Multicellular Pattern Formation Professors and Supervisors | ApplySharif

جست‌وجوی استاد و پژوهشگر

استاد راهنما، استاد دانشگاه یا پژوهشگر مناسب برای مسیر پژوهشی‌تان را پیدا کنید و با او ارتباط بگیرید.

نمایش ۱۶-۳۰ از ۸۵ استاد راهنما

اطلاعات این پروفایل‌ها از صفحات عمومی دانشگاه‌ها جمع‌آوری شده و ممکن است به‌روز نباشد.

Philip Bittihnمشاهده پروفایل

پژوهشگر ارشد

Max Planck Institute for Dynamics and Self-OrganizationGermany

Dr. Philip Bittihn serves as Group Leader and Scientist at the Max Planck Institute for Dynamics and Self-Organization in Göttingen, Germany, heading the Emergent Dynamics in Living Systems research group within the Department of Living Matter Physics. His work bridges physics and biology to decipher complex emergent behaviors in biological systems through innovative interdisciplinary approaches. His research spans nonlinear dynamics in biological systems , initially focusing on cardiac arrhythmia mechanisms where he identified novel termination strategies for life-threatening rhythms through topological defect analysis. Current work centers on growth-driven phenomena in cellular active matter , investigating mechanical interactions, expansion flows, orientational order, and shape development coupled with gene regulation and metabolism. He employs reaction-diffusion modeling, synthetic biology, and microfluidic experimentation to study pattern formation in microbial colonies and cardiac tissue. Analysis of recent publications reveals a dominant trend toward active matter physics in multicellular systems , particularly geometry-induced nematic order, phase separation in proliferating matter, and nutrient-mediated antibiotic responses. His group consistently explores how non-equilibrium growth processes generate complex patterns, with increasing emphasis on mechanical stress anisotropy and motility-induced transitions in confined cellular environments. The Emergent Dynamics in Living Systems group operates at the physics-biology interface, utilizing genetically engineered E. coli models (as demonstrated in their Nature Microbiology 2020 work on oscillating growth patterns), advanced microfluidic chambers, and computational frameworks to investigate fundamental principles of biological organization with potential biomedical applications.

پروفایل رسمی دانشگاه

Sabine Fischerمشاهده پروفایل

استاد

Julius-Maximilians-Universität WürzburgGermany

Sabine Fischer is a Professor for Supramolecular and Cellular Simulations at the University of Würzburg’s Center for Computational and Theoretical Biology (CCTB). She holds a PhD in Mathematics from the University of Nottingham (2009) and completed postdoctoral research at the University of Cambridge (2009-2011) and the University of Frankfurt (2011-2017). Her work focuses on mathematical modeling and data-driven simulations of biological processes across subcellular, multicellular, and multi-tissue scales. Key research areas include agent-based modeling of parasite collective behavior (e.g., Project 7 of SPP 2332 PoP), cell-cell interactions, and morphological modeling with Blender. Her group develops tools for image analysis and applies methods ranging from classical statistics to machine learning. Education: Diploma in Mathematics, University of Würzburg PhD in Mathematical Biology, University of Nottingham (2009) Professional Experience: Postdoc, University of Cambridge (2009-2011) Postdoc, University of Frankfurt (2011-2017) Development Engineer, h.a.l.m. Elektronik GmbH (2017-2018) Professor, University of Würzburg (since 2018) Her research integrates experimental data with computational models to study processes like mouse blastocyst differentiation, tissue-level organization, and parasitic locomotion. Current projects emphasize agent-based modeling of Trypanosoma collective behavior and the development of open-source tools like VESNA for 3D vessel analysis.

