Engineering Architecture Doctrine  ·  VENDOR.Max

Architecture Before Interpretation

Why VENDOR.Max Cannot Be Reduced to a Single Physical Effect

VENDOR.Max is an Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime (TRL 5–6), within classical Maxwell–Lorentz electrodynamics, implemented as a governed multilayer electrodynamic infrastructure architecture. This page is the formal engineering interpretive framework for the architecture: nine functional layers, five governance domains, three analytical levels of energy accounting, patent-office classification, regulatory positioning, and a set of formal boundaries separating the architecture from unrelated device categories.

The architecture is anchored in the patent family — ES2950176 (granted) and WO2024209235 (PCT) — and in the International Patent Classification codes assigned during patent examination.

Architectural Layers
9
Topology · Regime · Switching · Transfer · Feedback · Extraction & Conditioning · Regime Governance · Boundary Energy Governance · Boundary Accounting
Governance Domains
5
Boundary buffer · Regime · Conversion · Protection · Customer
Analytical Levels
3
Complete device boundary · Event · Discharge-gap physics
Patent Family
1 + 4 + WO
ES granted · EP / US / CN / IN pending · PCT publication
Terminology Notice

In this document, the term generator appears exclusively in its legal and patent-classification sense — as the legal title of the patent family and as a label used inside patent, trade, and regulatory classification systems. The engineering classification of the architecture is an Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics, implemented as a governed multilayer electrodynamic infrastructure architecture.

Abbreviations introduced on this page:

  • BBMS — Battery-Boundary Management System (governance of the boundary energy buffer).
  • RGS — Regime Governance System (governance of the operating regime).
  • HR-WPT — Highly Resonant Wireless Power Transfer.
Scope Notice

This page is a formal engineering interpretive framework, not an introductory explanation. Sections may partially overlap by design to ensure consistency across legal, engineering, and analytical interpretations of the architecture. The step-by-step technical walkthrough of the architecture is on the How It Works page; the evidentiary validation record is on the Technology Validation page.

Interpretation Notice

This system does not create energy and does not extract energy from the environment. Any contrary reading results from conflating the internal operating regime with the complete device boundary. Boundary-level accounting is governed at all times by classical energy conservation:

Pin,boundary = Pload + Plosses + dEstored/dt

P_in,boundary is an aggregate accounting quantity at the complete device boundary; it does not by itself imply a specific topology of continuous external supply or a single physical input port.

Canonical Definition

Definition

Engineering Class

VENDOR.Max is an Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics, implemented as a governed multilayer electrodynamic infrastructure architecture. The architecture is a composition of several long-established engineering domains — topology, nonlinear resonant regime, pulsed switching, non-galvanic inductive transfer, regulated feedback, power-electronics conditioning, adaptive supervisory control (regime governance), and boundary energy buffer governance — combined into a unified multilayer system with energy accounting at the complete device boundary. The architecture is not reducible to any single physical effect, nor to any single governance domain.

All regime-domain descriptions refer to internal electrodynamic behavior within the complete device boundary and do not constitute claims of autonomous macroscopic power generation or violations of classical conservation.

The Single-Effect Trap  ·  The Single-Domain Trap

Why classification through a single effect
or single domain does not work

Most engineering devices can be described in one phrase: “this is a transformer”, “this is a resonant converter”, “this is a switching device”. Such reduction works because a device is typically the realization of one primary physical effect in one functional role.

For VENDOR.Max, no such reduction works correctly. Each of the following statements taken alone is partially true but collapses onto one architectural layer or one governance domain:

  • “This is a Tesla-type resonant transformer.” True for the topology layer and the resonant regime layer. Does not describe the feedback function, does not describe the switching architecture, does not describe the structurally independent extraction paths, does not describe power-electronics conditioning, does not describe adaptive regime governance, does not describe boundary energy accounting.
  • “This is an HR-WPT wireless power transfer system.” True for the transfer layer and the non-galvanic coupling layer. Does not describe the oscillator topology, does not describe primary regime ignition, does not describe adaptive regime governance.
  • “This is a battery with an inverter.” True for the boundary energy governance layer (battery as buffer) and the extraction & conditioning layer. Does not describe the regime domain — topology, regime, switching, transfer, feedback, regime governance.
  • “This is an Armstrong-class oscillator.” True for the topology layer. Does not describe the switching element class, does not describe the extraction architecture, does not describe the governance-domain structure.
  • “This is a spark-gap device.” True for one layer — the switching layer. Does not describe the resonant regime, does not describe feedback, does not describe extraction, does not describe governance, does not describe boundary closure.

Each attempt to reduce the architecture to one effect or one domain leads to the same category error: a layer is mistaken for the system. The classification difficulty is not in the physics, but in the categorical structure of the engineering description.

