🍅 Happy #TomatoTuesday from @nature.com Nature Genetics! #PlantScience 🍅
Posts by Muzammil Hussain
#OsWRI1a coordinates systemic #growth responses to #nitrogen availability in #rice
www.science.org/doi/10.1126/...
#PlantScience @science.org @natbiotech.nature.com @de.scientists4future.org @jcellsci.bsky.social @lindzeamays.bsky.social @agristok.bsky.social @ricegeek.bsky.social @rootsaction.org
Lemongrass: climate-smart crop for marginal lands #plantscience
This is figure 1, which shows a high-resolution environmental model of pesticide risk across Peru, designed to support spatial cancer epidemiology.
An analysis in Nature Health reveals spatial patterns of pesticide exposure and liver tissue-derived molecular signatures across Peru, establishing links between pesticide usage and cancer insurgence at the national scale. go.nature.com/41hOBAK 🧪
Nature's Shield: Exploring Nonglandular Trichomes (NGT) as Key Players in Plant Defense Mechanisms (Muhammad Ahmad, Sen Li, Yuming Dong, et al) doi.org/10.1002/pld3... #PlantScience @aspbofficial @wileyecology @sebiology
‘Super‑pangenomes’ could provide new tools for a warming climate 🌍
A new review maps how these datasets reveal hidden crop diversity, helping breeders develop more climate‑tolerant, productive varieties.
👉 https://ow.ly/wLSV50YzbvY
Wheat is a major staple crop for over one-third of the world’s population, crucial for global food security, economic stability and cultural traditions. Recently, single-cell and spatial omics approaches have transformed biological discovery, primarily in medical and animal sciences, and they are now beginning to be applied in plant research. Here we summarize the technical innovations and feasibility of spatial omics applications in wheat research, particularly for understanding developmental and environmental responses, thereby potentially enhancing wheat breeding. We highlight how these tools can reveal spatial and temporal patterns in gene expression, cellular heterogeneity and tissue organization in wheat. Furthermore, we propose developing a spatially resolved single-cell atlas of wheat across its life cycle to facilitate breakthroughs in basic research and potential applications in breeding. To achieve these goals, we advocate for a Wheat Spatial Omics Consortium to foster worldwide collaboration for overcoming barriers and developing sustainable and climate-resilient wheat.
Excited to share our #perspective article "𝙏𝙝𝙚 𝙥𝙤𝙩𝙚𝙣𝙩𝙞𝙖𝙡 𝙤𝙛 𝙬𝙝𝙚𝙖𝙩 𝙨𝙥𝙖𝙩𝙞𝙖𝙡 𝙤𝙢𝙞𝙘𝙨🌾🧬" now out in
@natgenet.nature.com😍🤩
Congrats to all colleagues involved 🌏👏
🔗 www.nature.com/articles/s41...
@scottboden.bsky.social @natplants.nature.com @wheatinitiative.bsky.social @wheatgenome.bsky.social #Wheat
The potential of #wheat #spatial #omics
www.nature.com/articles/s41...
#PlantScience @natgenet.nature.com @natplants.nature.com @wheatinitiative.bsky.social @wheatbiology.bsky.social @triticumaestivum.bsky.social @techspatiales.bsky.social @singlecellbeyblade.bsky.social @cellbionews.bsky.social
This review highlights how integrated #omics tools🧬 (#genomics, #transcriptomics, #proteomics, etc.), machine learning, and speed #breeding can help develop #climate-proof, #temperature-smart crops — helping global #food demand under #climate change🦾🌾
onlinelibrary.wiley.com/doi/10.1111/...
#Diversity-triggered 2-naphthoic acid exudation recruits keystone #microbial taxa to promote #soybean #drought tolera
www.cell.com/cell-host-mi...
#PlantScience @cp-cellhostmicrobe.bsky.social @microbioblog.bsky.social @tischlerlab.bsky.social @localmicrobes.bsky.social @plantmicrobiol.bsky.social
Professor Philippa Borrill
We are devastated to announce that our colleague and friend Professor Philippa Borrill died over the Easter weekend following a rare immune system disorder (HLH). She was a fantastic scientist, collaborator and mentor, and a close friend to many: www.jic.ac.uk/news/profess...
The germplasm collection from distinct geographic backgrounds includes cultivated species, landraces, and wild relatives, which serve as a foundation for super-pangenome analysis. The genomic diversity discovered across multiple genomes (e.g., genomes 1–10 from different species within a genus) includes diverse structural variations. It is then classified into the super-pangenome concept, which comprises the core, dispersal, and private genomes. Similarly, genes within the super-pangenome are classified into super pan-genes, including genus-conserved, genus-variable, and species-specific genes. This dataset facilitates the examination of genetic diversity and evolutionary relationships at the genus level, which offers insights into crop improvement and breeding programs. Created with BioRender.com.
Overview of super-pangenome development and classification of super pan-genes
🔗 www.nature.com/articles/s44...
@natplants.nature.com @plantevolution.bsky.social @plantgenomics.bsky.social @genesdev.bsky.social @genomebiolevol.bsky.social @plantteaching.bsky.social @scinews.bsky.social
In @natrevmicro.nature.com , we examine
1. climate extreme impacts on plant pathogens, microbiomes, host physiology & disease outcomes
2. different responses of pathosystems to extreme from climate change
3. integrated pathway to support climate-resilient ecosystems
www.nature.com/articles/s41...
