id string | task string | category string | image string | image_sha256 string | image_source_filename string | question string | answer unknown |
|---|---|---|---|---|---|---|---|
AGC-0 | attribute_group_counting | distributed_scanning | images/AGC-0.png | d82f8b770b02791aa925d5f6e4c085fb2241574f0d6831e2bf4cd2271cd0b253 | attribute_group_counting_00000.gptimage_v1_stones.png | How many distinct shapes are in the image? The image contains many small pieces scattered across the canvas. Two pieces belong to the same type if and only if they have exactly the same silhouette. Pieces may differ in surface texture or colour tone — only the silhouette outline matters. Count the total number of disti... | 3 |
AGC-1 | attribute_group_counting | distributed_scanning | images/AGC-1.png | 50ff27f0e307d0352e1eeb5601acbf2ba24bbf9cd169d7caab86a47cd9cc663b | attribute_group_counting_00001.gptimage_v2_cookies.png | How many distinct shapes are in the image? The image contains many small pieces scattered across the canvas. Two pieces belong to the same type if and only if they have exactly the same silhouette. Pieces may differ in surface texture or colour tone — only the silhouette outline matters. Count the total number of disti... | 5 |
AGC-2 | attribute_group_counting | distributed_scanning | images/AGC-2.png | 7d05fa89c6a44d47b43b9f7c24fe3af4cf22c2b126dc1596a9ee0960981fb101 | attribute_group_counting_00002.gptimage_v3_leaves.png | How many distinct shapes are in the image? The image contains many small pieces scattered across the canvas. Two pieces belong to the same type if and only if they have exactly the same silhouette. Pieces may differ in surface texture or colour tone — only the silhouette outline matters. Count the total number of disti... | 6 |
AGC-3 | attribute_group_counting | distributed_scanning | images/AGC-3.png | bd07263069e58898db048120e93e1079057e7e5e4de039f70e1c199df394c6b5 | attribute_group_counting_00003.gptimage_v4_teacups.png | How many distinct shapes are in the image? The image contains many small pieces scattered across the canvas. Two pieces belong to the same type if and only if they have exactly the same silhouette. Pieces may differ in surface texture or colour tone — only the silhouette outline matters. Count the total number of disti... | 8 |
AGC-4 | attribute_group_counting | distributed_scanning | images/AGC-4.png | d0611a29bce166345a4409bd34c1158840e4ffc98b9214ad154b9357f5bd4ea1 | attribute_group_counting_00004.gptimage_v5_claytiles.png | How many distinct shapes are in the image? The image contains many small pieces scattered across the canvas. Two pieces belong to the same type if and only if they have exactly the same silhouette. Pieces may differ in surface texture or colour tone — only the silhouette outline matters. Count the total number of disti... | 10 |
BFC-0 | bounded_faces_counting | distributed_scanning | images/BFC-0.png | 3a249fbde7c1911df0d5f2f1f6fa294188c94a8517dbd20966d1d8bcc2d1efaa | bounded_faces_counting_00000.gptimage_v1_pool1_driftwood.png | How many distinct enclosed regions (bounded faces) are visible in this image? An enclosed region is a maximal area that is fully surrounded by drawn lines or strands on every side, with no opening to the outside background. The unbounded outside area does not count. Each enclosed region should be counted exactly once. ... | 5 |
BFC-1 | bounded_faces_counting | distributed_scanning | images/BFC-1.png | 1a271517410294e0cef4642f2a4244fb06b8725953e0d2a988ed670c1fe3f880 | bounded_faces_counting_00001.gptimage_v2_pool2_rebar.png | How many distinct enclosed regions (bounded faces) are visible in this image? An enclosed region is a maximal area that is fully surrounded by drawn lines or strands on every side, with no opening to the outside background. The unbounded outside area does not count. Each enclosed region should be counted exactly once. ... | 8 |
BFC-2 | bounded_faces_counting | distributed_scanning | images/BFC-2.png | 252f724e27d6d8b6f95764c25efc26b05c3e4d979b870c22f4fe768a9a683b92 | bounded_faces_counting_00002.gptimage_v3_pool3_mossstone.png | How many distinct enclosed regions (bounded faces) are visible in this image? An enclosed region is a maximal area that is fully surrounded by drawn lines or strands on every side, with no opening to the outside background. The unbounded outside area does not count. Each enclosed region should be counted exactly once. ... | 10 |
