Umfang:
1 Online-Ressource (471 Seiten)
ISBN:
9783030220181
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Description based on publisher supplied metadata and other sources
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Intro -- Foreword by Dr. Maria Flachsbarth -- Foreword by Mauro Scalia -- Foreword by Karla Magruder -- Acknowledgements -- About This Book -- Contents -- Contributors -- Part IDesigning Sustainable Fibers and Fabrics -- 1 Manmade Cellulosic Fibers (MMCF)-A Historical Introduction and Existing Solutions to a More Sustainable Production -- 1.1 A Historical Overview-Manmade Cellulosic Fibers -- 1.2 From Hard Wood to Soft Fiber-The Chemical Transformation Process -- 1.2.1 Feedstock Assessment-The Pros and Cons of Feedstock Used for the Production of MMCF -- 1.2.2 The First Step-The Pulping Processes -- 1.2.3 The Production Process of Manmade Cellulosic Fibers or MMCF-Viscose/Rayon, Modal, Lyocell, Acetate and Cupro -- 1.3 The Viscose Fiber Manufacturing Process -- 1.4 The Lyocell Manufacturing Process-A Different Fiber -- 1.5 The Acetate Fiber Production Process -- 1.6 Cupro Fiber Production-The Bemberg Process -- 1.7 Environmental Impact-MMCF in the Spotlight -- 1.8 The Characteristics of Different MMCF Fibers -- 1.9 Recent Innovations for a More Safe and Sustainable Production of MMCF -- 1.9.1 Feedstock Alternatives and Recycling Options -- 1.9.2 The Use of Textiles as Feedstock for MMCF Production -- 1.9.3 Cotton Linter as Feedstock -- 1.9.4 Other Alternative Feedstock -- 1.9.5 Processing Technology Alternatives -- 1.10 Conclusions and Outlook for Manmade Cellulosic Fiber -- References -- 2 Natural Recycled Super-Fibers: An Overview of a New Innovation to Recycle Cotton -- 2.1 Introduction -- 2.2 Scalable Sustainable Technology -- 2.2.1 Fiber Welding Technology -- 2.2.2 Fiber Welding Platform Breadth -- 2.3 Summary -- References -- 3 Circular Design as a Key Driver for Sustainability in Fashion and Textiles -- 3.1 Introduction -- 3.2 The Need for a Circular Fashion System -- 3.3 Selected Elements of a Circular Textiles and Fashion System
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3.3.1 Design for Circularity -- 3.3.2 Material Cyclability -- 3.3.3 Design for Mono-Material -- 3.3.4 Design for Disassembly -- 3.3.5 Design for Longevity -- 3.3.6 Design for Functional Durability -- 3.3.7 Design for Emotional Durability -- 3.4 Extended Product Life and Recovering Resources -- 3.4.1 Circularity.ID -- 3.4.2 Reverse Supply Chain Logistics -- 3.5 Conclusion -- References -- 4 Cruelty-Free Silk and Guilt-Free Fashion -- 4.1 Introduction -- 4.2 Non-violent Silk-Guilt-Free Fashion -- 4.3 GOTS-Certified Environmentally Friendly, Gentle Digital Printing -- 4.4 A Silk Project Changes Its Ecological and Social Environment -- 4.5 Conclusion -- References -- Part IISustainable Sourcing in the Textile and Fashion Value Chain -- 5 Buying Practices in the Textile and Fashion Industry: Past, Present and Future -- 5.1 Introduction -- 5.2 Purchasing Approaches in the Textile and Garment Sector -- 5.3 Implementation Gap for Sustainable Textile and Garment Procurement -- 5.4 Discussion and Propositions -- 5.5 Conclusions -- References -- 6 Sustainable Chemistry-Path and Goal for a More Sustainable Textile Sector -- 6.1 Introduction -- 6.2 Use and Management of Chemicals Within the Textile Sector -- 6.2.1 Types and Volumes of Chemicals and Processes Involving Chemicals -- 6.2.2 Release