[
  {
    "case_id": "case_000001",
    "task_name": "task_0001",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0001/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0001/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate a moderate bounce sequence. The ball should start from the initial position following the velocity arrow direction, demonstrate 4-5 bounces, creating an interesting path across the bounded area. Stop after the 5th bounce."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0001/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-15_ball_bounces_given_time_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Animate a moderate bounce sequence. The ball should start from the initial position following the velocity arrow direction, demonstrate 4-5 bounces, creating an interesting path across the bounded area. Stop after the 5th bounce."
  },
  {
    "case_id": "case_000002",
    "task_name": "task_0002",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0002/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0002/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate a straightforward bounce path. The ball starts at the initial position, follows the initial velocity arrow direction, and bounces 2-3 times off the walls. Stop after the 2nd bounce."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0002/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-15_ball_bounces_given_time_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Animate a straightforward bounce path. The ball starts at the initial position, follows the initial velocity arrow direction, and bounces 2-3 times off the walls. Stop after the 2nd bounce."
  },
  {
    "case_id": "case_000003",
    "task_name": "task_0003",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0003/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0003/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nShow a simple bounce trajectory with 2-3 bounces. The ball should move smoothly from start following the initial velocity arrow, bounce off the walls, and display a clear path. Stop after the 3rd bounce."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0003/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-15_ball_bounces_given_time_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Show a simple bounce trajectory with 2-3 bounces. The ball should move smoothly from start following the initial velocity arrow, bounce off the walls, and display a clear path. Stop after the 3rd bounce."
  },
  {
    "case_id": "case_000004",
    "task_name": "task_0004",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0004/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0004/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGenerate a medium-complexity bounce trajectory with 4-5 bounces. Starting from the initial position with the velocity arrow, show the ball's path as it bounces multiple times off different walls. Stop after the 5th bounce."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0004/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-15_ball_bounces_given_time_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Generate a medium-complexity bounce trajectory with 4-5 bounces. Starting from the initial position with the velocity arrow, show the ball's path as it bounces multiple times off different walls. Stop after the 5th bounce."
  },
  {
    "case_id": "case_000005",
    "task_name": "task_0005",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0005/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0005/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate a moderate bounce sequence. The ball should start from the initial position following the velocity arrow direction, demonstrate 4-5 bounces, creating an interesting path across the bounded area. Stop after the 5th bounce."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0005/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-15_ball_bounces_given_time_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Animate a moderate bounce sequence. The ball should start from the initial position following the velocity arrow direction, demonstrate 4-5 bounces, creating an interesting path across the bounded area. Stop after the 5th bounce."
  },
  {
    "case_id": "case_000006",
    "task_name": "task_0006",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0006/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0006/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0006/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-16_color_addition_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Two colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
  },
  {
    "case_id": "case_000007",
    "task_name": "task_0007",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0007/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0007/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0007/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-16_color_addition_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Two colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
  },
  {
    "case_id": "case_000008",
    "task_name": "task_0008",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0008/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0008/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo balls of different colors are placed at separate locations. Show them moving toward each other at identical speeds. When they overlap, the overlapping area should display the additive mixture of their colors. Continue the animation until the balls completely merge into a single ball at the midpoint, then stop."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0008/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-16_color_addition_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Two balls of different colors are placed at separate locations. Show them moving toward each other at identical speeds. When they overlap, the overlapping area should display the additive mixture of their colors. Continue the animation until the balls completely merge into a single ball at the midpoint, then stop."
  },
  {
    "case_id": "case_000009",
    "task_name": "task_0009",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0009/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0009/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0009/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-16_color_addition_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Two colored circular balls start at different positions. They move toward each other at equal speeds until they fully overlap and merge into one. The overlapping region during movement and the final merged ball should show the additive color mixture of the two original ball colors. Stop the animation when the balls have completely merged at the midpoint."
