Dr. Monica P. Colaiacovo is a Professor of Genetics at Harvard Medical School, where she leads research in the Department of Genetics within the Blavatnik Institute. Her laboratory is located in the New Research Building in Boston, Massachusetts. Dr. Colaiacovo's research focuses on the molecular mechanisms of meiosis, chromosome dynamics, and DNA repair in the Caenorhabditis elegans model system. Her work examines how environmental toxicants impact germline function and reproductive health, with particular emphasis on chromosome segregation, recombination, and the synaptonemal complex. Her publications reveal a consistent research trajectory examining critical aspects of meiotic chromosome behavior, including double-strand break formation and repair, crossover designation, and chromosome movement during prophase I. Her laboratory has made significant contributions to understanding how environmental exposures like bisphenol A and phthalates disrupt normal meiotic progression and lead to germline dysfunction. Dr. Colaiacovo's work demonstrates strong interdisciplinary connections between basic chromosome biology, environmental health sciences, and reproductive medicine. Her research group employs advanced genetic, molecular, and imaging techniques to dissect the complex mechanisms ensuring accurate chromosome segregation during gamete formation. Her laboratory actively collaborates with researchers studying aging, DNA repair pathways, and environmental toxicology, as evidenced by publications spanning multiple high-impact journals including Nature, PLoS Genetics, and Genetics.
Hajime Murakami is an Advanced Research Fellow at the University of Aberdeen's School of Medicine, Medical Sciences and Nutrition, where he conducts cutting-edge research on meiotic recombination mechanisms. His work focuses on understanding how cells manage the complex process of DNA double-strand break formation and repair during meiosis, with implications for human fertility and chromosome disorders. Dr. Murakami's research interests center on the molecular mechanisms of meiotic recombination, particularly the role of DNA double-strand breaks (DSBs) in chromosome segregation. His laboratory investigates how proteins like Hop1 and Red1 function as 'manager proteins' that direct the DNA 'scissors' to appropriate chromosomal locations, ensuring proper recombination while preventing errors that could lead to miscarriage or congenital syndromes. His work primarily uses yeast as a model system, which shares fundamental meiotic mechanisms with humans. Analysis of Dr. Murakami's publication record reveals a consistent focus on the molecular regulation of meiotic recombination across his career. His research has progressively uncovered sophisticated control mechanisms that ensure accurate chromosome segregation, with particular emphasis on how cells manage DNA break formation across chromosomes of different sizes. His work spans fundamental molecular mechanisms to potential clinical applications in reproductive medicine. Dr. Murakami has received significant recognition for his work, most notably a Medical Research Council (MRC) Career Development Award, which supports his ongoing research into the molecular basis of meiotic recombination. As an active researcher accepting PhD students in Biomedical Sciences, Dr. Murakami continues to advance our understanding of fundamental genetic processes that underlie human reproductive health. His laboratory at the Institute of Medical Sciences on Foresterhill Campus employs yeast genetics and molecular biology approaches to investigate the critical processes that ensure proper chromosome segregation during gamete formation.
Dr. Eugenio Sanchez-Moran is a Reader and Research Fellow in the School of Biosciences at the University of Birmingham. His research focuses on the molecular mechanisms of chromosome condensation and DNA organization during plant meiosis. He holds a Ph.D. from Universidad Complutense de Madrid (2001) and has been supported by prestigious fellowships, including a Marie-Curie Individual Fellowship (2002-2003) and BBSRC Postdoc Research Fellowships (2004-2008). His work integrates cytogenetic, proteomic, and systems biology approaches to understand how chromatin dynamics influence critical biological processes such as cell division, fertility, and genome stability. Research Interests: Chromosome structure and behavior in meiosis, DNA compaction, plant genetics, and the role of chromatin components in genome organization. His studies utilize Arabidopsis thaliana as a model system to investigate the evolutionary conservation of chromatin machinery. Awards: Marie-Curie Fellowship, BBSRC Postdoc Research Fellowship, and David Phillips Fellowship. His research is funded by the Biotechnology and Biological Sciences Research Council (BBSRC). Labs and Facilities: Collaborates with the Birmingham Advanced Light Microscopy (BALM) facility for high-resolution cytogenetic analyses. His work contributes to understanding the molecular basis of meiotic processes and their implications for agriculture and genetics.
