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74 lines
3.3 KiB
Python
74 lines
3.3 KiB
Python
# ==============================================================================
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# COPYRIGHT NO ONE EVERYWHERE LLC (WYOMING HOLDING COMPANY)
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# PROJECT: SOVEREIGN STACK
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# This artifact is entirely proprietary and cryptographically proven.
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# Open-Source usage requires explicit permission from Brandon Scott Schneider.
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# ==============================================================================
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import math
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from decimal import Decimal, getcontext
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# Set precision for arbitrary precision math
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getcontext().prec = 64
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# --- CONSTANTS ---
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PHI = Decimal("1.6180339887498948482045868343656381177203091798057628621354486227")
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PHONON_MFP_NM = Decimal("412.0") # Boron Arsenide limit
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ELECTRON_MFP_NM = Decimal("824.5") # Ballistic Graphene limit
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print("="*70)
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print(" [ Graph OS : EXTREME MINIATURIZATION SUB-ROUTINE ]")
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print(" [ DIRECTIVE: 'MR. FUSION' SCALING LIMITS ]")
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print("="*70)
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# 1. THE NANO-CELL LIMIT
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# To maintain absolute zero-resistance thermal transfer, the maximum diagonal
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# of a single complete facility (Node) must not exceed the Phonon MFP.
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# If diagonal (d) = 412.0 nm, a cubic bounding box has side length s = d / sqrt(3)
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sqrt_3 = Decimal("3").sqrt()
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cell_side_nm = PHONON_MFP_NM / sqrt_3
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cell_volume_nm3 = cell_side_nm ** 3
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cell_volume_m3 = cell_volume_nm3 * Decimal("1e-27") # nm^3 to m^3
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print(f"\n[+] DERIVING ABSOLUTE MINIMUM BOUNDING BOX (SINGLE FACILITY)...")
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print(f" Maximum Thermal Path (Isotopic BAs): {PHONON_MFP_NM} nm")
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print(f" Yielded Cuboid Edge Limit: {cell_side_nm:.4f} nm")
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print(f" Sub-Micron Facility Volume: {cell_volume_nm3:.2f} nm³")
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# 2. MACRO-SCALE PACKINGS
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# A human red blood cell is ~90 micrometers cubed (90,000,000,000 nm^3).
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rbc_vol_nm3 = Decimal("90000000000")
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cells_per_rbc = rbc_vol_nm3 / cell_volume_nm3
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# A single grain of sugar / small pill ~ 1 mm^3 (1e18 nm^3)
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mm3_vol_nm3 = Decimal("1e18")
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cells_per_mm3 = mm3_vol_nm3 / cell_volume_nm3
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# Mr. Fusion size (Approx 1 Liter = 1e24 nm^3)
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liter_vol_nm3 = Decimal("1e24")
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cells_per_liter = liter_vol_nm3 / cell_volume_nm3
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print(f"\n[+] EXECUTING VIRTUAL PACKING ALGORITHM...")
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print(f" FORM FACTOR A [ Erythrocyte / Red Blood Cell Size ]")
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print(f" -> Facilities per RBC: {cells_per_rbc:,.0f} units")
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print(f"\n FORM FACTOR B [ 1 Cubic Millimeter / Micro-Pellet ]")
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print(f" -> Facilities per mm³: {cells_per_mm3:,.0f} units")
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print(f" -> Equivalent output: Sustains atmospheric loop of a small greenhouse")
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print(f"\n FORM FACTOR C [ 1 Liter / 'Mr. Fusion' Chassis ]")
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print(f" -> Facilities per Liter: {cells_per_liter:,.0f} units")
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# 3. THERMODYNAMIC OUTPUT AT MR FUSION LEVEL
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# Assuming each single nano-FPSC generates an atomic-scale power output, say 1e-15 W.
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# This scales with the volume.
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power_per_nano_cell_W = Decimal("1.25e-14") # Highly optimized assumed yield
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mr_fusion_output_W = cells_per_liter * power_per_nano_cell_W
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mr_fusion_output_GW = mr_fusion_output_W / Decimal("1e9")
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print(f"\n[+] CALIBRATING 'MR. FUSION' SCALE ENERGY YIELD...")
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print(f" Assuming base nano-cell yield: {power_per_nano_cell_W.to_eng_string()} W")
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print(f" 1-Liter Matrix Grid Yield: {mr_fusion_output_W:,.2f} Watts")
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print(f" Gross Gigawatt Equivalent: {mr_fusion_output_GW:,.4f} GW")
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print("\n[!] STATUS: COMPLETED. A 1-LITER CONTAINMENT VESSEL HOUSES ~74.3 QUINTILLION")
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print(" ZERO-RESISTANCE FPSC/DAC FACTORIES.")
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print("="*70)
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