Eric W. Schmidt is a Distinguished Professor of Medicinal Chemistry at the University of Utah, with adjunct appointments in Biological Sciences and Chemistry. His research focuses on natural products chemistry, biosynthesis, synthetic biology, and pharmaceutical applications of marine animal microbiomes. University of California, San Diego (BS, PhD) Research areas include: Biosynthesis in animals and their microbiomes Synthetic biology approaches to chemical engineering Drug design from marine natural products Metagenomic analysis of symbiotic relationships Neuroactive compound discovery Antibiotic development against resistant pathogens His lab has pioneered methods for: Biosynthetic gene cluster identification Heterologous expression in E. coli Enzymatic modification of peptides Chemical analysis of marine invertebrates Recent publications highlight discoveries in: Marine animal chemical defense mechanisms Evolution of biosynthetic pathways Antibiotic resistance profiling Ionic channel-targeting compounds Peptide macrocyclization techniques Lipid-polyketide biosynthesis continuum Email: ews1@utah.edu Honors include: Distinguished Professor recognition
Dr. Andre Kahles is a Lecturer in the Department of Computer Science at ETH Zürich, specializing in biomedical informatics. His research focuses on computational methods for analyzing large-scale genomic and transcriptomic data, with applications in cancer genomics, metagenomics, and precision medicine. He has contributed to the development of tools such as SplAdder for alternative splicing analysis, MetaGraph for petascale genomic data exploration, and SECEDO for subclone detection in cancer genomes. His work bridges algorithmic innovation with biological insights, addressing challenges in single-cell analysis, genome graph alignment, and multi-omics integration. Key research themes include: Developing scalable algorithms for processing nanopore sequencing and metagenomic data Characterizing somatic mutations and non-coding drivers in cancer genomes Advancing genome graph-based alignment and annotation methods Integrating multi-omics data for clinical decision-making and tumor profiling His publications span topics like RNA-seq analysis, chromothripsis in cancers, and global urban microbiome tracking through the MetaSUB consortium. Kahles has collaborated on landmark projects including the Pan-Cancer Analysis of Whole Genomes (PCAWG) and the Tumor Profiler Study.
Associate Professor Colin Jackson is affiliated with the Research School of Chemistry at the Australian National University College of Physical & Mathematical Sciences . His research spans enzyme engineering, synthetic biology, and protein evolution, with a focus on directed evolution approaches for biocatalysis and molecular biophysics. Former CSIRO and Weizmann Institute researcher Key projects: plastic degradation enzymes, viral protease inhibitors, noncanonical amino acid incorporation His work leverages ancestral sequence reconstruction and machine learning to explore protein sequence spaces, with notable outputs in fitness landscape analysis and biocatalytic applications . Recent publications highlight advancements in: Plastic biodegradation enzyme engineering Antiviral peptide design targeting SARS-CoV-2 Fluorinated noncanonical amino acids for protein studies Marine bacterial transport proteins Organophosphate resistance mechanisms While no formal awards are listed in this data, his research portfolio demonstrates strong industry and biomedical applications through: ANU Researcher Portal publications Collaborative projects with international institutions 50+ funded projects including gene therapy platforms and food waste solutions
