Studies have shown that Fungi (Latin) or Molds (English) are microorganisms that can infect and take over the biological systems of humans.
They are so small, we cannot see them. But if we could, we would find that we live in a type of micoorganistic web that envelops all life and the entire globe within its filements.
Peer reviews studies over the last couple decades have found that they have the unique ability to possess, infiltrate, and control other organisms including plants, insects, animals and humans.
Many people today do not realize how these unseen forces like fungi play a large role in molding and human biology as it relates to microbial ecology, host-pathogen interactions, and cellular communication networks.
As we continue to unveil the mysteries of this intricate interplay, we open up new avenues for research and innovation that revolutionize our perception of the microbial world and its myriad of interactions.
One of the main methods or communication networks that fungi use to handle these tasks is via extracellular vesicles or EVs.
Fungi (Molds) don’t just release spores and toxins into the air. They send out tiny biological packages called extracellular vesicles (EVs) — nanoscale lipid-wrapped particles loaded with genetic material, proteins, enzymes, and virulence factors.
These aren’t accidental byproducts.
They are targeted delivery systems.
And they are designed to infiltrate your immune system, rewire your biology, and help fungal pathogens survive inside your body according to peer-reviewed studies from the NIH, PubMed, and major research institutions worldwide confirming that fungal EVs are active agents of human illness.
Think of a fungal extracellular vesicle as a biological delivery envelope.
It is a sphere wrapped in a lipid bilayer — the same type of membrane that surrounds every human cell — and it is packed with cargo the fungus deliberately loads inside it.
As a 2026 review published in World Journal of Microbiology and Biotechnology described them, fungal EVs are “sophisticated emissaries in cross-kingdom communication,” not mere cellular debris — they are “actively exported across the fungal cell wall via complex biogenesis mechanisms”.
That cargo includes nucleic acids (DNA and RNA), enzymes, lipids, polysaccharides, and virulence-related proteins. The fungus releases these vesicles across its cell wall and into the surrounding environment, including directly into human tissue during active infection.
The first EVs were observed in Aspergillus nidulans in 1972 and in Cryptococcus neoformans in 1973, but serious investigation into their role in human infection only intensified in the 2000s.
Today, fungal EVs have been identified in species including Candida albicans, Cryptococcus neoformans, Aspergillus fumigatus, Histoplasma capsulatum, Paracoccidioides brasiliensis, Malassezia sympodialis, and Sporothrix brasiliensis — covering a wide range of organisms that affect everyday people in their homes and workplaces.
How Fungi/Molds Infiltrate the Human Body
Interactions between cells via extracellular vesicles (EVs) represent a fascinating yet often overlooked aspect of human cellular and fungi communication.
Understanding how fungi release and uptake extracellular vesicles is essential for unraveling the intricate dance of communication between fungi and their environment. They have evolved over millions of years sophisticated mechanisms to manipulate host cells and evade immune responses.
These microscopic couriers transport their cargo across biological barriers allowing extracellular vesicles to influence cellular functions, modulate immune responses, and participate in the regulation of physiological processes.
When fungi grow within our bodies, they release EVs that create an extracellular filamentous matrix of biofilm around their hosts (victims), which acts as a protective layer against other microorganisms and antifungal drugs (Taff et al., 2012; Zarnowski et al., 2021).
For example, the fungus, Candida albicans, which resides in the human microbiome can regulate fungal virulence and biofilm formation via EVs (Honorato et al., 2022; Kulig et al., 2022).
The uptake of extracellular vesicles by fungi is a dynamic process that involves interactions between the vesicles and the fungal cell surface. Fungi have specific receptors and mechanisms for recognizing and internalizing extracellular vesicles.
Once internalized, the cargo carried by the vesicles can be released into the fungal cell, where it can modulate various cellular processes.
In biology, cell signaling is the process by which a cell interacts with itself, other cells, and the environment. This environment is in actuality an intricate web of filaments and cellular conversations that occur unseen within and around us.
Typically, the signaling process involves three components: The signal, the receptor, and the effector.
By interacting with EVs, fungi can hijack cellular communication pathways, deliver virulence factors, and promote their survival and proliferation within the host.
This interaction is particularly significant in the context of fungal pathogenesis, as it can influence the outcome of infections and the severity of disease manifestations.
