Microsystems for Enhanced Control of Cell Behavior

Some introductory notesto cell behavior.- Brief introduction to the field of biomedical microsystems.- Briefintroduction to bio-microsystems for interacting with cells.- Common bioengineering resources for interacting with cells.- Methodologiesfor the development of bio-microsystems.- Addressing the complexity ofbiomaterials by biomimetic CAD.- Multi-scale andmulti-physical/biochemical modeling in bio-MEMS.- Rapid prototyping ofbio-MEMS for interacting with cells.- Nanomanufacturing for biomedicalMEMS.- Issues linked to the mass-production of biomedical microsystems.- Biomedicalmicrosystems for disease management.- Overview of microsystems forstudying cell behavior under culture.- Microsystems forstudying cell adhesion, dynamics and and overallmechanobiology.- Smart microsystems for active cell culturetoward relevant tissues.- Tissue engineering scaffolds for 3D cellculture.- Tissue engineering scaffolds for bone repair: General aspects.- Tissueengineering scaffolds for bone repair: Dental repair.- Tissue engineeringscaffolds for repairing soft tissues.- Tissue engineering scaffolds forosteochondral repair.- From labs-on-chips to microfluidic cell culture.- Cell-basedsensors and cell-based actuators.- Towards reliable organs-on-chips andhumans-on-chips.- Towards effective and efficient biofabricationtechnologies.- Project-based learning in the field of biomedicalmicrosystems.- Annexes.

Andrés Díaz Lantada is Associate Professor at Technical University of Madrid (UPM), Spain, teaching 'Design and manufacture with polymers', 'Computer-aided engineering', and 'Bioengineering. He carries out research at the UPM Product Development Laboratory linked to the development of biomedical devices based on smart/multifunctional materials, biomimetic fractal and non-Euclidean designs, and mechanical metamaterials for enhanced performance and adequate tissue interaction.