Recursive Theory of Everything
A typed, causal, multiscale architecture rather than a single local unified Lagrangian. The current emphasis is on explicit maps between geometry, matter, records, memory, and embedded observers.
The program is intentionally modular. Ideas are not admitted into the canonical framework merely because they are elegant or suggestive; they must survive mathematical, physical, computational, and empirical scrutiny.
A typed, causal, multiscale architecture rather than a single local unified Lagrangian. The current emphasis is on explicit maps between geometry, matter, records, memory, and embedded observers.
Laplace and resolvent representations, completely monotone kernels, spectral densities, Hamiltonian bath embeddings, and stability constraints.
Decoherence, process tensors, quantum instruments, durable records, embedded observers, and the distinction between physical dynamics and interpretive ontology.
Covariant retarded response, minisuperspace models, perturbative consistency, gravitational-wave signatures, and cross-channel observational tests.
The observer is modeled as a subsystem with bounded records, internal memory, coarse-graining, control, and feedback—not an external classical witness.
Exploration of whether entropy production, record capacity, and causal memory can be connected without replacing established quantum information theory.
An idea enters the canonical framework only when it is well-defined, solves a real problem, remains compatible with established limits, improves explanatory or predictive power, produces a falsifiable consequence, and cannot be removed without making the theory objectively weaker.