ACS Appl Mater Interfaces January 2024 PMID 38175621

Piezoelectrically and Topographically Engineered Scaffolds for Accelerating Bone Regeneration.

Soyun Joo, Yonghyun Gwon, Soyeon Kim, Sunho Park, Jangho Kim, Seungbum Hong

Mentions

25
Peak: 3 in Feb 2024
across 4 sources since Jan 2024

Extended reach

3,743
potential audience

Total likes

31

Video views

1,448

Mentions per month

Jan 2024 – Feb 2024

Where it's discussed

  • News18 articles
  • X / Twitter3 posts
  • YouTube2 videos
  • Blogs2 articles

AI synopsis

What people are saying

The discussion mainly consists of congratulatory messages and mentions of the research's innovative approach to bone healing, highlighting the importance of piezoelectric scaffolds. The tone's mix of admiration and curiosity demonstrates a modest but genuine interest, with some recognition of the scientific significance and potential for biomedical advances.

AgreementModerate agreement

The discussion shows general support and positive acknowledgment of the publication, as evidenced by congratulatory messages and recognition of the research's significance.

InterestModerate interest

Participants express moderate interest, with some excitement about the publication and its implications but limited detailed analysis or critique.

EngagementModerate engagement

Comments reflect a respectful level of engagement, including recognition of the authors' achievements and references to the underlying science, indicating active but not deep involvement.

ImpactModerate impact

The collective tone suggests that the publication is seen as a meaningful contribution to regenerative medicine with potential practical applications rather than an abstract academic novelty.

Abstract in brief

  • The study introduces a new scaffold for bone regeneration that combines piezoelectric properties, topographical features, and biocompatibility by integrating hydroxyapatite (HAp) into a piezoelectric polymer, aiming to mimic the natural environment of bone.
  • These scaffolds can generate electrical stimuli in response to mechanical forces, which, along with their physical surface structures and biological signals, significantly enhance the process of bone healing.
  • The research identifies three main mechanisms—electrical, topographical, and paracrine signaling—that work together to accelerate bone regeneration, offering promising applications in regenerative medicine.]

Top posts

Most liked on X and Bluesky
Joël Bomane
@JoelBomane · X

@kuriharan @IntEngineering https://t.co/huO8tpZ2IO

Feb 6, 2024 · 2,286 followers View post →
M3I3
@M3I32 · X

Congratulations, Soyun and Soyeon! Our ferroelectric bone bandage paper has been published in ACS Applied Materials and Interfaces (in collaboration with Prof. Jangho Kim at JNU). https://t.co/NGrDIf0peH

Jan 10, 2024 · 5 followers View post →

All mentions

Joël Bomane
@JoelBomane · X

@kuriharan @IntEngineering https://t.co/huO8tpZ2IO

Feb 6, 2024 · 2,286 followers View post →
M3I3
@M3I32 · X

Congratulations, Soyun and Soyeon! Our ferroelectric bone bandage paper has been published in ACS Applied Materials and Interfaces (in collaboration with Prof. Jangho Kim at JNU). https://t.co/NGrDIf0peH

Jan 10, 2024 · 5 followers View post →
M3I3
@M3I32 · X

Piezoelectrically and Topographically Engineered Scaffolds for Accelerating Bone Regeneration | ACS Applied Materials & Interfaces https://t.co/NGrDIeZRp9

Jan 10, 2024 · 5 followers View post →