Todd D Giorgio is a Professor of Biomedical Engineering, Chemical and Biomolecular Engineering, and Cancer Biology at Vanderbilt University’s School of Engineering. His research focuses on nanomedicine, drug delivery systems, and immunomodulation. He holds a Ph.D. in Chemical Engineering from Rice University and a B.S. from Lehigh University. Giorgio’s work integrates optical techniques and quantitative analysis to address biological challenges, including optimizing gene therapy delivery via cationic liposomes and developing nanoparticle-based tools for imaging and therapy. His lab explores cryogels for macrophage repolarization, controlled-release immunotherapy, and preterm labor treatments. Collaborations include studies on extracellular vesicle purification with Dr. Bob Coffey at VUMC. His team includes graduate and undergraduate students working on projects such as targeted drug delivery, single-cell RNA sequencing, and EV biomarker analysis. The Giorgio Lab emphasizes translational research with applications in cancer, vascular disease, and obstetric complications.
Dr Satomi Hayashi is a Researcher and Research Associate in Genomics at Queensland University of Technology (QUT), affiliated with the Faculty of Science and the School of Biology & Environmental Science. She holds a PhD in Plant Science from The University of Queensland (UQ), alongside a Bachelor of Science with Honours and a Bachelor of Science, both from UQ. Her research focuses on plant genomics, gene editing, and plant-microbe interactions, with projects encompassing RNA-dependent RNA polymerase roles in plant defense and development. Key interests include disease resistance, gene regulation, and plant development. She collaborates with national and international teams on next-generation sequencing and genomic projects. Her publications highlight contributions to plant genomics, including studies on soybean nodulation, wheat genome mapping, and viral resistance mechanisms. Notable work includes the development of a multi-omic resource for Nicotiana benthamiana and analyses of genome editing efficiency in plants. Her research bridges fundamental science and agricultural biotechnology, addressing challenges in crop improvement and disease management. Dr Hayashi’s work is part of the Centre for Agriculture and the Bioeconomy (CAB) and Peter Waterhouse’s team at QUT. She has contributed to projects on plant-microbe interactions, hormone regulation in nodulation, and genomic tools for complex plant genomes.
Dequina Nicholas is an Assistant Professor at the University of California, Irvine (UCI), affiliated with the Samueli School of Engineering and the Department of Molecular Biology and Biochemistry. Her research focuses on the interplay between chronic inflammation, metabolic dysfunction, and endocrine disorders such as Type 2 Diabetes (T2D) and Polycystic Ovary Syndrome (PCOS). Her lab employs molecular and cellular biology techniques, transgenic mouse models, and human sample analysis to study immunometabolism. Key projects include investigating pituitary immune cell populations influencing gonadotropin secretion, lipid antigen presentation mechanisms in human diseases, and the role of glucose metabolism in reproductive hormone regulation. Notable achievements include publications in Cell Metabolism and Nature Reviews Endocrinology , and recognition at the La Jolla Institute for Immunology Conference. Her work aims to identify therapeutic targets for metabolic and immune-related diseases, with a focus on translational research.
Dr Alexander Stewart is a Research Fellow in Immunology at the University of Surrey's School of Biosciences, part of the Faculty of Health and Medical Sciences. His work focuses on immune system dynamics, antibody repertoire analysis, and eco-immunological mechanisms. He specializes in integrating multi-omics approaches to study B cell biology, viral immunity, and host-parasite interactions. Key research areas include immunoglobulin gene diversification, metabolic regulation of immune cells, and the impact of environmental factors on immunocompetence. Stewart has contributed to tools like BRepertoire, a web server for antibody repertoire analysis, and sciCSR for inferring B cell state transitions. His research spans experimental models (e.g., three-spined stickleback, chickens) and human studies, including investigations into SARS-CoV-2 pathogenesis and glucocorticoid treatment effects. He explores cross-species immune mechanisms, from parasitic infections in rodents to lunar-driven immune rhythms in fish. His recent work highlights the role of CSF1R in macrophage biology and the metabolic control of regulatory B cells. He also examines antibody class-switching dynamics and the evolutionary basis of immunoglobulin diversity. Stewart's findings bridge basic immunology with translational applications in infectious disease and cancer research.
