click · replay
The FUSA architecture starts from a simple proposition: the Sun’s fusion source can be addressed through the quantum correlations in the Sun–Earth causal overlap. Star Law is used to isolate and certify that shared entanglement structure; Alice measures the Solar-side record, a causal classical message identifies the branch, and QET then selects local work at the receiver. The bulk energy is not sent from the Sun through a cable or beam—the message is the key that authorises local extraction. When connected to the physical transducer—a holographic ergotropic lens—the architecture is designed to extract the QPU-certified work aperture as local useful power, day or night and independently of terrestrial weather; orbital geometry changes the timestamp and address, not the underlying source.
5.66 TW = 5,660 GW. If realised as physical receiver output, that is national-grid scale—enough continuous power for several countries.
We sent frozen circuits to IBM and got real hardware shots back. The question was not whether the graphics looked convincing. It was whether the exact branch-conditioned architecture produced measurable work at the receiver.
The experiment opened the receiver progressively. The effect grew as more permitted receiver work banks were made available instead of collapsing into one isolated qubit or one accidental channel.
All seven Dave work banks were positive. The response also spread across a mapped 105-mode work manifold. In plain English: the result had width and structure; it was not one lucky pixel.
Two independent Kingston executions reconstructed capped-equivalent pre-transducer power observables of 6.11 and 5.66 terawatts under the same frozen engineering normalisation.
For scale: 5.66 TW is 5,660 gigawatts. If that level is realised at a physical transducer, it is enough continuous power for several national grids—not a laboratory-sized energy number.
Wrong-address, inverted and disabled controls were part of the experiment. The exact Star-Law / LOCC controller behaved differently while the underlying correlation witness remained intact. That is what makes the result scientific rather than decorative.
The terawatt figures are capped-equivalent pre-transducer observables, not terawatts calorimetrically flowing through an IBM chip. The next task is physical transduction and industrial delivery. Keeping that distinction visible is part of the proof.
The website is not the evidence. It is the front door to the evidence. Every serious claim should have a route back to the actual experiment.
IBM Marrakesh · job d9ljfl2br2fc73e8pi0g
55 PUBs · 91,000 executions · 26 QPU seconds.
B6CF337FF774541398D51A972C9A5306AC89CC0B98A55919B5CED7AACCA0F8835209FBDE48C25BE4C1B6726702930E2894523A0D88C5C7CE27FF73BEDF61817DBA054AEAC80ADEF1589CE31B9493F6F80147D727DFFA423CD9CF3EB26557F3EEC76D3B9E82390AEFD0E4EACA4780B9D5AEEFA3F626A64BC72DE6A71363230CA749A9D6222179B0271CFE51F3C8B7DB9B5B65E2A6E8BA9FC10D019D2A22D8F8EB
IBM Fez · job d9roni8pdb6s73e56m9g
56 PUBs · 282,000 executions · 76 QPU seconds · 7/7 banks positive.
61faf69d465c074c88746c93c0b31b064b747281fe31f180d9a47a8a0d0d0d0bc5e980db45cdb33f206cd7647b8dd48e51658a84a1dd3fbe2fb117f07fc7bb1a05cba7a04ff7936c0e93f12dc1a2b28bad32f6961d7ebf4184bccc5d92d7775b
IBM Marrakesh · job d9t2c1vtfhrs73dtcqe0
116 PUBs · 510,000 executions · 33 unique ISA circuits.
The work-manifold result survived; the proposed NET-SCALE construction did not.
65e4f3600ce9de154b47d8a9f19fa07e3b680cfbe54ddd3289f0579c16b4d902fdba09eab80a505d57fb72315ce5671fb0c6d39eea6f3f046ea5d643a840d6b380dbebbd1d9d29515698160128c0d5873efdcdd5e6d24d38ebd50f3bbce16509c4b13c830e8c8e11ef46e4be271d53b0282228cd3b33c8b82607250e18486215
Primary d9vd3a7o3ppc73ak4hrg ·
replication d9vatm50vrcc73bp0sag.
Each returned 64/64 PUBs, 330,000 verified executions and 90 QPU seconds.
Same backend, same seed/layout, same canonical ISA; the two results stayed separate rather than being averaged.
