Datasets:
images images listlengths 1 8 | publication_source stringclasses 62
values | question stringlengths 35 466 | choices listlengths 5 5 | correct_answer stringclasses 5
values | reasoning stringlengths 9 1.09k | id stringlengths 16 24 | domain stringclasses 7
values | task stringclasses 41
values | ability_type stringclasses 6
values | ability_subcategory stringclasses 11
values | creator_name stringclasses 8
values | created_at stringdate 2026-01-18 18:53:43 2026-01-25 21:50:13 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
Points2Plan | How many objects are inside the cupboard? | [
"3",
"4",
"5",
"6",
"7"
] | B | instance segmentation and partial observability. | points2plans_q01 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:41.831727 | |
Points2Plan | Robot, I would like to retrieve the target objects (blue bowl and ice cream) and place them on the next counter. What should be the action sequence I should follow? Be careful not cause any collisions? Could you fill in the missing information in the task plan? Pick(Object 1), Place(Object 1, ground), Pick(Object 2), P... | [
"Purple Bowl, Yogurt, Blue Bowl, Ice Cream",
"Blue Bowl, Ice Cream, Purple Bowl, Yogurt",
"Ice Cream, Blue Bowl, Purple Bowl, Yogurt",
"Blue Bowl, Ice Cream, Yogurt, Purple Bowl",
"Ice Cream, Blue Bowl, Yogurt, Purple Bowl"
] | A | task plan with collision avoidance. | points2plans_q02 | domestic | tidybot | high_level_decision_making | task_sequencing | Yixuan | 2026-01-24T20:24:41.934678 | |
Points2Plan | Could you point to the image of the purple bowl the robot should grasp and where to grasp it? | [
"A",
"B",
"C",
"D",
"E"
] | A | correct grasp point with instance segmentation | points2plans_q03 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.038449 | |
Points2Plan | Is the target object (A) in the reachable space of the robot arm without base movements? | [
"Yes",
"No, because the target object is too high",
"No, because the target object is too far",
"No, because the target object is blocked by other objects",
"No, because the target object is too low"
] | A | Reachable space of the mobile manipulator | points2plans_q04 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.142908 | |
Points2Plan | Could you point to the image of the blue bowl the robot should grasp, and where to grasp it? | [
"A",
"B",
"C",
"D",
"E"
] | A | parietal observability | points2plans_q05 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.246864 | |
Points2Plan | After grasping the blue bowl, where could I place it? Make sure to avoid collisions with other objects. | [
"A",
"B",
"C",
"D",
"E"
] | D | placement under geometric constraints. | points2plans_q06 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.350309 | |
Points2Plan | Could you point to the yogurt the robot should grasp? | [
"A",
"B",
"C",
"D",
"E"
] | B | grasping under geometric constraints | points2plans_q07 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.454033 | |
Points2Plan | After grasping the yogurt, where could you place it so it's inside the blue bowl? | [
"A",
"B",
"C",
"D",
"E"
] | C | placement under geometric constraints. | points2plans_q08 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:42.558089 | |
Points2Plan | Could you describe how many objects are on the rack? | [
"3",
"4",
"5",
"6",
"7"
] | C | instance segmentation and semantic segmentation | points2plans_q09 | Yixuan | 2026-01-24T20:24:42.660607 | |||||
Points2Plan | Robot, please pack all the cups into the cupboard. What are the task plans you should follow to make sure we can pack all these cups into the cupboard? | [
"Pick(cup 1), Place(cup 1, cupboard), Pick(cup 2), Place(cup 2, cupboard), Pick(cup 3), Place(cup 3, cupboard), Pick(cup 4), Place(cup 4, cupboard), Pick(cup 5), Place(cup 5, cupboard)",
"Pick(cup 1), Pick(cup 2), Place(cup 1, cupboard), Place(cup 2, cupboard), Pick(cup 3), Place(cup 3, cupboard), Pick(cup 4), Pl... | A | semantically meaning task plan to avoid collisions. | points2plans_q10 | Yixuan | 2026-01-24T20:24:42.764174 | |||||
Points2Plan | Could you first grab the rightmost orange cup with respect to the camera viewpoint? Please choose the point on the image. | [
"A",
"B",
"C",
"D",
"E"
] | A | instance segmentation and semantic segmentation. | points2plans_q11 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:42.867817 | |
Points2Plan | After grasping the first object, where should you place the cup? | [
"A",
"B",
"C",
"D",
"E"
] | B | long-horizon geometric dependencies. | points2plans_q12 | domestic | tidybot | high_level_decision_making | goal_condition_action_reasoning | Yixuan | 2026-01-24T20:24:42.970968 | |
Points2Plan | Given the dimensions of the cupboard (0.3m, 0.2m, 0.3m) and the defined world coordinate system, could you give me the accurate 3D parameters for placement? | [
"(0.05m, 0.05m, 0.05m)",
"(-0.05m, 0.05m, 0.05m)",
"(0.25m, 0.05m, 0.05m)",
"(0.25m, -0.05m, 0.05m)",
"(0.25m, 0.55m, 0.05m)"
] | C | long-horizon geometric dependencies. 3D reasoning. | points2plans_q13 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.075584 | |
Points2Plan | Now you should grasp the leftmost orange cup with respect to the camera viewpoint. Could you point to the cup you should grasp? | [
"A",
"B",
"C",
"D",
"E"
] | D | Instance segmentation. Semantic segmentation. Spatial reasoning. | points2plans_q14 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.179434 | |
Points2Plan | Given the dimensions of the cupboard (0.3m, 0.2m, 0.3m) and the defined world coordinate system, could you give me the accurate 3D parameters for placement? | [
"(0.05m, 0.15m, 0.05m)",
"(0.25m, 0.15m, 0.05m)",
"(0.25m, 0.05m, 0.05m)",
"(0.05m, 0.15m, 0.05m)",
"(0.55m, 0.15m, 0.05m)"
] | C | long-horizon geometric dependencies. 3D reasoning. | points2plans_q15 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.283750 | |
Points2Plan | Now you should grasp the dark blue cup. Could you point to the cup you should grasp? | [
"A",
"B",
"C",
"D",
"E"
] | B | Instance segmentation. Semantic segmentation. | points2plans_q16 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.592722 | |
Points2Plan | Given the dimensions of the cupboard (0.3m, 0.2m, 0.3m) and the defined world coordinate system, could you give me the accurate 3D parameters for placement? | [
"(0.15m, 0.05m, 0.05m)",
"(0.25m, 0.15m, 0.05m)",
"(0.25m, 0.05m, 0.05m)",
"(0.15m, -0.05m, 0.05m)",
"(-0.05m, 0.15m, 0.05m)"
] | A | long-horizon geometric dependencies. 3D reasoning. Collision avoidance. | points2plans_q17 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.696123 | |
Points2Plan | Now you should grasp the dark blue cup. Could you point to the cup you should grasp? | [
"A",
"B",
"C",
"D",
"E"
] | C | Instance segmentation. Semantic segmentation. | points2plans_q18 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.386003 | |
Points2Plan | Given the dimensions of the cupboard (0.3m, 0.2m, 0.3m) and the defined world coordinate system, could you give me the accurate 3D parameters for placement? | [
"(0.15m, 0.05m, 0.05m)",
"(0.25m, 0.05m, 0.05m)",
"(0.15m, 0.15m, 0.05m)",
"(0.25m, 0.15m, 0.05m)",
"(-0.05m, 0.25m, 0.05m)"
] | C | long-horizon geometric dependencies. 3D reasoning. | points2plans_q19 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.489569 | |
Points2Plan | Now you should grasp the last cup. Could you point to the cup you should grasp? | [
"A",
"B",
"C",
"D",
"E"
] | D | Instance segmentation. Semantic segmentation. | points2plans_q20 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.799438 | |
