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.
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.
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.
Research builds the verification tools. Applied work uses them on real claims. Both run under the same frozen-rule discipline.
Certificate-carrying verification protocol with explicit trust boundaries — frozen milestones, Lean-checked.
Release-candidate profile for binding NotDemonstrated(reason=underdetermined) to concrete divergent-world witnesses.
Preregistered Lean 4 case study on whether a representation-first proof strategy transfers across blind theorem families.
Machine-checked artifacts that separate derivability from interpretation.
Independent reconstruction of bounded claims from published computational work and public datasets.
SOH/RUL model audits against held-out data and physical law.
ERCOT, AEMO, Elexon/BMRS dispatch and capacity claims, reconstructed from primary sources.
Measured-signal pipelines checked against physics and real sensor resolution.
Pre-DD screening for funds, lenders' advisors, and insurers.
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.
A frozen protocol for when two witness worlds are compatible with the same closed evidence and produce different values for the same claim — v0.1.1, Lean-checked witness kernel.
Formal case study testing whether a representation-first formalization strategy discovers reusable structure on blind theorem families.
Lean 4 result on primitive Pythagorean triples: literal integer divisibility, no smuggled parity or positivity assumptions.
The same frozen protocol applied to two BESS assets returns two different outcomes — one bounded by SCED limits, one not resolvable from public telemetry alone.
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.
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.
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.
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_PortfolioTest-covered signal library (RMS, THD, DWT, Hilbert). The measurement layer the audits stand on.
Hierarchical DGA fault diagnosis, with tested boundaries.
PV fault detection on real NREL data + injected benchmarks, honestly framed.
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 →Every finding is produced by a strict procedure built on four non-negotiables. We apply it to our own work first.
Publicly timestamped before we look at the data.
Primary public sources, with a hash captured upon download.
Open code and data, DOI-archived for persistence.
Our own errors are dated and listed, never deleted.
This is the differentiator most verification work leaves implicit. We state it directly.
A Lean proof shows a theorem follows from stated axioms. It does not show the formal statement faithfully captures the original claim.
A SHA-256 hash fixes which bytes we analyzed. It says nothing about whether the analysis of those bytes is right.
Public market data lets us reconstruct dispatch behavior. It is not a substitute for an asset's own physical instrumentation.
Reproducing a published result's numbers confirms the computation. It does not confirm the theory that motivated it.
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.
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.
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.
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.
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.
A reproducible audit report; a plain verdict (where the claim holds, where it breaks, the corrected number); the regeneration script.
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.

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.
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.
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.