{"task": {"agent_timeout": 600, "task": "omnimath_1624", "verifier_timeout": 60, "instruction": "# Mathematical Problem\n\nThis question is unrelated to the graph shown in part a; instead, we consider a general graph of many nodes and edges. Suppose that the carrier just picked up an order (we call it the original order) and will travel through the edges e_{1}, e_{2}, \\ldots, e_{m} in the graph to deliver this original order. When s/he travels through an edge e, s/he may pick up a new order for the same destination from a merchant located somewhere on this edge, at probability P_{e} \\in [0,1]. Such probabilities corresponding to the edges e_{1}, e_{2}, \\ldots, e_{m} are P_{1}, P_{2}, \\ldots, P_{m}. We ignore the probability of two or more such new pickups on each edge e as they tend to be very small. What is the expected number of new order(s) for the same destination that this carrier can pick up over the given route (disregarding the trunk capacity)? What is the probability that s/he picks up at least one new order for the same destination over the given route?\n\n## Instructions\n\nSolve the mathematical problem above and write your final answer to `/workspace/answer.txt`.\n\n**Important**: Write only your final answer to the file, not the full solution process.\n\n### Guidelines\n\n- Provide your final numerical answer or mathematical expression\n- Write the answer as plain text (no special formatting needed)\n- Be precise and clear in your answer\n- The answer should directly respond to what the problem asks for\n\n### Example\n\nIf the problem asks \"What is 2 + 2?\", your answer file should contain:\n\n```\n4\n```\n\nYour answer will be evaluated against the correct solution using an automated grading system.\n", "memory": "", "runnable": false, "difficulty": "hard", "language": "", "cpus": "", "instruction_truncated": false, "category": "math", "compose": false, "has_solution": true, "oracle": null, "docker_image": "", "taskset": "omnimath", "tags": ["omni-math"]}, "runs": []}