Uniform list-code families in NW reconstruction #
This layer specializes checked NW reconstruction to a code family at inverse
accuracy q, under the exact relation 1/q = density/(2*outputLength) used in
Hirahara's argument. Polynomial list size then gives a concrete logarithmic
bound on the encoded decoder choice. For density 1/inverseDensity, the final
theorem chooses q = 2*outputLength*inverseDensity and discharges that relation.
The final endpoints compose this exact specialization with any efficiently
universal machine while retaining the compiler constant and polynomial clock.
A family-uniform realization chooses those constants before all ambient
instances and charges the explicit design/test encoding in the description.
An oracle-relative endpoint instead supplies the finite test through canonical
membership queries and retains the original reconstruction-description bound.
Its efficiently universal specialization exposes one transfer law valid for
all finite test oracles before applying the half-success reconstruction result.
A fully uniform oracle specialization chooses the compiler constants before
all numeric parameters and designs, charging the exact canonical fixed-width
design encoding.
A bounded indexed reconstruction description remains a bounded program for one decoder machine shared by every instance of a list-code family. The exact self-delimiting cost of the ambient design/test encoding is included in the description bound.
A bounded indexed reconstruction certificate remains a bounded oracle-relative program for one decoder machine shared across the whole code family. The design encoding is charged explicitly; the finite test remains oracle access.
A single uniform family decoder gives one set of universal compiler constants valid simultaneously for all lengths, accuracies, designs, tests, messages, and certificate bounds. Ambient information is explicit in the framed description length and therefore cannot leak into those constants.
Canonical design framing has an exact parameter-only bit cost.
At inverse-density parameters, canonical design framing makes the complete description bound an explicit arithmetic expression.
One oracle-universal compiler constant and polynomial clock transfer every certificate across all lengths, accuracies, designs, tests, and messages for a uniform family decoder. Design framing is explicit and the test remains an oracle.
Positive output length and inverse density make the canonical inverse accuracy at least two.
The canonical inverse accuracy has exactly the NW reconstruction margin
for a test of density 1 / inverseDensity.
Fully encoded NW reconstruction instantiated by a semantic inverse-accuracy list-code family.
Hirahara-style specialization with the list-index cost bounded by the family's polynomial list-size guarantee.
Paper-shaped family reconstruction at density 1 / inverseDensity. The
inverse accuracy is fixed canonically to
2 * outputLength * inverseDensity, so no arithmetic compatibility premise
remains.
Bitstring-certificate form of the inverse-density reconstruction theorem: with probability at least one half, every returned checked certificate yields an actual short string decoded to the original source message.
Time-bounded Kolmogorov form of inverse-density reconstruction. For any
machine realization of the fixed indexed-message decoder, canonical sampling
succeeds with probability at least one half and every returned certificate
proves the advertised machine-relative Kt upper bound.
Oracle-relative form of inverse-density reconstruction. One decoder machine handles every finite statistical test through its canonical membership oracle. Canonical certificate search succeeds with probability at least one half, and each returned certificate gives the source message the exact existing description bound with no test-truth-table bits added to the program.
End-to-end inverse-density reconstruction for an arbitrary efficiently universal oracle machine. The returned compiler constant and polynomial clock first satisfy a transfer law for every finite test oracle. Checked certificate search for the current test then succeeds with probability at least one half, and every returned certificate gives the source message the explicit reconstruction-description bound plus that constant.
End-to-end inverse-density reconstruction for an arbitrary efficiently universal machine. Canonical sampling succeeds with probability at least one half; every returned certificate gives the source message a description of the explicit reconstruction length plus the universal compiler constant, under the compiler's polynomial clock. The decoder realization remains fixed in the ambient design/code/test parameters.
Uniform inverse-density NW reconstruction on an arbitrary efficiently
universal machine. One compiler constant and one polynomial clock work
simultaneously for every numeric parameter, NW design, statistical test, and
source message. The ambient design/test representation is not hidden: its
self-delimiting framing is charged by
inverseDensityFramedDescriptionBound.
This is a fully uniform oracle-free transfer theorem. Replacing the explicit ambient string by random-access oracle access requires a separate oracle machine model and is not asserted here.
Fully family-uniform oracle-relative inverse-density reconstruction. One decoder machine and one oracle-universal compiler serve every length, accuracy, design encoding, finite test oracle, and source message. The test costs no program bits; the explicitly framed design encoding is charged exactly.