Hydrogen
Atomic Number: 1 | The Simplest Atom
Hydrogen is the foundation. One proton, one electron. The simplest possible atom. We establish the reference energy here that all other derivations build upon.
Why Hydrogen is the Foundation
Hydrogen is unique among atoms. With only one proton and one electron, there is NO electron-electron interaction to complicate things. This makes hydrogen the perfect reference point.
The measured first ionization energy of hydrogen is:
This value is also called the Rydberg energy (RH). It is one of the most precisely measured values in all of physics.
The Geometric Foundation
In the Epoch framework, the hydrogen ionization energy is not a mysterious "fundamental constant" - it emerges from geometry. Here's how:
Start with κ:
Get your calculator and type:
2 × 3.14159265358979 / 180 =
Expected result: 0.0349065850398866
If you don't get this number, something is wrong. Stop and check your calculator.
The Hydrogen-Kappa Relationship
The hydrogen ionization energy relates to κ through the fine structure constant α. In the Epoch framework:
The hydrogen energy emerges from the relationship:
Let's verify this:
Verify the calculation:
0.5 × 511000 × 0.0000532502 =
Expected result: ~13.6 eV
The Simple Truth About Hydrogen
Here's the honest statement about hydrogen in the Epoch framework:
The hydrogen ionization energy (13.606 eV) is used as the REFERENCE POINT.
We do not claim to derive 13.606 eV from scratch using only κ. What we claim is:
- The fine structure constant α DOES emerge from κ (see companion white paper)
- The hydrogen energy relates to α² geometrically
- Once we have E(H), we can derive all other atomic energies from geometry
The power of the Epoch framework is not in deriving hydrogen - it's in deriving EVERYTHING ELSE from hydrogen using geometric relationships.
Hydrogen as the S+/S- Boundary
In the S+/S- framework, the hydrogen atom represents the simplest case of an electron existing at the boundary between manifested (S+) and potential (S-) reality.
The bound electron: Exists in S+ - it has a definite energy state, a probability distribution, measurable properties.
The ionization energy: Is the energy required to move the electron from S+ (bound) to S- (free/potential).
The 13.606 eV represents the "height" of the S+/S- boundary for a single electron bound to a single proton. This is why it serves as the reference:
Preparing for Multi-Electron Atoms
The real power of the Epoch framework appears when we move beyond hydrogen. We need to calculate the geometric constants that will determine electron shielding:
The Shadow Constant (κshadow)
1 / 0.0349065850398866 =
Expected: 28.6478897565412
The Projection Factor (P)
The Tetrahelix Ratio (cos BC = 2/3)
The Helix Overlap (σ = 5/16)
HYDROGEN SUMMARY
Hydrogen establishes the reference. The real test comes with helium and lithium.
KEY FORMULAS FOR MULTI-ELECTRON ATOMS
Where Zeff = Z - σ (nuclear charge minus geometric shielding)
""" Hydrogen Reference Values - Verification Script The foundation for all atomic derivations. """ import math print("=" * 60) print("HYDROGEN REFERENCE VALUES") print("=" * 60) # The ONE input pi = math.pi kappa = 2 * pi / 180 print(f"\nκ = 2π/180 = {kappa}") # Derived constants kappa_shadow = 1 / kappa P = math.sqrt(3) / (2 * pi) cos_BC = 2 / 3 sigma = 5 / 16 print(f"\nκ_shadow = 1/κ = {kappa_shadow}") print(f"P = √3/(2π) = {P}") print(f"cos(BC) = 2/3 = {cos_BC}") print(f"σ = 5/16 = {sigma}") # Hydrogen reference E_H = 13.6056923 # eV - measured value print(f"\nHydrogen ionization energy: {E_H} eV") print("This is the REFERENCE for all other derivations.") # Fine structure constant (derived from kappa) alpha_derived = (kappa * pi / 15) * (1 - kappa**2) alpha_measured = 0.0072973525693 print(f"\nα (derived) = {alpha_derived}") print(f"α (measured) = {alpha_measured}") print(f"Agreement: {100 - abs(alpha_derived - alpha_measured)/alpha_measured * 100:.4f}%") print("\n" + "=" * 60) print("READY FOR HELIUM AND LITHIUM DERIVATIONS") print("=" * 60)