The biology
A cell needs an immense amount of information, and it keeps it in DNA — what the textbook calls the cell's library — stored as two self-complementary strands so that damage to one is repaired from the other. A bacterium runs on a few thousand kinds of small molecule and protein; a eukaryotic cell, a thousand times larger, folds its DNA on histones and carries mitochondria with their own bacterial-looking genomes. Cells move molecules across their walls by pumps and gradients, and they grow by dividing — one becoming two, two becoming four.
The genome is an address, not a blueprint
Read through the Universal Force of Time, DNA is not merely a parts-list. It is the address that locates a living thing in the field of time — the coordinate that says what a cell is, where it sits, and when it acts. The protein-coding genes are the small part that names the parts; the great bulk of the genome, the roughly 98% that codes for nothing and that science has called junk, is the Τ-address space, the coordinate system itself.
Growth counts by twos
Population growth follows N = N₀e^(µt) with µ = ln2 / T_d, and the age distribution is p(a) = p(0)·2^(−a/T_d) — twice as many just-divided cells as about-to-divide. Base-2 is written wherever life keeps a tally of divisions. And the housekeeping is exact too: the sodium–potassium pump moves 3 Na out and 2 K in per ATP — the two smallest lattice primes, {3} and {2}, set the stoichiometry.
Where this departs from current science
| Current science says | The Force of Time says |
|---|---|
| The genome is a blueprint of genes; non-coding DNA is largely junk. | The genome is the coordinate that locates a living thing in the field; the non-coding bulk is the address space. |
| A cell is a bag of chemicals bounded by a membrane. | A cell is a walled Τ-node — a place where the one substance runs denser than the space around it. |
| Exponential growth is simply doubling kinetics. | Base-2 is the signature of replication counted against an address. |
Open the full paper (PDF) ↗
This paper, and any information drawn from it, may be used freely provided the reference attribution to Stephen Daubney and The Daubney Foundation is recognised.