Projects per year
Personal profile
Research interests
Andrew is currently involved in several areas of research applying computational modelling to important problems in medicine and industry. A primary interest is in building a complete in silico pipeline for simulating magnetic resonance imaging of cardiovascular physiology in order to optimise diagnostic protocols and provide prognostic decision support to clinicians.
- Computational modelling of cardiovascular diseases
- Optimisation of medical imaging
- In silico design of imaging contrast agents
- Scientific software development for finite element methods
- Mixing in laminar flows
- Flow instability in helical pipes
- Poroelastic fluid mechanics
He is involved in the following projects:
GW4 Translational Biomedical Research Network
CHeart: Multiphysics Finite Element Software for Biomechanics
Willing to supervise PhD
1. Combining machine learning with modelling to improve medical imaging in cardiology.
Education/Academic qualification
Biofluid Mechanics, Doctor of Philosophy, Imperial College London
Fingerprint Fingerprint is based on mining the text of the person's scientific documents to create an index of weighted terms, which defines the key subjects of each individual researcher.
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Mechanics
Medicine & Life Sciences
Heart-Assist Devices
Medicine & Life Sciences
Shear stress
Engineering & Materials Science
Parameterization
Engineering & Materials Science
Perfusion
Medicine & Life Sciences
Heart Ventricles
Medicine & Life Sciences
Physics
Medicine & Life Sciences
Blood
Chemical Compounds
Network
Recent external collaboration on country level. Dive into details by clicking on the dots.
Projects 2015 2018
Transition to turbulence in blood flow over a backward facing step
Fraser, K., Cookson, A. & Kelly, N.
1/06/18 → …
Project: Research-related funding
Myocardial Infarction Project
Gill, H., Fraser, K. & Cookson, A.
1/12/15 → …
Project: Research-related funding
Experimental Methods for Complex Fluids and Microfluidics
Fraser, K., Kelly, N., Cookson, A. & Gill, H.
29/06/18 → 29/06/18
Project: Research-related funding
Postgraduate Training for Research at Cardiovascular-Engineering Interface
Cookson, A., Odunmbaku-Mansell, O., Khoo, D. P. Y., Fraser, K. & Gill, H.
18/05/17 → 18/05/17
Project: Research-related funding
Research Output 2009 2019
Efficiently Generating Mixing by Combining Differing Small Amplitude Helical Geometries
Cookson, A., Doorly, D. & Sherwin, S., 27 Mar 2019, In : Fluids. 4, 2, p. 59-84 26 p.Research output: Contribution to journal › Article
Open Access
File
Measurement of secondary flow in blood analogue fluids using relative torque
Kelly, N., Gill, H., Cookson, A. & Fraser, K., 17 Dec 2018.Research output: Contribution to conference › Poster
1
Citation
(Scopus)
Normal fluid stresses are prevalent in rotary ventricular assist devices: a computational fluid dynamics analysis
Khoo, D. P. Y., Cookson, A., Gill, H. & Fraser, K., 24 Aug 2018, In : The International Journal of Artificial Organs.Research output: Contribution to journal › Article
Open Access
File
Heart-Assist Devices
Hydrodynamics
Dynamic analysis
Computational fluid dynamics
Shear stress
Transition to turbulence is delayed in shear-thinning blood analogs in contrast to Newtonian analogs
Kelly, N., Gill, H., Cookson, A. & Fraser, K., 4 Sep 2018.Research output: Contribution to conference › Abstract
Large eddy simulation predicts transition to turbulence is delayed in shear-thinning blood analogs in contrast to Newtonian analogs
Kelly, N., Gill, H., Cookson, A. & Fraser, K., 19 Dec 2017, (Submitted).Research output: Contribution to conference › Paper
shear thinning
large eddy simulation
blood
turbulence
analogs