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Can We Fix Ovarian Aging? Here Is One Startup Up For The Task!

The field of female reproductive longevity and inequality is getting more and more attention. In fact, it is one of the hottest areas of the emerging longevity biotechnology industry, and every venture firm in the field is either investing, incubating, or looking for projects in this area. Companies like BOLD Capital, Future Ventures, LongeVC, and iconic biotechnology investors including Bob Nelsen and Christian Angermayer, are all active and significant partners in this area of science. While females generally live longer than men, their reproductive period is limited—something that is often overlooked. A female’s peak reproductive years are between the late teens and late 20s. Fertility starts to decline by age 30, and this decline becomes more rapid once women reach the mid-30s. By 45, fertility declines so much that getting pregnant naturally is unlikely for most women. Likewise, women begin life with a fixed number of eggs in their ovaries, usually around one million. This number decreases as women age. Ovaries age faster than the rest of a woman’s body—an understudied phenomenon of a neglected organ. None of us would be here without them. Yet surprisingly little is known about the avocado-shaped organ that’s nestled inside half of all humans.

The ovaries also influence a woman’s overall health and well-being. This includes how they age, since this organ tends to lose its function with age faster than any other tissue. This is called asynchronous aging, and it’s one reason why a woman’s fertility declines, and menopause strikes, while they are still relatively young.

In one of my previous articles, I wrote about Gameto, a biotechnology company that is translating the impact of ovarian aging to develop solutions to improve fertility and stop the impact of menopause on female health. Gameto’s co-founder and CEO Dina Radenkovic told me about her intention to redefine the narrative around female reproductive longevity and making it more around health and longevity. Gameto is building a platform for ovarian therapeutics to address menopause and improve assisted fertility. Dina told me she hopes it will make women suffer fewer health problems in their later lives. Neglecting the ovaries—except for their crucial role in IVF treatments—has been part of a general disregard for many aspects of women’s health in the biomedical world.

Scientific breakthrough cures memory loss in mice

Researchers at Stanford University are reversing symptoms of Alzheimer’s in mice using a strange tactic — they’re infusing elderly mice with spinal fluid from younger ones.


Many medical breakthroughs that benefit humans are discovered by conducting trials on mice.

Though we look nothing alike, almost all the genes found in mice have similar functions to genes in humans. We get diseases for the same reasons, meaning scientists can study illnesses closely in mice to understand how they manifest in us.

One disease that has evaded scientists for decades is Alzheimer’s. Its commonality increases with age, affecting 1 in 14 people over the age of 65. But early onset Alzheimer’s is prevalent too and 1 in 20 people with the disease are below the age of 65.

Progress, Potential, And Possibilities has had another busy month!

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Quantifying Biological Age: Blood Test #3 in 2022

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Levine’s Biological age calculator is embedded as an Excel file in this link from my website:

Quantifying Biological Age

An epigenetic biomarker of aging for lifespan and healthspan.
https://pubmed.ncbi.nlm.nih.gov/29676998/

Underlying features of epigenetic aging clocks in vivo and in vitro.
https://pubmed.ncbi.nlm.nih.gov/32930491/

Population Specific Biomarkers of Human Aging: A Big Data Study Using South Korean, Canadian, and Eastern European Patient Populations.
https://pubmed.ncbi.nlm.nih.gov/29340580/

UMN research shows people can control robotic arm with their minds

Researchers at the University of Minnesota have made a major breakthrough that allows people to control a robotic arm using only their minds. The research has the potential to help millions of people who are paralyzed or have neurodegenerative diseases.

The study is published online today in Scientific Reports, a Nature research journal.

To read the full research paper, entitled “Noninvasive Electroencephalogram Based Control of a Robotic Arm for Reach and Grasp Tasks,” visit the Nature Scientific Reports website.


Groundbreaking study demonstrates potential to help millions of people with disabilities.

Single Cell Analysis Technologies Help Generate Unprecedented Maps of Disease

Astronomy was born when early scientists peered into the sky with their naked eyes and recorded what they could see above them. Then, the invention of the telescope brought forth new insights. And today, astronomers conduct their studies from big observatories and launch sophisticated telescopes into space for a much more in-depth look.

Now, a similar evolution is occurring in biology as scientists develop new techniques for taking a closer look at cells—the basic living units of organs. The origins of cell biology date back to 1,665 when Robert Hooke was the first to look at a cell under a simple compound microscope. But while the development of more powerful microscopes such as the scanning electron microscope has allowed scientists to take a peek at molecules smaller than a billionth of a meter, until recently they have never had the ability to look at the molecular profile of a single cell.


Yale researchers across disciplines are using single cell technologies to profile various kinds of cells that exist together in both healthy and diseased organs and create the most detailed blueprints of diseases to date, as well as to better understand how various cells develop over time and interact with one another. Through creating these “cell atlases” of organs throughout the body, they hope to shed light on the mechanisms of a wide variety of diseases and biological development.

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