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Automotive innovation

Driven by a convergence of social trends and technological advances, a mobility revolution is underway. Innovation standards support the new automotive supply chain in placing the consumer at its heart and linking ever more strongly with new technology providers and road infrastructure. Our automotive innovation standards play a crucial role in de-risking investment and accelerating the adoption of new automotive technologies through confidence in performance.

A new era of automotive technology

Learn how standards are helping to shape the future of transport

Automotive innovation: The future of transport
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Automotive innovation: The future of transport

The Future of Transport (FoT) is an emerging and evolving concept that envisages citizens having their journey needs to be met by systems of interconnected transport modes and resources that are available ‘as required’ as a single item. The FoT has the potential to provide greater convenience to citizens, reduce carbon emissions, pollution and congestion. Dynamic, on-demand and automated approaches to transport provision can work alongside traditional transport modes to plug gaps in ‘last and first-mile' transport and logistics providers. New approaches to mobility will enable individuals to plan and buy travel options from a range of multi-modal service providers, tailored to their needs. Services include Public transport, car sharing, private hire, parking, taxis, bicycle hire, walking, emerging mobility modes including scooters, and connected autonomous vehicles, as well as private vehicles. The FoT serves to address personal needs that can mix car ownership with access to more sustainable alternatives through efficient use of shared public, community, and private services. The Future of Transport is set to be ever more connected, with innovation across multiple modes of transport, between services providers, and beyond mobility itself. This creates its own challenges, from new commercial models, changed payment relationships, to data privacy, security and interoperability. Why Transport Matters Economic and demographic patterns are driving changes in the way human beings live and work. The majority of the world’s population now resides in cities, and that is expected to grow to 70% by 2050, according to a UN Report. India, China, and Brazil have dedicated mass urbanization programs, as do many other countries. The UK government, for example, has launched a series of consultations and programs on the future of mobility which aims to capitalize on innovations in engineering and technology. While demographic changes alone will drive the need for individual and global mobility, governments must also consider other factors. With population density and economic clustering in urban areas, governments must address issues of inadequate or aging infrastructures, pollution, congestion, and the devastating ecological impact of concentrated industrialization.  Additionally, aging or obsolete vehicle fleets, systems that lack interoperability with emerging technologies, and increased user demands for connected services forcing governments to seek innovative technology solutions to existing and future urbanization problems. If governments and international institutions fail to resolve these issues, mass urbanization and industrialization will engender gross inequalities in social and economic advancement, increase reliance on fossil fuels, destroy fragile ecologies, and contribute to poverty-induced violence and despair. According to a report by the World Bank, the scale of growth poses several challenges for urban transportation: Rapid Urbanization – cities will need infrastructure, services, housing, and employment options for burgeoning populations, all of which impact mobility as a public service. The increased volume of users and consumers of mobility and transport services will cause higher levels of pollution globally. To read more on the topic of EV, Decarbonization and Net Zero Emissions click here. Low-quality public transport - train breakdowns and derailments, bus breakdowns, and other forms of public transport breakdown are a frequent occurrence in developing nations and a source of major concern for transport authorities in more developed nations.  Aging public transport infrastructures add extra pressures to already over-burdened systems. Providing seamless and sustainable public mobility is a serious challenge for almost all governments. Increase in motorization – a greater number of people around the world will be mobile in the coming years, increasing pressure on highways and roadways. For nations with aging or inadequate transport infrastructures, the volume of new users will be a major logistical challenge. Many drivers will use smart cars, or access smart transport systems, generating vast quantities of data. Smart cars will generate 290 exabytes of data over the next few years. Lack of hierarchical highway, road, and street systems – patchy highway and road development, stretches of underdevelopment in major highway systems, and disconnected road and street systems place extra pressure and costs on public sector transport and maintenance services. Lack of Resources (People, Institutions, and Funding) – the pressures of mass urbanization, mass industrialization, and increased population density will add to the demand for publicly funded services such as traffic management, incident response, and protection of transport as a critical national asset for a nation. Budget cuts, funding priorities, and political agendas all determine how governments allocate resources.  Resource allocation may not be enough to resolve some of the more complex transport issues faced by urban populations. The Role of Transport Innovation Standards Transport innovation standards play a crucial role in de-risking investment and accelerating the adoption of new automotive technologies through confidence in performance. BSI is at the global forefront of standardization in the FoT. This is critical in the commercialization of these technologies, building trust, and supporting the creation of new markets at home and internationally. Successful take-up of new transport services depends very much on providing accurate and easy-to-use personalized services, that hide the complex relationships between the many service providers and the ecosystem. These include transport providers, service aggregators, payment agencies, professional associations, regional transportation agencies, and local authorities, each with a different role in the market, operating within government regulation. Ubiquitous, interconnected modes of transport rely on the interoperability of systems across and between the transport modes and their operators and users. This interoperability depends as much on the standardization of the practices of actors in FoT as the technology. As automotive manufacturers make progress on autonomous, electric, and connected vehicle technologies, frameworks such as BS ISO 21219 series and PAS 1881:2020, will play an increasingly important role. The industry needs consensus on standards and best practices to ensure effective interoperability if intelligent vehicles are to reach their full potential. As vehicles become more connected and automated, keeping up to date and meeting the relevant standards will be vital for your customers, your supply chain, and your competitive edge. Our tailored BSI Knowledge subscription service provides flexibility, access, visibility, and control over the standards and insights your team needs to achieve this objective. With over 2,000 automotive documents available in our GBM27 module, finding the right standards for your business needs just got easier. Request to learn more. To ensure your automotive business is prepared for the innovations of tomorrow, add these transport innovation standards to your collection today.Read more
Composites, standards and the future of automotive manufacturing
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Composites, standards and the future of automotive manufacturing

