Tyler Inskeep (they/them)

PhD candidate in the Groen Lab @ UC Riverside. evolutionary systems biology, plant development, root-knot nematodes. they/them 🏳️‍🌈

[Anika Damm @AnikaDamm]

Very excited to share our new preprint on DGR-1: a nematode master regulator controlling the switch from destructive to biotrophic effectors. We show that nematodes hijack the natural compartmentalisation of plant signals to fine-tune DGR-1 expression. https://t.co/W009FhoEY0

[Genetics Society of America @GeneticsGSA]

Learn about the inner workings of developmentally dynamic worm-specific argonautes, their control of #Celegans regulatory networks, and the challenges associated with using simple loss-of-function studies to assess their function. 🪱

Paper in #GENETICS:🔗 https://t.co/o30kVbEcQJ

[ぴーちゃん @peechan1970]

植物の遺伝子情報を編集するAtSF1というタンパク質の働きを解明。AtSF1は体内時計や病気への防御に関わる遺伝子のRNA加工を調整しており、異常が起きると成長リズムが乱れ免疫力も低下。植物の健康を支える重要な仕組みの発見。PNAS
https://t.co/8dkDj8hXbb

[Will Shaw @willmshaw]

New preprint out 🌱

We present a new T-DNA vector system for Arabidopsis that supports clean, genomically mapped, single-copy T-DNA insertion with predictable cell-type/conditional gene expression.

@MoKhalilLab + Gehring labs

https://t.co/oqkjliGHaQ

🧵1/16

[ぴーちゃん @peechan1970]

植物のDNAには遺伝子の働きを調節する「スイッチ」がある。本研究はAIでその働きに影響する遺伝子変異を予測し、シロイヌナズナやトウモロコシで暑さへの強さに関わる変異を発見。環境ストレスに強い作物の品種改良に役立つ成果。Nat. Commun https://t.co/PZ7CWe2CDo

[Matthew Taliaferro @JMTali]

New paper! How do RNAs "know" where to go inside a cell? We dug into the sequence elements that route RNAs to the right place. It turns out that, in mammals, they're surprisingly massive (>200 nt), multipartite, and wonderfully complicated. 🧵

[Cell Genomics @CellGenomics]

Regulatory network topology and the genetic architecture of gene expression https://t.co/S6GG65LFVT

[Adam Norris @Adam_D_Norris]

Our latest: alternative splicing that changes the translational reading frame! Not only can it cause RNA decay, it can also generate alternatively-coded proteins or alternative protein lengths. Tons of it in 🪱 and 🧍‍♀️

https://t.co/TngvihkG4c

[Mrutyunjaya Panda @mpanda_official]

A direct interaction with nucleus, well mitochondria knows where to deliver.
https://t.co/L2m9SbiBWU

[Sunil K. Kenchanmane Raju | ಸುನಿಲ್ ಕೆಂಚನಮನೆ ರಾಜು @Sunil_KumarKR]

Excited to see our review online in @CurrentBiology, led by our amazing leader @Luke_Nikolov, as part of the @CellAtlas Comparative Biology and Evolution Committee to help envision the future of evolutionary and comparative single-cell omics in plants
https://t.co/3SnMLCTwPH

[The Plant Cell @ThePlantCell]

LETTER -- Cultivating “scientific identity”: insights from plant cell and developmental biology (Makayla T Drew , Dawn H Nagel) https://t.co/FfjAHcO41u @ASPB #PlantSci

[CIBER: Center for Integrative Bee Research @ciber_bee]

🐝✨
CIBER science published in Nature led by former postdocs Yu Fang and Yahya Al Naggar, we show that bees don’t just feed future queens—they engineer them.
For more information:
Paper in Nature Link: https://t.co/km9UHXIf9W
UCR Press Release Link: https://t.co/KTxc3B9Yqi

[Plant Disease @PlantDiseaseJ]

“Enhancing Prediction of Soybean Cyst Nematode Spatial Distribution Through Geostatistical Optimization: A Comparison of Manual and Automated Sampling Methods,” by Richard S. González Aquino et al. Learn more: https://t.co/gYtuyUGnMq

[Deyang Xu @DeyangXu_CN]

Plastoglobules compartmentalize nitrogen assimilation in maize @Nature
https://t.co/9iYJcJtfs6

[Deyang Xu @DeyangXu_CN]

Deep learning uncovers conserved regulatory logic and element dosage underlying stable gene expression in grasses @MPlantPCom
https://t.co/qqm77oUH8d

[Iñaki Ruiz-Trillo @multicellgenome]

1/9 Interesting new paper by Kasalo, Domazet-Lošo et al. on amino acid biosynthesis & animal origins.
Some of the most energetically expensive amino acids became "outsourced" during early animal evolution rather than synthesized internally.
🧵
https://t.co/6IRqoouGg6

[Evolutionary Genomics @evol_genomics]

Multiple losses of ecdysone receptor genes in nematodes: an alternative evolutionary scenario of molting regulation https://t.co/fmhcjD7zaZ @MolBioEvol

[Alexandre Marand @Marand_Lab]

Single somatic plant cells have the remarkable potential to dedifferentiate and regenerate entirely new plants. However, the cell states and regulatory dynamics enabling dedifferentiation competence had not been fully explored... dun dun dun ⬇️ (1/12)

https://t.co/bca6Pbt6Mp

[ぴーちゃん @peechan1970]

5種のアブラナ科植物の20万個超の根細胞を1細胞レベルで解析。塩害などへの反応は、植物ごと・細胞ごとに大きく異なることが判明した。極限環境に強い植物の仕組み解明につながり、将来の高耐性作物開発への応用が期待される。Nat. Commun https://t.co/ccox7iGYfN

[Deyang Xu @DeyangXu_CN]

https://t.co/8sYHSpWkKr