1+ import math
2+
3+ def calculate_scaling_hierarchy (k_values ):
4+ """
5+ Calculates the geometric scaling based on base-4 topology (4^-k).
6+ Pins the 'Gravitational' layer at k=66.
7+ """
8+ results = {}
9+
10+ for k in k_values :
11+ # The scaling factor
12+ magnitude = 4 ** (- k )
13+
14+ # Base-2 equivalent (Holographic/Area scaling)
15+ # 4^-k = (2^2)^-k = 2^-2k
16+ binary_magnitude = 2 ** (- 2 * k )
17+
18+ results [k ] = {
19+ "base_4_magnitude" : magnitude ,
20+ "base_2_magnitude" : binary_magnitude ,
21+ "approx_power_10" : math .log10 (magnitude )
22+ }
23+
24+ return results
25+
26+ def verify_dirac_coincidence ():
27+ """
28+ Verifies if k=66 aligns with the Dirac Large Number (approx 10^-40).
29+ """
30+ k_gravity = 66
31+ gravity_scaling = 4 ** (- k_gravity )
32+
33+ print (f"--- Pinning Gravity at k={ k_gravity } ---" )
34+ print (f"Scaling Factor (4^-{ k_gravity } ): { gravity_scaling } " )
35+ print (f"Log10 Value: { math .log10 (gravity_scaling )} " )
36+
37+ # Comparison with Standard Dirac Number (approx 10^-40 to 10^-41)
38+ # This represents the ratio of Gravitational force to Electric force
39+ print (f"\n Does this match the Dirac Large Number?" )
40+ if - 41 < math .log10 (gravity_scaling ) < - 39 :
41+ print ("YES. The geometric integer k=66 correctly predicts the 10^-40 scale." )
42+ else :
43+ print ("NO. The scale is off." )
44+
45+ if __name__ == "__main__" :
46+ # Check the hierarchy from unity down to gravity
47+ # k=0 (Unity/Strong?), k=3 (EM range?), k=66 (Gravity)
48+ hierarchy = calculate_scaling_hierarchy ([0 , 3 , 4 , 66 ])
49+
50+ for k , data in hierarchy .items ():
51+ print (f"k={ k } : 10^{ data ['approx_power_10' ]:.2f} " )
52+
53+ verify_dirac_coincidence ()
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