Quantum Gravity Balance Radius

In normal stars, the radius is large because thermal pressure pushes stellar shells outward. As stars collapse into white dwarfs, neutron stars, and black holes, the quantum forces pack particles as tightly as possible. When a black hole forms, general relativity says the singularity shrinks to a point with zero radius, and its density is infinite. However, quantum gravity changes this by setting a minimum value of a physical dimension called the Planck length or Quantum Gravity Balance Radius. Heisenberg's quantum pressure equilibrium with gravitational pressure or Quantum energy equilibrium with gravitational compression energy yields the Quantum gravity balance Radius R. The system balances at a minimum radius, preventing a true zero-size point. Confined systems stay stable when inward gravity is equal to outward pressure. In stars, an outward pressure comes from hot gas and radiation. White Dwarfs Pressure comes from electron degeneracy since electrons refuse to occupy the same state according to the Pauli exclusion principle. In the Neutron Stars, Pressure comes from neutron degeneracy. At the core of black holes, standard pressure fails to save the singularity. Quantum gravity introduces an ultra-high Planck pressure or Quantum gravity pressure balance effect that is involved in keeping the singularity ball from collapsing and annihilating to a zero point. This quantum pressure acts as the ultimate repulsive force to stop the singularity from collapsing further, and keeps the singularity as compacted sphere approximately the size of atoms with huge density, pressure, temperature, angular momentum, and gravity. Quantum gravity balance plays a crucial role in calculating the radius, length, wavelength, quantum pressure, quantum energy, vibration velocity, frequency, Photon energy, and surface temperature of particles in a confined system, typically the particles in the black hole singularity. The visible universe was a Planck singularity that formed inside a Parent Supergiant black hole, escaped into space, and evaporated as the superparticles to form photon particles, Quarks, subatomic particles, atoms, stars, celestial objects, and galaxies in the visible universe since cooled extremely. An origin of multiverses is initiated as escaped superparticles or a quantum singularity from a supergiant black hole of this type.