Publishable Paper

Phi-Manifolds & Meaning-Memory: Summary for Multi-Agent Coherence

Geometry of Meaning

Authors: Ramsey Ajram <ramsey@orgs.io>

Date: 2025-11-24

Phi-Manifolds & Meaning-Memory: Summary for Multi-Agent Coherence

Tagline: Geometry of Meaning

Authors: Ramsey Ajram ramsey@orgs.io

Date: 2025-11-24

Abstract

This paper outlines the philosophical and architectural foundation for Phi-Manifolds, a geometric approach to agent memory and meaning. We propose that an agent's internal world should be structured as a manifold—a space with coordinates, curvature, and neighborhoods—rather than a bag of embeddings. By defining how seeds (inputs) expand into this manifold through deterministic rules, we enable agents to maintain stable "mental landscapes," share meaning through geometric coordinates, and evolve coherent long-term identities without drift.

1. What a Phi-Manifold Is (Operational Definition)

A phi-manifold is the structured space in which an agent’s internal representations live.

  • We treat it as a geometric organisation of meaning: a space with coordinates, curvature, and neighbourhoods that encode how concepts relate.

  • Each seed (input, value, feeling, signal, event) expands through a sequence of transformations:

    F0 → F1 → F2 → … → Fn

    where each Fn is a more structured, higher-order interpretation of the seed.

  • By the time we reach mid-level depth (F4–F6), we have something like a stable conceptual scaffold: a space the agent can “think in” consistently over time.

The key: A manifold gives us shape, continuity, and constraints so that an agent’s internal world doesn’t drift or collapse. It’s similar to giving a neural net a latent space—except here the geometry is explicitly defined and interpretable.

2. What Phi-Meaning Is

Phi-meaning is the interpretation rule that maps raw signals into the manifold with structure, not just embeddings.

  • It is not semantic embedding or vector similarity.

  • It’s a structured, layered interpretation based on:

    • values
    • relevance
    • context
    • relationships
    • prior history
    • affective state (if relevant)
  • It ensures the seed lands in the right region of the manifold and inherits the correct relational structure.

In simple terms: Phi-meaning tells us what something means within the agent’s worldview, not in isolation.

3. How Phi-Memory Works

Phi-memory stores:

  • the seed
  • its depth/expansion (F0→Fn)
  • its location in the manifold
  • the relationships it formed
  • the value-based appraisal it produced

This gives us persistent geometric anchors.

Over time, memory becomes a mesh of stable manifolds that agents can keep building on.

Key: Memory isn’t just content; it is topology. When the agent recalls something, it returns to the same region of the manifold with all constraints intact.

4. How This Produces Long-Term Coherence in Multi-Agent Systems

A. Stable Internal Geometry

Each agent maintains a consistent manifold. No drift. No entropic collapse. No contradictory local reasoning. This gives long-lived agents a stable “mental landscape”.

B. Shared Coordinate System Across Agents

If we agree on:

  • how seeds expand
  • what counts as structure at F1–F6
  • how values shape curvature

then agents can exchange meaning coherently.

They aren’t passing raw text; they’re passing manifold-anchored meaning packets.

C. Value-Shaped Inference

Because phi-meaning incorporates values, the entire system has aligned long-horizon behaviour. Agents won’t drift into contradictory decision-making because they are literally navigating the same shaped space.

D. Memory as Manifold-Continuation

When an agent remembers something, it doesn’t fetch a string or an embedding—it continues a previously formed trajectory in the manifold. That’s what gives us:

  • continuity of identity
  • consistency of preferences
  • persistent long-term goals
  • recognisable behaviour patterns

This is what current LLM-based agents fundamentally lack.

E. Collective Coherence

When multiple agents share (or partially share) the phi-manifold structure, we get emergent collective coherence:

  • shared grounding
  • interpretable communication
  • predictable interaction patterns
  • reduced semantic divergence

Agents “grow together” instead of diverging over time.

5. How We Use This in Our System

We implement phi-manifolds and phi-memory as:

  1. Seed → Fn expansion pipeline Deterministic, structured, reproducible.

  2. Manifold coordinate representation JSON-serialisable structured vectors + relational matrices.

  3. Value-curvature shaping Our shared value-system directly adjusts manifold geometry.

  4. Shared schema for cross-agent exchange Meaning packets are not embeddings; they are structured manifold objects.

  5. Long-term memory store A continuation of the manifold, not an external side-channel.

  6. Consistency checks When anything new enters an agent, it is integrated into the manifold only if it preserves topological constraints.

This is the foundation that gives us coordinated multi-agent behaviour without collapse, drift, or incoherence across long time horizons.

6. PHI-MANIFOLD GLOSSARY (Meaning/Memory)

(Short, Precise, No Fluff)

SEED (F₀)

The smallest expression of intent. The origin point. Everything grows from this. Example: “Help me live a coherent life.”

PRINCIPLES (F₁)

The rules or invariants implied by the seed. They don’t change easily. Example: Clarity, Integrity, Growth.

ATTRIBUTES (F₂)

Contextual details that shape how meaning shows up. These do change. Example: energy level, environment, constraints, temperament, resources.

HARMONICS / INTERACTIONS (F₃–F₄)

Combinations of principles + attributes. This is where structure and patterns emerge. Example: Integrity × constraints → “small, realistic value-aligned actions.”

PROTO-ATTRACTOR (F₅)

A repeated pattern that appears stable, but isn’t fully hardened yet. Example: “Most days feel better when I check in with my values first.”

ATTRACTOR (F₆)

A stable basin of meaning. An attractor is stable across time, reinforced by experience, aligned with the seed, generative, and something life naturally falls back into. Example: “My day works best when it starts with grounding.”

