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A SEAT FOR HIGH PERFORMANCE

The world’s leading cyclists started the Tour de France. To perform well, cyclists need power, stamina – and the right equipment. Racing bikes are lightweight and durable thanks to components made of high-performance materials, such as Tepex from LANXESS.

This year the Tour de France starts in Nice Moyen Pays, France. Three weeks later, on September 20, the grand finale will take place on the Champs-Élysées in Paris. Throughout the 3,500-kilometer-long race, cyclists perform at unbelievable levels and exert power on the pedals. That’s what enables the frontrunners, in around 20 to 40 minutes, to exert values of 5.8 to 6 watt per kilogram of bodyweight. Something last year’s victor Egal Bernal is capable of. At his weight, that’s the equivalent of 417 watts.

Ultra-light and highly durable

In addition to cyclists’ strength and stamina, performances like these are made possible by lightweight racing bikes. Regulations state they may not weigh less than 6.8 kilograms, equivalent to seven liter of water. Fulfilling these requirements often necessitates components such as brake levers or gearshift parts made of ultra-light yet highly durable materials.

One material that fits the bill is Tepex. The high-performance composite, made by LANXESS, is based on thermoplastic polymers reinforced with glass or carbon fibers. This accounts for its remarkable strength and stiffness, and makes it extremely lightweight. Especially the latter is decisive for Tour de France cyclists when battling uphill in the Alps and Pyrenees as it allows them to exert less effort to turn the wheel.

Usable for series production

“Generally speaking, in sports and bicycle manufacturing, fiber composites have been state of the art for around 30 years,” said Dr. Michael Münker, Global Tepex Manager in LANXESS’s High Performance Materials business unit. “Thermoplastic composites like Tepex® enable us to use them for series production. Actually, they are used in all bicycle

www.lanxess.in

Polymer researcher’s latest development results in novel cup that withstands boiling liquids

A University of Akron (UA) professor’s latest development in bioplastics has the potential to make important strides in sustainability for future plastics.
In the lab of Dr. Shi-Qing Wang in UA’s School of Polymer Science and Polymer Engineering, the team is focusing on research that showcases effective strategies for turning brittle polymers into tough and flexible materials. For example, the group has recently produced a prototype poly(lactic acid) (PLA) cup that is transparent, super tough and does not shrink when filled with boiling water.
“Plastics have become an essential part of our daily lives, though most cannot be recycled and therefore accumulate in landfills,” says Wang, who currently serves as the Kumho Polymer Science Professor. “Some promising biodegradable/compostable alternatives, such as PLA, are typically not strong enough to replace traditional fossil-fuel based polymers like poly(ethylene terephthalate) (PET) because these sustainable materials are brittle.”
Dr. Ramani Narayan, distinguished professor in Michigan State University’s Department of Chemical Engineering and Materials Science, and renowned scientist in the bioplastics space, says Wang’s research has the potential to be a breakthrough in the PLA market.
“PLA is the world’s foremost 100% biobased and fully compostable polymer,” says Narayan. “But it has low toughness and a low heat distortion temperature. It softens and structurally collapses around 140 degrees Fahrenheit, making it unusable in many hot food packing applications and disposable containers. Dr. Wang’s research could be disruptive technology because his prototype PLA cup is tough, transparent, and yet rigid to hold boiling water.”
Wang, who has taught at UA for 20 years, has been trying to establish a knowledge base for understanding the processing-structure-property relationship for various plastics and applying the latest understanding to deal with the notorious brittleness of PLA.
To explain the science behind how his prototype PLA cup is able to gain ductility and achieve heat resistance, Wang uses the analogy of cooked spaghetti. If the molten PLA is magnified by a million times, each chainlike molecule would look like a strand of spaghetti, many meters in length. For thermoplastics (including PLA) to be tough, it is important that crystallization does not remove or disrupt the intertwining of “spaghetti strands”.
Wang calls this interwoven structure the “chain network”. It is through such a structure that anyone can pick up nearly all of the spaghetti strands out of a bowl with a pair of chopsticks. This chain network, when properly manipulated, ensures that the PLA beverage cup is mechanically strong without crystallization. But such a commercial cup collapses when boiling water is poured into it.  “Cups made from normally crystallized PLA can hold boiling water but are terribly brittle and opaque,” said Wang.
By investigating the origin of ductility in semicrystalline polymers, Wang’s research group discovered a way to limit crystals to nanoscopic scales in PLA while preserving the network, resulting in the clear, tough and heat resistant cup. Such a transparent cup can hold hot tea and coffee and could replace most plastic beverage cups on the market.
“The impact of our new understanding could finally stimulate the PLA market to grow exponentially,” says Wang.
A U.S. patent on how to modify PLA based materials has been filed through UA’s Office of Technology Transfer.
https://www.uakron.edu/

