 Professor in Mechanical Engineering
 +44 (0) 207 882 3028  t.alonso@qmul.ac.uk |
 Senior Lecturer in Biomedical Engineering & Biomaterials
Molecular self-assembly, the spontaneous organization of molecules into ordered aggregates by noncovalent interactions and without external control, is of central importance to life (e.g., protein folding, formation of lipid bilayers). Using biological inspiration and tools of chemistry, physics and engineering, we aim to explore new (macro)molecular units (peptides and sugar polymers) mimicking the composition and structure of carbohydrates and proteins (vital constituents of all organisms) to develop materials by self-assembly with particular properties and function for bioengineering applications. We expect that combinations of these building blocks and their controlled self-assembly can generate the discovery of innovative biomaterials with unprecedented properties that can revolutionize tissue engineering and other forms of regenerative medicine.
+44 (0)20 7882 5502 h.azevedo@qmul.ac.uk |
 Senior Lecturer in Regenerative Medicine
Inflammation, mechanobiology, tissue engineering, regenerative medicine, musculoskeletal science and bioengineering
+44 (0)20 7882 7560 t.t.chowdhury@qmul.ac.uk |
 Professor of Biomaterials
Hard tissue replacement, bone tissue engineering, regenerative medicine, synthetic osteoinductive materials, bioreactor systems for adult stem cell expansion
+44 (0)20 7882 6310 j.d.debruijn@qmul.ac.uk |
 Co-director of Division of Bioengineering /
Reader in Biomaterials and Biointerfaces
Synthesis and characterisation of biomaterials. Micro- and nano-patterning. Bio-interfaces. Stem cell biology.
+44 (0)20 7882 5263 j.gautrot@qmul.ac.uk |
 Senior Lecturer (Associate Professor) in Biomedical Engineering and Biomaterials
Image-based diagnostics and screening, machine learning and development of algortihms for data analysis, Atomic Force microscopy, cell and nuclear mechanics, mechanobiology, tissue engineering, stem cell biology, traction force microscopy,
+44 (0)20 7882 6596 n.gavara@qmul.ac.uk |
 Reader in Bioengineering and Biophysics
Tissue mechanics, bone and cartilage disorders, impact resistant biocomposites , nano- and microscale mechanics of biological and biomimetic composites, synchrotron in situ X-ray nanomechanical imaging
+44 (0)20 7882 8867 h.gupta@qmul.ac.uk |
 Lecturer in Bioengineering
Cardiomyocyte and Vacular Smooth Muscle Cell Mechanobiology, Rigidity Sensing, Micro and Nanopatterning, Cellular Force Measurements, Advanced Imaging Techniques
+44 (0)20 7882 3674 t.iskratsch@qmul.ac.uk |
 Professor of Mechanobiology
My research is focussed on 'mechanobiology' or how living cells and tissues respond to physical forces. In particular I am interested in the role of the fascinating cellular structure known as the primary cilium (cilia in plural). My work also explores the development of organ-on-a-chip models incorporating biomechanical stimulation for predicting the performance of pharmaceuticals. I work on a variety of different diseases including osteoarthritis, tendonopathy and cancer and the development of novel therapeutics.
+44 (0)20 7882 8868 m.m.knight@qmul.ac.uk |
 Professor in Molecular Bioengineering
mechanotransduction, flow studies, molecular biology, finite element modelling, fluid structure modelling, imaging, animal studies
+44 (0)20 7882 7940 r.krams@qmul.ac.uk |
 Deputy Vice Principal - Research (Enterprise)
Tissue engineering and mechanobiology, Mesenchymal stem cell biology
+44 (0)20 7882 8874 d.a.lee@qmul.ac.uk |
 Professor in Biomedical Engineering & Biomaterials
Our team strives to develop innovative technologies and high impact research (Science 2008, Nature Materials 2010, Nature Chemistry 2015) to generate creative technologies and solutions for a variety of bioengineering applications. We use highly interdisciplinary approaches that integrate engineering, materials science, chemistry, nanotechnology, biology, and medicine to develop materials and devices that are hierarchical, biomimetic, offer spatio-temporal control, adaptability, tuneability, self-healing, and functionality. Current research in our lab includes the development of in vitro biomimetic environments, dynamic and directed self-assembling systems, molecular printing within 3D environments, and molecularly-designed bioactive implants for applications such as tissue engineering, regenerative medicine, drug screening.
