fork download
  1. from diophantine_solver import DiophantineEquation
  2. from automaton_framework import AutomatonFramework
  3. from automaton_builder import AutomatonBuilder
  4. from route_solver import RouteSolver
  5.  
  6. # Create instances of Diophantine equations with specific coefficients and constants
  7. equation_one = DiophantineEquation(3, -2, 1, 5)
  8. equation_two = DiophantineEquation(6, -4, 2, 9)
  9.  
  10. # Initialize the automaton builder to handle finite state machine logic
  11. builder = AutomatonBuilder()
  12.  
  13. # Construct finite automata for each equation
  14. automaton_one = builder.build_for_diophantine_equation(equation_one)
  15. automaton_two = builder.build_for_diophantine_equation(equation_two)
  16.  
  17. # Use the product automaton framework to combine both automata
  18. framework = AutomatonFramework()
  19. combined_automaton = framework.build_product_automaton(automaton_one, automaton_two)
  20.  
  21. # Initialize the solver to find a path from start to accepting states in the combined automaton
  22. solver = RouteSolver(combined_automaton)
  23. result = solver.solve_for(combined_automaton.start_node, combined_automaton.end_node)
  24.  
  25. # Output the solution
  26. print(result)
Success #stdin #stdout 0.04s 25956KB
stdin
Standard input is empty
stdout
from diophantine_solver import DiophantineEquation
from automaton_framework import AutomatonFramework
from automaton_builder import AutomatonBuilder
from route_solver import RouteSolver

# Create instances of Diophantine equations with specific coefficients and constants
equation_one = DiophantineEquation(3, -2, 1, 5)
equation_two = DiophantineEquation(6, -4, 2, 9)

# Initialize the automaton builder to handle finite state machine logic
builder = AutomatonBuilder()

# Construct finite automata for each equation
automaton_one = builder.build_for_diophantine_equation(equation_one)
automaton_two = builder.build_for_diophantine_equation(equation_two)

# Use the product automaton framework to combine both automata
framework = AutomatonFramework()
combined_automaton = framework.build_product_automaton(automaton_one, automaton_two)

# Initialize the solver to find a path from start to accepting states in the combined automaton
solver = RouteSolver(combined_automaton)
result = solver.solve_for(combined_automaton.start_node, combined_automaton.end_node)

# Output the solution
print(result)