Solar System Laboratory
Compare planetary systems, gravitational boundaries, orbital quantities, and dimensional-radius calculations.
PLANNEDS COMPUTATIONAL RESEARCH
DPT SIMULATIONS
Interactive computational models for exploring dimensional geometry, motion, energy, gravity, frequency, and proposed DPT relationships.
MODELS
5 Dimensions
LABS
Interactive
STATUS
Development
PURPOSE
Research Testing
DIMENSIONAL MODEL
LIVE SYSTEM
DPT
MULTI-DIMENSIONAL MODEL
01
DIMENSION LABORATORY
Five dimensions. Five computational models.
Explore simplified versions of the primary mathematical and physical visualizations developed throughout the five DPT dimensional mathematics pages.
ACTIVE SIMULATION
D1 — DISCRETE QUANTUM STATE MODEL
LIVE
X
STATE
MODEL OUTPUT
Ordered motion through discrete states
MODEL
Quantum States
PRIMARY VARIABLE
Position
STATE
P₁
SYSTEM
Dynamic
DIMENSION
n = 1
ABOUT THE LAB
One interface, five different physical models.
These simulations are interactive visualizations of the structures presented throughout the DPT dimensional mathematics pages. They are designed for exploration and research development rather than as experimentally validated physical models.
02
GRAVITY RESEARCH LABORATORY
Test the gravity-radius models developed in DPT.
Reproduce selected calculations from the DPT theoretical volume, compare them with reference scales, and experiment with custom gravitational systems.
ACTIVE RESEARCH MODEL
EARTH–SUN HILL RADIUS
THEORETICAL MODEL
GRAVITATIONAL SYSTEM
HILL RADIUS
SYSTEM
Earth–Sun
PRIMARY BODY
Sun
SECONDARY BODY
Earth
METHOD
DPT Hill Radius
STATUS
Theoretical
SOLAR SYSTEM VALIDATION TABLE
DPT vs reference Hill-radius values
Values reproduced from the comparative table presented in the DPT theoretical volume.
| Planet | DPT million km | Reference million km | Relative Error | Comparison |
|---|
Research status
The values shown here reproduce or implement mathematical models from the current DPT theoretical framework. Numerical correspondence with known scales does not by itself validate DPT. Predictions that differ from established physics require independent theoretical and experimental verification.
03
DIMENSIONAL SCALING
Compare power-law behavior across dimensions.
This interactive model illustrates how the exponent \(1/n\) changes as dimensional level increases.
INPUT
100
04
EQUATION SANDBOX
Experiment with mathematical relationships.
Choose a computational model, modify its variables, and inspect the resulting numerical output.
ACTIVE EQUATION
Dimensional Power Relation
R = X E1/n
RESULT
—
05
FUTURE SIMULATION PROGRAM
The laboratory can grow with the research.
Future models should move beyond illustration toward numerical simulations capable of producing reproducible DPT predictions.
Atomic Gravity Model
Explore proton-scale and atomic-scale dimensional gravity calculations.
PLANNEDDark Matter Laboratory
Compare visible matter distributions with theoretical higher-dimensional gravitational effects.
PLANNEDFrequency Universe
Explore wave propagation, vibrational fields, resonance, and Fifth-Dimensional frequency relations.
PLANNEDModel Comparison Lab
Plot DPT predictions against established models and observational datasets.
PLANNEDExperimental Designer
Estimate measurable effects, experimental precision, uncertainty, and potential falsification criteria.
FUTURE
RESEARCH CONNECTION
View Research Program
Simulations are only one stage of validation.
Computational agreement should eventually be followed by quantitative comparison, observational evidence, experimental tests, and independent review.