The architecture is multi-scale by construction. Several simultaneously valid analytical boundaries and several simultaneously active governance domains exist at once. Correct interpretation requires separating the layers and governance domains, not selecting a single category.

Nine-Layer Architecture  ·  Engineering Decomposition

Nine engineering layers of the architecture

The VENDOR.Max architecture decomposes into nine functional layers. Each layer has its own engineering tradition, its own measurable quantities, its own validation methodology, and its own industrial precedents.

#
Layer
Nature
Function in the system
L1
Topology Layer
Oscillator architecture with positive feedback
System class — Armstrong-type
L2
Regime Layer
High-Q nonlinear resonant domain
Sustaining the oscillatory state
L3
Switching Layer
Controlled avalanche switching via sealed discharger
Event transfer from storage to primary winding
L4
Transfer Layer
Non-galvanic inductive coupling
Field routing between windings
L5
Feedback Layer
Regulated loop through secondary (7) and rectifiers (17/18/19)
Structurally independent redistribution to C2.1–C2.3
L6
Extraction & Conditioning Layer
DC bus, AC synthesis, waveform formation, output filter, load protection
Conversion of regime-domain output into infrastructure-grade AC
L7
Regime Governance Layer (RGS)
Adaptive control, regime-state observation, software-defined behavior
Regime orchestration, inverter coordination, operational stability
L8
Boundary Energy Governance Layer (BBMS)
Battery-buffer management, transient stabilization, startup reservoir
Governance of the boundary energy buffer
L9
Boundary Accounting Layer
Calibrated energy accounting at the complete device boundary
Closure of the balance under classical conservation
Diagram showing the nine engineering layers of the VENDOR.Max architecture as a governed electrodynamic infrastructure system. The visualization maps established industrial engineering domains including Armstrong RF oscillators, CERN RF resonator cavities, Marx generators, wireless EV charging systems, laser resonators, industrial inverter racks, adaptive grid control systems, industrial UPS battery cabinets, and IEC metrology laboratories into a single multilayer infrastructure architecture operating within classical electrodynamics.
VENDOR.Max architectural decomposition into nine established engineering domains: resonance, switching, wireless transfer, power conditioning, adaptive governance, buffering, and calibrated boundary metrology.

Each layer is a self-contained functional unit. Layers cannot substitute for one another and cannot be reduced to one another.

Important observation about levels of abstraction. Topology ≠ regime ≠ switching mechanism ≠ transfer method ≠ power electronics ≠ regime governance ≠ buffer governance. These are different categorical levels, not different degrees of the same thing. Armstrong is the name of a topology class. Avalanche breakdown is a physical switching mechanism. RF is a frequency range. Inverter is a power-electronics conversion stage. BBMS is boundary buffer governance. RGS is regime supervisory orchestration. Conflating these levels is the primary source of imprecise interpretation.
Semantic clarification for patent-context terminology. In the patent description, tertiary winding (10) is defined as a path for energy remaining available to the load path after regime-maintenance requirements within the operating window have been satisfied. This describes the functional role of a third structurally independent extraction path, not energy creation, not an additional energy source, and not a violation of device-boundary energy conservation. All three windings (4, 7, 10) are structurally independent paths coupled to the primary field of transformer (5), not a priority hierarchy of “primary” versus “secondary” energy sources.
Semantic clarification for the role of the battery. In the VENDOR.Max architecture, the 9 V battery cell performs the function of a boundary energy buffer: a single startup ignition event of the operating regime (~0.015 Wh, 10–15 seconds), after which the battery port is disconnected. The battery provides only the startup energy (~0.015 Wh, one-time) and is not a source of operating power or load power. Layer L8 (BBMS) governs exactly this buffer function — startup reservoir, transient stabilization, operating-window support — but does not explain regime behavior as such. The regime domain (L1–L5) and regime governance (L7) are separate analytical entities, independent of boundary buffer governance.
Existing Engineering Traditions Per Layer

Industrial precedents for each layer

Each of the nine layers of the architecture has a long engineering tradition in classical electrical engineering, in power electronics, in adaptive control, or in infrastructure-grade energy systems. The list below names recognized industrial precedents existing in commercial production, in standards, and in research infrastructure.

L1 — topology precedents

Self-oscillating circuits with positive feedback are a fundamental class of RF engineering. The Armstrong topology was introduced by Edwin Armstrong in 1912 at Columbia University and has been implemented in radio transmitters, signal generators, and frequency converters for more than a hundred years. Related topologies — Hartley (1915), Colpitts (1918), Van der Pol — form the common canonical set.

L2 — resonant regime precedents

Magnetrons (microwave resonant cavities, the basis of radar since the 1940s), klystrons (resonant cavities with electron beam bunching, the basis of satellite communications and medical accelerators), Tesla coils, RF resonant cavities in particle accelerators (field storage in standing modes with Q factors up to 10⁹–10¹⁰).

