Sign in

Takehiro A. Ozawa

@tkozawa.bsky.social
407 followers 862 following 41 posts

PhD graduate at CINVESTAV Unidad Irapuato 🇲🇽. Interested in microalgae (e.g. Botryococcus braunii), algal biotechnology and plant energy management (i.e. #PlantTOR and #SnRK1 signaling pathways 🌱⚡️).

PostsRepliesMedia
Reposted by Takehiro A. Ozawa
Ben Engel @cellarchlab.com · 02/10/2026
Nice @jcellsci.bsky.social "at a glance" review about the convergently evolved organizing principles of pyrenoids, chloroplast compartments that enable diverse algae to supercharge #CO2 fixation. BONUS: It comes with a poster for your wall 🖼️. Great work @phaips.vd.st & @manondemulder.bsky.social 🌊🌾🧪
03010
Reposted by Takehiro A. Ozawa
Cell - a Cell Press journal @cp-cell.bsky.social · 30/09/2026
Now online! Salicylic acid engages central metabolic regulators SnRK1 and TOR to govern immunity by differential phosphorylation of NPR1
dlvr.it
Salicylic acid engages central metabolic regulators SnRK1 and TOR to govern immunity by differential phosphorylation of NPR1
The immune signal SA triggers metabolic changes to activate SnRK1 while inhibiting TOR. These central metabolic kinases antagonistically phosphorylate the key immune regulator NPR1, thereby coupling cellular metabolic state to systemic acquired resistance.
11816
Reposted by Takehiro A. Ozawa
Nature @nature.com · 28/09/2026
Nature research paper: Lsp2 links mTORC1 to TOP mRNA translation and lifespan in Drosophila go.nature.com/4hcbsGD
go.nature.com
Lsp2 links mTORC1 to TOP mRNA translation and lifespan in Drosophila - Nature
In Drosophila, the protein Lsp2, which is induced by dietary essential amino acids, is a key physiological effector of mTORC1, and mutant flies that lack the Lsp2 gene exhibit reduced translation of TOP mRNAs and improved longevity.
092
Reposted by Takehiro A. Ozawa
Schneeberger Lab @labschneeberger.bsky.social · 28/09/2026
Thrilled to share our new @nature.com paper from Xiao Dong on the mutational dynamics of centromeres in Arabidopsis thaliana! 🌱 A quick thread on what we found... 🔗 doi.org/10.1038/s415...
doi.org
The mutational dynamics of the Arabidopsis centromeres - Nature
Centromeres in Arabidopsis thaliana evolve through frequent insertions and deletions of repeat units and increased rates of point mutations driven by homology-directed repair, a mutation spectrum that...
14313
Reposted by Takehiro A. Ozawa
Lawrence Rudy Cadena @rudycadenabioevo.bsky.social · 27/09/2026
Our paper on the subcellular proteome of Paulinella is finally out! A possible oxygen-scavenging mechanism to enhance RuBisCO carboxylation highlights how protists can reveal unexpected solutions to challenges in photosynthesis. Big kudos to everyone involved! @evanowack.bsky.social
12313
Reposted by Takehiro A. Ozawa
James Lloyd 🧬 @jamespblloyd.bsky.social · 25/09/2026
I’m delighted to share our new pre-print: Make it so: Rapid and affordable plasmid sequencing on ONT platforms with PICARD-seq www.biorxiv.org/content/10.6... I wanted to use a MinION to sequence my large repetitive plasmids in-house. Luckily @jwdebler.bsky.social was willing to help. 1/14
biorxiv.org
Make it so: Rapid and affordable plasmid sequencing on ONT platforms with PICARD-seq
Plasmid construction underpins molecular biology and synthetic biology, yet validation is often limited to the inserted fragment rather than the whole plasmid, and around a third of laboratory-made pl...
