Claire Wilhelm

This study shows that mechanical stretching of C2C12 myoblasts leads to 3D tissue formation and muscle differentiation, with surface regions showing increased differentiation activity.

This paper introduces a hydrodynamic method to produce extracellular vesicles from stem cell spheroids, showing increased yield and distinct protein cargo profiles under hydrodynamic stimulation.

This study introduces magnetic bioprinting to control tissue geometry and mechanical forces in skeletal muscle, enabling shape fabrication and mechanical property investigation.

This paper develops a label-free platform combining microfluidics, morphological analysis, and machine learning to predict chemotherapy effects on tumor spheroids, showing robust performance across cell lines and patient-derived samples.

This paper applies magnetite nanoparticle photothermal therapy in a pancreatic tumor-on-chip model to target cancer cells and their microenvironment, showing increased cell death and matrix changes.

This study develops a magnetic bioprinting method to create stretchable, shape-controlled skeletal muscle tissues that maintain their form and enhance maturation through magnetic stimulation.