Plastics in Practice

Plastics have become indispensable in many sectors: packaging, transport, medicine, the home, construction and much more. In this section, you will find numerous articles on the use of plastics in various contexts.

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Results (111)

  • No 5G Without Plastics?

    How modern materials make digital infrastructure possible behind the scenes Exclusively for K-Mag 5G connects cities, industry and everyday life. It is only through the use of suitable materials that these high-performance connections are made possible in the first place. Copyright: InfiniteFlow – stock.adobe.com 25.03.2026 No 5G without plastics? The question hits the nail on the head. When discussing the fifth-generation mobile communications standard, one key factor often remains unseen: the materials. Because whether it’s antennas, casings or cables – only the right plastics ensure that 5G technology works reliably. With the global expansion of networks, the question of materials is therefore coming into sharper focus. Why Materials Are Crucial for 5G Technology Antennas are central elements of the 5G infrastructure. Their housings are often made of plastics that allow signals to pass through whilst providing protection. Copyright: Justlight – stock.adobe.com Applications such as connected manufacturing, autonomous driving or data-intensive services in everyday life demonstrate just how rapidly the demand for high-performance networks is growing. 5G brings not only greater speed but also new physical challenges. Although higher frequencies allow for larger data volumes, they are more sensitive to interference and shielding. This places correspondingly high demands on the materials used. Materials are required that: minimise signal loss, selectively allow electromagnetic waves to pass through or shield them, are temperature- and weather-resistant and remain lightweight and durable at the same time. This is precisely where plastics excel. Unlike metals, which can shield radio signals, they allow significantly better transmission of electromagnetic waves – a clear advantage for modern mobile communications technologies. Without suitable plastics, many of these requirements would not be met – signals would be more severely attenuated, components would wear out more quickly, and the performance of the networks would be significantly limited. How does 5G work? 5G uses higher frequency bands than previous mobile communication standards this enables higher data rates and lower latency the network consists of many smaller radio cells rather than a few large masts more antennas = higher performance, but also greater demands on materials Where Plastics Are Used in 5G Technology 5G is also transforming the infrastructure: instead of a few large masts, an increasing number of smaller transmission units are being deployed, which are integrated into existing environments. Plastics are present in virtually all areas of the 5G infrastructure – often invisible, but functionally crucial. Antennas & radomes They protect sensitive technology from the elements whilst allowing radio waves to pass through virtually unimpeded. Materials with low signal absorption and stable dielectric properties are crucial. Without these materials, it would not be possible to design antennas that are both protected and capable of transmitting signals. Housings & components Whether on masts or in urban infrastructure: plastics provide UV-, temperature- and weather-resistant solutions that remain lightweight and flexible in design. Their corrosion resistance and durability also contribute to the long-term operational reliability of the infrastructure. Cables & connectors As frequencies rise, signal stability becomes a challenge. Specialised polymers enable precise insulation and low transmission losses . Shielding & EMC Functionalised plastics with conductive additives provide the necessary electromagnetic shielding without compromising system performance. Lightweight construction & design freedom Plastics reduce the weight of components whilst opening up new design possibilities . They enable complex geometries and the integration of multiple functions. Without lightweight and flexible plastics, it would be virtually impossible to integrate many 5G components into existing infrastructure such as street lamps or building facades. Is 5G harmful? As things stand, there is no scientific evidence that 5G is harmful to health. Exposure limits are regulated and monitored at international level. The higher density of antennas often actually results in lower transmission power from individual devices . 5G: New Challenges for the Plastics Industry Small cells are crucial for 5G roll-out. Their integration into urban spaces requires lightweight and robust materials. Copyright: Mahbub – stock.adobe.com With 5G, it is not only the technology that is changing – but also the role of the plastics industry. There is a growing demand for materials that are no longer universally applicable , but are specifically developed for particular applications. This has several consequences: Greater specialisation: Standard materials are often no longer sufficient – there is a need for bespoke solutions for antennas, housings or electronics . Closer collaboration along the value chain: Material manufacturers are collaborating earlier and more intensively with telecommunications companies and device developers. Growing demand due to infrastructure expansion: The global 5G rollout is increasing the demand for high-performance plastics. The tension between performance and sustainability: Today, more than ever, high-performance materials must be assessed in terms of recycling and climate protection. 5G is not just a technological issue – it is a driver of innovation for materials development . Without these material innovations, the roll-out of high-performance 5G infrastructure would proceed at a much slower pace. Conclusion: Digitalisation Requires Materials Expertise 5G is far more than an upgrade of network technology. It is a technological leap that would be inconceivable without the right materials. Plastics play a key role in this: They enable high-performance infrastructure, they ensure reliability and efficiency and they open up new design and integration possibilities. With a view to future developments – such as 6G and even higher frequencies – this importance will continue to grow. Without suitable plastics, many key components of 5G infrastructure – from antennas to printed circuit boards – could not be produced in their current form. The portrait was generated by AI. Author: Elena Blume | K-Mag Elena Blume has been writing for various industry magazines for eight years and joined the K-Mag editorial team in 2021. She is particularly interested in topics related to innovative plastics solutions that contribute to sustainability and address current challenges relevant to industry and society. At a glance 5G places new demands on materials – particularly in terms of signal transmission, temperature resistance and durability. Plastics are used in key components, such as antennas, housings, cables and printed circuit boards. The roll-out of 5G is driving the development of specialised high-performance materials. Key Takeaway: When discussing the future of digitalisation, we should not only focus on networks and data – but also on the materials that make it all possible. More around Plastics in Practice

