Breakthroughs in biological aging research could make humans live up to 150 years, according to geneticist Steve Horvath. The development of precise "aging clocks" has transformed the field of longevity research, allowing scientists to test whether treatments can slow or reverse the aging process rather than just treating diseases.
Horvath's pioneering work in epigenetic aging clocks has enabled researchers to measure biological age with unprecedented accuracy. This breakthrough has given rise to new technologies that can track the aging process and identify potential interventions for rejuvenation. Horvath considers this technology to be a quintessential tool for finding therapies that could actually reverse aging, rather than just slowing its damage.
While Horvath expresses confidence in reaching 150 years of human lifespan, he is skeptical about achieving immortality. He believes that extreme lifespan extension is "science fiction" and thinks that sustained biomedical innovation over decades could lead to significant gains in human longevity, but not to fantastical extremes.
For Horvath, the potential for major breakthroughs in longevity research is exciting, with the possibility of extending human lifespan by 100 years or more. He envisions a future where advancements in biomedical science can radically reshape how long people live, assuming humanity avoids catastrophic events such as nuclear war and pandemics.
The development of these advanced aging clocks has opened up new avenues for research into age-related diseases and the potential for therapeutic interventions. As Horvath notes, if we could harness the power of 100 more years of biomedical innovation, it would have a profound impact on human health. With sustained progress in this field, humanity may one day find ways to extend its lifespan drastically, leading to a future where people can live longer, healthier lives.
Horvath's pioneering work in epigenetic aging clocks has enabled researchers to measure biological age with unprecedented accuracy. This breakthrough has given rise to new technologies that can track the aging process and identify potential interventions for rejuvenation. Horvath considers this technology to be a quintessential tool for finding therapies that could actually reverse aging, rather than just slowing its damage.
While Horvath expresses confidence in reaching 150 years of human lifespan, he is skeptical about achieving immortality. He believes that extreme lifespan extension is "science fiction" and thinks that sustained biomedical innovation over decades could lead to significant gains in human longevity, but not to fantastical extremes.
For Horvath, the potential for major breakthroughs in longevity research is exciting, with the possibility of extending human lifespan by 100 years or more. He envisions a future where advancements in biomedical science can radically reshape how long people live, assuming humanity avoids catastrophic events such as nuclear war and pandemics.
The development of these advanced aging clocks has opened up new avenues for research into age-related diseases and the potential for therapeutic interventions. As Horvath notes, if we could harness the power of 100 more years of biomedical innovation, it would have a profound impact on human health. With sustained progress in this field, humanity may one day find ways to extend its lifespan drastically, leading to a future where people can live longer, healthier lives.