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Ina

@inaharasimov.bsky.social
113 followers 118 following 2 posts

EMBO Postdoctoral Fellow at Uni Cambridge.

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Reposted by Ina
Teresa Rayon @trayon.bsky.social · 12/09/2026
‼️ Postdoc position open. We study how protein metabolism controls time. If you’re excited by this question, we’d love to hear from you! We’re looking for a motivated & collaborative researcher with a strong track record. 📅 30 September 2026 📢 Please share Apply here 👇👇
babraham.current-vacancies.com
Postdoctoral Research Scientist - Babraham
The lab investigates the molecular mechanisms that control biological timing in mouse and human stem cells (Azzi & Rayon, Curr Opinions 2024; Nakanoh et al., Dev Cell 2026). The central aim of this ex...
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Vincent Pasque @pasquelab.bsky.social · 10/09/2026
Excited to share our News & Views published in Nature @nature.com rdcu.be/CYRkCWQMQPJa In this piece, Sherif Khodeer and I discuss two important studies using DNA base editing in human embryos to study gene function in development and to introduce disease protecting alleles.
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Christopher Thomas @ovarylab.bsky.social · 31/08/2026
Excited to share this fantastic collaboration with the teams of @mhverlhac.bsky.social and @bokelab.bsky.social, where we identify and characterise the Zollo body — a transient RNP compartment that drives oocyte and follicle growth! 🥚🔬 www.science.org/doi/10.1126/...
Microscopy image of a growing oocyte enclosed within an ovarian follicle. Mitochondria are labelled in magenta, revealing the Zollo body as a distinct region next to the oocyte nucleus. Myosin II is shown in cyan, highlighting the surrounding cell structure.
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Niakan Lab @niakanlab.bsky.social · 20/08/2026
Great to see this out! 🎉 link.springer.com/article/10.1... from @inaharasimov.bsky.social Also, very happy to report that the preprint www.biorxiv.org/content/10.6... was selected as top 1% of bioRxiv papers in the last year! www.qedscience.com
link.springer.com
In-situ cryo-ET of mouse embryos reveals cytoplasmic lattices contain ubiquitin-charged E2-E3 ligase assemblies - The EMBO Journal
Cytoplasmic lattices (CPLs) are filamentous assemblies essential for mammalian embryonic development. They are known to regulate organelle organization, spindle assembly, and protein homeostasis, but ...
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James Briscoe @jamesbriscoe.bsky.social · 13/08/2026
Good to see this out Mouse neural progenitors degrade proteins faster than human, driven by higher proteasome activity Increasing IRX3 turn over speeds OLIG2 induction, implicates protein stability in developmental tempo Great work by @trayon.bsky.social & co authors.elsevier.com/sd/article/S...
authors.elsevier.com
Proteasome-dependent protein degradation shapes developmental tempo in mouse and human neural progenitors
The pace of embryonic development differs between mammalian species, yet the molecular basis for this remains unknown. By comparing protein dynamics i…
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Kashish Singh @kashishsingh.bsky.social · 13/08/2026
Very happy to see the final version of our work on the structure and composition of cytoplasmic lattices in mouse embryos, previously shared on bioRxiv, now published in The EMBO Journal! Many thanks to our editor, Ieva Gailite, and the reviewers for their constructive input.
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The EMBO Journal @embojournal.org · 11/08/2026
What’s the function of embryonic ‘cytoplasmic lattices’? Using cryo-ET, @kashishsingh.bsky.social @carter-lab.bsky.social and coworkers reveal them as megadalton-size hubs of ubiquitination proteins/ubiquitin transfer link.springer.com/article/10.1...
link.springer.com
In-situ cryo-ET of mouse embryos reveals cytoplasmic lattices contain ubiquitin-charged E2-E3 ligase assemblies - The EMBO Journal
Cytoplasmic lattices (CPLs) are filamentous assemblies essential for mammalian embryonic development. They are known to regulate organelle organization, spindle assembly, and protein homeostasis, but ...
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Niakan Lab @niakanlab.bsky.social · 04/08/2026
We have a postdoc position available in the lab and would like to spread the word. Please apply if you are interested! www.cam.ac.uk/jobs/researc...
cam.ac.uk
Research Associate (Fixed Term)
We seek a highly motivated Postdoctoral Research Associate to join the laboratory of Professor Kathy Niakan. We are based in the Loke Centre for Trophoblast Research (LCTR), in the Department of Physi...
