Quantitative bounds for recursive Uhlig mass production #
Building on the exact recursive circuit, this module bounds the resource tree and accumulated routing/decoding overhead. Every estimate is an explicit natural-number inequality used by the finite and asymptotic Uhlig theorems.
Number of shorter resource functions created by one Uhlig layer.
Equations
- Algebraic.MassProduction.UhligRecursion.resourceCount prefixWidth = Algebraic.MassProduction.UhligCircuit.prefixLast prefixWidth + 2
Instances For
Total nonrecursive overhead accumulated by the full resource tree.
Equations
- One or more equations did not get rendered due to their size.
- Algebraic.MassProduction.UhligRecursion.recursiveOverhead prefixWidth baseWidth 0 = 0
Instances For
The overhead of one layer after factoring out its number of request pairs. Keeping this as an explicit natural-number expression makes the subsequent recurrence bounds independent of asymptotic notation.
Equations
- One or more equations did not get rendered due to their size.
Instances For
A denominator-free upper estimate for (base + 1)^depth. It is the
finite inequality behind the fact that the extra one resource per layer does
not alter Uhlig's leading coefficient when depth / base tends to zero.
Quantitative leading-coefficient control for the resource tree. If the
base resource count 2^p dominates (precision + 1) * depth, then the extra
resource at each layer costs at most the factor
(precision + 1) / precision.
Closed finite bound for all routing and decoding accumulated through the
resource tree. The chosen maxWidth may be any upper bound on the final
recursive width; in applications it is the original input width.
Finite quantitative Uhlig recurrence. A uniform scalar base bound B
lifts to (2^p + 1)^d * B plus the fully explicit routing/decoding
overhead.
The recursive cost recurrence with the accumulated overhead replaced by its closed envelope bound.