Synopsis of Social media discussions

The discussions highlight the innovative nature of the bioprinting system, with phrases like 'huge step forward' and mentions of creating 'human-scale tissue constructs,' reflecting excitement and acknowledgment of its potential impact. Words like 'breakthrough' and references to clinical relevance emphasize the importance perceived, while questions about future applications show active engagement.

A
Agreement
Moderate agreement

Most discussions recognize the significance and potential of the bioprinting technology mentioned in the publication, with some expressing awe at its capabilities.

I
Interest
Moderate level of interest

Posts show curiosity about the progress and potential applications, indicating moderate interest, especially in future medical uses.

E
Engagement
Moderate level of engagement

Participants reference specific aspects like microchannels, tissue types, and future development goals, suggesting active engagement.

I
Impact
High level of impact

The tone indicates that many believe this system could considerably advance regenerative medicine and tissue engineering, making the publication highly impactful.

Social Mentions

YouTube

2 Videos

Bluesky

1 Posts

Facebook

46 Posts

Twitter

5 Posts

Blogs

26 Articles

News

154 Articles

Reddit

3 Posts

Metrics

Video Views

17,750

Total Likes

312

Extended Reach

24,856

Social Features

237

Timeline: Posts about article

Top Social Media Posts

Posts referencing the article

Advances in 3D Bioprinting for Tissue and Organ Engineering

Advances in 3D Bioprinting for Tissue and Organ Engineering

3D printing tissue and organs is a promising field that aims to replace failing organs, potentially revolutionizing medicine. This video explores the bioprinting process, bioink development, and the challenges of capillary formation in creating functional tissues.

February 12, 2019

17,732 views


Understanding Bioprinting and Its Impact on Cardiac Tissue Engineering

Understanding Bioprinting and Its Impact on Cardiac Tissue Engineering

Want to understand the value of bioprinters? This video explores how 3D bioprinting techniques enable the fabrication of collagen scaffolds that replicate human heart structures, enhancing features like microvascularization and mechanical strength.

August 30, 2024

18 views


  • Piyush
    @drpiyushkr (Twitter)

    RT @NatureBiotech: A #3D #bioprinting system to produce human-scale tissue constructs with structural integrity https://t.co/IFy8Au7adN htt…
    view full post

    June 3, 2025

    283

  • Dr. Rajesh Kumar Meena
    @rajeshmeena38 (Twitter)

    RT @NatureBiotech: A #3D #bioprinting system to produce human-scale tissue constructs with structural integrity https://t.co/IFy8Au7adN htt…
    view full post

    September 26, 2024

    283

  • Saurabh Chakrabarty
    @Cha45564Saurabh (Twitter)

    RT @NatureBiotech: A #3D #bioprinting system to produce human-scale tissue constructs with structural integrity https://t.co/IFy8Au7adN htt…
    view full post

    September 17, 2024

    283

  • gcellcultivo3D
    @gcellcultivo3d (Twitter)

    Did you know that it is now possible to bioprintinh tissue-constructs on a human scale? Reference: https://t.co/BsA0AYQubY Follow us on social media to stay on top of the top news about 3D culture #3d #science #tissueengineering #innovation #bone #regeneration https://t.co/3TWINMpR0M
    view full post

    December 17, 2021

  • EWH UCD
    @EwhUcd (Twitter)

    Sources: Kang, H.-W., Lee, S.J., Ko, I.K., Kengla, C., Yoo, J.J. and Atala, A. (2016). A 3D bioprinting system to produce human-scale tissue constructs with structural integrity. Nature Biotechnology, [online] 34(3), pp.312–319. Available at: https://t.co/t8o9ypkj7u 4/5
    view full post

    February 26, 2021

  • LRIG.org
    @lrig.org (Bluesky)

    A 3D #bioprinting system to produce human-scale tissue constructs with structural integrity
    view full post

    February 22, 2016

Abstract Synopsis

  • The ITOP is a 3D bioprinting system designed to create large, anatomically accurate tissue constructs with built-in microchannels for nutrient diffusion, addressing the challenge of producing stable, vascularized tissues of clinically relevant size.
  • It achieves structural stability by printing cell-laden hydrogels combined with biodegradable polymers and anchored on sacrificial hydrogels, allowing the formation of complex shapes based on medical imaging data.
  • The system has successfully printed various tissues like bone, cartilage, and muscle, with future goals to develop more complex tissues and organs suitable for human medical applications.]