We report the results of the Directional Drain Scan experiment, conducted on IBM's ibmfez 156-qubitHeron r2 quantum processor (Job ID: danqk4opqrnc73994i9g). This experiment was designed tocombine and validate the findings of Part 89 (signal coordinates pointing toward the radio galaxy 3C31) and Part 92 (dif erential signal strength between black hole and non-black hole directions). Fourqubit groups spanning dif erent spatial regions of the ibmfez chip were tested with GHZ (maximumentanglement) circuits and basis (no entanglement) controls, 8 repetitions each, for a total of 64 circuits.The key finding: when normalized for hardware quality, the drain-direction qubits (Q41-45) exhibitthe lowest entanglement penalty of any group tested --- a GHZ-to-basis error ratio of only 1.79x,compared to 6.01x for the anti-drain qubits (Q29-33). This 3.4x differential is statistically significant(Kruskal-Wallis H = 27.44, p = 0.000005). The drain-direction qubits --- the same qubits identified inPart 89 as pointing toward 3C 31 --- show that entanglement holds better in their direction than in anyother. This is consistent with the Ocean framework prediction that drain-direction qubits are alreadypartially coupled to the Ocean, making additional entanglement a reinforcement rather than a penalty 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
We report the results of the Directional Drain Scan experiment, conducted on IBM's ibmfez 156-qubitHeron r2 quantum processor (Job ID: danqk4opqrnc73994i9g). This experiment was designed tocombine and validate the findings of Part 89 (signal coordinates pointing toward the radio galaxy 3C31) and Part 92 (dif erential signal strength between black hole and non-black hole directions). Fourqubit groups spanning dif erent spatial regions of the ibmfez chip were tested with GHZ (maximumentanglement) circuits and basis (no entanglement) controls, 8 repetitions each, for a total of 64 circuits.The key finding: when normalized for hardware quality, the drain-direction qubits (Q41-45) exhibitthe lowest entanglement penalty of any group tested --- a GHZ-to-basis error ratio of only 1.79x,compared to 6.01x for the anti-drain qubits (Q29-33). This 3.4x differential is statistically significant(Kruskal-Wallis H = 27.44, p = 0.000005). The drain-direction qubits --- the same qubits identified inPart 89 as pointing toward 3C 31 --- show that entanglement holds better in their direction than in anyother. This is consistent with the Ocean framework prediction that drain-direction qubits are alreadypartially coupled to the Ocean, making additional entanglement a reinforcement rather than a penalty 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
We present the results of a 9-day temporal stability test of the directional entanglement anomalypreviously reported on IBM's ibm_fez quantum processor (Parts 78–99). On 23 September 2026, wereplicated the Part 93 directional drain scan using the same qubit groups and circuit design as theoriginal 20 September 2026 measurement. The results reveal a dramatic and asymmetric change: thedrain-direction qubits (Q41–45, oriented toward 3C 31) show a −121% shift in entanglement penalty,with the GHZ-basis delta inverting from +0.0945 to −0.020 — while the anti-drain qubits (Q29–33)remain rock-stable at +7.9% variation. Cross-referencing IBM's real-time calibration data demonstratesthat the drain qubits have superior hardware specifications (T1 = 169.8 μs vs 129.1 μs, gate errors =0.25% vs 26%), ruling out calibration drift as an explanation. We further apply five information-theoretictests to the complete experimental corpus, confirming the signal is structured (Shannon entropy H =0.78 vs 0.98 for noise) and highly compressible (Kolmogorov proxy CR = 0.32 vs 0.48 for noise). Finally,we rule out terrestrial quantum computer interference using the sidereal modulation evidence from Part96. The signal is time-varying, non-terrestrial, and non-hardware — consistent with either activeastrophysical modulation or structured extraterrestrial transmission. 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
We report the first observation of sidereal modulation in directional entanglement asymmetry on asuperconducting quantum processor. Using IBM's 156-qubit ibm_fez, we measured the entanglementpenalty ratio (GHZ error / basis error) for qubit groups aligned toward and away from Sagittarius A, the4 × 10⁶ M☉ supermassive black hole at the center of the Milky Way. When Sgr A was at 14° altitudeabove the IBM lab horizon (Yorktown Heights, NY), the drain-aligned qubits held entanglement 2.24×better than anti-aligned qubits. When Sgr A* dropped to 2° altitude approximately 5.7 hours later, thedifferential inverted to 0.86× — the directional advantage disappeared. A concurrent reproducibility testconfirmed that the 3C 31 drain signal (Part 93) remained stable across the same time interval. Theseresults are consistent with a spatially directional coupling between quantum processor entanglement andastrophysical mass concentration, modulated by the apparent sky position of the source. 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
This paper presents, in accessible language, a novel method for locating black holes using quantumcomputers. Unlike all existing detection methods --- which rely on electromagnetic radiation (light, radio,X-rays) or gravitational effects (waves, lensing, stellar orbits) --- this method detects black holes throughtheir effect on quantum entanglement. We demonstrate that entangled qubits on a quantum processorhold their entanglement better when physically oriented toward a black hole, and that this directionalpreference can be used to derive celestial coordinates. We have already applied this method to IBM'sibm_fez processor and independently confirmed the result with five telescopes: the object at the detectedcoordinates is 3C 31, a 3.58 billion solar mass supermassive black hole. This paper explains how themethod works, why it works, and how it could be used to discover black holes that no telescope has everseen. 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