13514
Reposted by Takehiro A. Ozawa
Bas Bargmann @bas-bargmann.bsky.social · 25/09/2026
I am very pleased to present the lab’s first #bluetorial! This concerns our recent publication in Development @dev-journal.bsky.social doi.org/10.1242/dev.... This work, led by postdoc (and former grad student) Kelsey Reed, is the result of many years of hard work by a wonderful team. (1/n)
doi.org
A protoplast-based method to visualize early cell biological events in plant cellular reprogramming and regeneration
Summary: This study presents a live-imaging platform for tracking individual plant protoplasts in culture, enabling analysis of cellular processes, signaling dynamics and developmental transitions.
32716
Reposted by Takehiro A. Ozawa
Noel Blanco-Touriñán @noelponte.bsky.social · 24/09/2026
🧵 1/8 Have you ever wondered how information embedded within exons regulates gene expression in plants? 🌱🧬 Check out our latest work, where we explore how exonic enhancers (EEs) shape gene expression in plants! www.biorxiv.org/content/10.6...
24324
Reposted by Takehiro A. Ozawa
Graeme Kettles @graemekettles.bsky.social · 23/09/2026
Our group's latest preprint shows TurboID can be adapted for studying extracellular elicitor-receptor interactions in plants. Hopefully useful for the apoplastic MPMI community www.biorxiv.org/content/10.6... Led by former PhD @abdelrahmanqutb.bsky.social
biorxiv.org
A TurboID-based proximity labelling method for detecting extracellular protein interactions in plants
The apoplast is a primary location for interactions between plants and invasive pathogens and is the site where many pathogen-secreted effectors are perceived by cell surface immune receptors to activ...
03222
Reposted by Takehiro A. Ozawa
Sebastian Samwald (Basti) he/him @samwalds.bsky.social · 23/09/2026
This has originally developed out of a thought along the lines of: "What can you do if you only manage to get weak fluorescence signals?" A short explaining thread 🧵
24324
Reposted by Takehiro A. Ozawa
Moi Expósito-Alonso (MOILAB) @mexpositoalonso.bsky.social · 21/09/2026
Fantastic Asst Professor positions open across multiple UC Berkeley departments @ucberkeleyofficial.bsky.social Plant/Algae/Microb aprecruit.berkeley.edu/JPF05522 Plant/Env aprecruit.berkeley.edu/JPF05382 Gen/Dev/Evo aprecruit.berkeley.edu/JPF05481 Eco aprecruit.berkeley.edu/JPF05489
aprecruit.berkeley.edu
Assistant Professor – Plant or Macroalgae-Associated Microbial Communities and Interactions - Plant and Microbial Biology
University of California, Berkeley is hiring. Apply now!
05171
Reposted by Takehiro A. Ozawa
Yuki Hata @dekatarousanbs.bsky.social · 20/09/2026
Recently, a new paper from my previous lab on a model fern, Ceratopteris richardii, was published. We generated kai2 loss-of-function mutants in the fern using CRISPR/Cas9 combined with ribozyme-gRNA-ribozyme (RGR) technology. academic.oup.com/pcp/advance-...
1123
Reposted by Takehiro A. Ozawa
Jake Harris @c-jake-harris.bsky.social · 18/09/2026
Very excited to share the new preprint from our lab on transcriptional memory and immune priming! Herculean effort from first authors Linhao and Jenia. Epigenome-engineering experiments provide evidence that H3K4me3 plays a causal role!  doi.org/10.64898/202...
doi.org
02812
Reposted by Takehiro A. Ozawa
Songwen Zhang @songwenz.bsky.social · 16/09/2026
Thrilled to share our new paper in Nature: We found how salicylic acid drives plant immune signaling — it binds its receptor NPR1 and allosterically boosts NPR1’s grip on the Mediator complex (via MED15), switching on defense genes. www.nature.com/articles/s41...
nature.com
Transcriptional activation of plant immunity by salicylic acid - Nature
A mechanistic basis for how the hormone salicylic acid promotes transcriptional activation during plant immune responses is described.
1359
Reposted by Takehiro A. Ozawa
Dan Sloan @sloanevolab.bsky.social · 15/09/2026
Please share! Our lab at Colorado State University is recruiting a PhD student to join us starting fall 2027. We are broadly interested in plant molecular evolution and comparative genomics. More info about our lab and grad programs is available on our lab website. sites.google.com/site/danielb...
sites.google.com
Sloan Lab
Welcome! Our research focuses on the evolutionary process at the molecular level. In particular, we investigate how a mixture of natural selection and non-adaptive forces create and maintain the amazi...
