Pre-eclampsia is a common pregnancy disorder associated with increased risk of fetal complications such as fetal growth restriction, pre-term delivery and stillbirth. Early onset pre-eclampsia, caused by the failure of spiral arteries to adapt during pregnancy results in reduced blood flow to the placenta and a disturbed pattern of flow. Placental cells in contact with maternal blood called syncytiotrophoblasts are subsequently damaged by the altered haemodynamics. However, the molecular mechanisms are not fully understood and the impact on haemostasis remains unclear.
In this exciting PhD project, we aim to develop a simple and reproducible cell-based model to investigate how the changes in blood flow associated with pre-eclampsia damage the syncytiotrophoblasts, leading to the detrimental release of factors into the maternal blood. We will also investigate whether altered flow patterns contribute to fibrin deposition. This will further our understanding of the mechanisms responsible for early-onset pre-eclampsia and may help to inform new treatment strategies. The model will also provide a novel platform to test new drugs which preserve syncytiotrophoblast function and protect against pre-eclampsia.
The aim of the study is to develop a simple, reproducible in vitro model to investigate the effects of altered haemodynamics associated with pre-eclampsia on haemostasis regulation in the placenta. The project will involve establishing a microfluidic system to perfuse syncytiotrophoblasts (differentiated from a trophoblast cell line) under different haemodynamic conditions to mimic maternal blood flow in the placenta in normal and pre-eclamptic pregnancies. The effects of altered haemodynamics on haemostasis regulation will then be determined using a combination of functional assays (thrombosis and haemostasis) and omics techniques.
The qualifications, skills, knowledge and experience applicants should have for this project, in addition to our standard entry requirements.
The successful candidate will join the Faculty of Science and Engineering’s brand-new facilities housed in the state-of-the-art £117 million Dalton Building. This cutting-edge environment is equipped with outstanding research labs and social spaces, providing an ideal setting for candidate development.
The student will be in receipt of a stipend payment; the Research Council minimum rate (set by UKRI) is £20,780 for 2025/26.
Only full-time Home students can apply. Home fees are covered.
Interested applicants should contact Dr Sarah Jones (s.jones@mmu.ac.uk) for an informal discussion.
To apply you will need to complete the online application form for a full-time PhD in biological sciences (or download the PGR application form).
You should include your;
If applying online, you will need to upload your statement in the supporting documents section, or email the application form and statement to PGRAdmissions@mmu.ac.uk.
Closing date: 17 June 2025
Expected start date: October 2025
Please quote the reference: SciEng-SJ-2025-placental damage pre-eclampsia
Manchester Metropolitan University fosters an inclusive culture of belonging that promotes equity and celebrates diversity. Please ensure that you take into account our Inclusive and Diverse Culture Strategy when preparing an application.
Only full-time Home students can apply. Home fees are covered.
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