Research Articles

Pterocarya fraxinifolia extract encapsulated in ZIF‐8 (a metal-organic framework) shows promise as an antimicrobial agent. This study highlights the composite's superior efficacy against Candida albicans and Escherichia coli, owing to sustained release, structural protection, and synergism. These results underline its potential as a green alternative for combating resistant pathogens.

This study explores nanocomposite hydrogels augmented with silver nanoparticles (Ag NPs) for antimicrobial and environmental applications. With remarkable antifungal action against Candida albicans and 92% dye removal efficiency, these hydrogels offer biocompatible solutions for advanced wound care and water purification, driven by the unique properties of gum acacia and poly(methacrylic acid).

The Environmental Tolerance Mismatch Hypothesis (ETMH) posits that pathogen severity hinges on host-pathogen environmental performance disparities. This study leverages thermal niches from species occurrence data to validate ETMH, revealing that Batrachochytrium dendrobatidis prevalence in frogs decreases with thermal mismatches, suggesting a predictive model for pathogen impacts.

The study identifies Fusarium neoglobosum as a novel species within the Asian clade of the Fusarium fujikuroi complex, distinct from F. globosum. Analyzed strains from Japan and Russia reveal heterothallic sexual reproduction and varied mycotoxin production, with notable fumonisin synthesis. This research expands the geographic distribution of F. neoglobosum to East and North Asia.

Global epistasis, where genetic effects are fitness-dependent, is explored in Saccharomyces cerevisiae through DNA barcode sequencing of 169 progeny under CRISPRi perturbations. Findings reveal that fitter segregants are more sensitive to genetic changes, identifying 58 loci whose interactions contribute to global epistasis and largely overlap with those affecting unperturbed fitness.

Candida glabrata, a significant pathogen in invasive candidiasis, employs unique stress adaptation mechanisms to thrive under oxidative stress and amino acid starvation, diverging from C. albicans' reliance on hyphae. This research uncovers the critical role of Gcn2-Gcn4 in downregulating protein translation, enhancing survival, and maintaining virulence in host macrophages under nutrient deprivation.

Prenylated indole alkaloids, significant for their biological activity, include the complex C3a-reverse prenylated natural products synthesized through metal-catalyzed reactions. This study unveils an iridium-catalyst system for the first enantioselective reverse prenylation of 3-substituted indoles, achieving high yield and selectivity, advancing synthetic capabilities for tryptamine-derived alkaloids.

Nanomaterials are materials engineered at the nanoscale, often exhibiting unique properties, while antifungal nanomedicines utilize these to combat fungal infections. This research examines the mechanisms of interaction between nanomaterials and fungi, highlighting cell damage processes. It offers insights crucial for the future engineering of innovative antifungal nanomedicines.

Nucleotide-binding leucine-rich repeat receptors (NLRs) are proteins that detect pathogens in plants. This study reveals that a single engineered NLR conferred broad-spectrum immunity against various pathogens, including fungi. Demonstrating resistance against potyviruses, the findings imply potential applications in controlling diverse threats in agriculture, enhancing plant protection strategies.

Fusarium crown rot (FCR) is a soil-borne disease devastating common wheat yields. This study identifies a novel 18.6 kDa heat shock protein (TaHSP18.6) and its interplay with lysine deacetylase (TaSRT1) in conferring FCR resistance by modulating auxin levels. Overexpression and genetic mutations reveal TaHSP18.6’s role, highlighting a potential pathway for enhanced wheat resilience.

The study introduces Kiyamyces sequoiae, a new fossil genus and species of thyriothecioid stromata fungi on sequoioid leaves from Western Siberia's Albian-Cenomanian period. These epiphyllous fungi showcase unique structural characteristics and extend our understanding of early Cretaceous Dothideomycetes, illuminating plant-fungi co-evolutionary dynamics.

This study investigates the use of tunicate-derived carboxymethylcellulose hydrogels to encapsulate Bacillus velezensis FZB42 spores, aiming to enhance biocontrol against alkaline-favoring fungal pathogens like Fusarium graminearum. By improving spore stability and offering controlled release, this method provides an eco-friendly strategy, utilizing marine waste for sustainable agriculture.