Motherson and UBQ Materials are Developing Car Parts of the Future

 The waste-converted material supports OEMs in their efforts towards carbon neutrality  
Global automotive Tier 1 manufacturer Motherson Group announced its collaboration with Israeli cleantech company UBQ Materials. The companies are joining efforts to implement the carbon-negative UBQ thermoplastic into auto parts manufactured by Motherson Group for the automotive industry. UBQ is a patented material converted from 100% unsorted household waste, containing food leftovers, mixed plastics, paper, cardboard, packaging materials and diapers. The unsorted waste stream is reduced to its most basic natural components and then reassembled and bound together into a matrix, creating a novel climate-positive material with applications across industries. By diverting landfill-destined waste, UBQ prevents the emission of methane, groundwater leakage and other environmental harms. Every ton of UBQ produced prevents 11.7 tons of CO2-eq from polluting the environment, leading Life Cycle Assessment auditors Quantis to designate UB as “The Most Climate Positive Thermoplastic Material on the Market.” In February 2020, UBQ Materials embarked on its first partnership in the automotive industry with Daimler, manufacturer of Mercedes Benz. As a result of successful progress and advanced developments, UBQ Materials was introduced to Motherson. Motherson selected UBQ Materials as an innovation partner in Plug and Play’s Startup Autobahn, a platform that connects emerging technologies to pilot opportunities with multinational corporations. Motherson is looking to provide sustainable solutions to aid in their customers’ sustainability commitments. “Motherson is a global tier-one manufacturer and supplier to the industry and as such, we are very conscious of continually seeking ways to be more sustainable, to reduce the environmental impact of our business, and to look for ways of increasing use of recycled and sustainable materials”, explains Barrie Painter, EVP, Global Sales and Marketing and Strategic Technology at Motherson. “We have embarked on a very ambitious project”, says Sophie Tuviahu, VP of Business Development and Sales at UBQ Materials. “Automotive standards are demanding and we aim to be an approved raw material in a wide scope of applications in the automotive industry.” Motherson is currently testing and evaluating the incorporation of UBQin the production of a range of interior and exterior automobile parts. Following further trials and examinations, Motherson and UBQ have every intention to see this collaboration through to serial production.
   https://www.ubqmaterials.com/
    www.motherson.com

Heading into 2021 well prepared

The days of disposable plastic products are numbered – alternatives are needed. The success of LastObject’s reusable cotton swabs shows that the market is ready for change. The company’s basic and beauty cotton swabs are both made of high-quality materials. To meet all requirements, the tip is made of THERMOLAST® M, a compound from KRAIBURG TPE that is often used for applications in the health sector.

Every day, 1.5 billion cotton swabs are produced worldwide, each to be used only once. And that’s where LastObject’s mission begins: the Danish company aims to promote the “zero waste” movement to make sure that the next generations will also have a clean and healthy world to grow up in. As the first step, this successful Kickstarter project is supplying reusable, hygienic and reliable alternatives to single-use items we use on a daily basis – with great success, they already sold more than 500,000 LastSwabs to happy customers all over the world. LastObject is thus responding successfully to EU Directive 2019/904, which bans single-use plastic products and will be coming into effect from mid-2021.
The basic requirements for their reusable cotton swab, LastSwab, are durability and quick and easy cleaning. Close attention was given to these qualities during the development process. According to the manufacturer, each individual product is designed for up to 1,000 uses. Another requirement was for the product to be skin safe and not cause any irritation when in repeated contact with the skin. It goes without saying that it meets this standard.
In Denmark, KRAIBURG TPE is collaborating closely with Teknisk Agentur, a trusted local distribution partner. The choice of material for the flexible, soft tip was a compound from the THERMOLAST® M series. This compound was also superior to its competitors in relation to processing options, adhesion and look and has the following properties:

  • Hardness: approx. 40 Shore A
  • Tensile strength: 8.0 MPA
  • Elongation at break: 800%
  • Tear resistance: 11.5 N/mm

