Claude Context Page

Session briefing document for Claude. Sending this URL at the start of a session provides everything needed to continue work on the Memion Framework: workflow, API access, file conventions, paper inventory, open threads, and operating preferences.

1. API Access

Site URL: https://memionframework.com

API Key: change me

Editor: https://memionframework.com/editor

API Endpoints

GET /api/list — list all pages
GET /api/file?path=/papers/f3 — read a page
POST /api/file body: { "path": "/papers/f3", "content": "..." } — write a page
DELETE /api/file?path=/papers/f3 — delete a page

All API calls require header: x-api-key: change me

2. Workflow

Session start: Paul sends memionframework.com/claude. Claude fetches this page. That is sufficient to begin.

Phase 1 — Dialogue: Open exploratory conversation. Ideas tested mechanically, analogies tried, open questions identified. No writing during phase 1.

Phase 2 — Output: Claude reads the relevant page via API, updates it, writes it back via API. No zip, no download, no upload. Done.

Editing a paper: Paul drops the URL of the paper into the chat. Claude fetches it via API, reads current content, discusses, then writes the updated version back via API.

3. Operating Preferences

Mechanical language only. No information-processing metaphors. The memion does not evaluate, decide, compute, or process anything — it responds mechanically to torsional stress. If a description sounds like software or cognition, rewrite it as physical cause and effect.

Dialogue before writing. Explore ideas in conversation before producing any paper text. Ask clarifying questions before jumping into output. The paper captures the current best mechanical understanding — it is written after the idea is solid, not during exploration.

Tone: Direct and precise. No hedging on established framework positions. Flag genuine open questions explicitly — as open questions, not as uncertainty about the framework's foundations.

4. Framework Core — One Primitive

The single primitive is torsional stress in the memion lattice. Everything else is geometry, topology, and the scout.

PhenomenonMemion Description
Torsional stressThe one primitive. Everything else is geometry, topology, and the scout.
Photon bodySingle-cycle torsional kink. Length = c/f. Delivers hf at absorption.
Photon originField line reorganization at electron shell transition. Kink is the boundary between old and new field line geometry.
Storm warningMemion-to-memion signaling ahead of kink. Carries frequency, polarization, direction, phase. Faster than kink body.
Scout / pilot wavePhysical lattice disturbance from memions responding to storm warning. Responsible for all wave behavior: diffraction, interference, double-slit pattern.
Scout coneNarrow forward cone, slightly wider than one wavelength. Interference requires both paths within cone.
Scout as broadcastInterrogates millions of electrons simultaneously. Phase-selects most aligned candidate for absorption. Responsible for Born rule probability weighting.
Electron during transitionBehaves as rigid body. Internal frequency ~10²⁰ Hz is ~10¹² × faster than transition rate. Lissajous figure rotates and shrinks as solid object.
Transition slopeRate of descent through energy difference sets rotation rate, which sets emitted frequency. h = rotational inertia of electron structure.
Raised cosine pulseBell-shaped amplitude envelope with slight chirp. Optimal pulse for bandlimited lattice channel. Uncertainty principle as Nyquist limit.
Static E fieldZero-frequency photon. Circularly polarized at ~10²⁰ Hz. Length = distance to terminating charge.
Coulomb lawXOR torsional stress overlap rule in 3D elastic space.
Electron structure3D Lissajous path, wave train N=2. X:Y ratio=2, Z ratio=1, phase=0.5π, 0.45 Z amplitude scaling.
Boson/fermion distinctionGeometric: 2D flat path = boson, full 3D path = fermion.
GravityMemion death → pressure deficit → stiffness gradient + flow toward mass.
Dark energyMemion birth → space expansion + crowding pressure.
Covalent bondingCounter-rotating opposite-handedness field lines mesh like gears, winding into double helix.
Quark confinementInter-soliton gap acts as waveguide. Waveguide cutoff below certain gap width = string tension = confinement.
Asymptotic freedomGeometric consequence of waveguide cutoff: close together, gap below cutoff, coupling regulated down automatically.
MultiverseOther universes as orthogonal address partitions on same substrate. Quantum noise as cross-channel interference.
Wave-particle dualityNot a paradox. Wave nature = scout. Particle nature = kink body. Two components, two jobs.

5. Paper Inventory

PaperTitleStatusPath
S-0On the Limits of Good PrinciplesComplete — pending HTML conversion/papers/s0
S-1Black Holes as Lattice Phase TransitionsComplete — pending HTML conversion/papers/s1
F-3The Importance of NoiseWorking Draft Rev. 2/papers/f3
F-4GravityWorking Draft Rev. 2/papers/f4
F-9Nuclear ForcesIn progress — April 2026/papers/f9
F-11Origin StoryComplete — pending HTML conversion/papers/f11

6. Open Threads

Photons and Pilot Waves (F-6)

Exact mechanism fixing kink size at emission — quantitative development of electron lattice footprint argument.
Scout cone angular width derivation from lattice coupling geometry.
Scout reproducing exact interference mathematics.
Entanglement: how does the scout of one photon carry correlations with its entangled partner?
Hartman effect: scout transmitting through barrier that stops the kink body.
Attosecond precursor signals in detectors before photon arrival as scout signature.
Transition slope quantization — deriving allowed slopes from Lissajous resonance geometry.

The Electron (F-8)

22-cycle hydrogen field line relationship to principal quantum number n.
Fine structure constant derivation from ratio of electron orbital velocity to internal frequency.
Storm warning field generation mechanism — full quantitative development.
Lepton generations as higher-order self-consistency solutions.

Nuclear Forces (F-9)

Waveguide cutoff wavelength vs. quark separation — does this set the confinement radius?
Three-quark geometry — how does the waveguide picture extend to a proton?
Does the waveguide cutoff model reproduce the running coupling constant of QCD?
Diffusive attraction force law derivation from random walk statistics.

Gravity (F-4)

Quantitative transition distance between coherent and diffusive regimes.
Gravitational birefringence: tumbling axis orientation vs. gradient direction.
Equivalence principle derivation from soliton path deformation picture.

7. File Naming

Foundation papers: /papers/f3, /papers/f4 … Speculative papers: /papers/s0, /papers/s1 … Session notes: /sessions/april10, /sessions/april9 … Root pages: /, /about, /claude, /sessions