Jeffrey A. Lewis
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Associate Professor
Also affiliated: University of Wisconsin–Madison (2003–2014); Great Lakes Bioenergy Research Center (2010–2014)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Jeffrey A. Lewis's research program focuses on understanding the genetic and molecular underpinnings of biological variation, particularly in microbial systems relevant to bioenergy production and stress resistance.
His work has investigated the genetic architecture of ethanol-responsive transcriptome variation in Saccharomyces cerevisiae, identifying genes that contribute to increased ethanol resistance. Lewis has explored the use of natural variation within S. cerevisiae for bioenergy production through comparative genomics. He has also studied the function of specific bacterial enzymes, such as the FAD-dependent tricarballylate dehydrogenase (TcuA) from Salmonella enterica, and the genetic regulation of tricarballylate utilization pathways in Salmonella. A significant portion of his federally funded research, including a $401,254 grant from the NIH/National Institute of General Medical Sciences, investigates the genetic basis of variation in post-transcriptional regulation of stress defense. He has also served as PI on a $151,929 NSF grant for a CAREER Awardee Conference.
Lewis's publication record includes work on RNA isolation methods for RNA-Seq, highlighting implications for differential expression and meta-analyses. His scholarship metrics include an h-index of 17, 82 total publications, and 894 total citations. He actively collaborates with researchers at the University of Arkansas at Fayetteville, including Stephanie E. Hood, Carson Stacy, Tara Stuecker, and Andrew J. Alverson, with whom he shares multiple publications.
Metrics
- h-index: 15
- Publications: 67
- Citations: 732
Positions
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Associate Professor 2013–presentUniversity of Arkansas Department of Biological Sciences ORCID
Selected Publications
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Additional file 2 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 2 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 5 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 5 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Reproducibility Bundle for "MIC*: A Framework for Interpretable Analysis of Ordinal Viability Data" (2026)
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Reproducibility Bundle for "MIC*: A Framework for Interpretable Analysis of Ordinal Viability Data" (2026)
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Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Dynamic global acetylation remodeling during the yeast heat shock response (2026)
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Dynamic global acetylation remodeling during the yeast heat shock response (2026)
Federal Grants 2 $553,183 total
The Genetic Basis of Variation in Post-Transcriptional Regulation of Stress Defense
Collaboration Network
Top Collaborators
- Linkage mapping of yeast cross protection connects gene expression variation to a higher-order organismal trait
- Natural variation in yeast reveals multiple paths for acquiring higher stress resistance
- Independent Mechanisms for Acquired Salt Tolerance versus Growth Resumption Induced by Mild Ethanol Pretreatment in Saccharomyces cerevisiae
- Do biofilm communities respond to the chemical signatures of fracking? A test involving streams in North-central Arkansas
- Linkage mapping of yeast cross protection connects gene expression variation to a higher-order organismal trait
Showing 5 of 25 shared publications
- Natural variation in yeast reveals multiple paths for acquiring higher stress resistance
- Dynamic global acetylation remodeling during the yeast heat shock response
- Improved vectors for retron-mediated CRISPR-Cas9 genome editing in Saccharomyces cerevisiae
- Natural variation in yeast reveals multiple paths for acquiring higher stress resistance
- Improved vectors for retron-mediated CRISPR-Cas9 genome editing in Saccharomyces cerevisiae
Showing 5 of 18 shared publications
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome Using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 15 shared publications
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome Using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 15 shared publications
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome Using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 15 shared publications
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome Using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome using Tandem Mass Tags
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 13 shared publications
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome Using Tandem Mass Tags
- Dynamic global acetylation remodeling during the yeast heat shock response
- Accurate and Sensitive Quantitation of the Dynamic Heat Shock Proteome using Tandem Mass Tags
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 13 shared publications
- Dynamic global acetylation remodeling during the yeast heat shock response
- Dynamic global acetylation remodeling during the yeast heat shock response
- Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 13 shared publications
- Comparison of RNA isolation methods on RNA-Seq: implications for differential expression and meta-analyses
- Linkage mapping of yeast cross protection connects gene expression variation to a higher-order organismal trait
- Natural variation in yeast reveals multiple paths for acquiring higher stress resistance
- A Wild Yeast Laboratory Activity: From Isolation to Brewing
- Comparison of RNA Isolation Methods on RNA-Seq: Implications for Differential Expression and Meta-Analyses
Showing 5 of 12 shared publications
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 10 shared publications
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 10 shared publications
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 10 shared publications
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 3 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 4 of Dynamic global acetylation remodeling during the yeast heat shock response
- Additional file 1 of Dynamic global acetylation remodeling during the yeast heat shock response
Showing 5 of 10 shared publications
- The dynamic response to hypo‐osmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
- The genome of a nonphotosynthetic diatom provides insights into the metabolic shift to heterotrophy and constraints on the loss of photosynthesis
- The Divergent Responses of Salinity Generalists to Hyposaline Stress Provide Insights Into the Colonisation of Freshwaters by Diatoms
- The dynamic response to hypoosmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
- The dynamic response to hypoosmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
Showing 5 of 9 shared publications
- The dynamic response to hypo‐osmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
- The Divergent Responses of Salinity Generalists to Hyposaline Stress Provide Insights Into the Colonisation of Freshwaters by Diatoms
- The dynamic response to hypoosmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
- The dynamic response to hypoosmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
- The dynamic response to hypoosmotic stress reveals distinct stages of freshwater acclimation by a euryhaline diatom
Showing 5 of 6 shared publications
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