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Meet the Plant Metabolic Network, a PRI-led initiative that brings together curated data on plant metabolism—from genes to pathways—to support research, education, and innovation! Learn more and get involved by checking out the new PMN intro video: youtu.be/uaj5GiR4bJA #PlantScience

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Have you used #TAIR12 in your research? We're looking for speakers for the Arabidopsis Bioinformatics concurrent session at #ICAR2026 in Singapore! Interested? Email curator@arabidopsis.org with your pitch.

#plantscience #plantbiology #arabidopsis 🧪

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Volume 38 Issue 3 | The Plant Cell | Oxford Academic The Plant Cell publishes novel research of special significance in plant biology, especially in the areas of cellular biology, molecular biology, biochemistry, genetics, development, and evolution.

The March 2026 issue of The Plant Cell ASPB @aspbofficial and Oxford University Press is COMPLETE! academic.oup.com/plcell/issue... #PlantScience

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Volume 200 Issue 3 | Plant Physiology | Oxford Academic Plant Physiology is an international journal devoted to physiology, biochemistry, cellular and molecular biology, genetics, biophysics, and environmental biology of plants

The March 2026 issue of Plant Physiology fromfrom ASPB @aspbofficial and Oxford University Press is now COMPLETE! Check it out here: academic.oup.com/plphys/issue... #PlantScience

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The deubiquitinase UBP15 and the E3 ubiquitin ligase PUB17 coordinate GLK1 stability in apple anthocyanin deposition MdGLK1 orchestrates anthocyanin biosynthesis by recruiting both MdBZR1 and MdMYB1, while its protein stability is antagonistically regulated by the deubiqu

The deubiquitinase UBP15 and the E3 ubiquitin ligase PUB17 coordinate GLK1 stability in apple anthocyanin deposition (Jian-Ping An , Lei Zhao , Liao Liao , Di Ai , Miao-Yi Li , Zhao-Yang Li , Yuepeng Han) doi.org/10.1093/plce... #PlantScience @aspbofficial

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Genome-wide association studies and modeling of stomatal gas conductance reveal genetic control of water-use efficiency in sorghum Natural genetic variation in leaf anatomical and functional traits drives water-use efficiency and drought resilience in sorghum.

Genome-wide association studies and modeling of stomatal gas conductance reveal genetic control of water-use efficiency in sorghum (Anuradha Singh , Linsey Newton , Addie M Thompson) doi.org/10.1093/plph... #PlantScience @aspbofficial

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Image: Field Museum scientist Matt von Konrat examining dried moss collected in 2013 in a botanical survey as part of a homicide investigation. Credit: courtesy of Field Museum.

Image: Field Museum scientist Matt von Konrat examining dried moss collected in 2013 in a botanical survey as part of a homicide investigation. Credit: courtesy of Field Museum.

Solving mysteries with moss

New paper examines the history of using moss as evidence in forensic cases

buff.ly/pLM9RzL via Field Museum #PlantScience

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Four-month-old seedlings of ancestral Anatolian populations of Centaurea solstitialis from low (right) and high (left) elevation growing under common conditions.

Four-month-old seedlings of ancestral Anatolian populations of Centaurea solstitialis from low (right) and high (left) elevation growing under common conditions.

Strong differentiation between ancestral populations from low & high elevation: Implications for invasion biology

New #AJB research by Özkan Eren & José Hierro

doi.org/10.1002/ajb2...

#botany #plantscience #ecology #Centaurea #thistle #Anatolia

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U-box E3 structural mechanisms and immune signaling networks.

(a) NMR structure of the AtPUB14U-box (PDB: 1T1H, pale cyan).

(b) Superimposition of the AtPUB14U-box (PDB: 1T1H, pale cyan), GmPUB13U-box (PDB: 7C96, wheat), and OsCIE1U-box (PDB: 7XED, light pink).

(c) Crystal structure of the OsCIE1U-box (light pink) and OsUBC8 (light blue) complex (PDB: 7XED). (Bottom left) Close-up view of the E2-binding network with surface patch A. (Bottom middle) Close-up view of the OsCIE1U-box dimerization interface. (Bottom right) Close-up view of the E2-binding network with surface patch B.

