Richard E Cheney
Overview
Explore the profile of Richard E Cheney including associated specialties, affiliations and a list of published articles.
Author names and details appear as published. Due to indexing inconsistencies, multiple individuals may share a name, and a single author may have variations. MedLuna displays this data as publicly available, without modification or verification
Snapshot
Snapshot
Articles
43
Citations
1845
Followers
0
Related Specialties
Related Specialties
Top 10 Co-Authors
Top 10 Co-Authors
Published In
Published In
Affiliations
Affiliations
Soon will be listed here.
Recent Articles
1.
Yim Y, Pedrosa A, Wu X, Chinthalapudi K, Cheney R, Hammer J
Mol Biol Cell
. 2023 Nov;
35(2):ar14.
PMID: 38019611
Myosin 10 (Myo10) couples microtubules and integrin-based adhesions to movement along actin filaments via its microtubule-binding MyTH4 domain and integrin-binding FERM domain, respectively. Here we show that Myo10-depleted HeLa cells...
2.
Kapustin A, Tsakali S, Whitehead M, Chennell G, Wu M, Molenaar C, et al.
bioRxiv
. 2023 Aug;
PMID: 37645762
The extracellular matrix (ECM) supports blood vessel architecture and functionality and undergoes active remodelling during vascular repair and atherogenesis. Vascular smooth muscle cells (VSMCs) are essential for vessel repair and,...
3.
Yim Y, Pedrosa A, Wu X, Chinthalapudi K, Cheney R, Hammer J
bioRxiv
. 2023 Jul;
PMID: 37398378
Myosin 10 (Myo10) has the ability to link actin filaments to integrin-based adhesions and to microtubules by virtue of its integrin-binding FERM domain and microtubule-binding MyTH4 domain, respectively. Here we...
4.
5.
Kapustina M, Li D, Zhu J, Wall B, Weinreb V, Cheney R
Biophys J
. 2023 May;
122(18):3656-3677.
PMID: 37207658
To facilitate rapid changes in morphology without endangering cell integrity, each cell possesses a substantial amount of cell surface excess (CSE) that can be promptly deployed to cover cell extensions....
6.
Pozo F, Geng X, Tamagno I, Jackson M, Heimsath E, Hammer J, et al.
Sci Adv
. 2021 Sep;
7(38):eabg6908.
PMID: 34524844
Genomic instability is a hallmark of human cancer; yet the underlying mechanisms remain poorly understood. Here, we report that the cytoplasmic unconventional Myosin X (MYO10) regulates genome stability, through which...
7.
Hammers D, Hart C, Matheny M, Heimsath E, Lee Y, Hammer 3rd J, et al.
Elife
. 2021 Sep;
10.
PMID: 34519272
Skeletal muscle fibers are multinucleated cellular giants formed by the fusion of mononuclear myoblasts. Several molecules involved in myoblast fusion have been discovered, and finger-like projections coincident with myoblast fusion...
8.
Hall E, Dillard M, Stewart D, Zhang Y, Wagner B, Levine R, et al.
Elife
. 2021 Feb;
10.
PMID: 33570491
Morphogens function in concentration-dependent manners to instruct cell fate during tissue patterning. The cytoneme morphogen transport model posits that specialized filopodia extend between morphogen-sending and responding cells to ensure that...
9.
Kenchappa R, Mistriotis P, Wisniewski E, Bhattacharya S, Kulkarni T, West R, et al.
iScience
. 2020 Dec;
23(12):101802.
PMID: 33299973
Invasion and proliferation are defining phenotypes of cancer, and in glioblastoma blocking one stimulates the other, implying that effective therapy must inhibit both, ideally through a single target that is...
10.
Sigmon J, Blanchard M, Baric R, Bell T, Brennan J, Brockmann G, et al.
Genetics
. 2020 Oct;
216(4):905-930.
PMID: 33067325
The laboratory mouse is the most widely used animal model for biomedical research, due in part to its well-annotated genome, wealth of genetic resources, and the ability to precisely manipulate...