L3 — controlled switching precedents

Ignitrons and thyratrons — controlled gas-discharge switches in industrial pulse sources since the 1930s. Marx generators — cascade pulse sources with spark gaps. Blumlein lines. Z-pinch — large pulsed plasma regimes in research laboratories. Pulsed plasma ignition — a standard automotive and aerospace solution.

L4 — non-contact transfer precedents

HR-WPT — a recognized commercial category since 2007, following the MIT publication led by Marin Soljačić in Science 317:83–86. Commercial implementations — MIT spin-out WiTricity, Finland-based Willo Technologies, Electreon (dynamic wireless charging), Wireless Power & Communication AS (offshore), Solace Power. Standards — AirFuel Resonant, IEC 61980 series, SAE J2954.

L5 — feedback and redistribution precedents

Laser resonators — regime sustaining through population inversion and mirror feedback. Masers. Traveling Wave Tubes (TWT) — devices used in satellite communications, radars, and military radio. Parametric amplifiers with phase-controlled energy redistribution between modes. Superconducting RF cavities at CERN.

L6 — power-electronics conditioning precedents

Industrial inverters (utility-scale, string, microinverter, central). Online double-conversion UPS systems (Schneider APC, Eaton, Vertiv) — DC bus, AC synthesis, output filter. Grid-tie conditioners. Variable Frequency Drives (VFD) — ABB, Siemens, Yaskawa, Danfoss. Distributed Energy Resources (DER) converters. Solar inverters (SMA, Fronius, SolarEdge, Huawei FusionSolar). Industrial AC synthesis is a fully institutionalized power-electronics segment with its own standards (IEC 62109, IEEE 1547, UL 1741) and its own OEM licensees.

L7 — regime governance precedents (adaptive supervisory control)

Grid-forming inverters (Tesla Megapack, Hitachi Energy SPC, GE Vernova). Virtual Synchronous Machines (VSM) — emulation of rotational inertia in power electronics. Microgrid orchestration systems (Schneider Electric EcoStruxure, Siemens Spectrum Power). Adaptive DER controllers. Smart UPS control stacks with predictive load adaptation. Huawei Digital Power, Siemens Digital Industries, ABB Ability — software-defined power architectures. The contemporary trend: the transition from passive power electronics to software-governed adaptive infrastructure. Corresponding approaches are actively discussed and developed within IEEE PES, CIGRE, and EPRI.

L8 — boundary energy governance precedents (BBMS class)

Tesla Powerwall, BYD Battery-Box, LG ESS — battery management systems. Aviation Auxiliary Power Unit (APU) bus stabilization — Honeywell, Pratt & Whitney. Fly-by-wire power buffering — Airbus, Boeing. UPS battery management. EV pack BMS (Tesla, Lucid, Rivian, BYD). Industrial UPS battery governance — Schneider, Eaton. Key characteristic of the entire BBMS class: a buffer at the device boundary is not a source of operating power or load power, but a transient stabilizer, startup reservoir, and operating-window support. This is an engineering category with its own literature, its own standards (IEC 62619, UL 1973), and its own certification infrastructure.

L9 — boundary accounting precedents

Calorimetric characterization — DOE standard for measuring total energy dissipation. Phase-aware true-RMS power metrology — the basis of accredited laboratories under the IEC 61000 series. Cumulative integration over an extended window. WPT certification (IEC 61980, SAE J2954). EMC certification (IEC 62311, FCC Part 18).

Summary. Each of the nine layers is accepted classical engineering, in some cases representing the maturing frontier of industrial power electronics (L6, L7) or battery infrastructure (L8). None of them is exotic physics. None of them is a departure from Maxwell–Lorentz. The architectural contribution of VENDOR.Max is the composition of these layers into a unified governed multilayer infrastructure architecture, not the discovery of a new layer.

Five Governance Domains  ·  Domain-Level Ontology

Five governance domains of the architecture

In addition to the nine functional layers, the VENDOR.Max architecture has a horizontal governance structure: five distinct domains of control, each with its own set of responsibilities and its own engineering apparatus. This domain-level ontology is the formal signature of VENDOR.Max being an infrastructure architecture, not a device.

Domain
Responsibility
Layers covered
Boundary buffer governance
Energy availability, buffering, startup reservoir, transient stabilization
L8 (BBMS)
Regime governance
Nonlinear electrodynamic stability, operating-window orchestration, adaptive feedback control
L7 (RGS)
Conversion governance
Waveform synthesis, AC conditioning, output filter, customer-side power delivery
L6
Protection governance
Fault isolation, damping, transient suppression, boundary protection
Cross-cuts L6/L7/L8
Customer governance
Output adaptation, isolated AC delivery, synchronization, protected output
L6 → external load

Key architectural consequences of the domain-level ontology.