BFC-3 | bounded_faces_counting | distributed_scanning | images/BFC-3.png | 9a1ce169b39704bb71e74d7236505504bf7bc786a6e28f8d2b9430d623fd73eb | bounded_faces_counting_00003.gptimage_v4_pool4_tentstakes.png | How many distinct enclosed regions (bounded faces) are visible in this image? An enclosed region is a maximal area that is fully surrounded by drawn lines or strands on every side, with no opening to the outside background. The unbounded outside area does not count. Each enclosed region should be counted exactly once. ... | 12 |
BFC-4 | bounded_faces_counting | distributed_scanning | images/BFC-4.png | a0e9da7e438cb5ca0f21a5d734e95f3d3b199f2dad4df7066eb65d7bfc3ea729 | bounded_faces_counting_00004.gptimage_v5_pool5_telegraph.png | How many distinct enclosed regions (bounded faces) are visible in this image? An enclosed region is a maximal area that is fully surrounded by drawn lines or strands on every side, with no opening to the outside background. The unbounded outside area does not count. Each enclosed region should be counted exactly once. ... | 15 |
CCC-0 | counting_connected_components | distributed_scanning | images/CCC-0.png | 456cf0bd3b3a832dd6b71e1610e1c324e5ffbc4bd5cdf242e89b3b74989c8cf4 | counting_connected_components_00000.gptimage_v1_driftwood.png | How many connected components are there in the image? A connected component is a maximal group of anchor points such that any two are linked by a path of one or more strands (directly or through other anchors in the same group). Anchors not linked by any chain belong to different components, even if they appear visuall... | 10 |
CCC-1 | counting_connected_components | distributed_scanning | images/CCC-1.png | bd91dfb264fe66cb942e6da65048f8f745f542a7f648b38728603434669d720c | counting_connected_components_00001.gptimage_v2_rebar.png | How many connected components are there in the image? A connected component is a maximal group of anchor points such that any two are linked by a path of one or more strands (directly or through other anchors in the same group). Anchors not linked by any chain belong to different components, even if they appear visuall... | 12 |
CCC-2 | counting_connected_components | distributed_scanning | images/CCC-2.png | b42a2ac6131b69280700b9f615abe5108b0ee4601d6e819c8ab05defd3c0ff30 | counting_connected_components_00002.gptimage_v3_mossstone.png | How many connected components are there in the image? A connected component is a maximal group of anchor points such that any two are linked by a path of one or more strands (directly or through other anchors in the same group). Anchors not linked by any chain belong to different components, even if they appear visuall... | 15 |
CCC-3 | counting_connected_components | distributed_scanning | images/CCC-3.png | c236ae836fd47ef1d5795a6d9d110d8fb20900004eb0f29482ad03e4042a9efc | counting_connected_components_00003.gptimage_v4_tentstakes.png | How many connected components are there in the image? A connected component is a maximal group of anchor points such that any two are linked by a path of one or more strands (directly or through other anchors in the same group). Anchors not linked by any chain belong to different components, even if they appear visuall... | 18 |
CCC-4 | counting_connected_components | distributed_scanning | images/CCC-4.png | a326a583f1a1d5c3a40f71e0f7ae157cb404a16bc42284fcc97f6c2ea02b360e | counting_connected_components_00004.gptimage_v5_telegraph.png | How many connected components are there in the image? A connected component is a maximal group of anchor points such that any two are linked by a path of one or more strands (directly or through other anchors in the same group). Anchors not linked by any chain belong to different components, even if they appear visuall... | 20 |
CR-0 | counting_regions | distributed_scanning | images/CR-0.png | 0ec1b5a70118a429ba78f324a46d7546a233ff36348cba4ac616ef52ce998b8f | counting_regions_00000.gptimage_v8_animaltrails.png | How many separated regions are inside the image? A region is a maximal area filled with one continuous fill. Boundaries between regions may appear as continuous lines OR as a chain of small individual markers — discrete dots, footprints, dashes, or short segments aligned along a curve — that you must visually link toge... | 10 |
