In this article, we’re going to introduce an indirect way of supporting NAD+. Rather than making more, this article will be teaching you about using less. Using less requires downregulating a protein called cluster of differentiation 38 (CD38 for short). When CD38 is not as active, less NAD+ is used by it. The result is higher NAD+ levels and greater NAD+ availability for important healthy aging uses.
On the Collective Insights podcast, Dr. Aubrey de Grey, Dr. Dan Pardi, Daniel Schmachtenberger, and Dr. Dan Stickler share their insights on the difference between beneficial and damaging stress. We answer "What is hormesis?" and "How can we effectively manage stress?" Read on to understand how certain kinds of stress actually benefit the body, and which ones to avoid.
As Neurohackers, longevity, in relation to both lifespan and healthspan, is a topic of great interest to us. Scientific understanding in these areas is advancing rapidly as are studies linking algae to longevity.
Most organisms have several alternatives for producing the NAD+ molecule. In humans, there are three major NAD+ biosynthesis pathways: the De Novo Pathway, starting from the essential amino acid L-tryptophan; the Preiss-Handler pathway, using niacin (nicotinic acid); and the Salvage Pathway from niacinamide (nicotinamide). In this article, we’ll be covering the De Novo Pathway.
We all age. But, we don’t all age at the same rate. From a bottom-up point of view, we are a complex colony of tens of trillions of individual cells. We care about what healthier cells allows the body to do better. Qualia Life is our solution to cell support for better aging.
In this article, we’re going to learn about mitohormesis, the activity of reactive oxygen species (ROS) as signaling molecules, and how and why ROS can be both beneficial and harmful. We will also discuss what leads to excessive ROS production and accumulation, how this associates with aging, and where antioxidants fit into the equation. Lastly, we’ll discuss nutritional strategies that can support the antioxidant defenses cells and mitochondria use to protect themselves against excessive ROS.
Insulin is a hormone produced by beta cells in the pancreas with a central role in the regulation of metabolism and cell energy reserves. The major metabolic action of insulin is to regulate blood glucose levels and to promote the storage of energy substrates as macromolecules that can be mobilized between meals or in contexts of high energy demand.
Matt Maruca, CEO of Ra Optics, shares with us how light drives mitochondrial functions, the science behind blue light blocking glasses triggering melatonin secretion, explores the eye/brain connection, and gives us the 411 on blue light blocking glasses (spoiler alert: they’re not all created equal).
Glycolysis is the metabolic pathway that breaks down the carbohydrate glucose to produce cell energy in the form of ATP. Glycolysis generates ATP directly, as a product of the pathway’s chemical reactions, and indirectly, using energy generated by electrons extracted from the chemical bonds of glucose. In the human body, glucose is the preferred fuel for the vast majority of cells.
Oxidative phosphorylation (OXPHOS) is the major pathway of ATP production. ATP is the energy-rich molecule that powers cellular processes that require energy input. OXPHOS occurs in mitochondria and uses energy extracted in the metabolism of cellular fuels, particularly in glycolysis, fatty acid oxidation, and the citric acid cycle, to power the production of ATP.