+44 (0)20 7882 6279 a.mata@qmul.ac.uk |
 Director of Division of Bioengineering /
Professor of Biomedical Engineering
My research aims to understand how our tissues are built to be able to withstand the loads they experience in the body. I am particularly interested in understanding tendon and heart valve; how and why they get injured, and ways to prevent this happening.
By looking at the ways a tissue is supposed to work when it is healthy, we can identify how small changes in the structure, such as those which occur with age, can make injury more likely and look to prevent or treat these specifically.
+44 (0)20 7882 6167 h.r.c.screen@qmul.ac.uk |
 Professor of Biomechanical Engineering
Wear of total hip replacements, surface coatings, particle analysis, orthopaedic systems, tissue engineering, tendon mechanics
+44 (0)20 7882 8877 j.shelton@qmul.ac.uk |
 Vice-Principal and Executive Dean (Science & Engineering)
Vascular endothelial mechanics, flow and solute transport in extracellular matrices, microcirculation, arterial haemodynamics, cell & tissue mechanics
+44 (0)20 7882 3031 wen.wang@qmul.ac.uk |
 Professor of Robotics Engineering
Professor Althoefer's research focuses on robot autonomy, soft robotics, modelling of tool-environment interaction dynamics, sensing and neuro-fuzzy-based sensor signal classification with applications in robot-assisted minimally invasive surgery, rehabilitation, assistive technologies and human-robot interactions in the manufacturing environment.
+44 (0)20 7882 3419 k.althoefer@qmul.ac.uk |
 Lecturer in Bioengineering
My research aims to understand how different movements are achieved across a variety of steady and non-steady tasks; in particular, how the mechanics and muscles are used to control movement. I apply this knowledge to differentiate healthy gait from injury and disease, by identifying these fundamental control priorities. Identification of these control priorities, and using these to discover markers for disease severity will help assess the effectiveness of different treatment interventions for gait deficits. Non-steady tasks, such as walking over obstacles are key to identifying these underlying control parameters.
+44 (0)20 7882 3677 a.birn-jeffery@qmul.ac.uk |
 Senior Lecturer (equiv. Associate Professor) in Fluid Mechanics
I am the leader of the Fluids, Particles and Interfaces Group (https://bottogroup.wordpress.com/). I am interested in fluid mechanics and transport phenomena, with particular focus on topics at the interface between classical fluid dynamics and materials science. My group uses simulations and theory, often corroborated by experimental results, to uncover fundamental engineering principles that can be applied to practical problems, in areas such as advanced materials, bioengineering, and energy engineering.
Recurring topics of research in the group are the dynamics of particulate materials (suspensions, emulsions, powders, etc.) and the mechanics of soft interfaces.
I lead the "Fluid Mechanics of Nanostructured Materials" Special Interest Group of the EPSRC-funded UK Fluids Network.
+44 (0)20 7882 3757 l.botto@qmul.ac.uk |
 Professor of Materials
Examining the physical behaviour by experiment and modelling techniques of soft matter such as elastomers and rubber materials. Properties of interest include abrasion, friction, fracture, creep, fatigue, viscoelastic behaviour, modulus enhancement and composite filler reinforcement. Developing smart soft materials that can sense their environment and soft actuating materials that can change shape in response to a physical stimulus.
