#CropSci

2025-11-20

In this #OpenAccess research article, Jin et al. reveal a new module for #seed trait control in #soybean, and explore the potential use of these alleles to facilitate breeding for high-#oil and high-yield cultivars.

Read their findings here⬇️for #free!
doi.org/10.1111/jipb.70015

@WileyLifeSci
#PlantSci #CropSci #JIPB #botany

A working model of miR172a-ERF416/413 module in the regulation of soybean seed traits. miR172a most likely cleaves the ERF416 and ERF413 to promote KIX8-1 expression but inhibit SWEET10a expression for the reduction of seed size/weight.
2025-11-07

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.70041

@WileyEcology
#PlantSci #CropSci #JIPB #ClimateCrisis

2025-10-03

⏲️In a hurry? There's always time for great #PlantScience!
Check out a new #BriefComms feature from #JIPB, revealing that GsMLP328, a major latex protein, modulates #seed traits like seed weight and #protein content in #soybean.
➡️doi.org/10.1111/jipb.70018

@wileyplantsci
#CropSci #botany #FreeAccess

Panel of data findings (morphological image and bar graphs) illustrating that the major latex protein GsMLP328 modulates seed weight and protein content in soybean.
2025-09-29

Here is some #AgTech to start your week!
In this #review, Shen et al., explore #genetic optimization of the source, sink and flow for increasing seed #oil content in rapeseed
doi.org/10.1111/jipb.70017
@wileyplantsci
#PlantSci #CropSci #JIPB #agriculture #canola #botany

Diagram summarizing genetic determinants for boosting seed oil content in rapeseed and their systematization across three processes: source expansion via boosted photosynthesis and carbon allocation; sink enhancement via elevated fatty acid synthesis and triacylglycerol assembly with suppressed lipolysis; and flow optimization via modified carbon partitioning and sucrose transport.
J of Systematics and EvolutionJSE@mstdn.science
2025-08-25

Searching for #PlantSci with broad a-peel? #JSE has all the juice!🤣🍊
Check out this #PrePub paper by #DoctorMichaelHeads exploring the #biogeography, #evolution, and #ecology of #oranges and their kin.
doi.org/10.1111/jse.70002 @WileyEcolEvol #systematics #evolution #CropSci

Annotated map to illustrate the distributions of the genera and clades in Rutaceae subfamily Aurantioideae, which can be explained through vicariance (causing allopatry and speciation) and secondary range expansion by normal dispersal (causing overlap). Citrus originated in situ by vicariance with its allopatric sisters, and within Citrus, the five main clades are also largely allopatric. The origin of Citrus is usually traced to a point in southern China, but this point is more likely to represent a break zone in a widespread ancestor than an ancestral area.
2025-08-07

#Rice bacterial blight poses a significant threat to rice #crops, but Sheng et al. reveal the role of arginine methyltransferase (OsPRMT5) in enhancing #resistance to blight #infection.
doi.org/10.1111/jipb.13885
@wileyplantsci
#PlantSci #agriculture #CropSci #JIPB

Diagram representing a cell under normal growth conditions and one under pathogen infection, each with annotated flow charts to illustrate how arginine methyltransferase (OsPRMT5) enhances rice resistance to bacterial blight by modulating salicylic acid and lignin contents through arginine methylation of the salicylic acid biosynthesis enzyme PHENYLALANINE AMMONIA LYASE 1 (OsPAL1). Also shown is the impact of an effector, secreted by Xanthomonas oryzae pv. oryzae, which disrupts the OsPRMT5–OsPAL1 interaction, impairing OsPRMT5-mediated immune responses.
J of Systematics and EvolutionJSE@mstdn.science
2025-07-28

Where would #crop #plant #evolution be without #allopolyploidy?
Zhang et al. explore allopolyploidy in Aegilops as a rich source of #genetic variation amenable to natural and artificial selection in #wheat.
doi.org/10.1111/jse.13191
@WileyEcolEvol
#JSE #CropSci #CropBreeding #botany

