#TGIF, Everyone! After a great week in Pittsburgh talking about the bright future ahead for advanced manufacturing and cutting-edge technology breakthroughs here in the US, I thought I would take a deeper look at some of the efforts behind the scenes?to make that happen. First, we need to examine something that can kill manufacturing innovation before it even gets out of bed. This is the gap between government and academic research and actually creating a viable product that can go into production, which is referred to as "the valley of death." To address this gap, the US created the Manufacturing USA Institute network. This growing network of institutes addresses key technologies like additive manufacturing, robotics, semiconductors, and soon AI. They bring key stakeholders on both the research and production side and build the bridges to cross that "valley of death" and get more market solutions. The institutions also work to train and upskill new workers on how to leverage these new technologies to keep the US as a global leader in both manufacturing and innovation. Read my column about these Institutes in this week's Six Degrees of Robotics newsletter here: https://lnkd.in/epMvmUQf
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New research group: Empowering society through intelligent robotic and automation technologies?? Society faces significant global challenges that require innovative solutions, leveraging collaboration between human and artificial intelligence to create novel, highly automated, and autonomous systems?? Which is why we have established a new research group called Control, Robotics and Embodied AI also known as CREA. The group, led by Associate Professor Roberto Galeazzi, drives this transformation by establishing theoretical foundations and creating advanced robotics and automation technologies?? This progress is fueled by cutting-edge research in areas at the core of the creation of intelligent cyber-physical-human systems: ?? Mechatronic system design and feasibility study ?? System modelling and model learning ??? Control theory and technology ?? System supervision and condition monitoring CREA’s research tackles compelling societal challenges including resilient energy production, transport safety, healthcare, security of supply, and sustainable manufacturing??
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Latest research article published in a Top 2% (Q1) Journal. Focused on Enhanced Performance Self-healing Natural Rubber for potential applications in automotive, aerospace, engineering, soft robotics, and stretchable sensors. ? #Recyclable #Reprocessable #SelfHealing #Rubber #SustainableDevelopment #Elastomers #SmartMaterials #Polymers #NetZeroFuture National Textile University - Elsevier - Universiti Sains Malaysia.
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How about having a ‘third thumb’? Researchers at the University of Cambridge have developed a robotic thumb- a significant innovation in Motor Augmentation. With the Third Thumb, users can significantly improve their ability to grasp, manipulate and carry objects. For individuals with disabilities or those who may have limited hand functionality, this innovation could provide a newfound level of independence. What new opportunities arise when technology enhances our physical capabilities? Shubhangi Dua #MotorAugmentation #WearableTechnology #Innovation
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The insightful "Influx of Technology" panel discussion on “Technological Tipping Points for Competitive Manufacturing” featuring Zhe Shi (Foxconn), Olaf Pannenb?cker (EFFRA), and Thorsten Wuest (University of South Carolina) saw the versatile panel explore how emerging technologies like AI, robotics, and cloud computing are reshaping manufacturing, driving innovation, efficiency, and resilience across industries. Key takeaways: - AI & Automation: Zhe Shi, Chief Digital Officer, Foxconn emphasised Foxconn’s commitment to AI and robotics for speed, efficiency, and cost control. Their investment in next-gen tech like 3D printing of metals is helping optimise global supply chains. - Human-Centric Approach: Olaf Pannenbaecker, Chairman, European Factories of the Future Research Association EFFRA, highlighted the importance of upskilling workers to match the pace of tech advancements while ensuring cybersecurity and safety protocols are in place. - Compete or Fall Behind: Thorsten Wuest, Professor, University of South Carolina underscored the critical need for manufacturers to embrace AI and innovation to stay competitive, stating we are at a technological tipping point. Throughout the discussion, a central theme was that the future of manufacturing lies in the seamless integration of new tech with human expertise. Diego Andreis David Romero Marco Taisch Confindustria Lombardia Politecnico di Milano #futuretech #WMF2024 #FutureOfManufacturing
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The development of humanoid robots presents a significant challenge for materials science, pushing the boundaries of what current technologies can achieve. These robots require materials that combine strength, flexibility, and lightweight properties to enable human-like movement and dexterity. Advanced actuators, motors, and batteries essential for their operation depend on cutting-edge magnets and battery materials, shape-memory alloys, high-performance ceramics, and energy-dense yet lightweight battery components. Creating lifelike skin and sensory layers adds another layer of complexity, demanding bio-compatible, soft, and responsive materials capable of touch sensing, self-healing, or even thermal regulation. Additionally, compact and efficient electronic systems call for flexible circuits, specialized semiconductors, and transparent conductive materials. Meeting these needs not only requires innovation in materials development but also scalable manufacturing methods to ensure these robots are both functional and economically viable for widespread use. Considering modest forecast of 10 billion humanoid robots operational on Earth by 2040. The graphics below estimates need for some of the critical and essential materials plus many materials to be developed which don't exist now. Image and Estimates: Adamas Inside
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Ever wondered how materials can dynamically change shape in response to external stimuli? Researchers at Virginia Tech have explored viscoelasticity-driven shape changes in elastomer bilayers. This innovative study demonstrates how elastomers can be engineered to deform predictably under specific conditions. The research team used their Texture Analyser to measure the stress-strain behaviour of the elastomer bilayers and understand their mechanical properties. They also explored the effect of the viscoelasticity of the materials on their shape change capabilities. This research opens new avenues for applications in soft robotics and adaptive surfaces, offering exciting possibilities for future technological advancements. Read more: https://bit.ly/4bMzoeF | See which instrument they used: https://bit.ly/2K3wlqI
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The semiconductor industry is at a technological crossroads. Advanced manufacturing skills, particularly in Extreme Ultraviolet lithography and nanotechnology, are more crucial than ever. As automation and robotics reshape production, proficiency in mechatronics and process optimization becomes indispensable. Upskilling in these areas can drive innovation and efficiency, ensuring competitiveness in the rapidly evolving landscape of emerging technologies.
