Sustainability

Sustainability is a key focus both within the plastics industry and at the K trade fair in Düsseldorf. We highlight important topics for you, such as the circular economy, recycling and climate protection.

Illustration: Blau-grünes Recycling-Symbol um eine Erde, mit Blättern und Papier, auf hellem Hintergrund; Nachhaltigkeit und Umweltschutz.

Results (192)

  • Intelligent Sorting for genuine Recycling

    Sesotec makes the Plastics Industry more efficient and sustainable Exclusively for K-Mag 13.08.2025 Pure materials, precise separation, data-based processes: Sesotec GmbH is bringing several innovations to K 2025 that will take plastics processing and recycling to a new level. In this interview, Dietmar Dieing , Head of Sales & Administration East, talks about AI-based sorting technologies, the importance of data platforms, and the role of partnership-based collaboration in a functioning circular economy. Foreign object detection, sorting technology, and material analysis: Sesotec's range of services What does your company stand for—and what makes your product or service portfolio particularly special? Dietmar Dieing: Sesotec stands for intelligent solutions for foreign object detection, material analysis, and sorting along the entire plastics value chain—from plastics manufacturers to recyclers. Our portfolio includes high-precision metal detection systems, innovative sorting machines, and modern analysis and material management systems. What sets us apart is our contribution to the circular economy: we help our customers ensure quality and purity – and thus keep recyclable materials in circulation.KI in der Kunststoffsortierung: Innovationen zur K 2025 AI in plastics sorting: Innovations at K 2025 What topic or innovation will you be bringing to K 2025 – and why is it relevant to the industry? Dieing: Our focus at K 2025 will be on new solutions for intelligent material detection and sorting – based on AI-supported detection algorithms and multi-sensor technology. With this technology, we enable even more precise separation of plastics according to polymer types, colors, and parameters such as material moisture and temperature—a decisive lever for increasing recyclate quality and enabling the use of recycled material in demanding applications. We are also introducing our new data platform “Core.” It enables us to let machines learn decentrally and keep all systems up to date worldwide. Prepare to be amazed! At Sesotec, the focus is not only on our products—we consistently align our actions with the needs of our customers. Qualität, Nachhaltigkeit und Effizienz im Recycling vereinen The plastics and rubber industry of the future will be circular in its organization, data-driven in its management, and a key driver of sustainable materials management. Dietmar Dieing, Head of Sales & Administration East Sesotec GmbH Combining quality, sustainability, and efficiency in recycling What would you like to discuss with visitors at K 2025 – what is particularly important to you? Dieing: We want to talk to visitors about specific challenges in plastics recycling – such as the tension between material quality, sustainability goals, and economic efficiency. We are particularly interested in the question of how we can work together to enable a true circular economy – not only technologically, but also through partnership-based cooperation along the entire value chain. Enabling the circular economy together What do you expect from your participation in K 2025 – and what are you personally most looking forward to? Dieing: We expect intensive exchanges with customers, partners, and interested parties who want to work with us to develop solutions for a sustainable plastics industry. Personally, we are looking forward to new ideas, international contacts – and to demonstrating our technologies live in action and talking to users about concrete improvements in their processes. Our focus is not only on the ecological perspective, but also on the economic perspective – because sustainable solutions must also pay off for our customers in terms of efficiency and profitability. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates The portrait was generated by AI. Editor: Simone Ernst | K-Mag Simone Ernst has been writing for various industry magazines for eighteen years and has been part of the K-Mag editorial team since 2024. She is particularly interested in topics such as plastics recycling, sustainability in the plastics industry and career paths in the plastics and rubber industry. At a glance In an interview, Dietmar Dieing from Sesotec GmbH explains how AI-supported sorting technologies and the “Core” data platform will be presented at K 2025 with the aim of separating material flows more efficiently, increasing recyclate quality, and enabling a truly circular economy. More around Sustainability

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  • Tyre Recycling: How Valuable Resources Can Be Kept in the Loop