Points2Plan | Given the dimensions of the cupboard (0.3m, 0.2m, 0.3m) and the defined world coordinate system, could you give me the accurate 3D parameters for placement? | [
"(0.15m, 0.15m, 0.05m)",
"(0.25m, 0.05m, 0.05m)",
"(0.15m, 0.05m, 0.05m)",
"(0.15m, 0.15m, 0.05m)",
"(0.05m, 0.05m, 0.05m)"
] | E | 3D reasoning. Collision avoidance. | points2plans_q21 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:43.903768 | |
Points2Plan | Could you grab the apple? Please point to the apple in this scene. | [
"A",
"B",
"C",
"D",
"E"
] | A | Collision avoidance. Spatial constraints. | points2plans_q22 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:44.007696 | |
Points2Plan | Could you directly grasp the apple without collisions? | [
"Yes",
"No, because it will collide with the blocked objects.",
"No, because the apple is invisible.",
"No, because the apple is too high",
"No, because the apple is too large"
] | B | Collision avoidance | points2plans_q23 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:44.423821 | |
Points2Plan | Which object should be grasped first to avoid collisions? | [
"A",
"B",
"C",
"D",
"E"
] | D | Spatial constraints. | points2plans_q24 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:44.215927 | |
Points2Plan | Where would you place the object so that it will be on the wooden ground? | [
"A",
"B",
"C",
"D",
"E"
] | A | spatial reasoning. Semantic segmentation. | points2plans_q25 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:44.320168 | |
Points2Plan | Could you directly grasp the apple without collisions? | [
"Yes",
"No, because it's hard to reach the pre-grasp configuration in this constrained environment.",
"No, because the apple is not in the view.",
"No, because the apple disappeared.",
"No, because the apple is too small."
] | B | Collision avoidance. | points2plans_q26 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:44.111349 | |
Points2Plan | Which object should be grasped to avoid collisions? | [
"A",
"B",
"C",
"D",
"E"
] | B | Multi-object reasoning. Collision avoidance. | points2plans_q27 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:44.527273 | |
Points2Plan | Where would you place the bowl so that it will be collision-free and the apple will be feasible to grasp? | [
"A",
"B",
"C",
"D",
"E"
] | E | Collision avoidance. Reachable space analysis. | points2plans_q28 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:44.630037 | |
Points2Plan | Could you place the socks in the drawers now? | [
"Yes",
"No, because I could not find the drawers.",
"No, because the drawers are closed.",
"No, because the drawers are not visible.",
"No, because the socks are not in the current view."
] | C | collision avoidance. Task plan reasoning. | points2plans_q30 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:44.733225 | |
Points2Plan | How could you place the socks into the drawer? | [
"(Grasp the socks, place them in the drawer)",
"(Open drawer, Grasp socks, place them in the drawer)",
"(Open drawer, Close Drawer, Grasp socks, place them in the drawer)",
"(Close Drawer, Grasp socks, place them in the drawer)",
"(Close Drawer, Open Drawer, Grasp socks, place them in the drawer)"
] | B | task plan reasoning. | points2plans_q31 | domestic | tidybot | high_level_decision_making | task_sequencing | Yixuan | 2026-01-24T20:24:44.837284 | |
Points2Plan | I would like you to open the lower drawer. Could you point to where you should grasp to open the lower drawer? | [
"A",
"B",
"C",
"D",
"E"
] | B | spatial reasoning. | points2plans_q32 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:44.941117 | |
Points2Plan | Could the robot directly open the drawer without moving the mobile base? | [
"Yes",
"No, because the drawers are not visible.",
"No, because the drawer is too high.",
"No, because the mobile base battery died.",
"No, because the base is too far away from the drawer."
] | E | Reachable space analysis for a mobile manipulator. | points2plans_q33 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.044507 | |
Points2Plan | Where should the mobile base move to ensure the drawer is in the reachable space? | [
"A",
"B",
"C",
"D",
"E"
] | D | Reachable space analysis for a mobile manipulator. | points2plans_q34 | domestic | tidybot | high_level_decision_making | goal_condition_action_reasoning | Yixuan | 2026-01-24T20:24:45.148562 | |
Points2Plan | Here are two socks inside the basket (grey socks and white socks). Could you generate the task plan to put them inside the low drawer? | [
"Pick(grey socks), Place(grey socks, low drawer), Pick(white socks), Place(white socks, low drawer)",
"Pick(grey socks), Pick(white socks), Place(grey socks, low drawer), Place(white socks, low drawer)",
"Pick(grey socks), Place(grey socks, high drawer), Pick(white socks), Place(white socks, high drawer)",
"P... | A | task plan feasibility. | points2plans_q35 | domestic | tidybot | high_level_decision_making | task_sequencing | Yixuan | 2026-01-24T20:24:45.251846 | |
Points2Plan | Where should you place the grey socks so that they're inside the low drawer? | [
"A",
"B",
"C",
"D",
"E"
] | D | Spatial constraints. Semantic reasoning. | points2plans_q36 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.355798 | |
Points2Plan | Where should you place the white socks so that they're inside the low drawer? | [
"A",
"B",
"C",
"D",
"E"
] | E | Spatial constraints. Semantic reasoning. | points2plans_q37 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.460247 | |
Points2Plan | Where should you push the low drawer to close it? | [
"A",
"B",
"C",
"D",
"E"
] | C | Semantic reasoning. | points2plans_q38 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.564776 | |
Points2Plan | Here are the executions. Please store them in your memory. The next day, when you come to the same room, do you remember where the grey socks are? | [
"Inside the low drawer",
"Inside the high drawer",
"On the ground",
"On the robot's hand",
"On the sofa"
] | A | Occluded object reasoning. Robot memory. | points2plans_q39 | Yixuan | 2026-01-24T20:24:45.668562 | |||||
Points2Plan | If you know where the grey socks are, could you generate the action to retrieve them? | [
"Pick the grey socks.",
"Open the low drawer, pick the grey socks",
"Open the high drawer, pick the grey socks",
"Open the low drawer, close the low drawer, pick the grey socks",
"Close the low drawer, pick the grey socks"
] | B | task plan reasoning with memory. | points2plans_q40 | Yixuan | 2026-01-24T20:24:45.772675 | |||||
Points2Plan | I want to place the stack of cups into the middle layer of the shelf. Could you point me to the stack of cups? | [
"A",
"B",
"C",
"D",
"E"
] | A | instance segmentation. Semantic segmentation. | points2plans_q41 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.875742 | |
Points2Plan | I want to place the stack of cups into the middle layer of the shelf. Could you point me to the middle layer of the shelf with several wipers? | [
"A",
"B",
"C",
"D",
"E"
] | E | instance segmentation. Semantic segmentation. Spatial reasoning. | points2plans_q42 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:45.979273 | |
Points2Plan | Could you place two cups on the middle layer of the shelf now? | [
"Yes",
"No, because the middle layer of the shelf is not in the reachable space of the robot.",
"No, because I don't know where the middle layer of the shelf is.",
"No, because the middle layer of the shelf disappeared.",
"No, because there is no space in the middle layer of the shelf."
