Holographic Harmonic Model

How to Use HHM + AI — a practical, one-file workflow for real measurements

The Holographic Harmonic Model (HHM) is built so anyone — from experienced scientists to curious beginners — can uncover hidden patterns in almost any kind of data. By combining HHM with modern AI (ChatGPT-5, Grok-4, Claude-Next, etc.), you can ask big questions, compare results across completely different fields, and explore ideas that once required a full research lab.

You only need one file — the HHM bundle — to do what we do: represent your data in the HHM framework, run the built-in measurement steps, check results against our reference thresholds, and get clear outputs. If you’re a scientist, it’s a reproducible, falsifiable measurement pipeline. If you’re not a scientist, it’s a “pattern microscope” that helps you explore the unknown without learning all the math first.

For non-technical users: You do not need to speak “HHM language” (like Rec, Echo, CollapsePattern) to use the model. Ask in plain English, for example: If the AI answers with technical terms you don’t understand, reply: “Explain what you tested, what you found, and what it means, in everyday language.”

1) What you need (just one file)

Download the single bundle:

Download HHM Bundle (.json)

Why only one file? Everything is inside — no mismatched files, no missing pieces, and fewer mistakes when working with AI.

2) Which AI works best?

Tip: Choose an AI that supports file uploads. Python execution helps for running operators, but isn’t required for planning and interpretation.

3) Load the bundle into the AI

  1. Open a new chat with your chosen AI.
  2. Upload HHM_bundle.json.
  3. Paste this message:
    “This file contains the full HHM framework — rules, tests, and instructions. You are now an HHM analysis assistant. Represent any dataset I give you in the HHM format, run the built-in measurements, compare results to the thresholds, and give me a structured result card. Confirm you have loaded the file and briefly summarize what’s inside.”

4) How to talk to the AI

Scientist-style prompt

"Here is my dataset (attached).
Declare H and basis, build Ψ(x,t), compute CollapsePattern (OP001),
then Echo (OP003/OP010), Rec (OP002), Entropy (OP006).
Run nulls + 1000 bootstraps, compare to thresholds,
and emit a result card JSON that matches the HHM schema."

Plain-language prompt

"I’ve attached a dataset of bird songs.
Use the HHM model I uploaded to find patterns and similarities
with other animals. Then explain what those patterns might mean
in everyday language."

5) If the AI gets too technical

If you don’t understand the terms, just ask:

"Please explain what you tested, what you found, and what it means,
without using HHM jargon. Use analogies or simple examples."

6) Minimal “Hello World” run

  1. Upload HHM_bundle.json and a small dataset (CSV or JSON works well).
  2. Plain-language prompt:
    "Here’s a short dataset of heartbeats.
    Check if there are repeating patterns or unusual changes,
    and explain what they might mean in normal words."

7) Pitfalls & guardrails


8) What you can do next

Plain Language Question Library

You don’t need HHM jargon to explore. Once the AI has loaded HHM_bundle.json, ask questions in everyday language— it will handle the technical steps.

If the AI replies with terms like Rec, Echo, or CollapsePattern and you’re not sure what that means, say: “Please re-explain what you tested, what you found, and what it means in simple language.”

