{"version":"frequency-matter-feasibility-v2","review_date":"2026-09-24","objective":"Find a defensible route from controlled fields and supplied energy to measurable material response, particle production or assembly; do not conflate those outputs.","decision":"revise","device_status":"hypothesis-with-unresolved-mechanisms","sources":[{"id":"higgs-decay","title":"CERN: observed Higgs decay to bottom quark-antiquark pairs","url":"https://home.cern/long-sought-decay-of-higgs-boson-observed/","role":"External observed decay; not a self-sustaining initiator or device demonstration","retrieved_on":"2026-09-24","classification":"external-authoritative-reference","device_verification":false},{"id":"beta-decay","title":"DOE Explains Beta Decay","url":"https://www.energy.gov/science/doe-explainsbeta-decay","role":"Established nuclear transformation through beta-minus and beta-plus decay; not general atomic disassembly","retrieved_on":"2026-09-24","classification":"external-authoritative-reference","device_verification":false},{"id":"water","title":"PubChem: Water","url":"https://pubchem.ncbi.nlm.nih.gov/compound/Water","reviewed_on":"2026-09-14","classification":"external-authoritative-reference","device_verified":false,"role":"Technology composition reference; not device verification","retrieved_on":"2026-09-14","device_verification":false},{"id":"fuel-cell","title":"DOE: Fuel Cells","url":"https://www.energy.gov/cmei/fuels/fuel-cells","reviewed_on":"2026-09-14","classification":"external-authoritative-reference","device_verified":false,"role":"Technology composition reference; not device verification","retrieved_on":"2026-09-14","device_verification":false},{"id":"wifi","title":"CSIRO: Wireless LAN","url":"https://www.csiro.au/en/research/technology-space/it/wireless-lan","reviewed_on":"2026-09-14","classification":"external-authoritative-reference","device_verified":false,"role":"Technology composition reference; not device verification","retrieved_on":"2026-09-14","device_verification":false},{"id":"constants","title":"NIST CODATA 2022 constants","url":"https://physics.nist.gov/cuu/Constants/","role":"Reference constants; not device measurements","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"hamiltonian","title":"MIT Quantum Physics I lecture notes","url":"https://www.ocw.mit.edu/courses/8-04-quantum-physics-i-spring-2013/pages/lecture-notes/","role":"Time evolution, Schrodinger equation and oscillator foundations","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"pairs","title":"Brookhaven: collisions of light produce matter/antimatter","url":"https://www.bnl.gov/newsroom/news.php?a=119023","role":"STAR heavy-ion experiment evidence; not an ordinary laser atom factory","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"accelerator","title":"CERN: how an accelerator works","url":"https://home.cern/how-accelerator-works/","role":"Electric acceleration and magnetic steering/focusing","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"fission","title":"DOE Explains Nuclear Fission","url":"https://www.energy.gov/science/doe-explainsnuclear-fission","role":"Nuclear energy release; not electricity-to-atom manufacture","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"assembly","title":"NIST: atom manipulation with STM","url":"https://www.nist.gov/programs-projects/atom-manipulation-scanning-tunneling-microscope","role":"Autonomous assembly using existing surface atoms","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"trapping","title":"NIST: miniature lens for trapping atoms","url":"https://www.nist.gov/news-events/news/2022/08/nist-researchers-develop-miniature-lens-trapping-atoms","role":"Optical trapping of existing atoms","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false},{"id":"antimatter","title":"CERN: antimatter","url":"https://home.cern/science/physics/antimatter/","role":"Antiparticles, trapping research and annihilation constraints","retrieved_on":"2026-09-14","classification":"external-authoritative-reference","device_verification":false}],"equations":[{"id":"higgs-pair-decay","formula":"H -> b + anti-b","units":"Particle identities; energy and momentum must balance","use":"Observed Higgs decay into a bottom quark-antiquark pair.","conditions":"Unstable products; not a stored antimatter supply. No demonstrated self-sustaining Higgs chain reaction or net-energy device follows.","source":"higgs-decay"},{"id":"beta-minus","formula":"n -> p + e- + anti-nu_e; (A,Z) -> (A,Z+1)","units":"A: nucleon count; Z: proton count; charge in units of e","use":"Weak-interaction conversion of a neutron into a proton with electron and electron-antineutrino emission.","conditions":"Free neutron decay or energetically allowed nuclear transitions. A bound neutron does not necessarily decay. A stays unchanged in the primary beta transition; subsequent nuclear emissions