L’interface est localisée ; les présentations et documents des Skills sont traduits automatiquement par IA dans votre langue. Le code, les commandes, chemins et termes techniques restent en version originale, et le document de l’auteur fait foi.
Explorer les Skills
Productivité · SKILL.md

stochastic_interpolant_protocol

stochastic_interpolant_protocol

Construct endpoint-valid stochastic interpolant samples with latent schedules and derivative targets for reduced or full generative recovery experiments.

Independent GitHub snapshot · Automated classification · Original documentation governs

Documentation de la Skill

GitHub

name: stochastic_interpolant_protocol description: Construct endpoint-valid stochastic interpolant samples with latent schedules and derivative targets for reduced or full generative recovery experiments.

Stochastic Interpolant Protocol

Use this skill when a recovery or implementation needs to construct paper-faithful stochastic-interpolant tuples from endpoint samples. Do not use it as a sampler by itself; it only defines the bridge data used to learn fields.

Inputs

  • Endpoint values x0 and x1 with the same length.
  • Time values t in [0, 1], either one scalar or one value per sample.
  • Latent noise z with the same length as the endpoints.
  • Schedule name; the included script supports linear_quadratic_gamma.

Outputs

  • x_t = (1 - t) x0 + t x1 + gamma(t) z.
  • dot_x_t = x1 - x0 + gamma_dot(t) z.
  • gamma, gamma_dot, and endpoint-validity diagnostics.

Workflow

  1. Validate matching endpoint and latent vector lengths.
  2. Broadcast scalar time or validate per-sample time values.
  3. Use the linear interpolant and gamma(t)=2t(1-t) unless the caller supplies another validated implementation.
  4. Keep score-related division outside this skill because gamma=0 at endpoints.
  5. Save diagnostics when the output is used as recovery evidence.

Validation

Run:

python scripts/interpolant_protocol.py --demo
python tests/test_interpolant_protocol.py

Limitations

This skill intentionally avoids neural models, endpoint coupling optimization, and source-repository assumptions. It preserves the paper's construction contract and leaves field learning to objective skills.

Skills enregistrées