Our research in Pharmacology centres on the molecular basis of disease processes. Our expertise ranges from in vivo models through to molecular pharmacology, and computational biology through to clinical application.
The research conducted is focused on utilising integrated physiological and pharmacological approaches with biochemical and molecular techniques to study disease states, underlying mechanisms of disease and drug actions, with a view to identifying novel mechanisms, therapeutic targets and agents with a clinical and translational focus.
Diabetic neuropathies (Supervisor: Lisa Lione and Chris Benham)
A common symptom of diabetes is sensory nerve neuropathy resulting in pain and loss of sensation. We have a number of projects that examine the molecular basis of neuropathy and the role of glucose metabolites such as methylglyoxal in this dysfunction.
TRP ion channels (Supervisor: Chris Benham and Chris Keating)
These ion channels have important functions in most cells of the body. Current work is looking at the function of these channels in gut motility and in endothelial cell function in blood vessels.
Biochemistry and Bioinformatics (Supervisor: Andres Kukol and Pryank Patel)
This work involves the structural and functional studies of biologically and medically important proteins. There are a variety of recombinant and biophysical techniques used to study and characterise proteins, including NMR, x-ray crystallography and chromatography. We also have a strong interest in computational methods and software development for protein structure analysis and data interpretation.
Neurodegenerative diseases (Supervisor: Mahmoud Iravani)
-Drug discovery for neurodegenerative diseases:
The application of novel aryl-piperazine sulphonamides as a novel neuroprotective agents in Parkinson’s disease. The aim of this project is to further characterise the neuroprotective effects of these compounds in vivo in a neurotoxin based animal model of Parkinson’s disease.
-Treatment of levodopa-induced dyskinesia using novel 5-HT1a receptors ligands - a collaboration with King’s College London. Levodopa is the gold-standard drug in the treatment of the motor symptoms of Parkinson’s disease. The purpose of this PhD is to re-evaluate the current clinically available drugs with efficacy on 5-HT1a receptors as anti-dyskinetic agents.
-The primary pathology of Parkinson’s disease is the paucity of movement, tremor and postural imbalance. The object of this PhD is to try to identify the mechanism by which loss of neurones in a part of the brain that produces the neurotransmitter dopamine, is able to affect the gastrointestinal activity, despite the fact that presently there are no well characterised brain connections between dopaminergic neurones and those CNS centres that control gut motility. (Additional Supervisor: Chris Keating)
Airway and Vascular Pharmacology (Supervisor: Louise Mackenzie)
This group is interested in the role and modulation of bioactive lipids such as prostanoids on organ function. Projects include the effects of NSAIDs on vascular tone, harnessing nuclear receptors to alter tissue function, and using specialised blood cells to create human lung in vitro
Our varied research areas mean that collaborations are innovative and cross discipline.
Our team bring together experience and research knowledge from several leading UK and International universities as well as global Pharmaceutical Industry. Collaborations continue with these institutions and the NHS. Read more about our collaborations.
The admissions tutor for this course is: Shori Thakur email: email@example.com.
You can find information about full time fees here and part time fees here.
To apply for this course please contact the University directly.
An honours degree (normally at least 2:1 or above) in a Biological science or Chemistry based undergraduate degree or MSc Merit or above.
IELTS entry requirement is normally 6.5, TOEFL 550 (213 CBT) or equivalent for overseas students.
|Start Date||End Date||Link|
|05/09/2019||31/07/2020||Apply online (Full Time)|
|01/02/2020||31/07/2020||Apply online (Full Time)|
|05/09/2019||31/07/2020||Apply online (Part Time)|
|01/02/2020||31/07/2020||Apply online (Part Time)|
|Start Date||End Date||Link|
|05/09/2020||31/07/2021||Apply online (Full Time)|
|01/02/2021||31/07/2021||Apply online (Full Time)|
|05/09/2020||31/07/2021||Apply online (Part Time)|
|01/02/2021||31/07/2021||Apply online (Part Time)|