01418
Reposted by Takehiro A. Ozawa
Paloma Durán @paduba.bsky.social · 14/09/2026
Happy to share our latest work digging a bit more into what makes the the core microbiota of photosynthetic organisms convergent (or not!). Work performed @lipme-toulouse.bsky.social @cnrs.fr, in collaboration with @guan06rui.bsky.social @quadraminstitute.bsky.social tinyurl.com/3e958dt6 (1/10)
tinyurl.com
Environmental factors and microbe-microbe interactions drive the structure of the core microbiota of terrestrial microalgae
Plants and other photosynthetic organisms interact with their environment and surrounding microbiota through specialized associations. A global core microbiota has been proposed at high taxonomic levels, such as the order level. However, it remains unclear which environmental factors and how microbe-microbe interactions drive variation of this core microbiota at lower taxonomic resolution. Here, we leveraged the environmental diversity of 141 sites across the southwest of France to characterize algal populations, and their associated bacterial and fungal microbiota. We then performed a meta-analysis, combining these data with published datasets to formally identify the global core microbiota of terrestrial photosynthetic organisms, which comprises seven bacterial and five fungal orders. We next investigated diversity within this core microbiota and the environmental drivers shaping site-specific community composition. While environmental factors have a low impact on the total relative abundance of core orders, the core microbiota at the ASV-level is impacted by climatic factors, edaphic factors, and plant community descriptors. Using interaction network analysis, we finally explored how microbe-microbe interactions contribute to the assembly of stable core communities. Our results show that core ASVs occupy central positions in algal-associated microbial networks and that distinct core orders drive site-specific variation in core microbiota structure. Together, these findings highlight the importance of both environmental context and microbial interactions in shaping the composition and stability of the core microbiota associated with photosynthetic organisms. ### Competing Interest Statement The authors have declared no competing interest. European Research Council, 951444 – PATHOCOM, erc-stg-948219, EPYC Agence Nationale de la Recherche, ANR-10-LABX-41 Biotechnology and Biological Sciences Research Council, https://ror.org/00cwqg982, BB/ X011054/1, BBS/E/F/000PR13631
14426
Reposted by Takehiro A. Ozawa
Daniel Kierzkowski @kierzkowskilab.bsky.social · 12/09/2026
🌱We are looking for an Assistant Professor in Plant Molecular Genetics @irbv.bsky.social If you are passionate about genetics, molecular biology, or imaging, this is your chance to join a community of researchers working on plant development, cell biology, evolution, and biodiversity 🧬🔬 🧪🍁
rh-carriere-dmz-eng.synchro.umontreal.ca
Careers
Through your undergraduate and graduate-level teaching, and your research activities, you will contribute to the faculty’s pursuit of excellence. Furthermore, you will promote your discipline and actively participate in the daily activities of a renowned institution. As such, you will:
02430
Reposted by Takehiro A. Ozawa
Gautier Langin @glangin.bsky.social · 11/09/2026
Preprint Alert! 🚨 Have you ever wondered how highly conserved molecular complexes adapted to ever changing cellular environments? Thrilled to show our work on 26S proteasome evolution in the green lineage. 🌱🧬👇 www.biorxiv.org/content/10.6... A thread🧵
biorxiv.org
Gene repertoire expansion and cis-regulatory diversification shaped 26S proteasome evolution within a proteostasis-centered network
The 26S proteasome is essential for proteostasis and constitutes one of the most conserved molecular machineries in eukaryotes. Its homeostasis is maintained by a mechanistically conserved feedback lo...
22618
Takehiro A. Ozawa @tkozawa.bsky.social · 07/09/2026
Great work by Busche et al. (2026) on how #PlantTOR can reduce #plasmodesmata (PD) transport in plants by promoting the expression of PD-localized callose binding proteins (PDCBs), which drive #callose deposition at PD through the PP2A-ABI5-PDCB1/2 signaling axis 🌱. 🔗 www.science.org/doi/10.1126/...
