Olfactory Emergence — Smell from the R19 switch and measured DNA γ

Young Jae Lee

doi:10.5281/zenodo.20790182

Olfactory Emergence: Smell from the R19 Jamming Switch and Measured DNA γ

Reading rule (2026-09-29). This biology volume accepts existing observations and uses them; it does not decide theory — it shows how the DNA reading (γ) is applied to the nose and how the VP switch maps onto the organ. Every statement is one of: an observation (a reported fact, cited), a code output (reproducible from repro/nose/, with the inputs it depends on stated), or an interpretation (the DNA/VP mapping applied to the organ — not [F] forced or [V] verified theory). [O] marks what the volume does not supply, with its obstacle named. Emergence (simple tissue): [O]. The olfactory neuron chain (cAMP → CNG, measured Hill 1.4–1.8 → Ca → Ca-activated Cl⁻ amplification) can be emerged, but the coupling scales between the stages (ciliary cAMP and Ca per unit current) were not found in sourced form. Choosing them would make the output a choice, so it was not run.

This volume derives the sense of smell from two inherited primitives — the R19 jamming switch and DNA γ measured from NCBI promoters — across six chapters, and marks plainly where the framework reaches (threshold, transduction) and where it stops: the odorant→receptor key is a named open problem.

Smell breaks the wave→place skeleton of the eye and ear volumes: its stimulus is a molecule, so identity is a combinatorial pattern over 7 olfactory-receptor R19 switches (capacity 2^N = 128). What survives is the transduction switch — the olfactory CNG channel, whose measured CNGB1 γ equals the rod-vision value (a consistency check: same gene, same promoter window, same pipeline). 20 master genes are measured; the disease chapters are direction-only.

Canonical record: doi.org/10.5281/zenodo.20790182 — Zenodo concept DOI (always resolves to the latest version). Cite as: Young Jae Lee, Olfactory Emergence (Jamming Physics, 2026), 10.5281/zenodo.20790182.

The one idea — and why smell is different

A special sense is a stimulus property → a code → an R19 transduction switch. Vision and hearing read a wave as a single physical place; smell has no wave, so the front-end code is combinatorial over a large receptor repertoire.

What survives is the R19 transduction switch (the olfactory CNG channel, the same gene family as rod vision). What changes is the front end: identity's key — which odorant binds which receptor — is molecular recognition, not in the promoter γ. That is the volume's central open problem.

Chapters

§0 Inherited foundation — the R19 switch, DNA γ, and the missing wave module
§1 Combinatorial code — no wave → a combinatorial pattern over the receptor bank
§2 Transduction switch — the all-or-none CNG flip, shared with rod vision
§3 Bulb map — receptor-type convergence onto glomeruli preserves the capacity
§4 Congenital anosmia — two R19 failure modes (non-clinical, direction-only)
§5 Allergic smell loss — conductive vs sensorineural smell loss (non-clinical)

What is forced, measured, and open

Code outputs (reproducible; inputs stated on each page): the all-or-none flip past spinodal(γ) in the R19 model, the cubic order (n = 3), and the combinatorial capacity 2^N = 128. Interpretation: reading the olfactory CNG channel, the receptor bank and the bulb as that R19 switch, and γ-sorted organisers as an order (building is [O], dna §RB). Consistency (not independent verification): the cross-sense CNGB1 γ. Measured: every γ from NCBI promoters (20 genes). Open: the odorant→receptor key, the glomerular targeting coordinate, the absolute firing scale, the allergy mechanism (cited to immune §11) and airway scale, and the felt percept (the mind volume's).