When the cell “believes” it must live… forever: cancerogenesis as a distortion of biological information
For over a century, biology has interpreted the tumor or neoplasm as the result of a progressive accumulation of genetic mutations.
A perspective that has enabled enormous advances in understanding cellular mechanisms, but which perhaps still fails to capture the full complexity of the oncological phenomenon. Because this phenomenon must in fact be considered in its entirety and not merely as a single event.
In recent decades, in fact, research has shown that tumor transformation does not depend exclusively on random mutations of the DNA, but involves much deeper regulatory systems: epigenetics, cellular metabolism, intracellular signaling, chronic inflammatory state, membrane bioelectricity, organization of the tissue microenvironment, and telomeric control.
Cancer, then, may not be merely a “genetic disease.” We might consider that it could represent something more subtle: a progressive alteration of the systems through which the cell interprets its biological context.
Obviously, this is a hypothesis based on studies in the field. Research continues, and the insights that allow us to broaden our horizons lead us to epigenetics and, from there, a whole new world opens up.
The Telomere Paradox
Telomeres are the protective ends of chromosomes.
Their function is to prevent DNA from losing information during cell replication. Every cell division involves a physiological shortening of the telomeres. When this process exceeds a certain critical threshold, the cell enters senescence or undergoes apoptosis. It is one of the major protective mechanisms against uncontrolled proliferation.
Yet the telomere/telomerase system conceals an extraordinary biological paradox. If the telomere shortens too rapidly, the tissue ages. If, on the other hand, the telomere continues to be artificially maintained at a long length, the cell can acquire characteristics of replicative immortality.
This is exactly what happens in many neoplasms, where the reactivation of telomerase—via the TERT promoter—allows the tumor cell to exceed the Hayflick limit.
The system that protects cellular life thus becomes the system that enables tumor proliferation.
The cell interprets signals
Modern biology has now demonstrated that the cell does not respond passively to stimuli.
It continuously interprets signals from the environment:
- growth factors;
- chemical gradients;
- metabolic states;
- inflammatory signals;
- ionic changes;
- membrane potentials;
- mechanical interactions;
- energy availability.
Intracellular pathways such as MAPK, PI3K-AKT, and mTOR represent true biological information processing systems. Under normal conditions, these pathways allow the cell to determine whether to:
- proliferate;
- stop;
- differentiate;
- repair itself;
- or die.
But what happens when this interpretive system is disrupted?
The “phantom nutrient”
One of the most fascinating hypotheses to emerge in recent years from systems biology is that the cancer cell may progressively lose its correct perception of its environment. This would not merely be a genetic mutation, but a persistent distortion of signaling systems.
In this scenario, proliferative pathways could be activated by continuous aberrant signals, inducingthe cell to behave as if conditions favorable to growth existed even when such conditions do not actually exist.
The cell, in other words:
- “believes” it is in a permissive environment;
- “believes” it must proliferate;
- “believes” it must survive at all costs.
A sort of biological “phantom nutrient.” Not necessarily a material substance, but a false informational authorization for growth.
From Genes to Biophysics
At this point, the problem shifts. It is no longer enough to ask which genes have mutated.
We must ask how the cellular system loses its regulatory coherence. Thus come into play:
- epigenetics;
- chronic inflammatory states;
- oxidative stress;
- metabolic alterations;
- tissue microenvironment;
- telomeric regulation;
- shelterin complex;
- redox signaling;
- cellular bioelectricity.
All these factors converge to alter the structural and informational stability of the cell. At the terminal level, this loss of balance could manifest as an alteration in the local biophysical coherence that underpins the molecular organization of the living system.
The Theory of Furrows and the Loss of Informational Order
It is within this theoretical framework that the Theory of Furrows is situated. The theory hypothesizes that biological memory, cellular persistence, and functional organization can be understood as phenomena of information conservation in biological spacetime.
From this perspective:
- aging would not merely represent a loss of matter;
- but a progressive loss of informational order;
- while carcinogenesis could constitute the pathological crossing of the threshold of equilibrium between conservation and replicative limit.
A tumor would therefore not be merely uncontrolled cellular growth, but also an alteration of the biological “reading” of the context—a persistent distortion of cellular perception.
Beyond genetics?
Of course, all of this remains, at least in part, a theoretical construct still open to experimental verification. Yet the direction of contemporary research seems increasingly oriented toward an integrated vision:
- genetics;
- epigenetics;
- biochemistry;
- information physics;
- energetic dynamics;
- systemic organization.
Perhaps the future of biology will not consist in replacing one paradigm with another, but in understanding how each level—molecular, energetic, informational, and temporal—represents a different expression of the same fundamental phenomenon: life’s ability to maintain order against entropy.
