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The Future of Composite Materials in Rail Infrastructures

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Growing population and expanding urbanization worldwide require more sustainable mobility solutions to tackle global resource scarcity and climate change. As one of the most sustainable transportation modes, rail-based transport systems are taking an ever-increasing share of the mobility demand. According to the International Transport Forum (ITF) Transport Outlook 2019, the global passenger transport demand will more than double, and freight transport is expected to triple in the next 30 years. Growing Passenger Demand Requires Advanced Rail Infrastructure Composite materials are already playing an increasingly important role within the transport industries due to their lightweight nature, durability, and low environmental footprint. Composites offer significant improvements over traditional materials and provide innovative and sustainable solutions for various critical infrastructure projects. Many countries, either with well-established or rapidly growing rail networks, are explori

NIST Supports Composite Materials Standards Harmonization

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  CTL’s Smart Connected Manufacturing Systems Group and the Longterm Archiving and Retrieval (LOTAR) Consortium have supported multi-year efforts to harmonize composite material standards. ASME Y14.37 enables engineering practices for the definition of composite parts, and ISO 10303 STEP (STandard for the Exchange of Product model data) enables the representation and exchange of composite part information. Harmonization of these standards provides shared vocabularies across the model-based engineering disciplines that ease product lifecycle communication, improve product quality, reduce time to market, facilitate implementation of newer technologies, and reduce manufacturing costs. While these standards are related, they are developed in different communities. Over time, advances in manufacturing of composite parts led to the standards becoming out of sync. Propagation of ISO 10303 STEP composites capabilities from ISO 10303-242 Managed model-based 3D engineering (AP242) to ISO 10303-2

Self-Healing Aluminum Metal Matrix Composite

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The healing cycle for liquid-assisted self-healing metal-matrix composites. The system consists of a metallic matrix with a eutectic micro-constituent shown in black and reinforcing SMA wires shown in green (I). After catastrophic failure, the SMA wires deform to bridge the crack (II). To heal the sample, a high temperature healing treatment is initiated, during which the eutectic component melts and SMA wires close the crack (III). During cooling, the eutectic component freezes, welding the crack surfaces and eliminating the crack (IV). (Image: NASA) Fatigue endurance is critical for the airworthiness of civilian and military aging aircraft and for long-duration flight and deep space missions. NASA has developed a new metal matrix composite (MMC) that can repair itself from large fatigue cracks that occur during the service life of a structure. This novel liquid-assisted MMC recovers the strength of the structure after a healing cycle. The MMC contains both shape memory alloy (SMA)

Manufacturing the MFFD thermoplastic composite fuselage

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  The Multifunctional Fuselage Demonstrator (MFFD) program was conceived in 2014 as one of three large aircraft demonstrators within the EU-funded Clean Sky 2 (CS2) initiative (now Clean Aviation) aimed at advancing innovative technologies, aircraft sustainability and a competitive supply chain in Europe. When disseminated in 2017, the MFFD program goals were ambitious: Build an 8-meter-long, 4-meter-diameter fuselage section fully from carbon fiber-reinforced thermoplastic polymer (CFRTP) composites to enable production of 60-100 aircraft/month with a 10% reduction in fuselage weight and 20% cut in recurring cost. By the project’s end in 2024, overall technology readiness level (TRL) for such a fuselage will be advanced to TRL 5. From 2017-2019, Airbus Research & Technology (Bremen, Germany) , as the MFFD project leader, issued 13 CS2 calls for proposal CfP07–CfP11 for work topics such as automated assembly plant for a thermoplastic fuselage, micromechanics of welded joints, nove

Premier Composite Technologies introduces new GRC and UHPC division

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Premier Composite Technologies (PCT) the leading global supplier of advanced composite components for the architectural market is proud to announce its launch of a new Glass Reinforced Concrete (GRC) and Ultra High Performance Concrete (UHPC) division. In a bid to broaden its offerings to the market, PCT will launch the new market area to appeal to designers who require an alternative solution to building with resin based advanced composites. Instead, GRC and UHPC are cement based composites that offer alternative benefits in terms of performance, appearance and cost parameters. The expansion will be headed up by Ian Campbell who has over 20 year’s experience of working within the market in Ireland, UK, Europe and the Middle East. With a wide scope of knowledge in the designing and production of concrete based architectural facades, Ian has worked with engineers and architects on creating bespoke solutions for a vast number of projects. Comments Hannes Waimer, MD, PCT: “This expansio

Sciencefather- Smart and Multifunctional Composites

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Smart and multifunctional composites are advanced materials designed to perform multiple functions and respond adaptively to external stimuli. These materials integrate sensing, actuation, and self-healing capabilities within a single composite structure. Website Link : composite.sciencefather.com Award Nomination - https://x-i.me/copnom Abstract Submission - https://x-i.me/compabst2 . https://x-i.me/twtcop https://x-i.me/fbcop https://x-i.me/intcop https://x-i.me/lnkcop https://x-i.me/prtcop https://x-i.me/blogcop https://x-i.me/coptube #SmartComposites, #MultifunctionalMaterials, #AdvancedMaterials, #MaterialScience, #InnovativeMaterials, #AdaptiveMaterials, #SensingMaterials, #SelfHealingMaterials, #SmartMaterials, #CompositeMaterials, #StructuralHealthMonitoring, #EnergyHarvesting, #PiezoelectricMaterials, #ShapeMemoryAlloys, #ElectroactivePolymers, #SmartStructures, #MaterialInnovation, #EngineeringMaterials, #FutureMaterials, #TechInnovation

Aluminium Composite Sheet Market Share | Scope | Growth Projections to 2031

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Aluminium Composite Sheet Market Size Projection 2024 In the ever-evolving landscape of Aluminium Composite Sheet Market, several key trends are shaping the industry’s trajectory. From technological advancements to changing consumer preferences, these trends are redefining how businesses operate and engage with their audiences. One prominent trend is the increasing integration of AI and automation, revolutionizing processes across sectors and enhancing efficiency. Sustainability is also gaining momentum, with consumers prioritizing eco-friendly products and companies adopting sustainable practices to meet this demand. Furthermore, the rise of e-commerce continues to reshape the market, with online platforms becoming essential for both businesses and consumers alike. Amidst these shifts, adaptability and innovation emerge as crucial factors for success, as companies navigate the dynamic landscape of the Aluminium Composite Sheet Market to stay competitive and relevant. Request PDF Samp