Global Seminar Series on Interdisciplinary Mechanics In this seminar, Prof. Stéphane P.A. Bordas discusses the role of mechanics on cancer cell proliferation.
Stéphane Bordas, Chair of Computational Mechanics at the University of Luxembourg, Fellow of the Learned Society of Wales, received his education in France and the USA where he earned his PhD from Northwestern University (2004). He became full professor in 2009 at Cardiff University, where he led the Institute of Mechanics and Advanced Materials. He is the founding director of the Doctoral Programme of Computational and Data Science at the University of Luxembourg.
In his current role, he leads a team of interdisciplinary researchers who work on various projects. His research interests include the development and application of computational methods in structural mechanics, materials science, energy, environmental science, archaeology, medicine and bioengineering. Professor Bordas is a renowned expert in developing numerical methods to solve complex engineering and multi-disciplinary problems and helping users develop intuition on counter-intuitive complex systems.
To date, he authored over 300 papers, in prestigious international journals. His research has been cited over 22,000 times. He and his team received many awards and distinctions, including the Beltrami prize and Fellowship of the Learned Society of Wales.
As an active member of the international engineering community, he reviews for numerous funding agencies and serves on the editorial boards of several leading journals. He is also known for his mentorship and leadership abilities, which he applied to develop strong multi-disciplinary teams. Professor Bordas is also the Editor-In-Chief of Advanced in Applied Mechanics, a highly respected journal in the field of Mechanics.
Table of Contents:
00:04 - Tissue scale
00:05 -
00:05 - Modeling a tumor spheroid
00:05 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:06 - Modeling a tumor spheroid
00:07 - Modeling a tumor spheroid
00:07 - Modeling a tumor spheroid
00:07 - Modeling a tumor spheroid
00:07 - Aggregate scale
00:07 - Aggregate scale
00:07 - Aggregate scale
00:08 - Aggregate scale
00:08 -
00:08 -
00:08 -
00:08 -
05:09 - Online Global Seminar SeriesFrontiers in Interdisciplinary Mechanics
05:19 - Part I.
05:21 -
05:44 - Aggregate scale
14:53 - Online Global Seminar SeriesFrontiers in Interdisciplinary Mechanics
19:59 - Legato-team Luxembourg
20:57 - inCERT: Computer assisted surgery with confidence
22:52 - Part I.
23:13 -
25:48 -
27:10 - Multiphase flow poromechanics
28:06 - Living tissue models
28:29 - Living tissue models
28:47 - Poromechanical modeling
29:32 - Brain tissue porochemical modeling
30:14 -
31:42 -
32:55 -
33:28 -
33:31 -
33:38 -
34:12 -
34:36 -
35:32 -
36:12 -
36:19 - Muscle tissue consolidation test
36:47 - Muscle tissue consolidation test
37:07 - Muscle tissue consolidation test
39:20 - Brain tissue
40:17 - Brain tissue
41:24 -
41:36 - What does mechanics have to do with cancer?
41:43 - What does mechanics have to do with cancer?
42:14 - Cancer is a multi-scale disease
and Mechanical stress applies at multiple scales
43:24 - Culture in increasingly stiff environments
45:07 - Aggregate scale
46:22 - Tissue scale
46:50 - Tissue scale
48:56 -
48:57 - Modeling a tumor spheroid
49:18 - Modeling a tumor spheroid
49:47 - Modeling a tumor spheroid
50:13 - Modeling a tumor spheroid
50:19 - Modeling a tumor spheroid
50:37 - Modeling a tumor spheroid
50:38 - Modeling a tumor spheroid
50:38 - Modeling a tumor spheroid
50:49 - Modeling a tumor spheroid
51:03 - Modeling a tumor spheroid
51:12 - Modeling a tumor spheroid
51:24 - Modeling a tumor spheroid
51:24 - Modeling a tumor spheroid
51:28 - Modeling a tumor spheroid
51:32 - Modeling a tumor spheroid
51:44 - Aggregate scale
52:30 - Aggregate scale
54:04 - Aggregate scale
55:04 - Aggregate scale
55:23 -
55:51 -
58:31 -
01:00:17 -
01:00:32 -
01:01:39 - Patient-specific MRI-informed modeling
01:05:16 -
01:05:35 -
01:07:41 -
01:07:42 -
01:07:42 -
01:07:43 -
01:07:48 -
01:09:10 -
01:10:23 - From MRI to FE
01:10:24 -
01:10:24 -
01:10:25 -
01:10:32 - From MRI to FE
01:10:48 -
01:12:27 -
01:14:01 -
01:14:43 -
01:16:01 - References
01:16:26 - Publications
01:17:21 - \
01:17:31 -
01:17:32 - Tua
01:17:36 -
01:17:37 - Tua
01:17:38 -
01:17:39 - \
01:17:39 - Publications
01:17:55 - References
01:23:52 - Publications
01:23:53 - References
01:23:53 -
01:23:53 -
01:23:53 -
01:23:54 -
01:23:54 - From MRI to FE
01:23:54 -
01:23:54 -
01:23:54 -
01:23:54 -
01:23:55 - Patient-specific MRI-informed modeling
01:23:55 -
01:23:55 -
01:23:55 -
01:23:55 -
01:23:55 -
01:23:55 - Aggregate scale
01:23:55 - Aggregate scale
01:23:55 - Aggregate scale
01:23:55 - Aggregate scale
Table of Contents:
23 май 2023
