How It Works - VENDOR.Max
The Architecture, and Why It Cannot Be Reduced to a Single Linear Energy Path
TRL 5–6 · ES2950176 granted · WO2024209235A1 PCT · Patented ArchitectureVENDOR.Max is a multi-level resonant energy architecture with separate paths for regime formation, useful-power extraction, and regime-support feedback, supervised by BBMS as a dynamic-stabilization layer, with a base DC output and interchangeable customer interfaces. It is an open electrodynamic system within classical Maxwell–Lorentz electrodynamics, with all energy accounted at the complete device boundary (Frame 0). TRL 5–6, pre-commercial.
Each level uses documented physical principles. The excitation stage of Block 5 belongs to the discharge-resonant class of Armstrong-type oscillators — a class known since 1912. Novelty lies not in the class, but in how the known processes are integrated into a single managed architecture capable of forming, holding, and using an electromagnetic regime while extracting useful power.
The difficulty in evaluating it is that several analytical boundaries are valid at once — and each reveals a different aspect of the same regime. A measurement correct at one boundary becomes misleading if read as if it described another. This is the single most common reason a fast evaluation reaches a wrong conclusion here.
This page covers the classification, the topology, the operating regime, and the correct mental model for reading them. This page does not cover the energy-source question — that is treated separately on Where Does the Energy Come From. This page is the architecture layer; that page is the boundary-accounting layer.
Top disclaimer. All regime-level descriptions on this page concern the internal electrodynamics within the complete device boundary (Frame 0). They are not claims about the energy source and not claims of any violation of classical conservation laws.
Part 1 · The Frame
A single reflexive question misclassifies this architecture before any evidence is weighed. This part names that question, disarms it, and sets the correct analytical frame — so the mechanism in Part 2 can be read on its own terms.
The Catch-22 of the Wrong Question
For a multi-domain architecture, the question “which standard category does this fit?” is a recursive trap: every individual line of reasoning lands in a category that rejects it. Each step assumes the architecture must belong to a small set of categories it explicitly does not.
Exit path.
Replace the question. Instead of “which standard category does this fit?”, ask: “what does the engineering classification actually say, and at which analytical boundary is the question being asked?”
Engineering classification. System level: a multi-level resonant energy architecture with separate paths for regime formation, useful-power extraction, and regime-support feedback, under BBMS. Block 5 level: the excitation stage of Block 5 belongs to the discharge-resonant class of Armstrong-type oscillators, within classical Maxwell–Lorentz electrodynamics, with macroscopic device-scale accounting at the complete device boundary.
Regime engineering vs the linear source-load misreading.
The misclassification begins here.
Before any architecture reading, one framing decision determines whether the rest of the page can be read correctly. What is engineered here is different from what most readers assume is being engineered.
The oscillator class is not the novelty.
Armstrong-type oscillators have been documented engineering for over a century. A phase-appropriate regulated feedback path sustains the regime; field and LC energies circulate internally; a sustaining input compensates the regime-maintenance losses. This is settled physics.
The engineering contribution here is therefore not the oscillator class, but how the regime is formed, stabilized, and used for controlled energy transfer — pre-breakdown control, discharge-window stabilization, field-geometry design, feedback management, and the prevention of collapse and runaway modes.
The source sustains the regime; the regime organizes the internal exchange.
In a conventional reading of an electrical device the chain is source → switching element → transformer → load: energy flows straight from source to load through a fixed path.
In a regime-based architecture the chain is structurally different: source → regime maintenance; regime → internal circulation; circulation → controlled extraction to the load. The source supplies what the regime loses. This is the operating principle of laser cavities, magnetrons, RF resonators, Tesla-type coils, and high-Q oscillators in general — large internal circulation, small sustaining losses. Anchor: this refers to charge turnover / reactive circulation, not to active power; large internal circulation is known and normal, and it does not prove a corresponding net output. The quantitative side lives on Where Does the Energy Come From.
The cognitive trap, named explicitly.
When the two readings above are collapsed, the misclassification follows a predictable chain. Each step is a jump the physics does not license.
- •small sustaining input
- ≠zero input
- ≠self-running
- ≠operation with no energy input at all
Each ≠ blocks a specific collapse. A small sustaining input is not no input. The chain is short, but every step is a category error.
The engineering problem, stated precisely.