  },
  {
    "case_id": "case_000010",
    "task_name": "task_0010",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0010/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0010/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo balls of different colors are placed at separate locations. Show them moving toward each other at identical speeds. When they overlap, the overlapping area should display the additive mixture of their colors. Continue the animation until the balls completely merge into a single ball at the midpoint, then stop."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0010/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-16_color_addition_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Two balls of different colors are placed at separate locations. Show them moving toward each other at identical speeds. When they overlap, the overlapping area should display the additive mixture of their colors. Continue the animation until the balls completely merge into a single ball at the midpoint, then stop."
  },
  {
    "case_id": "case_000011",
    "task_name": "task_0011",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0011/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0011/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the glass refractive index = 1.43, predict how light refracts when passing through the glass. Extend the refracted ray to the image edge."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0011/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-18_glass_refraction_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Given the glass refractive index = 1.43, predict how light refracts when passing through the glass. Extend the refracted ray to the image edge."
  },
  {
    "case_id": "case_000012",
    "task_name": "task_0012",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0012/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0012/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the refractive index of glass = 1.47, predict the light refraction through the glass surface. The refracted ray must extend all the way to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0012/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-18_glass_refraction_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Given the refractive index of glass = 1.47, predict the light refraction through the glass surface. The refracted ray must extend all the way to the edge of the image."
  },
  {
    "case_id": "case_000013",
    "task_name": "task_0013",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0013/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0013/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the glass refractive index = 1.65, predict how light refracts when passing through the glass. Extend the refracted ray to the image edge."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0013/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-18_glass_refraction_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Given the glass refractive index = 1.65, predict how light refracts when passing through the glass. Extend the refracted ray to the image edge."
  },
  {
    "case_id": "case_000014",
    "task_name": "task_0014",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0014/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0014/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the refractive index of glass = 1.92, predict the light refraction through the glass surface. The refracted ray must extend all the way to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0014/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-18_glass_refraction_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Given the refractive index of glass = 1.92, predict the light refraction through the glass surface. The refracted ray must extend all the way to the edge of the image."
  },
  {
    "case_id": "case_000015",
    "task_name": "task_0015",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0015/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0015/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the refractive index of glass = 1.38, predict the refraction of light through the glass. The refracted ray should extend to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0015/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-18_glass_refraction_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Given the refractive index of glass = 1.38, predict the refraction of light through the glass. The refracted ray should extend to the edge of the image."
  },
  {
    "case_id": "case_000016",
    "task_name": "task_0016",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0016/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0016/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the mirror reflectivity = 0.43, predict how light reflects when it encounters the mirror. Extend the reflected ray to the image boundary."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0016/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-19_mirror_reflection_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Given the mirror reflectivity = 0.43, predict how light reflects when it encounters the mirror. Extend the reflected ray to the image boundary."
  },
  {
    "case_id": "case_000017",
    "task_name": "task_0017",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0017/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0017/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the mirror reflectivity = 0.47, predict the light reflection from the mirror surface. The reflected ray must extend all the way to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0017/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-19_mirror_reflection_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Given the mirror reflectivity = 0.47, predict the light reflection from the mirror surface. The reflected ray must extend all the way to the edge of the image."
  },
  {
    "case_id": "case_000018",
    "task_name": "task_0018",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0018/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0018/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the mirror reflectivity = 0.65, predict how light reflects when it encounters the mirror. Extend the reflected ray to the image boundary."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0018/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-19_mirror_reflection_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Given the mirror reflectivity = 0.65, predict how light reflects when it encounters the mirror. Extend the reflected ray to the image boundary."
  },
  {
    "case_id": "case_000019",
    "task_name": "task_0019",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0019/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0019/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the mirror reflectivity = 0.92, predict the light reflection from the mirror surface. The reflected ray must extend all the way to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0019/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-19_mirror_reflection_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Given the mirror reflectivity = 0.92, predict the light reflection from the mirror surface. The reflected ray must extend all the way to the edge of the image."
  },
  {
    "case_id": "case_000020",
    "task_name": "task_0020",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0020/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0020/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven the mirror reflectivity = 0.38, predict the reflection of light when it hits the mirror. The reflected ray should extend to the edge of the image."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0020/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-19_mirror_reflection_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Given the mirror reflectivity = 0.38, predict the reflection of light when it hits the mirror. The reflected ray should extend to the edge of the image."