+44 (0)20 7882 8866 j.busfield@qmul.ac.uk |
 Dr Karin Hing
CEng, PhD, BSc, MIMMM, FRMS, FWESReader in Biomedical Materials
My research is focused around the development of pioneering biomaterials and healthcare therapies through development of novel materials and processing technologies and investigation of the phenomena behind biocompatibility, and the stimulation of tissue regeneration. I am particularly interested in understanding the mechanisms behind enhanced bone healing or regeneration in the presence of porous synthetic scaffolds, known as synthetic bone graft substitutes, via manipulation of both synthetic graft chemistry and hierarchical pore structure. I also have extensive experience in translating research from the bench to the bed side through my involvement in the successful development and commercialisation of a progressive series of synthetic bone graft substitute materials with tuneable hierarchical structures to support rapid, reliable bone regeneration, which are now in global clinical use in a range of applications including trauma, joint revision and spine surgery.
+44 (0)20 7882 7804 k.a.hing@qmul.ac.uk |
 Reader in Electroanalytical Systems
Electrochemical sensors and characterisation techniques including: (i) impedance and quartz crystal microbalance based chemical sensors and biosensors,
(ii) electrochemical imaging using photocurrent measurements at field-effect semiconductor devices with scanning photo-induced impedance microscopy (SPIM) and light-addressable potentiometric sensors (LAPS).
+44 (0)20 7882 3747 s.krause@qmul.ac.uk |
 Reader in Computational Fluid Dynamics and Optimisation
Computational Fluid Dynamics, Fluid-Structure Interaction, Biofluids, Shape Optimisation, Adjoint methods, Mesh adaptation, Sensitivity Analysis.
+44 (0)20 7882 5421 j.mueller@qmul.ac.uk |
 Dr Hasan Shaheed
PhD (Sheffield), PGCAP (London), SFHEA, MIEEE, CEng, MIET, NTFSenior Lecturer: Robotics & Renewable Energy
a) Systems/Applications: Aerial Robotics, Solar Aerial Robotics (Solarcopter), Hybrid Renewable Energy Systems, Medical Robotics including Capsule Robots, Master-slave Robots, Medical / Surgical devices, Water Desalination and Cancer. (b) Approaches: System Design, Modelling, Identification, Control, Optimisation, Artificial Intelligence (Neural Networks, Fuzzy Logic, Genetic, Particle Swarm and Ant Colony Algorithms), Bioinformatics and Computational Biology with application to Cancer Prognosis and Classification, Biomedical Signal Processing
+44 (0)20 7882 3319 m.h.shaheed@qmul.ac.uk |
 Reader in Chemical Engineering
+44 (0)20 7882 5305 s.smoukov@qmul.ac.uk |
 Dr Lei Su
BSc, MRes, PhD, FHEALecturer
My research are centred on optical devices and instrumentation for diagnosis, imaging and monitoring, interfacing with Artificial Intelligence, Chemistry and Nanotechnology, in applications such as healthcare, energy, and security.
+44 (0)20 7882 5184 l.su@qmul.ac.uk |
 Dr Yi Sui
PhD, MInstP, Fellow HEAReader in Fluid Mechanics
+44 (0)20 7882 7763 y.sui@qmul.ac.uk |
 Professor of Biomedical Materials
Physical Chemistry, Biophysics, Materials Science.
Area of research: Multifunctional Nanoengineered Delivery Systems
+44 (0)20 7882 5508 g.sukhorukov@qmul.ac.uk |
 Bonfield Professor of Biomedical Materials
My research interests are in the development, testing and use of biomaterials for bone and joint replacement. In particular composites of bioactive ceramics and polymers which can encourage bone ongrowth yet have sufficient mechanical properties to be used for load bearing applications. These are based on either non-degradable or degradable artificial or natural polymers depending on application. In parallel I have interests in the mechanical properties of bone and the effects of pathology on these properties.