The engineering problem is not how to produce unaccounted energy, but how to engineer and stabilize a nonlinear electrodynamic regime that sustains a large internal field circulation at comparatively low regime-maintenance losses.
Seven explicit pairs — what this system is, and what it is not.
Each row pairs a precise statement of what the system is with a precise statement of what it is not. The pairs block the most common misclassification patterns.
Each pair is a semantic firewall against a specific misclassification. A summary that respects this block preserves the architectural class, the analytical framework, and the validation scope intact.
Part 2 · The Mechanism
With the frame set, Part 2 is not a re-narration of the schematic — it is the reading of the patent schematic itself. Open the figure and follow the route: left to right across the architecture, then close the ring.
VENDOR.Max — a Multi-Level Resonant Energy Architecture
System level (leads): a multi-level resonant energy architecture with separate paths for regime formation, useful-power extraction, and regime-support feedback, under BBMS supervision.
Block 5 level (class attribution): the excitation stage of Block 5 belongs to the discharge-resonant class of Armstrong-type oscillators (a class known since 1912), within classical Maxwell–Lorentz electrodynamics. At the patent-component level, Block 5 is presented as a controlled system of coupled electromagnetic resonators and is treated here as a single patent aggregate.
Pin,boundary = Pcustomer + Ploss,total + dEstored/dt
Classical energy conservation applies at all operational states — startup, transient, steady-state, shutdown. Pin,boundary is an accounting quantity at the complete device boundary. The balance equation is an accounting identity: it checks whether accounting is complete — it does not name the source and does not imply any particular supply topology, a continuous external feed, or a single physical input port. The internal feedback is redistribution already accounted for within this term and does not cross Frame 0.
On the feedback path. The regime-support ring returns part of the internally distributed energy through the 9 V line to the startup entry point. Locally it supports the regime; at Frame 0 it is internal redistribution, not a second external source.
In one line: the feedback path is positive in the oscillator sense, regulated in the engineering sense, and internal in the boundary-accounting sense.
Read the Schematic — Eight Steps, Left to Right, Then Close the Ring
How to walk the route. On each electrical segment, track the local charge flow. Between galvanically separated ensembles, regime and energy are transferred, but not the same carriers. The relay baton of the architecture is the regime, not the charge.
Only patent identifiers are used: Block 3 / Block 5 / node 10–11 / bridge 12 / Block 13. Aggregates are not decomposed beyond their patent disclosure.
Eight Steps · Startup · Line to Block 3 · Block 3 Output · Block 5 External Result · Node 10–11 · Bridge 12 · Block 13 · Close the 9 V Ring
Patent schematic of the VENDOR.Max architecture. Read it in eight steps below: left to right across the architecture, then close the 9 V ring back to the startup entry point. Only patent identifiers 3 / 5 / 10–11 / 12 / 13 are used; aggregates are not decomposed.
Hard disclaimer before any figures. All numbers below are illustrative. They are provided only to make the behaviour of the architecture readable and are not claimed as parameters of the VENDOR architecture. They are not a power specification and not measured values. Actual implementation parameters are not published here: some remain closed know-how, and any publishable subset may only appear inside an attributed validation record. Products of these values are not to be read as power. The reading uses charge quantities (C/s — flow, J/C — energetic price of a coulomb); V/A are given as their equivalents (A = C/s, V = J/C).
Sequential illustrative series of electrical boundaries — declared up front. Values across different rows do not form one through-flow, are not directly comparable, and do not add up to an energy balance; losses and the full balance are determined only by synchronous metrology at Frame 0.
- Startup inputone-time impulse at ~9 J/C (~9 V); transport resource — subject to validation
- Block 3 output boundary~24 C/s at ~24 J/C (~24 A / ~24 V)
- Block 5 regime (internal turnover)frequency of order ~2.45 MHz; charge turnover — tens of C/s (circulation, not a through-flow, not power)
- Block 5 output boundary (node 10–11)~450 V / ~20 A RMS — high-frequency alternating motion of local charge; 20 A characterises the RMS current and does not mean a net one-directional transport of 20 C/s; voltage and current do not constitute a published power figure
- Block 13 customer output — DCat the illustrative nominal point of 48 V: up to 45 A, i.e. up to 45 C/s at 48 J/C; permissible illustrative interface window: 48–75 V
- Block 13 customer output — AC~220 V / ~16 A RMS / 50 Hz — alternating motion of local charge, 100 direction reversals per second; 16 A is RMS current, not a net one-directional transport of 16 C/s
Locate the startup source (Level 0)
On the schematic: the startup source and the startup entry point.
