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ERC SYNERGY Project HYDROSENSING

@hydrosensing.bsky.social
294 followers 90 following 150 posts

We are on a mission to transform our understanding of how plants sense and respond to water. Curated by @isabelmyp.bsky.social hydrosensing.eu

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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 08/10/2026
📄 New protocol chapter! Colyer, Donaldson, Banda, Bennett & Mehra describe five agar-based systems for studying how roots sense patchy water: hydrotropism, xerotropism, xerobranching & hydropatterning. For Arabidopsis & crops 🌱 Check the protocol: doi.org/10.1007/978-...
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 28/08/2026
Where is ABA made, and does it have to move? New HYDROSENSING preprint maps ABA biosynthesis at cellular resolution in Arabidopsis: water-stress responses in roots & shoots need ABA and its precursor AB-aldehyde to travel from vascular tissue to target cells 🌱 doi.org/10.64898/202... #PlantSci
Thermal images of aba2-1 and aao mutant combinations with controls, with and without drought stress. Scale bar = 1 cm
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 17/08/2026
#DidYouKnow that the first land plants had no roots, just fungal partners and rhizoids? A new "Current Biology" review charts how root systems evolved: from simple lycophyte roots to the plastic architectures that may underpin yield stability in a warming world. 🌱 hydrosensing.eu/2026/08/evol...
Image: Schematic phylogeny illustrating the evolutionary expansion of key transcription-factor families regulating root branching. Credit: Current Biology
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 25/07/2026
New review from HYDROSENSING in "Current Opinion in Plant Biology" The paper maps how ABA and its precursor move between plant tissues, and why the destination decides the response: closing stomata, sealing roots, setting seeds. 🔗 hydrosensing.eu/2026/07/absc...
Image: Tissue-specific ABA responses are shaped by transporter-mediated hormone distribution. ABA and AB-ald (abscisic aldehyde) are delivered from source tissues (purple) to distinct target sites (red), where ABA drives physiological responses, including stomatal closure in guard cells, seed development and germination, suberin formation in the endodermis, and xerobranching in the root epidermis. Directional movement of ABA and its precursor AB-ald between tissues (black arrows) is mediated by multiple ABA delivery mechanisms. The spatial distribution of ABA transporters determines tissue-specific ABA accumulation and responses. ABA, abscisic acid. Credit: Current Opinion in Plant Biology
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 19/07/2026
We're thrilled to celebrate Dr. Poonam Mehra, who has been named a Rising Stars in Plant Sciences 2026 awardee! 🎉 This recognition highlights her contributions to plant science and reflects the innovative research taking place within the Hydrosensing project. Congratulations Poonam 🎉🌱
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 29/06/2026
🎤 Sara Morghen and Nelly Braun also presented at the Norwegian Plant Biology Conference in Bodø (Norway), connecting with the plant science community and exchanging ideas on plant biology, stress responses, and innovative research approaches marinetics.org/2026NPBC.html
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 29/06/2026
🎤 Nelly Braun and Dr Michaela Tichá shared their research at the Gordon Research Conferences Conference on Salt and Water Stress in Plants in Switzerland, where scientists discussed the mechanisms underlying plant resilience to environmental stress www.grc.org/salt-and-wat...
