Aa,b(g)
(ag + b) mod N, with a chosen from the units of ℤN for bijections.
VARZIN uses affine maps over finite cyclic spaces as one of its cleanest mathematical and computational layers. This page separates the general affine theorem from construction-specific claims such as Mirror-13.
For Aa,b(g) = (ag + b) mod N, the map is bijective exactly when gcd(a,N)=1. Therefore |Aff(ℤN)| = Nφ(N). For N=12, this gives 48 affine operators.
On the cyclic space ℤN, an affine map combines multiplication by a with translation by b. Translation is always invertible; multiplication is invertible exactly when a is a unit modulo N, equivalently gcd(a,N)=1.
(ag + b) mod N, with a chosen from the units of ℤN for bijections.
There are φ(N) admissible multipliers and N possible translations.
The units are 1, 5, 7 and 11, yielding 12 × 4 = 48 affine bijections.
Scope: this is proved mathematics. It does not depend on LUXVAR, semantic interpretation, physical-field claims, or any historical symbolic framing.
The project uses affine transformations and related finite-state constructions as deterministic objects that can be enumerated, tested, and reproduced.
Mirror-13 connectivity, invariant counts, and reported compression or MDL quantities are construction-specific computational or algebraic claims. They are not consequences of the general affine-group counting theorem.
Current project practice ties computational claims to specific artifacts, assumptions, releases, and deterministic execution records rather than treating a mathematical relation as evidence for unrelated empirical claims.
The most relevant project-listed software record is VARZIN Level-1 Computational Stack: Finite Affine Core, Genomic Scanner, and Torus Manifold Solver (v2.0.0). Use the release itself for implementation details and assumptions.