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Clair shares her journey from a struggling student to a scientist specializing in longevity and the carnivore diet. She discusses her academic background, her research on Alzheimer's disease, and the importance of autophagy and mTOR in longevity. Clair also reflects on her transition from veganism to a carnivore diet, highlighting the significant improvements in her mental health and overall well-being. The discussion touches on the role of AI in biotech, the development of therapies for age-related diseases, and the impact of diet on female hormones. Clair emphasizes the importance of community and spirituality in enhancing mitochondrial health and concludes with a call to action for more people to adopt the carnivore lifestyle.
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Academic path
- Clair grew up in Canada, entered biology at McGill, and won a full Oxford scholarship to study stem cell biology.
- Clair wanted root-cause biology, so her PhD focused on stem cells that give rise to the human embryo.
- Clair then moved toward clinical use, including infertility models in a dish and later environmental triggers for Alzheimer's disease.
- In infertility work, mTOR, nutrient sensing, autophagy, and DNA remodeling mattered for making sperm and egg in a dish.
- In Alzheimer's work, rats received common pesticides and developed Alzheimer's- or Parkinson's-like disease patterns, with vitamin D and the epigenome in view.
Autophagy, mTOR, and aging biology
- Autophagy is cellular recycling: old proteins, fats, amino acids, mitochondria, and other damaged material can be broken down and reused.
- Autophagy works better in youth, declines with age, and can be adjusted by diet and lifestyle.
- High insulin lowers autophagy; low insulin during carnivore eating can allow more autophagy, while growth signals can still reduce it when needed.
- mTOR senses growth factors such as protein, supports building, and interacts with autophagy.
- AMPK, glucose pathways, mTOR, insulin, and autophagy sit at the center of longevity biology.
From vegan to carnivore
- Clair spent about ten years vegan because the culture, marketing, and university environments made veganism attractive and easy.
- Early benefits did not last; insomnia became the central problem, followed by depression, brain fog, and low energy.
- Psychiatry at Oxford helped, but it did not fix the underlying physical condition.
- Carnivore changed sleep first, moving Clair toward eight to ten hours and reducing anxiety, rumination, depression, and brain fog.
- Better sleep and clearer thinking helped Clair become more productive and learn coding and engineering during biotechnology layoffs.
Longevity work and therapies
- Longevity companies cannot make an FDA-approved drug for longevity itself, so they focus on diseases of aging.
- The current therapeutic strategy targets pathways such as autophagy for Alzheimer's disease, not isolated mutations.
- A secret drug program aims to enhance autophagy in the brain and pair it with keto metabolic therapy.
- Drugs are not Clair's preference for herself, but devastating disease can require intervention when lifestyle alone is too slow.
- Longevity work also targets inflammation, immune function in the body and brain, stem cells, and rejuvenation.
Female hormones and reproductive aging
- Female hormone effects from carnivore are not well defined, but ovarian aging uses mechanisms similar to wider body aging.
- Repair capacity, mTOR, and nutrient sensing matter for ovarian aging.
- Carnivore and ketogenic patients of Ken Berry and Robert Kiltz becoming pregnant later in life point toward reproductive healthspan as a practical target.
- Menopause came up as an evolutionary question, and diet change was linked in practice to fewer hot flushes, less irritability, and more calm.
Epigenome and rejuvenation
- Rejuvenation technology uses the epigenome: DNA organization changes with age, and environmental inputs can shape that organization.
- The genome accounts for about 20% of fate in Clair's explanation, while the environment works through the epigenome for much of the rest.
- The 2012 Nobel Prize discovery showed adult cells can be turned into stem cells, and partial use of those factors aims to make old cells younger without making embryos.
- David Sinclair's vision work and the related clinical direction make partial reprogramming relevant to blindness, hearing loss, arthritis, and other age-related problems.
Community, creativity, observed reality
- Community helped Clair survive depression during vegan years, and the mitochondrial connection remains speculative.
- Carnivore mental clarity helps Clair's creative work as a DJ and artist.
- Academic environments were mostly skeptical of carnivore, but improved productivity and health made the results visible.
- Colleagues who try carnivore often struggle when they eat too little fat, which can damage energy and hormones.
- Animal and insect data are not the same as human use, so clinical observation from doctors and health coaches matters.
- Real people improving kidney function, type 2 diabetes, blood pressure, and arthritis motivates work that helps now while therapies take years.
- Longevity therapy aims to improve standard care by reducing inflammation and increasing autophagy, and carnivore works through overlapping mechanisms.
References
- [00:23] Induction of Pluripotent Stem Cells from Mouse Embryonic and Adult Fibroblast Cultures by Defined Factors — https://doi.org/10.1016/j.cell.2006.07.024
- [00:23] In Vivo Amelioration of Age-Associated Hallmarks by Partial Reprogramming — https://doi.org/10.1016/j.cell.2016.11.052
- [00:24] Reprogramming to recover youthful epigenetic information and restore vision — https://doi.org/10.1038/s41586-020-2975-4
- [00:24] A Phase 1 Single Dose Study to Evaluate the Safety and Tolerability of ER-100 in Optic Neuropathies [Open Angle Glaucoma (OAG) and Non-arteritic Anterior Ischemic Optic Neuropathy (NAION)] — https://clinicaltrials.gov/study/NCT07290244