What the aggregate does: a one-time initiation — charges the startup capacitances, brings up the control layer, then is physically disconnected.
Output boundary: a one-time organized charge impulse into the startup entry point.
Reading (series): free carriers are already present in the conductors; startup creates the conditions for their coordinated motion — it does not create carriers. Illustratively, the impulse is at ~9 J/C (~9 V); Qstartup = ∫ istart dt is subject to validation.
You cannot conclude: that the battery is a “store of electrons”, the source of steady-state customer power, or that it controls the system after disconnection.
Trace the line to Block 3
On the schematic: the line from the startup entry point to Block 3.
What the aggregate does: delivers an organized flow to the input of Block 3. In steady state, the same point is fed by the feedback line (the 9 V ring).
Output boundary: the input of Block 3.
Reading (series): the flow is read at the output boundary of Block 3 (Step 3); this line is a path, not a standalone figure.
You cannot conclude: that this line is an independent source; in steady state it is internal redistribution that does not cross Frame 0.
What Block 3 delivers at its output boundary
On the schematic: Block 3 as a single patent aggregate.
What the aggregate does: Block 3 accepts the flow at the input point and produces at its output boundary the organized impulse flow required to excite Block 5.
Output boundary: the organized impulse flow at the input of Block 5.
Reading (series): this boundary reads as ~24 C/s at ~24 J/C (~24 A / ~24 V).
You cannot infer: the internal implementation, switching sequence, or component ratings; these remain undisclosed know-how. A voltage step-up does not create energy.
Move to Block 5 — the external result, without opening its internals
On the schematic: Block 5 as a single patent aggregate (represented generically).
What the aggregate does: forms and holds a coupled high-frequency resonant regime; accepts pulsed excitation, sustains the circulation, and admits controlled extraction.
Output boundary (external result): a coordinated high-frequency regime observable at the extraction node 10–11.
Reading (series): in the illustrative series the regime is considered at a frequency of order ~2.45 MHz; actual implementation parameters are not published here: some remain closed know-how, while any publishable subset may appear only in an attributed validation record. Internal charge turnover — tens of C/s of local circulation: this is re-use of the circulating charge, not a through-flow and not power.
You cannot conclude: the resonators’ own frequencies, the coupled-mode map, Q-factor, phases, switching windows, or geometry (know-how); that large turnover equals large active power; that a product of separately measured amplitudes equals power.
Locate the secondary extraction node 10–11
On the schematic: winding 10 and capacitor 11.
What the aggregate does: through the electromagnetic coupling it establishes the output electrical boundary of Block 5. The term “tertiary” is not applied to winding 10.
Output boundary: high-frequency AC at node 10–11.
Reading (series): ~450 V / ~20 A RMS — high-frequency alternating motion of local charge. The value 20 A characterises the RMS current and does not mean a net one-directional transport of 20 C/s. Voltage and current do not constitute a published power figure. The electromagnetic coupling induces motion of the secondary node’s own charge ensemble 𝒬S and transfers energy without any carriers passing from the primary ensemble. The coupling is bidirectional (Lenz’s law).
You cannot conclude: that the node is a second source; that electrons crossed over from the primary circuit; specific ratings (subject to validation).
Follow the path through the single bridge 12
On the schematic: diode bridge 12 — the first element outside the boundary of Block 5.
What the aggregate does: ACHF → DC; forms a one-directional DC bus. The canonical bridge is one — bridge 12.
Output boundary: the DC bus (its value is read at the customer output of Block 13, Step 7).
Reading (series): two-directional motion becomes one-directional; no charge is added.
You cannot conclude: that the bridge adds charge or power; that there is more than one canonical bridge.
Enter Block 13 — ring / control / customer output
On the schematic: Block 13 as a single patent aggregate.
What the aggregate does: distributes the DC bus into three branches — the regime-support feedback (the 9 V ring), control, and the power customer branch; BBMS steers the regime behind the load; the output stage passes the customer path through the tertiary power transformer as a galvanic safety boundary.
Output boundary: the customer output.