Gustavo M. Silva is the Jack H. Neely Associate Professor of Biology at Duke University's Trinity College of Arts & Sciences, a position he has held since 2025. Previously, he served as Associate Professor of Biology (2024-present) and Assistant Professor of Cell Biology (2022-present) at Duke. His research is conducted through the Silva Lab (sites.duke.edu/silvalab), which focuses on molecular mechanisms of cellular stress response. Education: Ph.D. from University of Sao Paulo (Brazil), 2010 B.Sc. from University of Sao Paulo (Brazil), 2004 Dr. Silva's research centers on understanding how gene expression is regulated at transcriptional and translational levels during cellular stress. His lab specifically investigates how the ubiquitin system controls protein synthesis and degradation dynamics under stress conditions, which are critical for cellular physiology. His work has significant implications for understanding disease mechanisms where protein homeostasis is disrupted. The research combines biochemical, genetic, and proteomic approaches to dissect these complex regulatory networks. His publication record demonstrates a clear evolution from fundamental studies on redox regulation and proteasome function to more complex investigations of ubiquitin signaling in translation control and stress response. Recent work increasingly focuses on K63-linked ubiquitination's role in ribosome function and translation regulation, with growing emphasis on the clinical implications of these mechanisms in disease contexts including cancer. Scientific Awards & Recognition: Paul T. Englund Emerging Scholar Award (Johns Hopkins School of Medicine, 2024) Dean's Award for Excellence in Mentoring (Duke Graduate School, 2023) Science Diversity Leadership Award (Chan Zuckerberg Initiative, 2022) Best Professor Award (Vanderbilt Basic Sciences Juneteenth Committee, 2022) 100 inspiring Black scientists in America (CellPress, 2020) Dr. Silva actively mentors students at multiple levels, as evidenced by his Dean's Award for Excellence in Mentoring. His research is supported by substantial funding including NIH grants such as the Tri-Institutional Molecular Mycology and Pathogenesis Training Program (2024-2029) and 'Stalling cancer at the ribosome' from the V Foundation for Cancer Research (2025-2028). He also serves as Principal Investigator on multiple R01 grants focused on ubiquitin's role in translation control and stress response. The Silva Lab maintains strong collaborative relationships with institutions including the Chan Zuckerberg Initiative and ETH Zurich, and participates in several interdisciplinary training programs at Duke that support underrepresented students in biomedical sciences.
Ferran Garcia-Pichel is a Regents Professor and Center Director at Arizona State University’s School of Life Sciences, affiliated with the Biodesign Center for Fundamental & Applied Microbiomics, Center for Biodiversity Outcomes, Water Institute, and Global Drylands Center. He holds a PhD in Microbiology from the University of Oregon (1999) and has been a faculty member at ASU since 1999. His research focuses on microbial adaptations in arid environments, including biogeochemical cycling, soil crust formation, and sustainable land restoration. Key interests include cyanobacterial sunscreen compounds (scytonemin), carbonate dissolution mechanisms, and hydrogen production. Teaching responsibilities include advanced microbiology, microbial ecology, and geomicrobiology courses such as MBB 495 Undergraduate Research and BIO 493 Honors Thesis. Awards span from the 2021 Regents Professor distinction to the 2023 Sperry Award for restoration science. His lab explores interdisciplinary approaches to study microbial communities in desert soils, marine intertidals, and atmospheric dust, with applications in climate resilience and biomedicine. Research highlights include biocrust restoration strategies, microbial nitrogen fixation networks, and the role of GABA/Glu signaling in spatial organization. Collaborations address global challenges like fugitive dust mitigation and carbon sequestration. The lab is based at the Biodesign Building B on ASU’s Tempe campus.
