Where Is the “Plus”? Due-Diligence Answer
What the coulomb route shows, what it does not show, and how the joule balance is closed on one agreed system boundary.
The 9 V startup input and the device output are not two values of one measurement boundary and cannot be turned directly into a power ratio. Between them lies a patent-disclosed pulse-resonant architecture in which charge is accumulated, switched, circulates, is coupled out and returns to the regime contour. Coulomb accounting reads this route; it does not replace the energy balance. The joule balance is closed separately — by synchronised measurements of all flows on one agreed system boundary.
Position of this page. The coulomb route is closed by the operating architecture and confirmed by sustained operation exceeding 1,000 hours. What remains open is not the question of device operability, but the coordinated quantitative closure of the energy balance at the complete system boundary.
§ 1 — The two questions inside the word “plus”
The word “plus” carries two different questions, and confusing them is the source of most discussions about the project.
The energy question asks how much energy crosses the complete system boundary. This is a separate question: it is answered only by synchronised measurements of all flows on one agreed boundary. Coulomb accounting does not answer it and is not expected to.
Confusing these two questions is the source of most discussions about the project. Two questions · one page
“Closed” here refers strictly to the coulomb route through the operating architecture — not to an experimentally closed energy balance. What remains open is not the question of whether the device operates, but the coordinated quantitative closure of the energy balance at the complete system boundary.
§ 2 — Why “9 V → several kilowatts” is not a well-posed equation
The objection is usually stated in the shortest form: the device starts from a small startup input, and yet a substantial output is observed at the load, so the two must be turned into a coefficient. This is not a well-posed statement, for one specific reason.
The 9 V startup input and the device output are not two values on the same measurement boundary. The 9 V value describes a short-duration startup source connected to a specific internal input point, physically disconnected once the regime is established. The output describes a steady flow at the customer boundary, after the regime has stabilised. These two values are not points on the same conservation surface and are not readings taken through the same synchronised protocol.
Because they belong to different boundaries and different regimes, their ratio is not a power coefficient. It is not that the “input number” is a hidden quantity: it is that the value of the inbound flow across the complete system boundary in the steady-state regime has not been established by a synchronised measurement protocol on one agreed boundary. Any ratio computed from mismatched values does not measure the device; it measures the mismatch.
The correct question is not “how much times has 9 V grown into the output.” The correct question is: on one agreed system boundary, with synchronised measurement of all flows crossing it, does the balance close in joules?
§ 3 — What such a computation mixes
An external observer computing a “coefficient” from mismatched values typically mixes four things at once:
A value read at a startup input point is compared with a value read at the customer output. A ratio between values on different measurement surfaces is not a device efficiency.
A startup value characterises a transient regime; an output value characterises a steady state. Instantaneous and time-averaged quantities are not interchangeable, and a stored-energy term connects them.
A startup condition is compared with an output observed after establishment of a high-frequency resonant regime. Peak, RMS and mean-of-modulus amplitudes measure different things; multiplying separately measured voltages and currents does not produce active power.
Inside a resonant contour, current and voltage are phase-shifted. Active power is defined by the time integral of their product with the correct sign and phase, not by the product of amplitudes.
Coulomb accounting is the discipline that makes this mixing visible: charge conservation is exact at every node, requires no phase alignment, and shows the route continuously along the architecture. Watt-based balance is a separate discipline, and it requires a synchronised protocol at correct ports before any result is meaningful.
§ 4 — The patent-disclosed charge route
Between the startup input and the device output lies a patent-disclosed architecture, described here at the block-aggregate level of the granted patent, not at the level of internal implementation. The route of charge through it is: startup → accumulation and switching → resonant circulation → extraction → return to the regime contour.
Sustained operation exceeding 1,000 hours demonstrates that this route exists in fact, is closed as a functional loop and is stable in time. Ratings and implementations of the internal stages, the internal supply arrangement, the details of BBMS supervision and the internal measurement points are protected know-how and are not disclosed on this page.
§ 5 — What the coulombs show, and what they do not
What coulomb accounting shows. Charge conservation holds locally and exactly at every node; Kirchhoff’s current law closes at each conversion node without synchronous voltage–current pairs, phase corrections or disclosure of internal topology. Coulomb accounting reads the route continuously along the architecture, distinguishes charge reused inside a contour from charge transferred across a boundary, and shows that no new coulombs appear anywhere in the system. At oscillatory sections the same charge is reused millions of times per second — charge turnover, not charge creation. Resonance accumulates and reuses charge; it does not generate energy.
What coulomb accounting does not show. Charge turnover is not a power figure; multiplying turnover by voltage does not yield active power; the ratio of two charge readings on different boundaries is not a device efficiency. The coulomb route establishes the architectural continuity of charge motion; it does not establish the quantitative energy balance at the complete system boundary. Two different questions, two different disciplines.
§ 6 — How the joule balance is closed correctly
The joule balance is closed at the complete system boundary — the external energy boundary of the entire installation — through one canonical statement, applied on one boundary, with synchronised measurement of all flows crossing it.
Frame 0 accounting identity · must hold at all operational states
The identity verifies the completeness of accounting: it asks whether every flow that crosses the complete system boundary has been captured. It does not name a source: the question “where the energy comes from” is only meaningful once the balance is closed against a complete inventory of the boundary.
Closure criterion. At the complete system boundary (Frame 0), the residual of the accounting identity, \( R = P_{\text{in,boundary}} - P_{\text{customer}} - P_{\text{loss,total}} - \tfrac{dE_{\text{stored}}}{dt} \), lies within the expanded uncertainty \( U = k\!\cdot\!u_c \) of the reference metrology. Closure is a measurement result, not a declaration.
Requirements of the protocol. One agreed system boundary; a complete inventory of physical channels crossing it (conductors, protective earth, neutral, control and measurement cables, shields, capacitive and inductive coupling, RF exchange, thermal exchange, mechanical energy, chemical sources, change of stored energy); synchronised active-power measurements (true \( \int v(t)\,i(t)\,dt \)) with common-mode control, deskew and controlled bandwidth; a fixed load state; explicit combined uncertainty \(u_c\) and expanded uncertainty \(U = k\!\cdot\!u_c\) for every balance. Without this protocol, no external estimate of the full energy balance is canonical.
Mechanism explains the route.
The coulomb route confirms the continuity of charge motion.
The joule balance establishes the full exchange across the complete boundary.
Attribution determines the quantitative contributions of energy sources.
No possible outcome is presumed in advance. Order of reasoning · strict and non-reversible
The metrological protocol, the classification of possible balance outcomes and the interpretation order for an unresolved residual are set out on a separate page: The First Open Engineering Question.
What this page asserts
A multi-level resonant power architecture, within classical Maxwell–Lorentz electrodynamics, disclosed at block-aggregate level by the granted patent and its family (ES2950176B2; PCT WO2024209235A1; EP, US, CN, IN phases active).
The charge route through startup, accumulation and switching, resonant circulation, extraction and return is architecturally readable, verifiable by coulomb accounting, and empirically stable: sustained operation exceeding 1,000 hours confirms that the route is closed as a functional loop and stable in time.
The quantitative energy balance is addressed by the Frame 0 accounting identity at the complete system boundary and closed by synchronised measurements of all flows on one agreed boundary, with residual within the expanded uncertainty of the reference metrology.