The compound provides adhesion to polypropylene and polyethylene, high abrasion resistance, weldability and freedom from animal ingredients. It is processed using injection molding and extrusion. The rigid stick is made of polypropylene. The case is made of recycled ocean waste plastic (OWP) from the Danish company Zeaplast who collects plastic from the ocean and rivers in southeast Asia and recycles it. The entire product is molded by AMP, a well-known Danish injection molder.
And LastObject is doing more than just following a trend: The product effectively and measurably helps to save raw materials and waste, while reducing the carbon footprint. “It wasn’t only KRAIBURG TPE’s material that helped us implement the project. The entire process was very straightforward – all the way from identifying the product through to the service. KRAIBURG TPE, Teknisk Agentur, their Danish materials distributor, and the injection molder AMP are reliable partners who are helping us make the future more sustainable,” says Nicolas Aagaard, Co-founder at LastObject.
https://www.kraiburg-tpe.com/

Ultimaker Essentials software subscription available now

Ultimaker, the global leader in desktop 3D printing, announces the general access of Ultimaker Essentials. Ultimaker Essentials is the enterprise package of Ultimaker software tools that enables professional organizations to scale a 3D printing platform across their business, delivering stability and control.
Ultimaker Essentials now offers several newly built features. They include:
Better organization and user access management. Via the organization management page in Ultimaker Digital Factory, Ultimaker Essentials enables admins to invite users, give them admin rights, or remove 3D printing access entirely.
Firmware firewall. A firmware firewall increases your 3D printer’s security by allowing only cloud traffic from Ultimaker Digital Factory and blocking uncontrolled access via the local network. This reduces the chance of malicious activity.*
New verified plugins. Ultimaker Essentials subscribers will enjoy a range of verified plugins for Ultimaker Cura, including the new Teton Simulation Smart Slice.
Service and learning levels. Choose between Light, Standard, and Advanced levels of service and learning to customize Ultimaker Essentials for professional needs. It offers access to more advanced e-learning courses and increased support coverage to ramp-up 3D printing adoption and reduce business disruptions.
*This feature is coming soon
An Ultimaker Essentials subscription offers major benefits across the end-to-end digital manufacturing workflow.
Ultimaker Cura Enterprise. Ultimaker Cura Enterprise makes software distribution and management easy. Designed to meet the IT department’s expectations, distribute a tested, stable, and more secure slicing application to anywhere employees need to work – with reduced risk to infrastructures.
Ultimaker Digital Factory. Ultimaker Digital Factory provides powerful cloud-based tools for easy remote management of Ultimaker 3D printers, teams, and software. This enables a scalable 3D printing workflow that drives innovation across the team.
Ultimaker Marketplace. Empower users to 3D print the way they want through a controlled version of Ultimaker Marketplace. Only verified plugins and third-party material profiles are allowed. And this maintains a higher level of security and stability of a company’s IT infrastructure. Plus, gain access to Ultimaker Essentials-only plugins such as Teton Simulation’s Smart Slice
Ultimaker 3D Printing Academy. Upskill application engineers, 3D printer operators, and IT admins with expert e-learning to achieve a team’s success potential. Access the full Ultimaker 3D Printing Academy course library of Associate and Professional* knowledge – with certification exams for each role.
Support. Get direct support during business hours for software queries or browse a comprehensive knowledge base
https://ultimaker.com/

BASF materializes charging infrastructure solutions with conceptual autonomous wireless charger

  • MobiPOWER – a concept co-created by ZMP, B&Plus and BASF
  • BASF’s Creation Center supports the design of a reliable, durable, and safe charging solution

ZMP, B&Plus and BASF have created MobiPOWER, a conceptual autonomous wireless charger, to meet the growing demand for charging infrastructure solutions.

“Over 75 billion connected devices – such as phones and electric vehicles – will need charging by 2025. MobiPOWER enables us to meet this market demand, with a convenient charging solution that is robust enough to house sophisticated components and sensors combining 5G, IoT and AI capabilities, as well as durable enough for the outdoors,” said Dr. Hisashi Taniguchi, Founder & CEO, ZMP Inc. “BASF expanded my creativity and the possibility of our robots.”
Besides the technical challenges of autonomous charging solutions, MobiPOWER’s wireless charging concept also required more advanced material considerations and design support by BASF’s Creation Center to enable more reliable and highest safety standards charging.
“There are multiple considerations that go with wireless charging,” said Atsushi Kameda, President & CEO, B & Plus. “By combining our technology and expertise, we are creating a new future.”
Driving new applications by exploring co-development opportunities
BASF’s broad portfolio of advanced material solutions have been used in the creation of MobiPOWER.
Ultradur PBT and Ultramid PA are best-in-class materials to be applied for MobiPOWER’s radar housing, lidars, protective films and other electrical devices.