Curtis Suttle is a Professor in the Department of Botany at the University of British Columbia's Faculty of Science. He also holds affiliations with Earth and Ocean Sciences, Microbiology and Immunology, and the Institute for Oceans and Fisheries. His research focuses on marine virology and the ecological roles of viruses in aquatic ecosystems, particularly their impact on phytoplankton and microbial communities. Dr. Suttle received his B.Sc. and Ph.D. from UBC, was a Coastal Marine Scholar at SUNY StonyBrook (1987-88), and served as Assistant/Associate Professor at the University of Texas at Austin (1988-96) before returning to UBC. His research program investigates the biology and ecology of viruses that infect microalgae and cyanobacteria. Key areas include discerning viral effects on primary productivity, isolating novel marine viruses, developing molecular identification methods, and studying viral distribution patterns. His work has revealed that viruses can occur in seawater at concentrations exceeding 10 5 ml -1 , with cyanophage concentrations reaching 10 6 infectious units ml -1 in coastal waters. Dr. Suttle's team has developed PCR primers specific for viral DNA polymerase genes, showing these viruses belong to a single family related to herpes viruses. Recent publications show a strong focus on marine viral ecology, with particular attention to oyster microbiomes, viral taxonomy, and the role of viruses in marine ecosystems. His research spans from coastal environments to the deepest ocean trenches, examining viral diversity across environmental gradients and investigating viral impacts on carbon cycling and marine food webs. Dr. Suttle leads an active research group with several post-doctoral associates, research scientists, and graduate students. His team conducts field work at multiple locations including the Naica Mine in Mexico, Pavilion Lake in British Columbia, Saanich Inlet, and the Strait of Georgia. Current projects include collaborations with the Hakai Institute, Line P Research Cruise, and CASES (Canadian Arctic Shelf Exchange Study). His laboratory has made significant contributions to understanding viral roles in marine ecosystems, particularly through expeditions to extreme environments like the Naica crystal caves and deep ocean trenches. Ongoing research explores viral impacts on microbial community structure, carbon cycling, and ecosystem function across diverse marine habitats.
Professor Emiliano Cortés is a faculty member at the Ludwig Maximilian University of Munich (LMU), where he leads research in Plasmonic and Photonic Chemistry at the Nano-Institute Munich. His work bridges the fields of nanotechnology, physical chemistry, and materials science, focusing on light-matter interactions for energy conversion applications. Dr. Cortés' research focuses on plasmonics , photocatalysis , and electrocatalysis at the nanoscale. His group investigates how the dynamics of photons, plasmon-polaritons, carriers, phonons, and molecular states influence chemical reactivity. A key aspect of his work involves developing techniques to study plasmonic systems at the single particle level and designing rational synthesis approaches for plasmonic colloidal photo and electrocatalysts. His research has significant implications for sustainable energy technologies, environmental remediation, and advanced sensing applications. Analysis of Professor Cortés' recent publications reveals a strong focus on energy conversion processes, with particular emphasis on CO2 reduction, ammonia synthesis, and hydrogen production. His work integrates plasmonic effects with catalytic processes to enhance reaction efficiencies, often through innovative interface engineering and nanostructure design. The research spans fundamental studies of charge carrier dynamics to practical applications in energy storage and environmental technologies. Professor Cortés actively mentors doctoral candidates and postdoctoral researchers, currently advertising open positions for projects on Single particle photo and electrocatalysis and Synthesis of hybrid colloids . His research group, the Hybrid Plasmonics Lab (www.hybridplasmonics.org), receives funding from various sources to support their work on plasmon-mediated chemistry for sustainable applications. The Cortés research group operates within the Nano-Institute Munich, utilizing state-of-the-art facilities for nanomaterial synthesis, characterization, and testing. Their work combines experimental approaches with theoretical modeling to understand and harness light-matter interactions at the nanoscale for practical applications in energy conversion and environmental technologies.
Nathan Yee is a Professor at Rutgers University, where he has held academic appointments since 2004. He earned his B.Sc. from McGill University (1997) and Ph.D. from the University of Notre Dame (2001), followed by postdoctoral research at the University of Leeds (2001-2003). His career progression includes positions as Assistant Professor (2004-2010), Associate Professor (2010-2016), and full Professor since 2016. Research Focus Yee's research integrates geochemistry and geomicrobiology to study: mineral transformation processes, interactions between metal ions and mineral surfaces, microbial influences on inorganic element cycling, and contaminant behavior in environmental systems. His work combines experimental approaches with modeling to investigate biogeochemical processes relevant to early Earth evolution, microbial metabolism, and environmental remediation. Key themes include biologically catalyzed redox reactions, metal isotope fractionation, and geomicrobial controls on contaminant transport. Publication Trends Yee's recent publications (2021-2025) demonstrate strong emphasis on microbial-metal interactions, isotope geochemistry, and planetary science. Dominant themes include: isotopic tracing of metal cycling (Ni, Cu, Hg), microbial redox transformations of contaminants (Se, Te, U), photochemical processes in early Earth systems, and astrobiological investigations of planetary bodies like Mars and Enceladus. Methodologies frequently combine laboratory experiments with geochemical modeling.