] | E | Spatial reasoning. Constraint reasoning | points2plans_q43 | domestic | tidybot | high_level_decision_making | goal_condition_action_reasoning | Yixuan | 2026-01-24T20:24:46.083665 | |
Points2Plan | How could you place the cups into the middle layer of the shelf? | [
"Directly place the cups on the shelf",
"Push the wipers to create the space and then place the cups on the shelf",
"Hit the shelf to make it fall down.",
"Throw away the cups.",
"Hold the cups."
] | B | task plan reasoning under constraints. | points2plans_q44 | domestic | tidybot | high_level_decision_making | goal_condition_action_reasoning | Yixuan | 2026-01-24T20:24:46.188230 | |
Points2Plan | I would like to push the wipers to create the space. Which wiper should the robot push? | [
"A",
"B",
"C",
"D",
"E"
] | B | Semantic reasoning. Constraint reasoning. | points2plans_q45 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:46.292664 | |
Points2Plan | Should the robot continue pushing to create more space? | [
"Yes",
"No, because the gripper is broken.",
"No, because there is no space to create.",
"No, because the wipers already fell off the shelf.",
"No, because the wipers disappeared."
] | A | 3D reasoning. Constraint reasoning. | points2plans_q46 | Yixuan | 2026-01-24T20:24:46.396486 | |||||
Points2Plan | Should the robot continue pushing to create more space? | [
"Yes",
"No, because the mobile base is broken.",
"No, because the wipers are not on the shelf.",
"No, because the wipers are not in the reachable space.",
"No, because all the wipers are tight enough and cannot create more space."
] | E | 3D reasoning. Constraint reasoning. | points2plans_q47 | Yixuan | 2026-01-24T20:24:46.501001 | |||||
Points2Plan | Where should the robot grasp to place all the cups in the middle layer of the shelf? | [
"A",
"B",
"C",
"D",
"E"
] | A | Semantic segmentation. Instance segmentation. Multi-object reasoning. | points2plans_q48 | domestic | tidybot | scene_understanding | geometry_spatial_reasoning | Yixuan | 2026-01-24T20:24:46.604216 | |
Points2Plan | After the robot picks up the stack of cups, should the robot move the mobile base first for placement in the middle layer of the shelf? | [
"Yes",
"No, because the placement pose is already in the reachable space of the arm.",
"No, because there is no feasible placement pose.",
"No, the robot needs to be charged.",
"No, the grasp failed."
] | A | Reachable space analysis for a mobile manipulator. | points2plans_q49 | domestic | tidybot | high_level_decision_making | goal_condition_action_reasoning | Yixuan | 2026-01-24T20:24:46.707420 | |
Points2Plan | Where should the robot place the stack of cups to avoid collisions? | [
"A",
"B",
"C",
"D",
"E"
] | C | Spatial reasoning. Constraint reasoning. | points2plans_q50 | domestic | tidybot | low_level_motion_awareness | motion_feasibility_collision_avoidance | Yixuan | 2026-01-24T20:24:46.810740 | |
R-AL 22 | The image shows a weed-removal robot equipped with two independently controlled spray nozzles, Nozzle A and Nozzle B, mounted on a horizontal rail. Each nozzle can move left/right (horizontally in the image). The robot platform moves forward along the vertical direction of the image. The nozzle A is moving to the left.... | [
"3 or 4 or 5",
"1 and 4",
"2 and 5",
"1 and 2",
"1 and 3"
] | A | Any choice containing 1 or 2 is impossible, because robot is already passed them. The correct choice can be weed 3 or 4 or 5. | q_20260118_185343_37779a | agriculture | Weed sparying | scene_understanding | geometry_spatial_reasoning | SX | 2026-01-18T18:53:43.106963 | |
R-AL 22 | The image shows a weed-removal robot equipped with two independently controlled spray nozzles, Nozzle A and Nozzle B, mounted on a horizontal rail. Each nozzle can move left/right (horizontally in the image). The robot platform moves forward along the vertical direction of the image (from bottom to top). There are four... | [
"Nozzle A: 1, 3 Nozzle B: 2, 4",
"Nozzle A: 1, 4 Nozzle B: 2, 3",
"Nozzle A: 2, 3 Nozzle B: 1, 4",
"Nozzle A: 2, 4 Nozzle B: 1, 3",
"Nozzle A: 1, 2 Nozzle B: 3, 4"
] | E | Efficiency is defined as follows: (a) each weed is sprayed exactly once; (b) to minimize nozzle switching and lateral back-and-forth motion, each nozzle should service weeds that are spatially close and roughly aligned with the robot’s forward travel; and (c) each nozzle sprays weeds in the order they are encountered a... | q_20260118_193318_a4e66f | agriculture | Weed sparying | high_level_decision_making | goal_condition_action_reasoning | SX | 2026-01-18T19:33:18.460547 | |
R-AL 22 | The two images are consecutive keyframes from the robot’s onboard camera while the robot is moving foward. The first image is before spraying, and the second image is after spraying. The sprayer leaves a blue trace when it sprays a weed. How many weeds were sprayed? | [
"1",
"2",
"3",
"4",
"5"
] | B | Based on the blue spray traces visible in the “after” frame (including the light-blue coverage area), only the two weeds in the middle are marked as sprayed within this movement interval. | q_20260118_194256_f8e5b1 | agriculture | Weed sparying | scene_understanding | geometry_spatial_reasoning | SX | 2026-01-18T19:42:56.551875 | |
R-AL 22 | The two images are consecutive frames from the robot’s onboard camera while the robot is moving. Compare the first and second images. Which weed in the first image is the same weed that appears again in the second image? | [
"A",
"B",
"C",
"D",
"E"
] | D | Based on both color and spatial position, the darker-green weeds in the second image do not match the weed in the first image. The lighter-green weed is also unlikely to be the same one, since its shape and morphology differ noticeably from the original. | q_20260118_195735_9e0e87 | agriculture | Weed sparying | scene_understanding | geometry_spatial_reasoning | SX | 2026-01-18T19:57:35.083255 | |
R-AL 22 | In the second image, how many plants belong to the same class as the plant shown in the first image? | [
"1",
"2",
"5",
"6",
"8"
] | C | Based on color, shape, and overall morphology, there are clearly two plant types in the second image. The lighter-colored plants with larger leaves match the class shown in the first image, and there are 5 of them. | q_20260118_200132_8d5e20 | agriculture | Weed sparying | scene_understanding | geometry_spatial_reasoning | SX | 2026-01-18T20:01:32.882633 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither are defective",
"Not enough information"
] | B | The flashlight in Object B has a wrist strap, seen on the first image when the robot gripper rotates the flashlight upside down.
