Nathaniel A Dyment
Overview
Explore the profile of Nathaniel A Dyment 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
56
Citations
957
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.
Nijsure M, Tobin B, Jones D, Lang A, Hallstrom G, Baitner M, et al.
bioRxiv
. 2025 Jan;
PMID: 39764016
Bone fracture repair initiates by periosteal expansion. The periosteum is typically quiescent, but upon fracture, periosteal cells proliferate and contribute to bone fracture repair. The expansion of the periosteum is...
2.
Cohen J, Fung A, Stein M, Darrieutort-Laffite C, Weiss S, Shetye S, et al.
Connect Tissue Res
. 2024 Dec;
65(6):497-510.
PMID: 39620714
Background: Collagen XI is a fibril-forming collagen typically associated with type II collagen tissues but is also expressed in type I collagen-rich tendons, especially during development. We previously showed that...
3.
Dyment N, Kamalitdinov T, Kuntz A
J Am Acad Orthop Surg
. 2024 Nov;
32(23):1074-1086.
PMID: 39589737
The work in this article summarizes findings from our group on key biochemical cues that govern the formation and repair of tendons and ligaments. Specifically, we summarize the journey that...
4.
Chandrasekaran P, Alanazi A, Kwok B, Li Q, Viraraghavan G, Balasubramanian S, et al.
Acta Biomater
. 2024 Oct;
189:192-207.
PMID: 39362448
Understanding matrix molecular activities that regulate the postnatal growth and remodeling of the temporomandibular joint (TMJ) articular disc and condylar cartilage will enable the development of effective regenerative strategies targeting...
5.
Leahy T, Chenna S, Soslowsky L, Dyment N
FASEB J
. 2024 Sep;
38(17):e70050.
PMID: 39259535
Tendons enable locomotion by transmitting high tensile mechanical forces between muscle and bone via their dense extracellular matrix (ECM). The application of extrinsic mechanical stimuli via muscle contraction is necessary...
6.
Koo B, Lee Y, Park N, Heo S, Hudson D, Fernandes A, et al.
Sci Rep
. 2024 Apr;
14(1):9495.
PMID: 38664570
The biological mechanisms regulating tenocyte differentiation and morphological maturation have not been well-established, partly due to the lack of reliable in vitro systems that produce highly aligned collagenous tissues. In...
7.
Peredo A, Tsinman T, Bonnevie E, Jiang X, Smith H, Gullbrand S, et al.
JOR Spine
. 2024 Jan;
7(1):e1313.
PMID: 38283179
Introduction: Therapeutic interventions for intervertebral disc herniation remain scarce due to the inability of endogenous annulus fibrosus (AF) cells to respond to injury and drive tissue regeneration. Unlike other orthopedic...
8.
Collins J, Lang A, Parisi C, Moharrer Y, Nijsure M, Thomas Kim J, et al.
Dev Cell
. 2023 Dec;
59(2):211-227.e5.
PMID: 38141609
Fetal bone development occurs through the conversion of avascular cartilage to vascularized bone at the growth plate. This requires coordinated mobilization of osteoblast precursors with blood vessels. In adult bone,...
9.
Fogarty N, Johnson T, Kwok B, Lin A, Tsinman T, Jiang X, et al.
J Orthop Res
. 2023 Oct;
42(4):894-904.
PMID: 37804210
The early postnatal period represents a critical window for the maturation and development of orthopedic tissues, including those within the knee joint. To understand how mechanical loading impacts the maturational...
10.
Dyment N, Kuntz A, Soslowsky L
J Orthop Res
. 2023 Sep;
41(10):2081.
PMID: 37723919
No abstract available.