Mark Eppinger, Ph.D., is an Associate Professor in the Department of Molecular Microbiology and Immunology at The University of Texas at San Antonio (UTSA), within the College of Sciences. His research is centered on microbial genomics and bioinformatics, with a focus on understanding infectious diseases caused by bacterial pathogens such as Yersinia pestis , Vibrio cholerae , and Escherichia coli O157:H7. Department: Molecular Microbiology and Immunology School: College of Sciences University: The University of Texas at San Antonio Email: Mark.Eppinger@utsa.edu Phone: 210-458-6276 Lab: BSE 3.404 Dr. Eppinger earned his Ph.D. in Microbial Genetics from the Max-Planck Institute for Developmental Biology and the University of Tübingen, Germany, and a B.S. in Biology from the same institution. Ph.D. in Microbial Genetics, Max-Planck Institute for Developmental Biology, University of Tübingen B.S. in Biology, University of Tübingen His research program applies microbial genomics and bioinformatics to investigate the evolutionary and ecological dynamics of bacterial pathogens. He focuses on phylogenomics, genome plasticity, virulence determinants, and host-pathogen interactions. His lab generates genomic data to understand how genetic variation influences transmissibility, infectivity, and disease outcomes in major public health threats. The available publications reflect a consistent focus on the genomics of foodborne and epidemic bacterial pathogens. Both book chapters deal with the genomic analysis of Escherichia coli and Yersinia , emphasizing evolutionary patterns, virulence mechanisms, and molecular epidemiology. These works highlight his expertise in integrating genomic data with public health applications. Dr. Eppinger has mentored a wide range of students, including doctoral candidates, postdoctoral researchers, master's students, and undergraduates. His lab has hosted international exchange students and Fulbright Fellows, indicating a collaborative and globally engaged research environment. He leads the Eppinger Lab at UTSA, which is part of the South Texas Center for Emerging Infectious Diseases (STCEID). The lab conducts cutting-edge genomic research on emerging pathogens and contributes to the development of diagnostic and therapeutic strategies to reduce human morbidity.
Tom Williams is a Professor in the Department of Life Sciences at the University of Bath, where he conducts cutting-edge research in computational evolutionary biology. His work focuses on understanding the history of life and evolutionary processes through phylogenetics, comparative genomics, and bioinformatics approaches. Williams' research interests span several interconnected areas in evolutionary biology. He investigates the structure of the "tree of life," the phylogenetic position of eukaryotic cells, and the origin of eukaryotes including their archaeal and bacterial ancestry. His work also examines the nature of early life forms (including LUCA - the common ancestor of all life), the course of metabolic evolution, and co-evolutionary relationships among microbes. His research contributes to UN Sustainable Development Goals related to environmental protection and scientific understanding. His recent publications demonstrate a strong focus on microbial evolution, particularly examining bacterial and archaeal lineages, the evolution of metabolic pathways, and the genomic basis of evolutionary adaptations. Williams employs computational approaches to analyze large-scale biological datasets, contributing to our understanding of life's history from deep time to the present. Williams actively supervises doctoral students and appears to be engaged in significant collaborative research projects across international boundaries, as evidenced by his extensive publication record and diverse co-author networks.
