This upload contains a 35‑document research suite defining the Carlo Mechanics Engine v1.0, a deterministic modelling framework for structural, mechanical, cognitive, temporal, and multi‑agent behaviour. The engine is built around a unified update law: EngineUpdate=Visual∘Trajectory∘Cognitive∘Temporal∘Propagate∘Recovery∘Collapse∘Stability This equation expresses the core principle of the Mechanics Engine: all system behaviour emerges from a deterministic pipeline of stability evaluation, collapse detection, recovery progression, propagation, temporal evolution, cognitive mapping, trajectory generation, and visual glyph binding. The research suite is organised into modular documents that define: mechanical state structures, stability margins and modes, collapse triggers and propagation routes, recovery pathways and completion dynamics, temporal operators (forward, reverse, steady, adaptive), cognitive mappings derived from mechanical behaviour, deterministic future‑state trajectories, and a complete visual glyph library for symbolic representation. Mid‑sequence documents introduce the unified index, runtime demonstration pack, and universe‑level execution protocol. Later documents seal the subsystem, provide closure, and supply researcher‑oriented orientation material. The final document includes a universal AI‑compatible pseudocode specification of the Mechanics Engine, enabling computational interpretation, extension, and analysis. The Mechanics Engine is designed as a standalone deterministic subsystem within a broader conceptual universe architecture. It does not prescribe implementation details; instead, it offers a clear, language‑neutral, structurally consistent API for researchers, theorists, and artificial reasoning systems. The suite supports cross‑domain modelling by mapping mechanical behaviour into cognitive and trajectory states, ensuring drift‑free, reversible, and contradiction‑free transitions across all layers of the engine. This Zenodo entry is intended for researchers working in deterministic modelling, cognitive‑mechanical analogues, simulation theory, conceptual engine design, and cross‑domain dynamical systems. The documents are self‑contained and require no external references. This work continues the classical ambition of deterministic completeness, echoing Hilbert’s vision by providing a fully specified, contradiction‑free subsystem for structural, cognitive, and temporal behaviour. keywords: Deterministic modelling; Mechanics Engine; Structural dynamics; Collapse dynamics; Recovery dynamics; Stability analysis; Constraint systems; Assembly topology; Propagation modelling; Temporal operators; Reversible systems; Drift‑free computation; Cognitive–mechanical mapping; Cognitive analogues; Trajectory prediction; Future‑state modelling; Simulation theory; Dynamical systems; State‑space modelling; Multi‑agent systems; Cross‑domain modelling; Unified engine architecture; Runtime protocol design; Emergent behaviour analysis; Predictive modelling; Symbolic representation; Visual glyph systems; Conceptual pseudocode; System behaviour modelling; Structural collapse theory; Recovery pathways; Deterministic runtime protocol; Engine design; Research frameworks; Conceptual modelling; Structural computation; Behavioural dynamics; System topology; Deterministic universes Contact: For enquiries or research questions related to this work, email matthewcarlo.research@gmail.com
Matthew Arthur Carlo (Fri,) studied this question.