Nat Phys February 2023 PMID 37205127

Freezing-induced wetting transitions on superhydrophobic surfaces.

Henry Lambley, Gustav Graeber, Raphael Vogt, Leon C Gaugler, Enea Baumann, Thomas M Schutzius, Dimos Poulikakos

Mentions

7
Peak: 3 in Feb 2023
across 3 sources since Feb 2023

Extended reach

336,658
potential audience

Total likes

18

Video views

333

Mentions per month

Feb 2023 – May 2023

Where it's discussed

  • X / Twitter3 posts
  • YouTube2 videos
  • News2 articles

AI synopsis

What people are saying

Discussions reflect a positive outlook, emphasizing the promising nature of the research with phrases like 'advances our understanding' and 'potential to revolutionize.' Posts showing deeper engagement discuss the mechanisms of freezing and vaporization effects, illustrating users' recognition of the work's technical depth and possible real-world impact.

AgreementModerate agreement

Most discussions recognize the significance of the research in advancing surface engineering, with some outright praising its potential applications.

InterestModerate interest

Posts indicate a moderate level of curiosity, as many mention the innovative aspects but do not delve deeply into technical details.

EngagementHigh engagement

Several posts actively analyze the mechanisms described and contemplate future implications, showing meaningful engagement.

ImpactModerate impact

Users generally believe this study could influence practical applications, such as preventing icing or improving material design.

Abstract in brief

  • This study explores how supercooled water droplets freeze on specially designed textured surfaces and how this affects their ability to repel ice, which is important for preventing icing in natural and industrial settings.
  • The research identifies key surface properties that promote the natural shedding of ice during freezing and explains two main ways that this ice-repelling ability can fail due to the mechanical effects of rapid freezing and vaporization.
  • By analyzing these mechanisms, the study provides a framework for designing more effective icephobic surfaces that can prevent ice buildup under different conditions, such as varying pressures and temperatures.]

Top posts

Most liked on X and Bluesky
Nature Physics
@NaturePhysics · X

Freezing-induced wetting transitions on superhydrophobic surfaces https://t.co/1OmTKTTsnO

Feb 9, 2023 · 12 likes · 2 shares · 336,060 followers View post →
Dr. Yoel Ohayon
@YOLO4CHEM · X

Freezing-induced wetting transitions on superhydrophobic surfaces https://t.co/CiyfERqgHv https://t.co/llH4u4Bubk

Feb 19, 2023 · 239 followers View post →

All mentions

Dr. Yoel Ohayon
@YOLO4CHEM · X

Freezing-induced wetting transitions on superhydrophobic surfaces https://t.co/CiyfERqgHv https://t.co/llH4u4Bubk

Feb 19, 2023 · 239 followers View post →
Anonymous Deity.
@sesa21_t · X

RT @NaturePhysics: Freezing-induced wetting transitions on superhydrophobic surfaces https://t.co/1OmTKTTsnO

Feb 9, 2023 · 2 shares · 19 followers View post →
Nature Physics
@NaturePhysics · X

Freezing-induced wetting transitions on superhydrophobic surfaces https://t.co/1OmTKTTsnO

Feb 9, 2023 · 12 likes · 2 shares · 336,060 followers View post →