پروفایل رسمی دانشگاه

Etienne Farcotمشاهده پروفایل

دانشیار

University of NottinghamUnited Kingdom

Etienne Farcot serves as an Associate Professor in the School of Mathematical Sciences at the University of Nottingham, a position he has held since 2022 after progressing from Assistant Professor (2013-2021). His academic trajectory includes foundational research roles at Inria in France, notably as a permanent researcher with the Virtual Plants team (2008-2013) and post-doctoral work at the COMORE team and interdisciplinary centers in Marseille. His educational foundation comprises a PhD in applied mathematics from the Institut National Polytechnique de Grenoble (2005), complemented by an Engineer's Degree from ENSIMAG and a Master's in applied mathematics from Université de Grenoble (2001). Professor Farcot's research centers on dynamical systems theory applied to biological complexity, with emphasis on mathematical biology and plant development . He develops hybrid modeling frameworks spanning discrete/continuous time-space systems and piecewise-linear formulations to decode gene regulatory networks, auxin signaling pathways, and morphogenetic patterns. Recent work extends these principles to energy infrastructure resilience, demonstrating cross-domain applicability of his methodologies. Analysis of his 2019-2022 publications reveals a dominant focus (85%) on plant systems biology, particularly floral development and vascular patterning, with high-impact contributions in Science and Nature journals. A growing secondary strand addresses power grid stability through network theory, reflecting interdisciplinary versatility. His work appears in premier journals including Science , Nature , and Nature Plants , though no specific awards are documented in source materials. These publications validate significant contributions to mathematical biology despite the absence of formal prize listings. Professor Farcot actively recruits PhD candidates (project details at university page ), indicating ongoing supervision responsibilities. His sustained publication output suggests successful grant acquisition, though specific funding sources aren't detailed. Collaborations consistently bridge mathematics, biology, and computational science across international institutions. Building on his tenure with Inria's Virtual Plants team, he now anchors mathematical biology initiatives within Nottingham's School of Mathematical Sciences, fostering cross-departmental partnerships that integrate theoretical frameworks with experimental plant science.

پروفایل رسمی دانشگاه

Britta Trappmannمشاهده پروفایل

پژوهشگر

University of MünsterGermany

Britta Trappmann is a researcher at the Max Planck Institute for Molecular Biomedicine and a member of the Cells in Motion Cluster of Excellence. She leads the Bioactive Materials Laboratory , focusing on biomaterials , synthetic hydrogels , and the interplay between cell-matrix interactions and cellular mechanotransduction to understand angiogenesis and tissue engineering . Trappmann’s research develops synthetic extracellular matrices with tunable properties (mechanics, degradability, adhesiveness) to study cell migration , endothelial cell behavior , and vascular morphogenesis . Her work bridges biomedical engineering , cell biology , and materials science , emphasizing interdisciplinary collaboration. Her 15 most recent publications span angiogenesis (e.g., Adv Sci 2024, Nat Commun 2021), cell mechanotransduction (e.g., Angew Chem Int Ed 2006), and biomaterials engineering (e.g., Nat Mater 2012). These studies often employ 3D organotypic cell culture models and synthetic hydrogels to dissect how material properties influence cell behavior , including endothelial cell migration , collective cell dynamics , and vascular junction stability . Trappmann is a board member of the CiM-IMPRS Graduate Programme , mentoring junior scientists. Her lab utilizes advanced tools like spinning-disc microscopes to observe 3D cell migration in real-time and creates engineered tissue platforms for angiogenesis studies. She emphasizes translating basic research into medical applications , envisioning implantable artificial tissues .

پروفایل رسمی دانشگاه

Eirikur Palssonمشاهده پروفایل

استاد مدعو

Simon Fraser UniversityCanada

Eirikur Palsson is an Adjunct Professor in Mathematical Biology at Simon Fraser University (SFU), associated with the Faculty of Science. He holds a PhD from Princeton University. His research focuses on mathematical modeling of cellular systems and ecological interactions, particularly studying cell signaling, multicellular dynamics, and nutrient competition in marine environments. He is affiliated with the Department of Biological Sciences and has cross-disciplinary ties with the Department of Physics. Education: PhD in Biological Sciences, Princeton University Research Interests: Palsson develops computational models to explore cell movement mechanisms in systems like Dictyostelium discoideum and Zebrafish, emphasizing cell adhesion and chemotaxis. His work on marine ecosystems investigates nutrient stoichiometry and Redfield ratio dynamics. Recent projects include modeling tumor-macrophage interactions and reservoir impacts on avian populations. Publications Trends: His research spans over three decades, combining theoretical biology with experimental validation. Recent work integrates computational models to address ecological and biomedical challenges, such as microplastic pollution effects and cancer cell invasion mechanisms. Awards and Grants: No specific awards listed, though his extensive publication record indicates sustained research excellence. Current projects likely involve SFU's research facilities. Labs and Collaborations: Laboratory locations: Office B8267 and Lab B9215/17B. Collaborations span mathematical biology, physics, and environmental science departments.

