Bio-digital convergence We are not far off the time when cyborg cockroaches fitted with video cameras could be first responders sent to locate survivors trapped under the rubble of collapsed buildings. Researchers are already able to mount microchips and sensors onto cockroaches and other insects to control their motion by remote control. Cyborg cockroaches are a good example of the convergence of two domains that traditionally are thought of as separate: biology and digital technology. This is called bio-digital convergence. Bio-digital convergence is a vast, multidisciplinary field, covering everything from biomaterials to human augmentation. IEC has recently set up SyC BDC, a Systems level standardization Committee intended to facilitate outreach and influence the work on bio-digital convergence developed by the international standardization organizations and industry consortia, and thus facilitate the advancement and coordination of bio-digital convergence standardization. It will also identify and assess potential new forthcoming bio-digital convergence topics and problematics that may become relevant to standardization activities and recommend the appropriate course of actions to meet the needs of the global community. IEP - Instituto Electrotécnico Português Instituto Português da Qualidade - IPQ +info: https://lnkd.in/dyY9CgJe #standardization #BioDigitalConvergence #BDC
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Two years ago, I had the privilege of publishing a paper titled "Pulse-Based, Multi-Beam Optical Link for Data Telemetry to Implantable Biomedical Microsystems" presented at the 2022 20th IEEE Interregional NEWCAS Conference (NEWCAS). Today, I am thrilled to see that this work is gaining recognition for its innovative approach and significant potential! Our paper reports on a multi-channel, high-rate optical transcutaneous link for data telemetry to implantable microsystems. The proposed optical data telemetry link employs four optical transmitter-receiver pairs operating in parallel at 405, 655, 850, and 940 nm making it able to transmit four independent data streams. A proof-of-concept prototype is developed using a laser diode, three light emitting diodes and four photodiodes with minimally-overlapping spectral responsivities. The prototype also includes driver circuits for optical transmitters as well as receiver circuits, implemented using off-the-shelf components. According to experimental results with real tissues as the transmission medium, the proposed link allows for achieving data rates up to a total of 130 Mbps with a bit error rate (BER) of better than 10⁻⁶. This work, co-authored with my supervisors Yarallah Koolivand and Amir M. Sodagar, represents a significant step forward in the field of implantable biomedical systems. The recent surge of interest we have received highlights the impact and future possibilities of this research. If you haven't had a chance to read the paper yet, you can find it below. #IEEENEWCAS #WirelessLink #OpticalCommunication #TranscutaneousDataTelemetry #ImplantableMicrosystems
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#Review Carbon Nanotube (CNT)-Based Biosensors by David C. Ferrier and Kevin C. Honeychurch https://lnkd.in/ePRkGPxF MDPI University of the West of England #CNTbasedbiosensors #bioanalyticalapplications #surfacefunctionalization #electrochemicalbiosensing #analyticalnanodevices #openaccess #Abstract This review focuses on recent advances in the application of carbon nanotubes (CNTs) for the development of sensors and biosensors. The paper discusses various configurations of these devices, including their integration in analytical devices. Carbon nanotube-based sensors have been developed for a broad range of applications including electrochemical sensors for food safety, optical sensors for heavy metal detection, and field-effect devices for virus detection. However, as yet there are only a few examples of carbon nanotube-based sensors that have reached the marketplace. Challenges still hamper the real-world application of carbon nanotube-based sensors, primarily, the integration of carbon nanotube sensing elements into analytical devices and fabrication on an industrial scale.
