Research
SenSys develops sensing technologies by connecting microsystems, functional materials, microfluidics, electronics, intelligent analytics, and application-driven engineering.
The objective is not simply to create new sensors, but to engineer integrated systems that can measure, interpret, and respond to complex biological, environmental, and physical information.
SenSys Research
Each thrust addresses a distinct scientific and engineering challenge while drawing from common strengths in materials, microfluidics, sensing, instrumentation, connectivity, and intelligent analysis.
Integrated microfluidic sensing platform01Microdevices · Microfluidics · Integrated sensing
Engineering miniaturized platforms that combine microfluidics, sensing interfaces, functional materials, electronics, embedded intelligence, and advanced fabrication into complete sensing systems.
Human-centred connected diagnostic architecture02Wearables · Implantables · Human-integrated technologies
Developing sensing, monitoring, and energy technologies that interface naturally with the human body through flexible, textile, wearable, implantable, and biocompatible systems.
Portable biosensing and intelligent diagnostic workflow03Point-of-care · Biosensors · Connected diagnostics
Creating integrated diagnostic platforms that combine electrochemical and optical sensing, microfluidics, embedded instrumentation, wireless connectivity, and intelligent data analysis.
Portable intelligent pesticide-analysis platform04Food · Water · Soil · Field sensing
Building field-ready sensing systems for food safety, pesticide monitoring, soil analysis, water quality, precision agriculture, and environmental decision-making.
Research Ecosystem
SenSys research spans the pathway from functional materials and sensing interfaces to integrated hardware, intelligent interpretation, and application-level translation.
01
Functional materials, nanostructures, polymers, carbon materials, flexible substrates, and biointerfaces.
02
Electrochemical, optical, biochemical, physical, wearable, and microfabricated sensing interfaces.
03
Sample handling, mixing, reaction control, incubation, culture, fluid transport, and lab-on-chip integration.
04
Signal conditioning, portable readout, embedded electronics, thermal management, connectivity, and control.
05
Signal processing, machine learning, chemometrics, classification, compensation, and data-driven interpretation.
06
Real-sample validation, field deployment, manufacturability, scale-up, usability, and application-driven design.
Research Foundations
These programmes demonstrate how materials, sensing, microfluidics, instrumentation, intelligent analysis, and real-world validation can be integrated into complete systems.
Connected Research
SenSys research areas are intentionally interconnected. A microfluidic platform may rely simultaneously on functional materials, embedded electronics, data science, flexible fabrication, and application-specific validation.
Microfluidics and embedded sensing enable compact sample-to-answer diagnostic systems.
Flexible and functional materials enable wearable, textile, implantable, and conformable sensing architectures.
AI, signal processing, and chemometrics transform raw sensor outputs into actionable information.
Miniaturized platforms bring chemical and biological analysis closer to farms, water systems, food chains, and field environments.
Research Pathway
Projects can begin at different points in the pipeline, but the longer-term objective is to connect fundamental engineering with experimentally validated technologies and practical deployment.
Define the biological, physical, environmental, or analytical challenge.
Engineer materials and recognition interfaces for selective sensing.
Build the sensor, microfluidic architecture, or integrated microsystem.
Integrate electronics, fluid handling, control, and portable instrumentation.
Transform raw measurements into reliable and interpretable information.
Validate, translate, scale, and test the technology in its intended environment.
Research Vision
The long-term direction is toward sensing platforms that are increasingly autonomous, multimodal, connected, wearable, implantable, environmentally aware, and capable of operating outside centralized laboratories.
Explore publications →Join SenSys
SenSys brings together researchers working across materials, microfluidics, electronics, biosensing, data science, diagnostics, environmental monitoring, and technology translation.