    Possibilities for Reuse, Regulatory Challenges and the Importance of Artificial Intelligence Exclusively for K-Mag Billions of used tyres are produced worldwide every year – their environmentally friendly disposal and recycling are of crucial importance. Copyright: Sida – stock.adobe.com 04.09.2024 Around 13.5 million tonnes of waste tyres are generated worldwide every year. This number is steadily increasing with the growing production and use of vehicles. While a significant portion of these tyres is already recycled or reused, there are also challenges such as current regulations. Nevertheless, tyre recycling remains an indispensable step towards reducing environmental pollution and an essential component of a circular economy. Relevance and Benefits of Tyre Recycling According to the European Tyre & Rubber Manufacturers’ Association (ETRMA), around 92% of waste tyres in Europe are recycled or reused, while in the USA the recycling rate is about 81%. Tyre recycling offers a variety of ecological, economic, and social benefits: 1. Environmental and Climate Protection Reduction in Raw Material Consumption: Waste tyres contain valuable materials such as rubber, steel, and textile fibres that can be recovered and reused through recycling. This reduces the need for new raw materials and conserves natural resources. Reduction of Landfill Waste: Waste tyres that are not recycled often end up in landfills, where they can cause significant environmental problems. Recycling prevents these waste accumulations and the associated environmental risks. Reduction of CO 2 Emissions: The production of new tyres is energy-intensive and generates CO 2 Retreading and recycling of waste tyres consume less energy and thus contribute to reducing the CO 2 footprint. Circular Economy: Tyre recycling is a central component of the circular economy, which aims to minimise waste and maximise the reuse of materials. By recycling waste tyres, the lifecycle of materials is extended and the amount of waste is reduced. Retreaded tyres produce over 63% less CO2 emissions than new tyres. 2. Economic Benefits Cost Efficiency: Retreading tyres is generally cheaper than producing new tyres. This offers economic advantages for both consumers and businesses. Job Creation: The tyre recycling industry creates jobs in the collection, processing, and reuse sectors. This promotes economic development and provides employment opportunities. 3. Promotion of Innovation Technological Developments: Tyre recycling drives research and development of new technologies that improve the efficiency and effectiveness of recycling processes. Artificial intelligence, automated systems, and new material technologies are just a few examples of innovations emerging in this field. Sustainable Products: Recycled materials from waste tyres are used in a variety of products, from new tyres to flooring to sports surfaces and other applications. This promotes the development of sustainable products and markets. Methods of Tyre Recycling Tyre recycling is an important process to reduce environmental impact and recover valuable resources. There are various methods of tyre recycling, which can be divided into mechanical, thermal, and chemical processes. Rubber granulate obtained from used tyres serves as a raw material for various industrial applications, from floor coverings to new products. Copyright: larisabozhikova – stock.adobe.com Mechanical Recycling Mechanical recycling of waste tyres involves shredding and pulverisation. During shredding, waste tyres are mechanically broken down into several steps, resulting in different granulate sizes that can be further processed depending on the application. The granulate is often used in asphalt mixtures, flooring, or sports surfaces. Another step in mechanical recycling is pulverisation, where rubber powder is produced, which can be used to manufacture new rubber products or as an additive in various industries. The advantage of mechanical recycling lies in the direct reuse of the material without chemical alteration, resulting in lower energy consumption and reduced environmental impact. Chemical Recycling Chemical recycling of waste tyres primarily involves devulcanisation. Devulcanisation is a chemical process that breaks the sulphur bonds in vulcanised rubber, making the rubber soft and malleable again and allowing it to be used to produce new rubber products. Recycled rubber from devulcanisation can be used in tyre production, for rubber mats, seals, or other products. The advantage of chemical recycling lies in the ability to alter the material at a molecular level, allowing the creation of new products with specific properties. Additionally, devulcanisation reduces the need for new raw materials and lowers environmental impact. Thermal Recycling Thermal recycling includes processes such as pyrolysis and combustion in cement plants. In pyrolysis, waste tyres are heated in the absence of oxygen, breaking them down into their components: pyrolysis oil, pyrolysis gas, carbon black, and steel wire. Pyrolysis oil can serve as a substitute for fossil fuels, pyrolysis gas can be used as an energy source, carbon black can be used as a filler in tyre production or other applications, and steel wire can be recycled. Pyrolysis allows for the recovery of valuable raw materials and helps reduce the use of fossil fuels. Another thermal process is combustion in cement plants, where waste tyres are used as a substitute fuel. The high calorific value of tyres contributes to the energy supply of the cement production process, while the mineral components are used as raw materials in the cement product. This process reduces the need for fossil fuels and efficiently utilises the energy properties of waste tyres. These various methods of tyre recycling help conserve resources, reduce environmental burden, and return valuable materials to the production cycle. The Second Life of Tyres Rubber granules made from recycled old tyres are often used for sports surfaces and playgrounds. Copyright: The Builder – stock.adobe.com Recycled materials from waste tyres find diverse applications, which are both ecologically and economically significant. Rubber granulate is used in asphalt mixtures to improve the flexibility and durability of road surfaces and is found in soundproofing panels to reduce noise pollution. On sports and playgrounds, it provides a shock-absorbing layer that minimises the risk of injury, while running tracks in sports facilities benefit from the elastic and durable properties. In industrial environments and gyms, robust, non-slip flooring made from recycled rubber is used. Moreover, recycled rubber is used in many everyday products such as floor mats, shoe soles, and seals. Creative upcycling: old tyres find a new use in the garden and help to reduce waste. Copyright: Arkanto – stock.adobe.com Upcycling or creative reuse of waste tyres ranges from construction and decorative materials to playground equipment and garden furniture. Such innovative applications help reduce waste and raise awareness about recycling. In retreading , the worn tread of a tyre is removed and replaced with a new rubber layer, significantly extending the tyre's lifespan. This sustainable method is particularly common in the commercial vehicle industry. One in three damaged car tyres can remain in use safely for a long time with professional repairs. Support by Artificial Intelligence in Tyre Retreading Modern technologies such as artificial intelligence optimise the processes in used tyre recycling by increasing efficiency and quality. Note: Image created with the help of OpenAI DALL-E Artificial intelligence (AI) can provide significant advantages in various areas of tyre retreading, improving the efficiency and quality of processes. Here are some specific applications: 1. Automated Inspection Problem: Inspecting waste tyres to determine their suitability for retreading is a labour-intensive and time-consuming process that has traditionally been carried out manually. How AI Can Help: AI-powered image processing systems can automatically inspect tyres for damage and wear. These systems use machine learning to detect patterns and anomalies that indicate defects. This increases the accuracy and speed of inspection and reduces human error. 2. Optimisation of Material Use Problem: The amount of material used in retreading must be carefully calculated to conserve resources and minimise costs. How AI Can Help: AI algorithms can calculate the optimal amount of new rubber required for tyre retreading. They consider the specific characteristics of each tyre, thus minimising material consumption and waste. 3. Improvement of Production Processes Problem: Production processes in retreading are complex and require precise control to ensure high quality. How AI Can Help: AI can be integrated into production facilities to monitor and adjust processes in real-time. This includes controlling temperature and pressure conditions during vulcanisation and adjusting production parameters based on continuous data analysis. This improves the consistency and quality of retreaded tyres. 4. Predictive Maintenance Problem: Unplanned machine downtime can lead to significant production delays and costs. How AI Can Help: Using AI for predictive maintenance, potential machine problems can be detected early. Sensors collect data on the condition of the machines, and AI models analyse this data to predict maintenance needs before failures occur. 5. Quality Control Problem: Manual quality control can be inconsistent and time-consuming. How AI Can Help: AI-powered quality control systems can inspect retreaded tyres for various quality criteria, such as the uniformity of the new tread and structural integrity. These systems offer higher precision and consistency than manual inspections. Integrating artificial intelligence into tyre retreading offers numerous opportunities to increase efficiency, reduce costs, and improve product quality. This not only contributes to the economic viability of retreading processes but also supports sustainability goals through more efficient use of resources and waste reduction. Regulatory Challenges in Tyre Recycling Regulatory challenges in the EU are influencing the used tyre recycling industry and require clear guidelines to promote sustainability. Copyright: Sergii Figurnyi – stock.adobe.com Tyre recycling faces significant regulatory challenges that affect the efficiency and implementation of recycling processes. A central issue is the contradictory EU regulations, particularly regarding sustainable public procurement. The EU Taxonomy Regulation, which aims to promote environmentally sustainable economic activities, often excludes retreaded tyres due to their lack of inclusion in the tyre labelling regulation. This leads to retreaded tyres not being considered in many public tenders, even though they are comparable to new tyres in terms of environmental and safety properties. Another problem is the lack of a tyre label for retreaded tyres, which would allow their integration into EU regulations. The European Retreading Association BIPAVER and the Alliance for the Future of Tyres (AZuR) have been advocating for years for the inclusion of retreaded truck and bus tyres (C3 tyres) in the tyre labelling regulation. Until this is achieved, the planning security for companies in the retreading industry remains low, hindering investments and developments. The current regulatory situation not only burdens the economic viability of retreading companies but also contradicts the EU's climate goals. Retreaded tyres offer significant ecological advantages over new tyres, including a reduction in CO 2 emissions by over 60% and a saving of around two-thirds of the required raw materials, primarily rubber. These advantages could be better utilised through improved regulatory support and adaptation of existing regulations. Overall, it is clear that clear and consistent regulations are necessary to fully exploit the potential of tyre recycling and to contribute to European environmental and climate goals. Necessary Regulatory Adjustments 1. Integration of Retreaded Tyres into the Tyre Labelling Regulation Problem: Currently, retreaded tyres are not included in the EU tyre labelling regulation, which complicates their use in public tenders and their acceptance in the market. Suggested Solution: The EU should expand the tyre labelling regulation to include retreaded tyres. This would allow retreaded tyres to receive an official label that confirms their quality and performance and promotes their use. 2. Adjustment of the EU Taxonomy Regulation Problem: The current EU taxonomy regulation often excludes retreaded tyres due to their classification, even though they are more sustainable than new tyres. Suggested Solution: The EU should amend the taxonomy regulation to recognise retreaded tyres as environmentally sustainable products. This could be achieved by adjusting the criteria for tyre classification to consider the CO 2 savings and resource conservation provided by retreading. 3. Establishment of Clear and Uniform Criteria for Public Procurement Problem: Contradictory regulations and a lack of clear criteria often lead to retreaded tyres not being considered in public procurement. Suggested Solution: The EU should establish clear and uniform criteria for sustainable public procurement that promote the use of retreaded tyres. This could involve introducing specific requirements for the use of retreaded tyres in public tenders. 4. Introduction of a Quality Label for Recycling Companies Problem: A lack of transparency and trust in the quality of recycling processes hinders the acceptance of recycled materials. Suggested Solution: The introduction of a quality label for recycling companies that certifies proper and environmentally friendly recycling practices could strengthen trust in recycled products and increase their market acceptance. 5. Promotion of Research and Development Problem: Technical challenges such as material separation and the improvement of material properties require continuous innovation. Suggested Solution: The EU and national governments should increase investment in research and development to promote technological advances in tyre recycling. This could be achieved through targeted funding programmes and partnerships between industry, research institutions, and regulatory authorities. Partnerships are driving the circular economy: used tyres are recycled into new car parts and close the material loop. Copyright: Covestro Best Practices There are numerous innovative projects and best practices in the field of tyre recycling that demonstrate how companies and research institutions are working together on sustainable solutions. Covestro: Closing the Loop for the Automotive Industry One example of the innovative use of recycled tyres is the joint project by Neste, Borealis, and Covestro. These companies are working together to close the loop for the automotive industry by processing waste tyres into new car parts. Covestro uses recycled raw materials from waste tyres to produce high-quality polymers used in the automotive industry. Innovative rubber additives such as those from LANXESS help to reduce the environmental impact of tyre production and improve durability. Copyright: LANXESS LANXESS: Sustainable Tyre Production with Rubber Additives Another example of sustainable innovations in tyre production comes from LANXESS. The company develops and produces rubber additives that help reduce the environmental impact of tyre manufacturing. These additives improve the properties of rubber and enable more efficient production. This not only extends the lifespan of tyres but also reduces energy consumption and CO 2 emissions during the production process. This project highlights the importance of chemical innovations for sustainability in the tyre industry. These examples illustrate how significant progress in tyre recycling and sustainable tyre production can be achieved through cooperation and technological innovations. Such projects set benchmarks and show how ecological and economic goals can be harmonised. Importance of Tyre Recycling for the Future Tyre recycling plays a crucial role in the future of our environment and economy. Given the billions of waste tyres generated worldwide each year, it is essential to develop efficient and sustainable methods for reusing and processing these waste products. By recycling tyres, significant amounts of resources can be saved, and environmental impact reduced. Retreaded tyres require around 2/3 less raw materials. Mechanical, thermal, and chemical recycling offer a variety of ways to recover valuable materials and use them in new products. Additionally, the use of artificial intelligence in tyre recycling opens new horizons. Automated inspection systems, optimised material usage, and predictive maintenance contribute to improving the efficiency and quality of recycling processes. Regulatory challenges, however, require continuous efforts and adjustments. Better integration of retreaded tyres into EU regulations and the creation of clear and uniform criteria for public procurement are necessary to fully exploit the potential of tyre recycling. Overall, tyre recycling is not only a key to reducing environmental pollution but also an important factor in promoting a sustainable circular economy. It helps conserve natural resources, reduces CO 2 emissions, and offers economic benefits by creating new business opportunities and jobs. Therefore, the importance of tyre recycling will continue to grow in the future, making a significant contribution to a more sustainable world. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Elena Blume (Editorial team K-Mag) Further articles on the topic More around Recycling

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  • Opportunities and limitations of recyclates in medical technology

