Physical Principles Underlying Patterning of the Vertebrate Body Axis

Speaker(s)

Olivier Pourquié

Harvard Medical School

Events

Morphogenesis Across Scales: Molecular Control of Cellular Shape

Fluid Flows Organising Morphology

Modulation of Gene Expression by an Actin-Dependent Pressure Gradient in Mouse Oocytes

Dynamic Coupling of Adhesion, Signaling and Force Generation during Neural Tube Closure

Hydraulic Fracturing and Coarsening Position the Lumen of the Mouse Blastocyst

Physics of Epithelial Flows and Folds

Cell Shape Changes in a Folding Epithelium: Genetically and Mechanically Determined Boundaries

Mechanical Control of Avian Gastrulation

Molecular Mechanisms Underlying Epithelial Viscoelasticity in the Drosophila Wing

Bulk Actin Dynamics Drives Active Phase Segregation in Zebrafish Oocyte

Physical Principles Underlying Patterning of the Vertebrate Body Axis

Physical Principles Underlying Patterning of the Vertebrate Body Axis

Speaker(s)

Olivier Pourquié

Events

Morphogenesis Across Scales: Molecular Control of Cellular Shape

Fluid Flows Organising Morphology

Modulation of Gene Expression by an Actin-Dependent Pressure Gradient in Mouse Oocytes

Dynamic Coupling of Adhesion, Signaling and Force Generation during Neural Tube Closure

Hydraulic Fracturing and Coarsening Position the Lumen of the Mouse Blastocyst

Physics of Epithelial Flows and Folds

Cell Shape Changes in a Folding Epithelium: Genetically and Mechanically Determined Boundaries

Mechanical Control of Avian Gastrulation

Molecular Mechanisms Underlying Epithelial Viscoelasticity in the Drosophila Wing

Bulk Actin Dynamics Drives Active Phase Segregation in Zebrafish Oocyte

Physical Principles Underlying Patterning of the Vertebrate Body Axis

Signals and Forces Patterning the Intestinal Smooth Muscle

See also