🧠 What if researchers could study brain activity without keeping participants inside a laboratory? That’s the idea behind NinjaNIRS (NINJA), a wearable fNIRS helmet developed at Boston University that allows researchers to image the whole cortex while participants remain mobile, opening new possibilities for studying brain function in more real-world settings. The technology was pioneered by Bernhard Zimmermann, senior research scientist and electrical engineer in BU’s Boston University Neurophotonics Center and Bio Optical and Acoustic Spectroscopy (BOAS) Lab, where he continues to lead work in fNIRS instrumentation and systems engineering. Unlike many commercial systems, NINJA is open and modular, allowing Zimmermann and his colleagues to continually upgrade its hardware and adapt it to researchers’ needs. The system is already being used at BU and collaborating institutions, including Technische Universität Berlin and Northeastern University. Zimmermann’s goal is ultimately to make advanced brain-imaging technology more accessible, and to see it make an impact through the researchers who use it. Learn more ➡️ https://lnkd.in/eikcueCm
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A collaborative team from Penn State and NIST just published research showcasing a game-changing method for mass-producing chip-scale atomic vapor cells!
Researchers at Penn State and National Institute of Standards and Technology (NIST) have developed a new manufacturing method for glass-based atomic sensors that could enable more accurate navigation and improved wireless communications. Led by Daniel Lopez, Liang Professor of Electrical Engineering and Computer Science and director of the Nanofabrication Lab at Materials Research Institute, the team created silicon-free "vapor cells" using semiconductor-style fabrication, producing smaller, more consistent atomic sensors at scale while eliminating the material interference issues that limit traditional designs. The cells remained stable over nearly three years of testing and can measure high-frequency signals used in advanced communications and radar systems. Partner with Penn State to advance research that powers the next generation of sensing and communications technology: https://lnkd.in/eNbCkcgq Hunter Shillingburg, Guy Lavallee, @Miao Liu, Chad Eichfeld, Vladimir Aksyuk, Alexandra Artusio-Glimpse, Adil Meraki, Nikunjkumar Prajapati, Matt T. Simons, @Glenn Holland, @Christopher Holloway, Penn State College of Engineering, J. Jeffrey and Ann Marie Fox Graduate School at Penn State https://lnkd.in/e_kV-Mea
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This isn't what I usually build these days, but it's cool to know we managed to cook something in the analog electronics space and get it published in IEEE. Our research paper, "AI-Assisted Design and Implementation of an Analog EEG Sensor Using a Shared CMOS Operational Amplifier Core," has been published in IEEE Xplore after being presented at the 6th International Conference on Intelligent Technologies. If you're into analog design, AI, or just curious about what we worked on, check it out—I’d love to hear what you think. Big thanks to my co-author, Rohil S for making this possible. Definitely not the space I spend most of my time in anymore, but it's nice to have a published IEEE paper to look back on. On to the next challenge. P.S. I'm making a conscious effort to keep LinkedIn a little more human. Not every post has to sound like it was written by PR bot. Paper : https://lnkd.in/d9w4bvPy #IEEE #Research #EEG #CMOS #AnalogDesign #CONIT2026
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Purdue ECE researchers are taking quantum engineering beyond controlling how atoms emit light. A team led by Zubin Jacob and Dan Jiao has shown that specially designed surfaces can also shape the electromagnetic “noise” that disrupts quantum information — opening new possibilities for future quantum devices. Details: https://bit.ly/jacob-jiao
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I’m pleased to share our new paper, published in Optical and Quantum Electronics: “Optimization of titanium nitride thermo-optic phase shifter for O-band applications using silicon nitride waveguides” This paper presents the work of my Msc student, Aviv Frishman, at HIT – Holon Institute of Technology, carried out as part of his graduate research. In this work, we investigate a TiN-based thermo-optic phase shifter integrated with a silicon nitride (Si₃N₄) waveguide for O-band photonic applications. The results show a good balance between energy efficiency, good response time, and low optical loss, with simulation and measurement results showing good agreement. I’m very happy to see Aviv research at HIT reach publication. Congratulations, Aviv! 📄 Read the paper: https://lnkd.in/eCC_tWgK #Photonics #IntegratedPhotonics #SiliconNitride #OpticalCommunications #ThermoOptics #OpticalInterconnects #MScResearch #HIT
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You're looking through a window into the nanoscale. This ultrahigh-vacuum chamber creates an environment with almost no air. Inside, a variable-temperature atomic force microscope allows researchers to study materials at the nanoscale under carefully controlled conditions. By minimizing interference from the surrounding environment, scientists can observe material behavior with extraordinary precision, advancing research in electronics, energy technologies, and quantum materials.