Diagram illustrating the construction of five sets of synthetic allotetraploids of diploid Aegilops species, and phenotypic consequences of allopolyploidy and additional chromosomal variation.
2025-07-25

Multi-target #gene editing in the TILLER ANGLE CONTROL 1 regulatory region fine-tunes gene expression in #rice, improving architecture for high-density planting in diverse zones.
doi.org/10.1111/jipb.13877
@wileyplantsci
#PlantSci #JIPB #CropSci #botany

Panel of figures: (1) Sequence diagrams indicating regulatory elements; (2) Plant morphology of select terminal allelic mutants as captured 80 days after seed sowing. Bars = 20 cm
2025-07-24

Using two natural Multi-Grain Spikelet 1 variants, Zhang et al. enhance #grain number in #sorghum, with exciting potential for future high-yield #breeding strategies.
doi.org/10.1111/jipb.13871
@wileyplantsci @wileyfoodsci
#PlantSci #CropSci #FoodSci #botany #FreeAccess 🔓

Panel of figures, (1) BSA-seq and positional cloning of MGS1, SEM images of spikelets at different stages, and (3) Grain number per panicle among MGS1, mgs19E or mgs1BA45 genotypes.
2025-07-23

Xue et al. report on the first fragrant🥜#peanut lines, created using a #CRISPR/Cas9-facilitated targeted knockout of the betaine aldehyde dehydrogenase #genes AhBADH1 and AhBADH2!
doi.org/10.1111/jipb.13864
@wileyplantsci
#PlantSci #CropSci #agriculture #FoodSci #OpenAccess #botany

A combination of diagrams, graphs and morphological images of WT and Fragrant peanut lines illustrates that targeted knockout of the betaine aldehyde dehydrogenase genes AhBADH1 and AhBADH2 using CRISPR/Cas9 produces mutant lines with significantly elevated 2-acetyl-1-pyrroline levels and a strong aroma, marking the first creation of fragrant peanut lines.
2025-07-16

New findings establish GmGASA12 as a #molecular hub integrating #hormonal dynamics and #protein interaction to enhance #soybean quality and #yield, offering a pivotal target for breeding #nutrient-dense varieties.
doi.org/10.1111/jipb.13952
@wileyplantsci
#PlantSci #JIPB #CropSci #botany

Diagram featuring an annotated cross-section of a cell (through the cytoplasm and cell membrane), and a whole-plant rendering of a soybean plant, together illustrating how the gibberellin-regulated protein GmGASA12 acts as a central regulator in improving soybean quality and yield, bridging hormone signaling and protein storage.
2025-06-25

Wang et al. explore the role of the JA–SlJAZ2/3–SlMYC3-like module in K+ uptake and #plant #growth in #tomato under low K+ stress, providing key insights into the regulation of plant growth and K+ uptake.
doi.org/10.1111/jipb.13941
@wileyplantsci
#PlantSci #JIPB #CropSci #agriculture #botany

Diagram of a whole tomato plant, flanked by contrasting flow diagrams for low K+-sensitive tomato and low-K+ tolerant tomatoes, illustrating that, in tomato, jasmonate activates a SlJAZ2/3—SlMYC3-like transcription factor module that regulates inhibition of plant growth induced by potassium ion (K+) deficiency and K+ uptake by regulating genes encoding K+ transporters and ion channels. Plus, it's noted that SlMYC3-like promoted SlJAZ2/3 expression, forming a negative feedback circuit in jasmonate signaling, mediating K+ uptake.
2025-06-18

This fascinating new #JIPB review by Iswanto et al. highlights work on #TranscriptionFactor engineering that has led to improvement in #growth performance, #yield and immunity, focusing on changes in #plant architecture related to improved yield and #disease resistance.
doi.org/10.1111/jipb.13932
@wileyplantsci
#PlantSci #JIPB #PlantSci #CropSci #botany