  },
  {
    "case_id": "case_000021",
    "task_name": "task_0021",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0021/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0021/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nPush START to begin the chain. Both branches will complete successfully as all dominos are properly connected. Show the full chain reaction with all dominos falling."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0021/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-23_domino_chain_branch_path_prediction_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Push START to begin the chain. Both branches will complete successfully as all dominos are properly connected. Show the full chain reaction with all dominos falling."
  },
  {
    "case_id": "case_000022",
    "task_name": "task_0022",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0022/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0022/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nInitiate the complete chain reaction from START. Watch both branches fall in parallel as the reaction splits at the junction. All dominos will fall - animate the full sequence."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0022/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-23_domino_chain_branch_path_prediction_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Initiate the complete chain reaction from START. Watch both branches fall in parallel as the reaction splits at the junction. All dominos will fall - animate the full sequence."
  },
  {
    "case_id": "case_000023",
    "task_name": "task_0023",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0023/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0023/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nStart the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0023/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-23_domino_chain_branch_path_prediction_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Start the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
  },
  {
    "case_id": "case_000024",
    "task_name": "task_0024",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0024/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0024/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nStart the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0024/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-23_domino_chain_branch_path_prediction_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Start the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
  },
  {
    "case_id": "case_000025",
    "task_name": "task_0025",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0025/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0025/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nStart the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0025/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-23_domino_chain_branch_path_prediction_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Start the chain reaction. The dominos will propagate and branch, but a gap in one path will prevent some dominos from falling. Show the final state with fallen and standing dominos clearly marked."
  },
  {
    "case_id": "case_000026",
    "task_name": "task_0026",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0026/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0026/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nExamine the spacing between dominos to find where the chain will break. Animate the first domino being pushed and show each domino falling in sequence until the gap prevents further progress."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0026/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-24_domino_chain_gap_analysis_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Examine the spacing between dominos to find where the chain will break. Animate the first domino being pushed and show each domino falling in sequence until the gap prevents further progress."
  },
  {
    "case_id": "case_000027",
    "task_name": "task_0027",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0027/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0027/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nPush the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0027/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-24_domino_chain_gap_analysis_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Push the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
  },
  {
    "case_id": "case_000028",
    "task_name": "task_0028",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0028/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0028/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nFind the break point in this domino chain. Which domino falls last before the gap stops the reaction? Show the chain reaction and highlight where it ends."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0028/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-24_domino_chain_gap_analysis_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Find the break point in this domino chain. Which domino falls last before the gap stops the reaction? Show the chain reaction and highlight where it ends."
  },
  {
    "case_id": "case_000029",
    "task_name": "task_0029",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0029/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0029/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nPush the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0029/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-24_domino_chain_gap_analysis_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Push the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
  },
  {
    "case_id": "case_000030",
    "task_name": "task_0030",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0030/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0030/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nPush the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0030/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-24_domino_chain_gap_analysis_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Push the first domino and predict where the chain reaction stops. Identify the gap that prevents the chain from continuing. Animate the dominos falling until they reach the break point."
  },
  {
    "case_id": "case_000031",
    "task_name": "task_0031",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0031/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0031/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nShow the red cluster (labeled A) moving toward other colored clusters (B, C, D). Only the red cluster moves; all other clusters remain stationary. When the red cluster collides with a target cluster, compare their counts. If the red cluster's count is greater than or equal to the target's count, the target disappears and the red cluster merges with it, keeping its red color and ID A. The red cluster's count label updates to show the exact sum. Continue until exactly one red cluster A remains, containing all balls."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0031/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-29_ballcolor_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Show the red cluster (labeled A) moving toward other colored clusters (B, C, D). Only the red cluster moves; all other clusters remain stationary. When the red cluster collides with a target cluster, compare their counts. If the red cluster's count is greater than or equal to the target's count, the target disappears and the red cluster merges with it, keeping its red color and ID A. The red cluster's count label updates to show the exact sum. Continue until exactly one red cluster A remains, containing all balls."
