PV-PP Research • Benchmark White Paper

Productive Value-Productive Power in a Dynamic Multi-Agent Productive System

The Asterion Benchmark V2 — a 7,000-run stochastic benchmark comparing the frozen Productive Value-Productive Power (PV-PP) decision architecture with scalar and deterministic comparison controllers.
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About the White Paper

This paper reports the primary results of Asterion Benchmark V2, an internally constructed stress benchmark designed to exercise a large portion of the frozen PV-PP architecture simultaneously.

The benchmark models a tightly coupled productive system containing a manufacturer, suppliers, a customer, a lender, logistics, inventories, contracts, financing constraints, supplier deterioration and recovery, quality failures, alternate productive capacity, delayed field consequences, incomplete information, and persistent productive-power states.

The governing question is whether PV-PP can maintain coherent productive-system behavior under dynamic multi-agent stress, and how that behavior differs from specified competent comparison controllers operating over the same world, information boundary, action surface, and stochastic conditions.

The M14 Primary Ensemble

1,000 common stochastic worlds
7 decision regimes
7,000 completed production runs
0 production failures

Principal Comparison

Against the balanced scalar receding-horizon controller B0, the PV-PP regime produced the following mean paired differences across 1,000 common seeds:

PV-PP delivered more usable product in 999 of 1,000 matched stochastic scenarios and preserved greater terminal S1 line and quality productive power in 1,000 of 1,000.

Interpretation

The results establish strong behavioral separation within the frozen Asterion benchmark. Trace-supported analysis indicates that the separation is associated with differences in how the architectures sequence recovery, diversification, renegotiation, conservation, logistics, financing, and productive-capacity preservation.

The result is intentionally benchmark-relative. The paper does not claim universal superiority of PV-PP over scalar optimization, model-predictive control, multi-objective optimization, or other decision architectures.

Instead, the benchmark asks a narrower question: when a productive system begins to degrade, does explicitly representing productive capacity, adequacy, recovery paths, and future productive options change decision behavior in consequential ways?

Repository Contents

The associated GitHub repository is intended to preserve the publication-facing research record for the white paper, including the current manuscript and related publication artifacts.

The full Asterion benchmark execution package, benchmark-definition documents, banking records, and final M14 evidence are maintained in the main PV-PP benchmark repository.

Citation and Status

Status: Publication candidate / public research white paper.

Repository DOI, archival identifier, and final citation metadata can be added here after deposition to Zenodo, OSF, or another persistent archive.

Suggested title: Productive Value-Productive Power in a Dynamic Multi-Agent Productive System: The Asterion Benchmark V2.