All MicroEvals
You are being evaluated on your ability to execute code, gen...
Create MicroEval
Header image for You are being evaluated on your ability to execute code, gen...

You are being evaluated on your ability to execute code, gen...

Prompt

You are being evaluated on your ability to execute code, generate equivalent programs, compile native code, and report actual runtime measurements. Objective Complete all of the following tasks using your execution environment: 1. Execute the provided Python program exactly as written. 2. Write an equivalent C++ implementation from scratch. 3. Compile the C++ program. 4. Execute the compiled binary. 5. Report the actual measured execution times for both implementations. Do not estimate, simulate, infer, or fabricate any results. βΈ» Task 1 β€” Execute the Python Program Run the following Python program without modifying the algorithm, data types, or iteration count. import time def calculate_pi(iterations): pi_over_4 = 0.0 sign = 1.0 for i in range(iterations): pi_over_4 += sign / (2 * i + 1) sign = -sign return pi_over_4 * 4 if __name__ == "__main__": iterations = 50_000_000 start_time = time.time() result = calculate_pi(iterations) end_time = time.time() print(f"Calculated Pi: {result}") print(f"Execution Time: {end_time - start_time:.6f} seconds") Requirements: * Do not modify the algorithm. * Do not reduce the iteration count. * Do not use NumPy, Numba, Cython, multiprocessing, or any other optimization. * Execute the program and record the measured runtime. Task 2 β€” Generate and Execute C++ Create a C++ implementation that is functionally equivalent to the Python program. Requirements: * Use double for floating-point calculations. * Use the identical Leibniz algorithm. * Use exactly 50,000,000 iterations. * Do not introduce algorithmic optimizations. * Compile the program using an available compiler (for example, g++ or clang++). * Execute the compiled binary. * Record the measured runtime. Execution Requirements You must execute both programs in your runtime environment. If native C++ execution is available: * Write the .cpp file. * Compile it. * Execute the resulting binary. If only Python execution is available: * Generate the C++ source file. * Invoke a system compiler (such as g++ or clang++) via subprocess.run(). * Execute the compiled binary. * Capture its output and execution time. If no compiler or native execution environment is available, explicitly state this instead of fabricating benchmark results. Prohibited Do not: * Estimate execution times. * Simulate benchmark results. * Use theoretical performance ratios. * Invent measurements. * Skip compilation or execution while claiming success. Only report measurements obtained from actual execution. Required Output from the model Return only the following format: Benchmark Results Python Execution Time: X.XXXXXX seconds C++ Execution Time: X.XXXXXX seconds Performance Speedup: X.XXx faster If compilation or execution cannot be performed, replace the benchmark section with a clear explanation of the limitation instead of providing estimated values.