Josh V. Vermaas

This study shows that phosphate availability influences cell wall remodeling in C. albicans under oxidative stress, linking nutrient sensing to fungal mechanical resilience.

This study presents molecular structures of PSI-PtNP biohybrids to reveal design principles for optimizing solar-fuel production through protein-nanoparticle interfaces and electron transfer efficiency.

This paper demonstrates that heterologous Pdu BMCs in E. coli can metabolize a broader range of diols and triols than previously known, including glycerol and up to 1,2-pentanediol, and shows their potential for biotechnological applications.

This study shows that encapsulating the enzyme TPI in HO BMC shells improves its thermal stability up to 62°C.

This study identifies an amphipathic helix in Fibrillins as essential for their association with plastoglobule lipid droplets and shows its role in fatty acid binding.

The paper screens Atg11 residues in yeast to identify binding sites for Atg9 during selective autophagy but fails to find specific essential residues.

This study shows IRE1 regulates TOR signaling through RIDD of RAPTOR1b mRNA, linking ER stress sensing to stress adaptation and growth regulation.

The paper uses SAXS and PDDF to analyze BMC shell structures and enzyme encapsulation in Haliangium ochraceum BMCs expressed in E. coli, showing cytoplasmic protein capture during assembly.

The paper identifies a new function of an enzyme in bacterial microcompartments, proposing NAD+ regeneration and a role for the shell in redox separation.

This study enhances the thermostability of the photorespiratory enzyme glycerate 3-kinase using structure-based recombination guided by molecular dynamics simulations.

The paper compares pore structure and dynamics in bacterial microcompartment shell proteins under different geometries using molecular modeling and simulations.

The paper investigates how fungal cell wall remodeling in response to echinocandins leads to drug resistance by altering carbohydrate polymer assembly and physical properties.

The paper determines the structure of the ChAdOx1 adenovirus vector and identifies interactions with CAR and PF4, proposing a mechanism for vaccine-induced immune thrombotic thrombocytopenia.