The Great Pyramid as a whole-device energy machine, running end-to-end: apex DC in →
50 Hz slosh/MHD in the King's Chamber → the running core chops the telluric ground loop →
broadcast out. Cold-start it, trigger lightning to bank the ground/aquifer battery, or run storm mode.
Schumann fundamental f₁ = 7.83 Hz (NASA-cited) ·
device locks to mode n = 8 → φ-corrected
f₈ ≈ 50 Hz ·
fair-weather atmospheric field ~120 V/m (the DC drive) ·
parametric pump ~1 kV (the cavity's own FM field, plausible estimate).
⚡ Lightning Battery
0 Wh
tap a strike to bank ~27.8 kWh · next: 100 kWh
… strikes · … of the 4.38 GWh aquifer
…
…
Loading…
Idealized model. This is the ideal
φ-pyramid transducer (loss-bounded steady state), computed live in
phi-pyramid-cpp: a faithful upper-bound device, not a built machine.
Each chamber is tuned (length, f=m·c/2L) to one Schumann harmonic. Tuning
many voids lets the device harvest the AC seed across the spectrum in
parallel (~2× the strongest single line) so the mercury slosh triggers
sooner. This is the AC seed (the trigger), not DC. n=3 & n=7
are predicted voids that complete the ladder.
Obelisk Pair · the receiver, locked on
locked · 50 Hz
━ receiver response
● lock point, vs frequency around the 50 Hz broadcast.
The frequency obelisk is fixed-tuned, so the marker sits on the peak of the
resonance: the pair couples to the 50 Hz line and ignores the rest. That 50 Hz is
the φ-corrected Schumann mode n=8 (the φ-correction is in the broadcast frequency,
not the receiver: the receiver is ordinary resonant coupling).
100% lock
Develop → step down → deliver
Developed potential: …
Each home's transformer: …
Powering: …
From the pyramid broadcast: assumes … available (the pyramid's chopper output) → supports … homes network-wide; this pair draws its share.
Developed potential: …
Each home's transformer: …
Powering: …
From the pyramid broadcast: assumes … available (the pyramid's chopper output) → supports … homes network-wide; this pair draws its share.
Why kV, not 240 V at the source
You can't pull real power through the ground at low voltage: 100 A through soil bakes it to glass. So the pair rings at thousands of volts and a few amps; each home's transformer does the step-down at the door.
You can't pull real power through the ground at low voltage: 100 A through soil bakes it to glass. So the pair rings at thousands of volts and a few amps; each home's transformer does the step-down at the door.
Coffer MHD Core · what you're looking at
… interior
Sealed granite coffer: the Petrie interior (1.98 × 0.68 × 0.87 m), lid on. The mercury is never open to the air.
Liquid mercury: the conductive working fluid, ~75% fill. Surges along the long axis at 50 Hz (a blur, here slowed).
Lodestone cage: two combs of tapered spokes on the long walls (translucent here). A mined permanent magnet, no coil and no power — the field crosses the width of the pool.
Lodestone crown: joins the two combs over the top. The cool magnet body, kept clear of the 517 °C cell so it stays below the Curie point.
Arc electrodes: through the lid; the terminals of the mercury-arc gate that switches the gated telluric current (no side feedthroughs, the coffer stays sealed).
B-field lines: across the width, steady (a permanent lodestone magnet, ≈ 0.16 T). The slosh moving through B makes only a few-mV timing signal that switches the gate, the control input, not the output.
Gated telluric current: the regional telluric DC routed through the arc; the gate chops it on and off at 50 Hz → AC. This chopped supply is the output, not the slosh's own motion.
Wireless output: the cyan wavefronts expanding outward: the chopped 50 Hz telluric output (hundreds of kW) couples out through the resonant field (Tesla-style wireless link). No wires, no load box, no penetrations of the sealed coffer.
Telluric clock: wavefronts rising from the aquifer/ground: the faint global ~50 Hz reference the chamber phase-locks to (the clock, not the fuel).
Resonance (the bell): the golden shell + three antinode discs: the King's-Chamber standing wave ringing at f₈≈50 Hz with high Q.
Mercury-arc plasma: the gate itself: a hot arc the slosh switches on and off at 50 Hz to chop the telluric DC; the pool sits at ~517 °C / 1.0 MPa.
King's Chamber: the granite room enclosing the coffer (~70 m up inside the pyramid). The room is the resonant cavity: its dimensions set the standing-wave modes the coffer locks to, so its walls ring with the resonance. (Shown ~half true scale so the coffer stays legible.)
Relieving chambers: the five stacked granite voids above the flat 9-beam ceiling: the dielectric capacitor stack, charging in step with the resonance.
Air shafts: the thin leads leaving the N & S walls: the grounding / antenna conductors.