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🚀 FluIDect at the Dresden Sensor Symposium 2024! 🚀 We are thrilled to announce that FluIDect will be presenting a groundbreaking talk at the 17th Dresden Sensor Symposium. 📅 🎤 Presentation Title: Freely Moving Microparticles as Online Biosensors Our experts: 🔹 Dr.-Ing. Tobias Schröter 🔹 Dr. Michael Himmelhaus 🔹 Dr. habil. Lorena Tuchscherr de Hauschopp 💡 About the talk: We will introduce a novel biosensor technology using freely moving, biofunctionalized microparticles (µBeads) to detect biological targets in real-time. Unlike traditional surface-bound biosensors, our µBeads move freely through the sample, significantly increasing the chances of capturing target molecules while minimizing non-specific interactions. Through optical detection using fluorescence resonator signatures (FRS), we can rapidly analyze thousands of µBeads, even in complex media like milk or molasses—no sample preparation needed! This innovation opens up new possibilities for precise, fast, and scalable biosensing under industrial conditions. 🌐🔬 📍 When & Where: DECHEMA DSS 17 | December 9-11, 2024 | Dresden, Germany Join us for insights into the future of biosensing technology! #FluIDect #Biosensors #Microparticles #Innovation #Sensors #Dresden2024 #LifeSciences #RealTimeMonitoring
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🏅Congratulations to our colleague Tom Enderlein for receiving the Best Paper Award at the Smart Systems Integration conference (SSI), which took place in Hamburg last week! The scientist working for Fraunhofer ENAS and the Center for Microtechnologies (Zentrum für Mikrotechnologien, ZfM) at the Chemnitz University of Technology developed a procedure to manufacture ultra-thin polymer needles that can painlessly access the fluid located between human cells which features biological markers indicative of one’s health status. Using an ultrashort pulse laser to create a wafer-based glass imprint master whose structure is then transferred onto a 140-micrometer thin polymer material, he developed a new procedure allowing these hollow polymer based micro needles to be manufactured that are thinner than a human hair while still maintaining the robustness necessary to withstand contact with the epidermis. By enabling the high precision and cost-effective production of such polymer needles in large quantities, the technique relinquishes the need to draw blood in order to analyze molecular parameters such as glucose and lactose concentrations and represents a viable resource for future systems monitoring health. We congratulate our colleague for this achievement and are excited to see how this procedure might improve health monitoring and diagnosis in the future. If you would like to find out more about this approach of manufacturing ultrafine micro needles, please visit our website: https://lnkd.in/dBr7h_Aw or – in case you would like to delve deeper into the topic – check out the published paper: https://lnkd.in/dcM2Aa74. #SSI #SSI2024 #FraunhoferENAS #ZfM #Research #MicroNeedles #MicroNeedle #InnovationInHealthcare #HealthcareInnovation #Healthcare #HealthMonitoring
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I'm excited to share that my paper, "A Dual Mode All NMOS 7-T Temperature Sensor and Voltage Reference for Biomedical Applications," has been published at IEEE ISCAS 2024. This paper discusses a reusable and reconfigurable all-NMOS circuit, functioning both as a temperature sensor and a voltage reference as needed. The design addresses the critical need for multi-functional circuits in biomedical applications, optimizing chip area and power consumption by exploiting re-usability of circuits. This circuit operates efficiently across a wide temperature range, ensuring reliable performance for implants and wearable devices and the reconfigurable feature repurposes the circuit work function dually as a temperature sensor as well as a PVT robust voltage reference. Link to the paper: https://lnkd.in/dUnahz23 #research #publication #IEEE #Biomedical #Technology #Innovation #CMOS #TemperatureSensor #VoltageReference #ISCAS2024
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Enhancing my knowledge in sensor research! I recently attended the 'Fast-track Your Sensor Research' webinar hosted by Zurich Instruments on April 15th, 2024. The insightful session equipped me with the latest advancements and techniques in sensor technology. #SensorResearch #ZurichInstruments #Webinar"
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Build your #SPIEDCS agenda with relevant conferences and talks that highlight key technology areas identified by The #Microelectronics Commons. One of the key focus areas is commercial leap-ahead technologies, which include advances in the integration of technologies with #CMOS, advances in SOI wafer manufacturing and wafer bonding, #optoelectronics leap ahead, emergent material platforms, advances in the high-power wide bandgap devices ecosystem, and more. Read about these conferences and browse more microelectronics-related presentations in the program: https://lnkd.in/gVXe6iEs 🔹Next-Generation Spectroscopic Technologies XVI: Richard Crocombe, Luisa T.M. Profeta, Steve Barnett 🔹Energy Harvesting and Storage: Materials, Devices, and Applications XIV: Zunaid Omair, Naresh Das 🔹Quantum Information Science, Sensing, and Computation XVI: Michael Hayduk, Michael Fanto, Carlos Manuel Torres Jr., Ph.D. 🔹Infrared Technology and Applications L: Gabor Fulop, Michael MacDougal, David Ting, Masafumi Kimata 🔹Disruptive Technologies in Information Sciences VIII: Dr. Misty Blowers, Ramesh Bharadwaj, Bryant Wysocki, Gabriela Rossi
