Topic 001
Programme · 8 Papers · 2026

Infinity & Finite Bounds

Every system of thought begins with assumptions. The deepest assumption in Western intellectual history — older than Euclid, older than Aristotle — is that the boundless exists. That there is no ceiling. That reality, or at least the mathematics that describes it, extends without limit. This assumption was not argued for. It was inherited, formalized, and forgotten. This programme examines it directly, finds it unforced, and constructs a complete alternative: a foundation for mathematics, physics, and thought built from the ground up on finite bounds.

Claim
There is no infinity — and there is a bound
Scope
Ontology · Mathematics · Physics
Programme
8 papers · 5 standalone
Status
Published 2026

There is no infinity.

And

There is an upper bound.

These are not two independent claims. The second is the only logical consequence of the first. When infinity is genuinely rejected — not relocated, not repackaged — there must be a ceiling. The bound is what makes the rejection real.

Seven papers. One axiom. A complete alternative foundation.

The programme proceeds from ontology through logic, set theory, and number systems to the full apparatus of working mathematics and its physical applications.

Main Paper
The Axiom of Finite Bounds

The complete programme. Fourteen parts: from the foundational package through real analysis, complex analysis, functional analysis, representation theory, complexity theory, and the Millennium Problems.

Companion · 001·P
Bounded Finite Physics

Every mathematical tool that basic physics requires traced to specific constructions in BST. Experimental grounding across nine areas — from planetary orbits through lattice QCD hadron masses.

Companion · 001·D
The Paradox Dividend

75+ named paradoxes from mathematics, logic, physics, and philosophy — each stated, diagnosed, and classified. Four mechanisms account for the vast majority. Seven survive.

Standalone Papers — supersede Parts I–VIII of the main paper
Supersedes Parts I–II
Finite Philosophy

The ontological case. The forced-move argument. The parsimony argument. The paradox dividend. The ceiling resolution. No formalism — pure ontology.

Supersedes Part III
Bounded First-Order Logic

The logical substrate. Every quantifier bounded. Complete metatheory: soundness, completeness, decidability, cut-elimination, Craig interpolation, Beth definability.

Supersedes Parts IV–V
Bounded Set Theory

One axiom. Nine ZFC properties as theorems. Every model finite. The interior/ceiling partition. The Burali-Forti resolution. Consistency relative to IΣ₁.

Supersedes Parts VI–VIII
Bounded Number Theory

The complete number chain ℕ_B ↪ ℤ_B ↪ ℚ_B ↪ ℝ_B ↪ ℂ_B. Exact arithmetic on discrete systems. Precision-parameterised identities on continuous systems.

New — the engine
Bounded Arithmetic

Bounded induction and bounded recursion — the proof engine and computational engine of finite mathematics. Addresses self-grounding (Theorem 8.1) — application to the wider programme pending.

Five reading paths.

The programme is designed to be entered from multiple directions depending on your background and interest.

For Philosophers

Start with the ontology.

The forced-move argument, the parsimony case, the paradox dividend. No formalism required. Follow the consequences into the formal papers if the argument is persuasive.

For Logicians

Start with the logic.

BFOL's syntax, semantics, proof theory, and metatheory. One change to FOL — bounded quantifiers as primitive — with substantial consequences. Then see what gets built on top.

For Set Theorists

Start with the set theory.

One axiom. Nine ZFC properties as theorems. Every model finite. The interior/ceiling partition. The Burali-Forti resolution. A different theory, not a weaker one.

For Number Theorists & Analysts

Start with the number chain.

ℕ_B through ℂ_B constructed explicitly. Exact arithmetic on discrete systems, precision-parameterised identities on continuous systems. Then the full analytic apparatus in the main paper.

For Physicists

Start with the physics.

Every mathematical tool basic physics requires, traced to bounded constructions. Experimental grounding across nine areas. Then work backward into the foundations.

"The assumption did not become more justified by becoming more precise. It became harder to question." — The Axiom of Finite Bounds, Working Paper 2026