  },
  {
    "case_id": "case_000032",
    "task_name": "task_0032",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0032/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0032/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate the merging sequence: the red cluster A moves to collide with one target cluster at a time. Other clusters stay still. Upon collision, if A's count is greater than or equal to the target's count, the target cluster disappears completely and A absorbs all its balls. A remains red with ID A, and its count increases. The TOTAL label never changes. Continue merging until only one red cluster A remains with count equal to TOTAL."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0032/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-29_ballcolor_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Demonstrate the merging sequence: the red cluster A moves to collide with one target cluster at a time. Other clusters stay still. Upon collision, if A's count is greater than or equal to the target's count, the target cluster disappears completely and A absorbs all its balls. A remains red with ID A, and its count increases. The TOTAL label never changes. Continue merging until only one red cluster A remains with count equal to TOTAL."
  },
  {
    "case_id": "case_000033",
    "task_name": "task_0033",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0033/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0033/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nShow the red cluster (labeled A) moving toward other colored clusters (B, C, D). Only the red cluster moves; all other clusters remain stationary. When the red cluster collides with a target cluster, compare their counts. If the red cluster's count is greater than or equal to the target's count, the target disappears and the red cluster merges with it, keeping its red color and ID A. The red cluster's count label updates to show the exact sum. Continue until exactly one red cluster A remains, containing all balls."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0033/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-29_ballcolor_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Show the red cluster (labeled A) moving toward other colored clusters (B, C, D). Only the red cluster moves; all other clusters remain stationary. When the red cluster collides with a target cluster, compare their counts. If the red cluster's count is greater than or equal to the target's count, the target disappears and the red cluster merges with it, keeping its red color and ID A. The red cluster's count label updates to show the exact sum. Continue until exactly one red cluster A remains, containing all balls."
  },
  {
    "case_id": "case_000034",
    "task_name": "task_0034",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0034/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0034/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate the merging sequence: the red cluster A moves to collide with one target cluster at a time. Other clusters stay still. Upon collision, if A's count is greater than or equal to the target's count, the target cluster disappears completely and A absorbs all its balls. A remains red with ID A, and its count increases. The TOTAL label never changes. Continue merging until only one red cluster A remains with count equal to TOTAL."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0034/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-29_ballcolor_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Demonstrate the merging sequence: the red cluster A moves to collide with one target cluster at a time. Other clusters stay still. Upon collision, if A's count is greater than or equal to the target's count, the target cluster disappears completely and A absorbs all its balls. A remains red with ID A, and its count increases. The TOTAL label never changes. Continue merging until only one red cluster A remains with count equal to TOTAL."
  },
  {
    "case_id": "case_000035",
    "task_name": "task_0035",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0035/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0035/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate the red cluster (A) moving to collide with other colored clusters. When the red cluster collides with a target cluster, if the red cluster's count is greater than or equal to the target's count, the target cluster disappears completely and the red cluster absorbs all its balls. The red cluster keeps its red color and ID A, and its count increases by the target's count. Continue this process until all clusters merge into one red cluster A with count equal to TOTAL."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0035/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-29_ballcolor_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Animate the red cluster (A) moving to collide with other colored clusters. When the red cluster collides with a target cluster, if the red cluster's count is greater than or equal to the target's count, the target cluster disappears completely and the red cluster absorbs all its balls. The red cluster keeps its red color and ID A, and its count increases by the target's count. Continue this process until all clusters merge into one red cluster A with count equal to TOTAL."
  },
  {
    "case_id": "case_000036",
    "task_name": "task_0036",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0036/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0036/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate the ball rolling along its continuous trajectory path, smoothly transitioning from one platform to the next. The ball should follow the curved path through 3D space, ending at rest on the final platform."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0036/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-32_rolling_ball_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Animate the ball rolling along its continuous trajectory path, smoothly transitioning from one platform to the next. The ball should follow the curved path through 3D space, ending at rest on the final platform."