First

The customer never interacts with the regime domain directly. The customer interacts only with the conditioned output domain (L6 → external load). The regime domain (L1–L5) and regime governance (L7) are internal electrodynamic layers, isolated from the external load interface through conversion governance (L6).

Second

The battery is never a source of operating power or load power. Boundary buffer governance (L8 / BBMS) is the management of the boundary energy buffer. Powerwall, UPS, EV pack, aviation APU — all of these are buffers at the system boundary, not sources of operating power. The same holds for batteries in the VENDOR.Max architecture: startup energy (~0.015 Wh) is provided one-time, after which the port is disconnected; operating power and load power are established through the regime domain and subsequently conditioned through L6 conversion governance.

Third

Regime governance is separate from conversion governance. The contemporary industrial trend (Tesla, Siemens, ABB, Schneider, Huawei Digital Power) is the transition from passive power electronics to software-governed adaptive infrastructure. VENDOR.Max is on this frontier: regime governance (L7) is adaptive supervisory control over the operating regime state, not classical power electronics.

Fourth

This is no longer just a physics discussion. This is systems engineering, cybernetics, adaptive control theory, power orchestration, nonlinear regime stabilization. The architectural analogy is contemporary aviation electrical architecture (APU + bus stabilization + fly-by-wire + power routing + transient buffering): several simultaneously active governance layers.

Canonical Interpretation Framework  ·  Three Scales

Three-Level Energy Model

The energetic behavior of the architecture is described at three distinct levels. Each level operates at a different scale — boundary, event, and discharge gap — and each is self-contained within its scope. Conservation at Level 1 applies unconditionally at all times.

Level 1 · Boundary Energy Conservation

Governing law at the complete device boundary

Scope: complete device boundary, at all times
\[ P_{\text{in,boundary}} \;=\; P_{\text{load}} \;+\; P_{\text{losses}} \;+\; \frac{dE_{\text{stored}}}{dt} \]

Classical energy conservation at the complete device boundary, at all times. Pin,boundary is an aggregate accounting quantity, not a topology statement: it does not imply a specific input port or a continuous external feed. This is the governing constraint of the architecture; it holds unconditionally in every operational state.

Level 2 · Event Energy Partition

Discrete accounting per discharge event

Scope: one discharge event (impulse cycle)
\[ E_{\text{event}} \;=\; E_{\text{secondary,event}} \;+\; E_{\text{tertiary,event}} \;+\; E_{\text{loss,event}} \]

Within a single discharge event, the energy partitions into two parallel inductive extraction branches and dissipative loss: the secondary-winding branch for regime-sustaining feedback, the tertiary-winding branch for delivery to the load through conversion governance (L6), and internal loss. The two extraction branches are coupled independently to the same shared electromagnetic field; neither is downstream of the other.

Level 3 · Discharge Regime Physics

Microscopic carrier-multiplication process

Scope: discharge-gap physics inside the sealed switching unit
\[ n(x) \;=\; n_{0} \cdot \exp(\alpha \cdot x) \]
\[ P_{\text{avg}} \;=\; E_{\text{event}} \cdot f \cdot N \]

Carrier multiplication across the sealed gap follows Townsend's exponential law, where α is the Townsend ionization coefficient. The canonical bridge to Level 1 uses the event repetition rate f and the number of parallel discharge channels N (patent claim 5, N ≥ 3): Pavg = Eevent · f · N. Microscopic gap conditions are protected as engineering know-how at TRL 5–6; boundary-level accounting closes independently of microscopic gap physics.

Reading rule for the three levels. Level 1 is the governing conservation law and applies at all times. Level 2 describes how energy partitions within a single discharge event across the secondary, tertiary, and loss paths. Level 3 describes the microscopic physics. Cross-level collapse is a category error.
Three Resonant Paths  ·  Patent-Anchored Topology

Three resonant paths — one governed architecture

The classification as an Armstrong-type nonlinear electrodynamic oscillator follows from a specific three-winding topology documented in the patent claims. Each path plays a distinct architectural role at layers L1–L5, and the combination of the three is what defines the engineering class.

Path 1 · Primary winding

Regime-forming path

Three storage capacitors (C2.1, C2.2, C2.3) are coupled to three sealed dischargers connected in parallel with overlapping but shifted frequency spectra (1–20 kHz relative shift, patent claim 5). The primary winding is executed as a flat coil with a circuit resonance frequency of 2.45 MHz (patent claim 3). This path forms the operating regime through controlled discharge, consistent with discharge-carrier multiplication mechanisms commonly associated with Townsend-type behavior.

Architectural role
  • Regime initiation and oscillation formation
  • Carrier multiplication inside the sealed switching unit
  • Primary resonance at 2.45 MHz via flat-coil topology
Path 2 · Secondary winding

Output-extraction path with feedback

The high-voltage secondary winding with a parallel-connected capacitor forms a resonant circuit. Through a rectifier array (three diode rectifiers corresponding to the three storage capacitors), this path establishes the regulated feedback that supports regime operation after the startup impulse has been disconnected. This is one of the defining topological features associated with the Armstrong-type oscillator class.