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 29/06/2026
Our team is on the road! Past weeks have been full of opportunities to share our research across Europe. 🎤 Wiebke Haeger presented at the Plant Cell Wall Meeting 2026 in Porto (Portugal), bringing together researchers exploring the latest advances in plant cell wall biology cellwall2026.org
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 16/06/2026
A huge thank you to our advisory board, collaborators, and the entire #Hydrosensing team for the insightful discussions, constructive feedback, and shared enthusiasm. Read more about the meeting highlights and what's next for the project: hydrosensing.eu/2026/06/two-... 2/2 #PlantScience
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 16/06/2026
Two years in, our annual consortium meeting in Lausanne reminded us how far we've come. From mechanosensors & cell wall-mediated osmosensing to water imaging, cryo-EM & CRISPR, the puzzle is coming together. Most importantly, a strong scientific community has grown alongside the science. 1/2
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 03/06/2026
In a recent feature for BBC Gardeners' World, Prof Malcolm Bennett explained how plant hormones control the transition from dormancy to growth. "If the conditions are right, gibberellic acid dominates and starts growth," he says, as the seed absorbs water and the embryonic root begins to emerge.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 19/05/2026
hydrosensing.eu/2026/05/agp-... #PlantScience #Arabidopsis #PlantBiology
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 05/05/2026
How do plants know when their cell walls are damaged?🤔 THESEUS1 (THE1) is a key “sensor” that helps plants: 🔎 Detect cell wall stress 🌱 Adjust growth & root development ⚡ Trigger stress responses A new review explores its evolution + what we still don’t know #PlantScience #Arabidopsis #CellBiology
Image: An amino acid sequence-based maximum-likelihood phylogeny of members of the Catharanthus roseus RECEPTOR-LIKE KINASE 1-LIKE (CrRLK1L) family in different species. Credit: The Plant Journal
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 29/04/2026
Why do so many plant gene knockouts show no phenotype? Answer is genetic redundancy New review in @cp-trendsplantsci.bsky.social by Berman, Zylberberg, Mayrose & @eilonshani.bsky.social explores how multiplex CRISPR + comparative genomics can unmask hidden gene functions for better breeding. 👇
Image: Each panel represents a distinct redundancy scenario, with genotypes annotated as A/B, a/B, A/b, or a/b, where lowercase letters indicate mutated genes. Gray backgrounds highlight the corresponding plant phenotypes for each genotype. In the bottom panel (conditional redundancy), sun and thermometer icons denote specific conditions under which redundancy is revealed. Credit: Trends in Plant Science.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 20/04/2026
How do roots decide where to grow? New research reveals: ⚡ Calcium signals trigger ROS bursts ⚖️ These balance gravity + mechanical resistance 🌍 Result: roots navigate soil more effectively By tuning cell wall stiffness, plants “feel” their way through the ground. hydrosensing.eu/2026/04/calc...
Image: Gravitropic bending of the rbohc/f mutants and their relative apoplastic pH in the elongation zone. (A) Root gravitropic bending of WT, mca1, cngc14-2, and rbohc/f mutants. Right-expression of bending as linear regression slope after 1 h of bending. Letters denote statistical significance (ANCOVA test of equal slopes p<0.002) (B) Representative images of the apoplastic pH halo in WT and rbohc/f mutants during the course of root gravitropic bending. Red dotted circles highlight the top side of the root with visible alkalinization in WT. (C) Apoplastic pH quantification of the rbohc/f and cngc14-2 mutants at the top and bottom elongation zones 90-160 minutes after rotating the sample by 90°. (one-way ANOVA, p<0.0001)(D) Calcium profile of WT plants during the course of gravitropic bending imaged immediately after rotating the sample, monitored using the GCaMP3.0 fluorescent reporter. The blue arrow marks the initial drop in the calcium signal from the top (upper) side of the root associated with statoliths leaving the membrane in the columella, while the orange arrow marks the increase in the calcium signal at the bottom (lower) side after the statoliths touch the new bottom membrane. The red arrow highlights the increase in the calcium signal at the upper side associated with root bending, which appears at the onset of root bending.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 03/04/2026
🌱 Big news! Thorsten Hamann has been elected to the Royal Norwegian Society of Sciences and Letters (DKNVS), a major recognition of his research on how plants sense water. Read more: hydrosensing.eu/2026/04/thor... @hamannlab.bsky.social
A group of newly admitted members to DKNVS stand in a row indoors against a brick wall, holding their certificates. Dressed in formal attire, including suits and dresses, with one person wearing a ceremonial chain of office. Decorative artwork hangs on the wall behind them.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 12/03/2026
New manuscript out in Cell Reports! Shani lab has develope a multiplexed, tissue-specific CRISPR toolbox for Arabidopsis that overcomes gene family redundancy & enables large-scale,cell-type-resolved genetic screens 📃 www.cell.com/cell-reports... @eilonshani.bsky.social @cellpress.bsky.social
Level 1: the algorithm includes improved scoring functions for the design of efficient sgRNAs. Level 2: design and construction of multiplexed CRISPR libraries. Level 3: trait-oriented CRISPR libraries—nutrient uptake sub-libraries as a proof of concept. Level 4: tissue-specific CRISPR vectors for spatial genetics screens. Level 5: CRISPR-GuideMap: plant barcoded screens of ∼1,000 plants, allowing large-scale reverse genetics multi-knockouts. Outcome: a next-generation tool for plant genetics.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 16/02/2026
😲 A limestone cave in Western Australia where the Karri tree 🌳roots extend the whole height of the massive cavern in search of nutrients and water. Xero branching in action! 📷💪
A limestone cave in Western Australia where the Karri tree roots extend the whole height of the massive cavern in search of nutrients and water.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 02/02/2026
🌱 How do roots push through compacted soil? A new study in @nature.com shows that soil compaction increases ethylene, reshaping cell wall mechanics in roots hydrosensing.eu/2026/02/ethy... Some key findings📝 • Ethylene activates ARF1 in the root cortex • ARF1 represses cellulose synthase genes 👇
Image: Semi-thin sections (2 µm thickness, 1 cm from root tip) of WT, arf1-1, OE-ARF1, cesa6 and arf1cesa6 lines. Scale bar=50 µm. Credit: Nature https://doi.org/10.1038/s41586-025-09765-7
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 21/01/2026
🧬🌱 How do cells tune SUMOylation under stress? New study builds a SUMO Cell Atlas of the Arabidopsis root, revealing striking tissue- and compartment-specific regulation of the entire SUMO pathway, and how different stresses rewire it. 📝 To the full paper: www.science.org/doi/10.1126/...
