?? Meet the Members: Maria Tenje ?? Meet Maria Tenje, Professor in Microsystems Technology at Uppsala University. She leads the EMBLA research group at the Division of Biomedical Engineering at Uppsala University. Maria's research focuses on advancing organ-on-chip technologies and microfluidics for biological and life science applications. Curious to learn more? Check out the details below! ?? ?? We’re proud to feature such inspiring innovators in our community. #BiomedicalEngineering #MicrosystemsTechnology #Innovation #LifeSciences #EUROoCS #Organonchip #MeetTheMembers
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Work led by University of Michigan Biomedical Engineering professor Matthew Willsey led to the development of a brain-computer interface, surgically placed in a research participant with paralysis in all four limbs, that provided an unprecedented level of control over a virtual quadcopter—just by thinking about moving his unresponsive fingers. myumi.ch/VG6d3
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Researchers at The Podium Institute, situated within the Institute of Biomedical Engineering, University of Oxford, have recruited their first participants for a new study exploring the impact of head injuries on the brains of 11 to 18-year-olds using cutting-edge neuroimaging techniques. More info ?? https://lnkd.in/eSP7EcrG
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#Researcher2Know Spotlight! Highlighted today is Dr. Jonathan Rivnay, Professor of Biomedical Engineering at Northwestern University. The Rivnay group engineers organic and biohybrid bioelectronic materials, devices and systems for interfacing between the complex world of biology and traditional optoelectronics. The group’s interests involve understanding the unique active properties of organic (small molecule and polymeric) materials, including mixed ionic-electronic conduction and actuation and utilizing their strengths for sensing/stimulation in biomedical settings. Recent efforts include biohybrid devices that combine strengths of synthetic biology with those of bioelectronics, resulting in systems that extend what is possible in sensing and actuation/therapy. Professor Rivnay is at the forefront of exciting new research blurring the lines between biology and electronics. His work is enabling new ways to think about treating a wide range of diseases, including metabolic diseases (like diabetes), cancer and sleep disorders. To learn more about Dr. Rivnay's work and more, visit our R2K page! https://hubs.ly/Q02B8SF20
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BME's Green receives MIT Technology Review's 2024 Innovators Under 35 honor ?? Leopold Green, assistant professor in Purdue University Weldon School of Biomedical Engineering, and principal investigator of Green Research Lab, has been named to MIT Technology Review’s “35 Innovators Under 35” list. This is the 25th year for this prestigious list of highly accomplished young people who are using technology to tackle some of the world’s biggest problems and explore open scientific questions. As Principal Investigator for Green Research Lab, he and his team are revolutionizing synthetic biology by engineering DNA nanopores to transform bacteria and probe neural activity. His lab has discovered that non-functionalized DNA nanostructures can robustly and isothermally embed themselves into cell membranes, a pioneering achievement in synthetic biology. Full article: https://bit.ly/3XSCskJ
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?? Excited to Share My First Review Paper Publication! ?? I'm thrilled to announce that my research paper, "Review—Quantum Biosensors: Principles and Applications in Medical Diagnostics," has been published in the ECS Sensors Plus,?Volume 3,?Number 2, Published on behalf of The Electrochemical Society by IOP Publishing Limited. This paper delves into the intersection of physics and biosensing, quantum biosensors (QB) which are transforming medical diagnostics and personalized medicine by exploiting quantum phenomena to amplify sensitivity, specificity, and detection speed compared to traditional biosensors. Their foundation lies in the fusion of biological entities like DNA, proteins, or enzymes with quantum sensors, which elicits discernible alterations in light emissions when interacting with sample molecules. Our goal is to demonstrate how QB resonates with possibilities, poised to reshape the diagnostic landscape profoundly. Thank you to everyone who supported me throughout this two years journey. Your encouragement and insights were invaluable. I thank the R&D cell, Woxsen University for the support. Woxsen University Hirak Mazumdar, Ph.D, SMIEEE, MACM Kamil Reza Khondakar, Ph.D Dr. Kiran Kumar Ravulakollu Raul Villamarin Rodriguez Yogendra Kumar Mishra Ajeet Kaushik, Ph.D. FICS I MRSC I ECS I ACS ECS - The Electrochemical Society IOP Publishing Published in: ECS Sensors Plus DOI: 10.1149/2754-2726/ad47e2 #Research #QuantumBiosensor #AIML #Healthcare #Pointofcare
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Persistence is the Key to Success: #NYCU Professor Guan-Yu Chen’s #Bionic #Lung-On-A-Chip Research Journey Professor Guan-Yu Chen, from the Institute of #Biomedical Engineering at National Yang Ming Chiao Tung University (#NYCU) in Taiwan, is at the forefront of research in the field of bionic organ-on-a-chips (#OoCs). This innovative work combines biomedical research with semiconductor and Information and Communication Technology, known as #BioICT. Prof. Chen has successfully developed a bionic lung-on-a-chip system replicating the human body’s microenvironment. His efforts have garnered media recognition, earning him the reputation of being “a pioneer in organ-on-chip (OoC) technology.” Prof. Chen has expressed his hope that Taiwan’s contributions to this field will receive global attention. In 2023, Prof. Chen received multiple awards, including the Moderna Taiwan mRNA Innovation Awards. He was also honored with the Awarded Lush Prize Young Researcher Award-Asia and was elected as the candidate for the Lush Prize “Fighting Animal Testing” alongside Emulate, a leading OoC company this year (2024), suggesting that not only Prof. Chen’s groundbreaking research in bionic lung-on-a-chip technology but also Taiwan’s international leadership in OoC research. For more reading, please connect to the following link: https://lnkd.in/gDMC9hXA