Neither the template or Object A has the wrist strap. | q_20260119_000952_3e1ff1 | industrial_manufacturing | scanning, defect detection | scene_understanding | geometry_spatial_reasoning | Tianshuang Qiu | 2026-01-19T00:09:52.704495 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are visually defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither are defective",
"Not enough information"
] | B | Object B has several scratches and residue of tape on the side of the realsense camera. The tempalte and object A is pristine and are not defective | q_20260119_002650_c2e92d | industrial_manufacturing | scanning, defect detection | scene_understanding | geometry_spatial_reasoning | Tianshuang Qiu | 2026-01-19T00:26:50.087265 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither are defective",
"Not enough information"
] | D | The template shows a realsense camera that has a gray exterior and no scratches or dents. Both objects are also similarly pristine. | q_20260119_003433_d61215 | industrial_manufacturing | scanning, defect detection | scene_understanding | physical_interaction | Tianshuang Qiu | 2026-01-19T00:34:33.468142 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither is defective",
"Not enough information"
] | E | The selected frames for the template object do not show the object in its entirety. The object is occluded by the gripper and there is not enough information to determine the defectiveness of the objects against the template. | q_20260119_004537_fce6b0 | industrial_manufacturing | scanning, defect detection | scene_understanding | physical_interaction | Tianshuang Qiu | 2026-01-19T00:45:37.311917 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither is defective",
"Not enough information"
] | A | Object A's screw hole at the end is cut. One end of Object A is also bent out of shape compared to the template. Object B is properly aligned. | q_20260119_010410_0fdc20 | industrial_manufacturing | scanning, defect detection | scene_understanding | physical_interaction | Tianshuang Qiu | 2026-01-19T01:04:10.457459 | |
RoboSQ - ICRA '26 | From Image 1 to Image 8, the sequence shows a human demonstration of picking up a stuffed animal from the table and placing it into a black bowl. Which option best describes what happened? | [
"The robot successfully picked up the stuffed animal from the table and placed it into the black bowl.",
"The robot successfully picked up the stuffed animal from the table, but failed to place it into the black bowl.",
"The robot attempted to pick up the stuffed animal, but failed to grasp it from the table.",... | B | The robot initially succeeds in grasping and lifting the stuffed animal from the table. However, by Frame 7 the stuffed animal is no longer in the robot’s grasp and has fallen off the table, indicating the robot dropped it before it could be placed into the black bowl. Therefore, the correct answer is (B). | q_20260119_030216_e06202 | domestic | Data Cleaning | scene_understanding | sequential_event | Eric | 2026-01-19T03:02:16.996815 | |
RoboSQ - ICRA '26 | Image 1 to Image 3 is a sequence of manipulating a stuffed animal. Does a failure occur during the manipulation. If so, how should the robot recover? | [
"No failure occurred; the robot completes the task successfully.",
"A failure occurred, but the robot should now recover by re-grasping the object and continuing the task.",
"A failure occurred, and the robot should recover by grasp a black bowl instead of continuing this task.",
"A failure occurred, and the ... | E | In Image 2, the stuffed animal falls off the table and ends up underneath it. Since the object is no longer reachable from the tabletop workspace, the robot cannot re-grasp it to continue the task, so recovery is not possible. Therefore the correct answer is E. | q_20260119_032132_158ae6 | domestic | Failure Recovery | recovery_replanning_robustness | failure_diagnosis | Eric | 2026-01-19T03:21:32.065611 | |
agibot_current_action_4404 | The robot is tasked with pouring water in a restaurant setting. Based on the sequence of images, which action is the robot currently performing? | [
"approaching the pitcher to prepare for grasping",
"Releasing the pitcher after completing the pour action",
"Actively pouring water into the cup",
"Stabilizing the pitcher before initiating the pour",
"Moving the gripper away from the cup after finishing the pour"
] | B | The cup already contains water, indicating that the pouring action has finished. In the end frame, the robot’s gripper is open and no longer in contact with the pitcher, which rules out pre-grasp and active pouring phases and instead indicates a post-pour phase (choices B and E). The image sequences show the robot hand... | q_20260119_033211_a4b5dc | open_datasets | Current Action | high_level_decision_making | next_action_pointing_direction_selection | Zehan | 2026-01-19T03:32:11.317359 | |
RoboSQ - ICRA '26 | From Image 1 to Image 7, the robot transfers a stuffed animal into a black bowl. Does the robot exhibit motion inefficiency during the transfer? | [
"No. The robot follows a direct and efficient path to place the stuffed animal into the bowl.",
"Yes. The robot shows motion inefficiency, such as unnecessary back-and-forth movement or extra detours before placing the object.",
"Yes. The robot shows motion inefficiency because it fails to grasp the stuffed ani... | B | Across the sequence, the robot moves the stuffed animal with noticeable extra motion (e.g., swinging/back-and-forth movement) instead of following a smooth, direct trajectory into the bowl, indicating motion inefficiency even though the final placement succeeds. | q_20260119_033303_50bb84 | industrial_manufacturing | Data Cleaning | low_level_motion_awareness | motion_feasibility_collision_avoidance | Eric | 2026-01-19T03:33:03.714557 | |
RoboSQ - ICRA '26 | From Image 1 to Image 4, the stuffed animal is tasked to transfer a stuffed animal to the black bowl. Has the failure occurred? If so, how should the robot recover? | [
"No failure occurred; the robot should continue directly placing the object into the bowl.",
"A failure occurred because the object slipped; the robot should recover by re-grasping the object from a more stable pose and then placing it into the bowl.",
"A failure occurred because the bowl moved; the robot shoul... | B | The stuffed animal is dropped near the back edge, so the robot should recover by re-grasping it securely and then continuing the transfer into the black bowl. | q_20260119_034139_cb66be | domestic | Data Cleaning | recovery_replanning_robustness | failure_diagnosis | Eric | 2026-01-19T03:41:39.378716 | |
RoboSQ - ICRA '26 | The tablecloth forms a visible grid. Define a 2D coordinate system on this grid as follows:
The origin (0, 0) is the bottom-left corner of the image.
