University of Washington

Curi Bio, Inc.

Jiao, Alex

Kim, Deok-Ho

Gupta, Kshitiz

Murry, Charles

Laflamme, Michael

Yoo, Hyok

Deok-Ho Kim

Charles E Murry

Michael Laflamme

Alex Jiao

Kevin Gray

Kshitiz Gupta

Peter Kim

Andre Levchenko

Hyok Yoo

Jongseob Choi

The present invention generally relates to the field of cell growth and tissue engineering, in particular, an engineered biomimetic culture platform (BCP) that has a nanotextured and micropatterned surface that provides both chemical and mechanical cues designed to mimic the structure of the in vivo extracellular micro-environment. The BCP can be used in assays to assess the migratory behavior and/or potential of a population of cells, such as tumor cells, as well as in screening assays for diagnostic and/or prognostic purposes, or to identify agents that modify the migratory behavior or the epithelial-to-mesenchymal transition (EMT) of cells. BCPs as described herein further provide a platform for the identification of protein or genetic targets for the modification of cell migratory or invasion behavior.

Micro- and nanopatterned substrates for cell migration and uses thereof

The present invention generally relates to the field of cell growth and tissue engineering, in particular, tissue engineered compositions comprising a nanotextured substrate which is structurally configured for growth of cells in an anatomically correct adult phenotype in vitro. In particular, described herein are nanotextured substrates which are structurally configured for the anisotropic organization, maturation, and growth of in vitro-differentiated muscle cells, such as cardiomyocytes, and methods for the production and use thereof in varying sizes, nanotextures and substrate rigidities. In vitro-differentiated cardiomyocytes grown on the nanotextured substrates described herein are better-differentiated and more closely mimic adult cardiac tissue than the same cells grown on a non-textured substrate of the same composition. The nanotextured substrate/cell constructs provide a platform for screening to predict the effect of test agents or drugs on, for example, human cardiac tissue, including patient-derived tissue, or for the identification of agents that effect various cardiac functional parameters.

Systems and method for engineering muscle tissue

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Seattle, WA, United States of America

Deok-Ho Kim