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Courtney Hanna @cwhanna.bsky.social · 09/07/2026
Is the unusual DNA methylation landscape in extra-embryonic tissues a mammalian trait? I'm excited to share our latest work led by @georgiaplea.bsky.social, comparing the molecular signatures of trophoblast/extra-embryonic ectoderm between human, mouse and chicken. tinyurl.com/bdzesv2n
tinyurl.com
Conserved and divergent DNA methylation features of extraembryonic tissues between human, mouse and chicken - BMC Genomics
Background The first cell fate decisions in embryogenesis give rise to extraembryonic tissues, such as the yolk sac and placenta, which are essential for embryo survival. In mammals, extraembryonic cell types arising from these first lineage decisions show distinct DNA methylation patterning, including large partially methylated domains, gene body methylation and accumulation across developmental CpG island (CGI) promoters. Analysis of extraembryonic membranes beyond mammalian species has been limited. Using bisulphite-seq and RNA-seq, we comparatively define these epigenetic characteristics of extraembryonic tissues in both mouse and human. We then tested whether these features are conserved in the chicken extraembryonic membranes (EEMs) including the yolk sac, chorion and chorioallantoic membrane (CAM). Results Transcriptomic analysis revealed that embryonic day (E)4 yolk sac/chorion and E14 CAM express similar marker genes to the mouse chorionic trophoblast, supporting that the chicken chorionic ectoderm shares a ‘trophoblast-like’ cell identity. We find that partially methylated domains and transcription-linked gene body methylation patterning are highly conserved between mouse and human proliferative multipotent trophoblast cells but were not evident in the chicken EEMs. However, we find that methylation of CGIs associated with developmental genes was a conserved feature of mouse, human and chicken EEMs. Conclusions These findings support that features of the extraembryonic DNA methylation landscape have distinct underlying mechanisms. We find that only one feature is conserved across extant amniotes, suggesting distinct evolutionary pressures are associated with different features of EEM epigenetic landscape.
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Niakan Lab @niakanlab.bsky.social · 26/06/2026
Congrats to Oliver Bower, @inaharasimov.bsky.social and everyone involved on the publication of our latest findings! www.nature.com/articles/s41...
nature.com
Base editing reveals an essential role for NANOG in human embryogenesis - Nature
Nature - Base editing reveals an essential role for NANOG in human embryogenesis
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University of Cambridge @cam.ac.uk · 26/06/2026
Scientists at Cambridge's @loke-ctr.bsky.social have, for the first time, used base editing to study gene function in human embryos. In future, the findings could help to improve IVF success rates and better understand early pregnancy loss. Read more: bit.ly/4aQOAZD
A digitally enhanced image showing colorful cellular structures in shades of purple, pink, teal, and yellow on a black background, accompanied by the text: "New Cambridge research: First use of precision editing to study human embryo development reveals role of master gene."
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Nature @nature.com · 25/06/2026
For the second time this month, a team of researchers has reported harnessing a precise gene-editing technique to alter the DNA of human embryos go.nature.com/4vwIXrO
go.nature.com
‘Edited’ human embryos reveal secrets of our development — and fuel ethical debate
Ethical discussions are urgently needed as genome-editing science advances, some researchers say.
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MRC Laboratory of Molecular Biology @mrclmb.ac.uk · 05/05/2026
The hidden rules behind mRNA transport. A collaborative study between @simonbullock11.bsky.social & @carter-lab.bsky.social’s groups has found a structural code that explains how cells selectively transport mRNAs. Read more: mrclmb.ac.uk/news-events/... #LMBNews @cellbiol-mrclmb.bsky.social 🧪
Structural representation of the Egl-BicD-dynein-dynactin complex transporting an mRNA molecule along a microtubule, with a magnified inset of the Egl-BicD-RNA structure.
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Niakan Lab @niakanlab.bsky.social · 30/04/2026
Really exciting to see our new review published! This review explores the evolutionary history of the extra-embryonic endoderm, an evolutionarily ancient tissue co-opted to form the yolk sac, and explores how in vitro models are uncovering its biology. Check it out here: doi.org/10.1242/dev....
doi.org
The vertebrate yolk sac: evolutionary origins and current advances in in vitro models
Summary: This Review examines the evolutionary history of the extra-embryonic endoderm, an evolutionarily ancient tissue co-opted to form the yolk sac, and explores how in vitro models are uncovering ...
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Carter Lab @carter-lab.bsky.social · 29/04/2026
New preprint from the lab, looking at how multiple different adaptors interact with dynein! Work led by @amicoennio.bsky.social. Available now on BioRxiv: doi.org/10.64898/202...
doi.org
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Doudna Lab @doudna-lab.bsky.social · 27/04/2026
We present VIPR, a phage-encoded RNA-guided system that recognizes DNA with a noncontiguous code unlike CRISPR. Tiny, programmable, possibly ancestral to CRISPR immunity; VIPR is built around a striking RNA-DNA-DNA triplex.