    Requirements for recycled plastic in medical technology Exclusively for K-Mag Recycled materials can be used in a variety of ways in medical technology – if the manufacturers have the courage to do so. Copyright: DC_Sudio 13.11.2024 One of the European Union's declared goals is sustainable development by 2030 - a development that does not stop at the medical technology industry. According to the Corporate Sustainability Reporting Directive (CSRD), hospitals will be obliged to report on their sustainability in the coming years. Not least for this reason, recyclates are now also increasingly coming to the fore in medical technology. As in all areas of application, the use of recyclates opens up certain opportunities, but also has its limits when it comes to patient contact. Gradical GmbH, based in Switzerland, advises medical technology companies on the choice of materials for their applications. Managing Director Lucas Pianegonda knows all about the technical and regulatory requirements and how to bring them both together. In this interview, he explains how CSRD influences companies in their decisions, which applications recyclates can be used for and what the actual added value of recyclates in medical technology is. Lucas Pianegonda, Managing Director of Gradical GmbH Mr. Pianegonda, what special challenges do you see in the use of recyclates in medical technology? Lucas Pianegonda: One challenge is the safety and performance requirements for medical devices. The Medical Device Regulation stipulates that medical devices must be safe and efficient. The requirements for products made from recycled materials are exactly the same as for conventional virgin materials, but the implementation is largely up to the manufacturer. This means that manufacturers must produce a safe and effective medical device and have risk and quality management under control – but it is up to the distributor to decide what this looks like in detail. Nothing is prescribed, but they are not guided either. This means that quality and risk management is actually the biggest challenge with recyclates. The second challenge is that the manufacturers of recycled plastics usually come from the waste management sector and are therefore not as close to plastics technology or medical technology. The challenge here is for the two stakeholders (recyclers and medical technology) to talk to each other and tell each other what their difficulties are and how these can be solved accordingly. The challenge for the recycler is to separate and wash the waste in such a way that the quality of the recyclate is sufficient for medical technology. This in turn has certain documentation requirements (technical data sheets, regulatory documents, etc.) that recyclers rarely have or provide on their own. The third challenge is acceptance within the medical technology industry. The need for safety is very high and there are also entrenched opinions that the use of recyclates is not feasible. We still have some convincing to do. Where in the healthcare sector can recyclates already be used? Pianegonda : In principle, recyclates can be used wherever risk management permits. This means that they can be used safely and without hesitation wherever there is no direct patient contact like blood contact or similar. A typical example is a walking aid: it can be used without hesitation without exposing the patient to any risk - the greatest risk here would be that the walking aid breaks. This risk can be very well controlled by incoming and outgoing goods inspections. On the other side of the product spectrum are long-lasting implants that remain in the body for 15 years or more. Here, there are only a handful of new product manufacturers who dare to offer implantable plastics at all. This means that if most virgin material manufacturers don't dare to make implants, we can rule out the possibility of recycled materials being used for implants at some point. But that is not really what they should be used for anyways. The application limit is somewhere between walking aids and implants. In my opinion, a good application for recyclates would be in consumer goods with short patient contact, for example. A lot of plastic is used here and you have good leverage in terms of environmental impact. How does the CSRD influence the decisions and strategies of companies with regard to the use of recycled materials in medical technology? Pianegonda: In principle, this regulation means that companies must measure and report their environmental impact. Step by step, they are then required to reduce their CO 2 emissions. In this context, using recyclates has the advantage that they reduce the CO 2 footprint of plastics – at least with mechanical solution-based recycling methods. For medical technology companies, this means that they have a lever for CO 2 reduction. This is because they collect 80 to 90 percent of their CO 2 emissions in Scope 3, i.e. where the supply chain and therefore the suppliers and customers fall in. This means that the materials purchased at this point can have a positive impact on the environment – and recyclates help enormously here. To what extent do chemical, solvent-based and mechanical recycling play a role in medical technology? Pianegonda : First of all, it is important to note that recyclates are used to reduce CO 2 and not for the sake of using recycled plastics. The aim is to minimize the environmental impact. This means that the recycling method or the plastic must always be selected in such a way that the environmental impact is minimized. Chemical recycling delivers the best quality, but with the highest environmental impact. In my opinion, solvent-based recycling would be more promising. However, there are only a few companies that do this, and due to the good quality and moderate environmental impact, these products are almost always sold out. Mechanical recycling, on the other hand, is the most attractive in environmental terms, but has the most variable quality. I think that all technologies have a place somewhere in medical technology. But the key takeaway must be that we use recyclates to reduce CO 2 . And, of course, it also depends on the risk of the medical device in question. A walking aid made from mechanical recyclate is possible. In the case of an infusion set, chemical or solvent-based recycling is more likely to be used. What future prospects do you see for recyclates in medical technology? Pianegonda : In my opinion, recyclates have a lot of untapped potential, as there are only a few recycled plastic applications in medical technology. At the moment, the sustainable products that are coming onto the market tend to be mass-balanced bio-based plastics. However, I think that recyclates definitely have potential. They make things a little more difficult in terms of quality and risk management, but in principle they have a lot of environmental advantages. How do you think the medical technology industry can contribute to achieving sustainability goals in general? Pianegonda : The global environmental impact of medical technology and the healthcare sector is 4.4 percent on average; depending on the country, this figure varies between 4 and 7 percent. So there is definitely leverage here to achieve the sustainability goals. In principle, the first thing to do is to avoid unnecessary things: unnecessary use of medical products, unnecessary operations, unnecessary days in hospital. Furthermore, it is important to develop sustainable products. 80 percent of the environmental impact is defined during product development. Ecodesign guidelines can achieve a relatively large amount here, as the aim is to design products optimally, use as little material as possible, select the material with the best environmental impact and design the products in such a way that they can also be recycled. The medical technology industry can certainly make a contribution to greater sustainability here. Kyra Molinari (Editorial team K-Mag) More around Climate Protection

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  • Recycling and reusing ABS plastics in-house

    Hansgrohe recycles galvanized plastics and returns them to the cycle on site Exclusively for K-Mag Hansgrohe has succeeded in recycling galvanized plastics. Copyright: Hansgrohe 02.10.2024 Recycling on your own doorstep sounds almost too good to be true. But it is possible, as the Hansgrohe Group in Offenburg shows. The special highlight is that Hansgrohe, in partnership with ImpulsTec GmbH, has succeeded in recycling galvanized plastics. This means that decoated ABS plastics can be recycled directly in the company. David Zapf, surface technology specialist at Hansgrohe, explains in an interview with K-Mag what the challenges were in developing the technology and what benefits his company can derive from it David Zapf. Copyright: Hansgrohe How did the partnership between Hansgrohe and ImpulsTec GmbH come about? David Zapf: The mixers and showers from the Hansgrohe Group, a manufacturer of premium and designer products for bathrooms and kitchens, are manufactured to high quality standards. We focus on the durability of our products, as customers use and clean them many times a day for years. This requires a particularly stable bond between plastic and metal in the production of ABS components, which are finished in an electroplating process. Despite sophisticated production processes, parts are always rejected in the quality inspection after electroplating, even if the reject rate is only in the single-digit percentage range. However, the large quantities that we produce result in corresponding volume. For this reason, Hansgrohe had been looking for years for ways to return rejects from plastic electroplating back into the production cycle in a meaningful way. Until the start of the project, everything was sold to external partners. In 2019, I became aware of the technology of the plant manufacturer ImpulsTec through research as part of my master's thesis on "Development and verification of recycling processes for galvanized plastics". This is how the cooperation between Hansgrohe and the specialist for the electro-hydraulic shredding of electroplating waste came about. Can you tell us more about the newly developed recycling process for chrome-plated plastic components? Which technologies are used? Zapf: From 2021 to the beginning of 2023, we worked with our partner ImpulsTec to develop a process for decoating electroplated plastic components. ImpulsTec focuses on the development and realization of industrial shock wave shredding systems. The idea was to combine shockwave treatment with pre-shredding and subsequent magnetic separation. The processed material goes into the third container and is dried there. The individual material particles are then separated from each other using magnetic separation. The majority of the material, 70 to 80 percent, is plastic. In order for high-quality new products to be manufactured from it, it must have a stable purity of at least 99.8 percent. The remaining material fraction is made up of the metals copper, nickel and chromium from the electroplating and is passed on to metal processing companies. Hansgrohe and ImpulsTec are excited about their joint achievements. Copyright: Hansgrohe What advantages does this process offer over conventional recycling methods? Zapf: The quality feature of electroplated ABS parts – the particularly stable bond between plastic and metal – was a particular challenge for the recycling process. As it was not previously possible for us to separate the thin electroplated layer from the ABS while retaining both individual materials, we passed the chrome-plated components on to external recycling partners. This was only a suboptimal solution for us due to the transportation routes involved. The new process developed together with ImpulsTec now allows us to sell the resulting metal fraction (copper and nickel) and return 100 percent of the shredded plastic to the raw material cycle of our production. How does the new recycling process contribute to Hansgrohe's sustainability strategy and what ecological and economic benefits does it bring? Zapf: Becoming part of the circular economy is one of the Hansgrohe Group's key areas of action in its sustainability strategy. It is an urgent concern for us to gear our production towards sustainability. By using or recycling products and materials for a long time, we reduce both our use of resources and transportation routes. The new processing plant therefore offers not only ecological but also economic benefits for Hansgrohe. The plant was designed for an annual throughput of 100 tons of chrome-plated plastic. In purely mathematical terms, this amount of recycled ABS can be used to produce one million new hand showers. What challenges did you meet during the development and implementation of the recycling process and how did you overcome them? Zapf: Due to the general shortage of materials during the coronavirus pandemic and the increase in component prices, the delivery date was delayed several times. However, we were able to overcome these challenges together with our partner ImpulsTec. What happens to the separated materials after the recycling process, in particular the highly concentrated metal fraction and the decoated ABS plastic? Zapf: On the one hand, our new plant supplies a highly concentrated metal fraction, which mainly contains copper and nickel. This is then sold for smelting. This means that 100 percent of the valuable metals are returned to the raw material cycle. On the other hand, we receive the decoated ABS plastic that we use to manufacture new parts. Here, we use the material directly on site in our plastic injection molding plant and can thus close the material cycle at the site. What further steps is Hansgrohe planning to take to further optimize the recycling process and sustainability in production? Zapf: Together with the Hansgrohe Executive Board, our "Green Company" team has defined three fields of action: "Hansgrohe protects water cycles", "Hansgrohe protects the climate" and "Hansgrohe becomes part of the circular economy". A wide variety of initiatives are derived from this - from the product portfolio with water-saving mixers and showers to the development of environmentally friendly, plastic-free packaging, the use of solar and wind energy or recycling in production. We are all constantly working on our sustainable management with great commitment – new ideas are added almost daily and project progress is constantly being made. For example, we are considering whether it will be possible in the long term to reintroduce used products into the material cycle. However, this task is extremely complex, as a wide variety of materials are used in a complete product. But challenges are there to be tackled. At the beginning of our project with the plastics recycling plant, we were not sure whether we would achieve our goal. But the successful cooperation with ImpulsTec naturally gives us confidence for further projects of this kind. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Elena Blume (Editorial team K-Mag) More around Recycling