are separate processes.","source":"beta-decay"},{"id":"beta-plus","formula":"p -> n + e+ + nu_e (inside an energetically allowed nucleus); (A,Z) -> (A,Z-1)","units":"A: nucleon count; Z: proton count; charge in units of e","use":"Nuclear proton-to-neutron conversion emits a positron and electron neutrino; connects beta decay to antimatter physics without requiring a Higgs initiator.","conditions":"A free proton cannot spontaneously undergo this decay. Nuclear energy balance and transition rules must permit it. No chosen decay time, production yield or atom-by-atom control is inferred.","source":"beta-decay"},{"id":"photon","formula":"E_gamma = h f = h c / lambda","units":"E: J; f: Hz; lambda: m; h: J s","use":"Energy per photon, not total beam power or an atom blueprint.","conditions":"Photon interpretation; number of photons and interactions remain separate.","source":"constants"},{"id":"invariant","formula":"E^2 = p^2 c^2 + m^2 c^4","units":"E: J; p: kg m/s; m: kg","use":"Distinguish increased kinetic energy from changed invariant rest mass.","conditions":"Relativistic total energy of an isolated particle/system.","source":"constants"},{"id":"threshold","formula":"2 E1 E2 (1 - cos(theta)) >= (2 m_e c^2)^2","units":"Both sides: J^2; theta: radians","use":"Electron-positron two-photon kinematic threshold; equal head-on photons require at least m_e c^2 each.","conditions":"Vacuum two-photon process. Exactly at threshold phase space closes; usable yield requires more than satisfying this inequality. A single free photon cannot form a pair in empty space.","source":"pairs"},{"id":"power","formula":"E_in = integral P(t) dt; m_total <= eta E_in / c^2","units":"E: J; P: W; t: s; m: kg; eta: dimensionless [0,1]","use":"Ideal upper bound for total newly created rest mass; no conversion efficiency has been measured for this proposal.","conditions":"This is not a yield prediction. Capture, cooling, losses and antiparticles must be included.","source":"constants"},{"id":"hamiltonian","formula":"i hbar d|psi>/dt = H(t)|psi>; H(t) = H0 + sum_j u_j(t) H_j","units":"H,H0,H_j: J when u_j is dimensionless; hbar: J s; t: s","use":"Model allowed quantum evolution and control fields. The Hamiltonian is a model/operator, not one universal construction algorithm.","conditions":"Specify states, interactions and controls. Fixed-particle Schrodinger models cannot predict creation of particles; that requires relativistic quantum field theory.","source":"hamiltonian"},{"id":"charged","formula":"H = (p - q A)^2/(2m) + q phi + V; F = q(E + v cross B)","units":"H,V: J; p: kg m/s; q: C; A: T m; phi: V; E: V/m; B: T; F: N","use":"Nonrelativistic charged-particle motion and external-field control; magnetic steering does not itself add kinetic energy.","conditions":"Spinless single-particle approximation; use appropriate relativistic/QED models at high energy. This is not arbitrary mass manipulation.","source":"accelerator"},{"id":"nuclear","formula":"Q = (sum m_initial - sum m_final) c^2","units":"Q: J; masses: kg","use":"Fission energy comes from the rest-mass difference, while existing nuclei transform.","conditions":"Include all reaction products and consistent mass conventions. A power plant is an energy supply option, not evidence for this device.","source":"fission"},{"id":"oscillator","formula":"m x_ddot + b x_dot + k x = F0 cos(omega t)","units":"m: kg; b: kg/s; k: N/m; F0: N; omega: rad/s","use":"Connect the existing resonance/thermal model to measurable displacement, damping and heating.","conditions":"Linear driven oscillator near its applicable operating range. Resonance alone does not create atoms.","source":"hamiltonian"},{"id":"yield","formula":"R = L sigma; N_detected = R T epsilon","units":"R: 1/s; L: 1/(m^2 s); sigma: m^2; T: s; epsilon: dimensionless","use":"Show the missing connection between an allowed process and observable production.","conditions":"Effective luminosity and cross section must match energy/angular spectra; include backgrounds and detector calibration.","source":"pairs"},{"id":"control","formula":"J(u) = 1 - |<psi_target|psi_u(T)>|^2 + lambda integral sum_j u_j(t)^2 dt","units":"J: dimensionless; dimensionless u_j imply lambda: 1/s","use":"Bounded optimization objective for AI-assisted quantum control in a specified model.","conditions":"Model fidelity is not hardware fidelity. Enforce actuator limits, held-out tests and independent measurements; target existing atoms first.","source":"hamiltonian"}],"connections":[{"from":"higgs-decay","to":"quark-antiquark-pair","status":"external-experimental-evidence","source":"higgs-decay","explanation":"CERN observed Higgs decay to bottom quark-antiquark pairs.","gap":"No Network0 collision experiment, capture process or device output measured."