Reading (series): DC configuration (base) — at the illustrative nominal point of 48 V: up to 45 A, i.e. up to 45 C/s at 48 J/C, one-directional continuous transport; permissible illustrative interface window: 48–75 V. AC configuration — ~220 V / ~16 A RMS / 50 Hz via inverter as an interchangeable interface: alternating motion of local charge, 100 direction reversals per second; 16 A is RMS current, not a net one-directional transport of 16 C/s. The customer branch carries a distinct charge ensemble 𝒬T; the load consumes energy, not charge.
You cannot conclude: that the ring or the control line is a source; that the inverter is part of the physical core; the internal schematic of the output stage (know-how).
Close the 9 V ring back to the startup entry point
On the schematic: the feedback line (the 9 V ring) from Block 13 back to the startup entry point.
What the aggregate does: returns part of the organized transport to the same point where the startup source was connected; this is what allows the startup battery to be disconnected.
Output boundary: the startup entry point — the ring is closed.
Reading (series): for charge the ring is trivial (Kirchhoff is local; charge always moves on closed paths); the line is measured separately and is not conflated with the customer output.
You cannot conclude: that the ring means “infinite re-use of the same energy”; that the ring crosses Frame 0 or is an external input; the magnitude or origin of flows (only Frame 0 validation determines those).
Repeat disclaimer. All numbers on this page are an illustrative model of system behaviour; they are not claimed as parameters of the VENDOR architecture. Actual implementation parameters are not published here: some remain closed know-how, and any publishable subset may only appear inside an attributed validation record. The charge reading does not replace independent boundary metrology.
The framework is genuinely falsifiable — every outcome committed in advance.
Under independent accredited metrology at the complete device boundary, exactly one of five outcomes must obtain. All are stated publicly before verification is complete — the instrument of genuine falsifiability. The recorded operating data and the measurement protocol are on Technology Validation.
Balance closes via a measured external input
The boundary closes through a measured external input.
Balance closes via decreasing stored energy
The boundary closes through a measured decline of stored energy.
Unaccounted channel identified
An unaccounted boundary-crossing channel is identified (capacitive, inductive, conducted common-mode, RF, instrumentation, thermal, chemical).
Measurement artifact identified
Apparent closure is traced to a measurement artifact (phase, RMS, bandwidth, common-mode, deskew, aliasing, double counting).
Unresolved closure residual
|R| > U = k·uc after the full interpretation order: recalibration → boundary inventory extension → phase → common-mode / capacitive currents → stored energy → thermal / chemical channels → independent reproduction → only then a new physical hypothesis.
The strength of this framework is not that closure has already been demonstrated. It is that the closure question has been defined precisely enough that independent metrology can answer it — and the alternative outcomes are stated openly before verification is complete. Attribution of the source is performed only after the balance closes and the boundary is inventoried; until then, any answers are hypotheses.
The same architecture — read at the depth that fits your role.
Different readers need different depths. Each card is self-contained at its level.
Simple
For executives, investors, and non-technical readers.
VENDOR.Max delivers continuous electrical power to a load through a bounded, patent-protected electrodynamic architecture. All energy flows are accounted at the complete device boundary by classical conservation.
- What it does — sustains a controlled internal regime and delivers usable output (DC by default; AC as an interchangeable interface).
- Why it matters — concentrates the energy chain inside a bounded electrodynamic architecture rather than across a fuel supply chain.
- Where it stands — TRL 5–6, pre-commercial; patent granted in Spain (ES2950176) and active in PCT/EP/US/CN/IN.
Engineering
For technical buyers, integrators, and electrical engineers.
A regime-forming path and a power-extraction path, coupled inductively through Block 5 with no galvanic connection, and a BBMS supervisory layer that prioritises regime stability over load delivery.
- Integration boundary — base DC customer output at the device terminals; AC is an interchangeable interface.
- Classification — system level: multi-level resonant energy architecture; Block 5 level: discharge-resonant class of Armstrong-type oscillators, classical Maxwell–Lorentz electrodynamics.
- Validation & patents — recorded operating data at Technology Validation; ES2950176 granted, PCT family active.
Deep Tech
For physicists, patent examiners, and technical due-diligence teams.
Multiple analytical boundaries coexist and must not be collapsed: the complete device boundary (macroscopic conservation), the per-event partition inside the regime, and the gap-internal carrier dynamics. No single end-to-end efficiency ratio describes the chain; closure is verified by the boundary residual tending to zero under accredited metrology.