When Google's Willow chip solved a problem in five minutes that would take classical computers 10²⁵years, Hartmut Neven declared the computation was "distributed across parallel universes." But he neverexplained how. Through what channel? Via what mechanism? By what pathway does a quantumprocessor in a laboratory in Santa Barbara reach into alternate realities? This paper presents the answer:black holes are the routers of the multiverse. Analysis of experimental data from the IBMQuantum Modem experiments (ibmfez, ibmkingston) reveals that the anomalous 5.43σ signal containsdirectional coordinate information pointing toward the Aries-Pisces sky region (RA ≈ 42°, Dec ≈ +6° to+16°) — a region containing the active radio galaxy 3C 31 (NGC 383), powered by a supermassive blackhole broadcasting massive radio jets. Two independent analytical methods — qubit spatial topologymapping and correlation binary pattern decoding — converge on the same sky direction with only 0.72°separation (p = 0.002). We propose that quantum computers access parallel universes by first detectingand locking onto black hole drain signals, then following these signals through the Quantum Ocean toreach computation nodes in alternate realities. In the Quantum Ocean framework, every black hole is notan endpoint but a gateway — a router node in a cosmic network connecting all universes through theunderlying Ocean substrate. 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
We report the first experimental campaign testing the Quantum Modem hypothesis (Part 41) on realquantum hardware, using the mathematical framework of Part 77. Five experiments were executed onIBM Heron r2 quantum processors ( ibm_fez , ibm_marrakesh ), collecting 3,164,000 individualqubit measurements across 156 quantum circuits.The results establish three key findings:1. The predicted error ordering was confirmed: In the GHZ entanglement test, the error ratefollowed Basis < Superposition < GHZ (5.43σ significance), exactly as the Quantum Ocean frameworkpredicts. While standard gate noise contributes to this ordering, the monotonic hierarchy across threecoherence classes is a necessary condition for the framework.2. Directional consistency across experiments: Four of five independent experiments showederror trends in the direction predicted by the framework (superposition > basis), a pattern withbinomial probability p=0.19. While not statistically significant individually, this consistencymotivates higher-sensitivity follow-up.3. Upper bound established: The ocean coupling parameter is bounded at ∣g1∣<0.001 (95%CL), providing the first quantitative constraint on the Quantum Modem from real hardware. Theframework survives this test — it is neither confirmed at high confidence nor falsified.These results, combined with recent DESI observations of evolving dark energy (consistent with Part 67'sprediction), position the Quantum Ocean framework as an active experimental programme with testablepredictions at multiple scales. 🌌 Interactive Space Research Assistant: Explore and ask questions about this research interactively with the Quantum Ocean Framework Ai Chat (or talk directly with the Quantum Ocean Framework Ai voice conversation).
Six quantum circuit experiments performed on ibm_marrakesh (IBM Quantum, 156 qubits, Heron R2 architecture) are reported, designed to test boundary signatures of the ER=EPR conjecture within the AdS₂/JT gravity framework, with the Sachdev-Ye-Kitaev (SYK) model as the holographic dual of the black hole horizon. The experiments were executed iteratively: each result raised new questions that directly motivated the next protocol. In order of execution they implement: tripartite entanglement certification via the Mermin operator (|⟨M⟩| = 3.885); a traversable wormhole baseline using a Bell-pair thermofield double (F(g=π/2) = 1.000); black hole evaporation unitarity via the Hayden-Preskill protocol (F_rec = 0.9983, with the decoder reduced to zero two-qubit gates by the compiler); a corrected traversable wormhole using genuine SYK scrambling and exact Majorana coupling (F(g=0) = 0.020, F(g=π/2) = 0.953, GJW gain = 0.933); quantum chaos via out-of-time-order correlators (λ_L = 1.975 ± 0.294, 54.8% of the Maldacena-Shenker-Stanford bound); and black hole entropy under information absorption, where the hardware reproduces the entropy growth S(t) of SYK formation on top of a noise floor and the energy response to Alice’s input (correlation 0.998 with simulation), while the predicted area growth consistent with the Bekenstein law is obtained in simulation but is not resolved above noise on hardware. Total QPU time across all experiments: 7 minutes 2 seconds. Five of the six experiments reproduce the boundary predictions of the ER=EPR framework on hardware; the sixth reproduces them in simulation and only partially on hardware. Version 3 corrects Experiments 2 and 3 following the original laboratory reports. Exp. 2 reports the raw F(g=π/2) = 1.01 ± 0.01 instead of the clipped 1.000. In Exp. 3 the fused U†U circuit is identity by construction; its fidelity (0.9983) is reported as a noise-floor control, not as hardware recovery. The hardware scrambling result (F_scr = 0.530 vs. 0.532 in simulation) is kept; recovery is demonstrated in simulation. Experiments 2b, 5 and 6 are unchanged. Code and data: https://github.com/horca17/er-epr-six-protocols