  • Ultradur used in the wireless charger enables more reliable and highest safety standards charging, owing to its high mechanical and chemical resistance, good weatherability, EMI shielding, and heat insulation.
  • Ultradur used in radar housing provides dimensional stability, low warpage, and heat resistance. It is also laser weldable with excellent mechanical properties. As for the lidar, BASF’s material solutions provide good mechanical properties, flowability, high rigidity, and impact strength.
  • Ultramid and Ultradur in the body housing provide good surface finish, better scratch, chemical resistance, and colorability. BASF’s Ultramid Advanced N for MobiPOWER’s LED lighting offers good surface finish and aging performance, as well as low moisture absorption. The innovative material solution enables freedom of design as it is moldable and is easy to process and color.

The paint protection film made of Elastollan® thermoplastic polyurethane provides good hydrolysis resistance, excellent weatherability with anti-abrasion performance properties, and scratch resistance behavior. Its properties can be further optimized to enhance their durability, insulation, and chemical resistance.
Partnership to create value for businesses, the environment, and society
“Through this co-creation, we once again demonstrate the potential of BASF’s material solutions and competencies in supporting customers to overcome emerging challenges for demanding applications,” said Andy Postlethwaite, Senior Vice President, Performance Materials Asia Pacific, BASF. “Further, the co-creation helps demonstrate our ability to empower greater sustainability with energy efficiency and long-lasting material solutions that improve the shelf life of end products.”
The charger made of high-performance plastics instead of metal is lighter in weight, hence, consuming less energy. It enables the charger’s energy-efficient operation.
https://www.basf.com/

The debut of first sunglasses made from plastic waste

As part of its mission to tackle plastic pollution in the marine environment, The Ocean Cleanup project plans to sell goods made from the waste it recovers to fund its ongoing operations, and has just unveiled its very first product. Each pair of Ocean Cleanup sunglasses are made with plastics hauled in from the Great Pacific Garbage Patch, and are designed to be easily recycled themselves once they reach the end of their life.

After years of development and testing, the Ocean Cleanup Project finally set sail for the Great Pacific Garbage Patch towards the end of 2018, looking to use its giant floating booms to passively gather plastic waste in the area. Its first batch was hauled back to shore at the end of 2019, with the team then calling an end to a successful first mission.
The waste it collected throughout that mission has now been sorted, washed and compounded into certified high-quality plastic, which was used to build sunglass frames. These are paired with polarized lenses and stainless steel hinges, with the parts designed to be easily disassembled and recycled again at the end of their life. The glasses also come with a case made from recycled components of the first trash-catching system, and a pouch made from recycled PET bottles.
Using proceeds from the sales of these sunglasses, The Ocean Cleanup plans to fund its forthcoming missions to clean plastic waste from the marine environment. The group estimates that each pair sold will enable it to clean up an area spanning 24 football fields from the garbage patch, and if it sells every pair made from this first batch of recovered plastic, it will be able to clean 500,000 football fields worth of plastic.
That sure does sound impressive but somewhere between 5 and 12 million metric tons of plastic flow into the ocean each year, with that rate expected to triple in the next two decades, which equates to a whole lot of sunglasses. The Ocean Cleanup team will of course be very aware of this, but as a manifestation of its efforts so far and an example of a “circular” economy for plastics, its new eco-friendly eyewear isn’t a bad place to start.
 
https://newatlas.com
 
 

First U.S. commercial scale of circular polyethylene produced from mixed-waste plastics

Successful demonstration paves way for new product range, Marlex Anew Circular Polyethylene  
Chevron Phillips Chemical (CPChem) announced success in its first commercial scale production of polyethylene using advanced recycling technology. Advanced recycling, sometimes referred to as “chemical recycling,” converts plastic waste to valuable liquids that can become new petrochemicals. This approach complements traditional recycling by converting a range of materials, including many difficult-to-recycle plastics, into important building blocks for new chemicals. Because of the potential to repeatedly recycle post-use plastics into new materials, polymers produced through advanced recycling are often referred to as “circular polymers.” Its circular polyethylene matches the performance and safety specifications of the virgin polymers it is known for globally.
“We are exceptionally proud to be the first company to announce production of a circular polyethylene on this scale in the U.S.,” said Jim Becker, vice president of polymers and sustainability. “The successful production run marks a huge step for CPChem on our path to being a world leader in producing circular polymers. This development is an important milestone for us as we further our commitment to proactively help the world find sustainable solutions, including the elimination of plastic waste in the environment.”
Commercial scale production is a significant achievement, and the result of the company’s two-year exploration into the technical viability of creating circular polymers from waste plastics. Chevron Phillips Chemical is now working on scaling up its production of circular polyethylene to meet its ambitious production plans. That includes working with several proven suppliers of pyrolysis oil, the feedstock made from waste plastics, and pursuing certification for the new polyethylene through the International Sustainability and Carbon Certification Plus (ISCC Plus) approach using their internationally recognized mass balance certification methodology.
Sustainability technical manager, Ron Abbott, said, “All recycling methods have a role to play in reducing plastic waste and achieving the societal sustainability goals we all want. This advanced recycling technology allows us to recover hydrocarbons from plastic waste that have previously been difficult, or even impossible to recycle, enabling us to upgrade them into clean, safe circular plastics. We are excited to be at the forefront of this technology as we seek to implement sustainable solutions that cultivate a circular economy.”
Upon certification, Chevron Phillips Chemical intends to market its new circular polyethylene range under the trade name Marlex Anew Circular Polyethylene.
https://www.cpchem.com

