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- Prover-Integrated Orchestration Layers (L0-L3): Goedel-Prover-V2 watchdog, BFS-Prover-V2 swarm consensus, bf4prover topology adaptation - FAMM Verilator benchmark: uniform vs preshaped delay comparison (4.4x speedup) - Swarm topological device prober: 11 agents probing traces, caps, delays, errors, vias, PDN - Spec sheet puller: 10 components with key params and topological relevance - Virtual FPGA system tests: 6/6 passed, 134K ops/s throughput - Fixed merge conflicts in AI-Newton test_experiment.ipynb
187 lines
6.9 KiB
Markdown
187 lines
6.9 KiB
Markdown
# Adaptive Material Math Application Map
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Status: candidate integration map
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Purpose: identify where the locally adaptive flip-tile / fractal-hair /
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MXene-scroll concept can pay rent elsewhere in the Research Stack math.
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## Core Transfer
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The shared primitive is:
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```text
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2D controllable surface
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-> local tension / strain / charge imbalance
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-> curl, flip, extend, branch, or lock
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-> 1D path, contact, channel, or route
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```
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That maps directly onto several existing stack surfaces:
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```text
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surface state -> local transition -> routed path -> receipt
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```
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The concept should be treated as a finite local state machine first, not as
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unbounded morphing material.
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## Best Application Targets
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| Target | Existing surface | How the material concept applies | First test |
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|---|---|---|---|
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| DynamicCanal | `Semantics.DynamicCanal` | A canal section is like a scrollable sheet: pressure/stress/mismatch decides whether a lane stays flat, narrows, curls into a throat, or ruptures. | Add `curlBias = stress * mismatch / capacity` as a candidate canal classifier. |
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| COUCH | `CouchFilterNormalization`, `COUCH_EQUATION.md` | Near-critical flip tiles are physical COUCH oscillators: coupling, damping, hysteresis, and boundary avoidance decide whether a patch changes shape. | Treat `CriticalMargin` as a COUCH hysteresis gate and sweep it against `F_COUCH`. |
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| Charged-Mass Braid Sieve | `charged_mass_braid_sieve.md`, braid shifters | Fractal hairs and scrolls are path-sensitive: repeated contact/rotation separates stable grip from scar, residue, or discharge. | Model hair engagement as `M(t+1) = M(t) + contact_gain - release_risk`. |
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| Waveprobe | `waveprobe_qubo_spec.tex`, `Semantics.Waveprobe` | A flip-tile field is a local selection kernel: choose the tile/hair state with highest overlap to terrain/contact history. | Add contact-state QUBO features: adhesion, release, heat, fatigue, contamination. |
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| Soliton / void chasing | Soliton docs, `SolitonTensor`, `SolitonLighthouse` | A deformation wave through tiles is a soliton-like front; it chases low-risk contact basins and avoids scars. | Track tile-state fronts as discrete waves over a patch lattice. |
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| Morphic DSP | `MORPHIC_DSP_CONCEPT.md` | Flip-tile material is the physical analogue of virtual morphic DSP: fixed cells, changing local mode, receipt-gated collapse. | Reuse `BoundaryState`: independent, merged, split, fluid for tile patches. |
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| PIST / N-Shell | `PIST`, `GENSIS`, shifter scripts | Hair branch depth and tile orientation can be encoded as shell coordinates with mass-preserving local moves. | Encode `{tile, hair_depth, orientation}` as a PIST coordinate packet. |
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| Hutter / compression | Hutter and manifold compression scripts | Scroll/hair states are adaptive dictionaries for physical/contact patterns: reuse successful morphology memes as compressed route priors. | Compare repeated terrain/contact traces with and without morphology-meme reuse. |
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| Cotranslational folding | `CodonPeptideConsistency.lean`, `codon_rl_v2_summary.md` | "Structure through time before geometry" mirrors tile/hair extension: local sequence of flips matters before final shape. | Treat tile updates as exposure windows `W_t`, not a static final geometry. |
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| Neural type eigenvector coverage | `NEURAL_TYPE_EIGENVECTOR_COVERAGE.md` | Biological morphology features can rank which hair/tile patterns are plausible and efficient. | Add gecko/cilia/setae/skin texture features as external coverage nodes. |
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| Recursive branch cuts | `recursive_branch_cut_self_similarity.md` | Scroll formation is a finite, materials-grounded branch cut: flat sheet crosses a curvature threshold and commits to a new topology. | Use scroll onset as a concrete branch-cut analogy with no cosmology claim. |
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| Structural eFuse / SDR void hash | Semi-jack, patent/CAD, verification docs | SLS tubules, magnetic labyrinths, doped matrices, and piezo/ME capsules turn structural state into measurable RF/flux/electrical receipts. | Classify healthy vs failed tubule states using `VoidHash`, `flux_delta`, and `PercolationMargin`. |
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## Specific Equations To Try
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### 1. Scroll Bias For DynamicCanal
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```text
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ScrollBias(section) =
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stress
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* mismatch
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* pressure
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/ (1 + capacity + heat)
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```
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Interpretation:
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| Regime | Meaning |
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|---|---|
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| low bias | flat transport; keep lane/canal unchanged. |
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| medium bias | local curl; narrow into directed route. |
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| high bias | throat candidate; use receipt gate. |
