Claire E. Stanley

The paper introduces a sample-loading strategy for microfluidic spore germination monitoring, enabling multiplexed experiments by allowing multiple spore strains to be tested in different microenvironments.

The paper introduces a photolithographic method to pattern sealed microfluidic devices with biomolecules, demonstrating versatility in surface modification and comparing covalent and noncovalent DNA binding.

This paper uses a new microfluidic device to study asymbiotic hyphal interactions of Rhizophagus irregularis, revealing effects of fatty acids and lane configuration on hyphal growth and anastomosis.

This paper introduces a microfluidic platform to study fungal highways, showing Pythium ultimum enables Pseudomonas putida movement through hyphal networks.

A microfluidic platform enables single-cell study of spore germination across multiple growth conditions, revealing new insights into germination dynamics in three soil-dwelling species.

This study develops a microfluidic method to visualize and quantify liquid movement along hyphae of fungal and fungal-like organisms at the cellular level.