Architectural role
  • Regime maintenance after startup disconnection
  • Internal energy return to the capacitive nodes via the regulated feedback path
  • One of the defining topological characteristics associated with Armstrong-type oscillator architectures
Path 3 · Tertiary winding

Load path (through L6 conversion governance)

The tertiary winding with a parallel capacitor forms a third resonant circuit. Via a diode-bridge rectifier (patent claim 4), this path feeds the input of layer L6 (extraction & conditioning). Customer-facing power delivery is governed by the full L6 conversion stack, not by the tertiary winding directly: DC bus → inverter → waveform formation → output filter → load protection. The tertiary path is topologically a parallel inductive extraction branch from the same shared electromagnetic field and is not downstream of the feedback path.

Architectural role
  • Interface between the regime domain and L6 conversion governance
  • Parallel extraction from the shared field, independent of the feedback path
  • Diode-bridge rectification per patent claim 4

The topology above is the one claimed in patent ES2950176 (granted, Spain) and in WO2024209235 (PCT).

What This Architecture Is Not  ·  By Category

Six device categories VENDOR.Max does not belong to

Classification by exclusion is as important as classification by inclusion. The six cards below enumerate the categories VENDOR.Max is most often compared to, and explain why each comparison is technically incorrect.

Boundary 1

Not a conventional generator

No mechanical rotation, no rotor, no stator, no shaft. No thermodynamic cycle. No fuel combustion. No chemical-to-electrical conversion stage. The patents use the term “generator” in its legal patent-office sense.

Boundary 2

Not a battery or accumulator — and the battery is not a source of operating power

No electrochemical storage in the operating core. No galvanic cells in the regime domain. The 9 V battery cell provides only startup ignition (~0.015 Wh, ~15 seconds) and is disconnected once the regime is established. The battery is a buffer in L8 BBMS; it provides the startup energy one-time and is not a source of operating power or load power. This is the same role that buffer batteries play in Powerwall, UPS, EV pack, and aviation APU. Boundary buffer governance (L8) is buffer management, not operating-source provision.

Boundary 3

Not a capacitor or supercapacitor

The capacitive nodes (C2.1–C2.3) are regime elements, not the device function. Active oscillatory operation, not passive charge storage. Energy is delivered to the load through the discharge-driven regime and through the full L6 conversion governance, not from accumulated static charge.

Boundary 4

Not a fuel cell

No electrochemical reaction, no catalyst layer. No consumable reagent stream. No membrane-electrode assembly. No direct atmospheric intake or reagent coupling.

Boundary 5

Not a passive transformer

The three-winding topology includes a discharge-driven nonlinear regime. Not passive AC-to-AC transformation by fixed ratio. Regime formation via controlled discharge is architecturally essential. Classified under IPC H03K 3/537 (spark-gap discharge), not under passive magnetics.

Boundary 6

Not a photovoltaic or harvesting device

No photon absorption, no semiconductor p–n junction. No ambient RF, thermal, mechanical, or photonic harvesting. No dependence on external radiation flux.

Canonical Assertions  ·  Used Across All Documentation

Six assertions that define the class of the architecture

01

System Class

Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics, implemented as a governed multilayer electrodynamic infrastructure architecture.

02

System Type

Open electrodynamic system with energy exchange across a defined device boundary. Not a closed system; boundary accounting is governed by classical energy conservation at all times.

03

Boundary ≠ Regime

The device boundary and the operating regime are analytically distinct. Boundary-level accounting (L9, Level 1 of the Three-Level Energy Model) applies unconditionally to the complete device at every state.

04

Startup ≠ Boundary Input

The startup impulse is a one-time ignition event (≈15 seconds, 9 V battery, ~0.015 Wh). It is distinct from P_in,boundary, which is the aggregate accounting quantity at the complete device boundary at all times. The startup impulse is governed by L8 (BBMS) as a one-time function of the buffer reservoir.

05

Battery ≠ Operating Source

The battery cell in the architecture is a buffer at the device boundary, governed by layer L8 (BBMS). Boundary buffer governance is buffer management, not operating-source provision. The battery provides the startup energy (~0.015 Wh) one-time and is not a source of operating power or load power. The regime domain (L1–L5) and regime governance (L7) are separate analytical entities, independent of boundary buffer governance.

06

Feedback Path: Boundary-Relative

The regulated feedback path from the secondary winding to the capacitive nodes is external relative to the regime-forming path (where it acts as the sustaining input after startup) and internal relative to the complete device boundary (where it is internal redistribution within the system). Both attributions are simultaneously true and refer to different boundary frames.