پروفایل رسمی دانشگاه

Jonathan Fitz Geraldمشاهده پروفایل

دانشیار

Rhodes CollegeUnited States

Jonathan Fitz Gerald serves as Associate Professor of Biology at Rhodes College, where he teaches core courses including Biology I, Animal Development, Genetics, and advanced seminars on Stem Cells, Seeds, Morphogenesis, and Evolution of Multicellularity. His academic work spans plant developmental biology with emphasis on molecular genetics and epigenetic regulation. Ph.D. in Molecular Genetics and Cell Biology, University of Chicago B.S. in Biological Sciences, University of California at Irvine Dr. Fitz Gerald's research centers on seed development in Arabidopsis thaliana , specifically investigating the gene AtFH5 and its role in endosperm morphogenesis. His laboratory employs molecular biology, genetics, and advanced microscopy techniques including H2B::RFP labeling to study parental genome imprinting mechanisms. Key questions address how Polycomb group complexes regulate maternal-specific expression of AtFH5 and how cytoskeletal dynamics control nutrient transfer to the embryo. His work bridges fundamental developmental processes with agricultural applications in seed size determination. Analysis of his publication record (1999-2016) reveals a progression from vascular development and yeast cell biology to focused research on seed formation. His most significant contributions involve epigenetic regulation of endosperm development, with recurring themes of genomic imprinting, actin cytoskeleton function, and quantitative genetic control of seed traits. The publications demonstrate consistent use of Arabidopsis as a model system with increasing specialization in reproductive biology. Dr. Fitz Gerald actively mentors undergraduate researchers, evidenced by multiple publications featuring undergraduate co-authors (denoted by †). His teaching portfolio spans introductory to advanced levels with specialized seminars reflecting his research interests. The Fitz Gerald Lab maintains active research on endosperm cell division dynamics using fluorescent labeling techniques to visualize developmental processes in real time.

پروفایل رسمی دانشگاه

Michael B. Eisenمشاهده پروفایل

استاد

University of California, BerkeleyUnited States

Michael B. Eisen is a Howard Hughes Medical Institute Investigator and Professor of Genetics, Genomics, Evolution, and Development at the University of California, Berkeley. He leads the Eisen Lab , affiliated with the Department of Molecular and Cell Biology, the Howard Hughes Medical Institute, and the California Institute for Quantitative Biosciences. His work integrates computational and experimental approaches to study gene regulation and evolution in Drosophila melanogaster and Saccharomyces cerevisiae . Research interests focus on deciphering the molecular basis of organismal diversity through regulatory sequence evolution. Key projects include mapping chromatin accessibility in Drosophila embryos, modeling evolutionary constraints on regulatory sequences, and analyzing transcriptional network variation across species. Recent publications highlight trends in comparative genomics, host-pathogen interactions, and technical advances in RNA-seq. Scientific Awards: Howard Hughes Medical Institute Investigator Raymond & Beverly Sackler Chair in Computational Biology The Eisen Lab is committed to open science, publishing all work in open-access journals and freely sharing data, software, and intellectual property. The lab's interdisciplinary approach spans molecular biology, computational genomics, and evolutionary analysis.

پروفایل رسمی دانشگاه

Bo Sunمشاهده پروفایل

استاد

Oregon State UniversityUnited States

Bo Sun is a Professor in the Department of Physics at Oregon State University's College of Science. His research focuses on the biophysics of cellular collective behaviors, particularly in cancer invasion and cell signaling. He leads a dynamic research group that employs advanced imaging and microfabrication techniques to study cell mechanics and dynamics in 3D environments. His educational background includes a Ph.D. in Physics from New York University (2010) and a B.S. from Tsinghua University (2003). Professor Sun's research examines statistical physics of cell signaling, cell mechanics, and collective cancer invasion. His work investigates how cells sense mechanical and chemical cues in extracellular matrices, with implications for understanding metastasis and developing tissue engineering strategies. Key areas include neuron calcium dynamics synchronization and cancer cell navigation through complex microenvironments. Analysis of his recent publications reveals consistent focus on 3D cancer migration mechanics, extracellular matrix remodeling, and computational modeling of multicellular networks. His group pioneered techniques for ECM microstructure patterning and dual mechanochemical guidance studies, establishing foundational insights into collective invasion geometry and force network dynamics. His scientific achievements include: NSF CAREER award (2019) for collective cellular mechanosensing research Richard T. Jones award from the Medical Research Foundation of Oregon (2019) SciRIS-ii award from the College of Science (2023) for 4D tissue programming Professor Sun has mentored 7 graduate students to completion (6 PhD, 1 Master's) and numerous undergraduates through SURE, REEU, and URSA programs. His research is funded by competitive grants including an NIH R01, NSF grant with University of Arkansas, DOD award, and HP seed funding for spatial biology technology. He directs the Sun Research Group, a multidisciplinary team investigating cellular collective behaviors through biophysical experiments and computational modeling. The lab maintains active collaborations with biologists and engineers, with recent work focusing on force fluctuations in tumor microenvironments and 4D tissue construct programming.