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  • Toys Reimagined: How Kidults as a New Target Group and Sustainable Plastics Are Changing the Market

    Manufacturers must now consider material selection, design and recyclability together Exclusively for K-Mag Toys are no longer just for children: adults are increasingly discovering plastic toys as lifestyle, collectible and relaxation products. 25.02.2026 The global toy market is undergoing change. While classic children's products continue to be in demand, new target groups such as kidults – adults who use toys as lifestyle, design or relaxation products – are becoming more prominent. This is changing not only marketing and design, but also requirements for material selection, safety and production. Level of detail, colour brilliance and surface quality are becoming key differentiating features in the kidult segment. Copyright: Messe Düsseldorf / ctillmann Kidults Are Driving the Market The growing importance of adult target groups is significantly changing the requirements for toys. Products with high material quality, well-thought-out design and durable construction are in demand. For manufacturers, this means focusing on materials that reliably combine haptics, stability and design freedom – while also meeting regulatory and sustainability requirements. Unlike in the traditional toy market, price plays a lesser role in many kidult products than design, brand loyalty and material appeal. Surface quality, colour brilliance, scratch resistance and weight are becoming distinguishing features. For manufacturers, this means: Material quality is becoming a strategic brand factor. Those who use durable polymers and focus on high-quality workmanship can clearly position themselves in the growing kidult segment. Toys are no longer just for children. Adults are discovering them as design, collectible and relaxation products. The more durable a toy is, the better its environmental footprint. Quality beats disposable design. The choice of materials determines whether toys can be recycled later on – design for recycling starts right at the beginning. Recyclates of a defined quality are a prerequisite for recyclable toys and transparent material concepts. Copyright: Messe Düsseldorf / ctillmann Sustainability in the Nursery At the same time, consumer expectations for sustainable toys are rising. Products that are safe and as recyclable as possible are in demand. Aspects such as reparability, freedom from harmful substances and transparent material concepts are gaining in importance. Sustainability is evolving from an image issue to a purchasing criterion – both in the traditional children's segment and among design-conscious adults. Retailers and brands are increasingly demanding transparent material strategies. At the same time, conflicting goals are emerging: Recycled materials can affect colour consistency and surface quality. Monomaterial design improves recyclability but limits design options. Repairability increases material and construction costs. For product development, this means: Sustainability must be taken into account early on in the concept phase. Changing materials at a later stage is technically and economically costly. Integrating design for recycling from the outset reduces long-term adaptation costs and strengthens the future viability of the portfolio. In this context, it is also interesting to take a look at our article on sustainable toy concepts in the nursery. Automation solutions support the efficient and resource-saving production of plastic toys along the value chain. Copyright: Messe Düsseldorf / ctillmann Modern Plastics as Enablers Material innovations make it possible to combine different requirements. Bio-based plastics , quality-assured recyclates and design-for-recycling approaches contribute to making toys more resource-efficient. At the same time, they must meet high safety standards and be efficient to process. This makes material design a strategic decision – not just a technical one. Key questions for manufacturers include: Bio-based material or mechanical recyclate? Monomaterial for better recyclability or multimaterial for greater design freedom? Additives to extend service life or reduce material diversity? The decision is less about individual measures and more about the system perspective: material selection, design, processing and subsequent recycling must be considered together – along the entire networked value chain. Examples From Industry K exhibitors develop solutions for the toy industry along the entire value chain – from child-friendly polymer materials and additives for durability and colouring to energy-efficient machines and systems . K exhibitor Grafiche Lama Srl develops in-mould labels (IML) in which the decoration is firmly integrated into the plastic component during the injection moulding process. For toys, paints and varnishes without critical chemical components are used that meet international safety requirements and enable durable, process-integrated labelling. Strategic relevance: IML solutions can replace separate labels or adhesives, thereby reducing material diversity. In the field of recycled materials, too, approaches are emerging that make the circular economy practicable in the toy market. One example is the Saxony-based company HolyPoly , which collects and recycles plastic and reuses it as a raw material for new toys. Strategic relevance: Closed material cycles enable brands to communicate sustainability credibly. Discover exhibitors and products related to toys! From material development to processing and logistics: sustainable toys are created along a networked value chain. Copyright: Messe Düsseldorf / ctillmann Opportunities for Manufacturers The transformation in the toy market opens up new opportunities for differentiation. Strategies that clearly combine target group, design and material concept are particularly successful. Possible positioning approaches: Premium & durable (kidults): High-quality materials, robust construction, long product cycles. Recyclable & transparent: use of recycled materials, clear material labelling, design for recycling. Modular & repairable: interchangeable components, reduced variety of materials. Resource-efficient production: energy-efficient machines & systems, optimised processing. The plastics and rubber industry provides the technological basis for this – from innovative polymers and additives to automated, sustainable production processes. Three key questions for toy manufacturers Which target group are we addressing – children, kidults or both? Is our material strategy designed for recycling from the outset? What role should sustainability play in our brand and pricing strategy? The portrait was generated by AI. Author: 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 The toy market is growing thanks to new target groups such as kidults. Sustainability is also becoming an important purchasing and differentiation criterion for toys. Material choices influence design, safety, recyclability and brand positioning. Key Takeaway: Those who take an integrated approach to material design, sustainability and target group strategy can differentiate themselves in the growing toy market. More around Plastics in Practice

