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Technology Update
The latest technology to license from Oxford
In this edition we feature an inkjet printing method using polymer-dispersed liquid crystals, a non-invasive treatment to quantify early brain injuries in patients, the latest testing solutions from Oxford startup VeriVin, and a novel polarisation-sensitive detector of terahertz waves.
Early warning systems for clinical deterioration
An attention-based early warning score to identify in-hospital clinical deterioration using routinely collected data in electronic medical records.
Printing technology for glass substrates
A method that uses inkjet printing technology to create designs and motifs using polymer dispersed liquid crystals.
Diagnostic biomarker for traumatic brain injuries
Using inorganic nitrites as a marker to measure early brain injuries caused by a stroke.
Acoustic waveguides for therapeutic ultrasound
An alternative array of acoustic waveguides to modify the phase and amplitude of transmitted sound.
Nanoparticle polymers provide targeted drug delivery
Nanoparticle bound thermo-responsive polymers enable a controlled delivery of chemotherapy drugs for effective cancer treatment.
Smart testing for wine, spirits, pharmaceutical,
and biomedical applications
Platform technology company, VeriVin, offers a rapid, easy, and reliable way to test complex liquids like wine, spirits, olive oil, and pharmaceuticals without breaking
the container’s seal.
The SLA001 device (pictured above) uses a light scattering effect to record, measure,
and create an “optical fingerprint” of the initial substance. A unique VinPrint is created
and used to track and authenticate individual bottles.
VeriVin offers a range of effective and non-destructive testing solutions across the food, beverage, and healthcare industry.
Challenges in big data
An automated management platform provides curation of clinical datasets to support real-world data studies.
On-chip biomedical imaging systems
A novel polarisation-sensitive detector of terahertz waves, ideal for use in time-domain spectroscopy systems.
Developing stress-resistant crops that give stable yields under stress conditions
A new biochemical pathway that could help control plastid transitions during fruit
ripening and leaf senescence.
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