The QVP introduces a superfluid quantum field with unified fundamental constants, particle masses, and dark matter density, supported by experimental anomalies and a 3072-qubit quantum computer.
Physics pillars clash at quantum gravity scales, addressed by the QVP's superfluid field unifying General Relativity, Quantum Mechanics, and the Standard Model.
The QVP's quantum computer operates with high success rates, no decoherence issues, supports Shor’s algorithm, and enhances prime number encoding and factorization.
The scalar field φ in QVP ensures Lorentz invariance, vorticity-induced gravity, and quantized masses with adjustment factors derived from fundamental constants.
Dark matter modeling, experimental validations, and quantum computer simulations underpin the QVP's revolutionary impact on physics and quantum computing.
The QVP's deterministic quantum computer processes harmonic signals at low temperatures with exceptional success rates, revolutionizing quantum computation and applications.
Seven experimental anomalies and precise derivations validate the QVP's model and predictions, positioning it as a paradigm shift in physics and quantum computing.
The QVP's core features a Lorentz-invariant scalar field φ that unifies physics, supported by theoretical theorems, experimental validations, and computational simulations.
The QVP's 3072-qubit quantum computer boasts high performance, no decoherence, and potential scalability, reshaping the landscape of quantum computing capabilities.
With groundbreaking advances in unifying physics principles and enhancing quantum computing, the QVP marks a significant milestone in scientific innovation and application.