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| extreme bias | rupture/quarantine. |
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### 2. Hair Contact Mass For Braid Sieve
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```text
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ContactMass(t+1) =
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ContactMass(t)
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+ adhesion_gain
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+ microhook_gain
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- release_risk
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- fouling_risk
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- damage_risk
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```
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Promotion:
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```text
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promote_contact iff
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ContactMass >= contact_floor
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and release_risk <= release_ceiling
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and heat <= heat_ceiling
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```
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### 3. Tile-State QUBO For Waveprobe
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```text
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Q_ij =
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terrain_match_i * terrain_match_j
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+ release_compat_i_j
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- heat_conflict_i_j
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- fatigue_conflict_i_j
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```
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The selected state maximizes:
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```text
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x^T Q x
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```
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subject to:
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```text
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detachability_ok
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heat_ok
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critical_margin_ok
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```
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### 4. COUCH Critical Margin
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```text
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PatchPressure =
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F_COUCH
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+ U_rot
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+ ContactAuthority
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- CriticalMarginPenalty
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- DamageRisk
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```
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Interpretation:
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| Output | Action |
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|---|---|
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| local | use current tile/hair meme. |
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| atlas | search morphology atlas. |
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| reject | hold/scar/quarantine. |
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### 5. Cotranslational Tile Windows
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```text
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SkinState_t = update(SkinState_{t-1}, TileWindow_t)
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```
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Where:
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```text
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TileWindow_t = (tile_{t-k}, ..., tile_t)
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```
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This mirrors the codon result:
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```text
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local updates influence structure through time before final geometry
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```
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## What To Avoid
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Do not claim:
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- graphene or MXene scrolls are already proven robot skin components
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- nanoscale effects carry the main load
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- the material changes shape for free
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- a gecko anchor solves all surfaces
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- a scroll analogy proves N-space equations
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Allowed claim:
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```text
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layered microstructured surfaces provide a grounded model for local
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state transitions, contact multiplication, and 2D-to-1D routing under strain
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```
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## Immediate Next Artifact
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The cleanest next implementation is a small JSONL schema:
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```json
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{"kind":"tile_state","id":"tile:0:0","phase":"near_critical","hair_depth":2,"orientation":3}
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{"kind":"contact_event","tile":"tile:0:0","terrain":"rough","adhesion":0.61,"release_risk":0.12,"heat":0.04}
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{"kind":"transition","src":"tile:0:0:flat","dst":"tile:0:0:hair_extend","receipt":"sensor-window-hash"}
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```
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Then run:
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1. COUCH pressure scoring over tile states.
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2. Waveprobe/QUBO selection over candidate contact memes.
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3. FAMM scar storage for failed release, fouling, or heat events.
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## Recovered Session Material Addendum
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See `RecoveredSessionMaterialConcepts.md` for the recovered material cluster
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from the local chat transcript: MXene nanoscrolls, charge-flow shaping,
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resonant SLS tubules, conductive valence matrices, magnetic labyrinths,
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magnetoelectric laminate capsules, piezo alerts, ferrite/carbon SLS doping, and
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SDR resonant void readout.
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