Why One Test Cannot Validate Everything

Why validation requires multiple methodologies

The nine-layer structure has a direct methodological consequence: the architecture cannot be validated by one methodology. Each layer belongs to its own engineering category and requires its own characterization method.

Layer
Validation type
Applicable standard
L1 — topology
Topological configuration analysis
Standard oscillator theory
L2 — regime
Spectral analysis, frequency stability
RF metrology, spectrum analyzers
L3 — switching
Impulse characterization, event oscillography
Pulsed power test protocols
L4 — transfer
Efficiency × distance × power
IEC 61980, SAE J2954, AirFuel Resonant
L5 — feedback
Stability analysis, phase coherence
Loop stability analysis
L6 — extraction & conditioning
AC waveform quality, harmonic distortion, output regulation
IEC 62109, IEEE 1547, UL 1741
L7 — regime governance
Adaptive control validation, regime tracking, fault response
IEC 61131, control system audit
L8 — BBMS
Battery management compliance, transient performance
IEC 62619, UL 1973
L9 — boundary
Active power, calorimetry, cumulative integration
IEC 61000 series, IEC 62311

Attempting to validate the architecture through a single measurement — for example, with a household multimeter at the output terminals — is a category error no smaller than attempting to validate an aircraft by a single wing-length parameter.

The full validation record, operating hours, endurance test protocol, and roadmap to TRL 9 are on the Technology Validation page.

Supporting Formal Layer  ·  Patent Office Records

Patent classification

The VENDOR.Max architecture has been assigned during patent examination under four branches of the International Patent Classification: H02M (apparatus for electric power conversion), H02P (control of converters and transformers), H02J (electric power networks), H03K (pulse technique).

Most Specific Code
H03K 3/537
Generators characterised by the type of circuit or by the means used for producing pulses, by the use of an energy-accumulating element discharged through the load by a switching device controlled by an external signal, the switching device being a spark gap.
Patent Family

Six jurisdictions, one invention

Priority date across the family is 5 April 2023. Anticipated expiration of the granted Spanish patent is 5 April 2043.

  • ES2950176B2
    Spain (OEPM)
    14 March 2024 Granted
  • WO2024209235A1
    PCT (WIPO)
    10 October 2024 Published
  • EP4693872A1
    European Patent Office
    11 February 2026 Pending Examination
  • US20260088633A1
    United States (USPTO)
    26 March 2026 Pending Examination
  • CN119096463A
    China (CNIPA)
    6 December 2024 Pending Examination
  • IN 202547010911
    India
    10 February 2025 National phase entered

Full patent family documentation is on the Patent Portfolio page.

Three Regulatory Frameworks  ·  CE · UL · HS

Regulatory classification

The VENDOR.Max architecture falls under three regulatory frameworks: EU CE marking directives, US UL certification standards, and international trade classification under the Harmonized System. No CE or UL mark has been issued at this stage; certification is part of the planned pathway to TRL 8.

EU · CE Pathway

Applicable European Directives

Applicable
  • LVD 2014/35/EU
    Low Voltage Directive
    Applies
  • EMCD 2014/30/EU
    Electromagnetic Compatibility Directive
    Applies
  • RoHS 2011/65/EU
    Restriction of Hazardous Substances
    Applies
Subject to notified-body / lab scoping
  • RED 2014/53/EU
    Radio Equipment Directive — final applicability to be determined in light of the system's low-frequency resonant regime (2.45 MHz) and its proximity to WPT standards; engagement with a notified body will clarify whether the architecture falls under the scope of RED, under separate WPT standards, or under a combination.
    Scoping
Out of scope
  • Machinery 2006/42/EC
    Machinery Directive — no moving parts
    Out of scope
  • ATEX 2014/34/EU
    Explosive atmospheres directive
    Out of scope
US · UL Pathway

Anticipated US Certification Pathway

Anticipated primary standard
  • UL 1741
    Inverters, Converters, Controllers, and Interconnection System Equipment for use with Distributed Energy Resources
    Anticipated
Anticipated supporting standards
  • IEEE 1547
    Interconnecting Distributed Resources with Electric Power Systems
    Supporting
  • IEEE 1547.1
    Conformance Test Procedures for IEEE 1547
    Supporting
  • NFPA 70
    National Electrical Code — installation requirements
    Supporting
Trade · Proposed HS Heading
HS 8504.40
Static converters — under harmonized heading 8504 (electrical transformers, static converters, and inductors).
Semantic Firewall  ·  Negation Layer

