A new study published in the ACS Pharmacology and Translational Science Journal looked at how THC affects aging in the brain and body. The researchers focused on CB1 receptors, which is important for brain functions like memory and learning. They found that giving low doses of THC to older mice improved their memory and made their brains behave more like younger versions of themselves. This was because THC boosted a protein called mTOR, which helps cells grow and use energy.

In the brain, THC increased mTOR activity, which helped make new connections between brain cells, improving memory and cognitive function. Interestingly, while mTOR activity increased in the brain, it decreased in fat tissues, which is similar to what happens when someone follows a low-calorie diet. Pretty wild! This dual effect of THC—boosting brain activity while slowing down metabolism in other parts of the body—could be a potential way to slow down aging and keep the brain healthy.

For obvious reasons this gets us very excited about the opportunities to implement low-dose THC products into training, like our High Performance Energy Gummies, which contain only 1.5mg of THC per gummy and 5mg of CBG also found to lower anxiety and improve memory.

Key Findings in the Study:

Improved Memory and Brain Health: Long-term, low-dose THC treatment improved memory and increased the density of synapses (connections between brain cells) in older mice, making their brains function more like those of younger mice.

Anti-aging Effects: THC’s dual effect on mTOR activity (increasing it in the brain and reducing it in fat tissue) mimics the benefits of a low-calorie diet, which is known to slow aging.

Epigenetic Influence: THC treatment was linked to changes in metabolites that could affect gene expression, hinting at a potential mechanism for its long-lasting effects on brain aging.

mTOR: The mechanistic target of rapamycin (mTOR) is a protein kinase that plays a crucial role in regulating cell growth, metabolism, and synaptic plasticity by sensing nutrient availability and energy status. It influences processes such as protein synthesis and autophagy, making it a key factor in aging, cognitive function, and various diseases.