, pliant, sleek and fluffy with some smoothness, flexibility, better drape and pliability. Softening finishes counteract the embrittlement of fabrics during preparation by removing natural oils and waxes or fiber preparations and replenishing softness through the application of chemical softeners.
The document discusses various auxiliaries and chemicals used in dyeing and finishing processes in the textile industry. It defines textile auxiliaries as chemicals that help processing operations like dyeing and printing by speeding them up or making them more efficient. It provides examples of common auxiliaries like sequestering agents, wetting agents, levelling agents, and discusses their functions. It also discusses chemicals used in specific processes like bleaching, mercerizing, soaping and printing.
This document provides definitions and information about various textile chemicals. It defines acid dyes as a large class of dyes that are applied from acidic solutions to polyamide fibers like nylon. There are many types of acid dyes with a wide variety of properties. The document also provides definitions and brief descriptions of other chemicals used in textiles like acrylic fiber, alginate, ammonia, alum, aniline, and cellulose. It provides technical details on how these chemicals are used for processes like dyeing, printing, and fiber production.
The document summarizes Pakistan's textile industry, which is the largest in the country. Pakistan is the 44th largest cotton grower globally and the 3rd largest cotton exporter. The textile industry includes cotton, yarn, fabric, home textiles, apparel, and made-ups. The industry offers excellent quality cotton, state-of-the-art technology, and competitive prices. It aims to expand further in value-added sectors through new initiatives and compliance with global standards.
The document discusses Pakistan's textile industry, which is the 4th largest cotton grower and 3rd largest cotton exporter and consumer. It outlines Pakistan's strengths in the textile industry, including its large spinning sector with modern machinery, vertically integrated production facilities, skilled workforce, and focus on quality, social compliance, environmental standards, and security. The textile industry offers excellent quality cotton, a range of yarns and fabrics, and competitive prices.
pretreatment is the heart of wet processing.Nazmul Islam
Pretreatment is an essential process for textile materials prior to dyeing and printing. The key processes include singeing, desizing, scouring, bleaching, and mercerizing. Singeing burns off protruding fibers to smooth the surface. Desizing removes starch coatings from warp yarns. Scouring makes the fabric highly absorbent by removing natural oils and impurities. Bleaching removes natural colorants to whiten the fabric. Mercerizing improves luster, strength, and dye uptake of cotton fabrics. All pretreatment processes prepare textiles for downstream applications.
This document discusses textile chemical processing and provides details about specific processes including singeing. It begins with an overview of why chemical processing is needed after manufacturing to make fabrics usable for clothing. It then lists common textile processing steps and provides more in-depth explanations of gray inspection, stitching, singeing, and different types of singeing machinery. The key information is that chemical processing makes fabrics softer, more absorbent and removes dirt/color to make them suitable for clothing after loom manufacturing. It also details common steps like inspection, stitching, and singeing methods to smooth fabrics.
Introduction to preparatory processes in textile chemical processingSK RAJU
This document provides an overview of preparatory processes in textile chemical processing. It discusses the stages involved which include grey checking, stamping, mending, shearing, singeing, desizing, scouring, bleaching and optical whitening. Specifically for cotton materials, it describes how singeing removes protruding fibers, desizing removes sizing added during weaving, and scouring removes natural impurities. Bleaching then removes natural colors like yellow, while optical whitening eliminates any remaining yellow hue.
Here are the key points from the interview with the HR manager:
- Promotions are based on merit and employees' performance over time as assessed through the company's performance review/appraisal system.
- Hard work, taking on additional responsibilities, and achieving set objectives can lead to promotions over time. The appraisal process helps identify employees ready for promotions.
- Training and development opportunities are provided to help employees improve their skills and advance in their careers. This includes on-the-job training as well as external courses.
- Vacant higher positions are first offered internally to deserving employees before considering external candidates. This rewards loyalty and allows for internal career growth.