},{"from":"higgs-antimatter-initiator","to":"self-sustaining-device-cycle","status":"unverified-hypothesis","source":"higgs-decay","explanation":"User proposes an initiating role analogous to neutron-induced fission; observed Higgs decay does not establish that analogy as a mechanism.","gap":"No established regenerative reaction pathway, energy gain or controllable cycle; do not infer a working device."},{"from":"beta-minus-decay","to":"nuclear-transmutation","status":"established-physics","source":"beta-decay","explanation":"The primary transition changes one neutron into a proton; A is unchanged and Z increases by one.","gap":"A specific permitted nuclear transition and independent evidence are needed; this is not complete atomic disassembly."},{"from":"beta-plus-decay","to":"positron-emission","status":"established-physics","source":"beta-decay","explanation":"An allowed nuclear transition emits a positron and neutrino while changing a proton into a neutron.","gap":"No physical source, capture efficiency or device production rate is connected or measured."},{"from":"beta-decay","to":"arbitrary-atomic-disassembly-control","status":"unsupported-inference","source":"beta-decay","explanation":"Beta decay transforms a constituent through the weak interaction; it does not provide programmable decomposition of arbitrary atoms into freely controllable quanta.","gap":"No general on-demand individual decay trigger or reconstruction mechanism. Keep electron ionization, chemical separation and nuclear transformation distinct."},{"from":"frequency","to":"material-response","status":"supported-principle","explanation":"Driven fields can excite resonances and heat matter. Existing Frequency & Matter Lab simulates a resonance/thermal ledger.","gap":"Measured spectrum, field amplitude, coupling, damping and temperature response."},{"from":"energy-supply","to":"particle-production","status":"conditional","explanation":"Available electrical energy must be converted into the appropriate interacting fields or beams; total energy alone is insufficient.","gap":"Reaction channel, energy and momentum distributions, interaction probability, conversion/capture efficiencies."},{"from":"nuclear-power","to":"energy-supply","status":"supported-principle","explanation":"Fission can supply power by releasing nuclear binding-energy differences.","gap":"No plant integration, efficiency, operating authorization or device energy requirement established."},{"from":"accelerator","to":"particle-control","status":"supported-principle","explanation":"Electric fields accelerate charged particles; magnetic fields steer/focus them.","gap":"Define which particles and observable; no evidence of arbitrary rest-mass control."},{"from":"photon-collisions","to":"electron-positron-pairs","status":"external-experimental-evidence","explanation":"STAR reported pair-production evidence from electromagnetic interactions in heavy-ion encounters.","gap":"This does not demonstrate bulk neutral-atom creation or this proposed device."},{"from":"electron-positron-pairs","to":"ordinary-atoms","status":"missing-mechanism","explanation":"Electrons and positrons alone do not supply the nuclei of ordinary atoms.","gap":"Required nuclei, constituent inventory, quantum numbers, binding, cooling, capture and stable-product verification."},{"from":"hamiltonian-control","to":"atom-arrangement","status":"supported-modeling-route","explanation":"Quantum models and feedback can help control supplied particles/atoms. NIST demonstrates autonomous assembly and optical trapping.","gap":"A specified material, initial state, target, calibrated controls and independently measured assembly success."},{"from":"AI-prediction","to":"physical-atom-creation","status":"unsupported","explanation":"Computational predictions do not supply particles, energy, apparatus or experimental verification.","gap":"Independent physical evidence; software output cannot close this gap."},{"from":"social-periodicity","to":"particle-production","status":"analogy-only","explanation":"Cycles/year in social series and Hz in a device are different observables.","gap":"No demonstrated causal coupling."},{"from":"wireless-networking","to":"sensor-telemetry","status":"proposed-integration","explanation":"Apply Wi-Fi technology to transmitting observations and status. CSIRO documents WLAN technology developed by John O Sullivan and colleagues; this project connection is proposed, not installed.","sources":["wifi"],"gap":"Device compatibility, timing, reliability and authentication have not been measured."},{"from":"sensor-telemetry","to":"AI-feedback","status":"proposed-integration","explanation":"Use timestamped observations to compare predictions with measured outcomes. Transported data is not automatically accurate.","sources":[],"gap":"Calibration, provenance, uncertainty and independent validation."