The slosh is the switch, not the source. The 50 Hz
slosh moving through the across-the-width B makes
only a few-mV timing signal that switches the mercury-arc gate; the gate chops the
regional telluric DC, and that gated supply is the broadcast power.
Mercury holds ≈ …; at B = … the slosh's own v×B EMF is
just …, a parasitic byproduct, not the output.
The Device · DC in → slosh chops the telluric loop → broadcast out
starting…
two granite obelisks on a basalt court
over a Tura-limestone float ·
cyan arcs = the telluric wavefronts arriving from the
pyramid · the left obelisk is fixed (the 50 Hz frequency lock); the right
obelisk grows/shrinks with the voltage tune (the amplitude) ·
gold arc tip↔tip = the voltage potential the pair develops ·
the HV trunk carries it to the homes, where each home's own
transformer steps it down to its 240 V
service · the first homes-powered homes light up.
Scroll to zoom.
pyramid ·
granite apex cap = the isolated capstone collector (the highest point, where the strike lands) ·
rain-wetted shell flashover = during a storm the rain coats the smooth casing, so when
lightning hits the apex it tracks down the four wet faces as a surface arc to the base
(no buried metal required; any metal would have been the first thing looted), then spreads into the
aquifer across the whole ~115 m footprint (an excellent earth electrode, R = 1/(2πσa) ≈ 2.8 mΩ),
charging it; a ring spreads through the water as the charge arrives ·
subterranean chamber + pit = real central features (shown, but NOT the conduction path
in this model — the strike enters the earth across the footprint, not via a shaft) ·
dark base slab = the basalt foundation (conductive ground plane, closes the DC loop) ·
small box = mercury coffer in the King's Chamber (sloshes) ·
gabled chamber below the KC = the Queen's Chamber (candidate n=4 ≈ 20.6 Hz resonator),
on the central axis, linked to the Grand Gallery foot by a horizontal passage ·
stack above the KC = relieving chambers · inclined corridor = Grand Gallery ·
translucent block above the gallery = Big Void (n=5, 34 Hz resonator) ·
chevron-roofed void behind the north face = the North Face Corridor
(≈9 m, ScanPyramids 2023; a structural void above the original entrance, not part of the energy chain) ·
small obelisks beside the houses = the endpoint tuners that harvest the
broadcast (modeled separately) and feed each home ·
small houses (ring, to scale ≈9 m vs the 146 m pyramid) =
the connected load; they light when powered (via their obelisk), go dark when the ground battery empties ·
violet apex glow = the sharpened point in continuous corona (point discharge) ·
green rings rising from the aquifer = the telluric ground loop (the dam-shunt
DC the running MHD core chops) · cyan wavefronts expanding outward = the
whole-device broadcast out.
Chambers near true scale; coffer enlarged ~4× for visibility.
Scroll to zoom.
Energy Loop
DC accumulate0%
Ladder trigger0%
Parametric pump0%
Saturate0%
AC output0%
Endpoint harvest0%
Live Readouts
… Hz
Whole-device output · TELLURIC CHOPPER
…
…
the running core chops the telluric DC → broadcast out
Endpoint · obelisk harvest
… houses
obelisks tune into the broadcast
AC Output (50 Hz)
…
slosh → MHD alternator
Apex collector: … · DC reservoir in: …
Wet-footprint ground electrode (R = 1/2πσa, a≈115 m): … · DC loop: …
Rain-shell flashover path (wet faces): … · strike reaches ground: …
Strike → aquifer (Rtot …): … (no metal needed; capturing it is the impedance-matched hard part)
AC out: … · Slosh velocity: …
Energy-conserved: out ≤ in. The device sells coherence (a 50 Hz lock), not bulk watts.
Wet-footprint ground electrode (R = 1/2πσa, a≈115 m): … · DC loop: …
Rain-shell flashover path (wet faces): … · strike reaches ground: …
Strike → aquifer (Rtot …): … (no metal needed; capturing it is the impedance-matched hard part)
AC out: … · Slosh velocity: …
Energy-conserved: out ≤ in. The device sells coherence (a 50 Hz lock), not bulk watts.
Broadcast output · TELLURIC CHOPPER
(Machine C · conditional)
…
…
MHD byproduct (Faraday, at 2.5 mm/s)
…
parasitic slosh→AC, not the broadcast
EMF × current (MHD byproduct)
…
low V, huge I (µΩ source)
State…
Ambient (always present): atmospheric DC … + ground/telluric …, the µW–mW primer that keeps the dormant coffer poised.
Resonance (the bell): f₈ = … · Q = … · standing wave holds …, exchanging … to ring (high Q).
Telluric clock: … across the chamber (field …), the global ~50 Hz reference the cavity locks to, not the fuel.
Reactor: mercury vapour … at … · arc core … · thermal tax … (paid by the through-current).
