🛡️Xu et al. reveal a striking #evolutionary divergence in the regulatory mechanisms of salicylic acid #biosynthesis between N. benthamiana and #Arabidopsis.
⬇️Get a free sneak peek at this new work right here!
⚔️ doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience #CropSci #JIPB
🌽Zhu et al. uncover a key regulatory pathway controlling #maize #root #development and highlight a valuable target #gene for improving root systems and enhancing drought tolerance in crop breeding programs.
🍿 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience #JIPB
#Rice's secret to high-efficiency "dining"? 🍚✨ New study in #JIPB reveals OsMADS61 & OsMADS26 as the master controllers! They regulate BOTH direct and #mycorrhizal #nitrate pathways. It’s like having a personal delivery service and a buffet at the same time! 🧬🌾
🔗https://doi.org/10.1111/jipb.70224
🍞Pre-harvest sprouting in #wheat leads to premature seed germination and reduces both yield and flour quality.
🫓A new #FreeAccess study in #JIPB reports that GSK3 regulates DOG1L4 to enhance PHS resistance.
🥖 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci #crop #food #agtech
Diagram featuring a choloroplast/plastid, ER, cytosol, and nucleus, illustrating how the O-methyltransferases FsE4MT01 and FsE4MT02, and the glycosyltransferase FsP4′GT catalyze the terminal methylation and glycosylation steps in biosynthesis of the unique antiviral lignan phillyrin in Forsythia suspensa.
🧪Phillyrin is a unique #antiviral lignan with potent anti-#flu activity only found in Forsythia suspensa.
Wang et al. reveal key steps in its #biosynthesis, bringing us one step closer to a valuable #drug.
🔗 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci #JIPB #plant #medicine
Major iridoids identified in 10 studied Nepeta taxa: (A) Plants were grown under controlled greenhouse conditions and subsequently subjected to metabolic profiling of iridoids. (B) Major iridoid aglycones (IAs) and iridoid glycosides (IGs) detected in Nepeta taxa are presented within the dashed black and red boxes, respectively.
🐾We *promise* this🐾post wasn't written🐾by a cat...🤞
🐾 Banjanac et al. report🐾that iridoid diversity in🐾catmints is at least partially attributed🐾to #evolutionary gains🐾and losses of key🐾 #biosynthetic #genes.
🔗 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci #JIPB 🐾 #meow #OpenAccess
🥦Clubroot disease is responsible for an estimated 15% annual global Brassica #crop loss.
💡This new #JIPB commentary examines #research by Wu et al. exploring the role of GSL5 as a key #gene for susceptibility to clubroot.
🔗 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci #OpenAccess
Manipulation of the gene for the MYB transcription factor GmMYB331 may be a breakthrough mechanism for breeding high-oil/high-yield #soybean cultivars.
Read the research for free, right here⬇️
doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci #JIPB #AgTech #CropScience #OpenAccess
Meet the "Commander" of Rice Antiviral Defense! 🌾🛡️
A fascinating study published in JIPB reveals how Rice ARGONAUTE 2 (OsAGO2) acts as a master regulator in broad-spectrum antiviral immunity.
Read the full paper: onlinelibrary.wiley.com/doi/10.1111/...
#Rice #Immunity #OsAGO2 #Virology #JIPB
New #OpenAccess work by Huang et al. demonstrates the power of touch-down overlapping PCR coupled with HiFi long-read sequence (TDOP-seq) for large-scale ID of protein–protein interactions
doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience #Arabidopsis #rice #JIPB
🧥Well, it's not like they can put on a jacket, right?
❄️Find out how phyB–PIF4 rewiring fine-tunes seasonal #growth in #cold-adapted aspen, helping #trees adapt to cool summers.
🌿Read the latest #JIPB commentary for free here!
🔗 doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantSci
❓How does the 3D architecture of #chromatin—especially the formation of chromatin loops—regulate spatial #gene expression?
❗️A new #JIPB commentary explores this central question in molecular #biology.
🔗 doi.org/10.1111/jipb...
