Research project proposals

01ASD-M01 · Minimal stable topology model

Linked tasks and status: OP-MAT-001 · Stable Finite-Energy Electron Solution, P0 · NEEDS THEORY; OP-SD-001 · Unified Longitudinal–Transverse Dynamics, P1 · NEEDS THEORY. OP-001 (Chinese historical guide) and OP-003 remain historical entry points.

Current basis and materials: Orientation fields, finite-energy requirements and candidate stabilizing terms exist, but no complete three-dimensional electron solution has been obtained. The common action is also incomplete. Read localization, stability and the tasks' source and deliverable conditions.

Relevant experience: Nonlinear PDE, topology, variational methods or numerical physics. First step: For one existing candidate, document the action, field variables, target space, coefficient sources and boundary conditions, then reproduce an energy-convergence or stability check.

Deliverable: A reproducible derivation or solver with inputs and grid/boundary convergence tables. State how far energy, topology integrals, residuals and negative-mode checks have been completed. If a stable solution is absent, report failure conditions without claiming to have obtained electron mass, charge or spin.

02ASD-T01 · Directional frequency response

Linked task and status: OP-TIME-01 · Scale–frequency response of specific clocks · Chinese original, P1 · NEEDS THEORY. The OP-TIME-01 source page is currently in Chinese. The directional clock workbench corresponds to existing prediction record ASD-PRED-001.

Current basis and materials: Process metrology and scale coupling are documented; specific clock responses, consistency across clock types and transported-clock mappings remain incomplete. Read clocks and frequency, the directional clock workbench, and its data and error-budget notes. Its planning basis functions and example amplitudes are not derived ASD signals.

Relevant experience: Atomic clocks, metrology, apparatus response or statistical inference. First step: Choose a specific atomic transition or cavity mode and list assumptions about how background scale enters its process equation, the reference-transfer protocol and missing response inputs.

Deliverable: A clock model, response function or explicit unresolved terms; frequency-ratio or clock-difference comparisons under common inputs; calibration and error budgets. Determine required precision after obtaining an identifiable theoretical difference, without fixing an unknown amplitude in advance.

03ASD-E01 · Extension of the high-speed electromagnetic configuration

Linked tasks and status: OP-EM-001 · Full Moving-Charge Spatial Field and OP-EM-004 · High-γ Discriminator, both P1 · NEEDS THEORY.

Current basis and materials: A common-velocity transverse interaction baseline exists; general source fields and their mapping to detector readouts remain incomplete. Read moving-charge fields, the high-speed charge-field case, and its notes on raw-data availability. This website has no ASD fit to that electro-optic experiment.

Relevant experience: Electrodynamics, PDE, accelerator physics or metrology. First step: For a specific finite source or probe configuration, document source positions, frame, distance definitions, common inputs and apparatus response, then reproduce a static-limit or common-transverse-configuration check.

Deliverable: A reproducible source solution and boundary conditions, or dual-theory signals for the same measurand. Include normalization, parameter sensitivity and noise budgets, and identify discrimination, degeneracy or unresolved terms. A ratio between different force variables is not directly an experimental signal or validation.

04ASD-G01 · Independent orbit calculation

Linked task and status: OP-GRV-002 · Nondegenerate orbital observable and second-order review, P2 · READY. The existing ASD-PRED-004 · S301 case remains DATA-GATED; the OP's READY status does not unlock it.

Current basis and materials: The current static spherical action has the same form as the Schwarzschild exterior expression, and first-order precession has been derived. Read orbital dynamics, the S301 data gate and reproducibility standards. S301's object identification, epoch data, errors, covariances and reference frame still require verification. Do not assume it is an alias of another star.

Relevant experience: Astrophysics, orbit integration, astrometry or statistical fitting. First step: Check mappings for area radius, coordinates, mass, distance and orbital parameters, and test whether the current model has a nondegenerate difference. For S301, first document traceable inputs and missing items.

Deliverable: A complete order expansion, mapping table, degeneracy analysis and reproducible calculations. Only after the S301 data gate is met should work proceed to fits, residuals and covariances under a common likelihood. Record a non-discriminating result when the difference is zero. There is currently no S301 orbit fit or conclusion supporting ASD.

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