- There is no fixed timeline for promotions,
All steps of preparation of fabric for dyeing.Amit kumar
The document describes various wet processing steps for textiles, including:
- Pretreatment processes like singeing, shearing, and cropping to remove surface fibers and impurities.
- Preparation steps like greige inspection and stitching before wet processing.
- Desizing to remove starch coatings from warp yarns.
- Scouring to remove natural and added impurities using alkalis.
- Bleaching to whiten fibers using oxidizing agents.
The summary highlights the key goal of pretreatment, preparation steps, and common wet processing steps like desizing, scouring, and bleaching that are used to clean and treat textiles.
The textile industry is the largest manufacturing industry in Pakistan, contributing approximately 8.5% to the GDP and employing over 30% of the manufacturing workforce. It faces several challenges including outdated machinery, a lack of research and development, high production costs due to energy shortages, and insufficient worker training. The government and industry associations seek to overcome these issues to strengthen Pakistan's textile export market and take advantage of the country's competitive labor costs.
This document provides information on chemicals used in various textile wet processing stages. It discusses chemicals used in pre-treatment processes like desizing, scouring, bleaching and mercerization. Specific chemicals are listed along with their functions in each process. The document also covers latest specialty chemicals used in pre-treatment like cracking agents, bleach processors and surfactants. Finally, it briefly introduces dyes and dyeing process.
This document provides definitions and background information on various textile terms. It begins with an introduction to textiles and defines key terms like fiber, filament, yarn and fabric. It then discusses the history of natural fibers like cotton, wool and silk. The document also summarizes the development of various man-made fibers like rayon, nylon, acrylic and polyester. It provides timelines of when these fibers were first invented and commercialized. The document is intended to serve as a reference for textile engineering students.
Dirty Laundry - Analyzing Solutions to Fashion's Plastic ProblemGeorgina Annenberg
This document analyzes potential solutions for reducing microfiber pollution from clothing in New York City. It provides background on microplastics and microfibers, explaining that synthetic textiles are a major source and washing machines are unable to capture fibers shed during washing. Potential downstream solutions discussed include add-on filtration for laundromats and integrated filtration in washing machines. Upstream solutions center around developing truly biodegradable fibers. The document recommends policies like microfiber labeling on clothing, educating consumers, and taxing brands to encourage industry changes that can help reduce microfiber pollution.
The textile industry is one of the most polluting industries due to its heavy use of water, energy, and chemicals throughout the production process. It generates large amounts of solid and liquid waste. Life cycle assessment is a systematic approach to evaluate the environmental impacts of a textile product or process from raw material extraction through production, use, and disposal or recycling. This chapter discusses the structure of the global textile industry supply chain and some of the major sources of pollution, including wastewater discharges containing hazardous chemicals that pose threats to human and ecosystem health.
The document discusses recent developments in textile finishing. It begins by questioning what the latest developments are and whether they should be the same worldwide or consider local needs. It then provides figures on global fiber production and consumption trends. The rest of the document outlines developments in areas like nanofinishing, microencapsulation, clay finishing, and medical textiles. It discusses drivers of development like industry, research, and environmental and societal needs. It emphasizes that development should focus on utilizing local waste and natural materials while reducing energy usage.
The document summarizes a presentation about sustainability in the textile industry. It discusses current challenges around managing environmental, health and safety issues. It introduces the bluesign standard, which takes a holistic approach to sustainability by focusing on optimizing input streams and processes throughout the textile production chain. The standard aims to increase transparency, reduce resource usage, and move the industry towards best available technologies.
The document discusses the implementation of EU Eco-label criteria in the Australian wool supply chain. It notes that wool is an important Australian export but most processing occurs overseas. The EU Eco-label provides criteria for limiting toxic residues and impacts throughout the production process. An Australian company called iZWool worked with its supply chain to adopt the EU Eco-label criteria to access environmentally conscious markets. Challenges included pesticide declarations and changing established procedures, but the EU Eco-label was seen as achievable and a way to produce high performance wool garments for discerning customers.
