The realm of eukaryotes has proven to be far more varied than previously thought, particularly with the identification of numerous new bacteria that enrich the entire bacterial lineage. Furthermore, evidence suggests that this complexity extends to viruses and fungi as well.

Research has revealed that the human body functions as a superorganism, a symbiotic entity composed of a diverse array of microbial cells that inhabit both its interior and exterior, co-evolving with humans throughout history.

As we delve deeper into the evolution of humans and the microbiome, intriguing parallels emerge. For instance, individual uniqueness exists alongside the mapping of microbial density across various body regions, particularly the skin.

When comparisons were made using spectrometry to analyze molecules released by these microbes, significant disparities emerged. In areas of low microbial diversity, there was a remarkable abundance of biomolecular diversity.

This finding indicates that the presence of biomolecules from host cells is a response to those released by microbes, highlighting a productive, self-sustaining symbiosis between cells and their microbial counterparts.

Similarities also arise in the study of early human genetic distribution and the pathways of proto-human and humanoid genes.

Research focusing on the gut—long recognized as a hub for microbial activity—has unveiled even more surprises. Each segment of the digestive tract is home to specific microbial colonies, influenced by varying environmental conditions.

For example, the stomach’s highly acidic pH creates a unique environment that shapes the microbial population, while the intestines host microbes adapted to low-oxygen conditions. This leads to the realization that the microbial genome vastly outnumbers the human genome.

It’s vital to remember that these genes play crucial roles in essential functions like nutrient digestion and immune response, significantly impacting our health. The adage “We are what we eat” resonates here.

In summary, even as we refine our understanding of microbial environments, they encompass a complexity of species that current science cannot fully quantify. This is why medical applications remain tentative.

Additionally, the timeline of human development plays a critical role. Research indicates that the human microbiome begins to form around the 13th week of pregnancy, when distinct microbial colonies start to emerge in the meconium.

These colonies are carefully contained within mucin bags in the meconium, suggesting a protective mechanism against contamination and a potential immune response correlated with pregnancy hormones.

Ultimately, this points to a unique organism that cannot be phylogenetically delineated from the fetus but possesses its own genomic identity distinct from other bacterial species.

This specialized structure indicates a remarkable adaptation to the fetal intestinal environment, which dramatically diversifies after birth, contributing to the microbiome's dominance in human biology by ages 3 to 7.

For those unfamiliar, meconium is the first feces of a newborn, consisting of a mixture of amniotic fluid, digestive secretions, and bacteria, expelled shortly after birth.

However, the development of the microbiome faces challenges. Interactions during childhood can influence its makeup, but significant disturbances, such as infectious diseases, can lead to imbalances.

As puberty and adolescence approach, the microbiome may undergo substantial changes influenced by prolonged social interactions and environmental factors.

This period marks the establishment of a new symbiotic relationship as individuals form deeper connections, sharing their unique microbiomes with one another, which can affect future generations.

The concept of "attraction chemistry" often relates to microbial compatibility, suggesting that our responses to others may be influenced by their microbial makeup.

Microbes, like humans, are social entities that communicate and respond to their environment. Understanding this relationship is vital as we reconsider our approach to bacterial interactions.

The narrative of human health has often framed microbes as adversaries; however, this perspective has stifled progress in understanding their beneficial roles. The work of pioneers like Dr. Hamer, who advocated for recognizing the positive contributions of microbes, faced significant backlash, highlighting the challenges in advancing microbiome research.

Despite these obstacles, recent years have seen rapid advancements in microbiome studies, leading to a better grasp of their roles in health and disease. New treatments, such as probiotics, are being developed to address conditions stemming from microbial imbalances.

The future promises further breakthroughs in understanding the human microbiome and its vast implications for health.

Ultimately, the intricate relationship between human evolution and the microbiome is evident.

The evolution of this superorganism reflects a complex interplay that warrants deeper exploration. As we continue to uncover these connections, the narrative of human health will undoubtedly transform.

Peace, love, gratitude, and understanding!

Merticaru Dorin Nicolae

This article is part of an upcoming book titled “The Beginnings.” If you appreciate my work, consider subscribing for updates on future writings. Thank you!

You can also explore my previous works, including “New (Old) Paradigm of New Medicine” and “Mortgage One’s Soul.” Thank you for your support!