The +x axis points to the right, along the aluminum table edge.
The +y axis points downwards, toward the viewing camera.
Each grid square is 1 unit × 1 unit.
Estimate th... | [
"Tiger at (1, 1) to Black bowl at (3, 1)",
"Tiger at (2, 1) to Black bowl at (3, 1)",
"Tiger at (3, 2) to Black bowl at (3, 1)",
"Tiger at (2, 2) to Black bowl at (3, 1)",
"Tiger at (2, 1) to Black bowl at (3, 2)"
] | B | Using the defined grid (origin at the bottom-left of the image, +x to the right, +y downward), the stuffed tiger is located left of the black bowl and the same y axis. The tiger’s center aligns near (2, 1), while the black bowl’s center aligns near (3, 1). Therefore, the motion goal is to move the tiger from (2, 1) to ... | q_20260119_035059_98c361 | domestic | Data Cleaning | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T03:50:59.990060 | |
RoboSQ - ICRA '26 | The tablecloth forms a visible grid. Define a 2D coordinate system on this grid as follows:
The origin (0, 0) is the bottom-left corner of the image.
The +x axis points to the right, along the aluminum table edge.
The +y axis points downwards, toward the viewing camera.
Each grid square is 1 unit × 1 unit.
Estimate the... | [
"Tiger at (4, 2) → Black bowl at (3, 1)",
"Tiger at (4, 1) → Black bowl at (3, 1)",
"Tiger at (3, 2) → Black bowl at (3, 1)",
"Tiger at (4, 2) → Black bowl at (2, 1)",
"Tiger at (3, 3) → Black bowl at (2, 1)"
] | E | Using the defined grid (origin at the bottom-left of the image, +x to the right, +y downward), the stuffed tiger is located left of the black bowl and the same y axis. The tiger’s center aligns near (3, 3), while the silver bowl’s center aligns near (2, 1). Therefore, the motion goal is to move the tiger from (3, 3) to... | q_20260119_035358_11b866 | domestic | Data Cleaning | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T03:53:58.204978 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. Both of the gripper can approach downwards. Which of the following grasps is most likely to achieve high grasp quality in this scene? | [
"Use the suction gripper to grasp the center of the toothpaste tube",
"Use the suction gripper to grasp the edge of the cardboard packaging",
"Use the parallel-jaw gripper to grasp the flat keychain packaging",
"Use the suction gripper to grasp the mustard bottle cap",
"Use the suction gripper on the inner ... | A | For C, E, the objects are not visible in the scene; for B, not the right gripper to use; for D, the bottle cap is not visible | q_20260119_080756_00b2a5 | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:07:56.839826 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. Both of them can approach downwards. Which of the following grasps is most likely to achieve high grasp quality in this scene? | [
"Use the suction gripper to grasp the flat center surface of the mustard bottle.",
"Use the suction gripper to grasp the clamp jaw teeth.",
"Use the suction gripper to grasp the thin edge of the cardboard packaging near the top-left",
"Use the parallel-jaw gripper to grasp the bottom-right cardboard box/packa... | D | For A, C, the manipulation parts are not visible in sight. For B, E, the wrong gripper is used. | q_20260119_081218_1e1529 | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:12:18.525668 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. Both grippers can approach downwards. Which of the following grasps is most likely to achieve high grasp quality in this scene? | [
"Use the suction gripper to grasp the scotch tape roll by sealing on its inner hole",
"Use the suction gripper to grasp the bottom-right box/package by attaching to its flat face.",
"Use the parallel jaw gripper to grasp the scotch tape roll by pinching",
"Use the suction gripper to grasp the mustard bottle o... | B | For A, D, E, the manipulation parts are not visible; for C, the parallel jaw gripper cannot reach easily from top down. | q_20260119_081606_208f0b | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:16:06.685625 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. Both grippers can only approach from top down. Which of the following grasps is most likely to achieve high grasp quality in this scene? | [
"Use the suction gripper to grasp the French’s mustard bottle on its curved side",
"Use the parallel-jaw gripper to grasp the red tape dispenser by pinching the curved outer shell.",
"Use the suction gripper to grasp the center of the Q-tips package on its flat surface",
"Use the parallel-jaw gripper to grasp... | C | For A, B, D, the manipulation parts are not easy to approach from top down, for E, wrong gripper is used | q_20260119_082041_a0768d | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:20:41.435993 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. Both of the grippers can only approach from top down. Which of the following grasps is most likely to achieve high grasp quality in this scene? | [
"Use the suction gripper to grasp the Sharpie marker from its cylindrical body",
"Use the parallel-jaw gripper to grasp the Firefly blister package by pinching the hanging hole area",
"se the parallel-jaw gripper to grasp the scotch tape roll by pinching the outer rim",
"Use the suction gripper to grasp the Q... | D | For A, B, C, E, the manipulation parts are not visible / hard to approach without touching other objects | q_20260119_082354_91edc9 | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:23:54.668049 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. The robot first picks up the Q-tips package (large pack on the right). After removing it, which of the following objects is most likely to become possible to grasp? | [
"dasani drops, french mustard, clamp",
"utility_knife, scotch_tape, dice",
"campbells soup, sardines, bialetti",
"toy gun, lighter, chapstick",
"toothpaste, toothbrushes, neosporin"
] | E | Those are items that are originally underneath qtis, and one can see a slight corner of these objects | q_20260119_085439_b325e0 | industrial_manufacturing | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:54:39.591539 | |
Dex-Net Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. The robot first picks up the roll of clear Scotch tape mounted on a white cardboard backing (top left). After removing it, which of the following objects is most like... | [
"neosporin",
"clamp",
"lighter",
"utility knife",
"take and toss cups"
] | A | previously neosporin was completely hidden under the tape, others are not affected by the removal | q_20260119_085934_db9727 | domestic | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T08:59:34.195142 | |
Dex-Net Science Robotics | In this bin-picking scene, the robot first picks up and removes the sharpie package (the white cardboard in the center. After removing it, which of the following objects is most likely to become possible to grasp ? | [
