My research interests involve development of biocompatible, biodegradable biosensors for reliable long-term continuous metabolite monitoring, and dealing with the interaction of different bacteria and proteins at materials surface. My research experience involve development of smart microfluidic chips with incorporated smart sensors, wearable and implantable smart sensors for continuous monitoring of biologically relevant analytes incorporating in one platform of solid contact ion sensors (H , Na , K , Pb2 , Cl-, Ca2 ) and biosensors such as glucose, lactate, oxygen. My current focus is on development of miniaturised, wearable and implantable electrochemical and optical sensors for the diagnosis of surgical site infection, smart catheter platform for detection of infected urine and development of new types of smart materials with incorporated actuation and sensing capabilities using 3D printing with 2 photon polymerization (direct laser writing).
Gil B, Anastasova S, Yang G-Z, 2021, Low-powered implantable devices activated by ultrasonic energy transfer for physiological monitoring in soft tissue via functionalized electrochemical electrodes., Biosens Bioelectron, Vol:182
et al., 2021, Developing a multimodal biosensor for remote physiological monitoring., Bmj Mil Health
et al., 2020, Electrochemical monitoring of subcutaneous tissue pO2 fluctuations during exercise using a semi‐implantable needle electrode, Electroanalysis, Vol:32, ISSN:1040-0397, Pages:2393-2403
et al., 2020, Towards wearable and flexible sensors and circuits integration for stress monitoring, Ieee Journal of Biomedical and Health Informatics, Vol:24, ISSN:2168-2194, Pages:2208-2215
et al., 2020, Smart sensing for surgery from tethered devices to wearables and implantables, Ieee Systems Man and Cybernetics Magazine, Vol:6, ISSN:2333-942X, Pages:39-48