Martín Gutiérrez

This study shows that interacting bacteria can achieve collective chemotactic localization through structural cohesion, even when individual chemotaxis fails, under temporally correlated noise.

This study shows that the temporal structure of environmental noise, not its amplitude, controls chemotactic population behavior by influencing stability and tracking accuracy.

This paper designs a framework to generate stable Voronoi-like spatial partitions in bacterial populations using CRISPR-Cas9 and quorum sensing, showing that irreversible commitment and parameter tuning are key to robust organization.

This paper proposes a framework mapping metaheuristic algorithms to synthetic cell circuits using intercellular communication, demonstrating it with Genetic Algorithms and Simulated Annealing.

The paper introduces an improved version of the gro simulator with enhanced performance, new functionalities, and libraries for simulating multicellular bacterial systems.