CR-1 | counting_regions | distributed_scanning | images/CR-1.png | 9c33ca1e80167e758322379f390c3941c443d58ba49c28f9f40e7aee97ca0e58 | counting_regions_00001.gptimage_v9_footprintsnow.png | How many separated regions are inside the image? A region is a maximal area filled with one continuous fill. Boundaries between regions may appear as continuous lines OR as a chain of small individual markers — discrete dots, footprints, dashes, or short segments aligned along a curve — that you must visually link toge... | 12 |
CR-2 | counting_regions | distributed_scanning | images/CR-2.png | 1dd4b90d468b151f6cb322321b59de35cb50f7d7c0bb2a91433b488df3a1461d | counting_regions_00002.gptimage_v13_antmarches.png | How many separated regions are inside the image? A region is a maximal area filled with one continuous fill. Boundaries between regions may appear as continuous lines OR as a chain of small individual markers — discrete dots, footprints, dashes, or short segments aligned along a curve — that you must visually link toge... | 15 |
CR-3 | counting_regions | distributed_scanning | images/CR-3.png | cc2bce4441e9fdd6a9583915dd337926d73a7ca0dc1f14d9ddf16314ef4dae58 | counting_regions_00003.gptimage_v14_parchmentink.png | How many separated regions are inside the image? A region is a maximal area filled with one continuous fill. Boundaries between regions may appear as continuous lines OR as a chain of small individual markers — discrete dots, footprints, dashes, or short segments aligned along a curve — that you must visually link toge... | 18 |
CR-4 | counting_regions | distributed_scanning | images/CR-4.png | 40460bb780fc5b2a74edf666b725b8895179e97dfdaf5663a6563be906c4e572 | counting_regions_00004.gptimage_v15_beachrope.png | How many separated regions are inside the image? A region is a maximal area filled with one continuous fill. Boundaries between regions may appear as continuous lines OR as a chain of small individual markers — discrete dots, footprints, dashes, or short segments aligned along a curve — that you must visually link toge... | 20 |
TL-0 | tangled_loops | distributed_scanning | images/TL-0.png | 39d650e832cc6edd4af73344d31e9c5fbffdd9fabf903b290c7cfa10707ce1c0 | tangled_loops_00000.gptimage_v1_pool1_oldrope.png | How many distinct closed loops are tangled together in this image? Each loop is a continuous closed curve (rope, cord, cable, etc.) with no loose endpoints anywhere. Loops may cross other loops or themselves freely. Count the total number of distinct closed loops and report the count as a positive integer. Provide your... | 10 |
TL-1 | tangled_loops | distributed_scanning | images/TL-1.png | 8a4873a9620ebf807e52df9d86aa31de3810c283f4541e97553a74058d766511 | tangled_loops_00001.gptimage_v2_pool2_cords.png | How many distinct closed loops are tangled together in this image? Each loop is a continuous closed curve (rope, cord, cable, etc.) with no loose endpoints anywhere. Loops may cross other loops or themselves freely. Count the total number of distinct closed loops and report the count as a positive integer. Provide your... | 12 |
TL-2 | tangled_loops | distributed_scanning | images/TL-2.png | 7614b2cc36b63e66cf47b0af3780f98c829a9a7e58c54309bfe30a7fa66b7cef | tangled_loops_00002.gptimage_v3_pool3_chaos.png | How many distinct closed loops are tangled together in this image? Each loop is a continuous closed curve (rope, cord, cable, etc.) with no loose endpoints anywhere. Loops may cross other loops or themselves freely. Count the total number of distinct closed loops and report the count as a positive integer. Provide your... | 15 |
TL-3 | tangled_loops | distributed_scanning | images/TL-3.png | 1d3d0b0d031949467381b78eba6b3e7ae38f49d3a98281b484018c2c47a5bb0c | tangled_loops_00003.gptimage_v4_pool4_climbing.png | How many distinct closed loops are tangled together in this image? Each loop is a continuous closed curve (rope, cord, cable, etc.) with no loose endpoints anywhere. Loops may cross other loops or themselves freely. Count the total number of distinct closed loops and report the count as a positive integer. Provide your... | 18 |
TL-4 | tangled_loops | distributed_scanning | images/TL-4.png | 1f425f36465b1affbabf42d6b4368f2d5d229bf3ea8f0c231ae2384e0710bd7f | tangled_loops_00004.gptimage_v5_pool5_stagecables.png | How many distinct closed loops are tangled together in this image? Each loop is a continuous closed curve (rope, cord, cable, etc.) with no loose endpoints anywhere. Loops may cross other loops or themselves freely. Count the total number of distinct closed loops and report the count as a positive integer. Provide your... | 20 |
