Morteza Aramesh

This paper introduces a dynamically reconfigurable nanopore, PEIN, enabling controlled molecular transport and demonstrating size-selective gating with sub-nanometre precision.

This study develops tunable porcine skin-derived hydrogels for 3D bioprinting, optimizing their mechanical properties and printability to support cellular growth and structure formation.

This paper introduces a high-throughput microfluidic platform for measuring cell mechanical properties in liquid and solid biopsies, enabling rapid and accurate mechanical phenotyping of cancer cells.

This study shows that nanoporous surfaces enhance cellular uptake of genetic material and other molecules by inducing macropinocytosis, with optimal pore size of 400 nm.