Licensing opportunities

Cambridge Enterprise works in collaboration with University of Cambridge researchers to market and license technologies ranging from the biosciences to engineering.

Licensing Cambridge innovation

Cambridge Enterprise has completed close to 900 technology transfer transactions. We welcome contact from companies interested in licensing technologies from the University of Cambridge, and work with companies on an individual basis to identify specific areas of interest.

  • Viral CD30 for treating inflammatory disease

    Reference number: Alc-543-02

    Life sciences | Contact us about this technology

    A viral CD30 polypeptide that may be used to treat inflammatory diseases for example autoimmune diseases, rheumatoid arthritis, systemic lupus erythematosus or multiple sclerosis. Viral CD30 works in the same way as human CD30 antibodies to neutralise interactions between CD30 ligand and its receptor but may have additional effects to CD30 antibodies by inducing signalling in cells expressing CD30 ligand.

  • Database of contemporary spoken English

    Reference number: Nol-2585-11

    Physical sciences | Contact us about this technology

    Recordings of speakers with ‘Standard Southern British English’ pronunciation have been collected and transcribed orthographically by researchers in the Department of Theoretical and Applied Linguistics at the University of Cambridge.

    The database was recorded with forensic phonetic research in mind, but serves very generally as an extensive source of contemporary spoken English. It comprises studio quality recordings of 100 male speakers aged 18-25 performing four tasks involving different speaking styles: taking part in a simulated police interview, making a telephone call with an “accomplice” (recorded simultaneously and over the public telephone network), reading a passage, and reading a set of sentences.

    Compared to alternative databases of comparable size, this database provides, for a tightly homogeneous population of speakers, a spectrum of speaking styles with a substantial number of words and phrases (elicited by design) in common. It is expected to be of interest to companies involved in a variety of speech technologies, and is available to license from the Economic and Social Data Service.

  • Supramolecular Microcapsules

    Reference number: Sch-2560-11

    Physical sciences | Contact us about this technology

    The next generation of "smart" materials will require molecular self-assembly to achieve the high degrees of functionality and complexity that are required for a wide range of applications such as heat absorbers, self-healing paints, optical sensors and drug delivery mechanisms.

    Professor Chris Abell and Dr. Oren Scherman have developed a new technique for manufacturing such functional materials in large volumes, using supramolecular, stimuli-responsive polymers. Aqueous microfluidic droplets dispersed in oil are used as templates for building discrete supramolecular assemblies. These assemblies form highly uniform microcapsule structures, the shells of which can be tailored to enable and monitor, passive or active release of encapsulated contents to meet a range of market needs.

  • High dielectric constant cubic amorphous hafnium oxide

    Reference number: Fle-2401-10

    Physical sciences | Download more information | Contact us about this technology

    A novel form of thin film amorphous hafnium oxide (HfOx), providing exceptionally high dielectric constant and electrical resistivity, as well as low optical scatter and high refractive index, has recently been developed by researchers at the University of Cambridge. Produced by a room-temperature, high deposition-rate process, the desirable electrical and optical properties of this new amorphous material, opens up exciting possibilities for next generation electronic and optoelectronic devices. Particularly suitability for transparent, flexible and plastic electronics, the deposition process is also compatible with CMOS and large-area electronics and paves the way for further component miniaturisation and advances in nano-electronics.

  • Reproducible, reusable, self-calibrating SERS substrate for single-molecule recognition

    Reference number: Sch-2562-11

    Physical sciences | Contact us about this technology

    Surface Enhanced Raman Spectroscopy (SERS) is an ultra-sensitive, non-destructive spectroscopic technique that enables characterisation and identification of molecules for a wide variety of potential applications including environmental sensing, forensic analysis and medical diagnosis. It potentially replaces fluorescence techniques due to its photon yield, lack of bleaching and label-free molecular signatures.

    Wide adoption of SERS-based techniques remains, however, limited by lack of reproducibility and reusability of the SERS substrates. Recently, scientists at Cambridge University developed a novel approach, based on cucurbiturils, that has the potential to dramatically improve the usability of SERS-based techniques.