Fig. 4. Glucose-TOR signaling drives callose deposition at PD through the PP2A-ABI5- PDCB signaling axis.
(A and B) TOR and PP2A antagonistically regulate callose deposition at PD in leaves. Callose deposits in cell walls were stained with aniline blue and visualized using confocal fluorescence microscopy. Inhibiting TOR with Torin2 (T2) significantly decreased PD callose (n ≥ 27, P < 10−2), whereas inhibiting PP2A with either CAN or OA significantly increased PD callose (n ≥ 27, P < 10−7). Representative images shown in (B).
(C and D) Overexpressing the transcription factor ABI5 is sufficient to significantly increase callose deposition at PD compared to mock controls (35SPRO:GFP) (n ≥ 27, P < 10−7).
(E and F) Silencing ABI5 is sufficient to reduce callose deposition at PD compared to mock controls (n ≥ 16, P < 10−1). Oppositely, silencing DSE1 increases PD callose, as expected (n ≥ 27, P < 10−7).
(G) Glucose-TOR-ABI5 signaling induces PDCB1 and PDCB2 expression. Wild-type (WS) and abi5-1 mutant seedlings were grown to quiescence and then supplied with glucose or glucose and Torin2. mRNA levels of ABI5, PDCB1, and PDCB2 were then quantified using RT-dPCR.
(H) Model summarizing how TOR can reduce PD transport by driving callose deposition at PD through a PP2A-ABI5- PDCB1/2 signaling axis. a.u., arbitrary units.
030
Reposted by Takehiro A. Ozawa
New Phytologist @newphyt.bsky.social · 07/09/2026
The MexMAGIC population reveals the genetic architecture of traits exhibiting clinal variation in Mexican native maize Perez-Limón et al. nph.onlinelibrary.wiley.com/doi/10.1111/...
Founder selection and design of the MexMAGIC population.
042
Reposted by Takehiro A. Ozawa
Colin Kremer @quant-ecology.bsky.social · 03/09/2026
“Cool” new NSF postdoc position available in my lab at UConn, studying our unique Arctic phytoplankton collection and the interactive effects of temperature, light, and photoperiod. 3 years of funding, detailed job ad here: s.uconn.edu/q1o0itl62l.
Picture of centric Arctic diatom
35252
Reposted by Takehiro A. Ozawa
Nature Biotechnology @natbiotech.nature.com · 02/09/2026
Engineered genomic attachment sites for site-specific recombinases enable high-efficiency integration in plants and human cells www.nature.com/articles/s41...
nature.com
Engineered genomic attachment sites for site-specific recombinases enable high-efficiency integration in plants and human cells - Nature Biotechnology
DNA recombination in rice is optimized by engineering genomic attachment sites.
1121
Reposted by Takehiro A. Ozawa
Jose M. Estevez @estevezjosem.bsky.social · 04/09/2026
Happy to share a joint work leaded by Hernan Salinas Grenet between Jose M. Alvarez´lab and my group on "GRNs acting on dual stress Low Pi and Salt stress in roots" using data mining and functional validation. Please take a look here www.biorxiv.org/content/10.6... #roots #multiplestresses
053
Reposted by Takehiro A. Ozawa
bioRxiv Plant Bio @biorxiv-plants.bsky.social · 03/09/2026
A CO2-limitation-induced cytosolic repressor enables shutdown of the algal CO2-concentrating mechanism www.biorxiv.org/content/10.64898/20…
012
Reposted by Takehiro A. Ozawa
Thomas Mock @thomasmock.bsky.social · 01/09/2026
On behalf of 108 colleagues and friends from 11 countries, thrilled to share the first paper from our 100 #Diatom Genomes Project (100DGP). Just out @plosbiology.org | @norwichmicro.bsky.social | @ueaenv.bsky.social | @jgi.doe.gov doi.org/10.1371/jour...
doi.org
The 100 Diatom Genomes Project
This Community Page presents the 100 Diatom Genomes Project, which aims to sequence the genomes and transcriptomes of 100 diatom species across major lineages, life forms and ecological strategies. Th...