(d) Crystal structure of the GmPUB13U-box (wheat)-Avr1d (pale green) complex (PDB: 7C96). (right) Zoom-in views of the interaction network between GmPUB13U-box-Avr1d.

(e) Two views of the crystal structure of the AvrPtoB CTD (C-terminal domain) (PDB: 2FD4, raspberry) showing the core fold, loops 1 and 2, and the partially disordered N-terminal domain regions.

(f) Surface and cartoon representation of the AvrPtoBCTD (PDB: 2FD4, raspberry). Close-up view of the E2-binding residues.

(g) Superimposition of the AtPUB14U-box (PDB: 1T1H, pale cyan) and AvrPtoBCTD (PDB: 2FD4, raspberry). Close-up view of the E2-binding residues.

(h) Models of U-box E3s in positively regulating immunity. (Left) PUB2/4-interacting PTI components in Arabidopsis. (Left middle) Chitin-activated CERK1 phosphorylation of CIE1 (i), preventing E3-ligase activity and promoting the immune response as well as PUB44 and the MAPK cascade (ii), promoting PBI1 degradation and releasing WRKY45, in rice. (Right middle) PUB17-mediated degradation of KH17 in potato. (Right) Positive feedback loop by the MYC2-PUB22-JAZ4 module to promote JA signaling in tomato.

(i) (Left) Secretion of SDE5 by CLas bacteria promotes PUB21-mediated MYC2 degradation and suppresses JA signaling in citrus. (Left middle) PUB25/26-mediated degradation of MYB6 and increased Verticillium dahliae susceptibility in Arabidopsis. (Right middle) PUB12/13-me…

U-box E3 structural mechanisms and immune signaling networks. (a) NMR structure of the AtPUB14U-box (PDB: 1T1H, pale cyan). (b) Superimposition of the AtPUB14U-box (PDB: 1T1H, pale cyan), GmPUB13U-box (PDB: 7C96, wheat), and OsCIE1U-box (PDB: 7XED, light pink). (c) Crystal structure of the OsCIE1U-box (light pink) and OsUBC8 (light blue) complex (PDB: 7XED). (Bottom left) Close-up view of the E2-binding network with surface patch A. (Bottom middle) Close-up view of the OsCIE1U-box dimerization interface. (Bottom right) Close-up view of the E2-binding network with surface patch B. (d) Crystal structure of the GmPUB13U-box (wheat)-Avr1d (pale green) complex (PDB: 7C96). (right) Zoom-in views of the interaction network between GmPUB13U-box-Avr1d. (e) Two views of the crystal structure of the AvrPtoB CTD (C-terminal domain) (PDB: 2FD4, raspberry) showing the core fold, loops 1 and 2, and the partially disordered N-terminal domain regions. (f) Surface and cartoon representation of the AvrPtoBCTD (PDB: 2FD4, raspberry). Close-up view of the E2-binding residues. (g) Superimposition of the AtPUB14U-box (PDB: 1T1H, pale cyan) and AvrPtoBCTD (PDB: 2FD4, raspberry). Close-up view of the E2-binding residues. (h) Models of U-box E3s in positively regulating immunity. (Left) PUB2/4-interacting PTI components in Arabidopsis. (Left middle) Chitin-activated CERK1 phosphorylation of CIE1 (i), preventing E3-ligase activity and promoting the immune response as well as PUB44 and the MAPK cascade (ii), promoting PBI1 degradation and releasing WRKY45, in rice. (Right middle) PUB17-mediated degradation of KH17 in potato. (Right) Positive feedback loop by the MYC2-PUB22-JAZ4 module to promote JA signaling in tomato. (i) (Left) Secretion of SDE5 by CLas bacteria promotes PUB21-mediated MYC2 degradation and suppresses JA signaling in citrus. (Left middle) PUB25/26-mediated degradation of MYB6 and increased Verticillium dahliae susceptibility in Arabidopsis. (Right middle) PUB12/13-me…

🧬 From the plant journal: Ubiquitin ligases act as molecular switches that tune plant immunity, offering new routes to strengthen disease resistance without compromising growth. (Natalie Hamada, Katherine A. Hand, Nitzan Shabek)

▶️ onlinelibrary.wiley.com/doi/full/10....

