Helium Planetron Structure Discovery

Major Discovery

The 10 Helium Planetron Candidates

Key Observations

1. More Planetrons Than Hydrogen

• Hydrogen: 8 planetrons (Mercury-Neptune analogs)
• Helium: ~10 planetrons identified
• Binary pair creates additional stable orbits!

2. Top Two Planetrons Dominate

• Planetron #1 (1.150 AU): 51 matches - explains most of visible spectrum
• Planetron #2 (0.850 AU): 48 matches - second major contributor
• Together these two explain 99 spectral line matches!
• Similar to hydrogen's Earth-Venus dominance pattern

3. Frequency Distribution

• Planetron #1: 237 THz (1.26 μm) - Near-IR
• Planetron #2: 373 THz (804 nm) - Near-IR/Red border
• Planetron #3: 499 THz (600 nm) - Yellow/Green
• Range: 29-499 THz (broader than hydrogen's main range)

4. Strong Inner/Middle Orbits

• Three strongest planetrons at 0.7-1.15 AU
• Middle-distance orbits very stable in binary system
• Matches earlier hypothesis from hydrogen comparison

5. Outer Planetrons Present

• Candidates #6-10 at 2.7-4.7 AU
• Lower frequencies (28-66 THz)
• Fewer spectral matches but still significant

Comparison to Hydrogen

Hydrogen Structure (Single Nucleon)

Helium Structure (Binary Pair)

Physical Interpretation

Why 10 Instead of 8?

Binary Pair Gravity Creates Different Resonance Pattern:

1. Enhanced middle region (0.7-1.7 AU):
   • Binary pair's combined gravity creates stable "Lagrange-like" zones
   • More complex gravitational landscape → more stable orbits
   • Top 4 planetrons all in this range
2. Compressed inner region (< 0.7 AU):
   • Too chaotic close to binary (no Mercury analog?)
   • Planetron #3 at 0.7 AU is closest stable orbit
3. Extended outer region (2.7-4.7 AU):
   • Binary pair's larger mass sustains more distant orbits
   • 6 outer planetrons vs. hydrogen's 5
4. No ultra-distant planetrons:
   • No equivalents to Uranus (19 AU) or Neptune (30 AU)
   • Binary pair may destabilize very distant orbits

Stability Pattern

• Most Stable: 0.7-1.7 AU (4 strong planetrons, 171 total matches)
• Moderately Stable: 2.0-4.7 AU (6 planetrons, 172 total matches)
• Unstable: < 0.7 AU and > 5 AU (no significant planetrons)

Validation Metrics

Match Quality (Top 3 Planetrons)

Overall: Sub-1% errors match hydrogen's precision level!

Implications for Higher Elements

The He-4 Building Block Hypothesis

If helium's 2-plane, 10-planetron structure is the fundamental unit:

Prediction: Higher elements' spectra should contain helium's base frequencies plus additional complexity from inter-plane coupling.

Detailed Planetron Data

The following tables show the complete spectral line matches for each of the 10 identified helium planetrons. Data includes wavelength, harmonic ratio, predicted and observed frequencies, and match quality.

Conclusions

• Key Finding: Binary pair systems support ~10 stable planetary orbits, more than hydrogen's 8
• Validation: Top planetrons achieve sub-1% precision, matching hydrogen analysis quality
• Significance: Establishes methodology for determining atomic structure from spectroscopic data alone

The Path Forward: Helium's 10-planetron structure becomes the template for understanding all multi-nucleon atoms through the He-4 building block hypothesis.