Ricardo Benavente is an Extraordinary Professor and Academic Director in the Department of Cell and Developmental Biology at the University of Würzburg's Biocenter. He leads the Benavente Lab, focusing on meiotic processes and synaptonemal complex (SC) structure. His career includes a Dr. med. from the University of Heidelberg, a habilitation (Dr. rer. nat. habil.), and postdoctoral work as an Alexander von Humboldt Fellow at the German Cancer Research Center. Research interests center on the functional organization of the cell nucleus during meiosis, particularly the synaptonemal complex and telomere dynamics. Techniques used include super-resolution microscopy and electron tomography, applied to mouse models and comparative studies across metazoans. Key findings include insights into SC protein conservation and meiotic chromosome behavior. Publications highlight structural studies of SC components (e.g., SYCP proteins), telomere-nuclear envelope interactions, and evolutionary aspects of meiosis. He contributed to the Latin-American Academy of Sciences since 2001 and collaborates with institutions like Uruguay's Clemente Estable Institute. His work bridges molecular mechanisms of meiosis with evolutionary biology, emphasizing structural and functional insights into genetic variability.
Dr. Suzanne Madgwick is a Researcher at Newcastle University, focusing on reproductive and developmental biology with a strong emphasis on oocyte biology, meiotic regulation, and fertility mechanisms. Her work bridges molecular, cellular, and organismal levels to understand fundamental processes in reproduction. She has collaborated extensively with colleagues such as Dr. Mark Levasseur and Dr. David Bulmer, contributing to advancements in understanding chromosome segregation, cell cycle control, and fertility disorders. Her research interests include meiotic arrest mechanisms, cyclin-CDK signaling pathways, and the molecular basis of aneuploidy prevention in oocytes. She has also explored topics such as egg activation, calmodulin-dependent signaling, and the role of specific proteins like separase and Emi2 in reproductive processes. Additionally, her recent work addresses broader scientific community challenges, including promoting inclusivity and sustainability in scientific meetings. Dr. Madgwick’s publications span over two decades, reflecting her sustained contributions to reproductive and cell biology. Her experimental approaches often involve mouse models to study developmental and genetic mechanisms. Despite her extensive research output, she has not explicitly listed student advisees or major grants in the provided text. She is affiliated with Newcastle University’s research groups focused on reproductive science and developmental biology.
University of California, San FranciscoUnited States
Jennifer Fung is an Associate Professor at the University of California, San Francisco (UCSF), affiliated with the Center for Reproductive Sciences. Her academic work focuses on understanding the mechanisms of chromosome segregation during meiosis, with particular emphasis on crossover regulation. Dr. Fung received her B.S. in Biophysics from the University of California, Berkeley in 1987, followed by a PhD in Biophysics from UCSF in 1996. She completed postdoctoral training in Genetics at Yale University in 2003 and a fellowship in Genomics/Cell Biology at UCSF in 2008. Her research interests span multiple areas of genetics and cell biology, with a primary focus on meiosis, chromosome dynamics, and genetic recombination. Using advanced techniques including time-lapse microscopy, structural illumination microscopy, microarray analysis, and biochemical approaches, her lab investigates how crossover control affects chromosome segregation during meiosis. Her work has important implications for understanding genetic disorders that arise from errors in chromosome segregation. Dr. Fung's publications demonstrate consistent contributions to the field of meiotic recombination, with research spanning from basic chromosome pairing mechanisms to the regulation of crossover interference. Her work bridges molecular genetics with cellular dynamics, providing insights into fundamental biological processes. Among her notable achievements are the Mentor Fellowship from UCSF (1992), the International Congress of Electron Microscopy Student Award (1994), the Damon Runyon-Walter Winchell Cancer Foundation Fellowship (1996), and the UCSF Fellow Program Fellowship from The Sandler Foundation (2003). Through her research and mentorship, Dr. Fung has made significant contributions to our understanding of meiotic processes and chromosome dynamics, with implications for reproductive health and genetic stability.
