Hypothesizing Three States of Universe (page 2)

Calculating Universe Creation

1. Initial State: Zero State Dormant Universe

Zero State Dormant Universe:

  • In this initial state, numerical values and sequences are present but not interacting or generating active forces.
  • This state is characterized by a lack of time and active interactions.

2. Transition to Active State

Perturbation or Fluctuation:

  • A hypothetical fluctuation or perturbation triggers the transition from the zero state to an active state.
  • This perturbation aligns numerical values and sequences, initiating interactions and the emergence of forces.

Activation of Numerical Energy:

3. Universe Types/States

On-On State:

  • Positive Universe: Created from perfect sequence calculations.
  • Anti-Universe: Created from perfect anti-sequence calculations.
  • Harmonic Resonance: Ensures the stability of quantum states and alignment with spacetime curvature.

On-Off State:

  • Potential Universe: Does not fully transition to an active state, remaining in a dormant condition.
  • Numerical Interaction: Numerical values and sequences fail to generate active forces, leading to instability and potential collapse.

Off-On State:

  • Quantum State Transition: Oscillates between dormant and active phases.
  • Numerical Interaction: Fluctuating numerical values create transient forces and interactions.

Step-by-Step Process

  1. Initial Numerical Values:
    • Assume initial numerical values for the universe: αinitial\alpha_{\text{initial}}.
    • Perturbation triggers activation: αinitial→αactive\alpha_{\text{initial}} \rightarrow \alpha_{\text{active}}.
  2. Numerical Energy Activation:
    • Numerical energy for active state: Enum=∑iαactiveE_{\text{num}} = \sum_{i} \alpha_{\text{active}}.
  3. Numerical Attraction Force:
    • Assume numerical attraction constant: κ=1×10−6\kappa = 1 \times 10^{-6}.
    • Calculate numerical attraction force: Fnum=κEnum1Enum2r2F_{\text{num}} = \kappa \frac{E_{\text{num1}} E_{\text{num2}}}{r^2}.
  4. Creation of On-On Universes:
    • Positive Universe:
      • Sequence: αpos=1×106\alpha_{\text{pos}} = 1 \times 10^6.
      • Harmonic Resonance: Ψpos=∑nAnei(ωt+ϕ)\Psi_{\text{pos}} = \sum_{n} A_{n} e^{i (\omega t + \phi)}.
    • Anti-Universe:
      • Anti-Sequence: αanti=−1×106\alpha_{\text{anti}} = -1 \times 10^6.
      • Harmonic Resonance: Ψanti=∑nAne−i(ωt+ϕ)\Psi_{\text{anti}} = \sum_{n} A_{n} e^{-i (\omega t + \phi)}.
  5. Creation of On-Off Universes:
    • Potential Universe:
      • Numerical values: αon-off=0\alpha_{\text{on-off}} = 0.
      • Lack of numerical interaction: Numerical sequences fail to generate active forces.
  6. Creation of Off-On Universes:
    • Quantum State Transition:
      • Fluctuating numerical values: αoff-on=δ(t)\alpha_{\text{off-on}} = \delta(t).
      • Numerical energy: Enum-off-on=αoff-onE_{\text{num-off-on}} = \alpha_{\text{off-on}}.

"Hypothesizing Three States of Universe" table of contents

  1. Hypothesizing Three States of Universe
  2. Calculating Universe Creation
  3. Differentiating On-On and QST Universes

  4. Mirror Universes: Perfect Numerical Sequence Calculation