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  • The carbon footprint of plastics: Why PCF-reduced polyamides are becoming a key lever

    A cycling rucksack from VAUDE, made using Ultramid® ZeroPCF from BASF, demonstrates how material choices can help tackle climate change.

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  • Underestimated lifesavers: How plastics form our everyday lives

    Modern security is based on plastic solutions in many areas Exclusively for K-Mag 28.01.2026 Plastics are rightly criticized—microplastics, resource consumption, and disposal problems are real challenges. But in the discussion about bans and alternatives, one crucial question is often ignored: What happens in safety-related areas if we do without plastics? In hospitals, vehicles, and fire protection systems, there are currently no equivalent alternatives. The reason: specific material properties such as sterilizability, energy absorption, and flame retardancy cannot be achieved with today's biomaterials or conventional materials – at least not without significant safety risks. Plastic-based medical devices ensure safe insulin dosing in everyday life. Why reusable products are not an option in hospitals Disposable syringes, infusion systems, catheters: polymers dominate medical technology not for convenience, but for safety reasons. The alternative—reusable products made of glass or metal—fails on three counts: First , plastics can be sterilized at lower temperatures (important for heat-sensitive active ingredients). Second , they are shatterproof and prevent injuries from glass splinters. Third , they enable airtight, sterile individual packaging that minimizes the risk of infection. Glass or metal alternatives would not meet these safety standards. At the same time, disposable products pose a disposal problem. Processes such as the reprocessing of disposable products are therefore becoming increasingly important for the industry – without compromising safety standards. Bumpers from various cars. Why metal bumpers are more dangerous Metal bumpers sound robust—but in a crash, they are anything but safe. The reason: metals hardly give way on impact, so the impact energy is transferred directly to the occupants. Plastics, on the other hand, absorb energy in a controlled manner, thereby massively reducing the risk of injury. A concrete example: Modern bumpers consist of three layers: metal support (stability), expanded polypropylene (EPP, energy absorption), and outer plastic cladding. EPP is crucial here: it absorbs up to 80% of the impact energy, does not break, and returns to its original shape. Metal, on the other hand, would deform and transfer the energy directly. A steel bumper would protect the vehicle in collisions at 15 km/h, but would expose the occupants to stronger G-forces, i.e., inertial force per mass. EPP reduces these forces by up to 60%. Thanks to processes such as compressed air forming, key material properties can be specifically adapted – from component geometry and density to thermal, acoustic, and mechanical properties, as well as color. This means that EPP can be tailored precisely to different safety requirements. Fire protection starts with the material Flame-retardant plastics in cable sheathing and insulation materials slow down the spread of fire and give people time to evacuate. Alternatives such as untreated natural fibers would burn faster, while metals would conduct heat too quickly. The key point is that safety, functionality, and sustainability can be combined through durable construction, design for recycling , and the targeted use of recycled materials . Safety functions of plastics in everyday life The question is no longer whether we should replace plastics, but where it is responsible to do so. The decisive factor is therefore the consistent integration of sustainable and functioning recycling systems. Plastics perform safety-related functions in many everyday applications: Medical care: Sterile disposable products and biocompatible components increase patient safety. Emergency and rescue systems: Masks, tubes, and protective clothing made of plastic enable rapid assistance. Automotive and transportation: Energy-absorbing plastic components protect occupants in accidents. Mobility and travel: Lightweight, stable plastics increase the safety of traffic and transportation systems. Infrastructure and industry: Durable plastics secure pipes, equipment, and supply systems. The portrait was generated by AI. Author: 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. This article was created with additional AI tools. At a glance Plastics ensure greater safety in everyday life – for example, in medicine, mobility, and fire protection. Their special material properties protect people and systems. Functional design and sustainable solutions are crucial for the future. Key Takeaway: What remains: In safety areas, there are currently no equivalent alternatives to plastics. Their specific properties—from sterilizability to energy absorption—cannot be replaced technically. The challenge: maintaining safety standards while promoting the circular economy. More around Plastics in Practice

