Cookies on this website

We use cookies to ensure that we give you the best experience on our website. If you click 'Accept all cookies' we'll assume that you are happy to receive all cookies and you won't see this message again. If you click 'Reject all non-essential cookies' only necessary cookies providing core functionality such as security, network management, and accessibility will be enabled. Click 'Find out more' for information on how to change your cookie settings.

Publications

Use of oxygen-loaded nanobubbles to improve tissue oxygenation: Bone-relevant mechanisms of action and effects on osteoclast differentiation.

Knowles HJ. et al, (2023), Biomaterials, 305

An investigation into the cytotoxic effects of microbubbles and their constituents on osteosarcoma and bone marrow stromal cells.

Polydorou AE. et al, (2023), Biochim biophys acta gen subj

An Acoustic Device for Ultra High-Speed Quantification of Cell Strain During Cell-Microbubble Interaction.

Pattinson O. et al, (2023), Acs biomater sci eng

Rapid Production of Nanoscale Liposomes Using a 3D-Printed Reactor-In-A-Centrifuge: Formulation, Characterisation, and Super-Resolution Imaging

He Y. et al, (2023), Micromachines, 14, 1763 - 1763

A MULTI-TECHNIQUE APPROACH TO UNDERSTANDING THE IMPACT OF BIOFILMS ON URETERIC/URETERAL STENTS

Wilks S. et al, (2023), Continence, 7, 100732 - 100732

Synthesis and characterization of liposomes encapsulating silver nanoprisms obtained by millifluidic-based production for drug delivery

Yanar F. et al, (2023), Materials research express

Hybrid Nanoplatforms Comprising Organic Nanocompartments Encapsulating Inorganic Nanoparticles for Enhanced Drug Delivery and Bioimaging Applications

Yanar F. et al, (2023), Molecules, 28, 5694 - 5694

Ultra-high speed quantification of cell strain during cell-microbubble interactions

Pattinson O. et al, (2023)

Cationic Microbubbles for Non-Selective Binding of Cavitation Nuclei to Bacterial Biofilms

LuTheryn G. et al, (2023), Pharmaceutics, 15, 1495 - 1495

Drug delivery strategies for antibiofilm therapy

STRIDE E., (2023), Nature reviews microbiology

The interplay between bacterial biofilms, encrustation, and wall shear stress in ureteral stents: a review across scales

Amado P. et al, (2023), Frontiers in urology, 3

Foam-in-Vein: Characterisation of Blood Displacement Efficacy of Liquid Sclerosing Foams.

Meghdadi A. et al, (2022), Biomolecules, 12

Bactericidal Effect of Ultrasound-Responsive Microbubbles and Sub-inhibitory Gentamicin against Pseudomonas aeruginosa Biofilms on Substrates With Differing Acoustic Impedance.

Plazonic F. et al, (2022), Ultrasound med biol, 48, 1888 - 1898

Flow Dynamics in Stented Ureter

Zheng S. et al, (2022), Urinary Stents: Current State and Future Perspectives, 149 - 158

Preventing Biofilm Formation and Encrustation on Urinary Implants: (Bio)molecular and Physical Research Approaches

Abou-Hassan A. et al, (2022), Urinary Stents: Current State and Future Perspectives, 437 - 447

Computational simulation of the flow dynamic field in a porous ureteric stent

Yang X. et al, (2022), Medical & biological engineering & computing, 60, 2373 - 2387

Early biofilm and streamer formation is mediated by wall shear stress and surface wettability: A multifactorial microfluidic study.

Chun ALM. et al, (2022), Microbiologyopen, 11

Foam-in-vein: Rheological characterisation of liquid sclerosing foams using a pipe viscometer

Meghdadi A. et al, (2022), Colloids and surfaces a: physicochemical and engineering aspects, 645

Facile production of quercetin nanoparticles using 3D printed centrifugal flow reactors.

De Grandi D. et al, (2022), Rsc adv, 12, 20696 - 20713

The accumulation of particles in ureteric stents is mediated by flow dynamics: Full-scale computational and experimental modeling of the occluded and unoccluded ureter

Mosayyebi A. et al, (2022), Apl bioengineering, 6, 026102 - 026102

Load More

1
2
3
4
5
6
7

Include forthcoming?