Sci Transl Med November 2018 PMID 30463917

Long-term mechanical function and integration of an implanted tissue-engineered intervertebral disc.

Sarah E Gullbrand, Beth G Ashinsky, Edward D Bonnevie, Dong Hwa Kim, Julie B Engiles, Lachlan J Smith, Dawn M Elliott, Thomas P Schaer, Harvey E Smith, Robert L Mauck

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Mentions

Peak: 3 in Jan 2019

across 5 sources since Nov 2018

Extended reach

41,423

potential audience

Total likes

613

Video views

40,206

Mentions per month

Nov 2018 – Dec 2020

Where it's discussed

News47 articles
X / Twitter5 posts
Facebook4 posts
Blogs4 articles
YouTube1 videos

AI synopsis

What people are saying

The collective discussions demonstrate strong enthusiasm for the advancements in tissue engineering, with comments like 'This is amazing' and 'mimic the real thing,' which reflect excitement and belief in the significance of the research. While some posts simply share videos or cite the publication, the use of enthusiastic language indicates high perceived impact and interest.

AgreementStrong agreement

Most discussions express enthusiasm and positive support for the significance of the research, indicating strong agreement with its potential benefits.

InterestHigh interest

The high interest is shown by repeated mentions of videos showcasing tissue-engineered discs and notes of excitement about their capabilities.

EngagementModerate engagement

Posts either share visual content or highlight specific aspects like stem cell components, which shows a decent level of engagement, but limited in-depth discussion.

ImpactHigh impact

The tone suggests that users believe this research could have substantial implications in spinal treatment, considering terms like 'amazing' and 'brilliant'.

Abstract in brief

This study explores a promising tissue-engineered disc replacement called eDAPS, which aims to treat severe intervertebral disc degeneration.
In experiments with rats and goats, the eDAPS successfully integrated into the spine, maintained their structure, and developed mechanical properties similar to natural discs over time.
These findings suggest that tissue-engineered disc replacements could potentially be a viable option for human spinal disc treatments in the future.

Read the full abstract

All mentions

Tissue-Engineered Spinal Discs Mimic Natural Disc Function

Goats and rats respond well to implants. Lab-grown tissue may someday replace discs in people. Learn more at httpswwwsciencemagorgnews201811watchthesetissueengineeredspinaldisksmimicrealthing.

Science Magazine · Nov 21, 2018 40,206 views

John Medina

@jlo_medina · X

This is amazing .Watch these tissue engineered spinal discs mimic the real thing https://t.co/cI2WMDyjvl via @YouTube

Dec 30, 2020 · 458 followers View post →

Exploring Chiro

@exploringchiro · X

Watch these tissue engineered spinal discs mimic the real thing https://t.co/JNJh3MnRgK

Feb 5, 2019 · 509 followers View post →

AlexanderTkachev

@AlexanderTkac11 · X

RT @DrDrJTMaynes: Bioengineered intervertebral discs, with mesenchymal stem cell components. Brilliant combination to induce local tissue r…

Jan 18, 2019 · 1 share · 81 followers View post →

Orca Biotech

@OrcaBiotech · X

Long-term mechanical function and integration of an implanted tissue-engineered intervertebral disc: https://t.co/0NnHzjzlLV via @sciencemagazine

Jan 5, 2019 · 19 followers View post →

Russell Anderson

@oneshot_me · X

I liked a @YouTube video https://t.co/Pu8l4rlc9Z Watch these tissue engineered spinal discs mimic the real thing

Jan 4, 2019 · 148 followers View post →