Diagram of a scale with a plant on the left side and the caption, "Improved growth." On the right side are stylized microbes and the caption, "Enhanced immunity." At the base of the scale is a strand of DNA with the caption "Transcription factor engineering."
2025-06-04

Dong et al. explore the regulatory mechanisms underlying taproot #morphogenesis using the RsLBD3 gene and provide novel #allelic variations for the #genetic enhancement of #taproot #shape traits in #radish.
doi.org/10.1111/jipb.13918
@wileyplantsci
#PlantSci #JIPB #CropSci #botany

The cytokinin-responsive RsLBD3–RsTCP14 module regulates vascular cambium activity in the radish taproot by activating expression of an auxin response factor gene and two cytokinin signaling genes, resulting in stem cell proliferation and impacting taproot shape in radish.
2025-06-01

🌡️The #ClimateCrisis is making soil saltier🧂
This new study by Hao et al. highlights the potential of multiplex #genome editing for directional improvement of #agronomic traits in salt-tolerant #rice.
doi.org/10.1111/jipb.13926
@wileyplantsci
#PlantSci #JIPB #salty #CropSci #bot

Morphological images of SR86 and SR86M rice plants in the lab and in the field.
2025-05-28

#Pathogens like M. oryzae and the rice stripe #virus severely impact #crop yields, but #RNAi-based #rice #disease management may turn the tide in this battle. Here, Chen et al. explore the potential of sprayable sRNA and dsRNA molecules.
doi.org/10.1111/jipb.13896
@wileyplantsci
#PlantSci #CropSci #Phytopathology #JIPB

In situ rice crop plant images, comparing mock, dsRNA(GFP), and dsRNA(RSV3) varieties at seedling and ripening stages. An RNA interference system using sprayable small RNA/double-stranded RNA with layered double hydroxides was developed to target Magnaporthe oryzae and rice stripe virus. This system enhanced RNA stability, suppressed fungal germination, and reduced viral replication, decreasing disease incidence, thus offering a scalable, eco-friendly solution for rice disease management.
2025-05-22

Do ancestral #genomes of today's #crops hold the keys to feeding the future?
Find out in this new #OpenAccess research paper from He et al.

Free to read in #JIPB! 🔓⬇️
doi.org/10.1111/jipb.13902

@wileyplantsci
#PlantSci #CropSci #PlantBreeding #FoodSecurity #oats #Avena #botany

Evolutionary trajectories of the four subgenomes within Avena.
2025-05-22

New research from Jiang et al. reveals novel insights into the #molecular mechanisms underlying reciprocal enhancement of Ca²⁺ and #ABA signaling under #drought stress in #maize.
doi.org/10.1111/jipb.13906
@wileyplantsci
#PlantSci #JIPB #CropSci #hormone #AbioticStress #drought
#botany

Diagram illustrating how ZmCIPK33 and ZmSnRK2.10 mutually reinforce the abscisic acid signaling pathway, leading to stomatal closure, and helping to combat abiotic stress in maize under drought conditions.
2025-05-14

What's new and next in #PlantSci? How about this fantastic sneak peek at new work by Shi et al., looking at #Agrobacterium-mediated #genetic transformation and genome editing in commercial #oat cultivars.🔓⬇️
doi.org/10.1111/jipb.13915
@wileyplantsci
#PlantSci #CropSci #agriculture #botany

Collage of images representing results from tests of an Agrobacterium-mediated genetic transformation system for mature and immature embryos and efficient genome editing platforms in oats.
2025-05-08

Get your Thursday off to a great start with this #OpenAccess review exploring how #hormonal #homeostasis integrates #environmental/#developmental signals to guide #carbohydrate flow in #rice grain filling and endosperm development. 🔓⬇️
doi.org/10.1111/jipb.13904
@wileyplantsci
#PlantSci #CropSci #JIPB #botany

Clockwise from top left: timeline diagram of developmental differences and hormone level changes between superior and inferior grains, and possible transport routes of carbohydrates during rice grain filling.

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