Indian textile industry perspectives on environmental compliances lectureAdane Nega
The document discusses environmental compliance issues facing the Indian textile industry in the post-WTO regime. It notes that non-tariff barriers like product and process environmental standards will determine market access. Many Indian textile mills fail to meet process environmental norms due to their small scale and lack of infrastructure. Adopting environmental management systems and eco-labels can help textile companies optimize resource use, ensure market acceptability, and enhance competitiveness in the global market. Eco-labels prescribe limits for harmful substances in textiles, and acquiring them demonstrates environmental compliance although expenses are currently high for Indian companies.
Indian textile industry perspectives on environmental compliances lectureAdane Nega
The document discusses various environmental compliance issues facing the Indian textile industry. As trade barriers fall under WTO, companies must focus on quality, R&D, costs and the environment to survive. Non-tariff barriers like product quality norms and environmental regulations will determine market access. Both product-related and process-related environmental issues are important. Many textile mills fail to meet pollution control norms due to lack of infrastructure and support. Adoption of environmental management systems and eco-labels can help textile companies boost market share and ensure sustainable development.
Indian textile industry perspectives on environmental compliances lectureAdane Nega
The document discusses various environmental compliance issues facing the Indian textile industry. As trade barriers fall under WTO, companies must focus on quality, R&D, costs and the environment to survive. Non-tariff barriers like product quality norms and environmental regulations will determine market access. Both product-related and process-related environmental issues are important. Many textile mills fail to meet pollution control norms due to lack of infrastructure and support. Adoption of environmental management systems and eco-labels can help textile companies boost market share and ensure sustainable development.
This document discusses eco-friendly materials and methods used in textile printing and finishing. It focuses on using natural dyes, extracts, and enzymes instead of hazardous chemicals. Digital printing is highlighted as a clean technology that minimizes water and energy usage compared to conventional printing. Natural product finishes provide antimicrobial and UV protection properties. Plasma treatment allows dry, chemical-free surface modification. Immobilized enzymes are emphasized as sustainable biocatalysts for textile processing.
Identifying Environmental Risk Hot Spots in the Apparel Supply Chain FINALStefan Kuzmanovski
This document analyzes the environmental risks and hotspots in the supply chain for cotton t-shirts manufactured in Macedonia by a vertically integrated supplier for ACSK Clothing. It identifies electricity consumption during knitting and yarn spinning as the largest contributors to climate change impacts. It also finds cotton cultivation causes significant ecosystem degradation by converting natural land. The document recommends increasing education on energy efficiency and exploring on-site renewable energy and combined heat and power. It also suggests promoting recycled cotton and less resource-intensive fibers to reduce new cotton cultivation.
The document discusses global trends in man-made fibers (MMF) production and consumption. It notes that MMF production is growing while cotton output is stagnating. It then summarizes MMF production and consumption levels in various countries including Pakistan. Barriers to higher MMF consumption in Pakistan include preference for cotton, economic factors, and lack of technical skills. It outlines initiatives by China, India, Korea, and Japan to enhance MMF usage through technology development, new product development, and market cultivation.
Bluesign Innovation For Extremes 06.05.2009Mary Rose
- The document discusses the bluesign standard, which aims to create transparency and sustainability across the textile industry supply chain by focusing on reducing the environmental impact of input streams and optimizing resource use.
- The bluesign standard establishes criteria for approving chemical and material inputs and provides tools to help textile manufacturers select approved materials, track performance, and implement best practices.
- Adopting the bluesign standard helps manufacturers control costs by reducing resource use while ensuring product safety and compliance with regulations.
International Dyer - sustainability articlePaul Cowell
The document discusses the history and development of textile dyeing, from early natural dyes to modern synthetic dyes. It outlines key events like the accidental discovery of mauveine, the first synthetic dye, in 1856. More recently, environmental groups and regulations have increased focus on sustainability in the dyeing process. The textile industry has responded with various initiatives and assessment systems to reduce chemical hazards and wastewater pollution. Leading brands and chemical companies are working to develop greener dyeing technologies and assessment tools to help textile manufacturers improve their sustainability.
