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WMG research featured in House of Lords report

Picture of Dr Mark ElliottResearch led by Dr Mark Elliott, Associate Professor at the Institute of Digital Healthcare at WMG, has been featured in the House of Lords National Plan for Sport and Recreation Report.

The report considers the effectiveness of current sport and recreation policies and initiatives, and the case for a national plan for sport and recreation.

Dr Elliott’s research has investigated the effectiveness of the use of incentives and rewards for exercise, using a rewards-for-exercise app called Sweatcoin. The contribution to the House of Lords report was based on the findings that people increased their daily step count by an average of nearly 20% when using the incentives platform.

Dr Mark Elliott, comments: “Our findings highlighted how digital platforms that incentivise physical activity through tracking step count recorded on smartphones can have a positive impact on people’s exercise behaviours. We were pleased to be able to contribute our findings as evidence to the House of Lords National Plan for Sport and Recreation Report.”

Read the report in full here: https://publications.parliament.uk/pa/ld5802/ldselect/ldsportrec/113/113.pdf


New Loqski glass fibre ski lock to keep your skis safe this season

  • With winter being the ski season many skiers will be off on holiday, possibly taking their own expensive skis
  • When leaving your skis for a break from the slopes they’re at risk of being taken intentionally or unintentionally from the racks, however Loqski have come up with a solution made and manufactured in the UK
  • Loqski is a pocketable device locking skis and poles together, WMG at the University of Warwick have helped them manufacture the locks affordably and sustainably
  • Loqski’s new and improved lock is available to buy now

The Loqski LockOn a ski resort, after spending time on the slopes skiers will often head inside for a break in a restaurant or bar leaving their skis with everyone else’s on a rack outside. For this reason avid skier James Pittard decided not to buy himself expensive skis for fear that they would go missing, whether intentionally or unintentionally.

This led him to think about an easy to use, pocketable device that could lock both skis and poles simply together. Taking his idea to a design agency, the Loqski ski lock, with its high security combination lock that can be operated even with ski gloves on, was launched in a zinc-based material.

However, as sales were taking off the zinc-based material used couldn’t be manufactured quick enough to keep up with demand, until they discovered GV-5H, a glass fibre reinforced thermoplastic material that is often used in the automotive industry as it’s incredibly tough yet lightweight.

James then approached WMG, at the University of Warwick for help on a number of aspects of this looking into Grivory GV-5H, including testing the material, assessing the strength of the redesigned components in the assembly and giving advice on ways in which costs can be reduced during the manufacturing process.

Whilst it’s not possible to 3D print in Grivory GV-5H, researchers from WMG printed the prototype parts in strong engineering plastic with a carbon fibre infill using Markforged Mark 2 FDM printer that would reflect the strength of this material. These prints proved the suitability of Grivory GV-5H for this product.

They also assessed whether a redesigned barrel design component would fit into the assembly as changing just this one part would help reduce costs. They produced many 3D prints of the barrel component; these parts were then thoroughly tested not only for form and function but also to assess that it would fit with the other components in this existing assembly.

Being able to fully test the fitment of the new barrel design enabled Loqski to compare the cost of having to tool a completely redesigned product, which would be an excess of £50,000, or spending £7,000 for tooling just this barrel component and using it in the existing assembly.

“Loqski are now in a position where they are able to streamline manufacture. With less components to assemble, the assembly time has sped up and so manufacturing costs have been reduced. Loqski always had an ambition of keeping manufacture in the UK and by reducing manufacturing costs, we are pleased that we could assist them in doing that. We are thrilled to see them take their new and improved lock to the market, and hope that skiers this season will invest to keep their skis safe.” says Neil Jeffree, Innovation Manager at WMG, University of Warwick.

By reducing manufacturing costs Loqski is now able to produce a more cost-effective end product in higher volumes, which will put the company in better stead to work with distributors and have the product stocked by retailers worldwide. It has also led James to consider expanding the product’s reach even further.

“One of the things we’d now like to push is getting the new product into the ski rental market, where it can be hired out when skiers rent their skis. This is something we would never have considered with the zinc-based product as it was just too expensive.” says James Pittard, founder of Loqski.