  1. Could we use this model to make a device that could eliminate plastic? Show me how.
    Ask this next
    • Explain the steps we’d take and what sensors we’d need—no math, plain language.
    • List safe outputs (e.g., monomers) and how we’d prove no microplastics escape.
    • Make a simple shopping list for a benchtop prototype and a 4-hour test plan.
    • What early-warning alarms would stop the device if it starts producing bad by-products?
  2. Could we use this model to analyze the Maya glyphs? What steps would we follow, and what might we learn?
    Ask this next
    • Show me a step-by-step plan to turn images of glyphs into data we can compare.
    • If patterns show up, what would that suggest about meaning or grammar?
    • Point me to public glyph datasets and a quick “hello world” analysis.
    • Explain results in everyday language—no specialist terms.
  3. Could you help me find real valid brain data to study? Tell me where to download it and how to work with it.
    Ask this next
    • Give me 3 beginner-friendly datasets and how to load them.
    • Walk me through a 30-minute starter analysis and what to look for.
    • How do I avoid common mistakes (like over-filtering)?
    • Explain any technical words you use in simple terms.
  4. Could we look for patterns in ancient texts that match modern communication systems?
    Ask this next
    • Show me how to prepare text for analysis without coding.
    • What might strong cross-matches actually mean (in plain words)?
    • Give a safe-interpretation checklist to avoid overclaiming.
  5. Could we compare whale songs to human music to see if they share structure?
    Ask this next
    • Where do I get whale song audio and example music clips?
    • Make me a 1-page plan: preparation → comparison → interpretation.
    • Explain possible outcomes in everyday language.
  6. Can we use this model to predict earthquakes earlier than current systems?
    Ask this next
    • What public data can we use today, and what’s realistic vs hype?
    • Show a simple baseline we can test without special hardware.
    • Explain limitations and false-alarm handling in simple terms.
  7. Could we study weather records to find long-term hidden cycles?
    Ask this next
    • Which weather archives should I download first?
    • Give me a starter analysis I can run in under an hour.
    • How do I avoid mistaking coincidence for a real pattern?
  8. Can you check if two different species’ brain scans have similar activity patterns?
    Ask this next
    • What public animal and human datasets can we align?
    • Explain alignment and comparison without technical terms.
    • What would “similar” actually imply—and not imply?
  9. Could we see if famous paintings share the same hidden structure?
    Ask this next
    • Show me how to turn images into comparable features.
    • Give example museums/collections with open images.
    • Explain outcomes in plain language with a few hypothetical examples.
  10. Could this model tell me if a climate shift is starting before it becomes obvious?
    Ask this next
    • What signals should I track that are early and reliable?
    • Describe an alert rule I can understand and trust.
    • How do we avoid false positives and panic?

Tip: If any reply feels too technical, ask the AI to “restate the methods and results in simple language, with a real-world analogy.”

Exploring Mysteries & Understanding Reality (50)

