Engineering Identity  ·  VENDOR.Max

Architecture Before Interpretation

What VENDOR.Max Is — and Why It 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. This page is the canonical engineering interpretive framework for the architecture: the three-winding resonant topology, the central resonant regime-management stage, the three analytical levels of energy accounting, the boundary doctrine, the patent-office classification, the regulatory positioning, and the formal boundaries that separate the architecture from unrelated device categories.

The architecture is anchored in the patent family — ES2950176B2 (granted) and WO2024209235A1 (PCT) — and in the International Patent Classification codes assigned during examination.

Engineering Class
1912
Armstrong-type oscillator · nonlinear electrodynamic · controlled discharge-resonant regime
Resonant Paths
3
Primary regime-forming · secondary feedback · tertiary extraction
Analytical Levels
3
Complete device boundary · event partition · 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 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.

Abbreviations used on this page:

  • BBMS — Battery Boundary Management System: boundary buffer governance for startup, transient stabilization, and operating-window support; not an energy source.
  • HR-WPT — Highly Resonant Wireless Power Transfer.
  • C2.1–C2.3 — the three capacitive regime nodes of the regime-forming path.
Scope Notice

This page answers one question: what VENDOR.Max is as an engineering object — its classification, not its operating process and not its validation record. The step-by-step technical walkthrough of the operating regime 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 = Pcustomer + Plosses + dEstored/dt

Pin,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. The architecture is a composition of several long-established engineering domains — oscillator topology, nonlinear resonant regime, pulsed discharge switching, non-galvanic inductive transfer, regulated feedback, power-electronics conditioning, active regime control, and boundary energy buffering — integrated into one system with energy accounting at the complete device boundary. It is not reducible to any single physical effect. It is positioned in the infrastructure continuity layer.

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.

Diagram classifying VENDOR.Max as an Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics, presented as an integration of established engineering domains rather than a single physical effect.
VENDOR.Max classified as an Armstrong-type nonlinear electrodynamic oscillator in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics — an integration of established engineering domains, not a single physical effect.
Three Resonant Paths  ·  Patent-Anchored Topology

Three resonant paths — one governed architecture

Most engineering devices can be named in one phrase — “this is a transformer,” “this is a resonant converter” — because a device is usually the realization of one primary physical effect in one role. For VENDOR.Max no such reduction is correct. Each of the following statements is partially true but describes only one aspect of the architecture:

  • “This is a Tesla-type resonant transformer.” True for the primary resonant regime. Does not describe the regulated feedback, the discharge switching, the structurally independent extraction path, output conditioning, or boundary accounting.
  • “This is an HR-WPT wireless power transfer system.” True for the non-galvanic inductive transfer. Does not describe the oscillator topology, regime ignition, or the central resonant stage.
  • “This is a battery with an inverter.” True for boundary buffering and output conditioning. Does not describe the regime-forming path — topology, regime, switching, transfer, feedback.
  • “This is an Armstrong-class oscillator.” True for the topology. Does not describe the switching-element class, the extraction architecture, or the boundary accounting.
  • “This is a spark-gap device.” True for the switching element only. Does not describe the resonant regime, feedback, extraction, or boundary closure.

The classification as an Armstrong-type nonlinear electrodynamic oscillator follows from a specific three-winding topology documented in the patent claims. Each of the three resonant paths plays a distinct architectural role, and the combination of the three — not any one of them — defines the engineering class. The process by which they operate together is described on the How It Works page; here the concern is architectural belonging.

Path 1 · Primary winding

Regime-forming path

Three storage capacitors (C2.1, C2.2, C2.3) drive three sealed dischargers connected in parallel with overlapping but shifted frequency spectra (1–20 kHz relative shift, patent claim 5). The primary winding is a flat coil with a circuit resonance of 2.45 MHz (patent claim 3). This path forms the operating regime through controlled discharge, consistent with the pre-breakdown carrier-multiplication framework of the patent baseline (Townsend-type conductivity transition).

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

Feedback path — the central resonant stage

The high-voltage secondary winding (7) with a parallel capacitor (8) forms a resonant circuit. Through the rectifier array (17, 18, 19) it returns regulated energy to the capacitive regime nodes C2.1–C2.3, sustaining the excitation cycle after the startup impulse is disconnected. This secondary resonant circuit is the central energy-management stage of the architecture and is one of the defining topological features of the Armstrong-type oscillator class.

Architectural role
  • Regime maintenance after startup disconnection
  • Regulated energy return to C2.1–C2.3
  • Central resonant energy-management stage of the architecture
Path 3 · Tertiary winding

Extraction path (through output conditioning)

The tertiary winding (10) with a parallel capacitor (11) forms a third resonant circuit. Through a diode-bridge rectifier (patent claim 4) it feeds the customer-side conditioning chain: DC bus → power-electronics conditioning → output filter → customer AC. The tertiary path is a parallel inductive extraction branch from the same shared electromagnetic field; it is not downstream of the feedback path.