AC-0 | arrow_chain | sequential_traversal | images/AC-0.png | 7417166a81381ac73660a2764bda82600a82ab566b3395df2219ad25d2db4e36 | arrow_chain_00000.gptimage_v1_foot.png | The image shows many small pieces scattered across the canvas, each clearly oriented in a specific direction, plus several larger labeled terminus markers (each marker bears a distinct letter). The piece highlighted by a green ring is the starting point. From that piece, cast an infinitely thin ray (a mathematical half... | "H" |
AC-1 | arrow_chain | sequential_traversal | images/AC-1.png | 3e58261808a2e435d27e9c008860796489e37647458cc30bd25bcbc610dd7f27 | arrow_chain_00001.gptimage_v2_fish.png | The image shows many small pieces scattered across the canvas, each clearly oriented in a specific direction, plus several larger labeled terminus markers (each marker bears a distinct letter). The piece highlighted by a green ring is the starting point. From that piece, cast an infinitely thin ray (a mathematical half... | "B" |
AC-2 | arrow_chain | sequential_traversal | images/AC-2.png | 1b9f82255b54c3c326ef98f0f9b5e274da5854b9dc1d87a1b2ba4d438a2d89ac | arrow_chain_00002.gptimage_v3_bird.png | The image shows many small pieces scattered across the canvas, each clearly oriented in a specific direction, plus several larger labeled terminus markers (each marker bears a distinct letter). The piece highlighted by a green ring is the starting point. From that piece, cast an infinitely thin ray (a mathematical half... | "B" |
AC-3 | arrow_chain | sequential_traversal | images/AC-3.png | dcdf8a1800e5dfca85ea527e178298d17030edc4003bfcf2092e8ee576fa8047 | arrow_chain_00003.gptimage_v4_key.png | The image shows many small pieces scattered across the canvas, each clearly oriented in a specific direction, plus several larger labeled terminus markers (each marker bears a distinct letter). The piece highlighted by a green ring is the starting point. From that piece, cast an infinitely thin ray (a mathematical half... | "J" |
AC-4 | arrow_chain | sequential_traversal | images/AC-4.png | 951a6ebde1307c2eca593506d25aac4c044226508422d80375ed96492c74dd9c | arrow_chain_00004.gptimage_v5_leaf.png | The image shows many small pieces scattered across the canvas, each clearly oriented in a specific direction, plus several larger labeled terminus markers (each marker bears a distinct letter). The piece highlighted by a green ring is the starting point. From that piece, cast an infinitely thin ray (a mathematical half... | "C" |
CZ-0 | color_zone_sequence | sequential_traversal | images/CZ-0.png | 88b50223c38c896244842a8f41d0282c683e4abe5d4b8280c8167d9ef242de45 | color_zone_00000.gptimage_demo.png | The image shows several distinct regions, each carrying a single-letter label and distinguished by its own fill (colour, texture, or material). A single smooth curve starts at the position marked 'Start' and travels through several regions, potentially re-entering earlier ones. Follow the curve from start to end and li... | "H, D, F, B, I, A, C, J, A, J, H" |
CZ-1 | color_zone_sequence | sequential_traversal | images/CZ-1.png | b4cde60a8e87fd1a7328d35e0dc0d9c302fe6a38f74f086f2a2ee4866dd2a4b6 | color_zone_00001.gptimage_v2_nautical.png | The image shows several distinct regions, each carrying a single-letter label and distinguished by its own fill (colour, texture, or material). A single smooth curve starts at the position marked 'Start' and travels through several regions, potentially re-entering earlier ones. Follow the curve from start to end and li... | "B, D, C, G, C, E, I, A, J, F, C" |
CZ-2 | color_zone_sequence | sequential_traversal | images/CZ-2.png | 7251a813552432d3bc01544cc3b2fe25014b2b47d9c79a95a00f0dd6ae139032 | color_zone_00002.gptimage_v3_storybook.png | The image shows several distinct regions, each carrying a single-letter label and distinguished by its own fill (colour, texture, or material). A single smooth curve starts at the position marked 'Start' and travels through several regions, potentially re-entering earlier ones. Follow the curve from start to end and li... | "F, E, F, I, C, D, A, J, H, G, E" |
CZ-3 | color_zone_sequence | sequential_traversal | images/CZ-3.png | 40f669624624fa3481909c9ed943d1d49aaa062fa85dd3f4cd047d1e792243b6 | color_zone_00003.gptimage_v4_transit.png | The image shows several distinct regions, each carrying a single-letter label and distinguished by its own fill (colour, texture, or material). A single smooth curve starts at the position marked 'Start' and travels through several regions, potentially re-entering earlier ones. Follow the curve from start to end and li... | "G, B, D, G, A, I, C, I, A, G, D, F" |
