Campbell W. Gourlay

The paper uses experiments and a mathematical model to show that higher agar density increases yeast biofilm adhesion and decreases nutrient uptake.

This study analyzes C. albicans biofilm formation using multiscale fluorescence microscopy and introduces new quantification methods to understand growth dynamics and environmental influences.

This paper develops a continuum model incorporating accidental and regulated cell death to study yeast colony biofilm growth and morphology, showing qualitative agreement with experiments.

This study shows that C. albicans biofilm formation alters dielectric properties, which can be monitored using passive RFID for biofilm detection.

This study characterizes phenotypic plasticity in EGFR inhibitor-resistant NSCLC cell lines, showing diverse resistance mechanisms and metabolic adaptations across sublines.

This paper develops engineered yeast biofilms that deliver PET-degrading enzymes directly to substrates, demonstrating a proof-of-principle for biofilm-based bioremediation without enzyme purification.

This paper introduces a low-cost respirometry assay for C. elegans using optical oxygen sensors and fluorescence readers, showing it can accurately measure OCR and identify issues with sequential respiratory inhibitor use.

This study shows that alternative oxidase (Aox) in Candida albicans helps resist respiratory stress and supports hyphal growth, enhancing survival and virulence.