TPE-BASED MIDSOLE ADDS MORE SPRING TO EACH STRIDE OF NEW RUNNING SHOE

A custom-formulated thermoplastic elastomer (TPE) from Teknor Apex Company has helped China’s ANTA Sports Products Limited to develop a running shoe that exhibits outstanding rebound resilience, enabling wearers to run for longer distances.

One of the world’s largest sportswear companies, ANTA collaborated with Teknor Apex to develop a high-dampening material for the midsole of a new line of running shoes. The midsole is a thick layer between the insole and outsole that is typically composed of a soft cushioning material. For its new running shoe, they collaborated to draw upon technology from outside the footwear industry to develop a midsole construction incorporating Monprene TPE. The companies carried out 40,000 running impact tests to identify the optimum solution that delivered the best rebound performance over extended periods of time.
The key property for this performance is rebound resilience, a measure of the energy returned to the runner in comparison with the energy applied for deformation of the midsole upon the impact with each of the runner’s strides. While standard midsoles on the market achieve 50% rebound, according to ANTA, this new midsole achieves a rebound of 70%. The reserved energy is transformed into running power, enabling the runner to go for longer distances.
“The collaboration between ANTA and Teknor Apex challenges conventional thought about running shoes by focusing on the resilience of the midsole, not just its cushioning property,” said Serene Cheng Sook Ee, Business Director for Teknor Apex’s Thermoplastic Elastomer Division. “The customized Monprene solution adds more spring back into each stride of the running shoe, and it also provides added comfort in ANTA leisure shoes.”
According to Teknor Apex, the customized Monprene is a 60 Shore A TPE that provides wrinkle-resistance, low compression set, tear resistance, and kink resistance. It exhibits excellent elasticity and remains flexible at low temperatures.
http://ir.anta.com / www.teknorapex.com

World’s first flame retardant aviation carpet with recycled PVB based binder developed

Anker, Devan and Shark Solutions teamed up to create the world’s first flame retardant aviation carpet using a recycled binder. Inspired by the knowledge and the needs of the aviation market, Anker motivated to achieve this new goal together. The PVB binder reuses laminated glass, from windshields and architectural/building glass, that otherwise would go to landfill.

German carpet manufacturer Anker is the first company to offer flame retardant carpets for aviation that are made with a recycled binder. In the search for a more sustainable binder, Anker discovered the PVB from Shark Solutions, a Danish cleantech company focused on giving a new life to post-consumer PVB. Properties of the aviation carpet with PVB as binder are the same as those of traditional non-sustainable carpets. The market has been looking for this type of solutions for a long time and market introduction has already started. Anker will introduce well known and special developed styles of aviation carpets with PVB and plan to take out traditional non-sustainable aviation carpets stepwise as soon as possible.
Shark’s PVB reuses laminated glass, from windshields and architectural/building glass, that otherwise would go to landfill. The non-toxic binder (no chlorine or phthalates) is fully recyclable and thus lives up to the future standards of the industry.
Textile innovator Devan Chemicals, known for its tailor-made flame retardant solutions, was called in to develop the flame retardant back coating, which is compliant with the Airbus and Boeing safety standards. “Based on many years of experience and competences in customer related developments, improving recycling rates is getting more and more important”, says Dirk Vanpachtenbeke, R&D manager Flame Retardants at Devan. “We are very proud that, together with Anker and Shark Solutions, we can contribute to this rising demand for products that meet the standards of a circular economy solution.”
In other news, Anker and Devan are already working on a new project, which includes Devan’s antimicrobial/viral-reducing technology. Recently, Devan published test results on the activity of their technology (BI-OME) against SARS-CoV-2 and other viruses. According to independent testing, BI-OME is proven to achieve 99% and higher virus reduction, including of SARS-COV-2, on samples before washing and retains 98.5% even after 25 wash cycles. This technology has been recognized with the 2020 European Technology Innovation Leadership Award by Frost & Sullivan.
www.devan.net