Martin Kaltenpoth serves as Director at the Max Planck Institute for Chemical Ecology in Jena since 2020 and Professor for Evolutionary Ecology at Johannes Gutenberg University of Mainz since 2015. Previously, he led the Research Group Insect Symbiosis at the MPI for Chemical Ecology from 2009 to 2015. Education: PhD in Biology (summa cum laude), University of Würzburg, 2006 Diploma in Biology (with honors), University of Würzburg, 2003 His research centers on insect-bacterial symbioses , investigating evolutionary, ecological, and chemical dimensions of host-microbe interactions. Key foci include nutritional and defensive symbiosis in beetles, genomic adaptations of symbiotic bacteria, and chemical mediation of symbiotic relationships. His work bridges entomology, microbiology, and chemical ecology to unravel coevolutionary mechanisms. Analysis of recent publications reveals dominant trends in beetle-microbe systems, emphasizing symbiont roles in cuticle synthesis, antifungal defense, and host-plant adaptation. His studies frequently employ genomic, biochemical, and experimental approaches across diverse insect lineages. No scientific awards were documented in the source material. While specific advisees and grants remain unlisted, his leadership of research groups and dual academic appointments indicate active supervision of graduate researchers and externally funded projects in symbiosis evolution. Currently directing research at the Max Planck Institute, Kaltenpoth advances understanding of symbiotic systems with implications for evolutionary theory and sustainable pest management strategies.
Dr. Serena Ding is a Max Planck Research Group Leader at the Max Planck Institute of Animal Behavior, where she heads the Genes and Behavior department. She leads an interdisciplinary team studying the mechanisms and evolution of collective behaviors in nematodes through genetic, neuronal, and behavioral approaches. Education: PhD in C. elegans Developmental Cell Biology, University of Oxford (2011-2016) Postdoc in C. elegans Quantitative Behavior, Imperial College London (2016-2021) B.Sc. in Biology, University of Richmond (2007-2011) Research Focus: Dr. Ding investigates fascinating collective phenomena in nematodes including towering (collective dispersal), wurmuration (density-dependent swarming), and strain-specific aggregation behaviors. Her lab combines molecular biology, neuroscience, evolutionary biology, and complex systems modeling to understand both proximate mechanisms and ultimate evolutionary drivers of these behaviors across wild nematode strains. Publication Trends: Her research emphasizes quantitative behavioral analysis and innovative imaging methodologies, as exemplified by her 2020 work developing bioluminescence-based tracking of C. elegans foraging patterns. This aligns with her group's focus on high-throughput phenotyping of natural genetic variations in behavior. Team Leadership: Dr. Ding mentors a diverse research team including: 2 postdoctoral researchers (Daniela Perez, Assaf Pertzelan) 3 doctoral students (Narcís Font Massot, Youn Jae Kang, Gopika Ranjith) 1 master's student (Iris Bernstein) 1 technical assistant (Ryan Greenway)
Alexander J Sundermann serves as an Assistant Professor in the Department of Epidemiology at the University of Pittsburgh School of of Public Health. His research focuses on leveraging pathogen genomic surveillance and machine learning to revolutionize infection prevention practices in healthcare settings, with demonstrated impacts on outbreak detection accuracy and intervention speed. Education: 2013: BS in Microbiology, University of Rochester 2014: MPH in Infectious Diseases and Microbiology, University of Pittsburgh 2022: DrPH in Epidemiology, University of Pittsburgh Dr. Sundermann's work centers on whole-genome sequencing of pathogens to detect healthcare-associated transmission invisible to traditional methods. His research demonstrates how genomic surveillance reveals hidden outbreaks of vancomycin-resistant Enterococcus (VRE) and mucormycosis, directly linking colonization to clinical outcomes like ICU admission and mortality. He pioneers machine learning tools that analyze electronic health records to identify transmission routes, creating more efficient outbreak investigation frameworks across hospital networks. His publication portfolio (2019-2025) shows a clear trajectory toward integrated genomic-clinical surveillance systems, with recent work quantifying clinical and economic impacts while addressing implementation barriers. This interdisciplinary approach bridges epidemiology, genomics, and data science to transform infection prevention protocols. Scientific Awards: No awards listed in available information. Advising and Grants: While specific advisees and grant details aren't provided, his multi-institutional collaborations suggest active mentorship within genomic epidemiology research teams. His work with the National Healthcare Safety Network indicates engagement with major public health surveillance infrastructure. Labs and Teams: Dr. Sundermann leads cross-functional teams including microbiologists, data scientists, and clinicians across multiple healthcare systems. His UPMC outbreak investigations and national linen contamination studies demonstrate operational frameworks for real-time genomic surveillance implementation in complex hospital environments.