ENDS

18 JANUARY 2022

NOTES TO EDITORS

High-res images available at:

https://warwick.ac.uk/services/communications/medialibrary/images/january_2022/img_2601.jpg
Caption: The Loqski Lock
Credit: Loqski

https://warwick.ac.uk/services/communications/medialibrary/images/january_2022/img_2612.jpg
Caption: The Loqski Lock
Credit: Loqski

For further information please contact:

Alice Scott
Media Relations Manager – Science
University of Warwick
Tel: +44 (0) 7920 531 221
E-mail: alice.j.scott@warwick.ac.uk

Tue 18 Jan 2022, 13:21 | Tags: SME HVM Catapult Partnerships Research

WMG academic joins Department for Transport’s Science Advisory Council

· Dr Siddartha Khastgir, from WMG at the University of Warwick has been appointed to be on the Department for Transport’s Science Advisory Council (SAC).

· The DfT Science Advisory Council (SAC) provides independent strategic advice and challenge to the Department on key areas of science, social science engineering and technology.

· Dr Khastgir will focus on taking a systems thinking approach across various modes of transport (land, air and marine) to ensure their safe enrolment and public acceptance in the UK

Dr Siddartha Khastgir from WMG, University of Warwick, has been appointed to be on the DfT’s Science Advisory Council, where he willPicture of Dr Siddartha Khastgir advise on a wide range of science and engineering issues, such as enrolment of Autonomous Vehicles.

Today, Friday 14th January 2022, the Department for Transport have announced five new members and a new Chair joining their Science Advisory Council, including Dr Siddartha Khastgir from WMG, University of Warwick.

The DfT’s Science Advisory Council provide the DfT with advice and challenge on key areas of science, engineering and technology, supporting the role for the DfT Chief Scientific Adviser Professor Sarah Sharples, by ensuring departmental activity is informed by the best external expertise and evidence, identifying relevant emerging issues and trends and assuring DfT’s use of science and technology.

Dr Siddartha Khastgir is Head of Verification and Validation of Connected and Autonomous Vehicles at WMG, University of Warwick. In 2019 he was awarded a UKRI Future Leader Fellowship focusing on Autonomous Vehicle safety standards. Leveraging his research on Autonomous Vehicles safety, he will focus on taking a cross-domain approach to safety in land, marine and air.

With his new appointment on the council Dr Khastgir will help advise DfT on the technological and societal challenges surrounding introduction of new technologies, and how they can be enrolled in UK safely and efficiently. He comments:

“To be a part of the Department for Transport’s Science Advisory Council is incredibly exciting, I’m looking forward to working with other experts in the field to provide advice to help the DfT to inform future policy, with its foundations in strong research outputs. Not only do we need to create safe systems, we need to communicate with the public to ensure public acceptance.”

Margot James, Executive Chair at WMG, University of Warwick adds “I am delighted to hear that Siddartha has been appointed to the Department for Transport Science Advisory Council, a reflection of his world-leading research into safety for connected and autonomous vehicles. I will be watching with interest to see how the DfT moves this emerging technology forward, and look forward to Siddartha being a key part of this.”

UKRI Future Leaders Fellowships Director Stephen Meader said:

“The world leading research undertaken by Dr Khastgir and his team is vital for the development of safe autonomous vehicles that can cut both congestion and carbon emissions.

“Dr Khasgir’s appointment to the Department for Transport’s Science Advisory Council (SAC) demonstrates both the importance of this work to the future of mobility in the UK and the value the Future Leaders Fellowships scheme brings in enabling his research.”

Other new appointees joining six existing members include:

· Dr Siddartha Khastgir, Head of Verification and Validation of Connected and Autonomous Vehicles, University of Warwick 

· (SAC Chair) Professor Alastair Lewis, Professor of Atmospheric Chemistry, University of York

· James Gaade, Head of Programme Management, The Faraday Institution    

· Professor William Powrie, Professor of Geotechnical Engineering, University of Southampton 

· Dr Emma Taylor, Head of Digital Safety, RazorSecure Ltd.

· Professor Patricia Thornley, Director of the Energy & Bioproducts Research Institute, Aston University

Department for Transport Chief Scientific Adviser, Sarah Sharples, said: “I’m pleased to welcome the new members appointed to the Science Advisory Council. They bring significant additional expertise in key areas that will support DfT’s effective use of science and engineering. I look forward to working with them.”

ENDS

14TH JANUARY 2022

NOTES TO EDITORS

High-res images available at: https://warwick.ac.uk/services/communications/medialibrary/images/april2020/sid_39.jpg

Caption: Dr Siddartha Khastgir, from WMG, University of Warwick
Credit: WMG, University of Warwick

For further information please contact:

Alice Scott
Media Relations Manager – Science
University of Warwick
Tel: +44 (0) 7920 531 221
E-mail: alice.j.scott@warwick.ac.uk


WMG research highlighted in key industry report

Project data analysis research from WMG’s Project Praxis Group was featured in the CBI’s education and skills annual report.

