Correctness-first runtime
Full workflow runtime represents the complete execution path of the current research implementation. It preserves traceability, reproducibility, and validation value before optimization becomes the primary objective.
Deterministic prime-distribution research framework
MAYAN ALFA is an independent deterministic research framework focused on prime-distribution analysis, segmented numerical filtration, and large-scale computational observation.
The current implementation explores correctness-first numerical processing, reproducible validation workflows, and structured interval mapping across large arithmetic ranges while preserving controlled research boundaries.
Measurement Methodology
Full workflow runtime represents the complete execution path of the current research implementation. It preserves traceability, reproducibility, and validation value before optimization becomes the primary objective.
Clean-binary timing is treated as a directional throughput indicator under reduced instrumentation. It remains separate from full workflow runtime and is never presented as a standalone performance claim.
Every reported result belongs to a defined measurement context: limit, step, execution mode, archive tier, and validation layer remain attached to the number.
MAYAN ALFA reports measurements as bounded observations inside a deterministic research framework, not as isolated speed slogans or unsupported mathematical claims.
MAYAN ALFA is built as a correctness-first numerical framework for structured prime-distribution observation and reproducible validation.
Runtime and clean-binary timing remain separated until deeper instrumentation makes performance interpretation fully auditable.
Public materials expose bounded evidence and methodology while controlled archive layers preserve extended results and internal research continuity.
Evidence board
MAYAN ALFA separates correctness-first workflow evidence, clean-binary timing, and controlled archive material so each result is interpreted within its proper measurement context.
The framework does not reduce the project to a single speed number. Each result is tied to its limit, step, execution mode, validation layer, and publication boundary.
Evidence integrity
sha256:264b797b04e01695772f090881edb1cf2bab30aa73ab74d1575c8d4985926e64
sha256:b301c0f03e8a31349cf2fa06ce0382dc7509929647f24cdb77990425e0600a03
sha256:3695cd2ffc046dcd32ac8e2fe3e68df84972002c6e60804e06f86d5d6cbfa178
sha256:18518792898ecceb13f2935660e4756efe41169d48c08b3f7c61774709e77889
These checksums preserve package identity for public review, release verification, and long-term evidence integrity.
The public archive is derived from the validated MAYAN_ALFA release boundary and preserves only material intended for public inspection.
Internal development paths, local machine identifiers, protected orchestration logic, and private infrastructure references are intentionally excluded.
Version DOI — v0.7:
https://doi.org/
Concept DOI — all versions:
https://doi.org/
Public release boundary sanitized for GitHub and Zenodo preservation.
The archive separates public presentation, release hosting, DOI preservation, and validation depth into distinct evidence layers.
Public anchors
Evidence tiers
Framework memory
Foundation
Release discipline
Historical runs, release logs, measurement outputs, and validation evidence remain part of the traceable archival record.
The public presentation range remains bounded at 10M–10B, while 100B+ observations remain preserved as controlled archive evidence.
Public releases preserve methodological transparency and evidence continuity while protected internal framework layers remain outside distribution.
Deeper instrumentation, throughput tuning, and optimization analysis follow only after the correctness-first phase reaches stable validation maturity.
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