Spirit Level M-Level ECO
Bamboo spirit level – strong, durable, tough and sustainable
Particularly suitable for sensitive surfaces such as window sills, marble, granite, wood, etc.
Despite being categorized as a “Wood Level”, bamboo is actually grass, not wood
Bamboo is the fastest growing plant on earth, with a tensile strength comparable to steel
The product is available in the following lengths:
M-Level 60 ECO 60 cm (Art-No. 660000)
M-Level 120 ECO 120 cm (Art-No. 660010)
High level overview of Sustainability in Fashion covering Emissions by Value Chain, industry trackers, Circularity, LCA, Best practice examples by Value Chain, Status by Brands, Luxury and Fast Fashion and lastly business benefits of adopting sustainability practices!
This document discusses recent technical developments in wet processing for the textile industry. It covers innovations in dyes and chemicals, preparation, dyeing, printing, finishing, digital printing, biotechnology, nanotechnology, and ultrasonic textile processing. New environmentally friendly products are highlighted from companies like Archroma, Americhem, HeiQ Materials, and Novozymes. Machinery innovations from Benninger focus on reducing the carbon footprint and environmental impact of wet processing.
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Optimizing Post Remediation Groundwater Performance with Enhanced Microbiolog...Joshua Orris
Results of geophysics and pneumatic injection pilot tests during 2003 – 2007 yielded significant positive results for injection delivery design and contaminant mass treatment, resulting in permanent shut-down of an existing groundwater Pump & Treat system.
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Increasing urbanization, rural–urban migration, rising standards of living, and rapid development associated with population growth have resulted in increased solid waste generation by industrial, domestic and other activities in Nairobi City. It has been noted in other contexts too that increasing population, changing consumption patterns, economic development, changing income, urbanization and industrialization all contribute to the increased generation of waste.
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The status.
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Solid waste generation – collection – dumping
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• Separation – recycling – marketing.
• Open dumpsite dandora dump site through public education on source separation of waste, of which the situation can be reversed.
• Nairobi is one of the C40 cities in this respect , various actors in the solid waste management space have adopted a variety of technologies to reduce short lived climate pollutants including source separation , recycling , marketing of the recycled products.
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Good practices:
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Practices and activities of these actor groups are viewed as innovations with the potential to change the way solid waste is handled.
CHALLENGES:
• Resource Allocation.
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Chemical regulation & opportunities for EcoDesign - Case studies in textile Supply Chain - February 2014
1. Chemical regulations & opportunities for Ecodesign : Case studies in the textile supply chain
P. Drapeau & B. Kosinski February 2014
2. 1. EcoMundo
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
3. Triple expertise
Ecodesign expertise
Software expertise
2001
2007
Projects
EDIT
ECODIS
EcoMundo
is launched
Regulatory
expertise
Multidisciplinary team
35 engineers of which 9 PhD
for innovative solutions
International presence
Paris & Vancouver
2014
Supply Chain specialist
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
4. 2. Services
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
5. Regulatory expertise
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
6. 3. Software
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
7. The ‘REACH Factory’ suite
EcoMundo has designed several innovative web tools
Workers safety
Regulated use of substances
GHS / CLP compliance
SVHC Traceability
Use cases collection
Safety Data Sheet Management
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
8. 4. Ecodesign
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
9. Eco-design integrated supply chain
Our eco-design expertise
•Environmental Assessment (LCA / SLCA)
•Data collection and LCA database modeling
•Software development (Simplified LCA tools)
•Environmental innovation
Worgroups: REACH SVHC and, LCA, eco-innovation ...