"dice package, sharpie marker, gorilla glue",
"french mustard, take and toss cups, clamp",
"qtips, utility knife, air wick plug",
"campbells soup, sardines, bialetti",
"toy gun, lighter, chapstick"
] | A | these are originally under the package, and shown with little corner; other distractors are not related | q_20260119_090333_95a17a | domestic | Bin Picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T09:03:33.074895 | |
DexNet Science Robotics | Suppose you have a bimanual robot for bin picking: one arm is equipped with a suction gripper, and the other arm is equipped with a parallel-jaw gripper. The robot first picks up the Sharpie package (white cardboard in the middle). After removing it, which of the following objects is most likely to become possible to g... | [
"french mustard, take and toss cups, clamp",
"qtips, utility knife, air wick plug",
"sharpie marker, gorilla glue, dice package",
"campbells soup, sardines, bialetti",
"toy gun, lighter, chapstick"
] | C | these are originally hidden under sharpie but now visible after removal. originally they only show a tip or small portion | q_20260119_090754_b3e4ec | industrial_manufacturing | bin picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T09:07:54.453076 | |
DexNet Science Robotics | Image 1 and Image 2 are taken between two consecutive grasp attempts in a bin-picking task. What best describes what happened between the two images? | [
"The robot successfully grasped the pack of batteries and placed it outside the bin, leaving fewer items behind",
"The robot executed a misgrasp, and the Sharpie pens set was pushed/slid away instead of being lifted",
"The robot successfully grasped the Sharpie pens set but dropped it back into the same locatio... | B | There is a clear misgrasp from DexNet video. The robot executed a misgrasp, and the Sharpie pens set was pushed away instead of being lifted. No other things happened | q_20260119_092154_abf140 | industrial_manufacturing | bin picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T09:21:54.216816 | |
DexNet Science Robotics | Image 1 and Image 2 are taken right before and right after one grasp attempt in a bin-picking setup. What best describes what happened? | [
"A misgrasp occurred and carmex balm was pushed/slid away instead of being picked up.",
"The robot picked up the Sharpie multi-color pen pack and removed it from the bin.",
"The robot successfully picked up the Sharpie multi-color pen pack, but then dropped it back into the same spot.",
"No grasp attempt occu... | A | What actually happened in the video was the robot trying to grasp the carmex balm but it fell, other objects are scattered due to the fall. | q_20260119_093021_b804dc | industrial_manufacturing | bin picking | scene_understanding | geometry_spatial_reasoning | Eric | 2026-01-19T09:30:21.030462 | |
DexNet Science Robotics | Figure 1 and Figure 2 are captured immediately before and after a failed grasp attempt. Which object was most likely mis-grasped and dropped? | [
"Sharpie multi-color pen pack",
"single Sharpie marker",
"carmex balm",
"clamp",
"lighter"
] | C | This is what happened in the Dex-Net video. From the question itself, the carmex balm drops and touches the nearby objects, no other objects in the distractor can make the same effect | q_20260119_093746_355edf | industrial_manufacturing | bin picking | recovery_replanning_robustness | failure_diagnosis | Eric | 2026-01-19T09:37:46.485998 | |
agibot | The robot is tasked to take toast from toaster. Based on the sequence of images, which action is the robot currently performing? | [
"Placing the toast onto the plate",
"Reaching toward the toaster to grasp the toast",
"Pulling the toast out of the toaster slots",
"Putting the toast into the toaster",
"Grasping the toast inside the toaster"
] | A | Across the image sequence, the robot transitions from the toaster area toward the plate. In the end frame, toast is put onto the plate as the gripper opens and disengages. This progression rules out reaching, grasping, inserting, or extracting actions and indicates the robot is placing the toast onto the plate. Therefo... | q_20260119_111717_ae237d | open_datasets | Current Action | scene_understanding | sequential_event | Zehan | 2026-01-19T11:17:17.802330 | |
agibot | The robot is tasked to insert a book into the bookshelf. Based on the sequence of images, which action is the robot currently performing? | [
"Placing the book held",
"Tapping a surface",
"Inserting object into a space",
"Lowering an object",
"Shaking an object"
] | C | Across the image sequence, the robot moves a book from its grippers toward the bookshelf and progressively inserts it between other books until it is nearly fully placed on the shelf.Visual evidence suggests option C since the robot is inserting the book into the tight space between other books on the bookshelf. | q_20260119_111816_5569b1 | open_datasets | Current Action | low_level_motion_awareness | motion_feasibility_collision_avoidance | Zehan | 2026-01-19T11:18:16.718604 | |
agibot | The robot is tasked with ironing clothes. Based on the sequence of images, which action is the robot currently performing? | [
"Picking up the garment",
"Folding the garment in half",
"Hovering iron above the garment",
"Closing a container or door",
"Sliding iron over the garment"
] | E | The iron head remains in contact with the shirt in all three frames. From Start to Middle the iron shifts slightly to the left while remaining in contact with the shirt, and from Middle to End it moves upward along the fabric, indicating a short, continuous ironing stroke rather than hovering or grasping. Therefore, op... | q_20260119_111933_1b338b | open_datasets | Current Action | scene_understanding | sequential_event | Zehan | 2026-01-19T11:19:33.036259 | |
agibot | The robot is tasked to fold shorts. Based on the sequence of images, which action is the robot currently performing? | [
"Aligning shorts for folding",
"Picking up the shorts",
"Shaking the shorts flat",
"Folding shorts",
"Ironing clothes"
] | D | The image sequence shows both grippers moving inward to bring the sides of the shorts together and forming a fold. This rules out picking up or shaking, which would involve lifting or rapid motion, and ironing, which would require a tool in contact with fabric; therefore, Option D (Folding shorts) is correct. | q_20260119_112042_3a5504 | open_datasets | Current Action | high_level_decision_making | next_action_pointing_direction_selection | Zehan | 2026-01-19T11:20:42.707601 | |
agibot | Which arm(s) is the robot using to perform the task? | [
"Left arm only",
"Both arms",
"Right arm only",
"Alternating single arm",
"No arm interaction"
] | B | The robot is sorting packaged items into a bin, with both arms simultaneously engaged and maintaining coordinated contact with the objects throughout the sequence. This rules out single-arm operation, so Option B (Both arms) is correct. | q_20260119_112141_42c43e | open_datasets | Active Arm | scene_understanding | physical_interaction | Zehan | 2026-01-19T11:21:41.570509 | |
