PUH-BrianMartell PUH_Py240_Resonance.py⁠-Updated New Py Code

PUH_Py240_Resonance.py⁠

#!/usr/bin/env python3
"""
PUH_Py240_Resonance.py
Author: Brian Martell
Date: June 6, 2026
Description: 
Calculates the fundamental resonant frequency of a primordial Planck core 
embedded within a host star, modeling the standing wave emission required 
for the Stratocaster (Heterodyne) HFGW detector.
Part of the >7,000 Gist PUH GitHub Archive.
"""

import math

def calculate_core_resonance(r_shell_meters):
    """
    Calculates the fundamental AM-band standing wave frequency (Hz)
    based on the absolute geometric radius of the Planck core.
    Speed of light is an absolute constant of the E8 lattice.
    """
    c = 299792458.0 # m/s (E8 lattice propagation constant)
    wavelength = 2.0 * r_shell_meters
    frequency_hz = c / wavelength
    return frequency_hz

def scale_solar_core():
    """
    Derives the solar core radius (r_shell) using the linear mass-seeding 
    ratio established by the Earth's inner core density deficit (M_p = 5e21 kg).
    """
    M_earth = 5.972e24
    M_p_earth = 5.0e21
    M_sun = 1.989e30
    rho_shell_max = 1e20 # kg/m^3 (Upper limit of saturation density)
    
    # Calculate seeding fraction
    seeding_fraction = M_p_earth / M_earth
    M_p_sun = M_sun * seeding_fraction
    
    # Calculate absolute radius based on throughput constraint
    r_shell_sun = ( (3 * M_p_sun) / (4 * math.pi * rho_shell_max) )**(1.0/3.0)
    return r_shell_sun

if __name__ == "__main__":
    print("-" * 50)
    print("PUH HFGW Resonant Frequency Calculator (T240)")
    print("-" * 50)
    
    # 1. Get the structural radius of the Solar Planck Core
    r_solar = scale_solar_core()
    print(f"Calculated Solar Core Radius: {r_solar:.2f} meters")
    
    # 2. Calculate the Gravitational Wave Emission Frequency
    f_hz = calculate_core_resonance(r_solar)
    f_khz = f_hz / 1000.0
    
    print(f"Fundamental E8 Standing Wave Frequency: {f_hz:,.2f} Hz")
    print(f"AM Radio Dial Target Frequency: {f_khz:,.2f} kHz")
    print("-" * 50)
    print("Detector Tuning Parameters:")
    print(f"Requires crystal piezoelectric resonance tuned to: ~{f_khz:,.1f} kHz")
    print("-" * 50)