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Jarred Younger PhD Finds Neuroinflammation in MECFS

 Neuroinflammation is the inflammation of nervous tissue, particularly in the brain and spinal cord. It’s the brain’s immune response to injury, infection, or disease, involving activation of immune cells like microglia and astrocytes. These cells release chemicals such as cytokines and chemokines, which can protect neurons but may also cause damage if excessive or prolonged. It’s linked to conditions like Alzheimer’s, Parkinson’s, multiple sclerosis, and even mood disorders. Symptoms can includ

Younger Finds Lactate in the Brain of MECFS

 High levels of lactate in the brain can indicate several physiological or pathological conditions, as lactate is a byproduct of anaerobic metabolism and plays a role in brain energy dynamics.  Elevated brain lactate often suggests that neurons or glial cells are relying more on anaerobic glycolysis, typically due to insufficient oxygen supply (hypoxia) or increased energy demand. 

Hello

Learn More About Orexin

www. eirn.org/f/orexins-and-vampire-syndrome-in-mecfs-and-long-covid

Itaconate Shunt

Itaconate Shunt- An Introduction

PHair and Davis have developed the itaconate shunt to explain what causes long-term consequences of MECFS. 

Itaconate Shunt and GABA Shunt

This is the second video in a series of 2 that explains why long-term health consequences occur in MECFS. 

Learn More About the Itaconate Shunt

The Itaconate Shunt by Phair and Davis

The Itaconate Shunt Hypothesis, proposed by Dr. Robert Phair in collaboration with Professor Ronald Davis at the Open Medicine Foundation, is a novel metabolic theory aimed at explaining the complex pathophysiology of Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS). This hypothesis builds on earlier metabolomic findings and proposes that a dysregulation in the itaconate pathway—a key immune-metabolic route—may underlie many of the hallmark symptoms of ME/CFS, including post-exertional malaise, energy production deficits, and immune dysfunction. Itaconate is a metabolite produced by immune cells, particularly macrophages, in response to inflammation, and it plays a role in modulating both metabolism and immune responses. According to the hypothesis, in ME/CFS patients, a metabolic "shunt" diverts key intermediates from the tricarboxylic acid (TCA) cycle into the itaconate pathway, leading to a bottleneck in energy production. This diversion may be triggered or sustained by chronic immune activation or a failure to properly regulate inflammatory responses. The result is a buildup of metabolic intermediates and toxic byproducts like ammonia, which the body struggles to clear due to impaired nitrogen disposal mechanisms. This could explain why ME/CFS patients often rely on amino acids for energy—despite the inefficiency and toxicity of this route—because their cells are unable to effectively utilize glucose or fatty acids. The hypothesis also suggests that this metabolic trap could be self-sustaining, locking patients into a low-energy, high-inflammation state. Ongoing research, including modeling and experimental validation at the Open Medicine Foundation’s Melbourne Collaboration, is testing this hypothesis to determine whether targeting the itaconate pathway could offer therapeutic potential for ME/CFS  


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