},{"from":"hydrogen-oxygen","to":"water-molecules","status":"established-chemistry","explanation":"Water is H2O: two hydrogen atoms covalently bonded to oxygen. Overall reaction: 2 H2 + O2 -> 2 H2O. Existing atoms are conserved.","sources":["water","fuel-cell"],"gap":"Actual device conversion, output rate and purity remain unmeasured."},{"from":"fuel-cell","to":"water-electricity-heat","status":"external-demonstration","explanation":"Hydrogen fuel cells provide an established electrochemical pathway producing water, electricity and heat.","sources":["fuel-cell"],"gap":"No Network0 fuel cell or physical production is connected."},{"from":"wireless-networking","to":"water-molecules","status":"no-demonstrated-direct-mechanism","explanation":"The proposed role is communication. These sources do not establish Wi-Fi as a direct matter-creation mechanism.","sources":["wifi","water"],"gap":"Do not infer a chemical or nuclear mechanism from a communication technology."}],"calculations":{"inputs":{"frequency_hz":1000000,"power_w":250,"duration_s":1},"photon_energy_j":6.62607015e-28,"photon_energy_ev":4.135667696923859e-9,"equal_head_on_threshold_photon_ev":510998.9506917532,"equal_head_on_threshold_frequency_hz":123558996548934070000,"energy_input_j":250,"ideal_total_rest_mass_bound_kg":2.7816251401340463e-15,"one_microgram_ideal_energy_j":89875517.87368177,"one_microgram_ideal_energy_kwh":24.96542163157827,"classification":"calculated-kinematic-screen","verified_device":false,"uncertainty":"h, c and e are exact SI constants; electron mass is CODATA 2022 with relative uncertainty approximately 3.1e-10. Hardware inputs are illustrative; efficiency and yield unknown.","interpretation":"Assumes 100% conversion only for the upper bound; predicts no actual mass production. Many low-energy photons are not automatically equivalent to one high-energy photon."},"simulation":{"resonant":{"model":"Driven closed two-level system in rotating frame; rotating-wave approximation","detuning_over_rabi_frequency":0,"dimensionless_duration":3.141592653589793,"steps":1000,"excited_population":0.9999999999999996,"analytic_population":1,"absolute_error":4.440892098500626e-16,"norm_error":4.440892098500626e-16,"classification":"numerical-model-check-not-experiment","creates_particles":false,"limitations":"No decoherence, atomic structure, field calibration or particle creation. This checks an integrator against a known solution."},"detuned":{"model":"Driven closed two-level system in rotating frame; rotating-wave approximation","detuning_over_rabi_frequency":2,"dimensionless_duration":3.141592653589793,"steps":1000,"excited_population":0.026263112191565584,"analytic_population":0.026263112192168037,"absolute_error":6.024521159719853e-13,"norm_error":2.475797344914099e-14,"classification":"numerical-model-check-not-experiment","creates_particles":false,"limitations":"No decoherence, atomic structure, field calibration or particle creation. This checks an integrator against a known solution."}},"local_links":[{"path":"research/src/simulation-registry.js","record":"frequency","classification":"existing-resonance-thermal-simulation"},{"path":"research/src/science-analysis.json","record":"science-result-photon","classification":"local-illustrative-calculation"},{"path":"research/src/science-analysis.json","record":"science-result-conversion","classification":"local-energy-accounting-derivative"},{"path":"research/src/science-corpus-data.json","record":"Frequency and material response","classification":"source-registered-review-required"}],"next_experiment":{"status":"not-run","objective":"Test a specified low-energy material-response hypothesis before proposing new particle creation.","required_inputs":["Material and geometry","Incident spectrum and power uncertainty","Calibrated response and thermal sensors","Background/sham condition","Repeat count and numerical acceptance threshold declared before measurements"],"acceptance":"For the numerical model: norm and analytic-population errors below 1e-6 at 1000 and 2000 steps for detuning ratios 0 and 2. For hardware: do not accept until a threshold is preregistered and independently replicated.","rejection":"Reject the specific model if repeatable observations violate its preregistered prediction beyond combined uncertainty. Lack of a measurement leaves the device unresolved.","competing_explanations":["Ordinary heating","Mechanical/acoustic resonance","Electrical pickup or calibration drift","Background radiation or contamination"],"safety":"This release is read-only calculation and research. Ionizing-radiation, accelerator and nuclear experiments require qualified facilities; no hardware control is connected.","replication":"Archive model version, inputs and calibration; repeat with independent instrumentation and blinded controls."},"recommended_branch":"AI-assisted modeling and arrangement of existing atoms/materials, with particle creation tracked as a separate research branch."}