40 members: multi-sectoral industrial club
Objective: Develop a non-competitive research in the field of eco-design of products and recycling
EcoMundo participated in the editing of the guide "Life Cycle Analysis - A tool for quantifying environmental service of your strategy." www.clustercreer.eu
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
10. CORINE platform
Web solution
Collaborative tools involving supply chain actors
Technical, environmental and economical data
Educational and intuitive approach
ILCD database format
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
11. 5. Textile case studies
Introduction
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
12. Plan
Introduction
•Consumer request
•Market trends
•Forewords on chemicals and regulations
•Thinking about EU ?
•Life cycle thinking
3 cases of products sold and used in Europe
•Cotton T-shirt from India
•Polyester Sweat from Europe
•Cashmere coat from China
Conclusion : how to go forward ?
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
13. Consumer expectations
71%
?
ready to pay more for more sustainable products
56%
asking more information on manufacture production
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February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
14. Market trends
Organic cotton
World market: from 6,8 billions $ in
2011 to 8,9 in 2012 +31 %
World production: from 151,000 tons
to 139,000 (2011-2012) -8%
=> Demand higher than supply
European Ecolabel
From 340 to 420 products from 2011 to 2012 +22%
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
15. Forewords on Chemicals and regulations
Cloth
Manufacture
End of life
Chemicals are extensively and growingly used in textiles (+20% chemical fibres since 1991) and at nearly every stage of the product life cycle.
42,8
26,4
3,5
1,2
World production (MT)
Synthetic
chemical fibres
Natural
vegetal fibres
Artificial
chemical fibres
Natural animal
fibres
•It is difficult to know which hazardous chemicals, if any, are present in textiles because supply chains are long, complex and heterogeneous (lots of SMEs)
•There is no unified legislation at the EU level.
•Legislations throughout the world do not match.
•There are however voluntary labels and retrictions.
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
16. Thinking about EU ?
TEXTILES
REACH (1907/2006) and CLP (1272/2008) regulations
Labelling and marking of fibres Regulation 1007/2011
Etc.
Biocides Products Regulation 528/2012
General Product Safety Directive 2001/95
Industrial Emissions Directive 2010/75
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
17. Life cycle thinking
Main steps of a
textile product
Fibres
Cloth
Manufacture
Use
End of life
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P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
18. 5. Textile case studies
3 examples
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
19. Case studies
Case
1
Cotton T-shirt
2
Polyester Sweat
3
Cashmere Coat
Nature
Textile production
Natural vegetal Fibres
36%
26,4 Mt
Chemical Fibres
62%
42,8 Mt
(artificial Fibres included)
Natural animal Fibres
2%
1,2 Mt
Main origin
1.China
2.India
1.Asia
2.Europe
1.China
2.Mongolia
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February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
20. Case 1 : Cotton T-shirt
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February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
21. Case 1 : Cotton T-shirt
Fibres & Cloth - India
Cotton plantation & Washing Fibres
Weaving & Fashioning
Chemical regulation
-Insecticides Act, 1968 and Insecticides Rules, 1971 -> list of pesticides banned for manufacture, import and use
-Ban of Azo dyes chemicals since June 23, 1997.
EcoDesign
-No pesticide class 1 (ex : Endosulfan)
-Low hydric stress region
-Low water use
-Install wastewater treatment or select supplier having one
-Low sizing use
-Install counter flow washing systems
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February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
22. Case 1 : Cotton T-shirt
Manufacture, Use & End of life - Europe
Finishing and distribution
Use and end of life
EcoDesign
-Loss reduction and reuse
-Select low weight packaging with recycled material
-Low temperature washing product
-Assess product environmental performance
-Best practice advice to users
-Recovery service
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Chemical regulation
-Art. 7,1, 7,2 and 33 of REACH about substances in articles
-Art. 58 of the BPR on treated articles
-Application of the GPSD. Eg: Dimethyl fumarate (in 2009)
-Fibres labelling regulation – new fibres (art. 6 & annex II)
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
23. Case 2 : Polyester sweat
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Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
24. Case 2 : Polyester sweat
Fibres - Europe
Petrol extraction
Fibre synthesis
EcoDesign
-Use recycled Fibres
-Reduce VOC emissions during spinning
-Reduce Antimony content
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Chemical regulation
-Registration under REACH – art.6.3
-IED (Industrial Emissions directive) : it includes the IPPC (directive on integrated Pollution Prevention and Control)
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
25. Case 2 : Polyester sweat
Cloth – Europe
Fashioning
Distribution, use and end of life
EcoDesign
-No use of halogenated dye carriers
-No use of phtalate or PVC
-(…)
-Recycling service (use mono- materials)
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Chemical regulation - Application of annex XIV and XVII of REACH as well as the candidate list.
