We use cookies to improve your experience of our website. Privacy Policy

Skip to main content


Development of a human placental artery-on-a-chip to study placental vascular function in reproductive toxicology and pregnancy diseases

Emulates organ chip
Emulates organ chip
Dr Teresa TROPEA
University of Manchester
Co-investigators:Dr Paul Brownbill
University of Manchester
 Dr Virginia Pensebene
University of Leeds
Funder:Emulate/Organ-on-a-chip Network Proof-of-concept Award
Project dates:10-05-2021 to 10-06-2021
Centre dates:10-05-2021 to 10-06-2021

Adequate fetoplacental blood flow is a major factor in fetal growth and development1. Increased
vascular resistance within the placental microvasculature, significantly impairs the fetoplacental
circulation and is associated with fetal growth restriction, a pregnancy pathology that affects up to 5–
10% of pregnancies2. The placenta is a non-innervated, low-resistance vascular organ, which relies
principally on paracrine signalling to regulate vascular tone and maintain an efficient maternal-fetal
exchange system for oxygen and nutrients3. An adverse in utero environment, caused by maternal or
placental diseases or xenobiotics, will compromise placental vascular function and fetal development,
thereby predisposing to long-term postnatal disease risk4.
Novel micro-physiology technologies, advancing beyond animal and ex vivo investigations, are
needed to evaluate how the maternal environment and xenobiotics affect placental vascular function.
In this study, we aim to:
1. Develop the first human fetoplacental artery-on-chip, a co-culture of endothelial (ECs) and smooth
muscle cells (SMCs) isolated from human placental resistance arteries.
2. Determine optimal conditions for co-culture of ECs and SMCs.
3. Assess cell metabolism (glucose, lactate) and paracrine crosstalk between SMCs and ECs under
flow conditions to recreate shear stress to evaluate calcium signalling and nitric oxide (NO) production.