  },
  {
    "case_id": "case_000037",
    "task_name": "task_0037",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0037/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0037/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate the ball's complex trajectory through 3D space, rolling across multiple platforms in sequence."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0037/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-32_rolling_ball_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Demonstrate the ball's complex trajectory through 3D space, rolling across multiple platforms in sequence."
  },
  {
    "case_id": "case_000038",
    "task_name": "task_0038",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0038/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0038/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nShow the ball following its intricate curved path, smoothly navigating from platform to platform until reaching the final destination."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0038/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-32_rolling_ball_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Show the ball following its intricate curved path, smoothly navigating from platform to platform until reaching the final destination."
  },
  {
    "case_id": "case_000039",
    "task_name": "task_0039",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0039/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0039/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate the ball's complex trajectory through 3D space, rolling across multiple platforms in sequence."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0039/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-32_rolling_ball_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Demonstrate the ball's complex trajectory through 3D space, rolling across multiple platforms in sequence."
  },
  {
    "case_id": "case_000040",
    "task_name": "task_0040",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0040/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0040/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nAnimate the ball following its trajectory from start to finish. The continuous curved path should be clearly visible as the ball moves through 3D space, landing on each platform in sequence."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0040/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-32_rolling_ball_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Animate the ball following its trajectory from start to finish. The continuous curved path should be clearly visible as the ball moves through 3D space, landing on each platform in sequence."
  },
  {
    "case_id": "case_000041",
    "task_name": "task_0041",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0041/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0041/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nPredict the fluid motion in a 3-tube apparatus. Initial heights are 5, 23, 16 cm. Based on gravity 9.8 m/s² and the damping k=1.72, generate a video showing the liquid equalizing to a common level."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0041/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-75_communicating_vessels_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Predict the fluid motion in a 3-tube apparatus. Initial heights are 5, 23, 16 cm. Based on gravity 9.8 m/s² and the damping k=1.72, generate a video showing the liquid equalizing to a common level."
  },
  {
    "case_id": "case_000042",
    "task_name": "task_0042",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0042/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0042/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nA system of communicating vessels with 5 vertical tubes is filled with yellow liquid. As shown in the image, the initial liquid levels are: [7, 17, 11, 16, 10] cm. Given the standard gravity (g=9.8 m/s²) and the damping coefficient k=1.76, simulate how the liquid flows until it reaches a stable hydrostatic equilibrium."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0042/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-75_communicating_vessels_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "A system of communicating vessels with 5 vertical tubes is filled with yellow liquid. As shown in the image, the initial liquid levels are: [7, 17, 11, 16, 10] cm. Given the standard gravity (g=9.8 m/s²) and the damping coefficient k=1.76, simulate how the liquid flows until it reaches a stable hydrostatic equilibrium."
  },
  {
    "case_id": "case_000043",
    "task_name": "task_0043",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0043/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0043/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nSimulate the restoration of equilibrium in these communicating vessels (4 tubes). The tubes hold yellow liquid at initial heights [18, 23, 7, 9] cm. Driven by gravity (9.8 m/s²), the fluid will flow between sections with a damping constant k=1.71."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0043/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-75_communicating_vessels_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Simulate the restoration of equilibrium in these communicating vessels (4 tubes). The tubes hold yellow liquid at initial heights [18, 23, 7, 9] cm. Driven by gravity (9.8 m/s²), the fluid will flow between sections with a damping constant k=1.71."
  },
  {
    "case_id": "case_000044",
    "task_name": "task_0044",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0044/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0044/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nSimulate the restoration of equilibrium in these communicating vessels (3 tubes). The tubes hold blue liquid at initial heights [23, 17, 8] cm. Driven by gravity (9.8 m/s²), the fluid will flow between sections with a damping constant k=1.79."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0044/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-75_communicating_vessels_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Simulate the restoration of equilibrium in these communicating vessels (3 tubes). The tubes hold blue liquid at initial heights [23, 17, 8] cm. Driven by gravity (9.8 m/s²), the fluid will flow between sections with a damping constant k=1.79."
