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Empowering Future Engineers 👨👩 What is our relationship with the Technische Universität Chemnitz? Why have we been there last week? On April 11th, we successfully completed the Final Acceptance Test for our FHR.Star.200-CCP at the Chemnitz University of Technology’s Center for Microtechnologies (ZfM) 👌. This state-of-the-art Capacitvely Coupled Plasma (CCP) reactor is now ready to revolutionize how students and researchers at the ZfM and the associated professorship of Smart Systems Integration (SSI) at Fraunhofer ENAS (Harald Kuhn) approach plasma physics. Previously, the ZfM faced significant challenges with its plasma research and education. 👨🎓👩🎓 Students and researchers had to rely on production systems for their experiments, where access to the production chambers was not only limited but inconvenient. These chambers involved time-consuming processes that hindered learning and innovation. Another issue was the intricate process of nanoscale manufacturing, which often appears as a perplexing black box to students. The advantages are clear: ✅ Unprecedented Access: Our system provides easy access to the production chambers, allowing for hands-on learning and experimentation without the logistical nightmares previously encountered. ✅ Enhanced Testing Facilities: Students can now utilize advanced tools like the Langmuir probe to conduct in-depth plasma diagnostics. ✅ Sensor Testing Simplified: The design accommodates easy integration and testing of various sensors, further enriching the educational experience. Thanks to our system, students at the ZfM can now explore the direct properties of plasma in a controlled, visible environment 🔝. This not only enhances their understanding of plasma physics but also prepares them thoroughly for their future careers as engineers in high-tech industries 🚀. In addition to enhancing education and research at the ZfM, our system will play a crucial role in surface activation for two EU projects: GREENER Project and DeDNAed. These initiatives aim to advance sustainable technologies and enhance detection methods in nanotechnology. 🎥 Watch the insightful discussion: Don't miss our clip where Marcel Melzer, Research Assistant at the ZfM, explains to Iqtidar Wasif the transformative benefits of the FHR.Star.200-CCP for their research and education. We are proud to have Iqtidar, a PhD student at the Chemnitz University of Technology’s Institute of Physics, conducting his PhD Thesis with us at FHR 🙏. His work further bridges the gap between academia and industry, enhancing our collaborative efforts. Peggy Stiegler, Peter Schlott, and the entire #FHR team did an awesome job! Thanks a lot, Maria-Joanna Ermlich, for creating the great clip! #WeAreFHR #TheThinFilmCompany #PlasmaTechnology #EngineeringEducation #Innovation

"Alhamdulillah, I am thrilled to announce that I have successfully completed the 'Nanotechnology and Nanosensors' course on Coursera. This course has significantly expanded my understanding of the nano world and its potential applications. The journey of learning about the intricate details of nanotechnology and the functioning of nanosensors was truly enlightening. I'm excited to apply this knowledge in my future endeavors. #analyticalchemistry #lifelonglearning #nanotechnology #coursera #chemistry

Our research exploring the nanomechanical response of NiFeCrCo concentrated solid solution alloys (CSAs) has been published in Kudos This work combined innovative experimental techniques (arc melting & nanoindentation) with advanced computer simulations to understand how these complex alloys deform under pressure. By delving into the movement of individual atoms and the behavior of defects, we gained valuable insights into how to design and produce stronger, more resilient CSAs for future applications! This research paves the way for the development of advanced materials with precisely controlled mechanical properties, opening doors for innovation in various fields.