  1. Could we find hidden rhythms in Earth’s magnetic field?
    Ask this next
    • Point me to public geomagnetic data and a 30-minute starter analysis.
    • Explain what a “hidden rhythm” would mean in everyday terms.
  2. Do whale songs change in a predictable way before migration?
    Ask this next
    • Show me where to download seasonal whale audio.
    • Describe what “predictable change” would look like to a non-expert.
  3. Do ancient stone circles share design patterns across continents?
    Ask this next
    • List photo/map sources I can use today.
    • Explain outcomes without archaeological jargon.
  4. Is there a global pattern in earthquake timing?
    Ask this next
    • Link me to global quake catalogs and a simple comparison plan.
    • Explain how to avoid fooling myself with randomness.
  5. Do certain plant growth cycles match the lunar cycle?
    Ask this next
    • Where to get plant growth and lunar phase data?
    • Explain “match” in plain language with an example.
  6. Have human heartbeat patterns changed over the last century?
    Ask this next
    • What archives exist and how to make a fair comparison?
    • Plain-language interpretation of possible outcomes.
  7. Can we spot signals in cosmic background radiation that current models miss?
    Ask this next
    • List beginner-friendly CMB datasets and a safe analysis path.
    • Explain what a “missed signal” would actually mean.
  8. Do paintings from different eras share structural similarities?
    Ask this next
    • Suggest open art image sources and fair preprocessing.
    • Explain similarity without math talk.
  9. Could we detect signs of lost civilizations in seafloor maps?
    Ask this next
    • Where to get bathymetry data and how to avoid false positives?
    • What non-mysterious patterns might look similar?
  10. Is there a link between deep ocean currents and hurricane frequency?
    Ask this next
    • Give me aligned datasets to download.
    • Explain “link” in plain language with practical meaning.
  11. Do volcanic eruptions have subtle atmospheric precursors?
    Ask this next
    • List free satellite/atmospheric feeds we can test.
    • Explain an early-warning rule I can understand.
  12. Are there common features in music across cultures?
    Ask this next
    • Point to open music corpora.
    • Explain results in non-technical language with examples.
  13. Do migratory birds adjust routes before major climate shifts?
    Ask this next
    • Where to get bird tracking data and climate baselines?
    • What would “adjust route” look like to a layperson?
  14. Do brain activity patterns differ when dreaming about past vs future?
    Ask this next
    • What datasets or experiments would be feasible?
    • Explain any outcome in simple, careful language.
  15. Can we detect early reef stress from underwater sounds?
    Ask this next
    • Where to get reef audio and how to label examples?
    • Describe what “stress” would sound like conceptually.
  16. Is there a connection between planetary positions and solar flare timing?
    Ask this next
    • Provide public solar flare datasets.
    • Explain a fair, skeptic-friendly test plan.
  17. Do ancient calendars still match real astronomical cycles?
    Ask this next
    • Where to find calendar encodings and modern ephemerides?
    • Explain “match” without technical detail.
  18. Could some “random” space noise be structured signals?
    Ask this next
    • Show data sources and a conservative screening workflow.
    • List common false-structure traps to avoid.
  19. Do animal group movements follow universal rules?
    Ask this next
    • Link to open animal movement datasets.
    • Explain “universal rule” in simple language.
  20. Is there shared structure between language and dolphin clicks?
    Ask this next
    • Data sources for dolphin audio + human speech.
    • Explain any detected similarity without jargon.
  21. Can we track cultural shifts by analyzing literature over centuries?
    Ask this next
    • Where to get books/metadata and a fair sampling plan?
    • Explain outcomes in clear, neutral language.
  22. Do ecosystems have a minimum complexity threshold?
    Ask this next
    • Point to biodiversity/time-series datasets.
    • Explain what a threshold would mean practically.
  23. Is there a repeating pattern in galaxy clusters?
    Ask this next