    By accurately controlling the gaps between aggregates of metal nanoparticles using cucurbilturils as rigid sub-nanometre ‘cages’, analyte molecules can be held in the intense electric field regions between the nanoparticles providing the possibility of reliable, highly sensitive, molecular recognition based on SERS. Not only does this technique open up the possibility of using SERS to identify single molecules that have no affinity for metal surfaces, it is also potentially self-calibrating due to the Raman-activity of the cucurbituril spacer molecules themselves and reusable due to the triggered release of analyte molecules from the cucurbilturil ‘cages’ by chemical, photo-initiation or thermal means.

  • Cryoprotection of Mammalian cells

    Reference number: Sla-2322-09

    Life sciences | Contact us about this technology

    Novel technology that uses a polymer to get molecules into cells. This can be applied to small molecules, RNAi and proteins. The initial application is the preservation and storage of viable mammalian cells, especially in the cryopreservation of red blood cells and in cell banking with particular emphasis on stem cell.

  • KidzEyez: a visual perimeter system for young children

    Reference number: All-2278-09

    Life sciences | Download more information | Contact us about this technology

    Early diagnosis of brain tumours in children relies on accurate assessment of their visual field. However, current visual perimeters (visual field analysers) are impossible to use in young children. KidzEyez is a child-friendly perimeter system that can aid in the early diagnosis of tumours. KidzEyez also allows the clinician to accurately monitor and record tumour progression, helping them preserve sight and life.

  • Method to prepare nanoporous materials

    Reference number: Siv-2445-10

    Physical sciences | Contact us about this technology

    Nanoporous materials have many applications including the formation of high surface area electrodes that increase the efficiency of fuel cells, photovoltaics, OLED devices and membrane separation technologies, such as desalination. The main advantage of these materials is that they can be bicontinuous, which means that the porous portions of the material are completely accessible. Currently it is difficult to create such a structure in a controlled manner, as this requires controlled chemistry and long processing times. This novel invention is a robust method of creating nanoporous materials from copolymeric systems. Through the application of the UV radiation. cross-linking and photodegradation convert an initially spherical, micellar system into a bicontinuous matrix of polymer and voids. The resulting template can be used as-is or can, with further, simple chemical transformations, be converted into inorganic nanoporous materials that have other exotic functionalities such as water splitting, tunable magnetoelectric properties, and high surface area electrodes.

  • Selective Scent for Electronic Devices

    Reference number: Dav-2499-10

    Physical sciences | Download more information | Contact us about this technology

    A novel technique of creating electronically controlled scent delivery has been developed. The technique, which is based on small, low-cost, disposable scent cartridges, could be incorporated into a wide range of products, such as mobile telephones, games consoles, a scent clock and fashion accessories. The technology enables the selective delivery of a combination of multiple scents and, importantly, the capability of switching off the scent delivery. A solid scent storage medium is used which is inherently compatible with use in electronic equipment.

  • High Density Carbon Nanotube Arrays

    Reference number: Rob-2400-10

    Physical sciences | Download more information | Contact us about this technology

    A method for forming small catalytic nanoparticles at high densities over a substrate to serve as nuclei for the growth of carbon nanotubes (or CNTs). The inventors have experimentally grown CNTs with densities of 5•1012 cm-12 (five times greater than the closest rival technology), and expect that arrays of CNTs with densities of 1013 cm-2 or higher can be grown using this method.

  • Multi-level Phase Device

    Reference number: Wil-2201-08

    Physical sciences | Download more information | Contact us about this technology

    This technology comprises a device geometry, based on the flexoelectric-optic effect in a chiral nematic liquid crystal, which is capable of linear multi-level phase modulation and frame rates in excess of several kHz. The multi-level phase modulation from these devices has potential for application in holographic projectors, optical correlators and adaptive optics. This technology offers the advantage over existing devices of having the combination of multi-phase modulation and frame rates in excess of several kHz. By employing flexoelectric devices one can now modulate the phase of light at frame rates well above those detected by the eye, thereby enabling improvement of image quality in holographic projectors as well as the implementation of real-time adaptive ophthalmic imaging for high resolution diagnosis of retinal disease.

