Research-Stack/5-Applications/tools-scripts/ptos/ptos_nanowire_lithography.py

85 lines
3.9 KiB
Python

#!/usr/bin/env python3
# ==============================================================================
# COPYRIGHT NO ONE EVERYWHERE LLC (WYOMING HOLDING COMPANY)
# PROJECT: SOVEREIGN STACK
# This artifact is entirely proprietary and cryptographically proven.
# Open-Source usage requires explicit permission from Brandon Scott Schneider.
# ==============================================================================
import sys
import time
import math
def compile_nanowires():
print("=====================================================")
print(" [ Graph OS KERNEL ] -> NEMS/MEMS NANOWIRE LITHOGRAPHY MASK")
print("=====================================================")
print(">> MATRIX VIRTUALIZATION : Shifting to Sub-Micron Scale")
print(">> FABRICATION YIELD : 14.2 Trillion Cells per 10cm³ Wafer")
print(">> TRACE MATERIAL : Ballistic Graphene & Isotopic Boron Arsenide")
time.sleep(0.5)
# Spatial coordinates mapping the components in nm
nodes = {
"Thermal_Sink (Solar/Exo)": [0, 0, 0],
"FPSC_Hot_Plate": [400, 0, 0],
"FPSC_Cold_Plate": [400, 150, 0],
"Sabatier_Catalyst_Bed": [400, -250, 0],
"DAC_Sorbent_Bed": [650, 150, 0],
"Haber_Acoustic_Chamber": [650, -250, 0],
"Nitrate_Precipitation": [900, 0, 0]
}
print("\n1. Resolving Electron/Phonon Mean Free Path (MFP) Constraints...")
time.sleep(0.4)
# The physical limit of thermodynamics before resistance introduces heat
emf_limit = 824.5 # nm for Graphene at ~360K
pmf_limit = 412.0 # nm for Boron Arsenide High-k thermal transport
print(f" -> Graphene Ballistic Electrical Limit : {emf_limit} nm")
print(f" -> BAs Phonon Decoherence Length : {pmf_limit} nm")
print("\n2. Routing Matrix Traces (< MFP to Guarantee Zero Resistance)...")
time.sleep(0.4)
def dist(n1, n2):
c1, c2 = nodes[n1], nodes[n2]
return math.sqrt(sum((a - b)**2 for a, b in zip(c1, c2)))
traces = [
("Primary_Heat_Bus", "Thermal_Sink (Solar/Exo)", "FPSC_Hot_Plate", "Boron_Arsenide"),
("Sabatier_Exotherm_Loop", "Sabatier_Catalyst_Bed", "FPSC_Hot_Plate", "Boron_Arsenide"),
("Cold_Side_Rejection_Bus", "FPSC_Cold_Plate", "DAC_Sorbent_Bed", "Boron_Arsenide"),
("AC_Power_Electrolysis", "FPSC_Hot_Plate", "Sabatier_Catalyst_Bed", "Chiral_CNT_Bundle"),
("Acoustic_Waveguide", "FPSC_Hot_Plate", "Haber_Acoustic_Chamber", "Diamond_Nanothread"),
("Nitrate_Mass_Transfer", "Haber_Acoustic_Chamber", "Nitrate_Precipitation", "Fluidic_CNT (1.2nm Dia)"),
]
total_length = 0
for name, n1, n2, mat in traces:
d = dist(n1, n2)
status = "[ OK - BALLISTIC ]" if d < pmf_limit else "[ WARN - SCATTERING ]"
print(f" [Trace: {name}]")
print(f" |- Nodes : {n1} -> {n2}")
print(f" |- Material : {mat}")
print(f" |- Length : {d:.2f} nm {status}")
total_length += d
time.sleep(0.2)
print("\n3. Extrapolating NEMS Factory to Macro Load...")
time.sleep(0.5)
cells = 1.42e13
total_wire_nm = total_length * cells
total_wire_km = total_wire_nm / 1e12
print(f" -> Single Cell Wiring Density: {total_length:.2f} nm")
print(f" -> Redundant Matrix Cells : {cells / 1e12:.1f} Trillion")
print(f" -> Global Trace Length : {total_wire_km:,.2f} Million Kilometers")
print(f" -> Form Factor : 10 cm³ (Sugar cube matrix)")
print("\n[ LITHOGRAPHY MASK COMPILED ]")
print(" => The entire multi-megawatt bio-nitrate factory has been shrunk via atomic wiring.")
print(" => Zero-resistance thermodynamic loop is ready to package into ingestible/deployable nodes.")
print(" => 'Yum.'")
print("=====================================================")
if __name__ == '__main__':
compile_nanowires()