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The role of nanotechnology in auto detailing is revolutionizing the industry. Our latest blog at the Automotive Training Centre delves into how this advanced technology enhances vehicle protection and appearance, offering superior results. Read more to stay ahead in your career! #AutoDetailing #Nanotechnology #AutomotiveTraining https://hubs.li/Q02JPLdl0
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The ???????????? ??????????????, in which Bosch Research and other industrial partners joined forces to transform research into innovations for new products and services, was successfully completed this September 2024 under the leadership of Bosch Research and Development Engineer Oliver Lenord. PHyMoS, which stands for "Proper Hybrid Models for Smarter Vehicles," aims to accelerate the virtual engineering of smart vehicles and other innovative products by using AI in system simulation without compromising the reliability and explainability of classical, physics-based mathematical models. The project resulted in more than a dozen of machine learning approaches being explored and applied to real world engineering challenges ranging from MEMS, over hydraulic systems and fuel cell systems to thermal systems in form of heat pumps, batteries, and passenger cabins. Based on these applications eight demonstrators have been developed to quantify the benefits of the applied methods and to showcase prototypical integrations into day-to-day engineering tools, making latest AI modeling techniques accessible to engineers. This initiative was supported by funding from the European Union and the German Federal Ministry of Economics and Technology. It brought together industrial and academic researchers, small and medium-sized enterprises (SMEs), and major players in the field of system simulation to address challenges that none of us could have solved alone. Congratulations to Oliver Lenord, his team and all other project partners for this success! Modelon, LTX Simulation GmbH, XRG Simulation GmbH, TLK-Thermo GmbH, Hochschule Bielefeld, Technische Universit?t Braunschweig, University of Augsburg, ESI Group Learn more about PHyMoS here: https://phymos.de/ ? #BoschResearch #PHyMoS #Modelica #AI #ScientificMachineLearning
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?????? - ????????'?? ?? ??????????-?????????? ???? ???????? ??????????????. It's between 2 to 5 microns in size. That's comparable to a wavelength of visible light. Cornell University researchers unveiled this extraordinary engineering feat -- the smallest walking robot ever - this past week. --> ???????? ???? ???????? ?????????????? ???? ???????????????? ?????????? <-- This advancement enables these micro-robots to interact directly with light waves, allowing them to maneuver within microscopic environments, such as tissue samples, to capture images and measure forces at cellular levels. Robots navigating micro-environments, imaging cellular structures, and unlocking possibilities in diagnostics and drug delivery is the next big thing in robotics. It’s exciting! Every breakthrough demands multidisciplinary teams, fast prototyping, and a readiness to pivot when challenges arise. That’s where most projects hit a wall. At Meytar Tech, we thrive at the intersection of complex engineering and cutting-edge technology.? ???? ?????????? ??????????:? ???? surgical robots needing compact, sterilization-ready actuation systems ???? Imaging devices requiring seamless integration of electronics and mechanics …and so many more scenarios. These aren’t hypothetical challenges—they’re the kinds of problems we solve every day. ?????? ???????????? ????????? ?????????????????????????????????? ??????????????????: From mechanical engineering to software and industrial design, our team delivers end-to-end solutions for MedTech challenges. ????-???????????? ????????????: We use advanced AI tools to accelerate development with precision, speed, and compliance built in. ???????????????? ??????????????: Whether you need a full team or focused support, we adapt to meet your needs—efficiently and cost-effectively. Micro-robotics is just one example of how fast MedTech is evolving. Partner with a team that stays ahead of the curve and helps you lead the way. Let’s build what’s next—together. ???? ???? ???? ???????? ?????????? ???????? ???????? ??????????????! #medtech #surgicalrobotics #engineering #nanotechnology (Image Credit: Cornell Chronicle)
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Industrial Automation & Robotics | Product Management & Marketing | Business Development | Future of Consumer Packaged Goods Manufacturing
5 个月Is anyone aware of any federal government programs to support and assist startups as they take technology developed during research in academia and try to bring it to market as an actual company? I remember reading a while back that one of the areas that the US was missing was support for new companies - lots of funding and grants for research, but when you actually want to turn your research into a viable, market product and sell it, that funding and support goes away. So a lot of people were developing new technologies while in school and then either having trouble getting a company going locally,or heading to another country that provided better support for startups (especially if the person was from another country to begin with). I know Manufacturing USA has membership tiers for smaller companies and startups, so hopefully that's an effort to address that gap.