The report entitled ‘Programmes with purpose,’ is an outcomes-led approach to government’s major projects from the perspective of the projects themselves. It is based on delivering sustainable, efficient, innovative, and outcomes-orientated programmes, that put people, communities, value-for-money, and our climate at the foundations of everything done by the various parties involved in major projects.

Professor Naomi BrookesWMG’s Professor of Complex Programme Management, Naomi Brookes, explains: “The use of past and current project data to enable effective decisions on project delivery - has the potential to deliver up to £23bn in annual savings across UK infrastructure projects.”

Read ‘Programmes with purpose’ in full here: 12703_major-projects_programme-perfection-report_ie.pdf (cbi.org.uk)

You can find out more about WMG’s Project Praxis Group here: Project Praxis (warwick.ac.uk)

Wed 05 Jan 2022, 09:02 | Tags: Partnerships Research Project Praxis

UK aims to be the first Country in the world to circulate steel and aluminium fully, supported by the CircularMetal programme

§ The UKRI National Interdisciplinary Circular Economy Research Programme aims to create a sustainable circular economy for lots of different industries, including metals

§ Metals and metal products create 10-20% of all the world’s harmful impacts, such as greenhouse gas emissions and pollution and energy consumption; we cannot do without goods made from metals; so we must learn how to make their use circular, i.e. extend their lifetimes and increase their repair, re-use and recycling

§ The Interdisciplinary Centre for Circular Metals aims to accelerate the transition from the current largely take-make-waste linear economy to full metal circulation by conducting high quality research and innovation through a systems approach. Its ambition is to make the UK the first country to realise full metal circulation (at least for the high-volume metals – steel and aluminium) by 2050. This will form an integral part of the government’s efforts to achieve Net Zero by 2050

§ To deliver the CircularMetal research programme, WMG at the University of Warwick will conduct inter-disciplinary research on steel production, recycling technologies, remanufacturing of steel components, and artificial intelligence in scrap separation

A graphic of the factors considered in the CircularMetal programmeThe metal industry in the UK employs 230,000 people, and directly contributes to £10.7bn to the UK GDP. A truly interdisciplinary academic team will research how to make a sustainable circular economy for high-volume metals, with WMG at the University of Warwick focussed on steel.

The UKRI has established five Interdisciplinary Circular Economy Centres in the UK, coordinated by the Circular Economy Hub (CE-Hub), which together form the NICER Programme, a £30 million investment on research aimed at developing a circular economy in the UK, One of these CECs is CircularMetal, the Interdisciplinary Centre for Circular Metals, led by Brunel University London, with partners from WMG, University of Warwick, University College London and Loughborough University.

The ultimate aim of the group is to make the UK fully circulate all their steel and aluminium, thereby minimising or eliminating the extraction of raw materials and the production of waste.

WMG, at the University of Warwick, will specifically research steel, including opportunities for reuse and the technologies for scrap sorting to increase recyclability, working with partners in the project on business model supply chains and the economy and policy surrounding them.

The Interdisciplinary Centre for Circular Metals is a four-year project, which started in January 2021 thanks to £4.2m funding from UKRI. Discussions within the team on strategies to reuse / recycling / reduce / remanufacture / recovery and the technological barriers are on-going with input being provided to government groups.

Professor Claire Davis, from WMG, University of Warwick comments:
“To be part of the Interdisciplinary Centre for Circular Metals is incredibly exciting, especially in light of COP26, as the potential that a circular economy for metals could have towards meeting goals of sustainability and furthermore preventing climate change.

“At WMG, University of Warwick we hope to research how technology can help us to reuse and recycle steels, for example, understanding the end of life condition of steel components to determine whether and how they can be used, and using artificial intelligence to increase scrap recyclability.

“If metals can be fully recycled and reused the need to extract raw materials to make them in the first place could be eliminated, and the current workforce in the metals industry could be reskilled to work in recycling and repurposing metals.”

Professor Brian Cantor, Deputy Director, The UKRI Interdisciplinary Centre for Circular Metals BCAST, from Brunel University comments:

“Metallic materials are the backbone of manufacturing and the fuel for economic growth. They underpin the competitive position of almost every industrial sector and, including metal manufacture and downstream product processing, they collectively contribute 15-20% of all greenhouse gas emissions, pollution and energy consumption. Transformation of the metals industries from the current largely linear economy to a circular economy will, therefore, play a critical role in delivering the government’s industrial strategy for clean growth, doubling of resource productivity and reaching net zero carbon emissions in 2050.