+44 (0)20 7882 6785 k.e.tanner@qmul.ac.uk |
 Prof Pankaj Vadgama
MB, BS, BSc, PhD, FRCPath, CChem, FRSC, CPhys, FInstP, FIMMM, FRSB, CSciProfessor and Director of IRC in Biomedical Materials
Development of enzyme and antibody based biosensors for Point of Care Testing. Electrochemical sensors for in vivo monitoring of oxygen and metabolites for application to critical care and diabetes. Polymeric membranes and laminates designed for enzyme based biosensors for optimised sensitivity, selectivity and bio-stability. Laminates and composites developed for biodegradable sensors for chronic wound monitoring, on body electrolyte tracking in exercise and increase of bone adhesive strength.
+44 (0)20 7882 5151 p.vadgama@qmul.ac.uk |
 Postdoctoral Research Associate
m.bosch@qmul.ac.uk
 Supervisor: Julien Gautrot |
 Postdoctoral Research Assistant
s.burrows@qmul.ac.uk
Supervisor: Stoyan Smoukov |
 Visiting Postdoctoral Research Assistant
Biosensors, DNA, enzymes, membranes, antineoplastic drugs
+44 (0)20 7882 5151 i.campelolopes@qmul.ac.uk
Supervisor: Pankaj Vadgama |
 Postdoctoral Research Assistant
+44 (0)20 7882 xxxx d.carassiti@qmul.ac.uk
Supervisor: Rob Krams |
 Marie-Curie Fellow
a.das@qmul.ac.uk
Supervisor: Steffi Krause |
 Postdoctoral Research Assistant
+44 (0) 20 7882 5301 s.dicio@qmul.ac.uk
Supervisor: Julien Gautrot |
 KTP Postdoctoral Research Assistant
+44 (0)20 7882 7306 k.nguyen@qmul.ac.uk
Supervisor: Julien Gautrot |
Postdoctoral Research Assistant
a.giannopoulous@qmul.ac.uk
Supervisor: Hazel Screen |
 Postdoctoral Research Assistant
I have a PhD in nanofluidics. My expertise is mostly numerical (molecular dynamics, monte carlo, umbrella sampling, finite elements method). I have also performed experiments using Fluorescence correlation spectroscopy.
s.gravelle@qmul.ac.uk
Supervisor: Lorenzo Botto |
 Postdoctoral Research Assistant
c.gu@qmul.ac.uk
Supervisor: Lorenzo Botto |
Postdoctoral Research Assistant
abshar.hassan@qmul.ac.uk
Supervisor: Alvaro Mata |
 Postdoctoral Research Assistant
+44 (0)20 7882 5368 h.k.heywood@qmul.ac.uk
Supervisor: David Lee |
 Postdoctoral Research Assistant
+44 (0)20 7882 3119 s.r.inamdar@qmul.ac.uk
Supervisor: Himadri Gupta |
 Postdoctoral Research Assistant
I apply mathematical modelling to engineering challenges relating to soft particles, capsules or vesicles in liquids, with an aim to create testable models of the materials in flow for advance in industrial application. For example, an understanding on the characterisation over the state of aggregation, shape or orientation of the soft nanoparticles in flow could identify new methods used to charactering and sort nanoparticles by their thickness and aspect ratio. Such size and thickness is essential for optimising applications such as polymer reinforcement. I am also interested in modelling physical singularities, such as those involved in moving contact lines.
