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Prenetics’ IM8 and University of Oxford Begin Groundbreaking Space Experiment to Study Accelerated Aging and Longevity on the ISS with SpaceX, Supported by Space Applications Services

In This Article:

Prenetics Limited
Prenetics Limited
  • Mission Launched via SpaceX CRS-31; Experiment Now Underway on the ISS

  • Collaboration Aims to Enhance Healthspan on Earth and Improve Astronaut Health in Space

  • IM8, a new premium supplements brand launched officially on November 18th on IM8health.com

CHARLOTTE, N.C., Dec. 05, 2024 (GLOBE NEWSWIRE) -- Prenetics’ IM8 is excited to announce that its groundbreaking month-long space experiment, in partnership with the University of Oxford and supported by Space Applications Services and Metavisionaries, is now underway aboard the International Space Station (ISS). Launched via SpaceX CRS-31 on November 4th at 9:29 pm EST, the mission aims to study accelerated aging and longevity by leveraging microgravity's unique environment to accelerate aging processes at the cellular level.

Dr. Jim Green, former Chief Scientist of NASA and a key member of IM8’s Scientific Advisory Board said, "Space exploration has a remarkable history of leading to significant medical breakthroughs that benefit humanity. For example, research on bone density loss in astronauts has advanced our understanding and treatment of osteoporosis on Earth. Additionally, microgravity has facilitated the growth of high-quality protein crystals, aiding in the development of more effective drugs for conditions such as cancer and diabetes. By investigating accelerated aging in space, we have the potential to uncover new insights into cellular processes that could lead to groundbreaking interventions for age-related diseases."

Microgravity Provides Accelerated Aging Model for Groundbreaking Autophagy Research

Microgravity offers a unique opportunity to study aging processes more rapidly than on Earth. The absence of Earth's gravity affects human physiology in ways that mimic the aging process, including cell degeneration, oxidative stress, and DNA damage. This mission utilizes this phenomenon to investigate the cellular mechanisms behind aging and explore potential interventions.

The experiment focuses on autophagy, the process by which cells remove and recycle damaged components. Autophagy declines with age, contributing to cellular aging and associated health issues such as decreased immune function and chronic inflammation. By enhancing autophagy, it may be possible to mitigate these effects and improve overall healthspan.

Aims to Enhance Healthspan on Earth and Improve Astronaut Health in Space

The mission involves sending specially designed 3D organoids—miniature, simplified versions of human tissues—into space.

Dr. Ghada Alsaleh, Director of the Space Innovation Lab at the University of Oxford, highlighted the study's significance: “Microgravity might provide an accelerated aging model, allowing us to study cellular processes within a compressed timeframe. Our research aims to understand aging pathways in space to help us better moderate and manage aging processes on Earth, as well as explore whether enhancing autophagy can mitigate cellular aging. This work could have profound implications for improving healthspan on Earth and protecting astronaut health during space missions.”