M. Suzuki

This study uses portable lab equipment to analyze antimicrobial-resistant bacteria in Cambodia, identifying specific resistance genes and their plasmid locations.

This study identifies three barley genes regulating the plastochron and leaf growth, showing both conserved and species-specific mechanisms compared to rice.

The paper shows that heat hypersensitive RyR1 mutants cause heat-induced Ca2+ release, contributing to malignant hyperthermia through a positive feedback loop.

This study traces the emergence and spread of antimicrobial resistance in Neisseria gonorrhoeae by analyzing genome sequences from multiple countries and time periods, revealing recombination events and antibiotic-driven mutations.

This paper develops a DNA chromatography method to rapidly distinguish M. abscessus subspecies and determine macrolide susceptibility with high accuracy.

This study identifies SIDT2 as a mediator of microautophagy that delivers cytosolic proteins into lysosomes, linking proteostasis to protein aggregation disease.

The paper identifies two renal D-serine transport systems, revealing ASCT2 as a noncanonical substrate of SMCTs and highlighting their physiological and pathological roles.

The paper measures intracellular thermal conductivity in HeLa cells using a hybrid diamond nanosensor, finding a mean value of 0.11 Wm-1K-1 with 40% variation.

The paper characterizes blaNDM-1-carrying plasmids in Vietnamese Enterobacterales isolates, identifying horizontal plasmid transfer and resistance gene co-occurrence.

This study uses long-read metagenomic sequencing to identify novel bacteriophages and their interactions with host immunity in the oral microbiota.

This study develops CRISPR-Cas13a-based antimicrobials that kill target bacteria by cleaving RNA, showing effectiveness against carbapenem-resistant E. coli and methicillin-resistant S. aureus.

The paper develops a laser-based system for automated removal of differentiated cells from pluripotent stem cell cultures using light-responsive polymers and machine learning.

The paper reports an atomic resolution structure of proteinase K at ambient temperature using serial femtosecond crystallography, revealing hydrogen atoms, water molecules, and side-chain conformations.