A young boy with brown hair wearing an orange jacket kneels in a shallow creek, examining an old, torn map laid on the water. Behind him, large, twisted tree roots extend into the water, forming a dark, natural archway.

A Theory Stack

The center is the delta. Collapse does not equal failure.

A measurement framework for structural reasoning across substrates.

This body of work develops a systematic approach to measuring geometric bias, structural identity, and compositional behavior in AI systems. The core premise: what an AI is doing can be measured geometrically, independent of whether it is generating images, producing language, analyzing biological tissue, or navigating novel environments.

These papers, notebooks, and tools were developed through systematic testing across image models (Sora, MidJourney, SDXL, Gemini, Stable Diffusion, Firefly, OpenArt, Canva, Leonardo), language models (Claude, GPT, Gemini), histological datasets (NCT-CRC-HE-100K, CRC-VAL-HE-7K, TCGA-COAD, EBHI-SEG), and computational systems. All are reproducible measurement protocols with documented methodology, findings, and failure cases.

The framework does not assume AI knows what it is doing. It measures what it is actually doing, provides coordinates for navigating alternatives, and offers scaffolding for rebuilding beyond defaults. The same geometric logic that reveals compositional monoculture in image models, detects structural collapse in language outputs, identifies field state transitions in cancerous tissue, and measures perturbation resistance in machines.

One question. One instrument. Many substrates.

New? Begin here:

  1. Mass, Not Subject - Foundational concept (15 min)

  2. The Kernel Primitives - Core measurements (10 min)

  3. Monoculture in MidJourney - Empirical evidence (20 min)

  4. Try the Demo - All you need is an image and prompt

  5. GitHub

Want practical application?

  1. Deformation Operator Playbook - Hands-on techniques

  2. The Off-Center Prior: Mapping Spatial Bias - Basin navigation

  3. Foreshortening Recipe Book - Constraint architecture

Researcher or engineer?

  1. Measuring Spatial Priors in Generative Image Models Using Geometry-Based Field Metrics - Complete technical spec

  2. Measuring Spatial Operating Envelopes Text-to-Image Generation Models - Phase 2: Measure stress and structural failure (Phase 1 for background)

  3. VCLI-G Documentation - Measurement methodology

  4. GitHub link - Reproducible implementations

Red Team?

  1. Behavioral Drift Detection for Generative Models - A geometric measurement system

  2. Canonical Mathematical Specification - A deterministic measurement device

  3. Breaking Compositional Monoculture: Surface Texture as a Centering Prior in Sora - Phase 1B Measuring escape in Sora

  4. Compositional Basins A Geometry-First Framework Measuring Structural Behavior - Phase 2B Measuring steering and controllability

  5. Structural Telemetry of Gemini Responses Under Batch Constraint (corpus of 400 Gemini responses spanning Everyday, Math, and Science)

Live Demos and Apps

Full documentation below. Papers are organized by focus: measurement infrastructure, empirical studies, practical applications, theoretical foundations. See GitHub for working code and notebooks.

CORE RESEARCH: Measurement & Evidence

Radial Collapse & Compositional Monoculture

Measurement Infrastructure

Diagnostic Methods

APPLICATIONS: Methods & Protocols

Practical Playbooks

Steering & Navigation

LLM TEXT MEASUREMENT: A telemetry Layer for Text

MEDICAL MEASUREMENT: Hematoxylin and Eosin (H&E) Stained Histology Images

FOR RESEARCHERS & ENGINEERS

CASE STUDIES


Author’s Note: This work measures compositional bias in AI-generated imagery through computational methods and provides operational frameworks for navigating beyond default priors.

The measurements (RCA-2, VCLI-G, LSI-lite, kernel primitives) produce reproducible numerical results. The methods (dialectical prompting, constraint architecture, basin navigation) are tested protocols for steering generative models. See Github for code. Everything can be run via python or recursively.

The mechanistic explanations, why compositional collapse occurs, how models resist certain geometric coordinates, are evidence-based inferences from measured outputs, not reverse-engineering of model internals.

The notebooks contain deterministic measurements. The papers contain testable hypotheses. The frameworks translate both into practical application.

Engage critically. Replicate the measurements. Test whether the methods work in your context.