Over recent years, the incidence of invasive fungal infections has surged, shedding light on the intricate role of fungal extracellular vesicles (EVs) in mediating intercellular communication and host-pathogen interactions. Moreover, recent research has shed light on the role of fungi EVs in the pathogenesis of diseases, including cancer, neurodegenerative disorders, and infectious diseases.
Thus influencing the dynamics of fungal-host cell interplay that can facilitate wound healing and when conditions are ripe, induce tissue damage, inflammatory responses, and various diseases.
How They Cross Into the Human Body
Here is the part that should concern every homeowner dealing with a mold problem: fungal EVs are small enough to penetrate biological barriers that would stop most fungal particles.
These vesicles range from as small as 30 nanometers to over 1 micron in size — well within the size range that penetrates the respiratory tract, crosses mucosal membranes, and enters the bloodstream.
During active infection, they have been detected directly in human blood and urine, confirming that they are circulating through the body of infected patients.
A 2024 study published by de Rezende and colleagues — later indexed through the NIH — examined EVs from the serum and urine of patients with confirmed infections from Candida albicans, Cryptococcus neoformans, and Paracoccidioides brasiliensis.
The researchers found that EVs from infected patients carried distinct lipid profiles — including sphingosine and phytosphingosine — not found in healthy control subjects, confirming the EVs were being produced during active human infection and circulating through biological fluids.
Fungal infections enter through two main routes: extrinsic (environmental fungi inhaled or absorbed from the outside) and intrinsic (fungi already present in the gut microbiome that become opportunistic under the right conditions).
Once inside a host, the fungi begin releasing EVs as part of their strategy to establish and maintain infection.
Genetic Material That Alters Human Gene Expression
Perhaps the most alarming aspect of fungal EVs is their ability to deliver RNA into human cells — and change how those cells behave.
Fungal EVs carry messenger RNA (mRNA), long non-coding RNAs (lncRNAs), small interfering RNAs (siRNAs), and other nucleic acid classes. Research on Candida albicans infection identified 10 up-regulated long non-coding RNAs in host cells that were specifically associated with infection, particularly related to “the response to injury”.
This suggests that fungal EVs may be actively reprogramming human gene expression to create a more favorable environment for fungal survival.
This is not a passive interaction.
The fungi appear to be using their EVs to send molecular instructions into human cells — instructions that alter immune responses, inflammatory signaling, and cellular behavior.
Comandering and taking over the very bodily systems that make us human
Immune Evasion: The Double-Edged Manipulation
The immune system’s response to fungal EVs is complicated — and that complexity is exactly what fungi exploit.
As a 2023 review in Frontiers in Microbiology described it, fungal EVs play a “double-edged sword” role: they can both stimulate and suppress the immune response, depending on the species, the concentration, and the specific cargo.
Fungi appear to have developed the ability to modulate which direction the immune response goes — triggering just enough inflammation to avoid being ignored, while simultaneously suppressing the responses that would eliminate them.
Cryptococcus neoformans EVs demonstrate this perfectly. On one hand, they trigger macrophages to produce tumor necrosis factor-alpha (TNF-α) and nitric oxide — pro-inflammatory signals. On the other hand, the same EVs carry GXM and stimulate the production of anti-inflammatory cytokines like TGF-β and IL-10, which suppress the immune system’s killing capacity.
The fungus essentially steps on the gas and the brakes at the same time, creating a state of immune confusion.
Candida albicans takes this even further.
Its EVs have been shown to activate complement receptor 3 (CR3) on monocytes, causing those monocytes to produce TGF-1-transporting vesicles of their own — human vesicles that then “suppress the immune response in blood vessels” and “attenuate systemic infection”.
The fungus hijacks the body’s own EV system to do its bidding.
ATP: The Unseen Fuel Fungi Exploit
One of the main extracellular signaling chemicals within the human body for fungi that also plays both a central role as an intracellular energy source is Adenosine 5′-triphosphate (ATP).
ATP is the primary energy currency of all living cells, from fungi and bacteria to plants and animals; if biological importance were ranked, it sits at the top of the pyramid.
ATP is the unseen fuel that makes the world go round, or more properly, oscillate clockwise, which is essential for various cellular processes, including brain function, muscle contraction, biosynthesis, and active transport processes in cells.
ATP synthesis is the process by which ATP is produced, typically occurring in the mitochondria of eukaryotic cells through cellular respiration by our microbiome. During this process, energy is generated and stored in the form of ATP, ready to be used for various cellular functions.