Louis Du Plessis is a Lecturer at ETH Zürich's Department of Biosystems Science and Engineering in Basel, Switzerland. His research focuses on computational evolution with particular emphasis on infectious disease dynamics and genomic analysis. He maintains an active research profile with numerous high-impact publications in top-tier journals. Dr. Du Plessis completed his doctoral studies at ETH Zürich in 2016 with a thesis titled 'Understanding the spread and adaptation of infectious diseases using genomic sequencing data,' building upon his 2011 Master's work on evolutionary rate variation. His current research sits at the intersection of computational biology, epidemiology, and evolutionary genetics. His research interests span computational epidemiology, phylodynamics, viral evolution, and infectious disease modeling. He has made significant contributions to understanding pandemic dynamics, particularly regarding influenza and SARS-CoV-2, using genomic and epidemiological data integration. His methodological work includes developing computational approaches for estimating epidemic dynamics and viral transmission patterns. Analysis of his recent publications reveals a strong focus on how pandemics disrupt normal viral circulation patterns, with particular attention to influenza evolution during the 2009 H1N1 and COVID-19 pandemics. His work often combines phylogenetic analysis with epidemiological modeling to extract maximum information from genomic and case count data. Dr. Du Plessis has received research funding from European Commission projects including 'From Foundations of Phylodynamics to new applications in Cell Biology' (grant 101001077) and 'MOnitoring Outbreak events for Disease surveillance in a data science context' (grant 874850). He is actively involved in developing computational tools for analyzing pathogen genomic data and has contributed to several software packages used in the field. His work has significant implications for public health surveillance and pandemic preparedness.
Vernita Gordon is an Associate Professor in the Department of Physics at the University of Texas at Austin (since 2018), previously serving as an Assistant Professor there from 2010 to 2018. She holds a Ph.D. in Physics from Harvard University (2003) and a B.Sc. in Physics and Mathematics from Vanderbilt University (1997). Her research focuses on understanding how physical characteristics like mechanics and spatial structure influence bacterial biofilms, particularly their interactions with the immune system and resistance to antibiotics. She has pioneered techniques such as laser trapping to manipulate biofilm structures and studies radiation effects on bacteria like Deinococcus radiodurans . Education: Ph.D. in Physics, Harvard University (2003) B.Sc. in Physics and Mathematics, Vanderbilt University (1997) Research Interests: Dr. Gordon’s work integrates biophysics, microbiology, and materials science to explore biofilm mechanics, bacterial mechanosensing, and radiation biology. Key areas include: How biofilm mechanics resist immune clearance and antibiotic treatment Role of surface stiffness and shear stress in biofilm initiation Radiation resistance mechanisms in Deinococcus radiodurans Development of tools like laser trapping to study biofilm structure Key Achievements: Recipient of the Elizabeth B. Gleeson Professorship (2023) and Texas Mindset Initiative Fellowship (2023) Provost’s Teaching Fellow (2020–2024) and multiple teaching awards Funded by NSF, NIH, and Cystic Fibrosis Foundation Published over 60 peer-reviewed articles, including in Nature , PNAS , and Biophysical Journal Advising & Outreach: She mentors graduate students in Physics, Microbiology, and Biomedical Engineering, emphasizing interdisciplinary training. Her group actively recruits undergraduates and collaborates with industry partners like Solvay and the College of Pharmacy. Outreach includes lesson plans for high school STEM education and community science initiatives. Labs & Collaborations: Her lab uses advanced microscopy, microrheology, and computational modeling. Key collaborations include work with the Contreras Lab (UT Austin Chemical Engineering) on radiation-resistant bacteria and the Raizen Lab (UT Austin Physics) on self-sterilizing surfaces.