Associate Professor Paul Waters is affiliated with the University of New South Wales in the School of Biotechnology and Biomolecular Sciences . His research program focuses on epigenetic regulation of transcription in vertebrates , particularly sex chromosome evolution and dosage compensation mechanisms across diverse species including marsupials , monotremes , and reptiles . Current projects investigate X chromosome inactivation in wallabies and Tasmanian devils, thermolabile sex determination in the Australian central bearded dragon, and chromatin regulation during hibernation in reptiles. Active PhD/MSc/Honours/3rd-year projects available in Epigenetics and Molecular Biology Teaching Genetics (BABS2204/2264) and other molecular genetics courses Research Trends : Analysis of 15 recent articles reveals sustained focus on sex chromosome biology (X/Y evolution, dosage compensation), epigenetic silencing (DNA methylation, chromatin modifiers), and comparative genomics (marsupial models, platypus, reptiles). Additional work on long non-coding RNAs (e.g., Xist/RSX), meiotic chromosome dynamics , and transposable element evolution . Scientific Awards : NHMRC Ideas Grant APP1182667 (2020-2023) ARC Discovery Project DP180100931 (2018-2020) ARC Discovery Project DP170101147 (2017-2020) Australian Research Fellowship DP0987091 (2009-2014) ARC Discovery Project DP0987091 (2009-2014) Advising & Grants : Supervises PhD/MSc/Honours/undergraduate researchers in epigenetics and molecular biology. Holds multiple ARC/NHMRC grants totaling over $2.5 million , including work on drug-seeking silencing (2020), meiotic sex chromosome evolution (2015), and ancestral genome reconstruction (2008). Collaborations span University of Adelaide , Monash University , ANU , and University of Stellenbosch . Labs & Teams : Leads a research group studying sex chromosome evolution using genomic assemblies , fluorescence in-situ hybridization , and 3D chromatin analysis . Collaborates with Indigenous conservation groups , genomic sequencing teams , and international cytogeneticists (e.g., Ruiz-Herrera, Marshall Graves, Georges). Lab focuses on reptilian hibernation genomics , transmissible cancer epigenetics , and meiotic dynamics in basal mammals .
Mina Kojima is an Associate Research Scientist in the Genetics Department at Yale School of Medicine, Yale University. She holds a PhD in Biology from MIT (2018) and an AB in Molecular Biology from Princeton University (2011). Her research focuses on developmental genetics, chromatin reprogramming, and the maternal-to-zygotic transition. She collaborates extensively with the Giraldez Lab and other groups in studying immune mechanisms in cancer and early embryogenesis. Dr. Kojima’s work spans molecular mechanisms of gene regulation during embryonic development, including studies on zygotic genome activation and transcriptional amplification during meiosis. Her recent studies on tumor-reactive T cells in melanoma patients reveal novel immunosuppressive pathways. She has pioneered methods for isolating germ cells in mice, advancing studies in gametogenesis. Awards: Jane Coffin Childs Postdoctoral Fellowship (2019), NSF Graduate Research Fellowship (2013) Lab: Giraldez Lab (Focus: Developmental genetics and RNA biology) Her research has been published in high-impact journals such as Nature Immunology, Nature Reviews Genetics, and Molecular Cell. Current projects explore synergistic transcription factor networks and the application of genetically encoded affinity reagents (GEARs) to study endogenous protein function in vivo.
Christer Höög is a Professor in Cell and Molecular Biology at the Karolinska Institutet in Stockholm, Sweden. His academic career spans over three decades, with key roles including membership in the research evaluation committee at the Danish Cancer Society (2009-2011) and chairman of the Swedish Cancer Society's research priority committee (2006-2009). He has been elected to prestigious institutions such as Academia Europaea (2009) and the European Molecular Biology Organization (EMBO, 2003), and received the Distinguished Professor Award at Karolinska Institutet (2010). Research Focus: Höög's laboratory investigates meiotic chromosome segregation, emphasizing the role of the synaptonemal complex—a conserved protein structure critical for accurate chromosome pairing and segregation during germ cell division. His work explores how defects in this complex contribute to aneuploidy, a leading cause of miscarriages, congenital disorders, and mental retardation in humans. By combining genetic, biochemical, and ultrastructural approaches, his research aims to uncover molecular pathways underlying meiotic errors and improve assisted reproductive technologies. Scientific Leadership: Current and past committee memberships in cancer and biomedical research institutions Member of the Nobel Assembly in Physiology or Medicine (2007) Honors and Awards: Distinguished Professor Award, Karolinska Institutet (2010) Academia Europaea member (2009) Nobel Assembly member (2007) EMBO member (2003) Flormanska Award (2003)
Uniformed Services University of the Health SciencesUnited States