📿
@wileylifesci.bsky.social
#PlantSci #JIPB #Agriculture #crop
Schematic illustration of NRT1.1B-SPX4-NLP4 or NLP3 response patterns in six different states. States I–IV correspond to plants exposed to constant low-nitrate (LN) or high-nitrate (HN) conditions, as discussed in Ma et al. (2025). States I and II depict a stress-free condition, while states III and IV depict a stress condition, in which abscisic acid (ABA) molecules (red circles) bind to NRT1.1B exclusively under constant LN (Figure 1 State III). Under constant HN conditions, instead of ABA molecules, nitrate ions bind to NRT1.1B, and nitrate is transported from the outside to the inside of the cell (Figure 1 State IV). Abscisic acid molecules are substituted by nitrate. As a reference, the transient application of nitrate ions (green circles) is also included for states V and VI, as discussed in Hu et al. (2019) (note that NLP3 is used here instead of NLP4).
🌿To #grow or not to grow...🌿
This #OpenAccess #JIPB commentary discusses the mechanism by which #plants decide whether stop or continue growing under fluctuating #environmental conditions.
doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience #botany #evolution #ClimateChange
Image of high-density soybean plantings in the field.
Move over, #maize and #rice ...it's #soybean time!
Feng et al. propose a functional pathway toward a green revolution in soybean. Explore the past, present and future of this essential #crop #plant in this #OpenAccess #JIPB paper⬇️
doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience
MAPK cascades help regulate #plant #growth, #development, and #stress responses.
In a new study published in #JIPB, Cai et al. reveal the function of an #Arabidopsis MAPKKK18–MAPKK3–MAPK1/2/7/14 module in regulating flowering time.
doi.org/10.1111/jipb...
@wileylifesci.bsky.social
#PlantScience
Diagram describing how, when it infects apple (Malus domestica), the acid-producing fungal pathogen Valsa mali secretes VmAGP1 to hijack the receptor-like kinase MdLecRK2, triggering kinase oligomerization and subsequent phosphorylation of the vacuolar H+-ATPase MdVHAc”1. This cascade drives vacuolar acidification, malate compartmentalization, and cytosolic pH reduction, establishing an optimized microenvironment for fungal proliferation.
🍏How about them #apples?!😉
🍎Wang et al. identify potential targets for controlling apple Valsa canker in a new study that reveals a novel pH manipulation strategy in V. mali pathogenesis.
🍏 doi.org/10.1111/jipb...
🍎
@WileyLifeSci
#JIPB #TreeCrop #CropSci #agriculture #disease
Decorative image of plants with text that reads Happy holidays from all of us at JIPB
It's time for us to take a short break to recharge our social media batteries! But before we go, we'd like to thank you for your support this year.
We look forward to bringing you more of the latest #PlantScience #research in 2026!
@wileylifesci.bsky.social
#JIPB #SciComm
Wang et al. report that overexpression of Bt toxin Cyt2Aa fused with gut-binding peptides in #wheat enhances #aphid resistance, underscoring the critical role of modified Bt toxins to suppress #plant #pests.
doi.org/10.1111/jipb...
@wileyecology.bsky.social
#PlantSci #agriculture #JIPB
Rising global temperatures impact every aspect of #agriculture.
Peng et al. review the impact of warming #soil on symbiotic nitrogen-fixing #bacteria and their crucial role in #crop success.
🌡️ doi.org/10.1111/jipb...
@wileyecology.bsky.social
#PlantSci #CropSci #JIPB #ClimateCrisis
In a jasmonate-controlled regulatory pathway, MdMYC2 and MdMED25 induce production of the microRNA miR858, which cleaves the MdMYB73 transcript, dampening vacuolar proton pumps and malate transport, and lowering malic acid accumulation during ripening.
🍏 Malic acid is crucial to #apple #fruit quality.
Here, Zhang et al. report a regulatory cascade controlling malic acid accumulation, linking #jasmonate signaling and post-transcriptional regulation of fruit acidity.
🍎 doi.org/10.1111/jipb...
@wileyecology.bsky.social
#PlantSci #JIPB #microRNA
Trust me, this paper is #bananas ...in all the best ways!
Arshad et al. share a whole🍌bunch🍌of insights into #banana and #plantain #genomics, #genetics, and #breeding, and explore future possibilities.
🍌 doi.org/10.1111/jipb...
@wileyeco.bsky.social
#PlantScience #JIPB
Tang et al. characterize a previously unrecognized signaling module comprising OST1–MAP4K1/2–AHA2/SLAC1, which modulates #ABA mediatedregulation of stomatal aperture in #Arabidopsis.