“CircularMetal is focused on helping the UK become the first country to realise full metal circulation, concentrating on the two main bulk metals aluminium and steel, and the three main industrial sectors of transport, construction and packaging.”

ENDS

22 DECEMBER 2021

NOTES TO EDITORS

High-res images available at:

https://warwick.ac.uk/services/communications/medialibrary/images/september_2021/picture1.jpg
Caption: A graphic of the factors considered in the CircularMetal programme
Credit: WMG, University of Warwick

https://warwick.ac.uk/services/communications/medialibrary/images/september_2021/picture2.jpg
Caption: The building the Warwick arm of the CircularMetal project are based in at WMG, University of Warwick
Credit: WMG, University of Warwick

FOR FURTHER INFORMATION PLEASE CONTACT:

Alice Scott
Media Relations Manager – Science
University of Warwick
Tel: +44 (0) 7920 531 221
E-mail: alice.j.scott@warwick.ac.uk

 

Wed 22 Dec 2021, 10:35 | Tags: Steels Processing Partnerships Research Sustainability

Wall climbing robot can reduce workplace accidents

    • A wall climbing robot made by HausBots can reduce workplace accidents, as it can be used for inspection and maintenance tasks such as building and infrastructure inspection and surveying or even painting.
    • However, to make sure the robot itself would work and is safe to use researchers from the WMG SME group helped the local business design and test the robot
    • The robot is now on the market, after a four-year journey from a garage in Bournville to Singapore

    Image of the HausBot robot in action covering up graffitiA novel wall climbing robot, built designed and created by Birmingham based HausBots with the help of WMG at the University of Warwick is on the market, and could reduce the number of workplace accidents.

    HausBots is a Birmingham based company who are on mission to use technology to protect and maintain the built environment. They have designed, built and created an innovative wall-climbing robot, that can climb vertical surfaces and be used for inspection and maintenance tasks such as building and infrastructure inspection and surveying or even painting.

    The idea of the HausBots started in the co-founder’s garage, and with the help of the WMG SME team the robot was bought to life, as the team were able to help with building the prototype and testing the technology.

    Four years ago, when the first prototype was developed researchers at WMG, University of Warwick worked with HausBots on the circuit motor controls and designed the system to help them get production ready thanks to the Product Innovation Accelerator scheme with CWLEP.

    One the key uses of the HausBots is to help reduce the number of workplace accidents, in the US 85,000 workers fall from height every year, of which 700 of them will be fatal. The accidents also cost insurance companies over $1bn in claims every year, therefore not only does reducing the amount of accidents mean less injuries and trauma, but also means there’s a huge economic saving.

    However, to ensure the robot itself doesn’t fall it had to undergo extensive electro-magnetic compatibility (EMC) testing to make sure the fans, which essentially attach it to the surface are functioning correctly.

    The WMG SME team tested the robot by placing it in the EMC chamber and assessing how it responds to noise and to make sure it didn’t emit any unwanted noise into the atmosphere itself. Using amplifiers to simulate noise and analysers, the researchers were able to detect any unwanted interference and emissions with the robot and record results.

    Dr David Norman, from the WMG SME group at the University of Warwick comments: “It has been a pleasure to be with HausBots and help them develop their product, the concept of the robot is incredible, and could save lives and reduce the number of workplace accidents.

    “Our facilities and expertise have helped HausBots develop a market-ready product, which is now on the market and has carried out many jobs from paintingPicture of the HausBot robot in action painting a house and cleaning the graffiti off the spaghetti junction in Birmingham. We hope to continue working with them in the future and can’t wait to see where they are this time next year.”

    Jack Crone, CEO and Co-Founder of HausBots comments:

    “The WMG SME group have helped us from day one, by helping us build the prototype all the way to making sure the robot safely sticks to the wall and carries out its job efficiently.

    “We have worked tirelessly over the last 3 years to make HausBot, and we are incredibly excited to have sold our first one to a company in Singapore, we hope this is the first of many that will also help reduce numbers of workplace accidents.

    “Going forward we hope to continue our work with WMG at the University of Warwick to make more robots for other uses that can reduce harm to humans.”