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  • Stratasys Accelerates Airbus Production with Additive Manufacturing

    More than 25,000 certified 3D-printed parts produced annually – over 200,000 already in flight Airbus’ Airspace Explorer – a specially configured A350-900 flight test aircraft fitted with the company’s award-winning Airspace cabin – is exhibited at the ILA Berlin air show Copyright: Max_Leitmeier-Schwarzbild 19.01.2026 Airbus is increasingly relying on Stratasys additive manufacturing technologies to support production and maintenance across its global fleet. Using the high-performance ULTEM™ 9085 CG material, more than 25,000 certified aircraft parts are produced each year, reducing downtime, strengthening supply chains and lowering storage costs. Additive manufacturing scales across the Airbus fleet Airbus now produces over 25,000 flight-ready 3D-printed components annually using Stratasys technology . What began with a spare crew-seat part has evolved into a broad application of polymer additive manufacturing, with more than 200,000 certified parts currently in service. Recent data highlights significant efficiency benefits. For the Airbus A350, the use of Stratasys 3D-printed components resulted in a 43% weight reduction, removal of minimum order quantity (MOQ) requirements and an 85% shorter lead time, saving both cost and production time. High-performance materials for aerospace Airbus manufactures components for its A320, A350 and A400M platforms using ULTEM™ 9085 Filament Certified Grade (CG) on multiple Stratasys industrial FDM® systems. These parts meet stringent aerospace requirements and enable faster, more cost-effective replacement of mission-critical components. “Stratasys’ additive manufacturing technology is an integral part of our commitment to safe and sustainable aviation,” said Serge Senac, Airbus Industrial Leader for Polymer Additive Manufacturing. The flexibility of additive manufacturing supports Airbus in strengthening its connected value chain and aligns with long-term sustainability goals. Did you know? Distributed manufacturing enables on-demand production exactly where components are needed – for example at major hubs to minimise aircraft downtime. Unlike traditional manufacturing, which requires tooling and moulds, additive processes allow production to start almost immediately. While subtractive methods remove material, additive manufacturing uses only what is required – especially beneficial when working with high-performance polymers. Advantages of distributed manufacturing By producing parts when and where they are needed, Airbus can: reduce aircraft downtime minimize warehousing needs lower risks associated with global supply chains “Our collaboration with Airbus is proof that additive manufacturing is being integrated into true production at scale, and can be a huge differentiator,” said Rich Garrity, Chief Business Unit Officer, Stratasys. Decades of aerospace expertise Stratasys brings extensive experience in delivering certified materials, additive manufacturing platforms and software solutions for OEMs and suppliers. Its technologies support both production and MRO applications, helping aerospace stakeholders maintain operational reliability while managing costs. Stratasys At a glance Airbus now produces more than 25,000 certified 3D-printed parts per year using Stratasys technology, with over 200,000 components already in service. The use of ULTEM™ 9085 CG delivers a 43% weight reduction, 85% shorter lead times and greater supply chain resilience. More around Plastics in Practice

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  • #Recycling #Sustainability #Electronics #Lifestyle #Material Design

