Oncogenesis: Cancer as Address Drift

The cell that will not stop

Cancer is not a foreign thing that gets into the body. It is one of the body's own cells — grown, in the ordinary way, from the single fertilised egg you began as — that has stopped obeying the rules of growth. It divides when it should be still, spreads where it should stay, and will not stop. A healthy tissue is kept alive by division that knows its limits: cells divide to grow a body, heal a wound, replace what wears out, and then, crucially, they stop. That stopping is a governed act, run by a whole committee of genes — at least some fifty of them regulate the growth of an animal cell, a machinery of accelerator and brake. Cancer is what happens when the brakes fail.

Set a healthy cell and a cancerous one side by side and the cancer cell betrays itself by a handful of related forgettings: it ignores the crowded neighbours that tell a healthy cell to stop (loss of density-dependent inhibition); it grows without the anchorage a normal cell requires; it no longer waits for the outside growth signal that coordinates a tissue; and it is immortal, freed of the ceiling of roughly forty divisions after which a healthy cell stops for good.

Address drift — the four forgettings are one fault

Read through the Universal Force of Time, a living thing is located in the field by an address — a coordinate, written in the lattice of {2, 3, 5, π}, that says not only what a cell is but when: when to divide, and when to stop. The stop is not a rider bolted onto the address; it is part of it, as intrinsic as identity. Cancer is that coordinate corrupted — the address drifted off its node — so that the stop written into where the cell belonged is no longer there to be read.

This is why the forgettings arrive as a set rather than singly. They are not four independent malfunctions that happen to strike together; they are the single consequence of a single cause. A cell that has drifted off its node has lost, at a stroke, the whole of what the node specified — the density limit, the anchorage requirement, the wait for the outside signal, the division count. The address held them all, and the address is what has slipped.

The forty-generation clock — ageing and cancer are two failures of one clock

The deepest of the forgettings is a clock. A normal human cell, taken from the body and grown, does not divide forever; it divides a certain number of times — roughly forty — and then stops, permanently. This is not wear; it is a counter built into the cell, ticking down with every division and calling a halt when it reaches its end. In the reading of this book that counter is a Τ-clock: a coordinate that decrements toward a stop, the node keeping the tally of how many times it has instanced itself.

Ageing and cancer, which look like opposites, are two failures of the same clock — the tally exhausted, and the tally lost. The theory reads them together because they are, at bottom, one coordinate: the number of divisions a cell is addressed to make, failing in opposite directions.

The doubling runs unbounded

What runs on, when the stop is lost, is the oldest process in life: doubling — one cell becoming two, two becoming four — the one-seed engine that builds every living thing, from a fertilised egg to a bacterial colony to the copying reaction in a test tube. In a healthy body that doubling is governed, always answerable to the address that says how far to go. The conservation law dΣΤ = 0 is what holds that governance: the field keeps its accounts, and a cell's divisions are drawn against a coordinate that must balance.

Cancer is that governance lost while the engine keeps running. The doubling does not speed up or change its nature; it simply stops being answerable. The field no longer holds the coordinate that says enough, and so life's own first power runs on without life's own restraint. The tragedy of cancer is that it is not something exotic — it is the most basic thing a cell can do, doubling, with the limit taken off.

Counting by twos

That the division tally is exact, and not a vague tendency, shows in development. In a much-studied worm, a founding cell divides in a strict programme — five rounds, giving 32 identical descendants (= 2⁵) — whereupon one, and only one, breaks ranks and becomes a different kind of cell. Not "about thirty": exactly thirty-two, five clean doublings, and then a specified cell at a specified place in the lineage takes up a new identity. Base-2 is written wherever life keeps a tally of divisions, and the count is part of the address — which generation a cell belongs to, and therefore what it must do. Cancer is what remains when the counting is abandoned but the dividing goes on.

Where this departs from current science

Rectification, not only destruction

If cancer were simply a broken thing, the only answer would be to remove it — cut it out, burn it, poison it — and that has long been medicine's main recourse, as it is the answer the body's own immune surveillance gives too. Removal is real and often necessary. But it treats the symptom, the misbehaving cell, and not the cause, which is the drift of the address itself.