- Boundary closure —
Pin,boundary = Pcustomer + Ploss,total + dEstored/dtat all operational states. - Per-stage efficiencies — defined only for individual conversion blocks and bounded above by unity. Device-level evaluation is performed through complete boundary accounting, not by multiplying local efficiencies across different analytical levels.
- Where the accounting lives — boundary-source attribution and the level-by-level ledger on Where Does the Energy Come From.
Recurring questions — answered directly.
These recur in technical due diligence and engineering review. Each is answered briefly and routed, where appropriate, to the page where the full analysis lives.
How is this different from the claims a skeptical reviewer usually rejects on sight?
By classification, falsifiability, and the verification gate. This is an open, boundary-accounted electrodynamic system in which classical conservation holds at all states; it is not a claim of energy production without an accounted source. The interpretation is stated as five possible metrology outcomes stated in advance, and independent boundary verification is the defined TRL 6 milestone.
Where does the energy come from?
This page describes the architecture, not boundary-source attribution. At the complete device boundary: Pin,boundary = Pcustomer + Ploss,total + dEstored/dt. Which term satisfies the boundary input, and under which outcome, is treated on the dedicated page.
Routed toWhere Does the Energy Come From — boundary-source analysis.
Isn’t the internal feedback (the 9 V ring) a second energy source?
No. The regime-support ring returns part of the internally distributed energy through the 9 V line to the startup entry point. Locally it supports the regime; at Frame 0 it is internal redistribution within the boundary energy budget, not a second term crossing the boundary from outside.
Why is there no single device-wide efficiency ratio?
Different stages operate in different physical regimes, measured in different units. A single end-to-end coefficient cannot be assembled by multiplying across categorically different quantities. Each stage is calculable on its own terms; the device closes at the boundary equation.
Is this peer-reviewed or third-party certified?
Not yet. What exists is an engineering record at TRL 5–6 supporting the patent disclosure and the architectural framework. Peer-reviewed publication and third-party regulatory certification are part of the pre-commercial pathway. The patent grant establishes priority and disclosure; it does not substitute for independent metrological verification.
Routed toTechnology Validation — recorded data and the outcome framework.
What is actually being engineered here.
The architecture, the mental model, the firewall, and the falsifiability framework have all been laid out. One step compresses the page into the model that connects them. If you take one thing away, take this.
Not a claim of new physics. The mechanisms used — charge separation, Faraday induction, LC exchange, rectification, discharge-based switching — are documented classical physics.
Not a claim of unaccounted energy production. The boundary input is accounted at the complete device boundary; closure of the boundary equation is what verification has to confirm.
Not a self-running device. The internal feedback (9 V ring) is redistribution within the boundary, not a second external source.
What is being engineered is a nonlinear electrodynamic regime architecture — how the regime is formed, stabilized, sustained, and used for controlled energy transfer, within classical boundary accounting.
The source sustains the regime; the regime organizes the internal exchange.
This sentence is short on purpose. It compresses the classification, the eight-step route across the schematic, the reading levels, the semantic firewall, the falsifiability framework, and the recurring objections. A reading that holds this sentence cannot collapse into the misclassification chain.
Engagement at the depth that matches your role.
The next step depends on what you came to find out. Technical pilot conversations and investor briefings proceed under NDA at the pre-commercial stage. None of these is a commercial purchase — the architecture is at TRL 5–6.
Technical Pilot
For site operators, infrastructure integrators, and technical buyers evaluating deployment scenarios.
A structured technical conversation to evaluate fit between the architecture and a candidate site, under NDA so that controlled disclosure can proceed beyond what the public architecture page allows.
- Site survey — load profile, environmental envelope, integration constraints.
- Integration assessment — interface to existing electrical infrastructure.
- Deployment readiness — TRL 5–6 framing; staged validation, not immediate commissioning.
Investor Briefing
For investors, due-diligence teams, and strategic capital evaluating the architecture and its pathway.
A confidential briefing covering the engineering record, the IP portfolio, the validation roadmap, and the five-outcome falsifiability framework, with controlled-access materials made available under NDA through the Investor Room.
- Engineering record — recorded operating data and the metrology approach.
- IP portfolio — granted patent, PCT family, and national-phase status.
- Validation roadmap — staged path to independent third-party verification.
Read the boundary accounting
For physicists, reviewers, and due-diligence teams: the boundary-source attribution, the level-by-level ledger, and the system record.
Each path keeps the same discipline as this page: engineering framing, pre-commercial validation, no implicit commercial claim.