  • Water-Cooled Transuranic Waste Incinerating Nuclear Reactor

    Reference number: Lin-2539-11

    Physical sciences | Download more information | Contact us about this technology

    Researchers in the Department of Engineering at the University of Cambridge have discovered a novel method of fuelling nuclear reactors which enables the virtual elimination of long lived highly radioactive waste. The fuel is a mixture of Thorium and existing waste, which is fed into either an existing Pressurised Water Reactor (PWR) or a new reactor built to the proven PWR or Reduced Moderation Water Reactor design. The reactor availability and the fuel reprocessing requirements are expected to be similar to that of existing operating reactors, with the significant benefit of removing highly radioactive material from the environment. This method also provides a way to exploit the planet's considerable Thorium resources using existing well-proven reactor technology.

  • Small Molecule Remediation

    Reference number: Sch-2100-07-1

    Physical sciences | Contact us about this technology

    Technology for remediating small molecules. The technology is based on capturing the small molecules within the cavity of a class of molecules known as cucurbiturils, specifically cucurbit[8]uril or (CB[8]). Molecules which may be remediated by cucurbit[8]uril include:

    household or pet odours

    carbon dioxide and other environmental gases

  • Recycling of Lead Battery Paste

    Reference number: Kum-1669-09

    Physical sciences | Download more information | Contact us about this technology

    A new process has been developed that has the potential to transform the lead battery recycling industry. The method uses organic reagents (derived from renewable bio-sources) to recycle the lead-bearing paste from waste batteries into a form which can be used directly as the lead oxide precursor for manufacturing new lead battery paste. This method has considerable benefits over the high temperature methods that are conventionally used to recycle lead battery paste into metallic lead.

  • SAFERamp – a new ampoule-opening and syringe-labelling device

    Reference number: Whe-2314-09

    Life sciences | Download more information | Contact us about this technology

    Over 10,000 injectable drug administration errors – including those caused by mislabelling of syringes – occur in the UK every year, causing patient harm and in some cases even death. SAFERamp is a novel device that quickly and safely opens a filled ampoule and automatically labels the syringe drawing up the drug. SAFERamp is an opportunity for ampoule manufacturers to add value to the traditionally high-volume but low-margin sealed ampoule market.

    SAFERamp benefits multiple users:

    PATIENTS - Fewer drug administration errors
    CLINICIANS - Fast, convenient drug preparation; No more glass cuts from broken ampoules and fewer needle injuries
    PHARMA - Brand differentiation; Drug life management
    HEALTH CARE PROVIDERS: Lower overall costs due to fewer consumables used (e.g needles), reduced sharps disposal costs and reduced costs associated with drug administration errors

  • ICM+ Software for Brain Monitoring in Neurological Intensive Care

    Reference number: Smi-833-03

    Software | Download more information | Contact us about this technology

    The ICM+ computer software programme provides a real time analysis of measurements obtained from subjects in clinical trials in an intensive care or neurosurgical environment.

    A non-exclusive licence with standard terms and conditions is available for the ICM+ software.

    To obtain a licence tailored to your needs:

    1) Complete the Licence Request Form and send to ls.admin@enterprise.cam.ac.uk

    2) We will then send you the quote for the licence (including the quote for consultancy work if requested)

    3) If you wish to proceed, we’ll draft the licence (and consultancy agreement if requested) based on our standard template and send to you.

    4) To proceed, print 2 copies of the licence agreement (and consultancy agreement if requested) and have both signed by an authorised official of your organisation (and by the Head of the Research Group in the case of the licence) and mail both original signed agreements to:

    LS Patent & Licence Administrator
    Cambridge Enterprise Ltd
    University of Cambridge
    Hauser Forum
    3 Charles Babbage Rd
    Cambridge
    CB3 0GT

    Both agreements will be signed and one original will be returned to you at the address on the agreement. You will then be invoiced and the ICM+ software will be made available to you to download (or ready for installation via consultancy if requested).