c.kamal@qmul.ac.uk
Supervisor: Lorenzo Botto |
 Postdoctoral Research Assistant
paulina.kloskowska@qmul.ac.uk
Supervisor: Aleksandra Birn-Jeffery |
 Postdoctoral Research Associate
+44 (0) 20 7882 5306 d.kong@qmul.ac.uk
Supervisor: Julien Gautrot |
 Postdoctoral Research Assistant
wanlin.li@qmul.ac.uk
Supervisor: Kaspar Althoefer |
 Postdoctoral Research Assistant
+44 (0)20 7882 7821 wei-qi.li@qmul.ac.uk
Supervisor: Wen Wang |
Postdoctoral Research Assistant
e.marhuenda@qmul.ac.uk
Supervisor: Thomas Iskratsch |
Intern
m.magda@qmul.ac.uk
Supervisor: Alvaro Mata |
 Postdoctoral Fellowship (Self-Assembling Peptides for Tissue Regeneration)
+44 (0)20 7882 6686 b.okesola@qmul.ac.uk
Supervisor: Tina Chowdhury |
Postdoctoral Research Assistant
r.quadros@qmul.ac.uk
Supervisor: Jens-Dominik Mueller |
Research Assistant
e.radvar@qmul.ac.uk
Supervisor: Helena Azevedo |
 Research Assistant
a.rizqi@qmul.ac.uk
Supervisor: Kaspar Althoefer |
 Postdoctoral Research Assistant
+44 (0)20 7882 5301 yejiao.shi@qmul.ac.uk
Supervisor: Helena Azevedo |
 s.sotoma@qmul.ac.uk
Supervisor: Julien Gautrot |
 Postdoctoral Research Assistant
Mammalian cell culture, immunohistochemistry, immunocytochemistry, confocal microscopy and image analyses, reverse transcription and real time PCR, molecular cloning, cell transfection, immunoprecipitation and western blotting, biochemical assays (various).
+44 (0)20 7882 3603 clare.l.thompson@qmul.ac.uk
Supervisor: Martin Knight |
 Researcher Co-Investigator
I implement a range of engineering, biophysics and molecular biology techniques to probe cellular responses to biophysical signals. In addition to enhancing our understanding of cell mechanobiology, my research looks to leverage this understanding to develop cartilage and bone regenerative medicine strategies, and address the aberrant mechanobiology associated with one of the most lethal cancers, pancreatic ductal adenocarcinoma.
+44 (0)20 7882 3602 s.thorpe@qmul.ac.uk
Supervisor: David Lee |
Postdoctoral Research Assistant
exx214@qmul.ac.uk
Supervisor: Steffi Krause |
 Postdoctoral Research Assistant
Biomechanics & Intellectual Property Law
+44 (0)20 7882 5368 r.twycross-lewis@qmul.ac.uk
Supervisor: Aleksandra Birn-Jeffery |
 Research Fellow
Bone biomechanics and mechanobiology, Developmental biomechanics, cancer mechanobiology
s.verbruggen@qmul.ac.uk
Supervisor: Martin Knight |
Postdoctoral Research Assistant
i.xanthis@qmul.ac.uk
Supervisor: Thomas Iskratsch |
 Marie Curie Research Fellow
luming.zhao@qmul.ac.uk
Supervisor: Lei Su |
| Name | Thesis Title | Supervisor |
| ABUAMMAH, Aliah | TBC | Rob Krams |
| ALEXIS, Cardee | Study of Liquid-liquid interfaces | Julien Gautrot |
| BALANGTAA, Jacob | Self-assembled peptide droplet interfaces for simple screening of stem cell microenvironments and micromanipulation of colonies | Helena Azevedo |
| CHANG, Lan | Polymer brush vectors for 3D RNA delivery | Julien Gautrot |
| CHRYSANTHOU, Alexandra | Study of the mechanical properties of liquid-liquid interfaces | Julien Gautrot |
| COSTA, Eleni | Healing and repair mechanisms in the fetal membrane after preterm rupture | Tina Chowdhury |
| DAWSMITH, Wesleigh | Dielectric technology development to measure hydration levels. | Tina Chowdhury |
| DELAHUNTY, Alex-Jade | High throughput analysis of mechanosensitive microRNA | Rob Krams |
| DIAZ-LOPEZ, Reynol | TBC | Teresa Alonso-Rasgado |
