20 year Neurosurgeon - "Neurogen has changed the way I treat patients w TBI!”
June 21, 2025

Below is the image of the letter of recommendation from Dr Joseph Yazdi regarding Neurogen Brain Balancing. You can download the letter by clicking on the buttion.



June 23, 2025
Latest NeurogenTM Research NeurogenTM Case Report for the Treatment of Light Sensitivity after Mild Traumatic Brain Injury Dr. Jenalyn Jotie, a U.S. Navy Veteran and fellowship-trained neuro-optometrist, recently published a case report in the journal of Vision Development and Rehabilitation investigating the use of NeurogenTM for the treatment of light sensitivity after mild traumatic brain injury in one Post-9/11 Veteran. She presented her findings at the annual Neuro-Optometric Rehabilitation Association 2023 conference in Portland, OR. https://pubs.covd.org/VDR/issue9-3/
Recent Posts

June 23, 2025
Latest NeurogenTM Research NeurogenTM Case Report for the Treatment of Light Sensitivity after Mild Traumatic Brain Injury Dr. Jenalyn Jotie, a U.S. Navy Veteran and fellowship-trained neuro-optometrist, recently published a case report in the journal of Vision Development and Rehabilitation investigating the use of NeurogenTM for the treatment of light sensitivity after mild traumatic brain injury in one Post-9/11 Veteran. She presented her findings at the annual Neuro-Optometric Rehabilitation Association 2023 conference in Portland, OR. https://pubs.covd.org/VDR/issue9-3/

By Neuroscience
•
January 12, 2021
Over one hundred years ago, in 1875, a British physician, Richard Caton, recorded the brain’s electrical impulses in animals through an instrument devised for passively observing the electrical activity. The device he used was an electroencephalogram (EEG), and it’s still widely used today. The EEG operates on the same fundamental principles as an electrocardiogram (EKG) used to measure heart rates and rhythms. A single neuron firing is imperceptible with EEG, but when billions of them synchronously fire together, waves of bioelectric energy can be detected in the form of brain waves.

By Neuroscience
•
May 6, 2020
The purpose of sleep has been the subject of deb ate for millennia. The necessity of sleep across animal species suggests that sleep plays a vital function. One of the greatest mysteries in biology is why sleep matters. Why is sleep restorative? And, why does the lack of sleep impair brain function? According to Dr. Lulu Xie, of the University of Rochester Medical Center, sleep deprivation reduces learning, impairs performance in cognitive tests, prolongs reaction time, and in the most extreme cases, can lead to dementia and even death. Without sleep, scientists have found that lab mice die after two weeks. Although it is still not precisely known why sleep is necessary, Dr. Xie, and her team, are uncovering the mystery of how sleep enhances the removal of waste products from our brain. Amazingly, the brain has a simple, yet elegant, way to cleanse itself, while we sleep During our waking hours, the brain produces toxic byproducts as a result of regular, metabolic activity. In the short-term, these metabolic waste products can interfere with normal cell communication, and in the long-term, can cause irreversible damage to brain cells. One such neurotoxic protein is beta-amyloid, a sticky compound that can accumulate in the brain, disrupting communication between brain cells, eventually killing them. Accumulation of beta-amyloid protein in the brain is one of the culprits thought to be one of the causes of Alzheimer’s disease. The brain’s mechanism for clearing out toxic byproducts involves the Cerebrospinal fluid (CSF) that fills the interstitial space surrounding neurons in the brain. CFS continually travels throughout the brain collecting waste byproducts and transports them to the lymphatic system for ultimate disposal and degradation by the liver. Dr. Xie’s research showed that this cleansing process dramatically increases in the brains of mice while they sleep, in a simple, yet elegant way. Dr. Xie’s team reported that while the mice were sleeping, the interstitial space of their brains, increased by 60%, allowing for a dramatic increase in the volume of CSF and the clearing of toxic byproducts. The team was able to observe this process by injecting radioactive tracers into the CFS of mice so that they could watch as it flowed through the brain. They found that when the mice were awake, there was more resistance to CSF. However, when they were asleep, the interstitial space between brain cells increased by as much as 60%, a vastly larger space, allowing for significantly more efficient removal of waste products. Why sleep matters is still one of the greatest mysteries in biology, but Dr. Xie’s team gives compelling evidence to answer the questions of why sleep is restorative, and, as important, why the lack of sleep impairs brain function.