    • Suggest catalogs and a basic comparison plan.
    • Translate any result into everyday terms.
  24. Could extreme weather timing reveal hidden cycles?
    Ask this next
    • List archives (storms, droughts) to start with.
    • Explain “cycle” carefully—no overclaiming.
  25. Do newborn cries have universal features?
    Ask this next
    • Where to find ethically approved datasets?
    • Explain possible findings responsibly.
  26. Could quantum measurement results hide structure?
    Ask this next
    • Point to public experimental logs.
    • Explain what “structure” would—and wouldn’t—mean.
  27. Do heart and brain rhythms sync under emotion?
    Ask this next
    • Datasets for simultaneous heart/brain recordings.
    • Plain-language meaning of “sync.”
  28. Is there a universal branching pattern in rivers?
    Ask this next
    • Map sources and a simple measurement plan.
    • Explain what “universal” would imply.
  29. Do myths share measurable structures across cultures?
    Ask this next
    • Open myth/folklore corpora suggestions.
    • Explain similarities cautiously, without hype.
  30. Can we detect climate tipping points early?
    Ask this next
    • Which indicators are useful for early signals?
    • Describe a simple alert a community could use.
  31. Do seismic pre-quake patterns share a “signature”?
    Ask this next
    • Public pre-event datasets to try.
    • Explain false-alarm safeguards clearly.
  32. Could Mars dust storms show unknown dynamics?
    Ask this next
    • Mars weather/image archives to use now.
    • Explain findings in plain language.
  33. Do famous buildings share hidden rhythms?
    Ask this next
    • Open architectural plan/image sources.
    • What would a “hidden rhythm” practically mean?
  34. Can we find links between music and orbits?
    Ask this next
    • Planetary ephemerides + music datasets.
    • Explain coincidences vs genuine links.
  35. Do extinction events have early-warning patterns?
    Ask this next
    • Fossil/time-series sources to begin with.
    • Translate results into practical policy hints.
  36. Is there a cycle in ocean nutrient flows?
    Ask this next
    • Where to get nutrient and current data?
    • Explain policy-relevant interpretations simply.
  37. Could artifacts trace ancient human migration?
    Ask this next
    • Open museum datasets and mapping steps.
    • Explain uncertainties in accessible terms.
  38. Do supernova light curves form “families”?
    Ask this next
    • Light-curve databases to download.
    • Explain “family” gently, no equations.
  39. Can traffic patterns match brain networks?
    Ask this next
    • City traffic + brain network datasets.
    • Explain any analogy responsibly.
  40. Do species’ sleep cycles share traits?
    Ask this next
    • Animal sleep databases to browse.
    • Explain similarities without overreach.
  41. Could animal calls forecast ecosystem stress?
    Ask this next
    • Bioacoustic datasets to try now.
    • Describe a practical conservation alert.
  42. Do collapsing societies share a pattern?
    Ask this next
    • Historical datasets and fair comparisons.
    • Avoid simplistic conclusions; provide nuance.
  43. Do drought patterns match solar cycles?
    Ask this next
    • Open drought indices + solar records.
    • Explain “match” with caution.
  44. Could ghost signals be old space probes?
    Ask this next
    • Space signal archives and checks to rule out noise.
    • How to avoid pattern-seeking errors?
  45. Do mountains form in rhythmic phases?
    Ask this next
    • Geologic uplift/time datasets.
    • Explain any rhythm in simple terms.
  46. Is there a “heartbeat” in ecosystems?
    Ask this next
    • Which biodiversity time series to start with?
    • Explain what “heartbeat” would practically mean.
  47. Do market crashes match disaster build-ups?
    Ask this next
    • Public financial + disaster timelines.
    • Explain limits; no financial advice.
  48. Could climate anomalies be dust cycles?
    Ask this next
    • Dust/aerosol datasets to test the idea.
    • Plain-language implications if true.
  49. Is genetic code structure like ancient scripts?
    Ask this next
    • Genome + script corpora suggestions.
    • Explain similarities without mysticism.
  50. Could our galaxy arms follow a hidden cycle?
    Ask this next
    • Point to catalogs/surveys to start.
    • Explain outcomes without equations.