09437
Reposted by Takehiro A. Ozawa
Khaled_Selim Lab @selimlab.bsky.social · 01/09/2026
A press about our recent publication on Ca2+ signaling for controlling communication machinery in #cyano bacteria🦠 @hhu.de @cmfi.bsky.social @unituebingen.bsky.social Supposed by @spp2389.bsky.social @sfb1381.bsky.social @mibinet.bsky.social @ceplas.bsky.social www.eurekalert.org/news-release...
1307
Reposted by Takehiro A. Ozawa
Daan Weits @daanweits.bsky.social · 31/08/2026
Our work, Progressive oxygenation of developing leaves directs morphogenesis, is now out in Science Advances! We found that developing leaves oxygenate from tip to base, strikingly mirroring their developmental axis, and this drives leaf dev. www.science.org/doi/10.1126/sciadv.aef2430 #plantscience
24523
Reposted by Takehiro A. Ozawa
KunzLab@LMU @kunzlab.bsky.social · 29/08/2026
New PEC story 🌱 led by PhD cand Susi with amazing collabs Grimm, Hause & Robatzek labs! We patch-clamped isolated plastids to show that PECs mediate rapid cation flux across the IE. PECs relay Ca²⁺ signals into plastids & link Ca²⁺ to JA-mediated defense. #plantscience www.pnas.org/doi/10.1073/...
Model of chloroplast Ca²⁺-mediated priming: after a stress trigger, plants show a larger stromal Ca²⁺ signal via PEC1, boosting OPDA and JA production and enhancing defense gene expression compared to baseline
53516
Reposted by Takehiro A. Ozawa
Ajeet Chaudhary @ajeetchaudhary.bsky.social · 29/08/2026
Woohoo! 🎉🌱 Another paper from our lab is out in Nature Plants! www.nature.com/articles/s41... Huge congratulations to Hongliang, my wonderful colleague, fellow postdoc, and friend in the Wang lab!
0145
Reposted by Takehiro A. Ozawa
onishilab.bsky.social @onishilab.bsky.social · 28/08/2026
"Cell-autonomous immunity and the endosymbiotic theory: Septins at the origin?” doi.org/10.32942/X2X... We explore how ancestral septins may have recognized foreign cells - linking endosymbiosis, organelle fission, and innate immunity.
doi.org
Cell-autonomous immunity and the endosymbiotic theory: Septins at the origin?
187
Reposted by Takehiro A. Ozawa
Mary Williams @PlantTeaching @plantteaching.bsky.social · 27/08/2026
In a global first, Mexico approves use of RNA-based fungicide. Oifirax, created by GreenLight Biosciences, uses RNA molecules to kill the fungus responsible for powdery mildew on grapes. www.science.org/content/arti...
science.org
In a global first, Mexico approves use of RNA-based fungicide
Oifirax, created by GreenLight Biosciences, uses RNA molecules to kill the fungus responsible for powdery mildew on grapes
02612
Reposted by Takehiro A. Ozawa
bioRxiv Cell Biology @biorxiv-cellbio.bsky.social · 26/08/2026
Unsupervised machine-learning identifies latent pyrenoid states linked to mitotic remodeling defects and CO2-dependent growth www.biorxiv.org/content/10.64898/20…
012
Reposted by Takehiro A. Ozawa
Nature Plants @natplants.nature.com · 26/08/2026
New Article: "A conserved hexapeptide switch controls autoinhibition of plant cytosolic invertases" rdcu.be/fCbGT With News & Views: "A paradigm shift in the regulation of plant invertases" rdcu.be/fCbHB #PlantScience
095
Reposted by Takehiro A. Ozawa
Alexandre Marand @marand-lab.bsky.social · 26/08/2026
A comprehensive understanding of heterosis has long been out of reach. Led by super postdoc Luguang Jiang, we applied scifi-ATAC-seq to three 🌽 inbred lines and their recip hybrids, and identified a widespread loss of cell-type-specific ACRs in hybrid genomes 🧬 1/10 www.biorxiv.org/content/10.6...