Meet Our Researchers   Lihua Lou, Research Assistant Professor, works on cardiac biomechanics, soft matter, electrospinning, atomic force microscopy, multiscale mechanics, 0D/1D nanomaterials, nanomaterial composites, and digital image processing.   “Scientific research is rarely a linear path to success; it often involves navigating numerous obstacles and setbacks. These challenges can be particularly daunting in specialized research fields with limited prior work, sometimes resulting in hundreds or even thousands of unsuccessful attempts. However, the essence of these experiences is not the failure but rather the perseverance and analytical approach adopted in response. Such moments symbolize the intrinsic beauty of research: a journey marked by challenges and uncertainties, yet immensely rewarding through these moments of discovery and the ensuing sense of joy and accomplishment.”   ABHIJITH K S, Graduate Research Assistant, works on thermal spray (APS & VPS), cold spray, In-flight particle diagnostics, additive manufacturing, extreme environments, tribology, aerospace erosion, composite materials for radiation shielding, powder metallurgy and spray drying.   “As an avid space enthusiast, I was always curious to know what lies beyond Earth and how impactful space research will be for future civilizations. Fortunately, my research for NASA takes my interest up a notch in where we develop wear, erosion, and radiation-resistant coatings for aerospace structures. I was very lucky to be a part of the Plasma forming laboratory, where I learned all about my thermal spray and extreme environmental research. A significant moment in my research life was when our developed coating samples went to the International Space Station for MISSE-17 experiments, and it was awarded FIU Real Triumphs no.1 for 2022. Yes, space is vast, and so is research; as my advisor always says, research is always open-ended; you must dig deep to find good science.”   Zachary Rivera, Undergraduate Student, works on high-performance polymer composites, shape-memory polymers, and 2D material foams.   “I have always been interested in Engineering. Being a computer science student, I normally would not have been given this opportunity, but through AFROTC, I was given the chance. This was one of the best decisions I’ve made since I am actively learning about polymers and polymer NanoComposites.”   Stay tuned to meet more researchers working in ColRAD with Arvind Agarwal!   Florida International University Florida International University - College of Engineering & Computing, FIU Mechanical and Materials Engineering   #FIU #PawsUpFIU #FIUInnovation #ColRAD #AdditiveManufacturing

Q: What will I learn from using any of PraxiLabs virtual labs? 💡A: Our virtual labs offer numerous benefits during the simulation. 👉Let’s discover them together: ✔️You will gain deeper insights into the experiment ✔️You will understand the practical applications ✔️You will grasp the experimental process ✔️You will explore the objective of the experiment🎯 ✔️You will utilize diverse multimedia resources💻 Prepare yourself to take the right decision and elevate the joureny of science education for your students at unversity or college! Give it a try yourself! Take a tour to explore PraxiLabs' 3D simulations in chemistry, physics, and biology. https://lnkd.in/dfsHNR8Y #PraxiLabs #EduTech #innovation #education #virtuallabs

Katayun Barmak, the Philips Electronics Professor in the Applied Physics and Applied Mathematics Department at Columbia Engineering, was featured in the Columbia News article, "Using Nanotechnology to Uncover Details of a Medieval Manuscript." Learn more about how Columbia conservators, Nano Initiative scientists, and a music scholar used state-of-the-art technology to examine a score. https://lnkd.in/g8_YRnj4

We're pleased to kick off 2024 by welcoming new faculty member, Jan Niklas Fuhg. Fuhg, who recently completed his Ph.D. at Cornell University, joins us as an assistant professor. "My research aims to develop the tools that allow for a broad range of materials to be characterized quickly and accurately. They can then be applied to a wide variety of materials, such as biomedical equipment, prosthetics, artificial bones and more," said Fuhg. Learn more about Fuhg's work on developing theoretical and computational tools for modeling and forecasting the mechanics of materials: https://lnkd.in/gpjm_Wv7 #Materials #ComputationalMechanics #Simulations #TexasEngineering #WhatStartsHere Cockrell School of Engineering, The University of Texas at Austin | Oden Institute for Computational Engineering and Sciences | University of Texas Center for Space Research