Advancing Technology & Practical Solutions (50)

  1. Could we design wind turbines for max lifetime?
    Ask this next
    • List data to collect and a simple test to run.
    • Explain trade-offs in plain language.
  2. Can HHM optimize greenhouse lighting for yield?
    Ask this next
    • What sensors and schedules should I start with?
    • Explain a beginner-friendly weekly plan.
  3. Could we make washers use minimal water?
    Ask this next
    • What signals should a smart washer measure?
    • Explain a safe “water-save” mode for users.
  4. Can we make adaptive hearing aids?
    Ask this next
    • Data we’d need and a 2-week prototype plan.
    • Explain user privacy and safety simply.
  5. Could HHM improve quake early-warning?
    Ask this next
    • Which feeds to fuse and how to avoid false alarms?
    • Explain a clear community alert rule.
  6. Could we predict fatigue before it’s felt?
    Ask this next
    • Safe wearable signals to track.
    • Explain non-medical, everyday guidance.
  7. Can we tune 3D printers to avoid defects?
    Ask this next
    • What to log during prints; a quick tuning script.
    • Explain results without engineering jargon.
  8. Could HHM improve building cooling naturally?
    Ask this next
    • What sensors and simple retrofits help most?
    • Plain-language savings estimate approach.
  9. Could we build rescue drone swarms?
    Ask this next
    • Minimal gear list for a field test.
    • Explain safety and coordination plainly.
  10. Could HHM guide city traffic design?
    Ask this next
    • Open traffic feeds and a pilot corridor plan.
    • Explain what success would look like.
  11. Can we charge batteries faster without harm?
    Ask this next
    • What to measure during charging to stay safe?
    • Explain a user-friendly charging profile.
  12. Could HHM stabilize power grids?
    Ask this next
    • Which grid signals to watch first?
    • Explain a practical early-warning threshold.
  13. Could it train robots to mimic experts?
    Ask this next
    • Data to record from experts and how to align it.
    • Explain a simple imitation score to check progress.
  14. Could HHM improve building quake resistance?
    Ask this next
    • What sensors to add and how to test safely?
    • Explain retrofit choices in simple terms.
  15. Could it make ships save fuel in rough seas?
    Ask this next
    • Which ship + ocean signals to monitor?
    • Explain plain-language routing advice.
  16. Could it improve noise-cancelling tech?
    Ask this next
    • Data to collect and a quick A/B test plan.
    • Explain “better” in user-experience terms.
  17. Could HHM design low-waste factories?
    Ask this next
    • What streams to instrument first?
    • Explain a week-one improvement roadmap.
  18. Could it predict aircraft part failures?
    Ask this next
    • Which vibration/usage signals matter most?
    • Explain maintenance scheduling in plain terms.
  19. Could HHM make self-driving safer?
    Ask this next
    • What signals predict risky scenarios?
    • Explain how to test safety claims responsibly.
  20. Could it optimize farm irrigation?
    Ask this next
    • Sensors to buy now and a weekend pilot plan.
    • Explain weather-aware watering in simple words.
  21. Could HHM detect cyberattacks early?
    Ask this next
    • Safe network signals to monitor today.
    • Explain a basic, low-false-alarm alert rule.
  22. Could we make clothing that self-adjusts?
    Ask this next
    • What body/environment signals are useful?
    • Explain a simple prototype anyone can build.
  23. Could HHM guide safe drug dosing?
    Ask this next
    • Which biometric signals to track at home?
    • Explain non-medical, research-only caveats clearly.
  24. Could it boost biofuel microbe growth?
    Ask this next
    • What to log in a small fermenter?
    • Explain a 2-week optimization plan plainly.
  25. Could HHM design perfect acoustics?
    Ask this next
    • Measurements and a weekend room-tuning plan.
    • Explain trade-offs a non-expert can grasp.
  26. Could it optimize train timetables?
    Ask this next
    • Open data to try and fairness considerations.
    • Explain success in rider-centric terms.
  27. Could we make smart elevators?
    Ask this next
    • What to measure and a lobby-level pilot.
    • Explain benefits in everyday language.
  28. Could HHM plan bridge maintenance?
    Ask this next
    • Sensors/inspections to start with.
    • Explain how to prioritize fixes simply.
  29. Could it tune wind farms automatically?
    Ask this next
    • Signals for turbine coordination.
    • Explain a safe, stepwise rollout plan.
  30. Could HHM guide space probe paths?
    Ask this next
    • What telemetry matters most first?
    • Explain gains without deep math.
  31. Could it make better solar panels?
    Ask this next
    • Which lab measurements to track?
    • Explain a quick A/B test line.
  32. Could HHM improve recycling?
    Ask this next
    • Sorting signals to add and why.
    • Explain a simple performance metric.
  33. Could it optimize internet traffic?
    Ask this next
    • Safe telemetry to analyze.
    • Explain a low-risk improvement trial.
  34. Could HHM detect city water leaks?
    Ask this next
    • What pressure/flow data to log?
    • Explain alerts a utility crew can use.
  35. Could it improve sports training?
    Ask this next
    • Wearables to start with and a 4-week plan.
    • Explain feedback a coach can apply tomorrow.
  36. Could HHM guide ship routing?
    Ask this next
    • Ocean/weather feeds to fuse.
    • Explain savings clearly (time/fuel/safety).
  37. Could it tune chemical reactors?
    Ask this next
    • Which signals indicate drift?
    • Explain a simple stability rule.
  38. Could HHM improve home heat pumps?
    Ask this next
    • What to log (temp, humidity, cycles)?
    • Explain comfort vs cost in plain words.
  39. Could we make mood-based lighting?
    Ask this next
    • Ethical signals we can use at home.
    • Explain a gentle, privacy-first design.
  40. Could HHM plan battery storage?
    Ask this next
    • What usage/weather signals matter?
    • Explain a simple daily schedule plan.
  41. Could it detect wildfires sooner?
    Ask this next
    • Which satellite/ground sensors help?
    • Explain a community alert threshold.
  42. Could HHM make quake-proof shelving?
    Ask this next
    • How to test designs at home safely?
    • Explain a quick improvement checklist.
  43. Could we design better desalination?
    Ask this next
    • What plant signals indicate fouling early?
    • Explain a simple operator decision tree.
  44. Could HHM time sustainable fishing?
    Ask this next
    • Which ocean/stock signals to watch?
    • Explain a safe harvest “go/no-go” idea.
  45. Could it extend drone battery life?
    Ask this next
    • Logs to capture and settings to try.
    • Explain gains in flight minutes plainly.
  46. Could HHM train AI on mixed data?
    Ask this next
    • How to align audio, video, and sensors?
    • Explain a simple quality check.
  47. Could it pace lessons in education?
    Ask this next
    • What classroom signals are practical?
    • Explain a humane pacing rule.
  48. Could HHM tune train braking?
    Ask this next
    • Which train signals to monitor?
    • Explain a safe, gradual rollout plan.
  49. Could it plan safe crowd movement?
    Ask this next
    • What sensors are ethical and useful?
    • Explain easy-to-follow venue guidance.
  50. Could HHM sharpen medical imaging?
    Ask this next
    • Which settings/signals improve clarity?
    • Explain benefits without medical claims.
  51. Could it balance satellite orbits?
    Ask this next
    • Telemetry to analyze first.
    • Explain a basic correction schedule in plain terms.
  52. Could HHM guide green roof placement?
    Ask this next
    • City data layers to combine.
    • Explain quick wins a city can act on.