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  • National Circular Economy Strategy: Guidepost for a Resource-Efficient Future

    Federal government adopts NKWS as future-oriented guidelines for Germany Exclusively for K-Mag The National Circular Economy Strategy (NKWS) creates a framework for the careful use of raw materials. Copyright: OMEGA - stock.adobe.com 08.01.2025 On 4 December 2024, the Federal Cabinet adopted the National Circular Economy Strategy (NKWS). This strategy aims to accelerate the transformation of the German economy towards a more sustainable, resource-conserving model. It aims to reduce the consumption of primary raw materials and orientate value chains towards circular use. But what is behind it, what are the goals being pursued and how is the plastics industry reacting to the strategy? Why a Circular Economy Strategy? The extraction of raw materials causes considerable ecological, social and economic costs. The growing demand for primary raw materials burdens the environment through high CO₂ emissions, pollutant emissions and the consumption of natural resources such as water and soil. At the same time, the economy is becoming more vulnerable due to global dependencies on raw material imports. Geopolitical conflicts and disrupted supply chains emphasise the need for a sustainable resource policy. A national circular economy strategy is therefore not only a contribution to environmental protection, but also an economic security concept. The Key Objectives of the NKWS Advanced technologies such as chemical recycling are a central component of the new circular economy strategy. Copyright: littlekid – stock.adobe.com To promote sustainable economic activity in Germany, the National Circular Economy Strategy focuses on three central goals: Reducing the consumption of primary raw materials The German government plans to reduce annual per capita consumption from the current 16 tonnes to 6-8 tonnes by 2045. This is to be achieved through the efficient use of resources and the promotion of durable, repairable and reusable products. Closing material cycles Currently, only 13% of the materials used in Germany come from recycling processes. The aim of the strategy is to double this proportion at EU level by 2030. To this end, recycling infrastructures are to be modernised and innovative processes such as chemical recycling are to be promoted. Independence from raw material imports Germany's dependence on imports of critical raw materials is to be reduced by establishing a robust recycling economy. The strategy envisages covering 25% of the demand for strategic raw materials through recycling and thus making supply chains more stable and crisis-proof. Industry comments on the NKWS The adoption of the National Circular Economy Strategy (NKWS) has provoked different reactions in the plastics and chemical industries. While key objectives of the strategy have been welcomed, industry associations have also criticised it and called for improvements. PlasticsEurope Germany praises the recognition of new recycling processes: It is important that we make faster progress in establishing circular raw materials. It is therefore positive that the circular economy strategy recognises chemical recycling as a useful addition to mechanical recycling. Dr Alexander Kronimus, former Managing Director PlasticsEurope Germany However, Kronimus also warns of regulatory hurdles: ‘The recommendations for circular product design need to be concretised, especially with regard to polymer diversity.’ The Gesamtverband Kunststoffverarbeitende Industrie e.V. (GKV) emphasises the political signal effect of the strategy. ‘The National Circular Economy Strategy recognises the great social benefits of plastics and shows how the plastics value chain can become more circular,’ explains Managing Director Dr Oliver Möllenstädt. The association is particularly positive about the planned introduction of a certificate trading system for plastic recyclates, which could create economic incentives. The IK Industrievereinigung Kunststoffverpackungen also supports the goals of the NKWS and emphasises the economic benefits: A policy that promotes the circular economy not only makes ecological sense, but also creates jobs in a crisis-proof economic sector: the production of plastic packaging and mechanical recycling. Georg Pescher, President IK Industrievereinigung Kunststoffverpackungen The bvse Federal Association for Secondary Raw Materials and Waste Management is more critical. Managing Director Eric Rehbock complains: 'We would have liked to see more courage and commitment.' In particular, he criticises the lack of support measures for medium-sized recycling companies and calls for 'privileged treatment of recycling projects in approval procedures'. The German Chemical Industry Association (VCI) also sees a need for improvement. 'The development of the world and the climate show that Raw materials must be recycled more urgently than ever. The strategy is a late first step,' explains Managing Director Wolfgang Große Entrup. He calls for more speed in the promotion of new processes such as chemical and biotechnological recycling. These voices make it clear that the industry recognises the circular economy as a key factor for the future, but insists on a clear political course and reliable economic framework conditions. International Perspective: Importance of the NKWS beyond German borders The National Circular Economy Strategy paves the way for sustainable resource utilisation and strengthens Germany as a business location. Copyright: Norbert – stock.adobe.com The National Circular Economy Strategy is not only a national project, but also an important signal to the international community. By expanding its technological leadership in the circular economy, Germany can become a global pioneer for sustainable economic solutions. In addition, the strategy supports the climate targets of the EU and the United Nations, particularly through the planned reduction of greenhouse gas emissions. At the same time, it creates potential for the export of innovative technologies and business concepts that can help other countries to overcome the raw materials crisis. Outlook and Challenges The National Circular Economy Strategy marks a decisive turning point in German environmental and economic policy. The German government wants to create a future-orientated, resilient and sustainable economy with clear goals. Implementation will be a long-term process that requires regular evaluations and adjustments. Innovations in recycling technology, investment in infrastructure and a comprehensive package of policy measures are crucial to achieving the ambitious targets. If these elements work together successfully, the NKWS can not only make Germany more sustainable, but also serve as a model for other industrialised nations. It is now up to industry and society to make this vision a reality. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Elena Blume (Editorial team K-Mag) More around Circular Economy

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  • Reusable Transport Box: Plastics for Modern Logistics

    Fraunhofer LBF develops transport solution made of easily recyclable monomaterial for greater efficiency and sustainability Exclusively for K-Mag Reusable instead of disposable: modern plastic transport solutions offer a sustainable alternative for the logistics sector. Copyright: Fraunhofer LBF 20.11.2024 Disposable packaging still dominates many logistics processes – often at the expense of efficiency and sustainability. A new reusable transport box aims to close this gap by conserving resources, saving costs and being flexible in use. The solution was developed by Fraunhofer LBF. In an interview with K-Mag, Dr Christian Schütz talks about the requirements for such a reusable transport box, its advantages and the response so far. Dr Christian Schütz, Business Development, Division Plastics, Fraunhofer-Institute for Structural Durability and System Reliability LBF. Copyright: private From disposable to reusable: starting signal for an innovative transport solution Dr Schütz, what prompted the development of the reusable transport solution? Dr Christian Schütz: Nowadays, cushioning and filling material consisting of plastic flakes and film, air cushioning, corrugated cardboard or wood wool is used for transport protection. Recycling the filling materials is currently not very worthwhile from a purely economic point of view, which means that modern logistics does not utilise a considerable sustainability potential. The same also applies to outer packaging, as cardboard packaging, for example, is generally only used once. In the case of material recycling, not only the considerable energy requirement, but also the transport routes for disposal and processing must be taken into account. Technical requirements and realisation of the transport box What were the main requirements for the transport box and how were these technically realised? Schütz: The transport box is still under development; the current tests were carried out with a demonstrator series, for which the focus was on mechanical strength and durability as well as uncomplicated handling. At the same time, the production and choice of materials had to enable the most cost-efficient solution possible. However, the exact properties of the reusable box have not yet been finalised: The material properties of the outer packaging and inlay as well as the dimensions, design and shape of the inlay can be customised for specific applications. We are happy to take on further functionalities so that a market-ready solution is of interest to as many users as possible. What materials is the box made of? And how does the environment benefit from your solution? Schütz: The boxes in the demonstrator series are made of polyethylene or polypropylene. In order to optimally support mechanical recycling in the long term, the end product should be a monomaterial solution; both polyolefins would be suitable for this. Efficiency meets environmental awareness: advantages in the practical test The foldable reusable transport box made of recyclable plastic is easy to handle and efficient to use in logistics. Copyright: Fraunhofer LBF The practical test at the UVEX SAFETY GROUP has demonstrated the efficiency of the system. What specific advantages stood out in particular? Schütz: When using the reusable box, the work processes can be carried out just as quickly or even faster than with the previous packaging materials. It was also possible to save on additional packing or padding material and all transport items were dispatched without damage throughout the entire test. Dispensing with additional packing or cushioning material also saves space, as there is no need to keep the material on hand or to use disposal containers for used and unusable material. If the reusable boxes are not needed, they can be folded up and stored to save space. The box can be securely closed and sealed airtight if required - perfect for the efficient transport of goods. Copyright: Fraunhofer LBF The press release emphasises that no additional investment in shipping logistics was required. How did you achieve this and what significance does this have for potential users? Schütz: No investment in additional hardware or equipment is required to use the boxes, apart from the portable blowers that are needed to fill the inlay. This means that switching from disposable packaging material to a solution like ours does not result in any significant additional costs. The reusable boxes are also standardised to the dimensions of Euro pallets. What reactions did you receive from the employees who worked with the new transport boxes and how did this feedback influence the project? Schütz: The employees from logistics were very positive about the handling of the reusable boxes: the work steps are quick and easy to learn, and the handling was perceived as uncomplicated overall. There is also no need to dispose of used disposable packaging material and the boxes are quickly available for reuse. Outlook: Development opportunities and new applications The consortium is looking for further development partners for individualised applications. Which sectors do you see as particularly suitable for collaboration and which customisations could be relevant? Schütz: We are not fixed in terms of sectors and, together with our co-initiators from Berges GbR, have already held discussions with users from a wide range of industries. The spectrum of goods to be transported ranged from electronic components to consumer goods and foodstuffs. The customisations are based entirely on the individual requirements of the users and with our co-developers at Turtlebox GmbH and G&H GmbH Rothschenk we can make a great deal possible. This applies both to the material properties in the utilisation phase and to end-of-life scenarios such as closed-loop recycling. How to use the transport box in practice (German). Copyright: G&H GmbH Rothschenk More exciting information about plastics in logistics: BOOXit has also developed a reusable plastic solution for logistics. Find out what it looks like in this exclusive interview! Plastics also enable environmentally friendly and economical transport in the form of pallets. Curious? Read the interview with trans-o-flex directly! Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Elena Blume (Editorial team K-Mag) More around Circular Economy