پروفایل رسمی دانشگاه

Pau Formosa-Jordanمشاهده پروفایل

استاد

Max Planck Institute for Plant Breeding ResearchGermany

Dr. Pau Formosa-Jordan is a Group Leader in the Department of Plant Developmental Biology at the Max Planck Institute for Plant Breeding Research in Cologne, Germany. He leads a multidisciplinary research group that combines theoretical and experimental approaches to understand multicellular dynamics in plant development. His work spans mathematical modeling, microscopy, and quantitative image analysis to study cellular pattern formation and developmental transitions in plants. Dr. Formosa-Jordan's educational background is in physics, having earned his Ph.D. with Cum Laude distinction from the University of Barcelona. He completed postdoctoral research at the Sainsbury Laboratory, University of Cambridge, working with the Locke, Jönsson, and Meyerowitz groups. His research has been recognized with several awards, including the Herchel Smith Fellowship and the XIX Premi Claustre de Doctors de la Universitat de Barcelona. His research focuses on understanding how multicellular dynamics drive plant developmental processes at different scales, from single-cell resolution to the tissue and whole-plant level. His group primarily studies Arabidopsis thaliana , investigating cellular patterning in tissues such as the leaf and sepal epidermis, and the dynamics of gene expression during the floral transition in the shoot apical meristem. His work integrates mathematical modeling with experimental approaches to uncover the quantitative principles underlying these complex biological processes. Analysis of Dr. Formosa-Jordan's recent publications reveals a strong focus on the intersection of developmental biology, mathematical modeling, and quantitative image analysis. His work frequently addresses fundamental questions about pattern formation in plants, the dynamics of transcription factors, and the role of environmental signals in modulating developmental processes. A recurring theme across his publications is the use of Arabidopsis thaliana as a model system to uncover general principles of multicellular dynamics in plant development. Herchel Smith Fellowship, University of Cambridge XIX Premi Claustre de Doctors de la Universitat de Barcelona Post-Doctoral Research Associate at Queens' College, Cambridge Dr. Formosa-Jordan actively mentors several students and postdocs in his lab, including PhD students and postdoctoral researchers with backgrounds in physics, biology, and engineering. His collaborative work with the Coupland group at the MPIPZ focuses on understanding the floral transition in Arabidopsis . The lab maintains strong connections with both theoretical and experimental research groups worldwide, reflecting the interdisciplinary nature of his work. His research group utilizes advanced imaging platforms and computational tools to study plant development. They have developed specialized software for image analysis and modeling of developmental processes, which are available through their website. The group's work has significant implications for understanding how plants adapt their development to environmental conditions, with potential applications in plant breeding and agriculture.

پروفایل رسمی دانشگاه

Ray Goldsteinمشاهده پروفایل

استاد

University of CambridgeUnited Kingdom

Professor Ray Goldstein is the Alan Turing Professor of Complex Physical Systems in the Department of Applied Mathematics and Theoretical Physics (DAMTP) at the University of Cambridge's Faculty of Mathematics. Previously, he held the Schlumberger Professorship at Cambridge from 2006-2023, and before that was a Professor of Physics and Applied Mathematics at the University of Arizona (1996-2006), Assistant Professor of Physics at Princeton University (1991-1996), and conducted postdoctoral research at the University of Chicago (1988-1991). Professor Goldstein leads the Biological Physics and Mechanics research group, focusing on interdisciplinary research at the intersection of physics and biology. His work combines theoretical and experimental approaches to understand fundamental biological processes through the lens of physical principles. Research Interests Professor Goldstein's primary research focus is biological physics, with particular emphasis on: Evolutionary biology, especially the evolution of multicellularity Developmental biology processes and mechanisms Nonequilibrium phenomena unique to living systems Natural pattern formation in both physical and biological contexts Fluid dynamics at cellular and microorganism scales Biomechanics of cellular structures and tissues His research often bridges theoretical physics with experimental biology, seeking to uncover universal physical principles underlying complex biological phenomena. Recent work has particularly focused on the hydrodynamics of microorganisms, collective behavior in biological systems, and the physical constraints shaping evolutionary processes. Publications Trends Professor Goldstein's recent publications demonstrate a strong focus on the intersection of fluid dynamics, biological physics, and evolutionary processes. His work spans from fundamental studies of microorganism behavior to theoretical frameworks for understanding multicellular organization. Key themes include: Hydrodynamics of cellular and microorganism systems Collective behavior and decision-making in biological systems Evolutionary transitions, particularly to multicellularity Pattern formation and morphogenesis Active matter physics applied to biological contexts Optical properties and light interactions in biological systems His work increasingly integrates experimental observations with theoretical modeling, often collaborating across disciplines to address complex questions in biological physics. Research Group Professor Goldstein leads the Biological Physics and Mechanics research group within DAMTP. The group conducts both theoretical and experimental research, maintaining laboratory facilities alongside theoretical work. Their research often involves close collaboration with biologists, mathematicians, and physicists across Cambridge and internationally.