📢 Join me and a panel of experts on the 27 February for an hour-long webinar discussing ‘AI tools for materials research and nanotechnology’. During the webinar, we will discuss the rapidly progressing field of ‘intelligent nanotechnology’ including some of the most recent developments and breakthroughs, the projected direction that the field may take into the future, and the most critical challenges currently posed. The four talk titles you can look forward to are: -         ‘Towards Closed-Loop Materials Discovery at the Femtogram Scale using Scanning Probes’ - Keith Brown, Boston University, USA -         ‘Physics and structure-property relationship discovery via automated Scanning Probe Microscopy’ - Sergei Kalinin, University of Tennessee, Knoxville, and Pacific Northwest National Laboratory, USA -         ‘Interpretable features, influential instances and explainable machine learning models for nanoscience and technology’ - Amanda Barnard, Australian National University, Australia -         ‘Towards Data Fusion in Materials Science: Bridging Simulations and Experiments with Data Science’ - Yaroslava Yingling, NC State Materials Science and Engineering, USA If this sounds like something you would be interested in, but can’t make the live webinar, register today to get sent a recorded version for you to watch at your leisure. Learn more and register at https://lnkd.in/eKuJ87ts

https://lnkd.in/d9uK_xCG FUNDING: Up to $47,000 over two years. Why do research in nano? Objects at the nanoscale are small enough that they have a lot more surface, relative to their volume, than macroscopic objects. At this scale we can start to see some hints of quantum mechanical effects. While small in terms of size, objects at the nanoscale are still huge as compared to atoms scales (a single nano-object may be made by hundreds of thousands of atoms), so their behaviour is not necessarily dominated by quantum mechanics. Even well-known materials behave differently at the nanoscale. Understanding behaviours at the nanoscale, and how to turn those into useful devices, is an interesting and rewarding challenge. The nanotechnology industry represents a wide and valuable market. A few examples of potential topics include quantum materials, nanoconstructs for medical applications, chemical nanoengineering, nanomechanical systems, smart thin-films and biological circuits. Who can apply? The Master in Nanoscience and Nanotechnology is for students who appreciate a challenge and want to learn more about both science and technology. Students applying to the program should have a background in either science or engineering.   Program goal Besides the specialized knowledge you will acquire while working in your project (which can vary widely depending on the project!), you will learn how to bridge the science and engineering cultures, and how to interact with both scientists and engineers.

Dear Network, I am excited to announce that I have just completed an intensive 6-week nanotechnology training program, "Understanding Nanosciences," delivered by France Université Numérique (FUN) and taught by esteemed professors and researchers from Université Paris-Saclay. This comprehensive program has been an incredible journey, expanding my knowledge and passion for nanotechnology. Here’s an overview of what I’ve learned: Week 1: Introduction to Nanoscience We laid the foundations and covered the major concepts of nanoscience. Week 2: Observing and Fabricating Nanoscale Objects Explored the tools used to observe matter at the nanoscale and the techniques available for fabricating nanoscale objects. Week 3: Nanochemistry Studied the properties and applications of carbon, porous solids, and nanoparticle synthesis. Week 4: Nanophysics Delved into nanoelectronics components, light-guiding structures, nanosensors, and their various applications. Week 5: Nanobiology, Nanomedicine, Micro-Nanofluidics Learned about studying and manipulating molecules, treating diseases with nanomedicines, and handling liquids on chips for medical diagnostics. Week 6: Nanoscience and Society Discussed the societal, health, and environmental impacts of nanotechnologies, addressing the question: Are nanotechnologies dangerous? Additionally, the program included exciting new content: Applications of Quantum Dots: Discoveries from the 2023 Nobel Prize winners in Chemistry. Role of Nanotechnologies in Quantum Technologies: Insightful videos on single-photon emitters made from 2D semiconductors. Quantum Simulation: How periodic nanostructures can trap light in solids. This journey has been both challenging and immensely rewarding, providing me with valuable insights and practical knowledge that I am eager to apply in my future projects. A big thank you to my instructors and professors for making this experience so enriching! #Nanoscience #Nanotechnology #Nanochemistry #Nanophysics #QuantumTechnology #Nanomedicine #Nanoelectronics #Nanofluidics #QuantumDots #Photonics #NobelPrize #ProfessionalDevelopment #Learning #Innovation #Research #ParisSaclay #FranceUniversitéNumérique #FUN