What VENDOR.Max does not claim

  • VENDOR.Max is not a “free energy” device, an “overunity” device, a “perpetual motion” device, or a violation of the law of conservation of energy. The energy balance is evaluated at the complete device boundary under classical conservation; the internal feedback loop is redistribution within the regime domain.
  • VENDOR.Max does not operate outside classical electrodynamics. All physical mechanisms — Faraday induction, Coulomb electrostatics, LC exchange, rectification, Townsend avalanche — are standard classical electrodynamics described in undergraduate-level textbooks.
  • VENDOR.Max is not positioned as a self-powered or self-sustaining device under definitions implying the absence of boundary-crossing flows. A persistent operating regime inside the electrodynamic domain must not be conflated with a closed or autonomous macroscopic energy system. Energy accounting is performed at the complete device boundary through the macroscopic term P_in,boundary, which is an aggregate accounting quantity.
  • The battery cell in the architecture is not a hidden source of operating power. The battery functions as a buffer in layer L8 (BBMS) — startup reservoir (~0.015 Wh, one-time), transient stabilizer, operating-window support. This is consistent with boundary-buffer roles common in UPS and energy-storage systems. Boundary buffer governance is buffer management, not operating-source provision.
  • VENDOR.Max does not extract energy from ambient air, vacuum, or ether. The surrounding medium participates as a working and coupling medium in an open electrodynamic system, not as an energy source.
  • VENDOR.Max is not a certified commercial product and has no regulatory-normalized output specifications. The current status is TRL 5–6.
  • VENDOR.Max is not based on new physics and does not require revision of existing theoretical frameworks. The architectural contribution is at the level of composition of existing engineering domains.
  • VENDOR.Max is not positioned as a replacement for existing participants in the HR-WPT segment or the power-electronics segment. WiTricity, Willo, the AirFuel ecosystem, Tesla Megapack, Siemens, ABB, Schneider, Huawei Digital Power — these are reference points within adjacent standards ecosystems. Architectural overlap with these reference points does not imply existing commercial or contractual relationships.
Canonical Closure  ·  Architecture-First Doctrine

Architecture — before interpretation

Final Formula

VENDOR.Max is not based on one effect, is not reducible to one governance domain, and is not explained by any single component. VENDOR.Max is a governed multilayer electrodynamic infrastructure architecture combining nine engineering layers and five governance domains into a unified system: Armstrong-type oscillator topology · nonlinear resonant regime · controlled avalanche switching via sealed discharger · non-contact HR-WPT-category resonant extraction topology · structurally independent feedback loop to C2.1–C2.3 · power-electronics extraction & conditioning · adaptive regime governance (RGS) · boundary energy governance (BBMS) · boundary energy accounting.

Each layer belongs to a recognized engineering tradition. The composition is the engineering contribution, structured for validation within existing metrology standards in the corresponding categories.

This is not a claim of new physics. It is a claim of a new architectural composition within known physics — at a moment when the industry is structurally ready for such extensions through the transition from passive power electronics to software-governed adaptive infrastructure.

VENDOR.Max is not a single electrodynamic effect. It is a governed multilayer electrodynamic infrastructure architecture.

Architecture — before interpretation.

Where The Evidence Lives

Classification is not validation

This page is a structural record: what VENDOR.Max is, how it is categorized, and under which frameworks it operates. The evidentiary record — operating hours, physics compliance, IP portfolio in depth, safety monitoring, and the full TRL roadmap — is documented on the parent Technology Validation page.

Classification answers “what this is.” Validation answers “what has been measured.”

Validation Stage
TRL 5–6
The full evidentiary record — operational hours, physics compliance, IP portfolio, safety monitoring, and the TRL roadmap through TRL 9 — lives on the parent Technology Validation page.
Open Technology Validation
Direct Answers  ·  Architecture Classification

Direct answers about the architecture

Is VENDOR.Max a “free energy” device?

No. The energy balance is evaluated at the complete device boundary under classical conservation. The internal feedback loop through the secondary winding (7) is structurally independent redistribution within the regime domain.

Is the battery a source in the architecture?

No. The 9 V battery cell is a boundary buffer governed by layer L8 (BBMS). Its function is the startup reservoir (~0.015 Wh, ~15 seconds), after which the battery port is disconnected. This is consistent with buffer roles common in UPS and energy-storage systems. The battery is not a source of operating-regime power or load power.

Where is the input boundary of the regime?

The true input boundary of the operating regime is the capacitive nodes C2.1–C2.3, not the battery port. After startup, the BMS (part of RGS — L7) takes over regulation through the structurally independent return path from the secondary winding (7) via rectifiers (17, 18, 19) back to C2.1–C2.3. P_in,boundary at the complete device boundary is an aggregate accounting quantity. This distinction does not alter boundary-level conservation accounting for the complete device.

Why can't the architecture be described by one effect?

Because the architecture is a composition of nine functional layers and five governance domains from different engineering traditions. Reduction to one effect or one domain leads to a category error: a layer is mistaken for the system.

How does VENDOR.Max differ from a WiTricity, Willo, or Tesla Powerwall device?