Image: Description and validation of pMDS plasmid system for dual analysis of transcription and translation in plants. (A) Organization of pMDS1 vector showing reporters for transcription [mTurquoise (mTurQ)], translation (C-terminal mVenus), and a 2A self-cleaving peptide. (B) Organization of pMDS2 vector showing reporters for transcription (mTurQ), translation (N-terminal mVenus), and a 2A self-cleaving peptide. (C) Confocal image of pMDS1_SHRpro:SHR:mVenus:mTurQ showing gene expression (mTurQ) in the stele region and protein (mVenus) translocating to endodermis in the root meristem. (D) Confocal image of pMDS2_VAM3pro:mVenus:VAM3:mTurQ showing subcellular expression (mTurQ) in the nucleus and protein (mVenus) moving to the vacuole in the root epidermis. Red channel shows mCherry expression. nu, nucleus; vac, vacuole; *, endodermis of root meristem. Scale bar, 10 μM. Credit: Science Advances
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 20/01/2026
🧬🌱 Just added a new paper to the website: A report about a Multi Targeted AmiRNA Cell type-specific Transportome-scale (mTACT) toolbox, a cell type-specific, transportome-scale amiRNA toolbox that overcomes functional redundancy in Arabidopsis. 📝 Here: hydrosensing.eu/2026/01/mtac... 👇
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 15/01/2026
2. This divergence likely reflects different historical selection pressures during modern breeding. 3. Auxin promotes root branching toward moisture, while ethylene suppresses branching on air-exposed root surfaces. 3/4
Image: Hydropatterning responses revealed in public sector breeding lines of Zea mays (maize). (A and B) Schematic of the (A) hydropatterning response in (B) our custom-built hydropatterning assay. Primary roots of maize seedlings are grown in a vertical position along moist paper while being prevented from growing off the paper by a mesh cover. Lateral root (LR) primordia are preferentially induced towards the water-saturated paper (contact-side) and suppressed on the air-exposed side (air-side). Longitudinal cross-section of maize root (B73 inbred) stained with Calcofluor White (cell walls; gray) and SYBR Green (LRs; green). (C and D) Distribution of (C) contact-(blue) and air-side (white) LR densities from 250 maize inbred lines characterized using the hydropatterning assay and calculated (D) percent air-side LRs (purple). Each inbred line is represented by its median value (n = 1-3 seedlings/inbred) (data S2). Gray lines connect corresponding inbred lines. Population median (white circles). (E) X-ray Computed Tomography showing LR patterning on primary roots of strong (CI64) and weak (OH7B) hydropatterning inbred lines grown through an air-filled macropore in soil.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 07/01/2026
🌱 How do plant roots sense and respond to water in the soil? Recap of hashtag#HS Journal of Experimental Botany review that synthesises current knowledge on hormonal control of root growth–water interactions💧🌿 📄 Full paper: academic.oup.com/jxb/article/76/7/1987/8011474 👇
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 26/12/2025
What is hydrotropism?💧 Hydrotropism is how plant roots find water. Roots don’t just grow straight down. They can sense where water is in the soil & grow toward wetter areas. This helps plants get the water they need to stay alive, especially when the soil is very dry. Think of it like this👇
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 22/12/2025
🌾 How plants adjust root architecture under drought? Recap of #HS paper in Current Biology! 🌱 Read the study: doi.org/10.1016/j.cu... Study showed that ABA helps crops (eg rice & maize) grow roots at steeper angles in response to drought by boosting local auxin production at the root tip. 1/4
Illustration comparing plant root growth under normal and drought conditions. Under normal conditions, the plant has a shallower, more spread-out root system, while under drought conditions the roots grow more steeply downward. A flow diagram on the right shows the pathway: drought increases ABA biosynthesis, which increases auxin biosynthesis, enhances root gravitropism, leads to a steep root system, and improves drought resistance. A lower diagram shows a root tip with gravity direction indicated and arrows representing auxin transport influenced by ABA accumulation.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 12/12/2025
Our Hydrosensing partner NTNU hosted yesterday a fascinating lab webinar exploring the delicate relationship between the plasma membrane and the cell wall... and why studying it can truly test a scientist’s patience! Great insights from W Häger & M Tichá and great discussions followed 🌱🔬
Screenshot of an online meeting showing a presentation slide titled “Tension Sensor Development at NTNU,” with subtitles about challenges in studying plasma membrane–cell wall distances. The slide lists the ERC meeting date and the presenters’ names. On the right side, small video-call thumbnails show participants in a grid.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 01/12/2025
18 months into #HYDROSENSING learning about water sensing & droughts response & it shows: 🧬 15 publications (more coming) 🔬 CRISPR libraries + protein structures underway 🌾 Work advancing in Arabidopsis, tomato & rice models 🌱 40+ scientists collaborating Read more: hydrosensing.eu/2025/12/hydr...