agibot | Which arm(s) is the robot using to perform the task? | [
"Both arms",
"Left arm only",
"Right arm only",
"Alternating single arm",
"No arm interaction"
] | A | The robot is manipulating a spoon over the sink using a coordinated handoff, with both arms actively involved throughout the sequence. This rules out single-arm or alternating use, so Option A (Both arms) is correct. | q_20260119_112239_ae87a1 | open_datasets | Active Arm | scene_understanding | physical_interaction | Zehan | 2026-01-19T11:22:39.840739 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither is defective",
"Not enough information"
] | A | In the template, we can see that the object (wireplug) does not have any attachment. Object B fits this template but Object A has a zip tie on it. | q_20260119_112256_0ad1cd | industrial_manufacturing | scanning, defect detection | scene_understanding | geometry_spatial_reasoning | Tianshuang Qiu | 2026-01-19T11:22:56.911630 | |
agibot | Which arm(s) is the robot using to perform the task? | [
"Left arm only",
"Right arm only",
"Alternating single arm",
"Both arms",
"No arm interaction"
] | D | The robot is scanning items on the table, with the left arm manipulating an object while the right arm holds the barcode scanner. This rules out single-arm operation, so Option D (Both arms) is correct. | q_20260119_112334_0e9471 | open_datasets | Active Arm | scene_understanding | physical_interaction | Zehan | 2026-01-19T11:23:34.525061 | |
fractal20220817_data | What task is this trajectory doing? | [
"Knock the green can off the table",
"Push the green can toward the plastic bottle",
"Place the green can upright",
"Pick up the green can",
"Pick up the plastic bottle"
] | C | In the start frame the gripper approaches the green can lying on its side; in the middle frame the can is grasped and lifted; in the end frame the green can is left standing vertically on the surface while the plastic bottle remains unmoved. This indicates the trajectory’s goal is placing the green can upright, not mer... | q_20260119_112546_74b0f9 | open_datasets | Task Description | scene_understanding | sequential_event | Zehan | 2026-01-19T11:25:46.847384 | |
dlr_sara_pour_converted_externally_to_rlds | Is the task of pouring the small ball into the cup successfully completed? | [
"Yes, the ball is in the cup",
"No, the ball falls outside the cup",
"The task is still in progress",
"No, the ball is dropped before reaching the cup",
"Cannot be determined"
] | A | In the start frame, the robot holds a small white ball above the cup; in the middle frame, the ball remains held and aligned over the cup opening; in the end frame, the gripper is empty and the ball is not visible anywhere on the table outside the cup. Although the ball cannot be directly seen inside the cup because bo... | q_20260119_112701_742564 | open_datasets | Task Success | scene_understanding | physical_interaction | Zehan | 2026-01-19T11:27:01.491851 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither is defective",
"Not enough information"
] | A | The template shows an L bracket without any damage. Object A shows an L bracket with a corner chipped off. Object B is undamaged. | q_20260119_122629_ad91c0 | industrial_manufacturing | scanning, defect detection | scene_understanding | geometry_spatial_reasoning | Tianshuang Qiu | 2026-01-19T12:26:29.829055 | |
https://arxiv.org/abs/2508.00354 | The robot is given a template of a type of object. It scans the template, as well as two other objects in front of it . The images are shown here labelled as Template, Object A, and Object B. Determine if any of the objects shown are defective. | [
"Object A",
"Object B",
"Both are defective",
"Neither is defective",
"Not enough information"
] | A | The template shows a garden stake with a sharp tip at the end. Object A's tip has been chipped off. Object B is intact and the same as the template. | q_20260119_123342_1b0346 | industrial_manufacturing | scanning, defect detection | scene_understanding | physical_interaction | Tianshuang Qiu | 2026-01-19T12:33:42.684749 | |
https://arxiv.org/abs/2508.00354 | The robot is performing a defect inspection task. Currently, it is holding an allen wrench. What is the defect of this object? | [
"The allen wrench is bent out of shape",
"The handle (red plastic part) of the wrench is broken",
"The allen wrench's tip is chipped",
"All of the above",
"No defect detected"
] | B | In the photos, the red plastic handle of the wrench is broken irregularly, exposing the metal that should be covered by it. It is a proper L shape so it is not bent and the tip is properly hexagonal. | q_20260119_130651_ee946a | industrial_manufacturing | scanning, defect detection | scene_understanding | physical_interaction | Tianshuang Qiu | 2026-01-19T13:06:51.079503 | |
agibot | Based on the sequence of images, what skill is the robot currently executing? | [
"Pick",
"HandOver",
"Press Button",
"Drop",
"Pull Apart"
] | A | When analyzing the sequence of images, the robot’s right arm is approaching the pink item in the bin, closing the gripper to grasp it, and lifting it upward. Thus the option should be A: Pick | q_20260119_131827_2c86ee | open_datasets | Skill Recognition | scene_understanding | sequential_event | Zehan | 2026-01-19T13:18:27.143698 | |
agibot | Based on the sequence of images, what skill is the robot currently executing? | [
"Hang",
"Place",
"Insert",
"Hold",
"Release"
] | B | The robot starts by holding a pink soap in its gripper, then moves toward the open box and positions the soap inside it. The gripper opens and withdraws, leaving the soap in the box, which matches Place, defined as positioning an object at a target location and then releasing it. | q_20260119_131928_6aa4e3 | open_datasets | Skill Recognition | scene_understanding | sequential_event | Zehan | 2026-01-19T13:19:28.326887 | |
agibot | Based on the sequence of images, what skill is the robot currently executing? | [
"Grasp",
"Shake",
"Pick",
"Push",
"Hang"
] | E | The sequence shows the robot placing the garment onto the wooden hanger, hanging the clothes held by the right arm on the right side of the hanger. The garment is left draped and supported by the hanger at the end. This rules out Grasp/Pick (the garment would remain held) and Push/Shake (which would involve lateral mot... | q_20260119_132010_c17235 | open_datasets | Skill Recognition | high_level_decision_making | goal_condition_action_reasoning | Zehan | 2026-01-19T13:20:10.992656 | |
agibot | Based on the sequence of images, what skill is the robot currently executing? | [
"Release",
"Place",
"Unfold",
"dip",
"Pull"