Dr. Stellios Arseniyadis is a Professor of Organic Chemistry at Queen Mary University of London (QMUL), affiliated with the School of Physical and Chemical Sciences and the Centre for Chemical Research. He holds a PhD and is a Fellow of the Royal Society of Chemistry (FRSC). His research focuses on developing novel synthetic methodologies, including asymmetric catalysis, photoredox catalysis, and biohybrid systems, with applications in natural product synthesis and sustainability. Education: PhD in Chemistry, trained at leading institutions (specific details not explicitly stated in provided texts). Research interests span asymmetric catalysis (e.g., palladium-catalyzed allylic alkylation, copper catalysis with nitro compounds), biohybrid systems (DNA/RNA hybrid catalysis), and sustainable synthesis. His lab has pioneered methods for functionalized allyl boranes, difluoromethylated heterocycles, and scalable photochemical processes. Key collaborations include industry partnerships with AstraZeneca, ORIL Industrie, and Sanofi Chimie. Grants include funding for projects like radiopaque polymer development (£75k) and ADC linker design (£60k). Notable awards include the FRSC distinction. Supervised PhD students focus on topics like chiral heterocycles and sustainable chemistry. The Arseniyadis Lab hosts a dynamic team with active engagement in cutting-edge organic synthesis and catalytic innovation. Lab facilities include advanced flow chemistry setups and 3D-printed reactors. Ongoing work emphasizes green methodologies and biomedical applications, such as targeted drug delivery via ultrasound-triggered composite droplets.
Marco Mesiti is an Associate Professor at the Department of Computer Science, University of Milan, Italy. He holds a PhD and Laurea in Computer Science from the University of Genova. His research focuses on data management, big data visualization, and bioinformatics, particularly in biomolecular networks and IoT data. He is a member of AnacletoLAB and has contributed to developing tools like UNIPred-Web for biomolecular network analysis. Education: PhD in Computer Science, University of Genova, 2003 MSc in Computer Science, University of Genova, 1998 Laurea (BSc equivalent) in Computer Science, University of Genova (cum laude) Research Interests: His work spans XML data handling, semistructured data, and applications in bioinformatics, IoT, and credit worthiness. He explores approaches to manage heterogeneous data, including visualization techniques and knowledge graph construction. Recent projects include RNA-centered knowledge graphs and GPU-based algorithms for large networks. Publications: Recent work includes advancements in machine learning for protein design, RNA interaction analysis, and multi-omics data integration. His research emphasizes scalable methods for biomolecular networks and visual analytics tools. Grants & Collaborations: Involved in projects like ELISE and MUSE. Collaborates internationally on bioinformatics and computational biology initiatives. Labs & Teams: Member of AnacletoLAB, focusing on machine learning and data science applications.
Ronald Breaker is a Sterling Professor of Molecular, Cellular, and Developmental Biology, and Professor of Molecular Biophysics and Biochemistry at Yale University. He serves as Chair of the Department of Molecular Biophysics and Biochemistry and is an Investigator at the Howard Hughes Medical Institute. His research focuses on nucleic acid functions, including riboswitch discovery, RNA engineering, and molecular switch technology. Breaker earned his PhD in Biology/Biochemistry from Purdue University (1992) and BS in Biology/Chemistry from the University of Wisconsin-Stevens Point (1987). Breaker’s research has identified over 30 riboswitch classes and pioneered the use of in vitro evolution for creating functional RNAs and deoxyribozymes. His work on riboswitches revealed their role in metabolite sensing and gene regulation, with applications in antibiotic development. He has co-founded two biotech companies, Archemix and BioRelix, and holds editorial roles at journals like RNA Biology and Cell Chemical Biology. His awards include the National Academy of Sciences’ Molecular Biology Award, the Merck Award (ASBMB), and election to the National Academy of Sciences (2014) and American Academy of Arts and Sciences (2021). Breaker’s lab employs bioinformatics, genetics, and biochemistry to explore RNA’s functional potential across diverse bacterial species.