| DOWDEN, Alice | Silicone elastomers and 3D printing | Julien Gautrot |
| FERREIRA, Marta | Biophysical biomarkers to characterize cancer-associated fibroblasts in drug screening strategies. | Nuria Gavara |
| GAINS, Connor | Developing a rat model of tendinopathy to investigate mechanobiology of the disease | Hazel Screen |
| GAXIOLA CAMACHO, Lino | TBC | Teresa Alonso-Rasgado |
| HE, Shiping | the function of mi-R214 in differentiation of smooth muscle cell | Wen Wang |
| HEDEGAARD, Clara | Combining Self-Assembly with 3D Bioprinting to Generate Molecularly-Controlled, Hierarchical, and Bioactive Tissue Constructs | Alvaro Mata |
| JONES, Christian | Design of a microfluidics integrated skin on a chip tissue model. | Julien Gautrot |
| KEELING, Michael | Multi-Scale Force Transmission to and within the Nucleus | Nuria Gavara |
| MCFIE, Megan | Development of high throughput imaging screen of compounds effecting primary cilia structure and resulting modulation of mechanosignalling and other cilia functions in chondrocytes. | Martin Knight |
| MENDOZA MARTINEZ, Ana Karen | Biofabrication of self-assembling fluidic devices for modelling ovarian cancer under fluid flow | Alvaro Mata |
| MENDOZA MEINHARDT, Arturo | Self-Assembling peptide amphiphiles as a platform for the manipulation of protein conformation | Alvaro Mata |
| MENG, Hongxu | TBC | Nuria Gavara |
| MENG, Huan | The effect of substrate stiffness on primary cilia and regulation of the tumour microenvironment. | Martin Knight |
| MOJARES, Elijah | Design of nanosheets and microdroplet technologies | Julien Gautrot |
| MONACO, Alessandra | Synthesis of Glycopolymers and their interactions with lectins | Helena Azevedo |
| ORTEGA-HERNANDEZ, Esteban | Bioactive membranes for cardiac tissue regeneration. | Alvaro Mata |
| PADILLA LOPATEGUI, Soraya | Development of blood interactive self-assembling systems | Alvaro Mata |
| PANG, Xinqing | Engineering the endothelial glycocalyx through defined patterns of peptide self-assembled monolayers | Wen Wang |
| PEGGREM, Shaun | Control of the Circadian Clock in Chondrocytes | David Lee |
| PENG, Lihui | The project on which Lihui is working focuses on understanding the mechanisms allowing stem cells to proliferate on liquid substrates. It investigates the nanoscale mechanical properties of liquid-liquid interfaces and their design, as well as the characterisation of stem cell phenotype at these interfaces. | Julien Gautrot |
| PRIMO, Gaston | CONSTRUCTION OF ANISOTROPIC SCAFFOLDS FOR TISSUE ENGINEERING APPLICATIONS | Alvaro Mata |
| QU, Fengjin | TBC | Julien Gautrot |
| QUADIR, Fauzia | Bonding of soft tissues to hydroxyapatite | Julien Gautrot |
| RATNASINGHAM, Ryley | TBC | Hazel Screen |
| REDONDO, Carlos | Novel self-healing design of non-covalent cross-linked peptide amphiphile hydrogels | Alvaro Mata |
| SALAZAR JOYA, Ernesto | TBC | Teresa Alonso-Rasgado |
| SHIVAPATHAM, Shivapatham | Investigating human Achilles tendon biomechanics using novel ultrasound imaging approaches | Hazel Screen |
| WARD, Matthew | Cardiomyocytes, Mechanobiology, Rigidity sensing, Micropatterning, Traction Force Measurement | Thomas Iskratsch |
| WU, Linke | Hyaluronic acid-based peptide-functionalised engineered soft matrices via thiol-ene coupling | Julien Gautrot |
| WU, Yuanhao | From the ELP5/PAK3 tube to a Totally-engineered blood vessels (TEBV) | Alvaro Mata |