    ENDS

    14 DECEMBER 2021

    NOTES TO EDITORS

    High-res images available at:

    https://warwick.ac.uk/services/communications/medialibrary/images/november_2021/graffiti_1.png
    Caption: The HausBot robot in action covering up graffiti
    Credit: HausBot

    https://warwick.ac.uk/services/communications/medialibrary/images/november_2021/hausbot_house.png
    Caption: The HausBot robot in action painting a house
    Credit: HausBot

    https://warwick.ac.uk/services/communications/medialibrary/images/november_2021/hausbot_in_action.jpg
    Caption: The HausBot robot in action
    Credit: HausBot

    Video available to view at:

    https://www.youtube.com/watch?v=b_hoPocYGAo
    Caption: The robot covering up graffiti
    Credit: HausBot

    https://www.youtube.com/watch?v=VxDWJyLgBdM
    Caption: The Robot in action in many ways
    Credit: HausBot

    For further information please contact:

    Alice Scott
    Media Relations Manager – Science
    University of Warwick
    Tel: +44 (0) 7920 531 221
    E-mail: alice.j.scott@warwick.ac.uk

    Tue 14 Dec 2021, 14:12 | Tags: SME Partnerships Research

    Challenges of transport electrification skills to be addressed by Universities of Warwick and Newcastle

    Image of a battery pouch made at WMGTwo leading universities in the field of electrification – WMG at the University of Warwick and Newcastle University – are coming together to ensure the UK workforce has the skills necessary to meet the challenges of the transition to fully electric production.

    As anchor higher education institutions with exceptional research and innovation programmes operating in regions at the forefront of the UK’s electric revolution, the universities intend the collaboration will enable the growth of a talent pipeline of graduates and postgraduates into UK business. Led by WMG at the University of Warwick and Zero Carbon Futures at Newcastle University part of the school of engineering, the effort will identify the people, skills and facilities needed across a range of academic disciplines and levels in order to deliver new curriculums to meet growing industry demand.

    The UK’s move to fully electric vehicle production and domestic battery manufacturing represents the largest shift in industrial skills for the UK in a generation, leaving competency gaps at all job levels, particularly in engineering and manufacturing roles which will need to be filled with specific education and training. The Faraday Institution estimates that to meet automotive production demand by 2040, an additional 70,000 skilled employees will be needed for battery manufacture and in the associated material supply chain.

    “In light of COP26, which stressed the need for electrification to help us combat climate change and reach Net Zero goals, it is imperative that researchersPicture of a battery production line at WMG and industry work together to bridge the gaps and create a smooth transition to electrification,” commented Dr Benjamin Silverstone from WMG, University of Warwick. “We are delighted to be working with Newcastle University and believe that together we can define what and who needs upskilling, reskilling and new-skilling.”

    Professor Colin Herron CBE, Zero Carbon Futures at Newcastle University and Faraday Institution North East regional liaison said, “The bringing together of the two leading universities in electrification, located in the two regions leading on transport electrification is an exciting prospect, and one which should deliver the skills required for massive challenges ahead.”

    “We fully support this collaboration between two powerhouse institutions working at the forefront of electrification,” said Professor Pam Thomas, CEO, The Faraday Institution. “Such innovative partnerships will enable the UK to anticipate and deliver the skills needed to fully electrify transport, grow new talent for battery production, and support green growth and economic development."

    Another key objective of the collaboration is to help shape national and regional skills strategies and in so doing support national and regional economic development. The call for a collaborative approach to re-skilling, up-skilling and new-skilling the workforce for the electric revolution was published in a report by WMG, University of Warwick, the Faraday Institution and the High Value Manufacturing Catapult ‘The Opportunity for a National Electrification Skills Framework and Forum’ in September 2021.

    ENDS

    14 DECEMBER 2021

    NOTES TO EDITORS

    High-res images available at:

    https://warwick.ac.uk/services/communications/medialibrary/images/july_2020/wmg_ukbic-33.jpg
    Caption: A battery pouch made at WMG, University of Warwick
    Credit: WMG, University of Warwick

    https://warwick.ac.uk/services/communications/medialibrary/images/july_2020/d2807-27.jpg
    Caption: A battery production line at WMG, University of Warwick
    Credit: WMG, University of Warwick

    https://warwick.ac.uk/services/communications/medialibrary/images/july_2020/wmg_ukbic-49.jpg
    Caption: A battery production line at WMG, University of Warwick
    Credit: WMG, University of Warwick

    FOR FURTHER INFORMATION PLEASE CONTACT:

    Alice Scott
    Media Relations Manager – Science
    University of Warwick
    Tel: +44 (0) 7920 531 221
    E-mail: alice.j.scott@warwick.ac.uk


    WMG unveils the world’s first EV Thermal Management Testbed

    Picture of WMG experts at the Thermal Management TestbedWMG has unveiled a special Thermal Management Testbed, to allow holistic investigation of HVAC (Heating, Ventilation and Air Conditioning) and other vehicle sub-systems under real-world conditions.

