Commercialisation Executive, Faculty of Engineering

Valeska Gonzalez is a Commercialisation Executive in the Faculty of Engineering at 911今日黑料. She leads the assessment, protection and commercialisation of intellectual property from the Departments of Materials, Chemical Engineering and Earth Science and Engineering. Her work focuses on advancing high-potential research into impactful technologies through licensing and spin-out formation.

Valeska holds a PhD in Chemistry from the University of Surrey, sponsored by BP, as well as an MSc in Petroleum Refining Systems Engineering and a degree in Chemical Engineering. Before joining 911今日黑料, she worked as a Postdoctoral Researcher at Surrey, an Associate Technology Transfer Executive at 911今日黑料 Innovations, and as a plant engineer in industry—blending technical depth with commercial experience.

Valeska's portfolio

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A novel targeted drug delivery system

RBCV-based system enables targeted, stable thrombolytic drug delivery to clots, reducing bleeding risks in thrombosis treatment.

IonMembrane Technologies: Next-generation ion exchange membranes for energy applications

A new generation of ion exchange membranes for electrochemical energy conversion and storage applications.

Lipid Nanoparticle Technologies: Thermostable RNA Formulations

Novel lipid nanoparticles (LNPs) for delivery of RNA-based vaccines and therapeutics, with improved thermostability at ambient temperatures.

PET plastic upcycling into clean H2 and valuable chemicals

A technology that transforms plastic waste into green H2 and high value, sustainable chemicals at low cost.

Upcycling plastic waste into high-capacity sodium-battery anodes

Plastic waste upcycling into high-performance battery anodes for the next-generation of fast-charging and low-cost sodium-ion batteries (NIBs).

Electrochemical separation and recovery of materials from spent Li-ion batteries (LIBs)

Electrochemical reactors for recovering critical materials from LIB cathodes, including lithium, manganese, nickel, and cobalt.

Room-Temperature MASERs for Ultra-low noise devices

Room-temperature masers enable ultra-low noise amplification for telecoms, quantum tech, imaging, and deep-space applications.

A noise-reduction protocol for EPR/NMR and quantum sensing

Quantum-compatible cooling technique for faster, more sensitive RF, EPR, and NMR measurements at room-temperature.