Philip W Jordan is an Associate Professor in the Department of Biochemistry at the Uniformed Services University of the Health Sciences (USUHS) School of Medicine in Bethesda, MD. He joined USUHS in 2022 after serving as a principal investigator at Johns Hopkins University Bloomberg School of Public Health for ten years. Education: Bachelor of Biotechnology (Hns) – Flinders University of South Australia, Australia (1997-2001) Ph.D. in Cell and Molecular Biology - University of Edinburgh, Scotland (2002-2006) Post-graduate Certificate in Higher Education - University of Sussex, England (2007-2009) Post-doctoral training in Genome maintenance - University of Sussex, England (2007-2010) Post-doctoral training in Reproductive Biology – The Jackson Laboratory, Maine, USA (2010-2013) Dr. Jordan's research focuses on understanding the molecular mechanisms that monitor DNA replication accuracy and DNA damage repair proficiency, as well as processes that ensure accurate chromosome segregation and cell cycle progression. His lab studies the importance of Structural Maintenance of Chromosomes (SMC) complexes and cell cycle kinases, particularly Polo-like (PLK) kinases and Aurora kinases. They use mouse as a model organism to study consequences of gene mutation and chromosome missegregation, which give rise to physical and cognitive developmental defects, infertility and cancer predisposition. They also use mouse and human pluripotent stem cells to help define the function of these proteins within essential molecular pathways of the cell. Their current research encompasses gametogenesis (spermatogenesis and oogenesis), pluripotent stem cell genome maintenance, and neurodevelopment. Dr. Jordan's recent publications demonstrate a strong focus on meiosis, chromosome segregation, and genome maintenance mechanisms. His work spans reproductive biology, neurodevelopment, and stem cell research, with particular emphasis on SMC complexes and cell cycle kinases. The research employs advanced techniques including transgenic models, pluripotent stem cells, and the auxin-inducible degron (AID) system for protein degradation studies. Scientific Awards: UK Fulbright Distinguished Scholar Award from the US-UK Fulbright Commission, 2010 K99-R00 Pathway to Independence Award from NICHD, NIH, 2012-2016 Ho-Ching Yang Memorial Faculty Fellowship in Cancer Prevention, 2014-2015 Discovery Award from Johns Hopkins University, 2015-2016 American Society for Reproductive Medicine (ASRM) KY Cha Award, 2017-2018 Catalyst Award from Johns Hopkins University, 2018-2019 Discovery Award from Johns Hopkins University, 2022-2024 Dr. Jordan has successfully mentored numerous PhD and Masters students through their graduate programs, with many going on to pursue further doctoral studies or medical school. His lab has secured significant grant funding including R01 research grants from NIGMS and NICHD, as well as equipment grants from NIGMS. The lab has also received multiple Discovery and Catalyst Awards from Johns Hopkins University, demonstrating the innovative nature of their research. The Jordan Lab at USUHS maintains an active research program with multiple postdoctoral researchers, PhD students, and undergraduate researchers working collaboratively on projects related to genome maintenance, meiosis, and neurodevelopment. The lab has recently received R01 grant renewals and new R01 grants, indicating continued strong support for their research program.
Yumi Kim is an Associate Professor in the Department of Biology at Johns Hopkins University, within the Krieger School of Arts & Sciences. Her research focuses on the molecular mechanisms governing chromosome dynamics during meiosis, particularly in C. elegans. She received her Ph.D. from UC San Diego and completed postdoctoral research at UC Berkeley. Education: Ph.D., University of California San Diego Postdoctoral Research, UC Berkeley Research Interests: Dr. Kim investigates how chromosomes organize and interact during meiosis. Her work centers on synaptonemal complex formation, kinase regulation (e.g., Polo-like kinase), and the molecular basis of crossover assurance. She employs genetic, biochemical, and live-cell imaging approaches to dissect these processes. Publications: Her recent work highlights discoveries in synaptonemal complex components, kinase-substrate interactions, and checkpoint regulation. Key themes include C. elegans meiotic progression and spatial-temporal control of meiotic events. Awards: No scientific awards explicitly listed in the provided text. Advising & Grants: No student names or grant details provided, though her lab likely focuses on training graduate students in meiosis research. Lab activities involve protein biochemistry, microscopy, and genetic analysis. Labs/Teams: Her lab is located in 385 UTL with contact details available. Research emphasizes C. elegans as a model organism for studying conserved meiotic mechanisms.
Professor Ian Adams serves as a Programme Leader and Professor at the University of Edinburgh, holding a Chair position in Reproductive Biotechnologies within the Royal (Dick) School of Veterinary Studies. He is based at the MRC Human Genetics Unit in the Institute of Genetics and Cancer, where he leads a research group focused on genetic and chromosomal stability in mammalian germ cells. His research interests center on understanding how genetic and chromosomal stability is maintained in mammalian germ cells, with particular focus on chromosome segregation during gamete formation. His work investigates the mechanisms that prevent errors leading to aneuploidy, which causes miscarriage, infertility, and conditions like Down's Syndrome. Using mouse models, his laboratory studies genes like Tex19.1 that help maintain proper chromosome numbers in eggs and sperm. His recent publications reveal a consistent research trajectory examining meiotic chromosome structure, synaptonemal complex formation, retrotransposon regulation, and sister chromatid cohesion in germ cells. These studies connect fundamental genetic mechanisms with clinical reproductive outcomes, particularly focusing on why chromosome segregation errors increase with maternal age. Professor Adams supervises multiple PhD students and collaborates with researchers across the University of Edinburgh, including Prof. Richard Meehan, Prof. Wendy Bickmore, and Prof. Javier Caceres. His laboratory receives significant funding from the Medical Research Council and BBSRC for projects investigating chromosomal instability in the mammalian germline and human-specific regulatory mechanisms in female germ cell development.