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?? Pushing Boundaries in Scientific Research: A New State-of-the-Art AFM/SEM Laboratory Opens at Charles University ?? Faculty of Science, Charles University proudly celebrated the opening of a cutting-edge AFM/SEM laboratory as part of the #Techscale project. The event brought together distinguished guests, including British Ambassador His Excellency Matt Field OBE, Dr. Otakar Fojt MBE (UK Science & Innovation Network), and Pavel Dole?ek (Deputy Minister for Science, Research, and Innovation), showcasing the importance of local and international partnerships in driving innovation. ?? A Collaborative Mission for a Sustainable Future Led by Prof. Michal Otyepka (CATRIN UP) and Prof. Jiri Cejka (Techscale Coordinator at the Faculty of Science), Techscale aims to tackle critical challenges like climate change, energy crises, and improved quality of life. The lab’s advanced microscopy capabilities will push research into nanomaterials, sensors, energy storage, and catalysis to the next level. As Prof. ?ejka emphasized, "Our goal is to develop novel multifunctional single-atom catalysts, enabling diverse reactions on one carrier through collaboration with esteemed Czech and international partners." ?? Reinforcing Czech-British Scientific Collaboration The opening highlighted the deep-rooted Czech-British scientific ties, with over 2,000 joint research publications annually. Prof. Russell Morris ( University of St Andrews) and representatives from Thermo Fisher Scientific and NenoVision demonstrated the groundbreaking potential of this advanced technology to accelerate research in material chemistry and sustainable technologies. ?? Technology That Makes a Difference The facility features cutting-edge #FIB-#SEM and in-situ #AFM capabilities, including the Scios 2 Microscope and the #Litescope Microscope. As Dr. Michal Mazur, head of the electron microscopy lab, noted: "This high-quality equipment will allow us to explore the nanoscale, enabling real-time material analysis and innovations for a more sustainable world." This new laboratory marks a major leap forward for the Faculty of Science and global scientific partnerships. Together, we are opening doors to innovation and sustainability, addressing shared challenges through collaboration and advanced research. #Techscale #Nanotechnology #Innovation #CzechScience #Collaboration #SustainableFuture #CharlesUniversity #MaterialResearch
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Frontier Science - Quantum Diagnostics ?? w/ Dino Di Carlo - Professor @ UCLA We are thrilled to re-share our insightful episode featuring Professor Dino Di Carlo from UCLA. Join us as we delve into the revolutionary fields of bioengineering and mechanomedicine. Discover how Prof. Di Carlo’s pioneering work on inertial microfluidics is transforming diagnostics and therapeutic processes, and learn about his innovative company, Vortex Biosciences. Explore the future of smart biomaterials with Tempo Therapeutics, and get insights into how measuring the mechanical properties of cells can diagnose diseases and lead to groundbreaking new therapies with Cytovale and Forcyte. Don’t miss this in-depth discussion on pushing the boundaries of biology and engineering. Tune in: https://buff.ly/3xSKSPa
Frontier Science #4 - Quantum Diagnostics ?? w/ Dino Di Carlo - Professor @ UCLA | BIOS
https://www.youtube.com/
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U-M BME researchers have developed an exciting new tool to decipher the objectives of cells. The researchers tried to answer a simple but elusive scientific question: “What is a cell trying to produce?”? The new tool, developed by?Sriram Chandrasekaran, Associate Professor, Biomedical Engineering, and his PhD student?Da-Wei Lin, is called SCOOTI (Single-cell Optimization Objective and Trade-off Inference). SCOOTI uses snapshots of omics data and predicts the ultimate metabolic “destination.” This is analogous to taking a picture of traffic and figuring out where most drivers are heading. SCOOTI can improve our understanding of cellular objectives, with implications for drug development, cellular reprogramming, and bioengineering. At its core, SCOOTI leverages machine learning algorithms to infer the objectives of individual cells by analyzing their metabolic and transcriptomic data. Read more: https://lnkd.in/g72iSuc6
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?? Thrilled to have presented at the IEEE RAPID Conference 2024 from August 14-16 in Miramar Beach, Florida, USA! I had the opportunity to share insights on our latest work titled "Controlled Concentration Of Short DNA Molecules On The Electrodes Using AC Electric Fields And Capillary Flow." This research focuses on leveraging AC electric fields and capillary flow to enhance the concentration of DNA molecules on electrodes. This approach offers promising advancements in DNA manipulation, with potential applications across diagnostics, biomolecular studies, and point-of-care technologies. The conference brought together some of the most innovative minds in our field, and it was inspiring to exchange ideas and explore emerging technologies. The discussions reaffirmed the critical role of interdisciplinary collaboration in pushing the boundaries of biomedical engineering. #biomedicalengineering #DNAconcentration #electrokinetics #IEEE #RAPID2024 #ResearchInnovation #biomolecularengineering #pointofcare
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Thanks for interviewing me - EUROoCS is such an important network! Glad to be part of it ??