Elliott W.Z. Weix

The paper introduces RIPPLE, a synthetic system that uses reaction-diffusion waves to generate tunable subcellular structures by coupling IDR sequences to a two-protein RD circuit.

The paper experimentally defines and models phase portraits of genetically encoded oscillators in yeast, showing how noise influences frequency and amplitude, enabling noise-guided design of synthetic protein dynamics.

This paper develops a genetically encoded protein oscillator system for real-time single-cell data streaming, demonstrating its use in tracking developmental states during differentiation.

This paper introduces a programmable reaction-diffusion system using MinD and MinE proteins to engineer spatiotemporal signaling in mammalian cells, enabling frequency-barcoded fluorescence signals for analyzing cellular activities.