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  • Sustainable Construction: Transparent Metamaterial as the Key to Energy Saving

    Polymer-based Micro-Photonic Multi-Functional Metamaterial (PMMM) from KIT supports energy-efficient construction methods Exclusively for K-Mag The integration of polymer-based materials in building structures can both reduce energy consumption and promote aesthetic and sustainable construction methods. 18.09.2024 How will we build in the future? Sustainability, energy efficiency and comfort are key requirements that modern materials must fulfil. Conventional building materials such as glass are reaching their limits – for example when it comes to protecting against glare or overheating. This is where a new polymer-based material comes in, intelligently combining natural lighting and heat regulation to reduce energy consumption. Dr Gan Huang, Group Leader at the Institute of Microstructure Technology, Karlsruhe Institute of Technology. Copyright: M. Breig, KIT In an interview with K-Mag, Dr Gan Huang talks about the development of this multifunctional material, its special properties and potential applications in architecture and beyond. Dr Huang, what was the motivation behind the development of the new polymer-based material and what problems was it intended to solve? Dr Gan Huang : We wanted to address several issues associated with traditional transparent roofs and walls for buildings, such as glare, privacy concerns, and overheating. These problems can make indoor environments uncomfortable, increase energy consumption for cooling, and reduce productivity. Our goal was to create a material that not only allows natural light to enter buildings but also manages light and heat in a way that enhances indoor comfort, reduces energy use, and improves occupant well-being. Can you explain the special properties of your newly developed material? Huang : The Polymer-based Micro-Photonic Multi-Functional Metamaterial (PMMM) diffuses 73% of incident sunlight, which reduces glare and provides a more comfortable indoor lighting environment. The material allows 95% of visible light to pass through, which is higher than traditional glass. Additionally, the material has a high emissivity (~0.98) in the mid-infrared range, enabling it to passively radiate heat and cool buildings without consuming electricity. Its superhydrophobic properties with a contact angle of 152° help in keeping the surface clean by repelling water and dust. With a light transmission of 95%, the PMMM enables clear vision and efficient protection against glare at the same time. Copyright: Gan Huang To what extent does the material enable more sustainable construction? Huang : By reducing the need for artificial lighting and minimizing the use of air conditioning, it lowers the overall energy consumption of buildings. The material helps maintain a comfortable indoor temperature, reducing the reliance on air conditioning systems. Its self-cleaning properties reduce the need for frequent cleaning and maintenance, which can save resources and costs over time. Made from commercially available and environmentally safe polymers, the material can be produced on a large scale without significant environmental impact, contributing to more sustainable building practices. What practical applications do you see for it? Huang : We see a wide range of applications for the PMMM. In building construction, it can be used in roofs and walls to improve natural lighting and thermal comfort in residential and commercial buildings. In greenhouses, enhancing light diffusion and photosynthesis can improve plant growth and yield. In the automotive industry, it can be applied to car windows and sunroofs to reduce glare and heat, improving passenger comfort. What were the challenges in developing this material and how were they overcome? Huang : One major challenge was material selection; we needed to find a polymer that was not only transparent and durable but also had high emissivity in the mid-infrared range. Polydimethylsiloxane met these requirements. Fabrication was another challenge, as creating the micro-pyramid structures required precise photolithography and etching techniques. We optimized these processes to ensure consistent and scalable production. Extensive testing was needed to confirm the material's properties and performance, so we conducted both laboratory and outdoor tests to validate our results. The Polymer-based Micro-Photonic Multi-Functional Metamaterial (PMMM) enables intelligent light and heat regulation to reduce energy consumption in buildings. Copyright: Gan Huang & Bryce S. Richards How could the new material be integrated into existing construction and urban development projects? Huang : The material can be applied to existing glass structures as a film or coating to enhance their performance. For new constructions, it can be used as part of the initial design for new buildings, replacing traditional glass in windows, roofs, and walls. Additionally, the PMMM can be manufactured in modular panels that can be easily installed in a variety of building types and styles, making it a versatile solution for different construction needs. What role could polymer-based materials play in the construction of the future? Huang : Polymer-based materials like the PMMM could play a significant role in the future of construction by improving sustainability. Their energy-efficient properties can contribute to greener buildings and lower carbon footprints. By managing light and heat more effectively, they can create healthier and more comfortable indoor environments. Their versatility allows for innovative architectural designs that prioritize natural light and aesthetic appeal. Moreover, the durability and low maintenance requirements of these materials can reduce long-term costs for building owners and operators, making them a practical and cost-effective choice for future construction projects. An industry is building on plastics: Find out all about plastics in the building and construction sector in our article! Plastics can be used in a variety of ways in building construction – for example for wrapping. Find out more in the news from Covestro! In December 2022, the famous Aquadom burst. Find out why it was probably not due to material failure in the exclusive video interview with Prof Christian Bonten! Elena Blume (Editorial team K-Mag) More around Climate Protection

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  • Closed loop recycling for more sustainability in the textile industry

    Returning fabrics directly to the cycle and reusing them Exclusively for K-Mag Recycling is becoming increasingly important across all sectors. Fristads has now developed a closed loop for its clothing. Copyright: Pressmaster 23.10.2024 Everyone is talking about recycling, and yet there are sectors where it is only used to a very limited extent - for example in the textile and clothing industry. The figures are alarming: less than 1 percent of textiles worldwide are recycled, but they are the third largest source of environmental pollution. Of course, it doesn't have to be this way, as clothing manufacturer Fristads shows. The company has managed to create a closed loop recycling system for its clothing. In this interview, Lena Bay Højland, Product Director at Fristads Kansas A/S, explains how this affects the product range and what Fristads' vision is for further development. Lena Bay Højland, Product Director at Fristads Kansas A/S. Copyright: Fristads How does your closed-loop recycling work? Lena Bay Højland : In a nutshell, it's about collecting the used Fristads garments, removing the trims and things that cannot be shredded, cutting and shredding it and then making a new material out of the fibre. For this process, we are collecting the post consumer Fristads-garments and bring them to a circular partner. After our partners received the used garments, they do the dissembling of the trims: They take away the buttons, the zippers and everything which is non-shreddable. Afterwards, they sort the material, then cut and shred it. This shredded fibre will then be sent to another external partner where we're adding other fibres to make the "new" yarn stronger. The final steps are then the spinning of new yarn, knitting or weaving and dying it. At the end of this process, we have a ready-made garment. We have established the full process on how we’re doing this, and we have it certified. At Fristads, we believe in sustainability, and for us this goes hand in hand with responsibility. And to have proof of our concept and to proof our responsibility, we want the process to be certified. How do you make sure that you get your Fristads clothing back? Bay Højland : We take back our clothes from certain customers. We deliver our garments to particular customers and in an agreement with them we get it back. It is very important that we know exactly what waste we are having because our products are OEKO Tex certified, so of course we want to get this exact quality of products back. The trick is: you cannot make a new product made of 100 percent recycled textile, because then you can’t guarantee a certain quality. So we need to blend our collected material with a virgin textile to make it strong and to deliver the quality demanded. There is no sustainability story without quality: quality and sustainability go hand in hand. So we need to mix our recycled material with virgin material. Today, we have two products in our assortment, which are partly made of this recycled textile. The content of that recycled material is about 15 percent. Now you could either say "Oh, only 15 percent" or you can say "Wow, 15 percent!" – it depends on how you look at it. This amount may not sound much, but it's 15 percent more than a virgin material you would use. The further innovation of this process will be increasing the percentage of waste. I would dream of 50 percent, and we are doing everything we can to increase the current percentage. We're using a lot of money and a lot of time and effort for developing in that direction and making sure that we're going to use more and more of textile waste in the future. How do your customers respond to your initiatives? Bay Højland : One of our customers is Post NL. They’re using quite a lot of our garments, and they have been the source of inspiration for Fristads. You need to find customers who are actually willing to work with you and to join your on this journey. And for that I should thank Post NL, because they have been a reliable and a great partner in this development, in the certification process and all the steps we have taken to create the product. In our case, you just have to be lucky to meet a customer who is as creative and as partner oriented as you are. And the more customers we meet like that, the more inspiration we get, the more innovations will come. You already mentioned that you took a lot of time in this development – how much exactly? Bay Højland : Two to three years, I guess. It's not so much about the process itself, because the process is not new. There have been recycled textiles before. It’s more about what the outcome is: the outcome to the level of the quality we want and the level of the waste we want to use for this. This is what took us time, because in workwear you cannot see the result of your work right away. It's not like a tasting sample which you taste and either like or don't like. If you want to test the longevity of workwear, you sometimes need to give it six to eight months. You can use the laboratory to make all the necessary tests, like indications about the quality, abrasion, tear strengths, etcetera. But at the end of the day, the absolute real test is that when the actual customer is wearing it and using it every day. This is when you can monitor the progress, etcetera. All the testing is not a business for impatient people. Before you starting all the testing, you need to have plan A, B and C ready. You can't go for plan A, then wait months for the results and then start plan B. You need to start them all at once, so that in six to eight months one of them actually gives you the result you want to have. Do you hope that you can be an inspiration for other companies or as well? Bay Højland : Absolutely, and we would be gladly sharing our findings that because there is a lot of textile waste in the world. Sustainability should not be a competition parameter. I would say it should be something which is given to all of us. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Kyra Molinari (Editorial team K-Mag) More around Circular Economy