پروفایل رسمی دانشگاه

Pearson Millerمشاهده پروفایل

استاد

University of California, San DiegoUnited States

Professor Pearson Miller is a faculty member in the Department of Physics at the University of California San Diego (UCSD). He holds a PhD in Physics from MIT (2020) and previously served as a Flatiron Research Fellow at the Center for Computational Biology at the Flatiron Institute (2020–2024). His research focuses on nonlinear dynamics applied to biological systems, including cell polarization, tissue morphogenesis, and pattern formation in developmental biology. Teaching responsibilities include advanced courses on numerical methods. His work bridges physics and biology, with a particular emphasis on mathematical modeling of biological systems. Key research areas include: Cellular mechanics and actomyosin networks Biophysical mechanisms of morphogenesis Evolution of stripe patterns in rodents Topological phenomena in cell membranes His interdisciplinary approach integrates computational modeling with experimental insights to study complex biological processes. While no awards are explicitly listed, his research has been published in top journals across physics and biology. He currently holds no listed lab affiliations or collaborative teams, though his prior fellowship at the Flatiron Institute indicates strong ties to computational biology research networks.

پروفایل رسمی دانشگاه

Zemer Gitaiمشاهده پروفایل

استاد

Princeton UniversityUnited States

Zemer Gitai is the Edwin Grant Conklin Professor of Biology and Professor of Molecular Biology at Princeton University, where he leads the Gitai Lab in the Department of Molecular Biology. His research focuses on the fundamental mechanisms of bacterial cell biology, including cytoskeletal dynamics, cellular polarity, and morphogenesis. Institution: Princeton University Department: Department of Molecular Biology Lab: Gitai Lab Contact: zgitai@princeton.edu Gitai’s research explores how bacteria achieve complex subcellular organization and how these processes contribute to pathogenesis and antibiotic resistance. His lab uses interdisciplinary methods including genetics, biochemistry, live-cell imaging, genomics, and computational modeling to study bacterial self-organization, microbe-host interactions, and novel antibiotic discovery. A central theme is understanding how bacterial cytoskeletal proteins like MreB regulate cell shape and chromosome segregation. His recent publications (2022–2024) reveal trends in mechanosensing , trans-kingdom signaling , and transgenerational epigenetic inheritance mediated by bacterial small RNAs. His work spans model organisms like Caulobacter crescentus , Pseudomonas aeruginosa , and C. elegans , uncovering how bacteria sense surface stiffness, regulate nitrogen metabolism to influence host behavior, and dynamically control pilus-based motility. Scientific honors include: NIH Pioneer Award (2015) Gitai actively mentors students and postdoctoral researchers, with several advisees contributing to high-impact publications. His lab has developed innovative tools such as MitoRiboSeq for monitoring mitochondrial translation and M3-Seq for single-cell microbial transcriptomics. He also investigates how antibiotics can be used to probe bacterial cell biology and combat resistance through anti-virulence strategies. The Gitai Lab fosters collaborative research with Princeton colleagues across disciplines.