Architectural role
  • Interface between the regime domain and output conditioning
  • 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 ES2950176B2 (granted, Spain) and in WO2024209235A1 (PCT). At the patent-component level the secondary (7) and tertiary (10) windings are structurally independent resonant circuits coupled in parallel to the same primary field; neither is downstream of the other.

Central Resonant Stage  ·  Why the Regime Exists

The central resonant energy-management stage

The three-winding topology names the parts. It does not, by itself, explain why an operating regime exists at all. That is the role of the central resonant stage — the single most important element of the architecture for correct interpretation.

Central Resonant Energy-Management Stage

The secondary resonant circuit — high-voltage winding (7) with its parallel capacitor (8) — is the central energy-management stage of the architecture. It accumulates energy coupled through the shared electromagnetic field and governs its synchronized redistribution between the device circuits.

The operating regime is conditional by construction: it exists only while the resonance-synchronization conditions of this stage are satisfied, and it decays outside them. A conditional regime is not a closed autonomous macroscopic energy system; it remains subject to boundary-level accounting and operating-window control.

Two-level reading rule. At the patent-component level, the secondary (7) and tertiary (10) windings are structurally independent resonant circuits coupled in parallel to the same primary field. At the regime level, the quantity and quality of power available at the tertiary extraction path are governed by this central resonant stage together with the pre-breakdown field state of the sealed dischargers and the frequency-engineered planar primary coil. These are two descriptions of one physics at two analytical levels; collapsing them into a single linear chain is a category error.
The timing and frequency logic of this stage is protected engineering know-how and is not disclosed. What is stated here is the architectural role, not the implementation.
Open-System Boundary Doctrine  ·  Three Clauses

The boundary doctrine

VENDOR.Max is an open electrodynamic system by boundary definition. “Open” here is not a metaphor — it is a boundary statement with measurable consequences. The doctrine has three clauses that travel together.

Pin,boundary = Pcustomer + Plosses + dEstored/dt
Clause A · Inside the boundary

Closure is physically enforced

Within the complete device boundary, energy accounting closes at every operational state. A sustained imbalance is not an available operating condition: it would manifest as regime runaway or regime decay. The BBMS enforces the stability window precisely because closure is mandatory — so stable long-duration operation is itself consistent with balanced boundary-level accounting.

Clause B · Across the boundary

Identification is a metrology question

Identifying and quantifying the flows that cross the complete device boundary is the subject of independent boundary metrology under accredited protocol — the TRL 6 validation milestone. No statement on this page pre-empts what that metrology will find, in either direction.

Clause C · Implementation

Disclosure is staged

The engineering means by which the architecture organizes its regime and its boundary flows are protected know-how, subject to controlled disclosure within the TRL 8 certification pathway. Public analysis remains at the switching, field-work, and boundary-accounting levels.

The feedback path is boundary-relative. The regulated return path from the secondary winding (7) to the capacitive nodes C2.1–C2.3 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 redistribution within the system. Both attributions are simultaneously true; they refer to different boundary frames. At the complete device boundary, Pin,boundary remains an aggregate accounting quantity, not a statement of continuous external supply.
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.

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 (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 (≈10–15 seconds, 9 V, ~0.015 Wh) drawn from the BBMS-managed buffer reservoir, after which the port is disconnected. It is distinct from Pin,boundary, the aggregate accounting quantity at the complete device boundary.

05

Battery ≠ Operating Source

The battery cell is a buffer at the device boundary, governed by the BBMS (Battery Boundary Management System) — boundary buffer governance, not an energy source. It provides the startup energy (~0.015 Wh) one time and is not a source of operating power or load power. The regime domain and its active regime control are separate from boundary buffer management.

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 is the sustaining input after startup) and internal relative to the complete device boundary (where it is internal redistribution). Both attributions are simultaneously true and refer to different boundary frames.

Supporting Formal Layer  ·  Patent Office Records

Patent-office classification — why it is titled “Generator”

The word generator in the VENDOR.Max patent family is a patent-office and trade-classification label, not the engineering class. During examination the architecture was assigned under four branches of the International Patent Classification: H02M (apparatus for electric power conversion), H02P (control of converters and transformers), H02J (electric power networks), and 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. This is where the patent-office term “generator” originates — it classifies the pulse-producing circuit, not a rotating machine.
Patent Family

Six jurisdictions, one invention

Priority date across the family is 5 April 2023. The granted Spanish patent ES2950176B2 anchors the family; WO2024209235A1 is the PCT publication, with national-phase examination active in the EU, United States, China, and India.

