Focus: Development of flexible, wearable sensing systems for real-time, continuous health and physiological monitoring.

Key Components:

• Screen-printed three-electrode sensors for biomarker detection in sweat.

• Electrolyte-gated FETs (EG-FETs) and organic electrochemical transistors (OECTs) for sweat-based biomarker sensing.

• Advanced surface functionalization and interface chemistry to enhance sensitivity, selectivity, and stability.

• Printed bioimpedance electrodes for impedance plethysmography and physiological signal monitoring.

• Seamless integration with wearable platforms, including microfluidics, iontophoresis-based sweat induction, and portable readout electronics for continuous on-body operation.

Applications: Health monitoring, sports performance optimization, personalized diagnostics, and real-time physiological research.

Focus: Development of scalable, low-cost, and sustainable sensors for precision agriculture, food quality, and environmental monitoring.

Key Components:

• Printed capacitive, resistive, and impedimetric sensors for detecting temperature, humidity, gases, ions, and strain in environmental and agri-food settings.
• Electrolyte-gated FETs (EG-FETs) for analyte detection in water and agri-food matrices.
• Printed bioimpedance electrodes and non-printed bioimpedance techniques (e.g., standard ECG setups) for monitoring plant and fruit health, including plant stress detection and fruit ripening assessment.
• Machine learning and data-driven approaches for analyzing sensor data and predicting crop health, food quality, and environmental conditions.
• Printed stretchable resistive strain gauge to continuously monitor apple fruit growth

Applications: Precision agriculture, crop and plant monitoring, food quality assessment, water quality monitoring, and environmental sensing

Focus: Development of biohybrid and neuromorphic devices integrating organic electronics with biology.

Key Components:

• Organic semiconductors, conjugated polymers, and bio-inspired materials.
• Devices for sensing and stimulation of bioelectric activity.
• Mixed ionic–electronic conductors for enhanced biomimetics.
• Materials interface modeling, device optimization, and signal analysis.

Applications: Biosensing, neuron-like devices, and advanced bioelectronic systems.

Focus: Development of low-temperature, flexible thin-film devices and integrated energy systems for multifunctional, sustainable electronics.

Key Components:

• Metal oxide thin-film transistors (TFTs) and circuits on flexible and sustainable substrates.
• Thin-film sensors and actuators fabricated via microfabrication and printing techniques.
• Mechanical, thermal, and electrical optimization for bendable, stretchable, and robust electronics.
• Integration with low-power embedded systems, wearable devices, and multifunctional platforms.

Applications: Flexible and wearable electronics, BEOL-compatible thin films, embedded sensing platforms, energy-harvesting devices, and multifunctional thin-film sensors.