    5) Should you wish to continue to download new releases of updates to the software via the ICM+ website: http://www.neurosurg.cam.ac.uk/pages/ICM/ (with up to 1 day off site support services included over 2 years), then download the maintenance agreement and enter your company name, full registered address and VAT number on page 1 of the agreement and follow the instructions as per 4) above, providing your contact details (name, job title, email, telephone and fax number) for subsequent invoicing.

  • JBIG-KIT Software Library

    Reference number: Kuh-266-02

    Software | Contact us about this technology

    JBIG-KIT provides a portable library of compression and decompression functions, with a documented interface, that can be very easily included into image or document processing software. In addition, JBIG-KIT provides ready-to-use compression and decompression programs with a simple command line interface.

  • Liquid Crystal Polarisation Controller

    Reference number: Col-1109-03

    Physical sciences | Contact us about this technology

    A unique polarisation control system utilising the flexoelectric effect exhibited by chiral nematic liquid crystals responding rapidly (100µs to 1ms) under the influence of an externally applied electric field. The system provides switching angles of over 90 degrees, stable materials over wide operating temperature ranges, and precise control of polarisation state. These characteristics make the system ideal for use in polarisation controllers to reduce the effects of polarisation mode dispersion (PMD), endless polarisation controllers, optical routers, and liquid-crystal displays.

  • Apparatus for Ultra-low Volume Fluid Sensing

    Reference number: Ell-2234-08

    Physical sciences | Download more information | Contact us about this technology

    A novel apparatus that will enable label-free sensing to be applied to fluids with volumes as low as 0.25 μl. The apparatus is designed to be used with MEMS sensors such as microcantilevers, but could easily be adapted to other forms of sensor such as surface plasmon resonance or quartz crystal sensing. The new apparatus should facilitate detection in a wide-range of areas including proteomics, genomics, healthcare diagnostics, environmental monitoring and manufacturing quality at sample volumes much smaller than are currently available with competing technologies. The microcantilever sensor chips can be readily multiplexed.

  • 'Inerter' - Suspension Damping Technology

    Reference number: Smi-327-01

    Physical sciences | Contact us about this technology

    The 'Inerter' is a novel passive device which allows designers of ride-control and suspension/damping systems the ability to realise performance levels that were previously only possible with actively controlled architectures. The device may be used on its own or in conjunction with traditional ride-control building blocks, to allow the designer cheap and simple, passive access to the full range of suspension characteristics. The device promises improvements over traditional technologies in areas such as passenger comfort, heavy vehicles dynamics and the handling of high-performance vehicles.

  • Microcapillary Films

    Reference number: Mac-808-03

    Physical sciences | Download more information | Contact us about this technology

    A manufacturing process for embedding multiple parallel micro-capillaries into flat, flexible polymer tapes and films has been developed. Application areas include chemical and biochemical analysis, medical applications, heat exchangers and pressure sensing applications.

    The shape and size of these micro-capillaries can be easily controlled, ranging in diameter from 5 to 500 microns, and having circular, elliptical or diamond cross-sections, allowing transport of liquids or gases at pressures as high as 50 bar. The capillary walls can also be designed to be semi-permeable or catalytic.

  • Gaussian Approximational Potential

    Reference number: Csa-2168-08

    Physical sciences | Download more information | Contact us about this technology

    Gaussian Approximation Potential (GAP) is a novel atomistic modelling technique that combines accuracy with speed. By inferring the energy of an atom from the position and identity of its neighbours using a precomputed database of exact quantum mechanical solutions, the potential energy surface of a system of atoms and molecules is approximated. This methodology allows a controllable compromise to be made between the accuracy of Quantum Chemistry models and the speed of Interatomic Potential methods, with applications in a diverse range of fields including pharmaceuticals, aerospace, electronics and biotechnology.

