Neel S. Joshi

The paper demonstrates a multiplexed biosensing system using genetically distinct microbial strains in a microfluidic device to monitor multiple chemicals simultaneously with stable signal output.

This paper engineers E. coli curli fibers to inhibit TLR2 activation, demonstrating that direct receptor antagonism is more effective than steric shielding for immune modulation.

The paper introduces iDP2, a platform for displaying intrinsically disordered proteins on E. coli to program material properties through self-segregation and environmental responsiveness.

This paper introduces MECHS, a compostable, healable, and scalable engineered living material made from bacterial biomass with tunable mechanical properties.

This paper develops a microbial ink for 3D printing living materials using genetically engineered E. coli cells that self-assemble into nanofiber networks capable of sequestering toxins and releasing biologics.

This paper describes a method to produce hybrid living capsules using engineered bacteria, enabling programmable material properties and enzymatic functions.

This paper demonstrates the creation of stiff living materials made entirely from microbial cells that can self-regenerate and resist organic solvents.