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Liz Parrish

Liz Parrish

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BioViva founder; posts gene therapy and regenerative medicine topics.

IVNS1ABP Mutation Triggers Premature Aging and Neurodegeneration
Social•Apr 1, 2026

IVNS1ABP Mutation Triggers Premature Aging and Neurodegeneration

A mutation in the IVNS1ABP gene causes a new disease combining premature aging and severe neurological decline by disrupting cell scaffolding, leading to DNA damage and “zombie-like” senescent cells. https://t.co/xtDrjy72h4

By Liz Parrish
Stroke Triggers Youthful Rewiring in Healthy Brain Regions
Social•Mar 31, 2026

Stroke Triggers Youthful Rewiring in Healthy Brain Regions

Study finds stroke can make undamaged parts of the brain appear younger as it rewires to aid recovery https://t.co/r39ZMz5AGU

By Liz Parrish
Gut Microbes May Shape Age‑Related Memory Loss
Social•Mar 31, 2026

Gut Microbes May Shape Age‑Related Memory Loss

Memory loss with age varies widely and may be influenced not just by the brain but by gut microbes and body–brain signaling pathways that scientists are still working to understand and potentially treat. https://t.co/ybi9Kp1E90

By Liz Parrish
Aging Silences Brown Fat's Heat Genes via Epigenetics
Social•Mar 27, 2026

Aging Silences Brown Fat's Heat Genes via Epigenetics

Brown fat loses its heat-producing function with age due to epigenetic changes that reduce activity of key genes like PGC1A, with specific enhancers playing a critical role in maintaining this function. https://t.co/Dnnawd5r41

By Liz Parrish
SREBP‑2 Links Stress to Cell Death via IRAK1
Social•Mar 27, 2026

SREBP‑2 Links Stress to Cell Death via IRAK1

Researchers found that the cholesterol-related protein SREBP-2 can trigger apoptosis under stress by interacting with IRAK1, revealing a new mechanism for how cells self-destruct. This suggests that beyond telomeres, which signal aging through gradual shortening, cells can also initiate death...

By Liz Parrish
Regeneration, Not Just Slowing, Could Reverse Aging
Social•Mar 26, 2026

Regeneration, Not Just Slowing, Could Reverse Aging

New Paper - Evidence suggests regeneration may be a natural and achievable biological process worth prioritizing over merely slowing aging—ideally beginning in midlife (around 40–60) to postpone decline, with the potential to reverse aging later in older individuals. Insights from...

By Liz Parrish
Fish Behavior Predicts Lifespan and Aging, Study Shows
Social•Mar 23, 2026

Fish Behavior Predicts Lifespan and Aging, Study Shows

A study from Stanford University found that daily behavior patterns—like activity and sleep—can help predict lifespan and track aging in fish. 🧠🐟 Not humans... https://t.co/J89e7AcD7e

By Liz Parrish
Short Telomeres Reveal Accelerated Kidney Aging, Predict CKD
Social•Mar 21, 2026

Short Telomeres Reveal Accelerated Kidney Aging, Predict CKD

Researchers found that shorter telomeres and DNA changes in kidney cells may signal faster biological aging of the kidneys and help predict risk for Chronic Kidney Disease earlier than current methods. 🧬 https://t.co/JKRM7xhOnh

By Liz Parrish
FGF21 Activates SLCO4C1 to Curb Liver Fat
Social•Mar 20, 2026

FGF21 Activates SLCO4C1 to Curb Liver Fat

FGF21 turns on SLCO4C1, which boosts cAMP signaling and helps prevent fat buildup and inflammation in the liver. https://t.co/fi6RffZKVq

By Liz Parrish
One Short Telomere Triggers Senescence and Instability
Social•Mar 17, 2026

One Short Telomere Triggers Senescence and Instability

Researchers using Saccharomyces cerevisiae showed that replicative senescence is triggered when a single shortest telomere falls below a critical length, which both initiates senescence and promotes genomic instability that can transiently enable cells to escape it. 🧬 https://t.co/TOUeXB4L3v

By Liz Parrish
Broken Chromosomes Repaired with Fragments Spark Cancer‑driving Mutations
Social•Mar 16, 2026

Broken Chromosomes Repaired with Fragments Spark Cancer‑driving Mutations

Researchers at Cardiff University found that severe DNA mutations called chromoanasynthesis happen when broken chromosomes are repaired using small DNA fragments, causing chaotic duplications that can drive cancer and genetic diseases. 🧬https://t.co/Q9j2hRezTs

By Liz Parrish
Methionine Restriction Cuts Alzheimer Pathology via FGF21 Signaling
Social•Mar 16, 2026

Methionine Restriction Cuts Alzheimer Pathology via FGF21 Signaling

A study in Alzheimer's & Dementia found that late-life methionine restriction reduces Alzheimer’s pathology and neuroinflammation in mice by activating the liver–brain FGF21–FGFR1 signaling pathway, independent of metabolic improvements. 🧠 https://t.co/A9kEqNv8pO

By Liz Parrish