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
26. Case 3 : Cashmere Coat
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February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
27. Case 3 : Cashmere Coat
Fibres - China
Breeding
Knitting
Chemical regulation
-Decree 591 (2011) : Regulations on Safe Management of Hazardous Chemicals
EcoDesign
-No desertification area
-Washing without organochlorines but with biodegradable detergent
-No mineral oil (with hydrocarbons) prefer vegetal oils
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February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
28. Case 3 : Cashmere Coat
Cloth - Europe
Fashioning
Distribution, use and end of life
Chemical regulation
-Art. 7,1, 7,2 and 33 of REACH about substances in articles
-Art. 58 of the BPR on treated articles
-Application of the GPSD. Eg: Dimethyl fumarate (in 2009)
-Fibres labelling regulation – new fibres (art. 6 & annex II)
EcoDesign
-For small productions, chose transfer or numerical printing
-(…)
-No change after washing
-Repair service
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February 2014
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Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
29. 5. Textile case studies
How to go forward ?
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
30. The case of chemicals (1)
Why going forward with chemical regulations ?
Anticipate clients’ questions
Anticipate bans
Protect your own legal responsibility and avoid penalties
Take opportunity to ensure higher quality
Preserve your brand image
Innovate
Use it as a marketing opportunity
Preserve your supply flow
Protect the health of your employees
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
31. The case of chemicals (2)
How to go forward with the traceability of substances ?
A difficulty : as often, the persons who are in the best position to provide the information at the best cost (i.e. at the lesser cost) are the most remoted from the pressure of clients and do not want to do so. Two strategies exist to retrieve information :
Article
Materials
Substances
Top- bottom approach
Article
Materials
Substances
Bottom-up approach
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
32. How to go forward ?
Fibres
Cloth
Manufacture
Use
End of life
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Main steps of a
textile product
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
33. How to go forward ?
Case 1 : frugality
•Fibres of recycled cotton
•Use of modular apparel
•Second hand market
The original Versalette by Seamly.co
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
34. How to go forward ?
Case 2 : technology
•Trying apparel before use
•Production with no loss and avoiding fad
•Use of human mechanical energy to produce electricity
•Self-cleaning apparel
•No ironing needs
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
35. How to go forward ?
Case 3 : fashion rental service
•Apparel location program
•Developing local shops
•Integrated repair chain
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
36. www.ecomundo.eu
Contact Head office Paris, FRANCE 195, rue Jean-Jacques Rousseau 92130 Issy-les-Moulineaux FRANCE Téléphone : +33 1 83 64 20 54 Email : contact@ecomundo.eu
37. Annexes
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
38. Annex I – substances restricted under REACH and used in textiles
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
39. Annex I – substances restricted under REACH and used in textiles
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
40. Annex I – substances restricted under REACH and used in textiles
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
41. Annex I – substances restricted under REACH and used in textiles
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
42. Annex I – substances restricted under REACH and used in textiles
February 2014 P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
43. Annex I – substances restricted under REACH and used in textiles
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain
44. Annex I – substances restricted under REACH and used in textiles
February 2014
P. Drapeau & B. Kosinski
Chemical regulations & opportunities for Ecodesign: Case studies in the textile supply chain