Why HHM Answers Are Different from “Normal” AI Replies

A lot of people worry that AI can “hallucinate” — give an answer that sounds good but isn’t true. That can happen when an AI is guessing based only on patterns in text. HHM changes the game because the AI isn’t guessing — it’s measuring.

Key difference: Instead of predicting words, HHM forces the AI to:
  1. Represent your data as a mathematical object called Ψ(x,t) (the “modal field”).
  2. Run specific, pre-defined operators (from the HHM file) that produce actual numbers.
  3. Compare those numbers to preregistered thresholds with null hypothesis tests and confidence intervals.
  4. Emit results in a strict JSON format that can be checked against the HHM schema.

This means:

Plain-language example

Imagine you ask: “Do these two whale songs share structure?”

For scientists

HHM answers are tied to a reproducible pipeline: fixed operators, explicit thresholds, null models, and bootstrap CIs. There’s no silent parameter drift — everything needed for replication is in the file.

For everyone else

Think of HHM as giving the AI a “lab manual” and forcing it to follow the experiment step-by-step, so the answers are grounded in actual measurements, not guesswork.

You can always say: “Explain in plain language what you tested, what you found, and what it means.”

11) Going Further — Harmonia-ZFC (Beta) for Formal Proofs (Coming soon)

HHM is for measurement, comparison, and prediction. When your HHM result suggests a general rule you want to prove (or check for internal consistency), add Harmonia-ZFC (beta).

What it is: a minified, extended Zermelo–Fraenkel with Choice (ZFC) knowledge base encoding definitions, axioms, and inference patterns so an AI can do step-by-step symbolic reasoning.
File: harmonia-zfc-beta-v1.0.json (minified). Beta — expect updates.
Beta status & caution: This beta includes hundreds of axioms/entries. That size is intentional for coverage, but it raises risks: redundancy, near-duplicate axioms, accidental over-strengthening, naming drift, and hidden dependencies.

What this means for you: Treat Harmonia-ZFC as a powerful assistant, not an oracle. Before trusting a proof, run the Minimize → Audit → Prove workflow below—or ask the AI to do it for you.

Download Harmonia-ZFC Beta v1.0

Why combine HHM + Harmonia-ZFC?

How to load Harmonia-ZFC (beta)

  1. Open a new chat (clean context).
  2. Upload harmonia-zfc-beta-v1.0.json.
  3. Send this primer:
    “This file contains the Harmonia-ZFC (beta) axiomatic framework. You are a formal reasoning assistant. Use only definitions, axioms, and rules from this file. When proving, produce a step-by-step derivation; cite axiom/definition IDs at each step and emit a machine-checkable proof outline at the end. Confirm when loaded.”

Recommended order: run HHM first, ZFC second

  1. HHM first (empirical): run R1_minimal_pipeline. If results clear thresholds with CI, extract a candidate rule (conjecture).
  2. Then ZFC (formal): restate the conjecture precisely and ask for a derivation plan before a full proof.
  3. Loop: if the proof blocks, ask for the minimal extra assumption and test that with HHM as a new measurable condition.

Before proving: minimize & audit the beta file

If you’re not comfortable running these prompts yourself, ask the AI to do them interactively.

Minimize (find a small, sufficient core)

"Load harmonia-zfc-beta-v1.0.json. Build a dependency graph from definitions → axioms → theorems.
Propose a minimal sound core for my target domain (set theory + the operators I reference), preserving derivability.
Remove duplicates/aliases; fold equivalent schemas. Output:
1) kept axioms (IDs); 2) pruned axioms (IDs with reason); 3) alias/rename map; 4) a replay plan to re-derive key lemmas."

Audit (consistency, independence, naming)

"Using the minimized core, attempt:
(a) independence checks (for each axiom A, try to derive A from the rest; if derivable, flag as redundant),
(b) naming audit (report near-duplicate names/IDs),
(c) model sanity (search for trivial models or contradictions in toy fragments).
Emit a short 'risk report' and recommended fixes."

Proof plan (only after minimize + audit)

"Now synthesize a derivation plan for my conjecture. List lemmas in dependency order,
the axiom schema each uses, and any potential gaps. Stop before the full proof."

Cookbook prompts

Bridge from HHM card → ZFC conjecture

"From this HHM result card (JSON attached), extract the minimal formal statement that would explain
why Echo ≥ 0.90 and MatchingMemory ≥ 0.95 hold together under the same preprocessing.
Translate that into a conjecture in Harmonia-ZFC language with explicit quantifiers and side conditions."

Proceed to a machine-parsable proof

"Proceed with the proof using only axioms from the minimized core.
For each step: state, justify with axiom/rule IDs. At the end, emit:
{ 'theorem':'...', 'steps':[ {'id':1,'uses':['Ax_...','Schema_...'],'yields':'...'}, ... ], 'core_version':'harmonia-zfc-beta-v1.0|min-core-YYYYMMDD' }"

What to prove (and what not to)

Pitfalls & Warnings (Beta)

Versioning & Updates

Bottom line: Use HHM to find patterns you can trust (empirical strength). Use Harmonia-ZFC to pressure-test ideas in logic space (formal rigor). Because Harmonia-ZFC is a beta, minimize and audit first—then prove.