#PlantScience #PlantBiology

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🌾 A robust #model based on root morphological and anatomical features to distinguish high and low methane emission rice varieties through machine learning approaches
buff.ly/CYrlQal #PlantScience #RootScience

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Pest behavioural disruption by plant metabolites: a crop protection challenge Plant secondary (specialized) metabolites play a pivotal role in disrupting pest behaviour, offering a promising and environmentally friendly alternative to conventional pesticides. These compounds can interfere with insect feeding, oviposition, and host selection, thereby reducing crop damage and pest populations. Recent advances highlight the ecological selectivity and rapid biodegradation of these metabolites, making them attractive for sustainable crop protection. Innovative formulation techniques are enhancing their persistence and efficacy, yet challenges remain in understanding synergistic effects, nontarget impacts, and practical implementation. Harnessing the full potential of plant metabolites for pest behavioural disruption requires integrated research and development, paving the way for their broader adoption in integrated pest management strategies.

Pest behavioural disruption by plant metabolites: a crop protection challenge #plantscience

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Fig. 1.miRNAs involved in gametogenesis. The figure represents the main miRNAs involved in gametogenesis in rice. miR172 regulates floral organ development by targeting AP2. miR528 and miR2118 are implicated in pollen fertility, where miR528 represses UCL23 while miR2118 interacts with AGO1 to produce 21 nt reproductive phasiRNAs. miR5506 and miR5488 contribute to embryo sac development by regulating REM and ARF25, respectively. These regulatory networks highlight the essential role of miRNAs in coordinating reproductive success in rice. AGO1, ARGONEUTE 1; ARF, AUXIN RESPONSIVE FACTOR; REM, REPRODUCTIVE MERISTEM TRANSCRIPTION FACTOR; UCL23, UCLACYANIN-LIKE PROTEIN 23. Created in BioRender. Cucinotta, M. (2025) https://BioRender.com/yyzxqad.

Fig. 1.miRNAs involved in gametogenesis. The figure represents the main miRNAs involved in gametogenesis in rice. miR172 regulates floral organ development by targeting AP2. miR528 and miR2118 are implicated in pollen fertility, where miR528 represses UCL23 while miR2118 interacts with AGO1 to produce 21 nt reproductive phasiRNAs. miR5506 and miR5488 contribute to embryo sac development by regulating REM and ARF25, respectively. These regulatory networks highlight the essential role of miRNAs in coordinating reproductive success in rice. AGO1, ARGONEUTE 1; ARF, AUXIN RESPONSIVE FACTOR; REM, REPRODUCTIVE MERISTEM TRANSCRIPTION FACTOR; UCL23, UCLACYANIN-LIKE PROTEIN 23. Created in BioRender. Cucinotta, M. (2025) https://BioRender.com/yyzxqad.

🧬🌾 SPECIAL ISSUE REVIEW 🌾🧬

Stress-responsive miRNAs play a crucial role in orchestrating seed development and germination and in regulating adaptation mechanisms across diverse rice genotypes - Boccaccini et al.

🔗 doi.org/10.1093/jxb/...
#PlantScience 🧪

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Happy Graduate Student Appreciation Week! 🎓

Shoutout to Rhee Lab grad students for the work, ideas, and teamwork you bring every day 👏

#plantscience

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IJPB Symposium 2026: Chemical Interactions Between Plants and Their Environment | Versailles, France Wed 23 Sep - Sat 26 [CEST]: The Institute Jean-Pierre Bourgin for Plant Sciences, a major laboratory for plant science research affiliated to both INRAE and AgroParisTech, is organising the 3rd…

📅New #PlantSciEvents Event Added: IJPB Symposium 2026: Chemical Interactions Between Plants and Their Environment

👉 buff.ly/diExGdc

#PlantScience

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Dissecting the Network Architecture of a Plant Circadian Clock Model: Identifying Key Regulatory Mechanisms and Essential Interactions Circadian rhythms are self-sustained biological oscillations that coordinate diverse physiological processes in plants, including growth, metabolism, and environmental responses. These rhythms arise from...

