Independent Verification of Technical & Scientific Claims

Frozen rules. Reproducible evidence. Bounded conclusions.

VolMax Studio Lab builds verification methods and applies them to real technical claims — from energy-system telemetry and battery performance to computational research and formal mathematics. We separate what the evidence demonstrates from what it does not.

We verify the chain from claim to conclusion — and make the stopping point explicit.

The Structural Gap

Technical and scientific claims are often evaluated by the team that produced them.

In battery and scientific ML, strong reported metrics can fail to transfer when evaluation allows leakage, correlated train/test samples, protocol overlap, or benchmark-specific tuning. In formal mathematics, a machine-checked proof can be valid and still not mean what the abstract claims, if the formal statement doesn't faithfully capture the original claim.

Buyers, investors, insurers, and readers of a paper can't always tell a sound result from a well-presented one by reading the producer's own numbers.

That is a structural conflict of interest.

VolMax is the neutral check. We don't sell a competing model and don't co-author the claim under test, so we have no incentive to flatter a number. Independence is the product.

What We Do

Two tracks, one methodology.

Research builds the verification tools. Applied work uses them on real claims. Both run under the same frozen-rule discipline.

Verification Research

  • P10 Core

    Certificate-carrying verification protocol with explicit trust boundaries — frozen milestones, Lean-checked.

  • P10 Underdetermination ProfileRelease candidate (v0.1.1)

    Release-candidate profile for binding NotDemonstrated(reason=underdetermined) to concrete divergent-world witnesses.

  • Representation Lifting S1Preregistered — blind evaluation pending

    Preregistered Lean 4 case study on whether a representation-first proof strategy transfers across blind theorem families.

  • Formal mathematics (Lean 4)

    Machine-checked artifacts that separate derivability from interpretation.

  • Scientific reproduction

    Independent reconstruction of bounded claims from published computational work and public datasets.

Applied Verification

  • Battery & energy-ML claims

    SOH/RUL model audits against held-out data and physical law.

  • Public market telemetry audits

    ERCOT, AEMO, Elexon/BMRS dispatch and capacity claims, reconstructed from primary sources.

  • Power-signal & DSP verification

    Measured-signal pipelines checked against physics and real sensor resolution.

  • Technical due-diligence support

    Pre-DD screening for funds, lenders' advisors, and insurers.

Verification Evidence

Public work, inspectable evidence.

The standard we hold every claim to — including our own — is public and inspectable. These are public, version-pinned, reproducible repositories: the credential that replaces a CV.

Market Telemetry Audits (ERCOT · NEM)

Anole (ERCOT, 240 MW/480 MWh)

F1 power & F2 energy: Demonstrated at SCED limits. F3 SoC consistency: Inconsistent under the strict 80% rule (55.2% pass, 330 events); rises to 81.8% in an exploratory, non-pre-registered filter on major events (≥10 MWh). F4 SoC field interpretation: Deferred pending ERCOT column definitions.

Bat Cave (ERCOT, 100 MW/100 MWh)

F1 power: Not Demonstrated (Bounded) — peak 72.61 MW under SCED, HSL confirms 100 MW model capacity. F2 energy: Not Demonstrated (Not Verified). F3 SoC consistency: Inconsistent (1.2% pass, 245 events, mean ratio 0.63). F4 SoC field interpretation: Deferred. Each finding is reported separately — not collapsed into one verdict.

AEMO NEM Fleet Dispatch Audit

16 units evaluated; dispatch conformance, generalization gap, and FCAS auditability finding.

Verdicts are reported exactly as the frozen protocol renders them — not compressed into a single headline number.

flagship

Battery_Health_Portfolio

NASA PCoE + Severson/Attia, DOI-archived. Honest findings led by their limits: where early prognosis breaks, where impedance is observable vs predictive, capacity-regeneration isolated from true fade. Includes the worked example where the audit caught its own pipeline overclaiming three times. Every number regenerates from reproduce.py.

github.com/VolMax-Studio/Battery_Health_Portfolio

Other reproducible projects

Power_Signal_Tools

Test-covered signal library (RMS, THD, DWT, Hilbert). The measurement layer the audits stand on.

Transformer_Health

Hierarchical DGA fault diagnosis, with tested boundaries.

PV_Anomaly_Detection

PV fault detection on real NREL data + injected benchmarks, honestly framed.