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Juan C. Landoni @jclandoni.bsky.social · 24/04/2026
We're hiring! 🔬🏔️ Looking for curious, open-minded, and multidisciplinary #PhD candidates to research at the intersection of #mitochondria, #metabolism, #imaging & #physiology, with the #Alps as a backdrop. Sounds like you or someone you know? Link below! @fbm-unil.bsky.social @unil.bsky.social
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FocalPlane @focalplane.bsky.social · 21/04/2026
Brilliant talk from @kashishsingh.bsky.social at Dynamic Cell VI highlighting their work examining cytoplasmic lattices in embryos using cryo-ET. We highlighted this work in our recent preprint list. Preprint: www.biorxiv.org/content/10.6... Preprint list: focalplane.biologists.com/2026/04/17/m...
focalplane.biologists.com
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Ina @inaharasimov.bsky.social · 24/03/2026
Cytoplasmic lattices are a highly abundant and essential structure in mouse oocytes and embryos. Our in situ structure from early mouse embryos provides a new insight into their molecular achitecture and function. Check it out: www.biorxiv.org/content/10.6...
biorxiv.org
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Carter Lab @carter-lab.bsky.social · 24/03/2026
Excited to share our work on the structure and function of cytoplasmic lattices within mouse embryos. A collaborative effort with @niakanlab.bsky.social and work led by @kashishsingh.bsky.social and @inaharasimov.bsky.social . It is now out on BioRxiv: www.biorxiv.org/content/10.6...
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Takashi Akera Lab @takashiakeralab.bsky.social · 22/03/2026
We are hiring POSTDOC now!🚨please repost! Fully-funded 5-year position 👩🏻‍🔬👨‍🔬🧬Looking forward to your application!✉️
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Merriam-Webster @merriam-webster.com · 30/01/2026
❤️
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Rajiv McCoy @rajivmccoy.bsky.social · 21/01/2026
Pregnancy loss is common in humans, and chromosomal abnormalities are the leading cause. Using genetic data from ~140,000 IVF embryos, we show that maternal variation in meiosis genes influences recombination and aneuploidy risk. First authors: @saracarioscia.bsky.social & @aabiddanda.github.io
nature.com
Common variation in meiosis genes shapes human recombination and aneuploidy - Nature
Analysis of data from pre-implantation genetic testing sheds light on the genetic basis of meiotic-origin aneuploidy, the leading cause of human pregnancy loss, identifying common genetic variants ass...
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Gladfelter Lab @gladfelterlab.bsky.social · 05/01/2026
Interested in the MBL Physiology Course in Woods Hole and want to learn more before you apply? Join myself and Cliff at our Virtual Open House TOMORROW 2–3 PM ET. You will hear what the course experience is like and get all your questions answered. Register/Join: princeton.zoom.us/j/97673682905
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Marine Biological Laboratory @mblscience.bsky.social · 27/12/2025
Interested in the MBL Physiology Course and want to learn more before you apply? Join our Virtual Open House on Tues, Jan 6, 2026 | 2–3 PM ET to meet the team, hear what the course experience is like, and get your questions answered. 🔗 Register/Join: go.mbl.edu/r5q
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Binyam Mogessie ቢንያም ሞገሴ @binyammogessie.bsky.social · 04/11/2025
We built a targeted protein degradation–based system to mimic reproductive age-related aneuploidy in young eggs - revealing how chromosome errors associated with female infertility arise with age. 🧬✨ With @jiyeonleem.bsky.social and our team at Yale MCDB. Read: www.nature.com/articles/s43...
nature.com
A versatile cohesion manipulation system probes female reproductive age-related egg aneuploidy - Nature Aging
To study pathways that lead to aneuploidy during aging, the authors provide a system that enables cohesion protein depletion in mouse oocytes, mimicking effects that occur during aging. They uncover a...
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Niakan Lab @niakanlab.bsky.social · 23/10/2025
Thrilled to see this published! Well done Ahmed on spearheading a project revealing mitotic errors in human embryos arise much later than anticipated. Thank you to collaborators @bensteventon.bsky.social Leila Muresan and all of the wonderful teams at Bourn Hall and Create Fertility clinics!
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Kashish Singh @kashishsingh.bsky.social · 05/08/2025
Check out our latest work now out on biorxiv www.biorxiv.org/content/10.1...
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Carter Lab @carter-lab.bsky.social · 05/08/2025
Excited to share our latest work with @simonbullock11.bsky.social! We looked at how diverse mRNAs get selected for subcellular localization and it turns out that a single protein can recognize different RNA elements using shared features that weren’t apparent before. www.biorxiv.org/content/10.1...
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