    7 Ways in Which the Fairphone Uses Plastics Sustainably

    The Fairphone as a model for more sustainable electronics Exclusively for K-Mag The Fairphone is an example of how a smartphone can be made sustainably. Plastics and recyclates play a major role in this. Copyright: Fairphone ( „ Fairphone 4 “ by Fairphone , CC BY-SA 2.0 ) 14.01.2026 When high-tech creates major hurdles: smartphones consist of complex material composites made of metals, rare earths, glass and plastic. This makes recycling difficult. Resources are also lost when a phone is replaced after just a few years. Fairphone makes its smartphones sustainable and minimizes the environmental impact of a phone – with a modular design and recycled plastics. In seven points, we show you why the Fairphone is a role model for sustainable design and how plastics play a key role in this. It turns out that the sustainable smartphone can also be an example for other electronics. 1. Material Efficiency and Modular Design The modular architecture of the Fairphone extends the service life of key components. Phone parts such as the display, camera or speaker can be replaced individually. This reduces the need for new phones and therefore also plastic parts. Users only replace the defective element. The material intensity per life cycle is reduced. According to Fairphone, the repair-oriented design leads to measurable reductions in material turnover and environmental cost. 2. Recyclates in the Housing Fairphone integrates a high proportion of post-consumer recycled plastics in the smartphone housing. This reduces the demand for primary plastics and strengthens recycling processes. 3. Transparency in Material Procurement The company publishes detailed information on the origin of relevant raw materials. This also includes polymer components and facilitates the traceability of material-related decisions. 4. Take-back Programs Fairphone recycles phones from its own portfolio and from third-party suppliers. Plastics and other materials such as glass and metal are returned to recycling streams. 5. Packaging with Reduced Plastic Content Fairphone mainly uses paper-based packaging for its smartphones. Plastics are avoided or replaced by recyclates. 6. Ecobalance Assessment Over the Entire Life Cycle Fairphone documents CO₂, resource consumption and material efficiency in the Impact Report. The data also includes plastics as a separate material category: in 2024, the company consumed around 3,200 kg of plastics. Around 2,645 kg (83%) of these were recyclates. Overview: Impact Key Figures of Fairphone Key figure (2024) Value / savings Reduction of greenhouse gas emissions compared to 2022 –48% CO₂ equivalents saved through extended use approx. 1,540 tons of CO₂e Avoided freshwater consumption through extended use > 550,000 m³ Avoided consumption of raw materials approx. 9 tons Share of fair and recycled materials in the latest product 69.5% A complete overview about the environmental cost can be found in Fairphone's Impact Report 2024 . 7. Driving Force for Sustainable Plastic Applications The design principles of the Fairphone show how polymer-based components can be made to last. With its own accessories (headphones/ear buds, chargers, cables), Fairphone also demonstrates the transferability from a phone to other electronic products. The Fairphone Compared to Conventional Smartphones The average service life of smartphones is around three years. If a smartphone is replaced during this period, significantly higher quantities of plastic and electronic waste are generated compared to five to six years of use. The approximately 50% reduction in CO₂ emissions from Fairphone (compared to 2022) is an indicator that longer use and recycling of materials have a concrete effect on the environment. Concrete comparative figures for the plastic and life cycle footprint of smartphones from larger manufacturers are rarely made public. This is precisely where Fairphone's value lies: through transparency and documentation, the company provides an accessible database that is otherwise rarely available in the smartphone industry. Of course, the Fairphone is not one hundred percent sustainable, if only because there are limits to the recycling and reusability of materials. Fairphone admits this itself. Nevertheless, the company's devices are practical examples of material-efficient design that makes phones and other electronics sustainable and reduces the environmental impact. Fairphone also demonstrates how plastic components and electronics can be seen not only as a short-lived consumer good, but also as a resource within a cycle. Modularity, durable design and recycling reduce the consumption of materials and the carbon footprint. Fairphone thus provides a model for a sustainable product strategy. Timo Roth (Editorial team K-Mag) More around Plastics in Practice

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  • 7 Reasons Why Plastics Save Your Christmas