Group picture of the HS team in Regensburg.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 28/11/2025
Great session yesterday with Andrew Fleming from @sheffielduni.bsky.social He gave our researchers a fascinating look at stomatal mecanics & the role of stomata in plant function, which was especially insightful for those of us who usually focus on roots🌱 Thank you Andy for an inspiring talk!
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 24/11/2025
Dr. Malcolm Bennett will be speaking about “Discovering how plants sense water stress” this Wednesday, 26th of November at Auditorio Abate Molina, Facultad de Ciencias Biológicas UC, Pontificia Universidad Católica de Chile 🔸 Wednesday, 26 November 🕙 10:00 hrs
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 13/11/2025
In today’s meeting, Malcolm Bennett went member by member through the research updates from the @uniofnottingham.bsky.social team, discussing methods, results, and how these connect with the work of others across the extended Hydrosensing team. Lots of food for thought. Exciting times ahead 😉
Screenshot of an online Teams meeting with 26 participants. Nine people have their cameras on, showing researchers from the Hydrosensing  team discussing their weekly research updates.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 12/11/2025
Huge congratulations to our colleague and PI Malcolm Bennett, named among Clarivate’s Highly Cited Researchers 2025 in Plant & Animal Science! One of only 7 UK researchers in this field! 👏👏👏 Beyond being an outstanding scientist, he’s also a truly supportive and kind colleague. We’re so proud!!
Picture of Malcolm Bennett
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 31/10/2025
We’ve just hit the 1/3 mark on the project, good time to pause & ask: what’s working, & what could be better? At our last meeting, the ECRs led the discussion, PIs listening in. Everyone agreed the ECR meetings have been a strength a space to share the basics of each team’s work & discipline 💬
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 14/10/2025
... with Bjørn Torger Stokke, Martijn Vandegehuchte, & Kirsten Krause (UiT). #StrawberryWalls expands from @hydrosensing.bsky.social work taking knowledge further, from water sensing to heat stress & pest resistance. Interested? Watch this space for updates! 4/4
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 14/10/2025
... and Fragaria vesca (wild strawberry 🍓) to: 🌡️ examine cell wall mechanics in heat adaptation 🦠 test how higher temperatures affect pest/pathogen infections 🌾 lay groundwork for more resilient crops The team spans physics, biology, & ecology led by Prof. Thorsten Hamann (NTNU)... 3/4
Strawberry, Nature, Farm image. Free for use. Image by Silvestre Cajigan from Pixabay
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 14/10/2025
As the Arctic warms 4× faster than the global average, new farmland may open in northern latitudes... but pests & pathogens are moving north too. The project aims to understand how plants cope with these twin challenges and will study Arabidopsis thaliana... #ClimateChange #PlantScience 2/4
Mountains, Fjord, Norway image. Free for use. Image by Henning from Pixabay
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 14/10/2025
Big news from the NTNU team! 👏 They've received €2.1M from the Norwegian Research Council for #StrawberryWalls project, exploring how plants adapt to heat, drought & pests in a warming Arctic. 👉 hydrosensing.eu/2025/10/strawberrywalls-new-research-to-help-plants-thrive-in-a-warming-arctic/ 1/4
Image: Habitus (top) and cross section through a haustorium (bottom) of a Cuscuta dodder shoot infecting a host plant. Cell walls in the cross sections were stained with Toluidine Blue O. Infectious and non-infectious dodder tissue were false-colored in orange and yellow, respectively.  Scale bars: 500 μm. Credit: S. Olsen, K. Krause, UiT.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 07/10/2025
Enjoy the picture to see moments from the visit — from the Robin Hood statue to the lab and evening strolls through Nottingham! 🌿 @uniregensburg.bsky.social 4/4
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 07/10/2025
The visit highlighted the spirit of our project: connecting scientists across borders and disciplines to advance cutting-edge research together to uncover the mechanisms plants use to perceive water stress. 3/4
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 07/10/2025