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[New funding opportunity alert] DASA and AWE seek novel technologies in the space domain to enhance the UK’s Defence and Commercial Space Systems resilience and reliability. The Defence and Security Accelerator (DASA) is pleased to launch a new Themed Competition called AWE – Advanced Electronics and Electromechanical Devices. DASA, in conjunction with AWE, is seeking innovative ideas to approach the following four challenge areas in novel ways. (1) Power and data transfer across closed metal barriers (2) Robust semi-conductor switching for high-voltage applications (3) Low delta-T thermo-electric generation (4) Low drift inertial sensors. The total possible funding available for Phase 1 of this competition is £4 million across two years (including VAT). A number of proposals may be funded. The deadline to submit a proposal is midday on Tuesday 10th of December 2024 (GMT) https://buff.ly/3Acob9v At Capti Innovation our mission is to make grant funding more accessible. Every year, we help hundreds of companies save time, win funding and accelerate growth by leveraging our extensive expertise in funding opportunities. Email Sophia for more information sophia.delatour@capti.co.uk #funding #investing #fintech #technology #sustainability #growth #cybersecurity #environment #food #automation #automotive #recycling #nutrition #medicine #robotics #farming #augmentedreality #neuroscience #grants #ukgrants #startupgrants #businessgrants #ukgovernmentgrant #sme #smegrant #businessfunding #smefunding #technologygrant #innovationgrant #capti #captiinnovation #gamechanging #gamechanginginnovation #disruptiveinnovation #smartgrant #ai #manufacturing #sustainable #innovation #telecoms #semiconductors #business #IUK #InnovateUK #SmartGrant #InnovateUKfunding #dasa #mod
AWE – Advanced Electronics and Electromechanical Devices
gov.uk
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[New funding opportunity alert] DASA and AWE seek novel technologies in the space domain to enhance the UK’s Defence and Commercial Space Systems resilience and reliability. The Defence and Security Accelerator (DASA) is pleased to launch a new Themed Competition called AWE – Advanced Electronics and Electromechanical Devices. DASA, in conjunction with AWE, is seeking innovative ideas to approach the following four challenge areas in novel ways. (1) Power and data transfer across closed metal barriers (2) Robust semi-conductor switching for high-voltage applications (3) Low delta-T thermo-electric generation (4) Low drift inertial sensors. The total possible funding available for Phase 1 of this competition is £4 million across two years (including VAT). A number of proposals may be funded. The deadline to submit a proposal is midday on Tuesday 10th of December 2024 (GMT) https://buff.ly/3Acob9v At Capti Innovation our mission is to make grant funding more accessible. Every year, we help hundreds of companies save time, win funding and accelerate growth by leveraging our extensive expertise in funding opportunities. Email Sophia for more information sophia.delatour@capti.co.uk #funding #investing #fintech #technology #sustainability #growth #cybersecurity #environment #food #automation #automotive #recycling #nutrition #medicine #robotics #farming #augmentedreality #neuroscience #grants #ukgrants #startupgrants #businessgrants #ukgovernmentgrant #sme #smegrant #businessfunding #smefunding #technologygrant #innovationgrant #capti #captiinnovation #gamechanging #gamechanginginnovation #disruptiveinnovation #smartgrant #ai #manufacturing #sustainable #innovation #telecoms #semiconductors #business #IUK #InnovateUK #SmartGrant #InnovateUKfunding #dasa #mod
AWE – Advanced Electronics and Electromechanical Devices
gov.uk
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In this paper, the authors propose and analyze a biocompatible modulation technique for #in-#vivo #Wireless #Nanosensor #Networks (#iWNSNs). A mathematical framework is formulated to optimize the parameters of an adaptive Time Spread #On-#Off #Keying (#OOK) pulse-based modulation. This optimization considers both the physics of the intra-body optical channel and the light-matter interactions, along with the resulting photo-thermal effects in biological tissues. The outcomes of the analytical optimization model are validated through extensive numerical simulations. The results highlight a trade-off between link efficiency and the biocompatibility of the transmitted signals. ---- Pedram Johari, Hadeel Elayan, Josep Miquel Jornet More details can be found at this link: https://lnkd.in/ev8HiVqE
BioComm: Biocompatible Physical Layer Design for Wireless Intra-body Communications
ieeexplore.ieee.org
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