Kate O'Connor-Giles is a Provost's Professor of Brain Science at Brown University, affiliated with the Department of Neuroscience and the Carney Institute for Brain Science. Her research focuses on understanding synaptic communication and plasticity in neurons, employing advanced techniques like genetics, electrophysiology, and CRISPR-based genome engineering. She leads the O'Connor-Giles Lab, which develops innovative tools for studying synapses in vivo and contributes to open-access resources like the CRISPR Target Finder and FlyCRISPR platforms. Her work bridges molecular mechanisms and functional outcomes, investigating how neurons build and modulate synaptic connections over time. Key areas include autophagy regulation at ER-lysosome interfaces, transcriptional control of synaptic genes, and the role of calcium channels in synaptic diversity. The lab’s CRISPR tools have significantly advanced Drosophila genetics research, enabling precise genome editing and homology-directed repair. Publications highlight interdisciplinary approaches, from synaptic growth mechanisms to neurodegenerative pathways, emphasizing the interplay between molecular biology and neuronal function. Her lab’s reagents are shared via Addgene and the Drosophila Genomics Resource Center, fostering collaborative research globally.
C. Ryan Penton is an Associate Professor at Arizona State University (ASU), affiliated with the College of Integrative Sciences and Arts (CISA), School of Applied Sciences and Arts. He holds additional roles as Associate Faculty in the Biodesign Center for Fundamental & Applied Microbiomics and the Julie Ann Wrigley Global Institute of Sustainability. His research focuses on microbial ecology, particularly soil microbiome dynamics, nitrogen cycling, and sustainable agricultural practices. Penton earned a Ph.D. in Microbial Ecology from Michigan State University and holds M.Sc. and B.S. degrees in Biogeochemistry and Microbiology from the University of Florida. His work explores mechanisms of crop disease suppression, biochar impacts on soil health, and microbial responses to climate change. Key areas include nitrogen fixation, denitrification, and the role of microbial communities in carbon decomposition in permafrost systems. Penton has received the Junior Faculty Excellence in Research Award (2016-2017) and serves on editorial boards for journals like Biology and Fertility of Soils . He collaborates internationally with institutions like CSIRO Australia and Nanjing Agricultural University. Penton teaches courses in microbiology, soil ecology, and honors thesis supervision. His research group uses high-throughput sequencing, metagenomics, and stable isotope probing to study functional microbial genes. Major grants include projects on nanomaterials in agriculture and permafrost thaw impacts. He advises graduate and undergraduate students, emphasizing fieldwork and lab-based microbial analysis. Publications span over 50 peer-reviewed articles in journals like Microbiome , Soil Biology and Biochemistry , and Nature Ecology and Evolution . His work bridges basic and applied microbiology, aiming to improve agricultural sustainability through microbiome manipulation and climate resilience strategies.
Natalie Farny is an Associate Professor of Biology & Biotechnology at Worcester Polytechnic Institute (WPI), affiliated with the Bioinformatics & Computational Biology and Neuroscience departments. Her research focuses on synthetic biology applications for environmental remediation and understanding cellular stress responses. She holds a B.S. from Boston College (2000), a Ph.D. from Harvard University (2009), and completed postdoctoral work at the University of Massachusetts Medical School (2009–2013). Her lab develops biosensors and bioremediation strategies for contaminants like lead and arsenic, and investigates stress granules' roles in cellular survival under environmental stress. Dr. Farny has received significant awards, including the NSF CAREER Award ($1.2M, 2024–2029) and the EPA Early Career Award. She emphasizes active learning in education and has mentored numerous students in research projects addressing global challenges such as water/soil contamination and human health impacts of environmental toxins. Education: B.S. Biology & Philosophy, Boston College, 2000 Ph.D. Cell & Developmental Biology, Harvard University, 2009 Postdoctoral Research, UMass Chan Medical School, 2009–2013 Research Interests: Synthetic biology for environmental biosensors and bioremediation Stress granule dynamics under environmental toxin exposure Genetic engineering of soil microbes (e.g., Pseudomonas putida) Cellular stress responses to contaminants like bisphenols and heavy metals Awards & Honors: NSF CAREER Award (2024) NIH Gender Diversity Prize (2021) EPA Early Career Award (2021–2024) WPI Board of Trustees Teaching Award (2018) Grants & Funding: Funded by NIH, NSF, EPA, DARPA, and private partnerships Focus on sustainable development goals (SDGs 3, 6, 13, 15) Labs & Teams: Her lab includes 20+ students/researchers working on synthetic biology tools, microbial engineering, and stress granule modeling. Collaborations span institutions like Northeast Water Solutions, Inc., and international partners on soil microbiome studies.