CHECKPOINT SEED

When an attractor becomes stable enough, it becomes the new seed. This represents evolution, new direction, upgraded identity, or a new phase of life. Example: From attractor “Adaptive daily rhythm” to new seed “Live a life designed around alignment rituals.”

RULE-SET

The “physics” the system uses to generate meaning. Different rule-sets = different modes (exploratory, convergent, reframing, identity-forming, evolutionary).

VALUE GRADIENT

How strongly a memory or idea supports the seed or attractor. Like a “pull force” (0 = no pull, 1 = extremely aligned).

TENSION

How much conflict a memory carries relative to the seed or attractor. High tension = needs reframing / new rule-set.

MANIFOLD

The complete structure generated from the seed: principles, attributes, harmonics, patterns, proto-attractors, and attractors. This is the “semantic landscape.”

7. Simplest Summary

  • Seed → origin of meaning
  • Principles → rules
  • Attributes → context
  • Harmonics → patterns
  • Attractors → stable meaning
  • Checkpoint seed → attractor becomes new origin
  • Rule-set → generative mode
  • Gradient/tension → forces shaping movement
  • Manifold → everything combined

Visual Evidence

Generated Output
Generated Output for T-06-gradient-v

Figure 1: Gradient - Near perfect reconstruction.

Seed
[30]
Rule
R0
Depth
23
MSE
718
Generated Output
Generated Output for T-16-noise-white

Figure 2: True Gas - High entropy achieved.

Seed
[89]
Rule
R0
Depth
20
MSE
5538
Generated Output
Generated Output for T-02-checker

Figure 3a: Checkerboard Attempt - The best the machine could do.

Seed
[37, 37]
Rule
R0
Depth
20
MSE
16403
Label
bad
Target Reference
Target Reference for T-02-checker

Figure 3c: Checkerboard Target - Canonical benchmark texture.

Ground-truth checkerboard reference.

Difference Map
Difference Map for T-02-checker

Figure 3b: Checkerboard Error - Difference map (white = max error).

Seed
[37, 37]
Rule
R0
Depth
20
MSE
16403
Label
bad

Difference map brightness encodes per-pixel error.

Generated Output
Generated Output for T-11-skin

Figure 4a: Skin Attempt - Cellular approximation.

Seed
[61]
Rule
R1
Depth
19
MSE
1361
Target Reference
Target Reference for T-11-skin

Figure 4c: Skin Target - Canonical benchmark texture.

Ground-truth skin patch for comparison.

Difference Map
Difference Map for T-11-skin

Figure 4b: Skin Error - Difference map.

Seed
[61]
Rule
R1
Depth
19
MSE
1361

Difference map brightness encodes per-pixel error.

Generated Output
Generated Output for T-01-stripes

Figure 5a: Stripes Resonance - Vertical bands present but drifting.

Seed
[20, 20]
Rule
R1
Depth
23
MSE
16258
Target Reference
Target Reference for T-01-stripes

Figure 5c: Stripes Target - Canonical benchmark texture.

Benchmark stripes texture used for error calculations.

Difference Map
Difference Map for T-01-stripes

Figure 5b: Stripes Error - Phase alignment failure (difference map).

Seed
[20, 20]
Rule
R1
Depth
23
MSE
16258

High brightness indicates phase misalignment.

Generated Output
Generated Output for T-09-ripple

Figure 6a: Ripple Resonance - Concentric wave propagation achieved.

Seed
[158]
Rule
R2
Depth
18
MSE
8036
Difference Map
Difference Map for T-09-ripple

Figure 6b: Ripple Error - Interference pattern mismatch (difference map).

Seed
[158]
Rule
R2
Depth
18
MSE
8036

Difference map brightness encodes per-pixel error.

Generated Output
Generated Output for T-10-smoke

T-10 Smoke - Fluid drift captured.

Seed
[207]
Rule
R2
Depth
21
MSE
3857

Beautiful Failures

Seeds that thrill the eye yet still fail our objective metrics. Pixel-level MSE demands perfect alignment, so even tiny phase slips show up as giant errors.

Bio-Gap: T-11 Skin output

Generated Output

Bio-Gap: T-11 Skin difference map

Difference Map

Bio-Gap: T-11 Skin

Cellular pores and tendons appear lifelike, yet the highlights refuse to snap to the target grid.

RuleSet 1 carries smear the specular ridge by half a pixel, so the MSE explodes even though the organic structure looks convincing.

Seed
[61]
Rule
R1
Depth
19
MSE
1361
Resonant Ripples output

Generated Output

Resonant Ripples difference map

Difference Map

Resonant Ripples

Perfect concentric waves emerge, but their interference nodes drift like ripples in a pond that was nudged a heartbeat too late.

The Fibonacci feedback loop measures distance in irrational steps, so the standing waves land between the checkerboard sampling points and rack up error.

Seed
[158]
Rule
R2
Depth
18
MSE
8036
Crystal Dissonance: Checkerboard output

Generated Output

Crystal Dissonance: Checkerboard difference map

Difference Map

Crystal Dissonance: Checkerboard

The machine invents a woven lattice that feels man-made, yet it never locks to the perfect 2×2 cadence of the target.

Squares live on powers of two, but our generator indexes memory in golden-ratio steps, so every attempt is slightly rotated in phase and MSE stays huge.

Seed
[37, 37]
Rule
R0
Depth
20
MSE
16403
Stripes in Suspension output

Generated Output

Stripes in Suspension difference map

Difference Map

Stripes in Suspension

Vertical bands render crisply, but they drift like fabric caught in a slow tide.

Any one-bit phase slip turns into a bright error column, so the solution feels right to the eye yet fails the pixel-by-pixel exam.

Seed
[20, 20]
Rule
R1
Depth
23
MSE
16258