| YUAN, Yichen | Peptide-Hyaluronan Hydrogels for Ocular Applications | Helena Azevedo |
| ZHANG, Yuezhou | Nanomechanical and ultrastructural investigation of prostate cancer cell lines | Himadri Gupta |
| ZHAO, Luoguang | Numerical simulation of complex printing | Wen Wang |
| Name | Thesis Title | Supervisor(s) |
2017 |
| COLAK, Burcu | Micro-patterning of peptide-based biomaterials | Julien Gautrot, Hazel Screen |
| ZHAO, Li | Fabrication of non(low) permeable microcapsules and further study | Gleb Sukhorukov, Himadri Gupta |
| UDEZE, Chineye | The Effects of Loading Frequency on Tenocyte Matabolism | Hazel Screen |
| ZHANG, Fengfeng | Electrospinning high toughness biomimetic polystyrene nanocomposites | Asa Barber, Himadri Gupta |
| RAJI, Halimat-shaddiya | Wear and corrosion testing of modular hip prostheses | Julia Shelton |
2016 |
| JIA, Liyong | Micro-structure reorganisation of the aortic heart valve under a biaxial loading condition | Hazel Screen, Wen Wang |
| WANG, Zhao | The effects of the rate of hypo-osmotic challenge and IFT88 mutation on the biomechanics of chondrocytes. | Martin Knight, Wen Wang |
| CHEN, Xia | Investigating the effects of cholesterol on phospholipid bilayer with molecular dynamics simulations. | Wen Wang, Yiling Lu |
| YU, Baoqi | The synergistic role of mechanical stimuli and VEGF treatment in stem cell differentiation to endothelial cells | Wen Wang |
| YANG, Junyao | The role of HDAC7-related peptide in stem cell differentiation towards endothelial cell | Wen Wang |
| LIN, Miao | Interaction between the circulating blood and vascular endothelial cells in health & disease. Cell Mechanics for endothelial glycocalyx | Wen Wang, Asa Barber |
| DALBAY, Melis | Roles of primary cilia in hMSC in differentiation | Martin Knight |
| PATEL, Dharmesh | A novel fibre composite system to investigate tenocyte metabolism under physiological and pathological loading conditions. | Hazel Screen |
| ZHANG, Yi | Biomimetic Layered Nanocomposites with Tunable Dynamical Mechanical Properties: Synthesis, Imaging and Characterisation | Himadri Gupta, Nicola Pugno |
| KRISHNAMOORTHY, Mahentha | Developing Cationic Nanoparticles for Gene Delivery | Julien Gautrot, John Stark |
| XI, Li | Bone Quality Changes at the Nanoscale in Metabolic Bone Diseases assessed by Synchrotron X-ray Imaging | Himadri Gupta |
2015 |
| DEO, Devendra Inder | Microcapsule for targetted drug delivery to diseased tissues | Wen Wang, Gleb Sukhorukov |
| WANG, Xiaocong | The Role of DKK3 in Vascular Smooth Muscle Differentiation | Wen Wang |
| LU, Zhengjun | Microfluidics for a novel bioreactor | Wen Wang, Pankaj Vadgama |
| LI, Wei-Qi | Electrical stimulation on cell-cell interactions in vitro | Wen Wang |
| DI FEDERICO, Erica | Complex mechanical conditioning of cell-seeded constructs can influence chondrocyte activity | Julia Shelton, Dan Bader |
| YU, Xiaotian | Functional impact of microRNA-34a on stem cell differentiation towards smooth muscle cell | Wen Wang |
| SLIOGERYTE, Kristina | Mechanical properties of stem cells using micropipette aspiration | Martin Knight, David Lee |
2014 |
| LIU, Weizhi | Microcapsule internalization be cells in vitro caused by physical and biochemical stimuli | Gleb Sukhorukov, Wen Wang |
| QIU, Lin | Novel polymeric matrix and its interaction withbiological cells | Wen Wang, Ton Peijs |
