Skip to content

Dr. Dayan Goodenowe

2025 Presentation(s):

The presentation will begin In:

Days
Hours
Minutes
Abstract

This presentation will explore the core components of normal neurodevelopment and how they are altered in autism, with a particular focus on the role of neuroinflammation in driving the severity and progression of the disorder. A key aspect of early childhood brain development is myelination, and this lecture highlights the critical role of plasmalogen biosynthesis—an essential membrane lipid in the brain—in maintaining myelination. Disruptions in plasmalogen biosynthesis, coupled with excessive plasmalogen biosynthesis demand, lead to impaired myelination and disrupted neurodevelopment, which are central to the pathophysiology of autism. Neuroinflammation is identified as a primary cause of dysmyelination and impaired neurodevelopment in autism, exacerbating the condition. The lecture emphasizes advanced brain nutrition strategies aimed at restoring neurodevelopment, focusing on plasmalogen precursor supplementation to restore myelination and support brain function. Additionally, the importance of restoring methyltransferase and mitochondrial capacity, alongside general supportive nutrition, is discussed as part of a comprehensive intervention strategy for autism. By addressing these key biological factors, this approach aims to improve neurodevelopmental outcomes in individuals with autism.

Speaker Bio:

 Dr. Dayan Goodenowe is a PhD neuroscientist, biochemist, synthetic organic chemist, inventor, and clinical research expert. In 1999, he invented and patented a revolutionary ion cyclotron resonance mass spectrometry technology that made it possible to monitor human biochemistry comprehensively for the first time in history. 
 
Using this advanced technology, Dr. Goodenowe analyzed blood samples from tens of thousands of persons of all ages, of all races, and from multiple countries. The biochemistry of healthy persons was compared to persons suffering from disease. A diverse range of over 20 diseases, from autism to dementia and from colon cancer to heart disease, was studied. The biochemistry of young versus old and all-cause mortality was studied. This research led to his discovery that early mortality and each human disease has a biochemical prodrome. 

share this speaker:

Facebook
Twitter
LinkedIn
Email