    Sustainable decorating, gift-giving and celebrating Exclusively for K-Mag Plastics make it possible: Christmas trees, baubles, fairy lights and more create a festive atmosphere at Christmas – sustainably and safely. 03.12.2025 No Christmas without plastics? In fact, there is more of it in the festive season than we realise in the hustle and bustle of preparations. From artificial fir trees to shatterproof tree decorations, from toys to packaging: plastics ensure that our celebrations are safe, colourful, practical – and often more sustainable. We show you 7 things where plastics play an important role at Christmas. Plastic Christmas trees are durable, easy to care for – and just as festive as real fir trees. 1. Plastic Christmas Tree – Durable, Easy to Care For, Sustainable It is THE classic Christmas symbol and an indispensable part of almost every living room in December: the Christmas tree. But instead of buying a real fir tree every year, many families opt for an artificial tree, usually made of polyethylene (PE) or PVC. Modern plastic Christmas trees look deceptively similar to the real thing, do not shed their needles and can be put up again and again every year. Using one for a long time even conserves resources in the long run. Break-proof plastic baubles combine safety with festive sparkle on the tree. 2. Plastic Christmas Baubles – Festive Spirit Meets Break-Resistance They shine, sparkle or shimmer with a matte finish: plastic Christmas baubles have long been more than just an inexpensive alternative to glass baubles. Made of polystyrene, acrylic or PET, they are break-resistant, lightweight and durable – making them ideal for households with children or pets. And when it comes to design, they are in no way inferior to glass. Plastic housings make LED fairy lights safe and weatherproof – indoors and outdoors. 3. Fairy Lights & LEDs – Safe Lighting Thanks to Plastic Christmas without lights? Hard to imagine. Today, LED fairy lights have replaced traditional tree candles in many households – and for good reason. Instead of open flames, small points of light provide festive sparkle without any fire hazard or wax residue. The light elements are enclosed in heat-resistant plastic housings such as polycarbonate or acrylic, which protect the sensitive technology. The cable insulation is also made of robust plastics that can withstand winter weather when used outdoors. Plastic cookie cutters and baking aids are simply part of Christmas baking. 4. Plastic Baking Aids – An Indispensable Part of Christmas Baking Baking is as much a part of Christmas as snow is to December. Many Christmas baking aids are made of plastics: cookie cutters made of PP, silicone mats, piping bags and dough scrapers. These materials are lightweight, hygienic, dishwasher-safe and durable. They make baking easier – and ensure that even little bakers can help out safely. Gift wrap and bows made of plastic add sparkle under the Christmas tree. 5. Gift Wrapping & Adhesive Tape – With Moderation and Material Awareness For many people, gifts are a must at Christmas – and so is attractive packaging. Many gift wrappings today contain plastic: shiny coated paper, polypropylene adhesive tape, polyester ribbon. This does not automatically mean waste, as many plastic wrappings can be recycled or reused. Creative alternatives such as boxes made from recycled plastic or reusable packaging are also gaining in popularity. Those who pay attention to sustainable materials can use plastics in a targeted and sensible way. Plastic bubble wrap protects Christmas gifts on their way through the parcel logistics system. 6. Plastic Packaging and Transport Protection – For Gifts That Arrive Undamaged and On Time for the Holidays Online shopping is booming – especially before Christmas. Intelligent packaging solutions are needed to ensure that gifts arrive undamaged. Bubble wrap, plastic packaging and recyclable shipping bags made from monomaterials protect sensitive contents. Many manufacturers are now developing packaging that is single-material, recyclable or made from recycled materials. This shows that plastic can not only protect, but also be part of the circular economy. Plastic toys make children's eyes light up under the Christmas tree – year after year. 7. Toys Under the Tree – Plastic Ensures Lasting Joy When children's eyes light up at Christmas, it is often because of plastic toys. Whether building blocks, cars or dolls: toys made of polypropylene, ABS or, nowadays, bio-based plastics are robust and colourful. Some manufacturers rely on recycled plastics or climate-neutral production. Plastic toys are not disposable products – they can be passed on or recycled for generations. Whether visible or hidden, plastics contribute to safety and joy in many moments during the Christmas season. With thoughtful use and a growing focus on recycling and material innovation, sustainable accents can also be set during the most festive time of the year. The portrait was generated by AI. Author: Elena Blume | K-Mag Elena Blume has been writing for various industry magazines for eight years and joined the K-Mag editorial team in 2021. She is particularly interested in topics related to innovative plastics solutions that contribute to sustainability and address current challenges relevant to industry and society. More around Plastics in Practice

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  • Acrylic glass under the magnifying glass: investigating the causes after the Aquadom burst

    Video interview with Prof Dr Christian Bonten, Institute Director, Institute of Plastics Technology (IKT) Exclusively for K-MAG Copyright: Gabrielle - stock.adobe.com 16.12.2023 Why? This question was asked by the public, media and experts a year ago. On 16 December 2022 in the early hours of the morning, the Aquadom, the world's largest free-standing cylindrical aquarium, which had previously been located in the Radisson Hotel in Berlin, burst. Prof Dr Christian Bonten, Head of the Institute of Plastics Technology (IKT), was called in as an expert to determine the cause. The Aquadom was opened in December 2003 after several years of construction and consisted of an acrylic glass tank 16 metres high and 11.5 metres in diameter. It held around one million litres and housed around 1,500 tropical fish – until it suddenly burst a year ago. Searching for evidence with the help of plastics technology The investigation of the incident required a detailed analysis. Around 700 pieces of debris from the Aquadom, weighing a total of around 90 tonnes, were collected by Prof. Christian Bonten and his team and subjected to a thorough examination. This work included labelling and mapping each individual piece of acrylic glass, measuring the parts and carrying out tear tests and chemical analyses. The experts had to put together a complex puzzle to understand how and where the Aquadom first broke. A total of ten different hypotheses were tested, including those proposed by the public and the media: Was the aquarium shot at? Was it damaged with an ice pick or a hammer? Was there an earthquake or were vibrations caused by construction work nearby? Each of these speculations was carefully scrutinised and ultimately ruled out. Plastic innocent - three remaining hypotheses It could also be ruled out that the bursting of the acrylic aquarium was a failure of the plastic material. Even after 20 years, the same material would still be used for comparable aquariums. At the end of the comprehensive investigations, there were three possible causes: a loosened adhesive seam after two decades of operation, possible notches caused by handling errors during the renovation work or stresses caused by the acrylic glass drying out after several months of being empty before it was refilled. It is no longer possible to determine which of these three causes was ultimately responsible for the bursting of the Aquadom. You can find out more details in the exclusive video interview with Prof Dr Christian Bonten: Elena Blume (Editorial team K-MAG) More around Plastics in Daily Life

