Am J Physiol Heart Circ Physiol April 2006 PMID 16299259

Stem cell mobilization by hyperbaric oxygen.

Stephen R Thom, Veena M Bhopale, Omaida C Velazquez, Lee J Goldstein, Lynne H Thom, Donald G Buerk

Mentions

17
Peak: 2 in Jan 2023
across 3 sources since Nov 2019

Extended reach

45,063
potential audience

Total likes

849

Video views

40,461

Mentions per month

Nov 2019 – Nov 2024

Where it's discussed

  • Facebook11 posts
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  • YouTube2 videos

AI synopsis

What people are saying

The group demonstrates enthusiasm and curiosity about the research, with comments such as 'Not sci-fi. Just pressure + oxygen' and references to specific study parameters, indicating a keen interest in the mechanism and potential applications. They consider the findings both scientifically plausible and impactful, emphasizing the potential for regenerative therapies.

AgreementModerate agreement

Most discussions acknowledge the validity of the research, citing its mechanisms or clinical relevance without opposition.

InterestHigh interest

Participants show high curiosity, especially with comments like 'Science is wild' and references to potential applications.

EngagementModerate engagement

The discussions include references to specific studies, mechanisms, and experimental conditions, indicating active interest.

ImpactModerate impact

The discussions highlight the potential significance of hyperbaric oxygen in regenerative medicine and stem cell mobilization, hinting at meaningful future implications.

Abstract in brief

  • The study suggests that hyperbaric oxygen (HBO2) exposure can mobilize stem and progenitor cells from the bone marrow into the bloodstream, mainly through a mechanism that depends on nitric oxide (NO).
  • A single HBO2 session significantly increased the number of CD34+ stem cells and colony-forming cells (CFCs) in circulation, with elevated levels of related growth factors, and this effect was linked to increased NO production in the bone marrow.
  • The mobilization process relies on NO synthesis, as it was absent in NO synthase knockout mice and prevented by NO synthase inhibitors, indicating that NO plays a crucial role in the HBO2-induced release of stem cells.]

Top posts

Most liked on X and Bluesky
英雄联盟 MG真人 雷泽体育 欧博体育 六合彩 打鱼 角球 足球投注 长城体育
@DrSandeepGupta · X

Hyperbaric oxygen may assist stem cell regeneration via a nitric oxide-mediated mechanism. https://t.co/WZBAK3svKV

Jan 30, 2023 · 1 like · 1,154 followers View post →
WishUponAStar
@WishAponAStar · X

Stem cell mobilization by hyperbaric oxygen | American Journal of Physiology-Heart and Circulatory Physiology https://t.co/w1n1RsN4PN

Feb 13, 2022 · 1 like · 1,099 followers View post →
Jerod
@blacksectional · X

https://t.co/3ZXhDLQ5Q1 The optimal outcome in the mice was 2h at 2.8 atmospheres (roughly 66 ft deep in water) separated by 24 hours.

Oct 11, 2020 · 2,333 followers View post →
HyperbaricHQ
@HyperbaricHQ · X

- 800% more stem cell production Not sci-fi. Just pressure + oxygen. Science is wild. Studies: https://t.co/3hqdO7qzgg https://t.co/ZcK665TFGb https://t.co/GkFi3PoztB

Nov 8, 2024 · 16 followers View post →

All mentions

HyperbaricHQ
@HyperbaricHQ · X

- 800% more stem cell production Not sci-fi. Just pressure + oxygen. Science is wild. Studies: https://t.co/3hqdO7qzgg https://t.co/ZcK665TFGb https://t.co/GkFi3PoztB

Nov 8, 2024 · 16 followers View post →
英雄联盟 MG真人 雷泽体育 欧博体育 六合彩 打鱼 角球 足球投注 长城体育
@DrSandeepGupta · X

Hyperbaric oxygen may assist stem cell regeneration via a nitric oxide-mediated mechanism. https://t.co/WZBAK3svKV

Jan 30, 2023 · 1 like · 1,154 followers View post →
WishUponAStar
@WishAponAStar · X

Stem cell mobilization by hyperbaric oxygen | American Journal of Physiology-Heart and Circulatory Physiology https://t.co/w1n1RsN4PN

Feb 13, 2022 · 1 like · 1,099 followers View post →
Jerod
@blacksectional · X

https://t.co/3ZXhDLQ5Q1 The optimal outcome in the mice was 2h at 2.8 atmospheres (roughly 66 ft deep in water) separated by 24 hours.

Oct 11, 2020 · 2,333 followers View post →