Hiperuniverse

This volume formulates the Hiperuniverse hypothesis as a common ontological basis for physicaldescription. Its primitive picture is a single, physically self-contained whole whose distinctionsand processes are expressed through registration events and their ordered histories. Spatialidentity is relational: constituents are spatially identified when an admitted realization assignsthem the same effective support site. Internal structure is organized in typed sectors andsubspaces, while axial orientation is represented projectively over effective support. A local liftover a three-dimensional support chart consequently requires at least five coordinates — threesupport coordinates and two angular coordinates — without turning this representation into afive-dimensional spacetime or substance. The framework asks whether spacetime, dynamics, observation, quantum behaviour, matterand interactions, gravitation, and cosmology can arise as mutually compatible effective regimesof that ontology. Finite structures, histories, response records, continuum comparisons, andempirical contacts are placed in one typed language with explicit domains and compatibilityconditions. Native consequences are kept distinct from conditional bridges, calibrations, comparisonswith established physics, and open physical providers. This separation makes bothsuccessful contacts and obstructions informative: a familiar mathematical form is physically activeonly when the state, dynamics, measurement, and scale needed for its interpretation havebeen supplied. The result is a research framework rather than a completed unification. It offers a coherentontology, a collection of exact and conditional deductions, and explicit criteria for extendingor rejecting proposed physical realizations. Quantum theory, covariant continuum dynamics,matter and interaction laws, gravitation, and cosmology remain reconstruction targets whosecommon origin must be demonstrated rather than presumed.