Roy Bar‐Ziv

This paper develops a cell-free biochip platform to profile antibody-antigen interactions and epitope specificity using SARS-CoV-2 antigens and human sera.

This study transplants E. coli chromosomes into artificial cells and shows transcription-dependent swelling and condensin-mediated compaction.

The paper demonstrates 2D collective modes in genetically programmed artificial cells on a chip, showing synchrony and phase waves controlled by geometry.

The paper demonstrates autonomous biogenesis of the entire protein translation machinery excluding ribosomes by using surface-immobilized DNA brushes to catalyze and concentrate the synthesis of all required components.

The paper demonstrates a single DNA molecule-based genetic circuit that functions as a dissipative nanodevice by enabling coexpressional localization of proteins.

This study shows that decision-making in synthetic cells can shift from slow and precise to rapid and probabilistic by reducing the number of computing molecules to single-molecule levels.