of Chemicals into the Environment and Exposure Routes -- 6.2.3 Chemical Risk Management in the Textile Sector as Important Sustainability Challenge -- 6.3 Green Chemistry and Sustainable Chemistry -- 6.3.1 The Concept of Green Chemistry -- 6.3.2 From Green Chemistry to Sustainable Chemistry -- 6.3.3 The Concept of Sustainable Chemistry -- 6.4 Unlocking the Potential of Sustainable Chemistry for a More Sustainable Textile Sector -- 6.4.1 Systems Thinking Approach -- 6.4.2 Strong Normative Roots -- 6.4.3 Input Prevention -- 6.4.4 Stakeholder Focus
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6.5 Examples and Practices of Sustainable Chemistry Within the Textile Sector -- 6.5.1 New Business Models-Chemical Leasing -- 6.5.2 Process Optimisation/Reduction-Nanocellulose-Enhanced Dyeing (Kim et al. 2017) -- 6.5.3 Alternative Solutions-Self-cleaning Textiles Enhanced with Nano-Particles (Busi et al. 2016) -- 6.6 Summary and Conclusion -- References -- 7 Input-Oriented Chemicals Management Along the Textile Supply Chain -- 7.1 What Does Chemicals Management Mean? -- 7.2 Textile's Supply Chain -- 7.3 Types and Quantity of Chemicals -- 7.4 How Chemicals Are Applied -- 7.5 Instruments for Chemicals Management -- 7.5.1 Globally Harmonized System (GHS) -- 7.5.2 Legal Requirements -- 7.5.3 Restricted Substances List (RSL) -- 7.5.4 Manufacturing Restricted Substances List (MRSL) -- 7.5.5 Testing on Impurities -- 7.5.6 NGO Campaigns -- 7.5.7 System-Oriented Approach -- 7.6 Components of Good Chemicals Management -- 7.6.1 Chemicals Supplier -- 7.6.2 Textile Finisher -- 7.6.3 Brand -- 7.7 Outlook -- Literature -- Part IIISustainable Production in the Textile and Fashion Value Chain -- 8 Textile Industry Effluent -- 8.1 Introduction -- 8.2 Current Sewage Situation of the Textile Industry in Germany -- 8.2.1 General Information -- 8.2.2 German Legislation for Wastewater -- 8.2.3 Status Quo of Indirect and Direct Effluent Discharge in Germany -- 8.2.4 Effluent Characteristics of the Textile Finishing Industry -- 8.3 Overview of Measures for the Reduction of Wastewater Pollution -- 8.4 Methods of Wastewater Treatment -- 8.4.1 Compensation Procedures -- 8.4.2 Separating and Concentrating Processes -- 8.4.3 Substance-Destroying Processes -- 8.4.4 Combined Wastewater Treatment Methods -- 8.5 Methods for Wastewater Recycling, Recovery of Valuable Substances and Energy -- 8.5.1 General Information -- 8.5.2 Recycling of Mixed Wastewater
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8.5.3 Recycling of Partial Wastewater -- 8.5.4 Reuse of Slightly Contaminated Wash Liquors (Bleaching Liquor Recycling) -- 8.5.5 Textile Wet Processing from Standing Baths -- 8.6 Production-Integrated Measures for the Prevention and Minimization of Dyestuffs -- Appendix -- Practical Textile Wastewater Treatment Methods via Precipitation, Flocculation, and Reduction -- Sources -- 9 Wastewater Treatment of a Denim Washing Plant by Using Waste Pumice Stones to Recycle Wastewater and Reuse -- 9.1 Introduction -- 9.2 The Washing Processes of Denim Garments and Their Basic Effects on Effluents -- 9.3 The Characteristics of Denim Washing Effluents -- 9.3.1 Physical Characteristics of Denim Washing Effluents -- 9.3.2 Chemical Characteristics of Denim Washing Effluents -- 9.3.3 Biological Characteristics of Denim Washing Effluents -- 9.4 The Basic Effluent Treatment Processes -- 9.4.1 Physical Effluent Treatments -- 9.4.2 Chemical Effluent