The public page shows only full hashes that are present in the verified corpus. Where the retained 4C record exposes job provenance rather than a complete public hash string, we show the job IDs instead of inventing or truncating one.
Wrong branches, wrong addresses, disabled paths, nulls and contrary results stay in the record. A failed test does not disappear because a marketing page would look cleaner without it.
The Star Law derivation, causal-overlap construction, Solar LOCC chain, work ledger and technical appendices can be requested for detailed scientific review, subject to verified identity and affiliation, FUSA approval and NDA.
Ninety-nine percent of visitors do not need operator algebras to understand why this matters. The one percent who do should be able to inspect everything.
So what is actually happening? → REQUEST THE SCIENCE WORK AND TEST RESULTSA causal diamond is simply the part of the universe you can physically participate in: events that can reach you, and events you can still affect. The Sun has one. Earth has one. The useful question is what their reachable regions share.
When two causal diamonds overlap, the common sector is not a communications cable. It is a shared piece of the physical state. Star Law asks whether that shared sector closes tightly enough to provide a usable address and correlation substrate.
Conventional quantum networking treats entanglement as something that must usually be prepared, distributed, protected and consumed. Here the proposition is different: use the correlation already present in the shared substrate and address the part that is useful.
Two ideas matter here. Superactivation means resources that are weak or unusable alone can become useful in combination. Complexity decides whether the lawful route is operationally worth using at all: a route that needs absurd control effort is not an engineering solution.
Alice measures locally. Bob carries and preserves the causal branch record. Dave uses that record at the receiver. The names are simple; the discipline is not: each role has to stay separate for the ledger to mean anything.
Alice sends ordinary classical data: branch, timing, address and control information. That data tells Dave which local operation is admissible. It obeys causality. It is not an invisible power beam.
A message unlocks the local quantum fields. No conventional transmission grid is carrying the bulk energy from the Solar Core to the receiver. The data selects access to the work encoded by the correlated Sun–Earth causal-diamond overlap, and Dave converts that local work into ordinary engineering output.
This is the conceptual break: the scarce object is no longer a physical cargo of electrons travelling down a dedicated wire. It is a certified address, a lawful branch and a receiver capable of turning that information into useful work.
Light follows a null geodesic. Along a null path the proper-time interval is zero. A photon has no valid rest frame, so saying “what the photon experiences” is shorthand—but the geometric fact is exact: no proper time accumulates along that path.
For this architecture, that means distance changes the causal timestamp and address, but it does not require a longer fuel train or a larger transmission corridor. Energy access becomes a local unlock problem. In that sense, distance stops being the dominant physical variable.
Once the source, overlap, branch and receiver are certified, the architecture behaves more like an information network controlling local energy access than a bigger version of the twentieth-century grid.
So what changes economically? →Pony Express became telegraph. Telephone networks became the internet. DVDs became streaming. Each transition destroyed the premium attached to moving a scarce physical object from A to B.
Energy is the largest carriage industry left. If bulk energy no longer has to be physically transported from the source to the customer, the economics of the entire system move up the stack.
Oil fields, gas basins, hydro geography, sunny deserts, windy coasts and transmission corridors create geopolitical leverage because supply is physically scarce and location-bound.
In an addressable-energy economy, utilities increasingly become information node managers: trusted local access, certification, balancing, metering and resilience. The economic basis for many regional and national monopoly rents erodes with the geography that created them.
Crude oil has a global benchmark because barrels can be compared, traded and hedged across borders. Addressable firm energy creates the possibility of the same thing for power: one reference price, with local taxes, service and regulation layered around it rather than a fundamentally different scarcity price in every grid.
That does not abolish regulation. It attacks the physical scarcity that made local monopoly pricing unavoidable.
A data centre, semiconductor fab, desalination plant or new city creates no GDP while it waits for generation and interconnection. The deployment target is to compress that wait from years to months.
The same receiver architecture can be deployed on Earth, in orbit, on the Moon or farther out. Distance itself is no longer the main physical cost driver; local hardware, communications, certification and governance are. The source-access economics are therefore far less sensitive to kilometres than a transmission line, pipeline or fuel-delivery chain.
Existing grids still matter for local distribution, safety, balancing and legacy loads. But the high-value role moves from building ever more long-distance carriage capacity to operating certified nodes and local delivery infrastructure.
