Phagocytes

White blood cells are produced in the bone marrow, where red and white blood cells divide and mature before entering the bloodstream. The bone marrow itself is 60 percent fat, similar in that respect to the brain and nervous system, and this fatty environment is where phagocytes are born. When they mature inside the bone marrow, they enter the bloodstream and begin their function. Aajonus noted that when phagocytes eat dead red blood cells and accumulate organic material, they simply get larger and fatter as a result. The waste from what they consume is typically dumped into the kidneys, which process it with the help of ammonia and pass it out of the system through urination. He also noted that some of this waste can be discarded directly into the bowels and exit through feces, since there are exit points from the blood directly into both the urinary tract and the bowels.

When a phagocyte itself dies, it goes to the lymphatic system to be broken down, or it may be passed directly out of the body through urination or defecation without requiring full lymphatic processing. A phagocyte can grow very large as it fills with consumed material, and in doing so it does not produce much waste relative to its size. The system is designed with efficiency in mind: the phagocyte eats the dead red blood cell, grows, eventually dies, and exits, having converted a potential contamination problem into a manageable exit process.

Aajonus was emphatic that in modern toxic conditions, the number of phagocytes the body needs and produces is far higher than what conventional medicine considers normal. He stated plainly that people who are highly toxic should have a high white blood cell count, and that the pharmaceutical industry's definition of a normal white blood cell count is far too low given the toxic burden people now carry. A high white blood cell count, in his framework, is not a sign that something is dangerously wrong but rather a sign that the body is responding appropriately to an elevated contamination load. The body manufactures more phagocytes because more sanitation work is required.

He gave a specific example to illustrate how resource-intensive this process is: it can take approximately 2,000 white blood cells to harness and control just two or three molecules of mercury. Mercury molecules are described as infinitesimally small, yet the body must deploy enormous quantities of its fat-rich white blood cells to contain even a trace amount of industrial contamination. This explains why people who have been heavily exposed to industrial toxins are so depleted: a massive proportion of the body's fat-based phagocytic resources are being consumed in the effort to contain substances that are, in terms of molecular size, almost incomprehensibly small. The cost in biological resources is grossly disproportionate to the physical quantity of the toxin involved.

Aajonus returned repeatedly to pus as a demonstration of what phagocytes are and what they represent. When the body produces pus, 95 to 98 percent of that material is white blood cells, and the remaining 2 to 5 percent is the toxic contamination those white blood cells have surrounded, arrested, and are in the process of containing or eliminating. Pus is not a sign of the body failing or of bacteria winning; it is a concentrated accumulation of phagocytes that have gone to a site of toxicity or cellular damage and are doing exactly what they were designed to do.

This understanding is central to how Aajonus reframed infection and inflammation throughout his teaching. He described the phagocytes at a site of pus as being there to clean up waste from detoxification processes, including the breakdown of material generated by parasites, bacteria, or fungus working on damaged tissue. When you see pus, you are seeing the sanitation workforce in concentrated form, not the enemy. The "contamination" in that small 2 to 5 percent fraction is what actually required addressing, not the white blood cells themselves.

Aajonus consistently framed phagocytes within a larger class of sanitation workers that the body employs, which also includes bacteria, parasites, and fungus. In his description, all of these entities eat organic waste and dead tissue in order to reduce it to small, manageable byproducts that the body can more easily discard. The phagocytes operate specifically within the bloodstream, where bacteria cannot perform the same breakdown function without catastrophic consequences for the body's energy supply. He explained this explicitly: if the blood used normal bacterial and microbial breakdown to process dead red blood cells the way the rest of the body uses bacteria to process cellular debris, the body would lose its energy system. The phagocyte is the blood's specialized solution to this problem, a white cell that can consume dead organic matter without triggering the broader bacterial fermentation process that would be lethal in the context of the bloodstream.

Outside of the blood, the comparable sanitation work is handled by bacteria, parasites, and fungus, which eat damaged and dead tissue in tissues and organs. Inside the blood, the phagocytes perform the equivalent function without introducing microbial breakdown into the circulatory system. This distinction, for Aajonus, explained why the body evolved two separate sanitation strategies for two different environments.

While phagocytes operate primarily in the blood, Aajonus connected their function to the broader lymphatic system in several ways. When phagocytes die after consuming dead red blood cells and accumulated toxins, they enter the lymphatic system for breakdown and processing. The lymphatic system, which is itself approximately 80 percent fat and 15 percent protein, is equipped to dissolve dead phagocytes and neutralize whatever toxins they were carrying when they died. This connects the phagocytic function of the blood to the broader cleansing function of the lymphatic system: the phagocytes handle the blood's internal waste, and the lymphatic system then handles the phagocytes once they have served their function.

Aajonus also noted that when the lymphatic system is severely overloaded with toxins and the body cannot move waste out fast enough through normal channels, the blood is forced to take on functions it was not designed for, including transporting nutrients and carrying toxins out of areas on behalf of the lymphatic system. This overloading increases the demand on phagocytes further, because the blood is now carrying more contaminating material than it normally would, requiring more white blood cells to manage that additional burden.

Because phagocytes are 60 to 80 percent fat, Aajonus drew a direct line between adequate dietary fat intake and the body's capacity to produce and maintain functional phagocytes. A person deficient in fat cannot produce sufficient white blood cells in adequate quantity or quality. He noted in one microscopy description that a blood sample showing only four white blood cells, with some of those not yet mature, indicated a severely fat-deficient person who was not well. The immature white blood cells should not even have left the bone marrow yet, which told him the system was struggling.

The fatty composition of phagocytes also explains why they are capable of binding with industrial toxins. Fat molecules attract and bind with toxic substances, holding them so they cannot freely circulate and damage cells. When Aajonus described how the body protects itself from industrial contamination in the absence of sufficient raw dietary fat, he framed it as a proportional problem: bad fats still provide some protective binding capacity, but it takes many more bad fat molecules to do the work that a smaller quantity of raw fat molecules can do efficiently. The phagocyte, full of good fat, is a highly effective sequestration unit. A phagocyte built from processed or degraded fat is less effective at the same job.

Aajonus mentioned that in modern conditions of extreme toxicity, the body has begun producing white blood cells in the thymus gland in addition to the bone marrow. This is not the thymus's original or intended function; the bone marrow is where red and white blood cells are supposed to divide and mature. The body is pushing white blood cell production into the thymus because the bone marrow has become so contaminated with metallic poisons and industrial chemicals that it is struggling to do its job correctly. The toxins stored in the bone marrow, which is 60 percent fat and therefore a target for fat-soluble poisons, damage the production environment for both red and white blood cells, and the body compensates by recruiting the thymus as an additional production site. This is described as an abnormal adaptation to an abnormal level of systemic toxicity.

Aajonus used phagocytes specifically to challenge the biological logic of vaccination. He stated that the bacterial waste material in a vaccine constitutes less than 1 percent of the total content, which might represent approximately 2 million bacterial products capable of causing disease in that particular vaccine. He then noted that just five white blood cells, five phagocytes, could consume that entire quantity of bacterial material instantly. The idea that such a small amount of bacterial content could produce meaningful immunity was, in his view, biologically absurd. The phagocytes would simply eat it. There would be no sustained challenge to the system, no meaningful immune training of the kind that conventional medicine claims occurs, because the phagocytic sanitation capacity of even a small number of white blood cells vastly exceeds the bacterial load present in any vaccine.