import numpy as np from scipy.integrate import quad def construct_strategy(accuracy_func, derivative_func): # 1. Find the starting threshold 'a' # For a symmetric 1-bullet duel, a is found where # the integral of f(x) from a to 1 equals 1. def integrand(x): return derivative_func(x) / (accuracy_func(x)**3) # We solve for 'a' such that integral equals 1/h # (Simplified for demonstration) a = 0.33 # Derived from solving the integral for A(x)=x return lambda x: integrand(x) if x >= a else 0 # Example: Linear Accuracy A(x) = x f_optimal = construct_strategy(lambda x: x, lambda x: 1) Use code with caution. Copied to clipboard 4. Programming Challenges: Precision and Normalization
The goal is to make the opponent's payoff constant regardless of when they shoot. This leads to an integral equation where the payoff import numpy as np from scipy
f(x)=A′(x)A(x)3f of x equals the fraction with numerator cap A prime open paren x close paren and denominator cap A open paren x close paren cubed end-fraction Copied to clipboard 4
Should we look at the for solving the threshold when the accuracy function is complex? While the math is continuous, a game engine
While the math is continuous, a game engine or simulation usually runs on discrete ticks. You must normalize the PDF so that the sum of probabilities across all frames equals 1. 5. Summary of the Construction To build the solution: Define : How likely are you to hit at time Calculate the Threshold : The point where "waiting" becomes statistically viable. Generate the PDF : Use the derived to distribute firing chances.