• Research by the low-power medical electronics group at IMSE spans several fields, ranging from micro-electrode arrays and integrated sensing / read-out circuitry for detection and recording of neuronal signals, to the design and silicon realization of wearable electronic devices, as well as to the design of efficient wireless interfaces to intelligent medical devices (IMD). The common denominator in many of these research activities is the need to achieve high precision, low-noise analog readout with very low power dissipation, in order to enable solutions where the entire system is powered through limited battery capacity and/or scavenged power, exclusively. In parallel to this, the design of very small and low-cost sensors and the corresponding read-out electronics is needed for diagnostic purposes, in next generation bio-medical systems.
  • The different research and innovation activities developed in this area include:
  •   Definition of enabling technologies for the integration and miniaturization of biomimetic systems, which can be used for building neurocortical implants suitable for scientific (to allow new advances in neuroscience), clinical (to provide neuroprosthesis for the treatment of neurological diseases), and translational application (to pave the way for brain-machine interfaces) issues.
      Development of novel neurological data processing algorithms, including data compression, artifact suppression and seizure prediction processors, suitable for closed-loop therapeutic systems for refractory epilepsy and movement disorder diseases.
      Implementation of wireless sensor nodes (WSN) to quantify the impairments of the neuromuscular function and movement observed in Parkinson disease patients including means of surface electromyography (EMG) or kinematic measurements.
      Fabrication of passive radio-frequency identification (RFID) biomedical sensor tags, including mechanisms for remotely powering the device upon the reception of radiated signal, suitable for the acquisition and conditioning of biomedical signals such as body temperature, blood glucose level or ECG information.
      Design of standard-compliant transceivers for wireless body area network (WBAN) applications, including novel architectures and circuit techniques for phase domain modulation.
Last update:
June 15, 2012