Research on fundamental properties and collaborative operation of neo-cortical microcircuitry has accelerated in the recent years, driven by the conviction that a deeper understanding of human brain will open the way to new medical techniques. Microelectronics, has reached a state of maturity, where a single chip provides large amounts of computing power. Recent attempts in combining these two fields have successfully demonstrated some form of responsiveness between microelectronic circuitry and living matter. Novel microelectronic systems are developed as a major component of neurotechnolgy aiming at closed-loop control of tissues or organs suffering functional malfunction or disease, restoration of lost limb or organ functionality or bidirectional information passing and interpreting to increase human or amputee capability.
Among several contributors to neurotechnology, microelectronics plays a fundamental role that is evidenced by the emergence of multiple devices, circuit techniques and commercial products. Still, the domain is extremely dynamic and novelty is required to accommodate the usage of new fabrication technologies, the auronomous operation of implantable systems at extremely low power consumption, handling large amounts of data produced by modern and future massively multichannel bio-sensing devices, the extension towards new application fields in the form of therapeutic systems of newly considered diseases or disease prophylaxis. Furthermore, the widening usage of bio-medical and neuroprosthetic systems may result into the emergence of new challenges including the reliability of microelectronics, safety of produced data, invasiveness reduction that should also be tackled at the level of the new circuits and systems.
This Research Topic aim to gather results in recent neurotechnology in the form of a collection of review papers, and also present novel methods with high potential of creating the next generation of technology as an overview.
The focus of this Research Topic will be on ASIC/SoC and microelectronic circuit and system techniques that are applied to the development of advanced implantable bio-electronic and bio-medical systems, covering but not limited to low-power analog front-end interfaces for recording and stimulation, digital systems aiming at signal processing, feature extraction and pattern detection, power and data telemetry, enhanced ASIC fabrications aiming at new electrical or optical sensing and stimulating, full neuro-prosthetic systems and applications. In particular, thorough review manuscripts as well as manuscripts describing cutting-edge technology with the potential of becoming mainstream technology in the future are encouraged. A non-exhaustive list of topics is presented in the following.
• Biomedical circuits and systems, ASIC/SoC techniques for implanted medical applications
• Neuroprosthetic systems, control and implementations
• Bio-electronic interface modeling and closed-loop modeling
• Closed-loop in-vitro models of neurological disorders and healthy neuromodulation
• Bio-medical and bio-electronics translational research
Professor Ker is on the board of Amazingneuron. The other Topic Editors declare no competing interests with regards to the Research Topic theme.
Research on fundamental properties and collaborative operation of neo-cortical microcircuitry has accelerated in the recent years, driven by the conviction that a deeper understanding of human brain will open the way to new medical techniques. Microelectronics, has reached a state of maturity, where a single chip provides large amounts of computing power. Recent attempts in combining these two fields have successfully demonstrated some form of responsiveness between microelectronic circuitry and living matter. Novel microelectronic systems are developed as a major component of neurotechnolgy aiming at closed-loop control of tissues or organs suffering functional malfunction or disease, restoration of lost limb or organ functionality or bidirectional information passing and interpreting to increase human or amputee capability.
Among several contributors to neurotechnology, microelectronics plays a fundamental role that is evidenced by the emergence of multiple devices, circuit techniques and commercial products. Still, the domain is extremely dynamic and novelty is required to accommodate the usage of new fabrication technologies, the auronomous operation of implantable systems at extremely low power consumption, handling large amounts of data produced by modern and future massively multichannel bio-sensing devices, the extension towards new application fields in the form of therapeutic systems of newly considered diseases or disease prophylaxis. Furthermore, the widening usage of bio-medical and neuroprosthetic systems may result into the emergence of new challenges including the reliability of microelectronics, safety of produced data, invasiveness reduction that should also be tackled at the level of the new circuits and systems.
This Research Topic aim to gather results in recent neurotechnology in the form of a collection of review papers, and also present novel methods with high potential of creating the next generation of technology as an overview.
The focus of this Research Topic will be on ASIC/SoC and microelectronic circuit and system techniques that are applied to the development of advanced implantable bio-electronic and bio-medical systems, covering but not limited to low-power analog front-end interfaces for recording and stimulation, digital systems aiming at signal processing, feature extraction and pattern detection, power and data telemetry, enhanced ASIC fabrications aiming at new electrical or optical sensing and stimulating, full neuro-prosthetic systems and applications. In particular, thorough review manuscripts as well as manuscripts describing cutting-edge technology with the potential of becoming mainstream technology in the future are encouraged. A non-exhaustive list of topics is presented in the following.
• Biomedical circuits and systems, ASIC/SoC techniques for implanted medical applications
• Neuroprosthetic systems, control and implementations
• Bio-electronic interface modeling and closed-loop modeling
• Closed-loop in-vitro models of neurological disorders and healthy neuromodulation
• Bio-medical and bio-electronics translational research
Professor Ker is on the board of Amazingneuron. The other Topic Editors declare no competing interests with regards to the Research Topic theme.