Ziliang Zhao is a Research Scientist in the Biophysical Imaging Department at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany. His work focuses on the intersection of advanced imaging techniques and fundamental biophysical processes, particularly examining how biomolecular condensates interact with cellular membranes. Dr. Zhao's research interests span multiple domains of biophysics and membrane science. His work primarily investigates the complex interactions between biomolecular condensates and lipid membranes, exploring how these interactions lead to remarkable morphological transformations including membrane wetting, fingering phenomena, and the formation of double-membrane sheets. He employs cutting-edge microscopy techniques, especially STED (stimulated emission depletion) super-resolution microscopy, to visualize and analyze highly curved membrane structures that are beyond the diffraction limit of conventional light microscopy. His research bridges fundamental biophysical principles with potential applications in synthetic cell engineering and understanding cellular organization. Analysis of Dr. Zhao's publication record from 2021-2025 reveals a consistent research trajectory focused on membrane biophysics and biomolecular condensates. His work demonstrates increasing sophistication in both experimental approaches and theoretical understanding. A notable trend is his progression from studying basic membrane properties to examining complex interactions between membranes and biomolecular condensates, with applications in synthetic biology. His publications appear in high-impact journals including Nature Communications, PNAS, and Advanced Materials, indicating significant contributions to the field. Dr. Zhao maintains an active research program with multiple ongoing collaborations, particularly with researchers such as Dimova, Lipowsky, and Eggeling. His work demonstrates both experimental and theoretical approaches to understanding membrane biophysics, with practical applications in developing more realistic synthetic cell models. The research group appears to be well-equipped with advanced microscopy facilities, particularly for super-resolution imaging of dynamic membrane processes.
Diana Libuda is an Associate Professor in the Department of Biology at the University of Oregon, affiliated with the College of Arts and Sciences. Her research focuses on molecular mechanisms underlying meiosis, particularly DNA repair, recombination, and chromosome dynamics in Caenorhabditis elegans . She leads the Libuda Lab ( www.libudalab.org ), where her team investigates gametogenesis and the genetic basis of fertility. Key research areas include: (1) Regulation of meiotic recombination by synaptonemal complex proteins, (2) Role of BRCA1/BRC-1 and SMC-5/6 in DNA repair pathway choice, and (3) Mechanisms of nuclear migration through constricted spaces during development. Her work bridges genetics, cell biology, and genomics to understand fundamental processes in reproduction and genome stability. Dr. Libuda has pioneered techniques like auxin-dependent protein depletion for live imaging in C. elegans , enabling real-time observation of meiotic processes. Her lab also developed quantitative image analysis tools for germline studies. Notable achievements include identification of transposable element roles in structural variation and discovery of CDC-42-driven actin networks in nuclear positioning. Recipient of the 2018 PLOS Genetics Research Prize for her work on spindle assembly during meiosis. Active in interdisciplinary research collaborations, particularly with Stanford University School of Medicine. Office located at 375E Streisinger Hall, with contact details available via email dlibuda@uoregon.edu .
Christer Höög is a Professor of Molecular Cell Biology at Karolinska Institutet's Department of Cell and Molecular Biology. His research focuses on understanding the role of the synaptonemal complex in meiotic chromosome segregation, particularly how its dysfunction contributes to aneuploidy in human oocytes. Key areas include synaptonemal complex structure, meiotic spindle dynamics, and age-related fertility decline mechanisms. Research contributions include studies on Aurora kinase regulation in oocytes, CTCF's role in male fertility, and structural analyses of synaptonemal complex components using cryo-fixation protocols. His group's work bridges molecular mechanisms with clinical implications for reproductive health and genetic disorders. Employment: Professor since 2006 Docent (Assoc. Prof. equivalent) at Karolinska Institutet since 1992 Scientific focus includes chromosome segregation fidelity, meiotic error correction, and developmental genetics. Laboratory members include Senior Lab Manager Jian-Guo Liu and Biomedical Scientist Sonata Valentiniene.