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  • One year to go until K 2025: trends and developments that move the industry

    With the motto "The Power of Plastics! Green – Smart – Responsible", K 2025 is dedicated to the most important issues in the plastics and rubber industry. Exclusively for K-Mag One year to go: K 2025 brings the global plastics and rubber industry together – for sustainable, digital and responsible solutions. Copyright: Messe Düsseldorf 08.10.2024 In a year's time, it will be that time again: K 2025 will open its doors and bring the global plastics and rubber industry together in Düsseldorf. From October 8 to 15, 2025, K will once again be the place where innovations are presented, new trends are discussed, and contacts are forged. The industry is already looking ahead to what will be on the agenda in October 2025. The motto of K 2025 is "The Power of Plastics! Green – Smart – Responsible" , reflecting the key challenges and opportunities facing the industry today. From sustainable production methods and digital solutions to responsible use – K has always been the place where the most pressing issues are discussed, and the most significant innovations are presented. There is great anticipation for the upcoming trade fair, as it will once again set standards and have a lasting impact on the industry. The countdown to K 2025 is on! days hours minutes seconds Die Hot Topics der K 2025 While the countdown is running, it is worth taking a look at the Hot Topics of K 2025: "Shaping the Circular Economy", "Embracing Digitalization" and "Caring about People" . These focus areas reflect how the plastics industry is preparing for the future - in terms of sustainability, technological developments and social responsibility. Shaping the Circular Economy: K 2025 shows how plastic waste can be reduced, products reused and innovative recycling processes designed. Copyright: iStock Shaping the Circular Economy The circular economy is at the heart of the plastics industry: reducing material consumption, reusing products and promoting efficient recycling. The EU Circular Economy Action Plan provides important impetus for more sustainable production and value chains. Companies that focus on circular processes can reduce their ecological footprint, save costs and tap into new innovation potential. Circular Economy starts at K. Find out more about the Hot Topic "Shaping the Circular Economy" here! Embracing digitalization: Digitalization is the focus of K 2025 and is revolutionizing production and networking in the plastics and rubber industry. Copyright: iStock Embracing Digitalization The digital transformation is opening up new opportunities for the plastics industry, from process optimization to data-driven product development. Digitalization and Industry 4.0 – the networking of machines, systems and people – improve efficiency, quality and flexibility. At the same time, it enables the implementation of circular processes, for example through real-time monitoring of raw materials, and increases sustainability in the industry. Digitalization starts at K. Find out more about the Hot Topic "Embracing Digitalization" here! Caring about People: social responsibility, talent development and sustainable production methods show how the industry is being shaped for the future. Copyright: iStock Caring about People The focus is on people: the industry promotes talent, focuses on sustainable production and assumes social responsibility. From training programs to social initiatives – "Caring about People" underlines the goal of making the industry sustainable and resource-efficient. Thanks to their versatility, plastics contribute to sustainable solutions and at the same time focus on the importance of responsible use and recycling. Caring about People starts at K. Find out more about the Hot Topic "Caring about People" here! Highlights and specials at K 2025 The Special show "Plastics shape the Future" will once again present at K 2025 how plastics can help shape the world of tomorrow. Copyright: Messe Düsseldorf K 2025 will feature numerous tried-and-tested and new specials that will bring the motto "The Power of Plastics! Green – Smart – Responsible" can be experienced. First and foremost is the official special show "Plastics shape the Future" , organized by PlasticsEurope Germany, which offers insights into innovations and future prospects for the industry. The VDMA will also be represented with a comprehensive forum on the open-air site. Another highlight is the expanded Start-up Zone , which, following its successful premiere at the last K, will once again offer young, innovative companies space for presentation and exchange. This zone is aimed specifically at newcomers who are committed to developing new products and solutions in the field of plastics and rubber. Universities, colleges and institutes present their latest research findings at the Science Campus . The concept has been expanded so that exhibitors also have the opportunity to be present in the Science Campus Center and exchange ideas with experts. Two new offers are also planned: A special format for career starters and a networking event for women in the plastics and rubber industry to strengthen their networking and visibility. Well prepared for K 2025: tips for trade fair planning If you want to make the most of K 2025, you should start planning now. Düsseldorf will be the hotspot of the industry in October 2025, and booking accommodation in good time will allow you to enjoy the trade fair period in a relaxed manner. You can find more tips on preparing for the trade fair here! K 2025: Focus on the future of the industry K 2025 will once again set standards and focus on the most important developments in the plastics and rubber industry. The hot topics "Shaping the Circular Economy", "Embracing Digitalization" and "Caring about People" already show how the industry is preparing for the challenges of the future. For visitors, K 2025 offers the opportunity to gain comprehensive insights into trends, innovations and solutions for the entire value chain. Use the trade fair to deepen your knowledge, gain inspiration and actively participate in the exchange. Until then, K-Mag will continue to provide you with the latest topics and exclusive insights from the industry. K 2025 will have a lasting impact on the future of the industry – and we look forward to accompanying you on this journey. Elena Blume (Editorial team K-Mag) More around Climate Protection

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  • Lidl and Kaufland are Leading the Way: Shopping Baskets Made from Recycled Material

    Resource-saving hand and wheelie baskets made from post-consumer recyclate as a contribution to the circular economy Exclusively for K-Mag With shopping baskets made from PreZero recyclate, the Schwarz Group is setting an example for resource conservation at Lidl and Kaufland. Copyright: Schwarz Group 11.12.2024 They look familiar, but they've got something special: the new shopping baskets from Lidl and Kaufland are made from recycled plastic. This turns waste into a high-quality product that conserves resources and reduces CO₂ emissions. With this step, the Schwarz Group is setting an example for sustainable retail. In an interview with K-Mag, Jens Schwärmer and Florian Cebulla talk about the shopping baskets made from PreZero recyclate, their contribution to the circular economy and other measures for more sustainable retail with plastic. Why shopping baskets made from recyclate? Jens Schwärmer, Managing Director of Schwarz Beschaffung for the Furnishings and Consumables division. Copyright: Schwarz Group What was the main motivation behind the decision to switch the shopping baskets at Lidl and Kaufland to recyclate? Jens Schwärmer: We want to constantly improve - that is our main motivation for every project. At the same time, we want to use raw materials consciously, protect valuable resources and actively combat climate change. After all, today's waste is tomorrow's recyclable material for the companies in the Schwarz Group. Florian Cebulla: For this reason, the companies in the Schwarz Group launched their jointly developed plastic strategy 'REset Plastic' back in 2017. REset Plastic includes measures to reduce plastic as well as activities in favour of a functioning circular economy. The use of virgin plastic is being reduced across the Group, the aim is to maximise recyclability or to switch to recyclate. The new hand and wheelie bins made from recyclate therefore also fall under this heading. With many large and even more small measures, we are contributing to the conservation of resources and thus also to active climate protection. Florian Cebulla, Head of Circular Economy at Schwarz Corporate Communications/Corporate Responsibility Schwarz Group. Copyright: Schwarz Group What specific savings in virgin plastic and CO₂ emissions are you achieving through this changeover? Schwärmer: The Schwarz Group companies are saving more than 390 tonnes of virgin plastic and over 698 tonnes of CO₂ equivalents across all countries as a result of the changeover. Cebulla: Post-consumer recyclate was used for the shopping baskets. The plastic waste for this is collected, sorted, cleaned and processed into regranulate by our PreZero environmental division. This is then used to make new, high-quality and more environmentally friendly products – such as our hand and wheelie baskets. The entire recycling and manufacturing process is carried out in Europe and is particularly sustainable thanks to the short transport routes. Focus on quality and durability How do you guarantee the quality and durability of the new shopping baskets made from recycled material? Schwärmer: Ensuring a high level of quality in the long term is one of the most important tasks in procurement. We rely on long-term partnerships with suppliers who fulfil certain sustainability criteria and a reliable quality management system. PreZero is also able to provide recyclates of exceptionally high quality and stability. The combination of these two factors enables us to safely use many products that would otherwise be associated with greater risk. Measures for sustainable retail Hand baskets and rolling baskets made from post-consumer recyclate are environmentally friendly shopping companions that combine functionality and sustainability. Copyright: Schwarz Group Are there already plans to switch other areas of your shops to recycled materials in order to further advance your sustainability goals? Schwärmer: Definitely! Other projects are already underway. To name two examples: In addition to the shopping baskets, the Lidl and Kaufland shops are also using impact protection made from 99% recycled material to protect the walls from heavy impacts from shopping trolleys. By switching to recycled impact protection from the PreZero environmental division, the retail divisions were able to save around 410 tonnes of virgin plastic and over 725 tonnes of CO₂ equivalents across all countries in 2023. Lidl and Kaufland also use recycled plastic film on their store roofs. For this purpose, film waste from Lidl shops and logistics centres is collected, processed in a recycling plant and then turned into roofing membranes. These in turn are used for sealing Lidl and Kaufland properties across all countries. The new roofing membranes consist of 60% recycled material. With the changeover, the retail divisions reduced around 154 tonnes of virgin plastic and around 255 tonnes of CO₂ equivalents in 2023. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates Elena Blume (Editorial team K-Mag) More around Circular Economy

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  • UBQ is literally turning trash into treasure