Joanne Dannenhoffer is a Professor in the Department of Biology at Central Michigan University, College of Science and Engineering. Her research is centered on plant cell and developmental biology, with a focus on maize endosperm development and phloem biology. She teaches courses in plant physiology, woody plants, and light microscopy, and maintains an active research laboratory investigating cytological and genetic mechanisms in plant development. Ph.D., University of Wisconsin, Madison, 1989 Post-doctoral training: Purdue University, UCLA, University of Arizona M.A. and B.S., State University of New York at Binghamton Research Interests: Joanne Dannenhoffer's research focuses on plant cell biology , plant development , and fossil plants . Her lab investigates early endosperm development in maize, including cell specialization, gene expression dynamics, and the effects of drought stress. She also studies phloem development in pumpkin and has contributed to paleobotanical research on Devonian flora. Techniques used include light and electron microscopy, transcriptome sequencing, and in situ hybridization. The recent publications reflect a strong trend in plant developmental biology , particularly in maize endosperm and phloem specialization . Keywords across the articles include gene expression, cellular differentiation, ultrastructure, and comparative development. There is a clear interdisciplinary approach combining molecular biology, cytology, and evolutionary botany. Her earlier work includes significant contributions to paleobotany and sedimentology. Scientific Awards: No awards explicitly mentioned in the provided text. Advising and Grants: Dr. Dannenhoffer has mentored over 40 undergraduate and graduate students in research projects related to plant development, genetics, and ecology. Students have worked on topics including maize kernel development, phloem biology, autophagy, and ecological studies of Populus tremuloides and Cirsium hillii . While specific grants are not listed, the scale and continuity of student research suggest sustained funding support for her lab. Labs and Teams: The Dannenhoffer Lab at Central Michigan University conducts research on maize endosperm and pumpkin phloem using advanced microscopy and molecular techniques. The lab has a strong focus on undergraduate and graduate research training, with students frequently presenting work on cellular development, gene expression, and plant ultrastructure.
Prof. Dieter Saur is a Professor of Translational Tumor Research at the Technical University of Munich (TUM) and Head of the Department at the German Cancer Research Center (DKFZ). His research focuses on developing personalized cancer therapies through mechanistic studies of tumor-relevant genetic alterations, with a particular emphasis on pancreatic and gastrointestinal cancers. Education: Studied medicine at Ludwig Maximilian University of Munich, earned a doctorate in neurogastroenterology, completed specialist training in gastroenterology and gastrointestinal oncology, and habilitation in internal medicine. He became a senior physician at University Hospital rechts der Isar before his current roles at TUM and DKFZ. Research Interests: Translational cancer research, genetic drivers of tumor progression, early detection methods, and targeted therapies for pancreatic and gastrointestinal cancers. He uses genetically engineered mouse models and organoid systems to study tumor heterogeneity and therapeutic resistance. Awards: Recipient of prestigious grants like the ERC Consolidator Grant (2015) and awards such as the Martin Wienbeck Award (2014) and Rising Star Award (2006). His work bridges basic science and clinical translation, emphasizing interdisciplinary approaches. Labs/Teams: Leads the Translational Tumor Research group at TUM and collaborates with the DKFZ to advance preclinical and clinical cancer research. Key projects include exploring KRAS signaling pathways, tumor microenvironment dynamics, and immune checkpoint therapies.