Put very simply, a composite is a material made from two or more different materials that, when combined, are stronger than its individual components. The first structural composite road car was made in 1957, which used several monolithic GRP (glass reinforced plastic) mouldings glued together to make a composite monocoque. Formula 1 cars revolutionised F1 technology by moving to a mid-engine the first fully stressed monocoque chassis to appear in F1. Today, a primary example of a composite is carbon fibre reinforced polymers (CFRPs), an incredibly lightweight and non-corrosive material that’s used extensively in the manufacture of automotive vehicles. The widespread use of materials such as CFRPs is also part of what’s been dubbed ‘The Fourth Industrial Revolution’, which sees smart factories driven by digital manufacturing methods using technology such as artificial intelligence (AI) and the Internet of Things (IoT). In the UK, the application of composites in the automotive sector was founded in the use of CFRP materials in Formula 1 racing, before moving into niche sports-car production. The UK, however, never developed a significant supply chain to deliver low-cost composite parts at high volume. The Need for New Composite Standards Furthermore, rapid technological advancement has fuelled changes in automotive circles. The industry is undergoing significant development work to develop new high-volume composite components, using materials and production techniques beyond existing methods like prepreg and autoclave manufacture. The results of an industry-wide consultation were published in a downloadable report, produced by BSI by Composites UK, and supported by the Department for Business, Energy and Industrial Strategy in 2019. The results of this consultation will be used to develop a standards strategy for BSI, to support the use of composites, in the transportation sectors. The report identified around 1000 standards relevant to the use of composites across all industry sectors. However, the report found that the UK transport sector ­– and the automotive industry in particular ­­– did not find existing standards pertaining to composites fit for purpose. UK standards, it said, had not kept pace with the rapid developments occurring in the advanced materials space. They were also difficult for companies to locate. Improving and updating standards around composites is important in accelerating new applications for composites in the automotive sector. The right standards can provide a major boost to end-user confidence, as well as promote innovation and commercial uptake of any new technologies and materials. A support mechanism is required to help organizations find the right composite-related standards. The report identified areas for modifications or additions to regulations, codes and standards to unlock market potential. The report also flagged composite-related quality assurance, data generation and recycling as areas requiring a new standards development strategy. With a BSI Knowledge subscription, you will have the flexibility and visibility to manage the essential standards you need in order to work with confidence and optimize the materials of your automotive products. Build your own custom collection of standards, or opt for access to our GBM27 Road Vehicle Engineering module and keep up-to-date with any relevant changes to your standards strategy. Request to learn more. Overcoming Challenges For the latter, it’s important to note that the automotive sector must adhere to the annual end-of-life legislation targets applied to European original equipment manufacturers (OEMs). This currently stands at 95 per cent recovery and 85 per cent recycling calculated by the average weight of each vehicle. We have standards on recycling of carbon fibre to help organizations meet these targets:   BS ISO 30012:2016 Carbon-fibre-reinforced plastics — Determination of the size and aspect ratio of crushed objects. And on recycling tyres: BS EN 14243-1:2019 Materials obtained from the end of life tyres. General definitions related to the methods for determining their dimension(s) and impurities. And PD CEN/TS 16916:2016 Materials obtained from end of life tyres. Determination of specific requirements for sampling and determination of moisture content using the oven-dry method. These requirements may present challenges for the uptake of composite components as, although technologies exist capable of recycling many forms of the material, a supply chain for UK manufacturers to deliver value out of the recycled is still being determined. For the automotive sector specifically, it was identified that new composite standards are also required around fire safety, test standards to cope with discontinuous or quasi-isotropic materials and guidance on design for manufacturing. Standards development is already active in the area, for example, the work of committees PRI/42 (Fibre-reinforced thermosetting plastics and prepregs) and RPI/13 (Advanced technical ceramics) is of particular relevance. Armed with the knowledge above, and with the ongoing support from the CLF, BSI is working together with CLF to help enable the use of composites and other advanced materials to drive competitive, safe, performance and environmental benefits for years to come. Add all the key automotive standards to your collection today.

Key Automotive Innovation Standards

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