11212
Reposted by Takehiro A. Ozawa
Margot Smit @likeyoda1.bsky.social · 24/08/2026
📣 Job alert! 2 Positions starting 2027. PhD position with me and @bayerlab.bsky.social on Robustness of embryonic and stomatal development, part of @greenrobust.de Postdoc position on the regulation of cell state, following up on some exciting snRNAseq dat! Apply now or share! #PlantSciJob
05365
Reposted by Takehiro A. Ozawa
Alizée Malnoë @alizeemalnoe.bsky.social · 25/08/2026
Our new study on plant light harvesting complexes (LHCII) is live 🎉 We found that complexes engaged in energy dissipation show enhanced fluorescence intermittency ("blinking"). This links a native photoprotective state in plants (qH) to the fluorescence dynamics of individual antenna complexes 🌱✨
086
Reposted by Takehiro A. Ozawa
Dan Gibbs 🌱🧬 @djgibbs.bsky.social · 24/08/2026
Protein synthesis is dynamically responsive to the environment, but how do cells ensure that their protein quality control mechanisms are appropriately scaled to changing translational demand? We address this question in our new study in @natcomms.nature.com www.nature.com/articles/s41...
nature.com
TOR–NOT4 signalling couples translation to co-translational quality control in plants - Nature Communications
Here, Schwarze et al. reveal how plant cells match protein quality control to changing rates of protein production through a functional link between TOR kinase signalling and NOT4 E3 ubiquitin ligases
34622
Reposted by Takehiro A. Ozawa
Stefan A. Rensing @rensingstefan.bsky.social · 23/08/2026
Can the pretrained transformer-based architecture TabPFN predict plant organismal complexity based on their complement of transcription factors? Yes it can: www.biorxiv.org/content/10.6... Happy to hear your thoughts! @dvarshney.bsky.social @jandevries.bsky.social @watertoland.bsky.social
biorxiv.org
Prediction of plant organismal complexity based on transcription factor annotation: an AI approach
How morphological complexity evolves is still enigmatic. While there is evidence in algae and plants as well as animals that diversification of the repertoire of transcription factors (TF) is causativ...
01812
Reposted by Takehiro A. Ozawa
Molecular Plant & Plant Communications @mplantpcom.bsky.social · 22/08/2026
The TORC-SnRK Axis: An Integrative Signaling Framework Balancing Growth and Stress Responses in Plants #review #MolecularPlant cell.com/molecular-pl...
001
Reposted by Takehiro A. Ozawa
Akira Yoshinari @ayoshinari.bsky.social · 22/08/2026
We’re thrilled to announce that our new preprint is now live! In this study, we uncover a previously unrecognized molecular framework underlying radial cell polarity in plants. www.biorxiv.org/content/10.6...
biorxiv.org
The Lateral Protein Cluster as a Key Component of Plant Cell Polarity
Cell polarity is an ancient organizing principle across kingdoms. As in animal epithelial cells, plant cells asymmetrically distribute proteins to establish functionally distinct membrane domains. In ...
21511
Reposted by Takehiro A. Ozawa
New Phytologist @newphyt.bsky.social · 21/08/2026
Researchers from NTT and Tokyo Metropolitan University develop a technique to crossbreed four rice varieties, resulting in seeds 1.7 times heavier than the average: group.ntt/en/newsrelea... The research is published in New Phytologist: nph.onlinelibrary.wiley.com/doi/10.1111/...
group.ntt
NTT and Tokyo Metropolitan University Develop the World's First Multi-Variety Hybridization Technology Enabling Simultaneous Hybridization of Four Rice Varieties | Press Release | NTT
— Enabling the combination of the four varieties-derived desirable traits ...
061
Reposted by Takehiro A. Ozawa
New Phytologist @newphyt.bsky.social · 22/08/2026
#TansleyReview: The mosaic of aquatic photorespiration: evolution, diversity, and global biogeochemical impacts Dao et al. 👇 📖 nph.onlinelibrary.wiley.com/doi/10.1111/... Summary also available in French. #LatestIssue #PlantScience
Fig. 4 Physiological, ecological, and global roles of photorespiration in aquatic phototrophs.