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  • Factor 101: Setting new standards in Lightweight PET Bottles for still Water

    KHS and Husky Technologies jointly develop one of the world’s lightest PET bottles – using 30% less material. The predecessor Factor 100 bottle from 2017 (left) has now been successfully further developed as the Factor 101 concept; Copyright: KHS 14.07.2025 With the “Factor 101” PET bottle, KHS and Husky Technologies present a new benchmark in sustainable packaging. Developed in just four months, the ultra-light yet robust container offers significant material savings and production efficiency – ideal for cost-sensitive markets. Ultra-Lightweight, exceptionally stable KHS, in close collaboration with Husky Technologies, has developed a 591-milliliter PET bottle that weighs just 5.89 grams – approximately 30% less than the typical 7-gram container for still water in the U.S. The innovative design includes a reinforced shoulder area, functional webbing, and a pop-in base that increases internal pressure under load, boosting stability. Key technical highlights: Top load resistance: 220 newtons (industry standard: 200 N) Material savings: approx. 30% vs. standard PET bottle High-speed output: up to 90,000 bottles/hour Joint expertise for sustainable solutions Central to the project’s success was the collaboration with Husky Technologies, a global leader in PET preform injection molding systems. KHS focused on bottle design and stretch blow molding parameters, while Husky refined the preform dimensions to perfectly match KHS’s InnoPET Blomax Series V blow molder. Its precise neck-ring temperature profiling ensures optimal material distribution and stretching, minimizing plastic use. The focus is on the exact profiling of the preform made possible by KHS technology KHS packaging designer Fabian Osterhold KHS GmbH Expert Insights Frank Haesendonckx (KHS): “Factor 101 is an excellent example of how we’re combining Husky’s engineering expertise in preform manufacturing with our proficiency in bottle design and production.” Michael Müller (Husky Technologies): “We see great benefit in combining our technical expertise and envisage leveraging this for future projects. Here, Factor 101 acts as a starting point for discussion of a lightweight program and optimization of current packaging systems and solutions.” Source KHS At a glance KHS and Husky Technologies have developed one of the world’s lightest PET bottles for still water with their “Factor 101” design. Weighing just 5.89 grams, it uses around 30% less material than standard bottles while maintaining high stability and line compatibility. Developed in just four months, the project highlights how collaboration drives innovation and sustainability. More around Packaging

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  • Advancing Sustainable Automotive Materials: SK chemicals and Hyundai Collaborate

    Pioneering Circular Recycling and Bio-Based Components in the EV3 Study Car SK chemicals and Hyundai·Kia showcase the potential of circular recycling in automotive manufacturing by integrating recycled PET and bio-based materials into the EV3 Study Car. 24.02.2025 SK chemicals and Hyundai·Kia are driving sustainability in the automotive sector through innovative recycling technology. By incorporating circular and bio-based materials into Kia's EV3 Study Car, the collaboration paves the way for a more eco-friendly vehicle production model. Collaborating for a Circular Economy SK chemicals, in partnership with Hyundai·Kia's AVP Division and Basic Materials Research Center, successfully applied six components made from circularly recycled and bio-based materials in the EV3 Study Car. This project marks a significant step in integrating recycled PET and bio-based alternatives into vehicle manufacturing. Innovative Use of Recycled PET in Automotive Interiors The EV3 Study Car demonstrates the potential of using recycled PET in automotive components. SK chemicals provided five key parts using this sustainable material: Headliner Seats Crash pads Door panels Door armrests Additionally, SK chemicals introduced its FLEXIA soft material in the vehicle’s floor mat, ensuring a single polyester composition that facilitates end-of-life recycling. Advanced Chemical Recycling for High-Quality Materials SK chemicals utilizes a proprietary chemical recycling method, known as depolymerization, to break down waste plastic into molecular units. This process enables the production of materials nearly identical in quality to virgin petroleum-based plastics. As the first company to successfully commercialize this technology, SK chemicals leads the industry in scalable, high-performance circular recycling . Addressing Challenges in Fiber Recycling Recycling fibers for automotive use presents technical challenges, particularly in achieving durability, color consistency, and spinning efficiency. By leveraging its chemical recycling expertise, SK chemicals overcame these limitations, ensuring that the recycled materials in the EV3 Study Car meet stringent performance requirements. Strengthening Industry Collaboration The project, spanning 14 months, highlights the necessity of cross-industry partnerships to drive sustainability. Kang Seok-ho, Head of SK chemicals' Strategy Center , stated: "Achieving the ultimate goal of sustainable automobiles, the Car-to-Car Closed Loop, requires comprehensive collaboration not only with automakers but also with materials and component companies." Going forward, SK chemicals and Hyundai·Kia plan to expand their collaboration to integrate eco-friendly materials into a broader range of vehicles, as well as explore applications in industries like fashion and electronics . SK chemicals More around Mobility