Novel #Strategies for Designing #Climate-Smart #Crops to Ensure Sustainable #Agriculture & Future #Food Security
onlinelibrary.wiley.com/doi/full/10....
#PlantScience #StressBiology @aliraza6.bsky.social @crop4clima.eu @foodsecurityuoc.bsky.social @jagadishw.bsky.social @cropscicentre.bsky.social
Call for papers
A quick update on our #PlantStress #Special_Issue on #Panomics🧬 and #climate-smart crops under combined #stresses🌾
🗓️New submission deadline: June 15
✅We’re now also accepting #Opinion, #Spotlight, and Short #Communication articles
🔗 www.sciencedirect.com/special-issu...
@scinews.bsky.social
Excited to share our Review by @prof-braj-singh.bsky.social @natrevmicro.nature.com Impacts of climate extremes on plant pathogens, microbiomes and plant health. We propose an integrated pathway for harnessing microbiomes to address the critical challenges posed by climate extremes. dlvr.it/TRR2wT
A #sorghum #pangenome reference improves global #crop trait discovery
www.nature.com/articles/s41...
#PlantScience @nature.com @lisa-sorghum.bsky.social @sorgguy.bsky.social @sorghumbase.bsky.social @pangenomics.bsky.social @nadiashakoor.bsky.social @sorghumandfennel.bsky.social @crop4clima.eu
From the #genome to #super-pangenome: a new paradigm for accelerated #crop improvement
www.nature.com/articles/s44...
#PlantScience #SciComm @natureportfolio.nature.com @natrevgenet.nature.com @pangenomics.bsky.social @plantgenomes.bsky.social @plantgenomics.bsky.social @ahalllab.bsky.social
After a long journey, our new paper is out! 🌱
In this study, Tiina and colleagues show that cambium activation in the Arabidopsis root is triggered by the induction of auxin, cytokinin, and TDIF peptide signalling. 🧵1/x doi.org/10.1093/plce...
Harnessing #metabolomics for enhanced crop #drought tolerance
www.sciencedirect.com/science/arti...
#PlantScience #SciComm @hiroshi-maeda.bsky.social @plantmetabolism.bsky.social @molplantsci.bsky.social @emn-metsoc.bsky.social @unccd.bsky.social @plantcellatlas.bsky.social @plantnet.bsky.social
The protein #phosphatase OsPP1a dephosphorylates & stabilizes CatC to #scavenge excess #H2O2 and enhance #salt tolerance in #rice
www.cell.com/plant-commun...
#PlantScience #StressBiology #AbioticStress @mplantpcom.bsky.social @plantredox.bsky.social @plecevo.bsky.social @plantprotein.bsky.social
Interested in plant trichomes ?
Check out our new paper from the @lewseylab.bsky.social.
Nice work Mulu, Bhavna and rest of team !
onlinelibrary.wiley.com/doi/10.1111/...
Heatwaves. Droughts. Floods. As climate extremes become more frequent, they may be silently increasing the risk of plant disease outbreaks by reshaping plant pathogens, beneficial microbiomes and host immunity. Check out our latest Review in dlvr.it/TRR2wT
#Metabolic adaptations of #Qingke: A review of #stress resilience and #nutritional functions
www.sciencedirect.com/science/arti...
#PlantScience #StressBiology @bdxmetabolome.bsky.social @hiroshi-maeda.bsky.social @metabodave.bsky.social @plantmetabolism.bsky.social @isnpr.bsky.social
#Wheat #breeding during & after the “green #revolution” contributed to the reduced use of elite nitrogen #metabolism alleles linked to #nitrogen use efficiency
onlinelibrary.wiley.com/doi/10.1111/...
#PlantScience #StressBiology @theplantjournal.bsky.social @sebiology.bsky.social @ncse.bsky.social
Perspectives on improving #photosynthesis to increase #crop #yield
academic.oup.com/plcell/artic...
#PlantScience @theplantcell.bsky.social @aspbofficial.bsky.social @plantteaching.bsky.social @photosyntheticaieb.bsky.social @ripeproject.bsky.social @sheffieldpps.bsky.social @biology.ox.ac.uk
#Biogenic retrograde #signaling via GUN1 ensures #thermotolerant #chloroplast biogenesis during #seedling establishment in #Arabidopsis thaliana
onlinelibrary.wiley.com/doi/10.1111/...
#PlantScience @jipb.bsky.social @chloroplast.bsky.social @intlsocseedsci.bsky.social @seedscience.bsky.social
#Transcriptome-wide association study identifies the #ZmbZIP89–ZmSAUR21 module as a key regulator of #root growth and #drought tolerance in #maize
onlinelibrary.wiley.com/doi/10.1111/...
#PlantScience @jipb.bsky.social @rootsaction.org @tropiroot.bsky.social @maizezynskihi.bsky.social @rsc.org
#TaHST2 #silencing shapes basal #heat tolerance in #allohexaploid #wheat
www.nature.com/articles/s41...
#PlantScience @natplants.nature.com @wheatgenome.bsky.social @wheatgrower.bsky.social @wheatbiology.bsky.social @natcellbio.nature.com @ymalhi.bsky.social @crop4clima.eu @gensocuk.bsky.social
#Light and Alternating #Temperatures Release #Seed Dormancy in the Invasive #Dipsacus fullonum L. Through #ROS Homeostasis and #ABA Regulation
onlinelibrary.wiley.com/doi/10.1111/...
#PlantScience @pplplantarum.bsky.social @plantredox.bsky.social @intlsocseedsci.bsky.social @ukhta420.bsky.social