Browse by UCL people
Group by: Type | Date
Number of items: 8.
Article
Coy, RH;
Kennedy, G;
Kayal, C;
O'Rourke, C;
Kingham, PJ;
Phillips, JB;
Shipley, RJ;
(2016)
A joint theoretical-experimental approach to investigate the effects of low oxygen environments upon therapeutic cell viability and VEGF production.
European Cells and Materials
, 31
(S1)
p. 174.
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Kayal, C;
Moeendarbary, E;
Shipley, R;
Phillips, J;
(2020)
Mechanical response of neural cells to physiologically relevant stiffness gradients.
Advanced Healthcare Materials
, 9
(8)
, Article 1901036. 10.1002/adhm.201901036.
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Kayal, C;
Shipley, RJ;
Phillips, JB;
(2019)
Physical and mechanical properties of RAFT-stabilised collagen gels for tissue engineering applications.
Journal of the Mechanical Behavior of Biomedical Materials
, 99
pp. 216-224.
10.1016/j.jmbbm.2019.07.011.
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Muangsanit, P;
Day, A;
Dimiou, S;
Ataç, AF;
Kayal, C;
Park, H;
Nazhat, SN;
(2020)
Rapidly formed stable and aligned dense collagen gels seeded with Schwann cells support peripheral nerve regeneration.
Journal of Neural Engineering
10.1088/1741-2552/abaa9c.
(In press).
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Proceedings paper
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Coy, R;
Kennedy, G;
Kayal, C;
O'Rourke, C;
Kingham, P;
Phillips, J;
Shipley, RJ;
(2016)
A mathematical model informed by in vitro experiments to advance engineered nerve repair construct design.
In:
(Proceedings) Tissue and Cell Engineering Society.
(pp. p. 36).
European Cells & Materials Ltd
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Kayal, C;
Shipley, RJ;
Phillips, J;
(2016)
Effect of collagen gel concentration gradients on neurite elongation.
In:
European Cells and Materials - Volume No 32 - Supplement 4.
(pp. p. 83).
European Cells & Materials Ltd
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Kennedy, G;
Coy, R;
Kayal, C;
O'Rourke, C;
Kingham, P;
Shipley, RJ;
Phillips, J;
(2016)
In vitro experiments to inform cell seeding strategies and parameterize a mathematical model for peripheral nerve repair.
In:
European Cells and Materials - Volume No 32 - Supplement 4.
(pp. p. 21).
European Cells & Materials Ltd
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Thesis
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Kayal, Celine;
(2019)
Spatial Control of Mechanical Factors: a New Design Rationale for Nerve Tissue Engineering.
Doctoral thesis (Ph.D), UCL (University College London).
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