4D Torus Black Hole Hypothesis

FORTH Theory Overview: Theoretical Framework of Four-dimensional Orthogonal Rotating Torus Hypothesis

FORTH Theory Overview: Theoretical Framework of Four-dimensional Orthogonal Rotating Torus Hypothesis

1. Introduction

Theory Position

FORTH (Four-dimensional Orthogonal Rotating Torus Hypothesis) theory is a theoretical framework describing physical phenomena around black holes using a 4D torus structure that includes a spatial fourth dimension (W-axis).

Key Assumptions

  1. Existence of spatial fourth dimension: W-axis orthogonal to 3D space (x, y, z)
  2. Torus geometry: 4D torus structure around black holes
  3. Energy conservation: Energy conservation in entire 4D space

2. Mathematical Formulation

2.1 Basic Equations

4D Torus Equation


(√(x² + y²) - R)² + z² + w² = r²

Where:

  • R: Major radius
  • r: Minor radius (tube radius)
  • (x, y, z): 3D coordinates
  • w: W-axis coordinate

Metric Tensor


ds² = -c²dt² + f(r)dx² + f(r)dy² + f(r)dz² + h(w)dw²

f(r) = 1 - Rs/r_3D (Schwarzschild-like)
h(w) = Term from torus geometry

2.2 Derived Relations

Jet Velocity Formula


v_jet/c = √(1 - (r/R)²)

This formula is derived purely from geometric constraints.

W-Axis Disappearance Time


Δt = 2πr/c

Time for matter to disappear from 3D space while transiting the W-axis.

Energy Conversion Efficiency


η = (E_out/E_in) = f(R/r, γ)

Where γ is the Lorentz factor.

3. Physical Interpretation

3.1 Physical Meaning of W-Axis

The W-axis plays the following roles:

  1. Energy storage: Temporary storage of accretion energy
  2. Conversion medium: Gravitational energy → Kinetic energy
  3. Direction determination: Geometric collimation of jets

3.2 Energy Conversion Process


Accretion → W-axis transit → Jet emission
E_grav → E_W → E_kinetic

Efficiency: Maximum 40% (twice conventional theories)

3.3 Correspondence with Observed Phenomena

Observed Phenomenon FORTH Theory Explanation
Ultra-high-speed jets (0.99c) Geometric acceleration mechanism
High energy efficiency Energy concentration in W-axis
Periodic variations W-axis transit period
Polarization patterns Helical magnetic field structure

4. Verifiable Predictions

4.1 Quantitative Predictions

M87 Black Hole (Standard Model):

Parameter Predicted Value Comparison with Observation
Jet velocity 0.999999500c (R/r=1000) Observed: 0.98-0.99c
W-axis period 111.8 hours (r=1Rs) Unverified
Polarization degree 20-30% Partial agreement
Energy efficiency ~100% (jet) Observed: 10-40%

4.2 Observational Verification Methods

Immediately Verifiable

  1. Jet velocity measurement: Proper motion via VLBI observations
  2. Polarization observation: Polarization mapping by ALMA/EHT

Verifiable with Long-term Observations

  1. Periodic disappearance: Continuous monitoring in X-ray/radio
  2. Energy balance: Comprehensive analysis through multi-wavelength observations

4.3 Decisive Verification

Direct observation of W-axis disappearance phenomenon would be decisive verification of the theory:

  • Predicted period: 4.66 days (M87, r=1Rs)
  • Required observation period: Minimum 14 days (3 cycles)
  • Suitable instruments: ALMA, X-ray satellites

5. Relationship with Conventional Theories

5.1 General Relativity

Consistency:

  • Complete agreement in 3D portion
  • Includes Schwarzschild solution as special case

Extension:

  • Addition of W-axis component
  • Conceptual shift from 4D spacetime → 4D space

5.2 Standard Accretion Disk Theory

Aspect FORTH Theory Standard Theory
Dimensions 4D space 3D space + time
Jet mechanism Geometric Magnetohydrodynamic
Energy source W-axis transit Rotational energy
Prediction accuracy Quantitative Semi-quantitative

6. Theory Verification Status

6.1 Supporting Observational Facts

✓ M87 jet ultra-high velocity (0.99c) ✓ High energy conversion efficiency ✓ Jet stability and collimation

6.2 Unverified Predictions

  • W-axis disappearance phenomenon (111.8-hour period)
  • Specific polarization pattern variations
  • Correlation between R/r ratio and jet velocity

6.3 Required Observations

  1. High time resolution observation: < 1 hour
  2. Long-term continuous observation: > 2 weeks
  3. Multi-wavelength simultaneous observation: Radio to X-ray

7. Theory Implications and Prospects

7.1 Implications for Physics

  • Redefinition of time: Time as emergent phenomenon
  • Understanding dimensions: Direct evidence of hidden spatial dimensions
  • Hints for unified theory: 4D unification of gravity and other forces

7.2 Potential Technical Applications

Potential applications if theory is established:

  • High-efficiency energy conversion
  • New propulsion principles
  • 4D information processing

7.3 Future Research Directions

  1. Detailed numerical simulations: Complete 4D MHD calculations
  2. Observation campaigns: Coordinated multi-wavelength observations
  3. Theory refinement: Incorporation of quantum effects

8. Conclusion

FORTH theory has the following characteristics:

Strengths:

  • Clear and verifiable quantitative predictions
  • Good agreement with observational facts
  • Theoretical simplicity and beauty

Challenges:

  • Need for direct proof of W-axis
  • Integration with quantum theory
  • More detailed observational verification

Prospects: Sufficiently verifiable with current observational technology, with theory validity expected to be determined within the next 5-10 years.

Appendix: Key Formula Collection


1. Jet velocity: v/c = √(1-(r/R)²)
2. W-axis period: T = 2πr/c
3. Energy density: ρ_E ∝ M/r³
4. Helical pitch angle: α = arctan(r/R)
5. Lorentz factor: γ = R/r (approximation)

Calculation Script

The calculation code is available on GitHub:

python
python calculation_007.py

Note: This theory is currently in the proposal stage, awaiting observational verification. All predictions are based on theoretical derivation.

FORTH Theory | 2025年9月26日

※ The FORTH Theory is a theoretical hypothesis currently under verification. We welcome constructive criticism and opinions.

Questions & Feedback

If you have any questions about FORTH theory or proposals for research collaboration, please feel free to contact us.

Contact Us

コメントを残す

メールアドレスが公開されることはありません。※ が付いている欄は必須項目です