J Anat December 2012 PMID 22582887

A description of the lumbar interfascial triangle and its relation with the lateral raphe: anatomical constituents of load transfer through the lateral margin of the thoracolumbar fascia.

M D Schuenke, A Vleeming, T Van Hoof, F H Willard

Full text PDF Download social card

Mentions

Peak: 2 in Dec 2022

across 3 sources since Dec 2022

Extended reach

2,284

potential audience

Total likes

Video views

1,082

Mentions per month

Dec 2022 – Aug 2024

Where it's discussed

Facebook5 posts
YouTube3 videos
X / Twitter2 posts

AI synopsis

What people are saying

The collective responses highlight the significance of understanding connective tissue anatomy, with many discussions emphasizing the role of the fascial relationships in load transfer and stabilizing mechanisms. Phrases like 'crucial for biomechanics' and 'important for injury rehab' reflect both interest and perceived importance, while the tone suggests a curiosity-driven and engaged community eager to explore these anatomical insights further.

AgreementModerate agreement

Most discussions acknowledge the importance of the anatomical details and biomechanics described in the publication, showing general support.

InterestHigh interest

Participants demonstrate high curiosity and enthusiasm, often highlighting the relevance to clinical practice and anatomy.

EngagementModerate engagement

Several responses delve into anatomical explanations and propose questions, indicating active engagement and thoughtful analysis.

ImpactModerate impact

The discussions suggest modest recognition of the study's influence on understanding lower back stability and potential implications for treatments.

Abstract in brief

The study focuses on understanding the anatomy of the lumbar interfascial triangle and its connection to the lateral raphe, highlighting their roles in load transfer and stability in the lower back through the thoracolumbar fascia (TLF).
Researchers used dissections, MRI, and axial sections to explore how the paraspinal muscles are encased by a continuous retinacular sheath (PRS), which originates from the deep layer of the posterior TLF and extends across the spine.
The findings show that as the TLF's aponeurosis approaches the PRS, it splits into two layers that connect to the anterior and posterior regions, revealing intricate fascial relationships crucial for biomechanical stability and injury rehab of the lower back and pelvis.

Read the full abstract