  },
  {
    "case_id": "case_000045",
    "task_name": "task_0045",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0045/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0045/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nHere is a communicating vessel apparatus. Parameters: Tubes=5, Initial Levels=[9, 14, 19, 13, 20] cm, Gravity=9.8 m/s², Damping k=3.48. Depict the fluid seeking its equilibrium."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0045/episode_0001/final_frame.png",
    "vbvr_split": "In-Domain_50",
    "vbvr_task": "O-75_communicating_vessels_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Here is a communicating vessel apparatus. Parameters: Tubes=5, Initial Levels=[9, 14, 19, 13, 20] cm, Gravity=9.8 m/s², Damping k=3.48. Depict the fluid seeking its equilibrium."
  },
  {
    "case_id": "case_000046",
    "task_name": "task_0046",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0046/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0046/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0046/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "G-273_high_density_liquid_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Two identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
  },
  {
    "case_id": "case_000047",
    "task_name": "task_0047",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0047/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0047/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo identical square objects are placed into two containers with liquids of different densities. The left container has higher density liquid (the object that ends up floating higher), the right has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0047/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "G-273_high_density_liquid_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Two identical square objects are placed into two containers with liquids of different densities. The left container has higher density liquid (the object that ends up floating higher), the right has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
  },
  {
    "case_id": "case_000048",
    "task_name": "task_0048",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0048/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0048/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0048/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "G-273_high_density_liquid_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Two identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
  },
  {
    "case_id": "case_000049",
    "task_name": "task_0049",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0049/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0049/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0049/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "G-273_high_density_liquid_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Two identical square objects are placed into two containers with liquids of different densities. The right container has higher density liquid (the object that ends up floating higher), the left has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
  },
  {
    "case_id": "case_000050",
    "task_name": "task_0050",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0050/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0050/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo identical square objects are placed into two containers with liquids of different densities. The left container has higher density liquid (the object that ends up floating higher), the right has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0050/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "G-273_high_density_liquid_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Two identical square objects are placed into two containers with liquids of different densities. The left container has higher density liquid (the object that ends up floating higher), the right has lower density. After the motion settles, add a red rectangular outline around the object inside the higher-density liquid; the rectangle appears only at the end and stays visible, and do not mark the other object."
  },
  {
    "case_id": "case_000051",
    "task_name": "task_0051",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0051/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0051/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nTwo pigment colors are displayed. A rectangular zone marked with a white border indicates where the pigments will mix. Using subtractive color mixing rules, determine the resulting color and display it within the marked zone."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0051/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-2_pigment_color_mixing_subtractive_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Two pigment colors are displayed. A rectangular zone marked with a white border indicates where the pigments will mix. Using subtractive color mixing rules, determine the resulting color and display it within the marked zone."
  },
  {
    "case_id": "case_000052",
    "task_name": "task_0052",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0052/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0052/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nApply subtractive color mixing principles. Observe the two pigment colors positioned on the left and right sides. The white-bordered rectangular area in the center is the mixing zone. Display the resulting mixed color inside this marked zone."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0052/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-2_pigment_color_mixing_subtractive_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Apply subtractive color mixing principles. Observe the two pigment colors positioned on the left and right sides. The white-bordered rectangular area in the center is the mixing zone. Display the resulting mixed color inside this marked zone."
  },
  {
    "case_id": "case_000053",
    "task_name": "task_0053",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0053/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0053/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nApply subtractive color mixing principles. Observe the two pigment colors positioned on the left and right sides. The white-bordered rectangular area in the center is the mixing zone. Display the resulting mixed color inside this marked zone."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0053/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-2_pigment_color_mixing_subtractive_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Apply subtractive color mixing principles. Observe the two pigment colors positioned on the left and right sides. The white-bordered rectangular area in the center is the mixing zone. Display the resulting mixed color inside this marked zone."
