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Our research focuses on the use of nanoparticles in cancer for therapy, imaging or drug delivery.

WHAT WE DO 

Our research focuses on the use of nanoparticles in cancer for therapy, imaging or drug delivery. The small size of nanoparticles means that they can passively accumulate in tumours due to the enhanced permeation and retention (EPR) effect. The EPR effect is the property by which certain sizes of molecules accumulate more in tumour tissues than in normal tissues. This occurs because newly formed tumour blood vessels are abnormal in form and architecture, and have poorly-aligned endothelial cells with wide fenestrations through which the molecules can pass. Furthermore, tumour tissues lack efficient lymphatic drainage. 

Encapsulation of chemotherapy drugs within nanoparticles therefore enables them to be delivered directly to the site of the tumour, reducing systemic side effects, and enabling a higher dose to be reached in the cancerous tissue. Fluorophores and reporter molecules can be added to the nanoparticles for localization, and assessment of the efficacy of the treatment. Microparticle systems have also been developed for chemoembolization, in which the blood supply to the tumour is blocked causing the cancerous tissue to die. Other nanoparticles have also been developed which can be used to enhance the effect of conventional radiotherapy. Together with Isis Innovation we are working to commercialize this technology through the spinout Xerion Healthcare. Xerion will bring to market the technology that uses nanoparticles for cancer therapy. Their tiny size enables chemotherapy drugs to be delivered directly to a tumour, reducing the harm done to the rest of the body. The nanoparticles can also be used to increase the efficiency of radiotherapy. Read more

Ways in which nanoparticles can help in the fight against cancer are also discussed in a recent Guardian article here

In addition to cancer treatments, nanoparticles are useful for many other applications and we have collaborated with groups working, for example, on the use of nanoparticles to combat infertility and for smart biocide delivery to specifically target harmful bacteria. 

Our team

Selected publications

Histological Injury to Rat Brain, Liver, and Kidneys by Gold Nanoparticles is Dose-Dependent.

Journal article

Fadia BS. et al, (2022), ACS Omega, 7, 20656 - 20665

Isolation of NELL 1 Aptamers for Rhabdomyosarcoma Targeting.

Journal article

Duan C. and Townley HE., (2022), Bioengineering (Basel), 9

Mechanism of Action of the Sesquiterpene Compound Helenalin in Rhabdomyosarcoma Cells.

Journal article

Mun H. and Townley HE., (2021), Pharmaceuticals (Basel), 14

Nanoparticles as Vectors to Tackle Cancer.

Journal article

Duan C. and Townley HE., (2021), Biomolecules, 11

Bioink: a 3D-bioprinting tool for anticancer drug discovery and cancer management.

Journal article

Tiwari AP. et al, (2021), Drug Discov Today, 26, 1574 - 1590

Rare Earth Doped Titania Nanoparticles Upregulate Cellular Reactive Oxygen Species upon X-ray Irradiation

Journal article

Townley HE. and Wakefield G., (2014), BioNanoScience, 4, 307 - 315

Effects of mesoporous silica nanoparticles upon the function of mammalian sperm in vitro.

Journal article

Barkalina N. et al, (2014), Nanomedicine, 10, 859 - 870

Characterization and Comparison of Mesoporous Silica Particles for Optimized Drug Delivery

Journal article

Huang X. et al, (2014), NANOMATERIALS AND NANOTECHNOLOGY, 4

In vivo demonstration of enhanced radiotherapy using rare earth doped titania nanoparticles.

Journal article

Townley HE. et al, (2012), Nanoscale, 4, 5043 - 5050

Related research themes