NAD and Mitochondrial Capacity: Why More NAD Is Not Enough

Raising NAD+ may support cellular energy metabolism, but does more NAD+ actually mean better mitochondria? The answer depends on what happens beyond NAD+.

ROS Are Not the Enemy: How Cells Turn Stress Into Adaptation

Reactive oxygen species are usually portrayed as cellular enemies. In controlled amounts, however, they help cells respond to exercise, tissue injury, and mitochondrial stress. The real issue is when a useful signal becomes chronic noise.

Cardiolipin: The Mitochondrial Fat Almost Nobody Talks About

Cardiolipin is a specialized phospholipid found mainly in the inner mitochondrial membrane. Its unusual four-tailed structure helps support mitochondrial cristae and the proteins involved in ATP production. Here is why this little-known membrane lipid matters for mitochondrial organization, energy production, and renewal.

Cómo se influyen mutuamente el microbioma y las mitocondrias

La microbiota intestinal no solo favorece la digestión. Los metabolitos microbianos pueden influir en el uso de energía, la señalización y el control de calidad de las mitocondrias, mientras que estas, a su vez, contribuyen a configurar el entorno intestinal.

Las mitocondrias, el estrés oxidativo y la falta de uniformidad en el tono de la piel

La irregularidad del tono de la piel no es solo un problema superficial. En este artículo se explica cómo se relacionan entre sí el estrés oxidativo, las mitocondrias, la exposición a los rayos UV y el cuidado diario de la piel.

Mitochondria, Collagen, and Skin Structure: The Biology Beneath Firmness and Elasticity

Skin firmness is not only about collagen. This article explains how mitochondria, fibroblasts, oxidative stress, and hydration shape the biology beneath elasticity.

Heat, Cold, and Mitochondrial Hormesis: How Temperature Stress May Shape Cellular Resilience

Heat and cold can act as controlled stress signals for mitochondria. Learn how mitochondrial hormesis, thermogenesis, heat shock proteins, and recovery shape cellular resilience.

Mitochondrial Biogenesis and Mitophagy: Build More, Clear Better

Learn how mitochondrial biogenesis and mitophagy work together to build energy capacity, clear damaged mitochondria, and support long-term mitochondrial health.

Food, Fasting, and Mitochondria: How Nutrient Timing Shapes Cellular Energy

Food and fasting both send important signals to your mitochondria. Learn how the body shifts between using incoming nutrients after meals and stored fuels during fasting, and why metabolic flexibility matters more than extreme restriction.

How Cells Share Mitochondria to Protect Nerves

A 2026 Nature study reveals that satellite glial cells can transfer mitochondria to sensory neurons, helping protect nerve function in models of peripheral neuropathy. Here is what the research means, and what it does not mean yet.

Mitochondria and Mitophagy: The Science of Cellular Recycling

Learn how mitochondrial biogenesis and mitophagy work together to support cellular energy, quality control, recovery, and long-term mitochondrial health.

Why Does Energy Drop as We Get Older? What Changes at the Cellular Level

By age 80, the average person’s mitochondrial energy output drops by 50% while, at the same time, cellular damage skyrockets. This isn't because we are just "getting older," it’s a biological shift in your cellular power plants. We dive into the landmark research on mitochondrial mass and explore how targeted interventions like Mitozz are helping to shift the curve of aging to restore youthful energy at the source.

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