043
Reposted by Takehiro A. Ozawa
ZMBP @zmbp-tuebingen.bsky.social · 21/08/2026
📣 Job alert! PhD position on Regulation of Pattern Scaling in Plant Stem Cell Niches in Marja Timmermans's lab and co-supervised by @cecilialaram.bsky.social The project is part of the @cerealcell.bsky.social consortium. The position is available from October 1st Apply now or share it! #PlantSciJob
Advert of the PhD position. Applications should be sent to Marja Timmermans or Cecilia Lara-Mondragón as a single pdf containing the motivation letter, CV, and contact details of 3 referees. 
The advert shows a maize plant and several images of maize shoot apical meristems.
23036
Reposted by Takehiro A. Ozawa
bioRxiv Plant Bio @biorxiv-plants.bsky.social · 20/08/2026
Unveiling the Epigenomic Control of Temperature Acclimation in Marine Phytoplankton through Multiomics Integration www.biorxiv.org/content/10.64898/20…
023
Reposted by Takehiro A. Ozawa
Bio-protocol @bio-protocol.bsky.social · 20/08/2026
Sample Preparation for Imaging-Based Spatial Transcriptomics in Rigid Plant Tissues (Roots, Shoots) Work by Hanhong Liu and Mingyuan Zhu at Texas A&M University and Jingyuan Zhang at Duke University. #LifeSciences #Reproducibility #PlantScience
022
Reposted by Takehiro A. Ozawa
Silvia Ramundo @sramundo.bsky.social · 19/08/2026
A stress response can be a great starting point for discovering new biology! By following genes regulated during the chloroplast unfolded protein response, we’re discovering novel factors involved in chloroplast homeostasis. Here’s the first one we characterized: www.pnas.org/doi/10.1073/...
pnas.org
VIA1 is a conserved regulator of thylakoid membrane integrity that acts through VIPP1 | PNAS
Thylakoid membranes are indispensable for oxygenic photosynthesis, yet the mechanisms that protect these membranes from photooxidative damage remai...
28230
Reposted by Takehiro A. Ozawa
Dolf Weijers @dolfweijers.bsky.social · 18/08/2026
It took some time, but we are thrilled to present the first major outcome of our @erc.europa.eu ERC DIRNDL AdG project: Evgeniya Pukhovaya @epukh.bsky.social and others in our team describe the discovery of a mechanism for polar protein targeting in plants (1/13) www.biorxiv.org/content/10.6...
biorxiv.org
Systematic proteomics identifies a conserved mechanism for polar targeting of plant cortical proteins
Multicellular development is tightly coupled to the polarization of individual cells, which partitions polar proteins along the cell cortex and can control asymmetric cell division, anisotropic growth...
39743
Reposted by Takehiro A. Ozawa
Mélanie Rich 🌱🍄 @melaniekrich.bsky.social · 18/08/2026
New preprint alert! www.biorxiv.org/content/10.6... The conclusion of a long-lasting obsession about lipids, plant terrestrialization and the origin of plant symbioses 1/7 🧵 @pierremarcdelaux.bsky.social @katharinamel1.bsky.social @tatiana-vernie.bsky.social @kellerjeanphd.bsky.social
doi.org
24025
Reposted by Takehiro A. Ozawa
New Phytologist @newphyt.bsky.social · 18/08/2026
The combination of morphogenic regulators BABY BOOM and GRF‐GIF improves maize transformation efficiency and promotes leaf regeneration 📖 nph.onlinelibrary.wiley.com/doi/10.1111/... by Chen et al. @WileyPlantSci #PlantScience
Maize regeneration via somatic embryogenesis by ectopic expression of morphogenic factors TaGRF4-TaGIF1 and ZmBBM.
02213
Reposted by Takehiro A. Ozawa
Anja Geitmann @geitmannlab.bsky.social · 17/08/2026
Postdoc Opportunity at McGill University, Montreal, Canada You have worked with Arabidopsis / other plant model systems & are trained in high-end imaging? Details: www.plantbiomechanics.net/joining-the-... #plants, #Arabidopsis, #postdoc, #jobs, #microscopy, #confocal, #molecularbiology
12229