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  • Sustainable Progress: LG Chem and Reifenhäuser Advance MDO-PE Film Technology

    Collaboration to Develop Cost-Effective, Recyclable Packaging Solutions Dr. Lee Choong Hoon, Vice President and Head of NCC/PO Business Unit at LG Chem (left), with Bernd Reifenhäuser, CEO Reifenhäuser Group (right) after signing the Memorandum of Understanding. Copyright: Reifenhäuser 24.01.2025 LG Chem and Reifenhäuser have partnered to develop innovative Machine Direction Oriented (MDO)-PE films. By combining advanced materials with cutting-edge extrusion technology, they aim to create cost-effective, recyclable solutions for flexible packaging—offering sustainability without compromising performance. Collaborative Innovation for Sustainable Packaging LG Chem, a leading global chemical company, and Reifenhäuser, a renowned extrusion machine manufacturer, have joined forces under a Memorandum of Understanding (MOU). This partnership builds on a successful collaboration, which showcased the world's first MDO-PE film at just 18 micrometers (µm) in May 2024. Bernd Reifenhäuser, CEO of the Reifenhäuser Group, emphasized the importance of this initiative: "The demand for flexible mono-material packaging is growing rapidly. With LG Chem and Reifenhäuser, we have found the perfect match of raw material, extrusion technology, and process know-how that will pave the way for cost-effective, recyclable MDO-PE films." Breaking Boundaries in Material Efficiency The partnership focuses on downgauging MDO-PE films to enhance their competitiveness in the market. With coordinated system technology and material formulations, they aim to achieve film thicknesses comparable to traditional PET-PE laminates. This innovative approach replaces 12 µm PET films with 16 to 17 µm MDO-PE films, optimizing production efficiency while maintaining quality. Christoph Lettowsky, Technical Sales Manager at Reifenhäuser Blown Film, explained: "The downgauging limit has not yet been reached. Thanks to our patented MDO Ultra Stretch unit, films can be stretched from the first heat, creating a stable process that supports further material reductions." Advantages of MDO-PE Films Key benefits of this collaboration include: Sustainability: PFAS-free materials reduce environmental impact. Cost Efficiency: Optimized production processes lower operational costs. Versatility: Films perform well in packaging applications, meeting market demands. Dr. Lee Choong Hoon, Vice President at LG Chem, expressed enthusiasm: "Our combined technology has achieved unprecedented results in downgauging MDO-PE film, successfully balancing sustainability and profitability." Future Vision: Driving Recycling in Packaging LG Chem and Reifenhäuser remain committed to pushing boundaries, with further developments targeting even thinner and more sustainable films. Test runs at Reifenhäuser's technical center have already demonstrated the reliability of these processes, paving the way for wider adoption. This initiative highlights the shared vision of these industry leaders: to innovate for a sustainable future while delivering high-performance solutions. Source Reifenhäuser More around Packaging

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  • For amateur alchemists: The oldest German recipe for plastic

    Instructions for the production of artificial cow horn Image: PantherMedia/Klanneke Almost 500 years old is the recipe for the production of artificial horn and thus currently the oldest known German recipe for plastic. Around 1530, the Swiss merchant Bartholomäus Schobinger and the Bavarian Benedictine monk Wolfgang Seidel met in the Fugger house. Seidel, a passionate collector and editor of scientific writings, learned an alchemical recipe here that he would later publish in his writings: The secret to making a "transparent materi...equal to a schons horn." Here is the recipe: "Take a goat's or other lean cheese, let it simmer for a whole day; ...then let it cool until a thick paste settles; pour off the white, which looks like milk and floats on top; but what remains at the bottom, pour hot water over it again, and let it simmer. Stir so that the white separates again. And repeat this until no more white mass is separated. What remains at the bottom is a substance that is tough and translucent like horn and looks like curd." Father Seidel also tells us how to proceed: "Then place the cleaned cloth in a well-warmed lye and then press it into a mold. After pressing it into the mold, the mold with the material is immersed in cold water. There, the material becomes as hard as bone and wonderfully translucent." Says Seidel, "If you've done it right, you can use it to cast tabletops, tableware, medallions, anything you want." But be careful: You have to give it a shape while it's still warm. "Even if it's already molded, you can still warp it without damaging it. Once it's cool, though, don't bend or twist it, or it will shatter like glass." Finished is the ideal material for do-it-yourselfers. Source: Deutsches Kunststoffmuseum More around Plastics in Daily Life

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Topics covered in K-Mag

Sustainability

Sustainability

Digitalisation

Digitalisation

Machinery & Production

Machinery & Production

Raw materials

Raw materials

Science

Science

People

People

Plastics in Practice

Plastics in Practice

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