Author

Tomohisa Hasunuma

Kobe UniversityORCID 0000-0002-8382-2362Unclaimed ORCID profile · follow to get notified of new preprints

Biology Disciplines

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Biochemistry· 1 Bioengineering· 1 Systems Biology· 1

Signature Assays, Organisms & Methods

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Assay:metabolomics· 2 Organism:yeast· 2 Organism:C. elegans· 1 Approach:deep learning· 1 Research Focus:differential expression· 1 Approach:experimental assay· 1 Research Focus:gene regulatory network inference· 1 Research Focus:metabolism & bioenergetics· 1

Frequent Co-Authors

Akihiko KondoiD· 2 shared Anna KarlssoniD· 1 shared Anna Zoey SchuppeiD· 1 shared Axel KnaveiD· 1 shared Christopher John VavrickaiD· 1 shared Elton Paul HudsoniD· 1 shared Emil SporreiD· 1 shared Hal S. AlperiD· 1 shared

Activity by Year

2025-2026 · peak 2/yr

Co-Author Collaboration Network

10 top collaborators · 21 mutual co-author links

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2 shared papersSystems Biology

Akihiko KondoORCID

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3 papers

Recent·Most cited

BiochemistryScience AdvancesPeer-reviewedSep 4, 2026

The fitness landscape of a Form II Rubisco in a photosynthetic bacterium guides engineering of oxygen tolerance

Ute A. Hoffmann, Axel Knave, Anna Zoey Schuppe…·Elton Paul Hudson

The paper screens variants of a Form II Rubisco to improve oxygen tolerance, identifies key mutations, and uses a transformer model to guide engineering.

2 citations

C. elegansproteomics

𝕏 PostBluesky

Systems BiologyLife Science AlliancePeer-reviewedAug 22, 2025

Genome-scale prediction of gene ontology from mass fingerprints reveals new metabolic gene functions

Christopher John Vavricka, Masao Mochizuki, Satoshi Yuzawa…·Michihiro Araki

This study uses MALDI-TOF mass fingerprints to predict gene ontology annotations in yeast knockouts, identifying new metabolic gene functions.

DOI 10.26508/lsa.202403154

yeastmetabolomics

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BioengineeringApplied Microbiology and BiotechnologyPeer-reviewedJan 28, 2025

Engineering Saccharomyces cerevisiae for growth on xylose using an oxidative pathway

Kenya Tanaka, Takahiro Yukawa, Takahiro Bamba…·Tomohisa Hasunuma

This study engineered Saccharomyces cerevisiae to grow on xylose via oxidative pathways, achieving 1.5 g/L ethylene glycol production and enabling xylose utilization through both Dahms and Weimberg pathways.

9 citations

yeastmetabolomics

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