WiTricity and Willo are HR-WPT systems (covering only layer L4 in the VENDOR.Max architecture). Tesla Powerwall is battery storage with an inverter (covering only L6 + L8). VENDOR.Max includes HR-WPT-category resonant extraction (L4), conversion governance (L6), and boundary buffer governance (L8) as separate layers, plus the unique composition of L1–L3 (topology + regime + switching) and L7 (RGS). This is a multilayer power-node architecture, not one of its components.

WiTricity, Willo, Tesla, Siemens, Schneider are standards-ecosystem peers. Architectural overlap does not imply existing commercial or contractual relationships.

What are RGS and BBMS?

RGS — Regime Governance System, layer L7. Adaptive supervisory control over the operating regime — regime-state observation, inverter coordination, operational stability, software-defined behavior. Prior-art category: grid-forming inverters, virtual synchronous machines, microgrid orchestration.

BBMS — Battery-Boundary Management System, layer L8. Management of the boundary energy buffer — startup reservoir, transient stabilization, operating-window support. Prior-art category: Tesla Powerwall, UPS battery management, aviation APU.

Which standard applies for the validation of VENDOR.Max?

The architecture requires a combination of nine validation methods, one per layer. See the layered validation table above.

Continue the Record  ·  Related Pages

Where classification connects to evidence

Evidence

Technology Validation

Four-pillar evidence record for TRL 5–6: operational hours, physics compliance, IP portfolio, and safety monitoring, with the full roadmap through TRL 9.

Open the validation record
Evidence

Endurance Test Protocol

Full protocol for the 1,000+ hour endurance test: instrumentation, calibration, data capture, timestamps, and logged environmental conditions.

Read the protocol
Intellectual Property

Patent Portfolio

Complete patent family documentation: granted patent in Spain, PCT application, and pending national-phase applications in the EU, United States, China, and India.

View the full portfolio
Intellectual Property

Certification Roadmap

The planned CE and UL certification pathway from TRL 6 to TRL 8, including notified-body engagement, conformance testing, and pre-commercial deployment gates.

See the roadmap
Products

VENDOR.Max

Product page for the Armstrong-type oscillator architecture classified on this page. Specifications, deployment envelope, and engineering parameters.

Open the product page
How It Works

How solid-state power systems work

Step-by-step walkthrough from the Armstrong-type oscillator topology to the complete operating regime: startup impulse, regulated feedback path, and boundary-level energy accounting.

Read how it works
Applications

Utility & Water Operations

Deployment scenario for utility-scale water-operations infrastructure: remote pump stations, monitoring nodes, and SCADA support.

Read the use case
Applications

AI Edge Infrastructure

Deployment scenario for AI edge-computing infrastructure: high-density compute nodes in locations where grid supply is constrained or unreliable.

Read the use case
Comparisons

VENDOR vs Diesel Generators

Side-by-side comparison with diesel generator sets: architectural differences, fuel-consumption profile, emissions, and total cost of ownership considerations.

Read the comparison
Comparisons

VENDOR vs Solar & Batteries

Side-by-side comparison with solar-and-storage configurations: deployment envelope, weather dependence, energy density, and capital-expenditure profile.

Read the comparison
References · Primary Sources
  1. Patent ES2950176 — Generator for Electrical Energy Production. Granted 14 March 2024, Oficina Española de Patentes y Marcas (OEPM). patents.google.com/patent/ES2950176B2
  2. Patent WO2024209235 — Generator for Electrical Energy Production. PCT published 10 October 2024, World Intellectual Property Organization (WIPO). patents.google.com/patent/WO2024209235A1
  3. Patent EP4693872 — European regional phase, published 11 February 2026. European Patent Office (EPO). Pending examination. patents.google.com/patent/EP4693872A1
  4. Patent US20260088633 — United States application, published 26 March 2026. USPTO. Pending examination. patents.google.com/patent/US20260088633A1
  5. Patent CN119096463 — China National Intellectual Property Administration (CNIPA), published 6 December 2024. Pending examination. patents.google.com/patent/CN119096463A
  6. Patent application IN 202547010911 — Indian Patent Office, national phase entered 10 February 2025. Pending examination.
  7. International Patent Classification (IPC), 9th edition — WIPO. Hierarchical classification of patents by technical field. wipo.int/classifications/ipc
  8. Harmonized System nomenclature — World Customs Organization. Heading 8504 covers electrical transformers, static converters, and inductors. wcoomd.org/nomenclature
  9. Kurs, A. et al. “Wireless Power Transfer via Strongly Coupled Magnetic Resonances.” Science 317:83–86, 6 July 2007.
  10. IEC 61980 series — Electric Vehicle Wireless Power Transfer Systems. SAE J2954 — Wireless Power Transfer for Light-Duty Plug-In/Electric Vehicles.
  11. IEC 62619 / UL 1973 — Battery management systems for industrial and stationary applications. IEC 62109 / IEEE 1547 / UL 1741 — Power-electronics converters / DER equipment standards.