During this visit, Christine Ziegler @ziegler-lab-ur.bsky.social joined Malcolm Bennett in their lab at the University of Nottingham, while Eilon Shani @eilonshani.bsky.social also happened to be visiting the same research center — a perfect coincidence for a productive and friendly reunion! 2/4
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 07/10/2025
From Sep 28th to Oct 1st, three of our PIs met in Nottingham for an in-person exchange of ideas and progress discussions. Over the days, the team engaged in: 🔬 Lab tours & hands-on sessions 💻 Project webinars 🍽️ Group lunches and dinners 💡 Discussions to spark ideas for collaborations 1/4
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 30/09/2025
Exciting news from the @uniofnottingham.bsky.social lab!🔬 They have just set up a new ERC-funded vertical confocal platform that will allow to image root systems growing in more "natural ways" This setup will open up new opportunities to study plant development in unprecedented detail
Poonam Mehra with the new ERC-funded vertical confocal platform to image roots growing more ’naturally’
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 11/09/2025
Back from summer & team meetings are buzzing again!!🧑‍🔬 To a good start, Barak Mitman from @eilonshani.bsky.social shared work on xerobranching-associated genes & transporters 🌱 We also welcomed many new faces, especially from Nottingham, making our calls bigger than ever: 26 people, 4 countries!! 🤩
Hydrosensing team eonline meeting audience
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 18/08/2025
Plant roots don’t just rely on genes... physics shapes them too 🌱 Research shows plant roots can adjust their stiffness + softness within HOURS to keep growing, even under stress. 1/2
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 29/07/2025
Today, Amichai Berman, PhD student from TAU - @eilonshani.bsky.social - deliver an engaging seminar on CRISPR; the 1st session on this & 3rd seminar overall in our ongoing series for PhD students & PostDocs. With 13 attendees across the 4 different teams of the project. #CRISPR #PhDLife #Science
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 11/07/2025
Not only small model plants! 🌱 #Hydrosensing team at Tel Aviv (Shani Lab) is carrying out large-scale CRISPR libraries in crops.
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 02/07/2025
Congratulations to Prof. @eilonshani.bsky.social Eilon Shani, #Hydrosensing PI, on being elected to EMBO 2025! 🎉 This honor recognizes his outstanding contributions to plant molecular genetics and scientific excellence @embo.org www.embo.org/press-releas...
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 20/06/2025
Moments from #ICAR2025 by HS team members 1️⃣ Malcolm Bennett & Danielle Colyer w Marc Van Montagu, the legendary pioneer who co-discovered Agrobacterium DNA transformation; the foundation of plant genetic modification 🧬🌱 2️⃣ MB catching up with Tom Beeckman, one of the driving forces behind ICAR 💪
Malcolm Bennett & Danielle Colyer w Marc Van Montagu, the legendary pioneer who co-discovered Agrobacterium DNA transformation; the foundation of plant genetic modification.Malcolm Bennett catching up with Tom Beeckman, one of the driving forces behind ICAR
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 12/06/2025
In the very 1st session this Tuesday, @greg-madej.bsky.social, from @uniregensburg.bsky.social @ziegler-lab-ur.bsky.social, presented how their expertise is applied within the project; specially the use of Cryo-EM in the study of membrane-embedded proteins. 🌐 www.uni-regensburg.de/biologie-vor...
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 12/06/2025
Recently, our early-career researchers agreed on the value of organizing regular sessions for PhDs and PostDocs to explore key research topics in greater depth. These sessions offer a space to understand the methods & techniques used across the 4 #Hydrosensing teams. #science
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ERC SYNERGY Project HYDROSENSING @hydrosensing.bsky.social · 05/06/2025
For the first time we are starting to understand how root cells respond to their complex soil environment, revealing that roots actively sense their microenvironment and mount precise, cell-specific molecular responses. hydrosensing.eu/2025/05/sing... #PlantScience #Science
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