👄 doi.org/10.1111/jipb...
#PlantScience #AbioticStress #water #plants #JIPB
A hypothetical model explaining how the bZIP3–AS1–CO complex regulates the temporal transcriptional regulation of FT. (A) Schematic representation of FT transcriptional regulation by bZIP3, AS1, and CO proteins. (B) Temporal regulation of FT expression by the function of bZIP3-AS1-CO complex in a photoperiod-dependent manner.
💡Lee et al. demonstrate that the bZIP3 #transcription factor is important for CO-induced FT expression under long #photoperiod conditions in #Arabidopsis.
📑 Read this #OpenAccess paper-and more-here!
➡️ doi.org/10.1111/jipb...
#PlantScience #JIPB #flowering
A working model for RBSDV P6 suppressing rice antiviral RNA decay defense response.
Rice black-streaked dwarf virus causes major yield loss in #cereal crops. In this #OpenAccess paper, Xie et al. investigate the #molecular mechanisms of #infection by this devastating #disease. 🔓 ⬇️
doi.org/10.1111/jipb...
#PlantScience #JIPB #rice #wheat #maize #phytopathology #virus #RNA
RDA results of plant trait factors on epiphytic (A,C) and endophytic (B,D) bacterial community composition in 2022 and 2023.
Long-term #climate warming and #nitrogen deposition increase #leaf epiphytic and endophytic bacterial #diversity.
👀 Find out what other revelations emerged from an 18-year field experiment in this 🆓 paper from #JIPB!
doi.org/10.1111/jipb...
#PlantScience #MPMI #microbiome
Proposed assembly pathways of mitochondrial complex I (CI) in maize.
#Mitochondrial complex I (CI) assembly in plants is a complex, crucial process.
Chen et al. provide insights into CI assembly pathways in #maize 🌽 and discuss the critical role of ZmGLDH and CRK1 in CI assembly.
doi.org/10.1111/jipb...
#PlantScience #JIPB #mitochondria
Schematic representation of the complete pathways for salicylic acid biosynthesis in plants.
Humans have long used salicylic acid to relieve pain and inflammation, #plants produce it to defend against #pathogens. But how? Yan Li and Jie Luo explore its #biosynthesis from phenylalanine in a new #FreeAccess #JIPB commentary! 🔓 ⬇️
doi.org/10.1111/jipb...
#PlantScience
Flow diagram to illustrate steps in the WTMM strategy, based on ultra-high performance liquid chromatography-quadrupole-linear ion trap (UHPLC-Q-Trap) and UHPLC-Q-Exactive-Orbitrap (UHPLC-QE-Orbitrap).
🏆With so many great #JIPB papers, we couldn't pick just one winner!🏆
Yang et al. win the 2024 Best Paper Award for this paper about their WTMM strategy for large-scale detection and analysis of #plant-modified #metabolites. onlinelibrary.wiley.com/doi/10.1111/... @wileyplantsci #JIPB #PlantSci
Diagram to illustrate rice cold tolerance regulation via OsNAC5 through the OsABI5-CORs transcription module, regulating the expression of CORs, PRXs, and ABA signalling, and thus, cold tolerance.
Congratulations to Li et al., winners of the #JIPB Best Paper Award for their paper on the role of NAC-type transcription factor OsNAC5 to➡️expression of OsABI5, fine-tuning cold tolerance in #rice and improving #crop yields.
doi.org/10.1111/jipb... @wileyplantsci #PlantSci #ABA
Flow diagram illustrating how transglutaminase interacts with and stabilizes S-adenosylmethionine synthetase 2, a key protein in polyamide synthesis, to promote the accumulation of polyamine, which upregulates the expression of autophagy-related genes and facilitates autophagosome formation to degrade ubiquitinated proteins, resulting in enhancing thermotolerance of tomato plants.
Growing🍅#food on a warming planet means understanding the🍅impact of heat stress on #crop #plants.🍅New work by Zhong et al.🍅finds #tomato TGase positively regulates thermotolerance.
🍅Read the study here⬇️
doi.org/10.1111/jipb... @wileyplantsci #PlantSci #JIPB #ClimateChange🍅