| DE VILLIERS, Danielle Simone | Accelerated wear protocols for understanding clinical wear in modern hip prostheses | Julia Shelton, Martin Knight |
2013 |
| THOMPSON, Claire | Interaction between primary cilia length and hedgehog signalling in response to mechanical and thermal stress | Martin Knight |
| IRIANTO, Jerome | Nuclear Related Responses to Osmotic Challenge in Chondrocytes | David Lee, Martin Knight |
| CHAUDHRY, Saira | A Biomechanical Characterisation of Eccentric and Concentric Loading of the Triceps Surae Complex | Hazel Screen |
| KARUNARATNE, Malintha P. A. | Analysis of Alterations in Matrix Quality at Nanoscale in Metabolic Bone Diseases using Synchrotron X-ray Diffraction | Himadri Gupta |
| SATNAM SINGH, Jasminder K. | The Nanostructure of Impant-Induced Fibrosis (MPhil) | Himadri Gupta |
2012 |
| LIU, Yankai | Modelling studies on biological tissue property and mechanical responses under external stimuli | Wen Wang |
| BAI, Ke | Spatial distribution, temporal development and mechanical properties of the endothelial glycocalyx in vitro | Wen Wang |
| ROYLE, Matthew | Influence of coatings on ion release from large diameter metal-on-metal hip bearings | Julia Shelton |
| HOTHI, Hardip Singh | The Impact and Deformation of Press-Fit Metal Acetablular Components | Julia Shelton, James Busfield |
| PRAVINCUMAR, Priyanka | Viscoelastic Response of Cells and the Role of Actin Cytoskeletal Remodelling | Martin Knight |
| ANSSARI-BENIM, Afshin | Structure-Function Relationships in the Aortic Valve | Hazel Screen |
2011 |
| HOSNY, Neveen | Development of a non-invasive method to detect pericellular spatial oxygen gradients using FLIM | Martin Knight |
| CHAI, Chanyuan | Can Interface Conditions be Modified by Support Surfaces to Minimise the Risk of Pressure Ulcer Development? | Wen Wang, Dan Bader |
| YE, Shang Jun | Computational modelling of flows in porous scaffold materials using a lattice Boltzmann method | Wen Wang |
| LUO, Zhenling | microRNAs play a role in human embryonic stem cell differentiation into endothelial cells | Wen Wang |
| SIVASUBRAMANYAM, Kruba Sankar | Osteoinduction by biomaterials; towards unravelling the underlying process | Joost de Bruijn |
| WARD, Philip A | The influence of test parameters and surface modifications on the wear of total hip replacements | Julia Shelton |
2010 |
| PATTAPPA, Girish | Characterisaction of Human Mesenchymal Stem Cell Metabolism during Proliferation and Differentiation | David Lee, Joost deBruijn |
| RAMLOGAN, Anil | Stem Cell Expansion and Bioreactor Development | Joost deBruijn |
| AHMADI, Raheleh | Injectable Cell-Based Tissue Engineered Bone Formulations | Joost de Bruijn |
| TOORANI, Shima | The Influence of Microstructure on the Mechanical Behaviours of Tendons | Hazel Screen, Julia Shelton |
2009 |
| GUO, Lei | Novel biosensors and Their application in Mass Transport | Wen Wang, Pankaj Vadgama |
| VAUGHAN, Natalie | The potential of pulsed low-intensity ultrasound to stimulate chondrocytes in a 3D model system | Martin Knight |
2008 |
| MAEDA, Eijiro | Temporal regulation of tenocyte metabolism in strained fascicles | David Lee, Julia Shelton |
| AKANJI, Oto-Ola O | The influence of direct current electrical stimulation on chondrocytes in a 3D model system | Dan Bader, David Lee |
| ANGADJI, Arash | In vitro wear of metal-on-metal hip replacements: a multifactorial problem. | Julia Shelton |