Inner sleeve (most-stressed part): the vacuum arc capillary submerged in the pressurised hot mercury survives — crush buckling FOS …, thermal FOS …, ….
Ambient (always present): atmospheric DC … + ground/telluric …, the µW–mW primer that keeps the dormant coffer poised.
Resonance (the bell): f₈ = … · Q = … · standing wave holds …, exchanging … to ring (high Q).
Telluric clock: … across the chamber (field …), the global ~50 Hz reference the cavity locks to, not the fuel.
Reactor: mercury vapour … at … · arc core … · thermal tax … (paid by the through-current).
Inner sleeve (most-stressed part): the vacuum arc capillary submerged in the pressurised hot mercury survives — crush buckling FOS …, thermal FOS …, ….
Field at pool: … · Slosh: … (fixed) · Short-circuit I: …
Internal resistance (mercury): … · Hartmann: … (plug flow)
Lorentz brake σB²: … · Mercury mass: …
The slosh is the SWITCH, not the generator. Faraday induction from a 2.5 mm/s slosh can only ever make a tiny … (needs … of mechanical drive at ~50%); that's the parasitic MHD byproduct, not the broadcast. The real output is the CHOPPER: the 50 Hz arc strike/quench gates the massive telluric DC through-current (V = L·di/dt transients), and that, minus the 59 kW thermal tax, is the hundreds of kW that couple out wirelessly via the resonant field. It only delivers if the dam-shunt geology holds (R_source ≤ 42 mΩ); slide R_source to see it sustain or stall.
Internal resistance (mercury): … · Hartmann: … (plug flow)
Lorentz brake σB²: … · Mercury mass: …
The slosh is the SWITCH, not the generator. Faraday induction from a 2.5 mm/s slosh can only ever make a tiny … (needs … of mechanical drive at ~50%); that's the parasitic MHD byproduct, not the broadcast. The real output is the CHOPPER: the 50 Hz arc strike/quench gates the massive telluric DC through-current (V = L·di/dt transients), and that, minus the 59 kW thermal tax, is the hundreds of kW that couple out wirelessly via the resonant field. It only delivers if the dam-shunt geology holds (R_source ≤ 42 mΩ); slide R_source to see it sustain or stall.
Homes powered (avg draw)
…
≈ … full 100 A panels at peak
Developed potential
…
across the pair (kV-class)
Broadcast: … · Lock quality: …
Developed potential: … → each home's transformer … → home rail …
Delivered: … · output current … (on the 240 V side)
Homes powered: … (by ~1.5 kW average draw; one full 100 A panel is 24 kW peak).
One chain: broadcast 50 Hz in → resonant lock → high voltage developed → HV to each home → the home's transformer steps down → 240 V.
Developed potential: … → each home's transformer … → home rail …
Delivered: … · output current … (on the 240 V side)
Homes powered: … (by ~1.5 kW average draw; one full 100 A panel is 24 kW peak).
One chain: broadcast 50 Hz in → resonant lock → high voltage developed → HV to each home → the home's transformer steps down → 240 V.
Atmospheric Energy · where the energy actually is
fair-weather → storm → strike → store
Fair-weather DC (starts it)
…
steady atmospheric pump: the µW seed
Storm tap (charges it)
…
apex tap ≈ MV · ×vs fair-weather
Lightning strike
…
captured into the resonant sink
Aquifer store (holds it)
…
geological capacity, never saturates
Banked per storm season: … ·
Delivered (8 h draw): …
The fair-weather DC starts the machine; each lightning strike charges the aquifer electrochemically; the store holds it and meters it out. This is the answer to “where is all the energy?”: not a µW trickle but a lightning-charged geological battery. Not free energy: total stays strike-limited; the store buffers the flood, it doesn't create it. The strike→aquifer charging coupling is the open frontier ([EST]).
The fair-weather DC starts the machine; each lightning strike charges the aquifer electrochemically; the store holds it and meters it out. This is the answer to “where is all the energy?”: not a µW trickle but a lightning-charged geological battery. Not free energy: total stays strike-limited; the store buffers the flood, it doesn't create it. The strike→aquifer charging coupling is the open frontier ([EST]).
50 Hz AC Waveform
amplitude ∝ slosh
The oscillating mercury cuts the MHD field → 50 Hz AC, broadcast out and
harvested by tuned endpoint obelisks. Computed live in phi-pyramid-cpp (WASM).
No JavaScript physics.
Startup Sequence · slosh & AC build-up (live)
t = 0 s
━ slosh envelope
━ AC output
┊ first-AC marker, vs simulated time.
Startup is the slowest of several physical processes, each a textbook
time constant computed from constants & measured chamber dimensions, with no
single number taken on faith. First AC power ≈ max(cavity ring-up,
bulk-slosh ring-up, air-bias ε₀/σ); full mercury circulation is a
separate, much slower milestone (the sub-mm/s drift).