    Israeli firm’s patented process transforms common household garbage into quality thermoplastic resins Exklusiv für K-Mag UBQ opened its first commercial plant in Bergen op Zoom, The Netherlands, in late 2023. Photo courtesy of UBQ Materials 30.08.2024 Albert Douer wants your common household trash. To him and his company – UBQ Materials Ltd. –it’s not rubbish, it’s valuable feedstock. UBQ can provide its final thermoplastic product in flake, powder or pellet form. Photo courtesy of UBQ Materials Using its patented process, UBQ takes everyday garbage, strips out any abrasive metals, glass or minerals, and converts it into thermoplastic resins that be molded or extruded into a vast range of durable products. Such garbage is everywhere, hence the company’s name of UBQ, which stands for ubiquitous. It’s a global problem and requires a global perspective. Born in Colombia, Douer is a resident of Panama and runs the 13-year-old, Tel Aviv, Israel-based UBQ. The firm just opened a commercial-scale plant in The Netherlands and its first U.S. office in Miami. It also recently struck a distribution deal in the U.K. and Ireland with Plastribution. He got his undergraduate economics degree at Harvard University and his graduate MBA in accounting and finance at The Wharton School. Douer sees the United States as being an ideal location for one of its plants. “It’s a huge polymer consumer and has a waste problem.” UBQ also is looking closely at establishing operations in places such as the United Arab Emirates, Brazil, Colombia, Panama, Japan, Thailand and Australia, to name a few. Douer explains his company’s general approach this way: “UBQ’s technology takes the organic content in municipal household waste and reduces it to its basic building blocks: sugars, ligaments, fibers, and cellulose. It then reconstitutes them into a proprietary matrix that covers the portion of waste that is not converted, including all the plastics. The key to our process is that the resulting composite material acts as a single homogenous material that can be replicated time and time again.” Staffing up, finally The big new Dutch plant is designed to convert 104,600 tonnes of waste into 80,000 tonnes of its UBQ materials each year. Photo courtesy of UBQ Materials “Historically,” Douer said, “we were a company with very few people for what we did.” UBQ had fewer than 40 employees until it began gearing up for commercial-scale production in The Netherlands. Now they employ closer to 140 people. Its full R&D team is based in Israel where the technology was developed. The firm only recently staffed up a full sales and technical service team –– in the U.S., Europe, Latin America and Asia. UBQ does not disclose its annual sales, but Douer acknowledges they still are very small. “We are very small for what we want to accomplish. This is a company where everyone in [it] knows, that probably we’re going to make money. We have a wonderful product.” He fully expects that in the next year or two UBQ will have “made it” financially. “But that is not success at UBQ. ... If all we have in five years from now is 80,000 tonnes of capacity –– which is what we have today –– I will feel we have failed. If we want to fix the problems that UBQ fixes ... we have to build millions and millions of tonnes of UBQ capacity. If all we’ve done within five years is become rich, we will have failed. This is a company about fixing a problem, and that is how we will be measured as time goes by.” Albert Douer and Teknor Apex’s John Kaminsky. Finding a partner in Teknor Apex This drive to help address the problem of plastics waste helped to connect Teknor Apex and UBQ. The two firms, notes Douer, share some key values. Teknor is a family-owned business, celebrating its 100-year anniversary. In some ways, Teknor is much like UBQ, Douer said. “We don't look at things on a quarterly basis, we don't look at things a yearly basis, we're thinking about our grandchildren. Okay. From the minute we met ... that was the feeling, and that's why Teknor is so special for us.” John Kaminsky, senior vice president of Teknor Apex, agrees. Noting that his firm began recycling PVC 50 years ago and has long been focused on minimizing waste, Kaminsky says of the relationship: “This gives us an opportunity to really triple and double and quadruple our impact on sustainability working with UBQ. “We're in a rapid-learning, full-team-engagement, collaborative relationship with UBQ, where we're working through these opportunities, and understanding where we can help the world and win together. So both of our intentions are to grow and grow sustainably. For Teknor, it's continuing to develop expertise in formulating with UBQ materials.” But even more importantly, he said, it’s understanding the application space and how to potentially make adjustments to help customers be successful and be able to use more and more UBQ. It’s vital to continue to deliver performance while also meeting sustainability goals. Did you know that all household waste isn’t handled the same way everywhere? Route 1 : In countries without waste management programs, waste is directly disposed of in landfills or incinerators. Route 2 : If there is a waste management program, whatever can’t be recycled, is also sent to landfills or incinerators. Both processes generate harmful methane (CH4) and carbon dioxide (CO2) emissions, which contribute to climate change and biodiversity loss. Imagine if an alternative, a Route 3 , existed that created a second life for waste and avoided disposing of them in landfills or incinerators. UBQ has this game changing, alternate route! Companies truly committed to positive change are joining the material revolution. Give household waste a second life! UBQ’s early days Douer reflected on the start of UBQ 13 years ago, based on a set of patents developed in laboratories in Israel. Douer joined as the first big investor after he was approached by Tato Bigio, one of the co-founders. Referring to Gil Felus, UBQ’s chief innovation officer and chief operating officer for the past decade, Douer said: “We come from the chemical world. So, from the very first day that UBQ started, it was thought of as an industrial company. It wasn't thought of as a university experiment.” The UBQ team worked for years, refining their processes and getting key environmental approvals and certifications for their materials –– before they ever went to market. Today, many retailers, brands and OEMs are more keen than ever to advance their sustainability and circularity credentials. Albert Douer, UBQ’s co-CEO and executive chairman, in front of a firm’s display of more than 40 products containing UBQ materials. Dozens of products, across several industries The result is a diverse swath of more than 40 products made with UBQ-brand materials. These spanned four industries –– consumer durables, building and construction, automotive, and supply chain and logistics. Customers include companies such as McDonald’s, PepsiCo and Mercedes Benz. The products displayed ranged from cocktail tables and rotomolded garden furniture to household goods, lamp fixtures and car parts. Douer says his firm has even found a way to include 20 percent of UBQ in polyethylene blown film. Douer said: “I see a huge amount of plastic in the household goods industry switching to UBQ. I mean, a huge amount in things like outdoor sheds, in flower pots, in dog houses, chairs, tables” and various types of furniture. Kaminsky said, “We are actively mining the marketplace for the intersection of where sustainability and interesting, valuable materials are coming together. And we're looking at those opportunities every day.” UBQ gets its feedstock from a variety of sources. Douer says they particularly like household waste. “We also have an entire patent family having to do with vulcanized rubber from tires. Can you imagine injection molding vulcanized rubber from tires? Well, we can do it.” They also see a lot of potential with paper sludge. “People don't know what to do with those very short fibers that end up after you make carton or paper. ... Once it's semi-dry, we're able to use it in our process.” UBQ takes pride in ‘formulating waste’ Douer continued: “I tell people, this is something crazy, we formulate waste. Sounds like the craziest thing in the world. We can take waste from Amsterdam, which is different than the waste from Germany, and formulate it so that when Teknor gets their material, it's exactly what they were promised.” This also involves dealing with the odor issue that typically plagues waste materials. This was a big problem in UBQ’s early days. But the firm has since found a way to deal with it. “If you think about it, odor comes from the input,” Douer explained. “And the input in our case is heterogeneous. So it's not like you get the same odor all of the time. But today what I would tell you is most of the time when we have an odor problem, it usually is because the material is getting processed at the wrong temperature. It's burning. It’s not from the material itself.” Everything has an odor, Kaminsky noted, and it needs to be managed. But UBQ, together with Teknor, has found ways to address this issue very effectively. Exhibitors & products around recycling Recycling plants Separating and sorting systems for waste Size reduction equipment (crushers, shredders, grinders) Compounding lines Recyclates The firm’s signage simplifies UBQ’s process for turning household waste into useful products. Working with existing waste infrastructures UBQ also strives to work with whatever existing waste infrastructure exists within a given region or country. “We don’t like reinventing the wheel,” Douer said. In Europe, for example, there's a lot of RDF, or refuse-derived fuel –– essentially waste-to-energy operations, he noted. “What we do is we tap into that stream. Obviously, people prefer to make tables, chairs, car parts, than to burn things. ... And then in places like the U.S. we’re talking to different waste partners, the ones that already understand what the municipalities need, understand what all these people need. And we are resolving their end-of-life in a much nicer way than all those landfills.” This boom in commercial interest and demand prompted UBQ to open its big new plant late last year in the Dutch city of Bergen op Zoom (BOZ). “The Netherlands emerged as the perfect launchpad for UBQ’s global ambitions,” the company said, “primarily due to its strategic location and advanced waste ecosystem. In the face of regulatory challenges, UBQ adeptly secured community and government support by placing a strong emphasis on sourcing preprocessed waste materials and adhering rigorously to environmental standards. The BOZ plant uses 104,600 tonnes of RDF from local waste processing partners and converts it into 80,000 tons of UBQ per year. They designed the system to be resource efficient, modular, and scalable, using multi-line layout capacity, enabling mass production and global expansion of UBQ. The plant has promised to create 130 full-time jobs, while also supporting the region’s transformation into a sustainable manufacturing hub while enhancing its recycling rates to comply with the state’s target. UBQ attracted a lot of attention in Orlando in 2024. Here, John Skabardonis from Covestro interviews Albert Douer for a video produced by the German materials company at a trade fair. Addressing thecost equation But can UBQ compete on price? Douer says yes, absolutely. “If you formulate correctly, and you use UBQ correctly,” he says, “chances are extremely high that the end product will not cost more than whatever you're doing today. And you definitely do not need to change your entire capital equipment ... in order to start using UBQ, which is another huge advantage. “So in UBQ, one of the things that we are very happy with is that we're going to be able to give sustainability to people without them having to pay a price for it –– so long as we formulate correctly, and we process it correctly. Again, the end product should not be costing more than the original.” This all sounds very promising. Taking common household garbage and turning it into thermoplastic resin that can be processed using current equipment to produce quality, durable products –– all at an affordable price. But even so, Douer offers a point of caution: “I just want to be very clear on this because sometimes it comes up. UBQ is not a silver bullet. It's a great product. It solves a lot of things. But there is no such thing as a silver bullet. Solving the world’s problems is going to take a lot of different people working on a lot of different things.” Robert Grace More around Recycling