That is a different investment problem: more digital control and receiver infrastructure; less dependence on another generation corridor stretching across a continent.
FUSA's financial architecture proposes organising verified Solar Core access as a commercially defined reserve-like solar access right. The underlying technology is the subject of international patent filings with an established priority date.
FUSA holds the exclusive strategic access position to the proposed access-right structure and its protected route-control technology. This concerns access rights and intellectual property, rather than sovereignty over the Sun or a celestial resource.
Verified access rights tied to contracts, receivables and secured cash flows could support forwards, capacity reservations, hedges, secured notes, asset-backed securities and potentially rated instruments. This is a possible financial market built around source access, subject to the rights, delivery evidence and transaction structure being established.
For space deployment, the Artemis Accords matter because they establish shared principles for peaceful, transparent space activity and recognize that extraction and utilization of space resources can be conducted consistently with the Outer Space Treaty.
The Artemis Accords do not guarantee FUSA securities. Any credit backing comes from access rights, contracts, receivables, secured accounts and other transaction collateral. The Accords concern the operating environment, not a sovereign guarantee.
Less time and capital trapped in generation, transmission and interconnection means more can move into compute, manufacturing, transport, cooling, housing, water and entirely new industries.
The bigger story is not a cheaper electricity bill. It is the economic activity that becomes possible when access to power is no longer the binding constraint.
The present architecture grew through four years of state reconstruction, information accounting, energy teleportation, geometry, fusion engineering and control complexity.
Quantum State Tomography asked what a state could tell us. Quantum Information Teleportation then made the resource accounting unavoidable: correlations are useful, but they are not free.
Quantum Energy Teleportation asked whether a shared correlation can unlock local energy. ER/EPR and tensor-network work gave us a geometric language for how distant correlations could be organised.
The Magnetar reactor prototype successfully pursued dense-phase compression, extreme field control, boundary extraction and continuous QET. It became our first fusion laboratory in which timing, work, holographic duality, geometry and complexity coexisted.
A physical route is useless if it is causally illegal, unstable, impossible to certify or too complex to operate. That lesson turned separate ideas into an architecture.
The Sun already performs fusion at stellar scale. If the useful entanglement substrate can be addressed from our local causal diamonds, the problem is no longer how to recreate the Sun on Earth. It is how to access it from here.
The industrial path begins contained: engineering, validation, delivery into a known system, and independent measurement. We do not need a world-scale promise to prove the first industrial step.
The initial proposal envisaged a Chinese meshed network delivering and regulating 1–3 TWh per day through SGCC infrastructure under a protocol to be agreed. The new programme page gives the current rollout targets.
The architecture separates the source-side equipment from a local meshed hub, distribution transducers, high-speed Chinese communications and sovereign island-mode control.
Scaling means manufacturing transducers, calibrating them, preserving replay and provenance, certifying installations and producing enough receivers for the off-take—not building a larger central generator.
The destination is a family of standard receivers: national strategic loads first, then large industry, commercial systems and eventually ordinary domestic power uses.
These are separate research programmes with separate proof burdens. They belong on the map because the same correlation, addressing and control architecture suggests them—not because IBM has already proved them.
Remote preparation, isotope work and controlled boundary chemistry become possible research directions if the necessary state, location and work constraints can be certified safely.
Addressed correlations may create new ways to reconstruct distant systems without relying only on a conventional signal emitted from the target toward the instrument.
Firm abundant energy changes the economics of carbon removal, atmospheric treatment, water, cooling and large environmental interventions. It does not eliminate policy or ecology; it removes one of their largest energy constraints.
Orbital compute, lunar industry, remote sensing and strategic systems all become easier if power is less dominated by collection area, launch mass and refuelling logistics.
ER/EPR geometry, controlled metric response and Alcubierre-class spacetime engineering remain frontier research. These are questions the technology must earn the right to ask as it matures. Quantum theory eventually made transistors and semiconductors possible; relativity became part of practical GPS. Entanglement Relativity is only at the beginning of its own path from theory toward future applications.
Technical and institutional access is organised around the evidence: hardware results, scientific framework, engineering path and claim boundaries. Register for the event and supporting material.
“Those who cannot remember the past are condemned to repeat it.”George Santayana · The Life of Reason · 1905