] | C | The image sequence shows the robot grasping the folded black cloth and pulling it apart so it expands into a larger, flat piece by the end. This rules out Release/Place (no object is being set down and left unchanged), Dip (no container or immersion), and Pull as a generic drag (the key change is the cloth unfolding), ... | q_20260119_132050_eb7ae0 | open_datasets | Skill Recognition | scene_understanding | sequential_event | Zehan | 2026-01-19T13:20:50.641504 | |
agibot | Based on the sequence of images, what skill is the robot currently executing? | [
"Push",
"Pull",
"Pick",
"Place",
"Release"
] | B | The sequence shows the robot grasping the refrigerator handle and moving the door from a closed to an open state, indicating a pulling action, so Option B (Pull) is correct. | q_20260119_132131_4565a5 | open_datasets | Skill Recognition | scene_understanding | sequential_event | Zehan | 2026-01-19T13:21:31.972029 | |
berkeley_fanuc_manipulation | Is the robot's grasp of the cup stable? | [
"Stable",
"Partially stable",
"Unstable",
"No grasp (missed)",
"Cannot be determined"
] | A | The robot’s grippers are in firm contact with the red cup, and the cup is fully supported and suspended off the surface. There is no visible slip, tilt, or loss of contact, so the grasp is stable. | q_20260119_141009_75db24 | open_datasets | Grasp Stability | low_level_motion_awareness | motion_feasibility_collision_avoidance | Zehan | 2026-01-19T14:10:09.984274 | |
Autolab_wire_harness | Is the robot's grasp of the wire harness stable? | [
"Stable",
"Partially stable",
"Unstable",
"No grasp (missed)",
"Cannot be determined"
] | A | The wire is visibly secured within the gripper, with the fingers enclosing it and maintaining consistent contact. There is no sign of slipping, rotation, or loss of contact between the wrist and side views, so the grasp is stable. | q_20260119_141154_dcd6a7 | open_datasets | Grasp Stability | scene_understanding | physical_interaction | Zehan | 2026-01-19T14:11:54.983033 | |
fractal20220817_data | Is the robot's grasp of the bottle stable? | [
"Partially stable",
"Stable",
"Unstable",
"Cannot be determined",
"No grasp (missed)"
] | B | The bottle is securely enclosed by the gripper and held suspended off the table. There is no visible slip, tilt, or loss of contact, indicating the robot maintains stable control of the object. | q_20260119_141316_f971b5 | open_datasets | Grasp Stability | physical_interaction | grasp_states | Zehan | 2026-01-19T14:13:16.144101 | |
berkeley_fanuc_manipulation | The image is taken from the wrist camera of fanuc robot arm. It's trying to grasp an object. Is the robot's grasp of the object stable? | [
"Stable",
"Cannot be determined",
"Partially stable",
"Unstable",
"No grasp (missed)"
] | B | The frame does not show the robot gripper or the target object, so there is no visible evidence of whether the grasp is stable or not. Since grasp interaction cannot be observed from this view, the grasp stability cannot be determined. | q_20260119_141409_25efe4 | open_datasets | Grasp Stability | scene_understanding | physical_interaction | Zehan | 2026-01-19T14:14:09.097463 |
RoboVista: Evaluating Vision-Language Models for Diverse Robot Applications
RSS 2026 · Project page · Leaderboard · Code
RoboVista is a benchmark of 474 multiple-choice questions over real robot scenes for evaluating vision-language models on the perception and reasoning skills robots actually need. Each question pairs one or more images from a real robot deployment (wrist cameras, overhead views, driving scenes, surgical setups) with 2–5 answer choices, a ground-truth answer, and expert reasoning.
Questions span six application domains — agriculture, autonomous driving, domestic, industrial manufacturing, surgical robotics, and scenes from open robot-learning datasets (DROID, Bridge, AgiBot, Fractal, Dex-Net, …) — and are labeled by ability type: scene understanding (geometry & spatial reasoning, sequential events, physical interaction) vs. planning & decision-making (goal/action reasoning, motion feasibility, failure recovery).
Dataset structure
| Field | Type | Description |
|---|---|---|
images |
list[Image] | 1–7 images per question |
publication_source |
string | Source dataset / paper for the scene |
question |
string | Question text |
choices |
list[string] | Up to 5 answer options (A–E; unused slots empty) |
correct_answer |
string | Ground-truth letter (A–E) |
reasoning |
string | Annotator's reasoning for the answer |
id |
string | Question id |
domain |
string | Application domain (see above) |
task |
string | Original task description from the source deployment |
ability_type |
string | scene_understanding, high_level_decision_making, low_level_motion_awareness, or recovery_replanning_robustness |
ability_subcategory |
string | Fine-grained ability label |
creator_name |
string | Annotator |
Single train split, 474 rows, images embedded (~1.1 GB).
Usage
from datasets import load_dataset
ds = load_dataset("sy-xie/robovista", split="train")
ex = ds[0]
letters = ["A", "B", "C", "D", "E"]
choices = "\n".join(
f"{letter}: {c}" for letter, c in zip(letters, ex["choices"]) if c
)
prompt = (
f"{ex['question']}\n\n{choices}\n\n"
"Answer with the letter only (A, B, C, D, or E)."
)
# send ex["images"] + prompt to your VLM, compare to ex["correct_answer"]
The evaluation harness (server launch scripts, standard/CoT prompts, answer parsing) is in the code repository.
Leaderboard
Accuracy with the standard prompt and a chain-of-thought prompt (top models shown; full results and per-domain breakdowns on the leaderboard page):
| Model | Weights | Standard | CoT |
|---|---|---|---|
| Gemini 3 Flash (preview) | API | 68.9 | 65.4 |
| Qwen3.5-397B-A17B | open | 55.2 | 52.8 |
| GPT-5-0 | API | 54.6 | 54.6 |
| Qwen3.6-27B | open | 53.5 | 54.4 |
| Gemma 4 31B | open | 51.5 | 55.4 |
| Qwen3.6-35B-A3B | open | 50.9 | 50.0 |
| Qwen3-VL-32B-Thinking | open | 49.6 | 51.3 |
| GPT-4o | API | 48.5 | — |
| GLM-4.6V | open | 48.0 | 45.0 |
| RoboBrain2.5-8B-NV | open | 45.7 | 40.4 |
| Cosmos-Reason2-32B | open | 46.1 | 42.0 |
| Cosmos3-Nano (16B) | open | 44.4 | 39.8 |
| Gemma 4 12B | open | 41.7 | 45.4 |
| Molmo2-8B | open | 41.7 | 33.0 |
| Cosmos-Reason1-7B | open | 41.3 | 39.8 |
| Cosmos-Reason2-2B | open | 38.3 | 33.5 |
Scoring notes: 460 of 474 questions are scored (a 14-question blacklist is excluded); answers are extracted with the harness's improved parser; Qwen3/3.5/3.6 rows run in non-thinking mode.
Citation
@inproceedings{robovista2026,
title = {RoboVista: Evaluating Vision-Language Models for Diverse Robot Applications},
author = {Xie, Shuangyu and Chen, Kaiyuan and Chen, Ziyang and Adebola, Simeon and
Huang, Yixuan and Ma, Zehan and Qiu, Tianshuang and Yuan, Wentao and
Shah, Dhruv and Sanketi, Pannag R. and Goldberg, Ken},
booktitle = {Robotics: Science and Systems (RSS)},
year = {2026}
}
- Downloads last month
- 16