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The U.S. National Science Foundation (NSF) has awarded UC San Diego researchers a six-year $18M grant to fund a Materials Research Science and Engineering Center (MRSEC) focused on making new kinds of quantum materials. Quantum materials show promise for a broad range of national priorities including low-power computing, data encryption, secure communications, medical diagnostics, sensors, stealth materials and high-performance electronics. 🗞️ Read more: https://bit.ly/4qnZInD
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𝗖𝗮𝗹𝗹 𝗳𝗼𝗿 𝗣𝗮𝗽𝗲𝗿𝘀 | 𝗢𝗠𝗘𝗜𝗘 𝟮𝟬𝟮𝟲 The 2nd International Conference on Optoelectronic Materials and Electronic Information Engineering (OMEIE 2026) will be held in Nanchang, China, from October 9–11, 2026. 🔗 Conference Website: https://ais.cn/u/qqQnmm OMEIE 2026 brings together researchers, engineers and experts to discuss the latest research, technological innovation and development trends in optoelectronic materials and electronic information engineering. 🔬 Topics include: • Electronic & Optoelectronic Materials • Optoelectronic Materials & Devices • Photoelectric Detection & Imaging • Optical Fiber Sensing • Quantum Imaging • Semiconductor Materials & Devices • Integrated Circuit Sensors • Cloud Computing & Image Processing • Network Security • Embedded Development & Applications 📖 Publication All papers, both invited and contributed, will be reviewed by two or three experts from the committees. After a careful reviewing process, all accepted papers of OMEIE 2026 will be published in the SPIE - The International Society for Optical Engineering (ISSN: 0277-786X), which will be archived in the SPIE Digital Library, and indexed by EI Compendex and Scopus. 📅 Registration Deadline: September 24, 2026 📅 Final Paper Submission: September 9, 2026 📢 If your research focuses on optoelectronic materials, electronic information engineering, photonic sensing, semiconductor technology, or related areas, OMEIE 2026 welcomes your latest work. 🔗 Learn more & submit your paper: https://ais.cn/u/qqQnmm #OMEIE2026 #Optoelectronics #ElectronicMaterials #Semiconductor #Photonics #ElectronicEngineering #OpticalSensing #AI #CloudComputing #EICompendex #Scopus #CallForPapers
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New research enables storage, delay, and control of light within a single photonic chip ... SNU–University of Seoul Joint Research Team Develops Programmable Photonic Integrated Circuit That Slows Light on Demand ... https://lnkd.in/eSbtdEZD Seoul National University, Namkyoo Park, Sunkyu Yu, Xianji Piao
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Iontronics Editorial Board Highlights — Late July 2026 We are thrilled to share the latest achievements from our Editorial Board members: 🔹 Prof. Zhao Weiwei (Nanjing University) published a groundbreaking study in National Science Review demonstrating in-sensor AI computing using a single organic photoelectrochemical synaptic transistor (OPECT) for multi-target biosensing — a major advance at the intersection of iontronics and edge AI. 🔹 Prof. Mai Liqiang (Wuhan University of Technology) co-authored a National Science Review paper on BattFailScholar, a knowledge-enhanced LLM framework for battery failure diagnosis, improving accuracy by 19.7%. 🔹 Prof. Kourosh Kalantar Zadeh (University of Sydney) was elected 2026 IEEE Fellow for his contributions to sensors and electronic devices. 🔹 Prof. Jun Chen (UCLA) was named 2026 AIMBE Fellow and published a Nature Biomedical Engineering paper on a wearable non-invasive sonogenetic pacemaker. 🔹 Prof. Richard N. Zare (Stanford) visited Beijing at the invitation of Prof. Di Wei and published an editorial in Iontronics on interfacial chemistry as a foundation for future iontronics. Congratulations to all! 🎉 #Iontronics #EditorialBoard #Biosensing #IEEE #AIMBE #Nature #NSR
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Finnish researchers have successfully fabricated a two-dimensional topological crystalline insulator by growing a bilayer of tin telluride on niobium diselenide. This advance resulted in conducting edge states within a sizable band gap exceeding 0.2 eV, stable even at room temperature. The significance lies in the ability to tune the material’s electronic properties through substrate-induced strain, providing a controllable parameter for device optimization. Quantum mechanical calculations support these findings, highlighting the material’s potential in strain-tunable quantum technologies, particularly in spintronics and nanoscale electronics. Moving forward, the main focus for both industry and research communities will be to verify device performance under practical operating conditions. This is a critical step toward the integration of room-temperature quantum devices into next-generation applications, opening new pathways for quantum-enabled electronics. More details here: [link] https://lnkd.in/en-FqvQc
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