  },
  {
    "case_id": "case_000054",
    "task_name": "task_0054",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0054/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0054/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate subtractive color mixing. The image shows two pigment colors. The center region is marked with a white rectangular outline. Predict and show what color appears in the marked mixing zone when these two pigments combine."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0054/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-2_pigment_color_mixing_subtractive_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Demonstrate subtractive color mixing. The image shows two pigment colors. The center region is marked with a white rectangular outline. Predict and show what color appears in the marked mixing zone when these two pigments combine."
  },
  {
    "case_id": "case_000055",
    "task_name": "task_0055",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0055/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0055/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nDemonstrate subtractive color mixing. The image shows two pigment colors. The center region is marked with a white rectangular outline. Predict and show what color appears in the marked mixing zone when these two pigments combine."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0055/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-2_pigment_color_mixing_subtractive_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Demonstrate subtractive color mixing. The image shows two pigment colors. The center region is marked with a white rectangular outline. Predict and show what color appears in the marked mixing zone when these two pigments combine."
  },
  {
    "case_id": "case_000056",
    "task_name": "task_0056",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0056/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0056/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven physical parameters: initial height of object 12.7m, initial upward velocity 4.9 m/s, gravitational acceleration 8.3 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0056/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-62_gravity_physics_data-generator",
    "vbvr_sample_id": "00000",
    "vbvr_official_prompt": "Given physical parameters: initial height of object 12.7m, initial upward velocity 4.9 m/s, gravitational acceleration 8.3 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
  },
  {
    "case_id": "case_000057",
    "task_name": "task_0057",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0057/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0057/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven physical parameters: initial height of object 24.3m, initial upward velocity 4.4 m/s, gravitational acceleration 6.8 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0057/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-62_gravity_physics_data-generator",
    "vbvr_sample_id": "00001",
    "vbvr_official_prompt": "Given physical parameters: initial height of object 24.3m, initial upward velocity 4.4 m/s, gravitational acceleration 6.8 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
  },
  {
    "case_id": "case_000058",
    "task_name": "task_0058",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0058/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0058/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven physical parameters: initial height of object 16.9m, initial downward velocity 1.0 m/s, gravitational acceleration 7.5 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0058/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-62_gravity_physics_data-generator",
    "vbvr_sample_id": "00002",
    "vbvr_official_prompt": "Given physical parameters: initial height of object 16.9m, initial downward velocity 1.0 m/s, gravitational acceleration 7.5 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
  },
  {
    "case_id": "case_000059",
    "task_name": "task_0059",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0059/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0059/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven physical parameters: initial height of object 14.9m, initial upward velocity 5.1 m/s, gravitational acceleration 12.9 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0059/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-62_gravity_physics_data-generator",
    "vbvr_sample_id": "00003",
    "vbvr_official_prompt": "Given physical parameters: initial height of object 14.9m, initial upward velocity 5.1 m/s, gravitational acceleration 12.9 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
  },
  {
    "case_id": "case_000060",
    "task_name": "task_0060",
    "episode_name": "episode_0001",
    "gt_path": "data/vbvr_physics/gt_data/task_0060/episode_0001/video.mp4",
    "image": "data/vbvr_physics/gt_data/task_0060/episode_0001/prompt/init_frame.png",
    "prompt": [
      "You are given a query initial frame.\n\nGenerate a physically plausible continuation of the query image.\n\nQuery:\nGiven physical parameters: initial height of object 12.5m, initial downward velocity 2.0 m/s, gravitational acceleration 8.7 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
    ],
    "final_frame": "data/vbvr_physics/gt_data/task_0060/episode_0001/final_frame.png",
    "vbvr_split": "Out-of-Domain_50",
    "vbvr_task": "O-62_gravity_physics_data-generator",
    "vbvr_sample_id": "00004",
    "vbvr_official_prompt": "Given physical parameters: initial height of object 12.5m, initial downward velocity 2.0 m/s, gravitational acceleration 8.7 m/s². Based on this information, simulate and display the complete motion of the object over the next 3 seconds, including trajectory and final position."
  }
]