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poroelasticity

PINNs for solving multiphase poroelasticity relations

Submitted by haghighat on

Link to the paper - PINN-Poroelasticity

If you are interested in physics informed neural networks (PINNs) and coupled single and multiphase flow in porous media, please check out our work below: 

- We find it challenging to solve coupled poroelasticity relations using PINNs (data-free).

Living cells behave as fluid-filled sponges

Submitted by emadmoeen on
Animal cells behave like fluid-filled sponges in response to being mechanically deformed according to new research published in Nature Materials.

Scientists from the London Centre for Nanotechnology at UCL have shown that animal cells behave according to the theory of ‘poroelasticity’ when mechanically stimulated in a way similar to that experienced in organs within the body. The results indicate that the rate of cell deformation in response to mechanical stress is limited by how quickly water can redistribute within the cell interior.

PhD Studentship: Numerical modelling of fault formation, Imperial College, London, UK

Submitted by apaluszn on

PhD Studentship: Numerical modelling of fault formation



IMPERIAL COLLEGE, LONDON, UNITED KINGDOM



APPLICATION DEADLINE: 15 NOVEMBER 2012



***UK/EU Student Funding*** - ***Any International Student will require additional tuition payment***



Call for special issue papers: Mechanics of cells, tissues, and biomaterials

Submitted by azadpoor on

The paramount role of mechanics in life has recently been the center of attention of many researchers. This special issue will be focusing on the role of mechanics in the life of cells and tissues and their interactions with biomaterials. Original research and review papers are solicited for review and publication in the journal Mechanical Sciences . Mechanical Sciences is an academic open-access journal sponsored by the Library of Delft University of Technology and The Netherlands Organization for Scientific Research (NWO).