PUBLIC EVIDENCE DOSSIER

S1Shielding2026

Numerical proof-of-concept

S1: Phase-Adaptive Radiation Shield

A phenomenological shield-control model compares unshielded, passive, adaptive, delayed, and phase-advanced responses under synthetic GCR-like stress.

Normalized educational approximation; not a reproduction of the published experiment.

S1
EVIDENCE MODE
Numerical study
SCOPE
CLAIM-BOUNDED
Publication
Public publication · DOI
01QUESTION

Research question

Can an adaptive phase-state layer improve a protected-region deposition proxy beyond a passive slab, and how do geometry and latency bound that advantage?

02MODEL

MODEL SCOPE

Public model description

A phenomenological transport and deposition-proxy model places passive and adaptive phase-state layers around a protected region. Geometry, control latency, prediction, and phase advance are explicit interventions.

03EXPERIMENT

PROTOCOL

Declared evidence chain

S1.1–S1.9 compare unshielded and passive baselines with adaptive, gated, delayed, predictive, and phase-advanced responses under synthetic GCR-like stress and geometry changes.

Series: S1.1–S1.9 · passive/adaptive · geometry · latency · phase advance

  • S1.1–S1.9
  • passive/adaptive
  • geometry
  • latency
  • phase advance

The labels below preserve the public protocol identity. They are an index to the publication, not a substitute for its full methods or an open reproducibility bundle.

04RESULT

EVIDENCE

Results inside the model

9Evidence stages
PHASE ADVANCELatency compensation
SYNTHETICGCR-like stress source

INTERACTIVE MODEL LENS

Latency-compensated attenuation lens

A synthetic event-field view of passive shielding, delayed adaptive response, and phase-advance compensation at a protected readout.

NORMALIZED EXPLANATORY VIEW
Active statePhase advance

Phase advance restores most of the delayed response in the tested sweep.

Geometry, intensity, timing, and motion in this lens are normalized explanatory encodings. They are not experimental measurements. Published aggregates remain in the evidence signals and source figure.
  1. Adaptive control improves the protected-region deposition proxy over the passive baseline in the intended directional stress case.
  2. Coverage, thickness, and protected-region placement determine leakage and wall-load trade-offs.
  3. Uncompensated latency erodes the adaptive advantage; phase advance restores most of the delayed response across the tested sweep.
05CLAIM BOUNDARY

BOUNDARY

CLAIM BOUNDARY

  1. 01
    Declared numerical protocol

    S1.1–S1.9 · passive/adaptive · geometry · latency · phase advance

  2. 02
    Supported model-level finding

    Adaptive control improves the protected-region deposition proxy over the passive baseline in the intended directional stress case.

  3. Claim boundary
  4. 03
    Requires a separate validation chain

    This is not an ab initio material calculation, full radiation-transport solver, biological dosimetry, spacecraft shield design, or device-level validation. The source and deposition readouts are synthetic proxies.

Numerical evidence is not physical validation. Transfer to a material, device, organism, environment, or operational service requires a separate validation chain whenever such a transfer is relevant.

06PUBLICATION

Publication record

Author
Nikita Teslia
Programme
Shielding
Claim type
Numerical proof-of-concept
Year
2026
Dossier review
Series
S1.1–S1.9 · passive/adaptive · geometry · latency · phase advance
License
CC BY-NC-ND 4.0
DOI
10.5281/zenodo.20492784

Citation

Teslia, N. (2026). S1: Phase-Adaptive Radiation Shield. Zenodo. https://doi.org/10.5281/zenodo.20492784Open publication record

The DOI is the canonical external record. The site condenses the public publication and does not replace it.

PROGRAMME TOPOLOGY

Research lineage

Lineage records publication sequence and explicit revision or supersession links. It does not assert empirical causation or an otherwise unverified cross-branch dependence.

Predecessors

No predecessor is asserted in the current research graph.

S1Shielding
Successors

No published successor is encoded in the current research graph.

FIELDSTABLE