Treatments -- 9.4.3 Biological Effluent Treatments -- 9.5 Adsorption -- 9.6 Pumice Stone -- 9.7 Experimental -- 9.7.1 Materials -- 9.7.2 Method -- 9.7.3 Findings -- 9.8 Conclusion -- References -- 10 Greening the Blues-How Jeans Have Stood the Test of Time by Adapting Innovative, Forward-Thinking and Sustainable Production Practices -- 10.1 Introduction -- 10.2 Fibers and Fabrics -- 10.3 Indigo Yarn Dyeing -- 10.4 Finishing -- 10.5 User Phase and End-of-Life Solutions -- 10.6 Forecast and Future Trends -- References -- Part IVSustainable End-of-Life Concepts and Strategies in the Textile and Fashion Industry -- 11 Textile Waste Management and Processing -- 11.1 Introduction -- 11.2 Presentation of the Initial Situation -- 11.3 Textile Recycling -- 11.3.1 Web Formation by the Carding Process -- 11.3.2 Aerodynamic Web Formation -- 11.4 Research on Textile Recycling -- 11.5 Summary and Outlook -- References
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12 Achieving a Circular Textiles Economy Facilitated by Innovative Technology -- 12.1 Introduction -- 12.2 Methodology and Concept -- 12.3 Material Flow -- 12.3.1 Virgin and Recycled Polyester Reviewed -- 12.4 Challenges in Recycling Polyester -- 12.5 Current Situation of Post-consumer Garment Collection and Recycling -- 12.5.1 Classifying Waste -- 12.5.2 Managing Post-consumer Waste -- 12.5.3 From Consumer to Recycle/Reuse: Current Models -- 12.5.4 Evaluation of the Current System -- 12.6 Future Innovations-Closing the Loop for the Textile and Fashion Industry -- 12.6.1 New Targets for Post-consumer Textile Waste Collection in Europe -- 12.6.2 New Approaches to Improve Recyclability-From Eco-design to Innovative Collection Schemes -- 12.7 Innovation in Recycling Technologies: How Fibre Types Affects the 'Take-Make-Dispose' Linear Approach -- 12.7.1 Polyester: Emerging Chemical Recycling Technologies -- 12.7.2 Polyamide: Existing Examples -- 12.7.3 Cotton: Existing Examples -- 12.8 Brand Perspectives -- 12.9 Discussion and Conclusion -- References -- 13 Consumer Engagement and Roles for Sustainable Textiles -- 13.1 Introduction -- 13.2 Overconsumption -- 13.3 Durable Textiles -- 13.4 Product Care Practices -- 13.5 Product Life Span -- 13.6 Reuse -- 13.7 Recycling -- 13.8 Conclusion -- References -- Part VSustainable Business Models and Communication Strategies -- 14 Labels in the Textile and Fashion Industry: Communicating Sustainability to Effect Sustainable Consumption -- 14.1 Introduction -- 14.2 Theoretical Approaches and Rationale for Implementing Labelling Schemes -- 14.3 Overview of Textile and Fashion Labelling Schemes -- 14.4 Impacts of Labels-Empirical Evidence in the Textile and Fashion Industry -- 14.5 Discussion and Conclusion -- References -- 15 Enhancing Fashion Sustainability Through a Data Systemic Approach -- 15.1 Introduction
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15.2 Case Study: Current Trend in Fashion Data
Weitere Ausg.:
Erscheint auch als Druck-Ausgabe Matthes, André Sustainable Textile and Fashion Value Chains Cham : Springer International Publishing AG,c2020 ISBN 9783030220174
Sprache:
Englisch
Schlagwort(e):
Bekleidungswirtschaft
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Bekleidungsindustrie
;
Modebranche
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Nachhaltigkeit
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Aufsatzsammlung
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