Dissecting the Network Architecture of a Plant Circadian Clock Model: Identifying Key Regulatory Mechanisms and Essential Interactions
by Shashank Kumar Singh and Ashutosh Srivastava
buff.ly/cQyvJta via @biorxivpreprint.bsky.social #PlantScience

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Happy Graduate Student Appreciation Week! 🎓

Shoutout to all the grad students driving discovery, pushing boundaries, and keeping research moving forward 💡

We appreciate you this week and every week 👏

#plantscience

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The graphic is a job advertisement for postdoctoral researcher positions in the Topp lab. It features a faded background image of a plant root on top of a ruler next to a probe with the Plant Resilience Institute logo in the top left corner. In the middle of the graphic is a green gradient arrow with the following text: “Now Hiring: Topp Lab Postdoctoral Researchers." In the bottom right corner, there is the MSU PRI logo and the text: “Apply online at careers.msu.edu.”

The graphic is a job advertisement for postdoctoral researcher positions in the Topp lab. It features a faded background image of a plant root on top of a ruler next to a probe with the Plant Resilience Institute logo in the top left corner. In the middle of the graphic is a green gradient arrow with the following text: “Now Hiring: Topp Lab Postdoctoral Researchers." In the bottom right corner, there is the MSU PRI logo and the text: “Apply online at careers.msu.edu.”

The Topp lab is recruiting multiple postdoctoral researchers across complementary areas of root biology, phenomics, and translational crop science! Learn more about the postdoc opportunities and apply now: plantresilience.msu.edu/team/join.as... #PlantScience #PlantSciJobs

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Unearthing a legacy from the green revolution: Rht-D1b contributes to larger roots in modern bread wheat varieties The green revolution (GR) represented a major breakthrough in modern agricultural practices. This transformative period was characterized by high-yielding

IN BRIEF: Unearthing a legacy from the green revolution: Rht-D1b contributes to larger roots in modern Bread Wheat varieties (Christian Damian Lorenzo) doi.org/10.1093/plce... #PlantScience @aspbofficial

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AtMYB93 promoter activity visualized in wild type plants expressing pAtMYB93::GUS (Gibbs et al. 2014) under normal sulfur levels (+S) and S deprivation (−S) in 7-day old roots. Two examples of each treatment are shown. Cells expressing pAtMYB93::GUS are highlighted with arrows. Developing lateral root primordia are highlighted with arrowheads. Scale bars represent 50 μm.

A Potential Role for MYB93 Regulating Sulfur Responses in Arabidopsis and Tomato (Xulyu Cao, Helen B. Wilkinson, Bethany Hutton, et al) doi.org/10.1002/pld3... #PlantScience @aspbofficial @wileyecology @sebiology

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Smells Like Green City? Scientists reveal that the mix of plant scents and pollution in city parks shifts with location and weather, quietly shaping the benefits of a simple walk outdoors.

Smells Like Green City?
www.botany.one/smells-like-...

Scientists reveal that the mix of plant scents and pollution in city parks shifts with location and weather, quietly shaping the benefits of a simple walk outdoors.
#Botany #PlantScience

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Tagging for the #PlantScience feed!

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Gorgeous #PlantScience in an accessible color scheme! No red-green, thank you!

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Insights into plant abiotic stress physiology through conventional and nonconventional approaches - Discover Agriculture Abiotic stresses are among the most significant constraints on global crop productivity, adversely affecting plant growth, physiological performance, and yield stability. Environmental stresses such a...

Insights into plant #abiotic stress #physiology through #conventional and nonconventional #approaches

link.springer.com/article/10.1...

#PlantScience #StressBiology @discovernature2025.bsky.social @plantredox.bsky.social @springer.springernature.com @springernature.com @plantphysiolupv.bsky.social

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Journal of Agronomy and Crop Science Call for Papers Unraveling Physiological Adaptations in Crops: Innovative Mitigation Strategies for Abiotic Stress Resilience Journal of Agronomy and Crop Science is an agricultural journal analysing the impact of abiotic stress and climate change on crop performance.