  • Endometriosis Mouse Model

    Reference number: Cha-1883-07

    Life sciences | Download more information | Contact us about this technology

    Unlike currently existing endometriosis mouse models, this novel allograft model is an immuno-competant mouse that produces viable endometriosis-like lesions. This model will be useful in screening and identifying compounds for use in the treatment of endometriosis. Other applications include investigating the pathogenesis of endometriosis, identifying target genes or others factors associated with endometriosis.

  • Methods to Induce Differentiation of Embryonic Stem Cells

    Reference number: Ped-1660-06

    Life sciences | Download more information | Contact us about this technology

    The manipulation of pluripotent stem cells to generate specific cell types is key to the application of these cells to the treatment of disease. Our researchers have developed methods for the expansion of populations of human pluripotent cells and subsequent differentiation into mesoderm and endoderm progenitors using chemically defined media that does not require the use of stroma cells or animal serum, thus avoiding a key barrier to the use of these cells in the clinic.

  • Novel Biomarker for Assessing DNA Damage

    Reference number: Ven-2161-08

    Life sciences | Download more information | Contact us about this technology

    Our researchers have identified the earliest known marker for DNA damage. Phosphorylation of residue Thr51 of protein HP1β occurs within minutes of the onset of DNA damage. A robust, specific polyclonal antibody to the phosphorylated form of this protein has been developed which is an effective biomarker for DNA damage. This has excellent potential for use as a biomarker in clinical applications such as the diagnosis, prognosis and predictive response of individuals to cancer therapy.

  • Improved Ultrasound Imaging Technique

    Reference number: Lin-1924-05 / Tre-1892-07

    Life sciences | Contact us about this technology

    Improved ultrasound imaging technique known as strain imaging that distinguishes between harder and softer regions in human tissue and provides more accurate and better quality images. Can be used for detecting tumours in the breast, prostate and neck and distinguishing between malignant and benign lumps as well as for other diagnostic applications including detecting and grading Deep Vein Thrombosis.

  • Drug Delivery Methodology

    Reference number: Sch-2100-07

    Life sciences | Download more information | Contact us about this technology

    A simple method to produce a drug complex to potentially improve the ADMET properties of the drug, extend its circulatory life and allow it to be released from the complex by appropriate stimuli when required. It is envisaged that this technology could be applied to a wide range of low solubility drugs to treat many conditions and potentially to others which are currently untreatable.

  • Electrode Microchannels as Axonal Amplifiers

    Reference number: Lac-1893-07

    Life sciences | Contact us about this technology

    An ideal limb prosthesis is one that the patients can naturally wear and control. This can be achieved through the use of an implanted neural interface that records neuronal signals that can be used to control the prosthesis. The neural interface developed here allows damaged nerve fibres to regenerate through an array of electrode-coupled microchannels in a way that increases signal levels and decreases the incidence of crosstalk.

  • Novel Murine Model of Advanced Vulnerable Atherosclerosis

    Reference number: Ben-840-03

    Life sciences | Download more information | Contact us about this technology

    Transgenic mice are engineered so that on induction they rapidly and predictably develop a disease state that shares major features of advanced vulnerable atherosclerosis in humans. This valuable model is highly suited to studies of cardiovascular drugs which stabilise atherosclerotic plaques and the long term study of arterial diseases such as aneurysm formation, angioplasty restenosis and atherosclerosis.

  • Predicting Auto-immune Disease Progression

    Reference number: Smi-2124-08 / Smi-2260-08

    Life sciences | Download more information | Contact us about this technology

    A method for predicting prognosis in autoimmune diseases including lupus and ANCA-associated vasculitis. The technique enables patients to be divided into groups at high and low risk of disease progression to identify patients requiring intensive immunosuppressive therapy or to reduce the total immunosuppressive load in patients at low risk of disease relapse.

  • Improved Antibody Constant Regions

    Reference number: Cla-146-98

    Life sciences | Download more information | Contact us about this technology

    Novel, improved, human, antibody constant regions which lack destructive effector functions. These constant regions can be combined with the variable region genes or receptor domains of your choice to produce antibodies or fusion proteins of any desired specificity. Specific applications in the areas of autoimmunity, inflammation, allergy, asthma and cardiovascular disease are envisaged.