Ordinative Sciences Ecosystem Map
This file explains how the four public repositories of the Ordinative Sciences programme connect.
Four Repositories, Four Roles
| Repository | Role | Function |
|---|---|---|
ordinative_sciences_framework |
Theory | Defines the TE foundations, ontology, and full module architecture (Bootloader, Core, SVP, SCIMS, VERT, LENS, PPRO, OBSERVER). |
te-ordinative-lora |
Practice | Implements TE principles in model fine-tuning workflows; LoRA dataset and training pipeline. |
te-oct-framework-en |
Validation | Publishes the English mirror of the core framework, plus the OCT (Ordinative Category Theory) corpus with reproducibility assets and validation cycles. |
te-ordinative-algebras-en |
Algebras | Publishes the SA (Semantic Algebra) and PA (Proportional Algebra) frameworks — the analytical operators and the proportional space they live in. |
Conceptual Flow
- Theory (
ordinative_sciences_framework) defines the principles. - Practice (
te-ordinative-lora) applies the principles in training pipelines. - Validation (
te-oct-framework-en) documents and tests formal/empirical consistency through OCT. - Algebras (
te-ordinative-algebras-en, this repo) provides the formal operator-level grammar — the analytical tools that connect theory, practice, and validation.
The four repositories are not redundant. Each addresses a distinct layer of the same underlying programme.
ASCII Map
ORDINATIVE SCIENCES ECOSYSTEM
|
----------------------------------------------------------
| | | |
v v v v
THEORY PRACTICE VALIDATION ALGEBRAS
ordinative_ te-ordinative- te-oct- te-ordinative-
sciences_ lora framework-en algebras-en
framework
| | | |
| | <---- trains --- | |
| <--- defines - | | |
| | | <--- formalises -- |
| ----- provides invariants ------> | |
| |
| ---------------- analytical grammar --------------- > |
How the Algebras Repository Relates
- To Theory: SA and PA operate on the structures defined by the TE framework. The Collapse Function
E = Φ(C, I, K)(TE equation 1.1) is upgraded in PA to a formal algebraic operator with falsifiable properties. - To Practice: The SA invariant library and the operators (S, π) are the structural primitives that the LoRA training pipeline aims to teach a model to recognise and apply.
- To Validation: PA's Extended Round-Trip and falsification criteria provide the structural-test layer that complements OCT's category-theoretic validation cycles.
Suggested Reading Order
For a complete tour of the ecosystem:
ordinative_sciences_framework— read the Bootloader and Core to understand the foundations.te-ordinative-algebras-en(this repo) — read SA first (operational entry), then PA (formal grounding).te-oct-framework-en— read OCT for the category-theoretic and validation-cycle layer.te-ordinative-lora— read the dataset and training pipeline to see the practical implementation.
For first-time readers of this repository specifically, start with START_HERE_FIRST_TIME.md.