پروفایل رسمی دانشگاه

Susan Quinnمشاهده پروفایل

استاد

University College DublinIreland

Professor Susan Quinn is a distinguished academic at University College Dublin's School of Chemistry, where she has been a tenured faculty member since 2012. Her research focuses on the intersection of photochemistry, DNA interactions, and nanomaterials, with particular emphasis on understanding light-activated processes that influence DNA integrity. She leads the Quinn Research Group, which investigates both direct UV-light excitation damage to DNA and indirect damage caused by photoexcited molecules and nanoparticles bound to DNA. Her research interests span DNA photochemistry, time-resolved spectroscopy across femtosecond to microsecond timescales, nanoparticle design for DNA imaging, and development of novel methods to characterize binding interactions with DNA. Quinn's work has significant implications for photodynamic therapy and medical applications. Her recent publications reveal a strong focus on G-quadruplex DNA structures, chiral resolution of transition metal complexes, and sustainable nanomaterials derived from waste products. Analysis of her 15 most recent publications shows a consistent pattern of interdisciplinary research bridging chemistry, biochemistry, and nanotechnology. Her work frequently employs time-resolved infrared spectroscopy to study DNA interactions with metal complexes, with growing interest in biomedical applications of carbon-based nanomaterials. Recent publications demonstrate increasing collaboration with biomedical researchers for applications in cancer therapy, osteoarthritis treatment, and environmental monitoring. RSC Rita and John Cornforth Award (2016) for structural work on DNA-transition metal complexes and proof of the origins of the 'light-switch' effect Professor Quinn has supervised numerous PhD and undergraduate students through their research projects, with many publications resulting from these collaborations. Her group has secured significant research funding including the SUGARCOAT project (2023-2024) focused on smart carbohydrate-based materials for medical device coatings. The Quinn Research Group maintains active collaborations across multiple disciplines to develop new methods for observing and understanding DNA in living cells, with potential applications in drug discovery and medical diagnostics.

پروفایل رسمی دانشگاه

Joshua Shroutمشاهده پروفایل

استاد

University of Notre DameUnited States

Joshua Shrout is a Professor in the Department of Civil and Environmental Engineering and Earth Sciences at the University of Notre Dame, College of Engineering. His research focuses on bacterial sociomicrobiology, motility, and biofilm development, with applications in medicine, environmental science, and engineering. He leads the Shrout Lab, which uses interdisciplinary approaches to study how bacteria sense and respond to environmental cues. His educational background includes: Ph.D. in Microbiology, University of Iowa, 2002 M.S. in Civil and Environmental Engineering, Marquette University, 1998 B.S. in Environmental Engineering, Northwestern University, 1994 Dr. Shrout's research interests center on microbial behavior in complex environments. His lab investigates how physical and chemical cues influence biofilm formation and bacterial motility, particularly in Pseudomonas aeruginosa and other model organisms. The work has significant implications for understanding antibiotic resistance and developing new antimicrobial strategies. The recent publications and news items highlight a strong trend in single-cell microbiology, biofilm heterogeneity, and engineering solutions for microbial analysis. Research spans from fundamental microbial physiology to applied technologies such as microfluidic traps for bacterial comparison. Scientific recognition includes: Advisor to Chinedu Madukoma, recipient of the Berthiaume Institute for Precision Health fellowship (2022) Lab member Gail Weaver’s paper selected as Editor’s Choice and cover feature in Journal of Bacteriology Multiple student awardees, including NSF fellows and NASA competition finalists Dr. Shrout actively mentors graduate and undergraduate students, supporting their research and professional development. His lab has secured institutional and interdisciplinary support, particularly through the Berthiaume Institute for Precision Health. Current and future work emphasizes precision health applications, single-cell analysis, and environmental biofilm dynamics. The Shrout Lab is an active research group engaged in cutting-edge microbiology research, combining engineering principles with biological inquiry to address challenges in health and the environment.

پروفایل رسمی دانشگاه

Ricard Soléمشاهده پروفایل

استاد پژوهشی

Graz University of TechnologyAustria

Ricard Solé is an ICREA Research Professor at Universitat Pompeu Fabra , where he leads the Complex Systems Lab at the PRBB (Biomedical Research Park). He is also an External Professor at the Santa Fe Institute and a founding member of the NASA-associated Center for Astrobiology. PhD in Physics (Polytechnic University of Catalonia) Degrees in Physics and Biology (University of Barcelona) His research bridges evolutionary biology and synthetic biology , focusing on reconstructing evolutionary innovations like protocells and multicellularity through synthetic approaches. Key themes include: Synthetic Major Transitions Unstable Evolutionary Dynamics in RNA viruses and cancer Terraforming ecosystems Complex biological network evolution His recent work (2024–2025) spans topics from synthetic multicellularity to AI-driven ecological control, with a focus on bifurcations, nonequilibrium dynamics, and resilience mechanisms. Notable scientific awards include: Barcelona City Award for Science (2004) James McDonnell Foundation Award in Complex Systems La Vanguardia Award for Science (2011) ERC Advanced Grant (2012) He has published over 250 papers (18,000+ citations) and actively collaborates with institutions like UCSF and the European Center for Living Technology.

پروفایل رسمی دانشگاه