Data_Center_Efficiency

The "PUE Loophole" audit: how PSU conversion losses mask real facility savings.

(+ Power Quality, NILM, MCSA, CWRU, Grid Frequency, VPP — domain breadth.)

View all on GitHub →
Operational Doctrine

The P10 Verification Method

Every finding is produced by a strict procedure built on four non-negotiables. We apply it to our own work first.

Claim→Frozen rules→Evidence→Execution→Bounded verdict→Receipt
01

Pre-registered, frozen rules

Publicly timestamped before we look at the data.

02

Independent evidence

Primary public sources, with a hash captured upon download.

03

Full reproducibility

Open code and data, DOI-archived for persistence.

04

Public failure registry

Our own errors are dated and listed, never deleted.

Trust Boundaries

What our evidence does not claim.

This is the differentiator most verification work leaves implicit. We state it directly.

Formal proof ≠ semantic truth

A Lean proof shows a theorem follows from stated axioms. It does not show the formal statement faithfully captures the original claim.

Hash ≠ correctness

A SHA-256 hash fixes which bytes we analyzed. It says nothing about whether the analysis of those bytes is right.

Public telemetry ≠ ground truth

Public market data lets us reconstruct dispatch behavior. It is not a substitute for an asset's own physical instrumentation.

Reproduction ≠ validation of the surrounding theory

Reproducing a published result's numbers confirms the computation. It does not confirm the theory that motivated it.

Applied Verification — Engagements

We don't build your model — we check whether its numbers survive contact with data they haven't seen. Independent audits designed to catch interpretation artifacts.

01

1 · Battery ML Audit

Independent integrity audit of an SOH/RUL model or a vendor's accuracy claim. We check split integrity (cell-level vs cycle-level), preprocessing leakage, metric honesty (full-set error, no dropped cells), and physical consistency. Deliverable: a reproducible report where every number regenerates from one script.

02

2 · Independent SOH / RUL Verification

We reproduce a claimed result on a clean, group-aware split and report the gap between the claimed and the verified number — and trace its cause. The honest number is the one that survives a new cell.

03

3 · Power Signal & DSP Verification

Verification of measured-signal pipelines (power quality, vibration, MCSA, PV) against physics and the sensor's real resolution — built on a test-covered signal-processing core.

04

4 · Public Telemetry Audit (pre-DD screening)

Independent reconstruction of public market telemetry (ERCOT SCED, AEMO NEMWEB) for a specific asset prior to due diligence: dispatch history, demonstrated vs. nameplate capacity, and SoC reconciliation where semantics allow. Deliverable: a reproducible report with a hash chain and pre-registered rules. Target audience: funds, lenders' advisors, insurers.

What you receive

A reproducible audit report; a plain verdict (where the claim holds, where it breaks, the corrected number); the regeneration script.

What we do NOT guarantee

An accuracy number. We are not selling a model, so we make no "95%" promise — that is the vendor claim we exist to test. A verifier who guarantees a flattering result has the same conflict of interest as the vendor. We do not build the model under test, and we list no client outcomes we don't have — the proof is the public work above.

Leadership

Ivan Nestorov — founder

INIvan Nestorov

25+ years in power electronics and field electrical work, now applying that hardware intuition to independent verification — of energy ML, and increasingly of formal and computational claims. The combination is the point: a pure data scientist doesn't know why a converter loses efficiency at high frequency; a pure hardware engineer doesn't audit a model's train/test split; and neither, on their own, questions whether a formal statement still means what the original claim meant.

VolMax stands at the intersection — between the measurement and the claim.

“

A measurement is not a conclusion. The chain between them has to be inspectable.

Hardware & embedded R&D

Alongside the verification practice, VolMax runs hardware and edge-ML R&D — embedded signal processing on STM32/ESP32, and a hardware safety-interlock concept (analog-to-logic override, sub-2.5µs actuator-interrupt latency, Serbian IPO priority filed). These inform the measurement side of the audits and are in active development.

Get In Touch

Contact

VolMax Studio Lab d.o.o.

Independent verification of technical & scientific claims · Serbia · EU/remote engagements

Email: volmax.core@gmail.com

GitHub: github.com/VolMax-Studio

LinkedIn: linkedin.com/in/ivan-nestorov-274157371

For an enquiry, include the claim type and the relevant dataset, model, or artifact if possible.