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  • Charlie Tan Leads the Global Impact Coalition in its Mission Toward a Net-zero Chemical Industry

    Initially under the wing of the World Economic Forum, the now-independent Global Impact Coalition aims to advance decarbonization of the chemical industry Exclusively for K-Mag 19.07.2024 Charlie Tan has his work cut out for him. The 30-something, London-born Brit/Malay last November became CEO of the newly reconstituted Global Impact Coalition (GIC). The GIC has the stated aim of transforming the global chemical industry to net-zero by 2050. As GIC CEO, Charlie Tan is charged with steering the chemical industry toward its goal of net-zero by 2050. Courtesy of the Global Impact Coalition The CEO-led group began life three-plus years ago under the auspices of the World Economic Forum called the Low-Carbon Emitting Technologies (LCET) initiative. It relaunched late 2023 in Geneva as an independent association under its new name. In a recent email interview, Tan said it has felt like a very organic transition into the role of GIC's chief executive. "My background has always been a blend between corporates and startups. The broad industry that we call commodities and energy has always interested me. Geneva –– where I grew up –– is really the global HQ for a lot of this activity. I guess this has guided my career preference to an extent." The GIC launched with seven initial members: BASF , SABIC , Clariant , Covestro , LyondellBasell , Mitsubishi Chemical Group , and Solvay (now Syensqo). Since then, the group has added Siemens Energy and Sabanci Group as members. A community of more than 100 senior executives in the chemical industry and adjacent sectors currently support the GIC by actively engaging in its various working groups. The GIC claims to be a "first of its kind collaboration of climate action champions in the chemical industry." This is needed as the industry has a significant footprint. Now an independent entity, the GIC boasts eight members and many partners and supporters. Experts currently estimate the chemical industry to be responsible for 6-7 percent of global greenhouse gas emissions, and that number is only expected to grow due to increasing demand. The industry's heavy reliance on oil and gas inputs renders it a major contributor to carbon emissions, ranking third, behind only steel and cement. The chemical sector, Tan acknowledged, consumes 14 percent of all oil and 8 percent of all gas supply as feedstock and fuel, making it one of the largest consumers of fossil carbon supply for material use. While a heavy emitter of greenhouse gas emissions, the chemical industry also provides essential materials, technologies and building blocks for roughly 95 percent of all manufactured goods. All core member companies contribute an equal (undisclosed) membership fee that covers everything to do with operating and running the coalition. Tan said the member companies have important responsibilities. They are expected to proactively bring project ideas to the table that can be openly discussed as a team and resourced as such. GIC also expects its members to commit to the net-zero transition, champion low-carbon technology, and demonstrate a collaborative mindset. "Collaboration is key to our group’s success," noted Tan. "At present, we have a diverse group of eight CEOs and C-level executives who are part of the GIC's CEO advisory board meeting twice per year. This structure," he notes, "allows for a swift approval of projects, an alignment on core GIC strategy, and deliverables going forward, all crucial input for the success of our coalition. New members who wish to join will also gain a seat on our CEO advisory board." Work is afoot in labs around the world to find ways to reduce the carbon footprint of the chemical industry. Courtesy of TNO He says there are "a tantalizing number of opportunities to explore and develop as a collective industry –– from unconventional partnerships, to pushing new business model and technology frontiers, to new ways to work with research labs and universities, the list goes on. One of my roles is in identifying these areas for collaboration, and then enabling GIC as a platform to execute this most efficiently and inclusively." GIC entered a strategic alliance with Boston Consulting Group, via which it identified key global impact topics relevant to the chemical industry. These include decarbonization of processes, reduction of high global warming potential emissions, energy transition enablement, circularity of polymers, utilization of alternative carbon sources, and chemical safety and pollution. "We work with a specialist team at BCG, along with all member companies," Tan explained, "to develop specific business cases for projects that gain interest and excitement. Currently, we have identified around 25 projects that interest companies at an individual level, but also speak to the broader mission and goal of GIC in ‘what cannot be done by any one company alone’ in this path toward net zero." He cited the five following project ideas currently under development: Set up a consortium to optimize the disassembly and recycling of automotive plastics from end-of-life vehicles to increase access to polymer waste streams. Collaborate to build strategic hubs for collection, purification and marketing volumes of pyrolysis oil with a standardized quality. Create a joint R&D hub of start-ups to advance Carbon Capture Utilization (CCU) through commercial commitments, capacity commitments and technical advice. Develop biogenic feedstock suppliers without repurposing food-grade crops via optimized feedstock and matching downstream process and end-use. Develop and expand process routes to convert complex waste streams to C2+ monomers or liquids for further chemical product trees. GIC also is partnering with EY to develop industry articles and white papers, as well as quarterly webinars, starting in June 2024. Tan said these webinars will bring together the GIC community, including business, policy, and financing stakeholders. EY will extend its reach to bring in a broader chemical network for these discussions, focusing on their Circular Economy Network. "We will also share insights and get participation from the World Economic Forum," said Tan. The webinars will focus on identifying and resolving key technology, regulatory, and value chain/supply chain barriers to the net-zero transition in the chemicals industry. BASF, together with SABIC and Linde, recently launched two new electrically operated steam cracker furnaces that run on green electricity. Courtesy of BASF An example of successful collaboration between GIC member companies BASF, SABIC, with technology provider Linde, is the recent launch of two new electrically operated steam cracker furnaces that run on green electricity. By using electricity from renewable sources instead of natural gas, this new technology has the potential to reduce CO 2 emissions of one of the most energy-intensive production processes in the chemical industry by at least 90 percent compared to technologies commonly used today. The European Union and the German Federal Ministry for Economic Affairs and Climate Action helped to fund the project, which aims to support the development of the novel furnace technology. "Disruptive innovation is crucial if we want to meet carbon neutrality goals, and this project shows the true power of what can be achieved when we work together," Tan said. "This serves as a great lighthouse for future projects that we incubate in the GIC." Exhibitors & products around machinery & equipment Machinery and plant for processing Post processing machines & downstream equipment Machinery & plant for finishing, decorating, printing and marking Welding machines Process automation To all exhibitors in this category To drive circularity by improving recycling systems, GIC also is focusing on projects in the following areas: sensing for sorting polymer/inorganic separation at mm-scale polymer/inorganic separation at um-scale enhanced solvolysis for composite recycling These projects, noted Tan, are part of the R&D Hub for plastic waste processing that was formalized in September 2023, and represent one of the first projects incubated inside the coalition. The R&D Hub addresses real-life technical challenges of waste processing and works on problems the industry encounters when developing mechanical and chemical recycling routes for their products. These projects, he said, are based on two technical challenges: "Separation of Polymer Materials from Waste Compositions" and "Processing of Polymer Materials Comprising Fillers and Additives." The GIC began life in 2021 as the Low-Carbon Emitting Technologies initiative, a program of the World Economic Forum. Currently, managed waste is either landfilled or incinerated. In both cases, significant GHG emissions result at the end of life, while also causing valuable chemical building blocks to be lost from materials such as plastics. "To change this and drive net-zero circularity," he said, "several challenges need to be overcome, limiting recycling today." GIC also is actively aiming to assist the automotive sector. Cars on the road are not designed for circularity: while metals are largely recycled, plastics, of which there are more than 50 different grades in any one car, mostly end up landfilled/ incinerated, with high scrutiny from upcoming regulation and increasing demand as OEMs ask for recycled content. The group has selected its automotive plastic disassembly and recycling consortium among four other projects out of the 25 project ideas they have in their pipeline. "The idea," Tan said, "is to set up a consortium to optimize the disassembly of automotive plastics and get access to polymer waste streams via companies’ collaboration." Tan noted that this is a classic example of a problem that cannot be solved by any one company alone and requires collaboration not just with chemical companies but across the value chain with OEMs and disassemblers. The chemical industry is one of the largest consumers of fossil carbon supply for material use, but its products also are essential in nearly all manufactured goods. It's a lofty goal to aim to try to transform the sector. Courtesy of TNO "The goal is to create economies of scale through waste-stream pooling and ensuring sufficient demand for these waste streams. This consortium aims to make recycling not only viable but also a sustainable solution for automotive plastic waste." GIC also wants to become more global. "To have a global impact we need members from all over the world. With most of the founding members being predominantly European focused, we are accepting members now from China, Middle East, and the U.S., amongst others." "We also need to be represented across the value chain. From upstream to down, brands, waste management companies, technology providers, and other industrial partners that are interlinked with chemical producers are key to creating new partnerships and ultimately increasingly interesting business proposals that help drive us all towards net zero goals." "I see immense potential in reshaping the chemical industry's impact on our planet," said Tan. "One of our goals is in forging new pathways to achieve this, through collaboration, business model transformation, and solid partnerships that create true value in our drive to a net zero future. I am extremely excited to lead the charge, focused on less talk, more results." To learn more, go to https://globalimpactcoalition.com . See a video of a panel discussion about GIC at the WEF's Davos 2024 meeting. Robert Grace More around Climate Protection

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