  • ES2950176B2
    Spain (OEPM)
    Granted
  • WO2024209235A1
    PCT (WIPO)
    Published
  • EP4693872A1
    European Patent Office
    Pending
  • US20260088633A1
    United States (USPTO)
    Pending
  • CN119096463A
    China (CNIPA)
    Pending
  • IN 202547010911
    India (IPO)
    National phase

Full patent family documentation — claims, dates, and prosecution status — is on the Patent Portfolio page.

Three Regulatory Frameworks  ·  CE · UL · HS

Regulatory classification

The 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 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 RED, under separate WPT standards, or 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).
Classification by Exclusion  ·  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 “generator” only in its legal patent-office sense.

Boundary 2

Not a battery — and the battery is not an operating source

No electrochemical storage in the operating core. The 9 V battery cell provides only startup ignition (~0.015 Wh, ~10–15 seconds) and is disconnected once the regime is established. The battery is a buffer managed by the BBMS; it provides startup energy one time and is not a source of operating power or load power — the same role buffer batteries play in a UPS or an aviation APU.

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 reaches the load through the discharge-driven regime and the output conditioning chain, 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 — hence the IPC H03K 3/537 assignment, not 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.

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 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. Every mechanism — Faraday induction, Coulomb electrostatics, LC exchange, rectification, Townsend-type conductivity transition — is standard classical electrodynamics.
  • VENDOR.Max is not a self-powered or self-sustaining device. Its regime is conditional by construction and depends on conservation holding. A persistent internal operating regime must not be conflated with a closed or autonomous macroscopic energy system; accounting is performed at the complete device boundary through the aggregate quantity Pin,boundary.
  • The battery cell is not a hidden source of operating power. It is a buffer managed by the BBMS (Battery Boundary Management System) — startup reservoir (~0.015 Wh, one time), transient stabilizer, operating-window support. 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. The architectural contribution is at the level of composition of existing engineering domains, not new physical law.
Classification is not Validation

Classification answers “what this is”

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, the IP portfolio in depth, safety monitoring, and the full TRL roadmap — lives 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 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 the BBMS (Battery Boundary Management System). Its function is the startup reservoir (~0.015 Wh, ~10–15 seconds), after which the port is disconnected. The battery is not a source of operating-regime power or load power.

Where is the input boundary of the regime?

The input boundary of the operating regime is the set of capacitive regime nodes C2.1–C2.3, not the battery port. After the startup impulse is disconnected, the regime is sustained through the regulated feedback path: secondary winding (7) → rectifiers (17, 18, 19) → BBMS routing → back to C2.1–C2.3.

Relative to the regime-forming path this feedback is the sustaining input; relative to the complete device boundary it is internal redistribution. Pin,boundary at the complete device boundary remains an aggregate accounting quantity, and boundary-level conservation for the complete device is unchanged.

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

Because it is a composition of several established engineering domains — topology, resonant regime, discharge switching, inductive transfer, feedback, power-electronics conditioning, active regime control, and boundary buffering. Reducing it to one effect mistakes one part for the whole.

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

WiTricity and Willo are HR-WPT systems — they realize only the non-galvanic resonant transfer aspect. Tesla Powerwall is battery storage with an inverter — storage plus conditioning. VENDOR.Max integrates non-galvanic resonant extraction, output conditioning, and boundary buffering together with the discharge-resonant regime-forming path and its central resonant stage — a full architecture, not one of its parts.

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

How is the operating regime controlled, and what is the BBMS?

Active regime control. A microprocessor-based control layer tracks the resonance current at the natural oscillation frequency, coordinates energy transfer into the resonant stage, and corrects frequency drift. The control algorithms are proprietary.

BBMS — Battery Boundary Management System. Boundary buffer governance — startup reservoir, transient stabilization, operating-window support. It is not an energy source.

Which standard applies for the validation of VENDOR.Max?

No single standard covers the whole architecture; each aspect maps to its own metrology (RF, pulsed-power, WPT, power-electronics, battery management, and boundary metrology). The validation methodology and record are on the Technology Validation page.

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
Certification

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 ES2950176B2 — granted, Oficina Española de Patentes y Marcas (OEPM). patents.google.com/patent/ES2950176B2
  2. Patent WO2024209235A1 — PCT publication, World Intellectual Property Organization (WIPO). patentscope.wipo.int · WO2024209235
  3. Patent EP4693872A1 — European Patent Office (EPO), pending examination. patents.google.com/patent/EP4693872A1
  4. Patent US20260088633A1 — United States (USPTO), pending examination. patents.google.com/patent/US20260088633A1
  5. Patent CN119096463A — China National Intellectual Property Administration (CNIPA), pending examination. patents.google.com/patent/CN119096463A
  6. Patent application IN 202547010911 — Indian Patent Office (IPO), national phase entered. Pending examination.
  7. International Patent Classification (IPC) — 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 Electric Vehicles.
  11. IEC 62619 / UL 1973 — battery-management standards. IEC 62109 / IEEE 1547 / UL 1741 — power-electronics converter and DER equipment standards.