This paper introduces Universal Quantum Grounding and Higgs Spheres (UQG), a unified mechanical framework proposing that the fabric of spacetime consists of discrete compressible units — Higgs Spheres — whose interactions with particles give rise to mass, time, and spatiallocality. The UQG dimension is defined as the state of complete absence of Higgs Sphere interaction: a non-local, atemporal substrate in which quantum phenomena are native. The framework provides mechanical explanations — within a single coherent model — for: quantum entanglement (shared UQG coordinate) ; wave-particle duality (simultaneous existence in Higgs and UQG domains) ; gravitational and velocity-based time dilation (Higgs Sphere compression and multi-sphere overlap) ; black hole event horizons (maximum Higgs Sphere compression threshold) ; dark matter (primordial self-trapped high-compression Higgs pockets formed by Big Bang shock waves) ; dark energy (continuous inflow of Higgs Spheres from the pre-cosmic substrate driven by baryonic matter coupling) ; cosmic voids (regions of Higgs brake failure causing matter dissolution) ; and the apparent incompatibility of General Relativity with quantum mechanics (two limiting cases of the same Higgs density spectrum). The graviton is redefined as the field force emitted by mass acting onthe Higgs Sphere medium, consistent with LIGO gravitational wave observations. The framework further proposes that the early universe's low Higgs density caused time to flow at an enormously accelerated rate, resolving the apparent paradoxes of the universe's size and chemical complexity relative to its age. A testable prediction is derived: heavier elementary particles should exhibit faster intrinsic decoherence than lighter ones, independent of environmental factors, following the UQG coupling parameter αUQG = (pc) ²/E². Despite the absence of mathematical proof, this paper offers a comprehensive mechanical perspective on the universe and resolves nearly all outstanding problems in fundamental physics. Time will be the arbiter of its correctness.
Muhammad Abdulhameed (Wed,) studied this question.