Active transport moves molecules or ions against their concentration gradient — a process requiring ATP hydrolysis — occurring either into cells (endocytosis) or out of them (exocytosis).
A prime example is the absorption of phosphorus by plant roots or our own microbiome. By contrast, passive transport moves ions from higher to lower concentration without energy expenditure, as in gas exchange in the lungs.
A bodily process that would require this active transport of energy to operate would be our brains in the act of thinking and problem solving.
On the contrary, passive transport moves ions from a higher concentration to lower concentration without any ATP energy like in the exchange of gases in the lungs and the exchange of nutrients in the kidneys.
ATP is created when we eat food, especially meat and dairy products.
When food is consumed, it undergoes digestion by our microbiome — i.e., fungi and bacteria — which we feed to break down our food into vitamins and ATP energy.
Without this community of microbes that lives symbiotically within and around us, we would not be able to break down the food we eat. Hence, we would simply not exist.
This is why they can become parasitic when we do not give these microbes the nutrients they require — as if there is an autonomous kill switch within our cells that turns on when we transgress against these natural laws.
Instead of eating the good food we supply them with, they will eat us, and the science proves this.
My contention is that this relationship can be compared to a master and slave dynamic, in that we are the slaves and they are our masters.
Gnostic Warrior Conclusion
Fungal extracellular vesicles are not a theoretical concern — they are an active biological reality unfolding inside homes, lungs, and bloodstreams right now.
These organisms are not passive invaders mindlessly releasing random toxins.
They are executing coordinated operations at the nanoscale, deploying molecular payloads with a precision that challenges everything mainstream medicine assumes about fungal pathogenicity.
We are not dealing with a simple mold problem.
We are witnessing a hidden war being waged at a global scale the naked eye cannot see and that conventional medicine has barely begun to acknowledge.
The ancient Gnostics understood that the most dangerous forces are the ones operating in concealment — and nowhere is that principle more relevant than here.
In Gnostic cosmology, archons (Greek: árchōn, meaning “ruler”) are described as malevolent cosmic rulers who govern the material world and keep souls imprisoned within it.
The Gnostic text Reality of the Rulers (Hypostasis of the Archons) describes them as having “bodies that are both female and male, and faces that are the faces of beasts” — boundary-crossing entities of chaos.
Their primary function is enforcing ignorance, feeding off human passions, and preventing spiritual ascension.
The microbes within us — bacteria, fungi, parasites — behave with a kind of ruthless autonomy that mirrors the archon’s role as internal ruler.
When well-fed and balanced, they are symbiotic partners. But when deprived of proper nutrition, gut parasites can literally re-engineer the internal ecosystem, alter tight junctions, invade epithelial cells, and cause dysbiosis — essentially turning against the host.
They are, in a very real biological sense, both female and male, and faces that are the faces of beasts with teeth that appear to be our defacto rulers.
Gnosticism teaches that humans carry a divine spark trapped within material constraints, and that liberation comes through self-knowledge rather than submission.
The knowledge exists.
The question is whether you will act on it.
References
Liu, J., & Hu, X. (2023). Fungal extracellular vesicle-mediated regulation: from virulence factor to clinical application. Frontiers in Microbiology, 14, 1205477. https://pmc.ncbi.nlm.nih.gov/articles/PMC10540631/
Sarkar, S., et al. (2026). Exploring the roles of fungal extracellular vesicles in fungal pathogenesis and symbiosis. World Journal of Microbiology and Biotechnology, 42(4), 174. https://pubmed.ncbi.nlm.nih.gov/41912904/
Shopova, I.A., et al. (2020). Human Neutrophils Produce Antifungal Extracellular Vesicles against Aspergillus fumigatus. PubMed. https://pubmed.ncbi.nlm.nih.gov/32291301/
Martinez-Lopez, R., et al. (2022). Candida albicans Hyphal Extracellular Vesicles Are Different from Yeast Vesicles. PubMed. https://pubmed.ncbi.nlm.nih.gov/35604172/
U.S. Environmental Protection Agency. A Brief Guide to Mold, Moisture, and Your Home.https://www.epa.gov/mold
Moe is the founder of GnosticWarrior.com. He is a father, husband, author, martial arts black belt, and an expert in Gnosticism, the occult, and esotericism.