Prof. Ali Ünlü is a full professor in Methods of Empirical Educational Research at the Technical University of Munich (TUM), affiliated with the TUM School of Social Sciences and Technology. His research focuses on mathematical and statistical methods in behavioral sciences, educational measurement, and large-scale assessment. He earned his mathematics degree from TU Darmstadt (2000), a doctorate in psychometrics from TU Graz (2004), and habilitation in statistics from the University of Augsburg (2009). Awards include the 2005 Memorial Guest award from Purdue University. His work emphasizes latent variable models for knowledge assessment and has been published in journals like Methodology and Journal of Mathematical Psychology . He has held visiting professorships and led the Center for International Comparative Educational Studies (2011–2016). His recent studies explore β-cell biology and diabetes mechanisms, reflecting interdisciplinary research interests. Education: PhD in Psychometrics/Mathematical Psychology (2004) Habilitation in Statistics (2009) Research emphasizes quantitative methodologies applied to educational and behavioral sciences. Key themes include: Statistical modeling in large-scale assessments Latent variable models for competence diagnostics Interdisciplinary cell biology studies (e.g., β-cell dynamics) Recent publications highlight cellular mechanisms in diabetes and pancreatic development. His work bridges educational measurement and biomedical research, leveraging advanced statistical techniques. Awards: Winner Memorial Guest, Purdue University (2005) Grants and advisory roles include leadership at the Center for International Comparative Educational Studies. Collaborations span institutions like UC Irvine and Purdue University.
Elliott SoRelle, PhD, is an Assistant Professor in the Department of Microbiology and Immunology at the University of Michigan Medical School. His laboratory focuses on understanding Epstein-Barr Virus (EBV)-host interactions at high resolution, with a particular emphasis on epigenetic regulation, cellular reprogramming during lytic reactivation, and spatial landscapes of virus-associated diseases. Dr. SoRelle employs cutting-edge techniques such as single-cell RNA sequencing, spatial transcriptomics, and advanced microscopy to investigate EBV-driven pathologies like lymphomas and autoimmune diseases. Dr. SoRelle holds a PhD from Stanford University School of Medicine (2018), a BS and BA from Rice University (2012), and completed postdoctoral training at Duke University School of Medicine (2024). His research bridges fundamental virology with translational goals, aiming to inform treatments for EBV-associated diseases. Recent work includes defining EBV's role in reprogramming B cell fate via the EBNA3A/3C-EZH2 axis, dissecting lytic reactivation's impact on cancer stemness, and leveraging spatial biology to map tumor microenvironments. Collaborations with clinicians at U-M and beyond drive translational applications of these findings.
Yanhai Yin is a Professor and Chair at Iowa State University, specializing in plant steroid hormone research, particularly focusing on brassinosteroids' roles in plant growth, stress responses, and crop improvement. His work integrates genetics, genomics, and computational methods using model plants like Arabidopsis. Collaborations include researchers at the Plant Sciences Institute (PSI), NSF, and NIH. He holds a B.S. from Sichuan University, an M.S. from the Chinese Academy of Sciences, and a Ph.D. from The Scripps Research Institute. Research interests center on brassinosteroid signaling pathways, autophagy regulation, FERONIA receptor kinases, and crop applications. Key projects include developing automated phenotyping tools (e.g., ROAD system) and understanding crosstalk between brassinosteroids and other pathways. His lab explores mechanisms linking hormone signaling to stress tolerance and yield enhancement in crops like wheat and maize. Articles highlight brassinosteroid-regulated gene networks, autophagy modulation, and FERONIA's role in immunity. He has pioneered methods for identifying target genes via ChIP-seq and RNA-seq. Grants from NIH, NSF, and PSI support his work. No specific awards are listed, but his contributions to plant biology are extensive.
