An interdisciplinary foundation in materials science, microfluidics and surgical practice. Born from research at the University of Cambridge.
ArtioSense’s research connects advanced manufacturing with the challenge of force sensing across curved surfaces. The three foundational publications follow the progression from microfluidic fabrication to conformable sensing and model-joint calibration.
These papers describe scientific and laboratory results. They do not establish patient benefit or regulatory approval.
Materials & Design / 219, 110747
Additively manufactured microfluidic force sensors, design optimisation and calibration in a 3D-printed model hip implant. Laboratory research supporting the sensing approach, not evidence of patient benefit.
Read publicationDOI: 10.1016/j.matdes.2022.110747
Cell Reports Physical Science / 2(4), 100386
A flexible force sensor combining microfluidics and capacitive sensing, fabricated using aerosol-jet printing. The study explores tunable sensitivity and force range.
Read publicationDOI: 10.1016/j.xcrp.2021.100386
Applied Materials Today / 19, 100618
Aerosol-jet-printed moulds for customised microfluidic geometries and spatially controlled channel functionalisation. Fabrication-platform research underpinning subsequent sensor development.
Read publicationDOI: 10.1016/j.apmt.2020.100618
Award for Innovation at the Science and Technology Awards.
Product Development Award announced September 2024.
Lee Lucas Award for ArtioSense’s force-sensing technology.
Venture Prize awarded to ArtioSense.
Professor Sohini Kar-Narayan’s 2024 Royal Academy of Engineering fellowship is an individual distinction. Company awards and founder achievements are attributed separately.
Connect with ArtioSense about academic research, clinical insight or technology development.