    The Testbed, which is a world-first, was funded by the High Value Manufacturing Catapult, and is located at the University of Warwick’s Wellesbourne campus. It is designed specifically to develop and evaluate efficient thermal management systems for electric vehicles; including cabin climate control; thermal management of energy storage and electric machines; and the impact on the overall performance of the vehicle.

     

    Truong Quang Dinh, Associate Professor of Energy System Management and Control at WMG, explains: “Effective heating and cooling of vehicle sub-systems is indispensable to ensure safety, reliability and comfort. Our unique thermal management testbed integrates a highly flexible HVAC rig and a hybrid physical-virtual powertrain for the holistic investigation of thermal management systems and other vehicle sub-systems under real-world conditions. This enables real-time tests from vehicle components, sub-systems, to entire systems at lowest time, cost and effort.”

    One project that will be exploring the capabilities of the new Thermal Testbed is Cit-E-Van, - a collaboration between WMG, CoolVan and GAH, funded by Innovate UK. Cit-E-Van will look to develop an energy efficient electric refrigerated vehicle with an optimised electric transport refrigeration unit and retrofit the electric propulsion system with advanced thermal-energy management features.

    In the coming months WMG experts will be working with more industry partners to develop HVAC solutions.

    For further information about the testbed or HVAC solutions in general contact Truong Quang Dinh at: t.dinh@warwick.ac.uk

    Wed 01 Dec 2021, 12:37 | Tags: HVM Catapult Energy Systems Partnerships Research

    WMG research shortlisted for key industry tech award

    Image showing WMG as a TechWorks finalist WMG’s Secure Cyber Systems Research Group has been shortlisted for a TechWorks R&D Excellence Award.

    The R&D Excellence Award celebrates innovative R&D activity involving strong Industry and Academic collaboration. This category showcases world-class technology development that has the very high potential of being adopted by industry.

    Professor Carsten Maple explained: “I am extremely grateful to all of the team for their huge effort and fantastic outputs. I am so pleased that their efforts have been recognised by a national awards panel.

    “The awards recognise outstanding collaboration, and we have certainly made our case based upon the many successful projects, including BeARCAT, IoT-Tram, Capri and S-CAV, that we have delivered with multinational partners and SMEs.

    “Being recognised as a finalist is a fantastic achievement and testimony to the hard work of everyone here at WMG.”

    Winners will be announced at the TechWorks Gala Dinner and Awards Ceremony on Thursday 9th December, at the Leonardo Royal Hotel London St Paul’s.

    Read more about WMG’s cyber security research here: Cyber Security (warwick.ac.uk)


    Composites award wins for WMG research

    Two WMG research projects, Project AMICABLE and Project TUCANA, were recognised at the Composites Industry Awards this week.

    Project AMICABLE, a 12-month Innovate UK funded project, which set out to produce a lightweight, permanently antimicrobial grab pole for use in publicImage of grab rails on tube train transport, won the Innovation in Composite Materials award.

    Researchers from WMG’s Lightweight Materials and Manufacturing team worked with, product designers Transport Design International (TDI), anti-microbial additive developers BioCote and Promethean Particles and the Health and Safety Executive (HSE), and manufacturers Composites Braiding Ltd (CBL), to produce lightweight composite grab-poles with an embedded anti-microbial property.

    The anti-microbial grab poles can be used in a wide range of public transport applications, such as bus, tram, rail and underground, helping to reduce transmission of infections.

    A second project involving experts from WMG, called Project Tucana and led by Jaguar Land Rover, was recognised in the Innovation in Composite Design category.

    The APC funded project is an enabler for future generations of Battery Electric Vehicles (BEV), demonstrated through the redesign of the rear structure of a Jaguar I-Pace, the acclaimed Jaguar Land Rover (JLR) BEV, bringing together a consortium of world-leading academic and industry partners. Researchers and engineers from WMG’s Automotive Composites Research Centre helped to develop the manufacturing technology to design stiffer and lighter vehicle structures using light weight carbon fibre materials.

    Read more about the Composites Industry Awards here: Composites Industry Awards | Composites UK


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