New preprint from our and @BillDauerNeuro labs, also with @pappassa! @suminkim28 characterized neuronal NPC biogenesis and implicates mislocalized/delayed NPC assembly in DYT1 dystonia. See tweetorial below ⬇️
Excited to share my thesis work!
Using super-resolution microscopy and a new HaloTag-Nup107 mouse line, we find that 1) NPC biogenesis is upregulated during neuronal maturation and that 2) torsinA is essential for normal localization and assembly kinetics of neuronal NPCs. (1/N)
Another preprint out from our lab! MATR3 abundance and RNA binding are regulated by neuronal activity, and pathological mutations disrupt activity mediated degradation of MATR3 via calpain1. This links activity dependent regulation of MATR3 and disease!
biorxiv.org/content/10.1101/…
Excited to share that our latest preprint is out! Here we show that m6A modulates TDP43 RNA binding and that RNAs are hypermethylated in ALS. We also found if you knockdown an m6A reader, YTHDF2, you can mitigate disease related toxicity!
Also, Sami will be giving a talk on MTMR5 and neuronal autophagy at 4:53pm in the "Mechanisms of Autophagic and Endolysosomal Trafficking in Neuronal Function and Neurodegeneration" subgroup tomorrow! #CellBio2022
Check out our lab's posters at #CellBio2022 tomorrow (Monday Dec 5)!
- Genesis Rodriguez on VPS13A function in mitochondria/ER (P2106/B430)
- Josephine Wu on calcium and calmodulin-dependent Matrin3 homeostasis (P2076/B399)
- Sumin Kim on neuronal NPC biogenesis (P2019/B339)
Check out our lab's posters at #CellBio2022 tomorrow (Monday Dec 5)!
- Genesis Rodriguez on VPS13A function in mitochondria/ER (P2106/B430)
- Josephine Wu on calcium and calmodulin-dependent Matrin3 homeostasis (P2076/B399)
- Sumin Kim on neuronal NPC biogenesis (P2019/B339)
Congratulations to @AlisonNarayanUM, who has been named a 2022 MBioFAR awardee!
This #UMBiosciences award recognizes exceptional mid-career faculty in the biosciences and supports their continued pursuit of innovative, high-risk research.
record.umich.edu/articles/si…
ALT Photos of the six MBioFAR awardees. Top row, from left: Sami Barmada, Jianping Fu, Costas Lyssiotis. Bottom row, from left: James Moon, Alison Narayan, Elizabeth Speliotes.
Our newest paper is out! @SEWrightPhD and friends discovered that RAN translation of CGG repeats triggers translational frameshifts that create toxic aggregation-prone chimeric proteins! A quick 🧵1/5: #FragileX#ALS#dementiaacademic.oup.com/nar/advance…
Congratulations to Mike on a fantastic thesis defense today! Mike’s work on m6A and TDP43 opened up many new avenues for the lab to pursue, and he has been pivotal in introducing the lab to science memes. Great job and many congratulations, Dr. McMillan!
Excited to share that our latest preprint is out! Here we show that m6A modulates TDP43 RNA binding and that RNAs are hypermethylated in ALS. We also found if you knockdown an m6A reader, YTHDF2, you can mitigate disease related toxicity!
Nico Gomez from the @BarmadaLab is primarily interested in exploring how the regulation of nucleic acid, the primary bearer of durable biological information across all living things, can be used to understand and treat disorders of the brain.
Read more: rna.umich.edu/faculty/featur…
Our most recent paper is out! We used iNeurons to identify MTMR5 as a regulator of neuronal autophagy. Our findings suggest a potential strategy to modulate autophagy in neurodegenerative disease. authors.elsevier.com/a/1f4vZ…
This work was led by Jason, who recently started his own lab at Johns Hopkins. Check out his review on autophagy and ALS (pubmed.ncbi.nlm.nih.gov/3405…) and other works on his profile: tinyurl.com/yc84cds5!
Excited that this paper is out!
Grp78/BiP/ HspA5 binds directly to TDP‑43 and mitigates toxicity associated with disease pathology
A clever BioID to drive TDP-43 (not over-expressed) in cytoplasm and nucleus: which Hsp70 modulates TDP-43?
rdcu.be/cNJCa
1/4
Neuronal activity regulates Matrin 3 levels and function in a calcium-dependent manner through calpain cleavage and calmodulin binding biorxiv.org/cgi/content/shor…#bioRxiv
Another preprint out from our lab! MATR3 abundance and RNA binding are regulated by neuronal activity, and pathological mutations disrupt activity mediated degradation of MATR3 via calpain1. This links activity dependent regulation of MATR3 and disease!
biorxiv.org/content/10.1101/…