Call for Papers
Unraveling #Physiological Adaptations in #Crops: Innovative #Mitigation Strategies for #Abiotic Stress #Resilience

Deadline: 30 September 2026

onlinelibrary.wiley.com/page/journal...

#PlantScience @wileylifesci.bsky.social @grassrootsag.bsky.social @funcagroeco.bsky.social

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Beyond static structure: high-throughput chemical cartography of dynamic cell wall assembly Plant cell walls are intricate, heterogeneous networks that define plant morphogenesis and biomass recalcitrance. Deciphering their chemical architecture in situ has long been hindered by the trade-off between spatial resolution and chemical specificity. Here, we introduce an integrated platform that synergizes confocal Raman microscopy (CRM) with stimulated Raman scattering (SRS) to bridge this gap. This duality is transformative: CRM captures full ‘fingerprint’ spectra to identify novel or unexpected polymers, while SRS visualizes specific chemical bonds at video-rate speeds, unlocking population-scale screening.

Beyond static structure: high-throughput chemical cartography of dynamic cell wall assembly #plantscience

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Navigating Climate Change: Exploring the Dynamics Between Plant–Soil Microbiomes and Their Impact on Plant Growth and Productivity This article presents a comprehensive analysis of the impact of climate change on the interactions between plant and soil microbiomes, highlighting their essential role in agricultural productivity. ...

Navigating #Climate Change: Exploring the Dynamics Between Plant– #Soil #Microbiomes and Their Impact on Plant #Growth and #Productivity

doi.org/10.1111/gcb....

#PlantScience #SciComm @globalchangebio.bsky.social @soilmicrobio.bsky.social @soilmicroecol.bsky.social @soilmicrocanada.bsky.social

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Plant resilience to abiotic stresses: revealing the role of silicon in drought and metal(loid) tolerance Silicon plays a crucial role in enhancing plant resilience against abiotic stresses through modulation of physiological and molecular responses, particular

Plant #resilience to #abiotic stresses: revealing the role of #silicon in #drought and #metal(loid) tolerance

academic.oup.com/jxb/advance-...

#PlantScience @jxbotany.bsky.social @plantreproevo.bsky.social @droughtnet.bsky.social @tppajournal.bsky.social @jcb.org @plantbiology.bsky.social

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Photos showing the experiment setup. (A) One of the raised beds where two Vidalia onion varieties (‘Plethora’ and ‘Sapelo Sweet’) were grown together at a specific claypan (Bt soil horizon) depth and S content within the claypan (16 Dec 2021). (B) Photo of all 21 raised beds, where onions were grown with differing depths to the claypan (15 cm, 30 cm, 45 cm, and no claypan) and S content within the claypan (17 Mar 2022).

Photos showing the experiment setup. (A) One of the raised beds where two Vidalia onion varieties (‘Plethora’ and ‘Sapelo Sweet’) were grown together at a specific claypan (Bt soil horizon) depth and S content within the claypan (16 Dec 2021). (B) Photo of all 21 raised beds, where onions were grown with differing depths to the claypan (15 cm, 30 cm, 45 cm, and no claypan) and S content within the claypan (17 Mar 2022).

Onion roots can access sulfur deposits from as deep as 45-cm. S uptake from subsurface horizons can influence pungency and late-season S uptake from subsurface horizons can cause increased risk of high pungency. https://doi.org/10.21273/HORTSCI19034-25 #plantscience

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🌱 RESEARCH 🌱

The Transcription Factor OsWRKY64 Interacts With OsART1 to Positively Regulate Al Resistance in Rice - Chen, Zhang, Xu et al.

🔗 doi.org/10.1111/pbi.70638

#plantscience 🧪

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Not only reseeder or resprouter plants: Trait syndromes and post‐fire responses of three iconic Mediterranean woody species Post-fire plant functional strategies of Mediterranean woody species can be less fixed than often thought when intraspecific variability of fire-related traits is considered.

🌱 Out now!

Happy to share a new article I recently edited for Plant Biology. It offers great insights into post-fire responses of Mediterranean woody species

📖 Read the full study here: doi.org/10.1111/plb....

#PlantScience #Botany #PlantBiology #FireEcology

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