CZ-4 | color_zone_sequence | sequential_traversal | images/CZ-4.png | 8b1d2112f7125b7999981c58da367935bbe42b7a244aaf4b3463d5f3daca7059 | color_zone_00004.gptimage_v5_floorplan.png | The image shows several distinct regions, each carrying a single-letter label and distinguished by its own fill (colour, texture, or material). A single smooth curve starts at the position marked 'Start' and travels through several regions, potentially re-entering earlier ones. Follow the curve from start to end and li... | "C, A, G, A, F, E, D, J, B, C, H, I, G" |
LI-0 | line_intersections | sequential_traversal | images/LI-0.png | 7d7c33dd7d09f1b8abfc346a63b2dac969beb465d0f03f1301140cdfd492d133 | line_intersections_00000.gptimage_v1_beach.png | The image shows several curves or strands tangled together. Each curve has a single labeled endpoint on the perimeter, marked with a distinct letter. Starting from the endpoint labeled A, follow that curve through the interior tangle. At every crossing you pass through, record the label of the OTHER curve involved — wh... | "C, C, D, C, D, D, C, C, C, B, C" |
LI-1 | line_intersections | sequential_traversal | images/LI-1.png | 1504a6fd0ec76e2513a23ad71be4e274e197c470b3b3d9d5d282ed8d94439467 | line_intersections_00001.gptimage_v2_workshop.png | The image shows several curves or strands tangled together. Each curve has a single labeled endpoint on the perimeter, marked with a distinct letter. Starting from the endpoint labeled A, follow that curve through the interior tangle. At every crossing you pass through, record the label of the OTHER curve involved — wh... | "D, B, B, C, C, B, B, B, C" |
LI-2 | line_intersections | sequential_traversal | images/LI-2.png | d95525d70708fd7213fdb5981ae9a5f522cb36fbe3f7340078243fdf9f7ac23a | line_intersections_00002.gptimage_v3_forest.png | The image shows several curves or strands tangled together. Each curve has a single labeled endpoint on the perimeter, marked with a distinct letter. Starting from the endpoint labeled A, follow that curve through the interior tangle. At every crossing you pass through, record the label of the OTHER curve involved — wh... | "D, C, C, B, B, D, B, D, C" |
LI-3 | line_intersections | sequential_traversal | images/LI-3.png | 4328215d10303c8a3dfcf81b6b5fa5738cd46e51568766205b0d3d2e08b96751 | line_intersections_00003.gptimage_v4_hoses.png | The image shows several curves or strands tangled together. Each curve has a single labeled endpoint on the perimeter, marked with a distinct letter. Starting from the endpoint labeled A, follow that curve through the interior tangle. At every crossing you pass through, record the label of the OTHER curve involved — wh... | "D, C, B, C, D, C, D, C, C" |
LI-4 | line_intersections | sequential_traversal | images/LI-4.png | ffcd8c76dad10674c3584a6fda965598cfb1b4c8dcf95311ccc3cd80be85f4df | line_intersections_00004.gptimage_v5_ivy.png | The image shows several curves or strands tangled together. Each curve has a single labeled endpoint on the perimeter, marked with a distinct letter. Starting from the endpoint labeled A, follow that curve through the interior tangle. At every crossing you pass through, record the label of the OTHER curve involved — wh... | "C, C, B, B, C, B, C, B, C, D, B" |
MZ-0 | maze | sequential_traversal | images/MZ-0.png | 8c5d171a2367fe52fcb00d0b54f2da6b03bdb6895e5ffb17512d69e274e3d5fb | maze_00000.gptimage_v1_hedge.png | The image shows a maze with several labeled openings on its border. Exactly one pair of openings is connected by a path through the maze; all other pairs are blocked by walls. Identify the connected pair. A path exists only if you can travel from one opening to another through corridors without crossing any wall. Repor... | "E-F" |
MZ-1 | maze | sequential_traversal | images/MZ-1.png | 30f0d0e0a9a0f5c63d119cafc794dff22632f61823194c47e1fd97de941e44e3 | maze_00001.gptimage_v2_dungeon.png | The image shows a maze with several labeled openings on its border. Exactly one pair of openings is connected by a path through the maze; all other pairs are blocked by walls. Identify the connected pair. A path exists only if you can travel from one opening to another through corridors without crossing any wall. Repor... | "C-E" |
MZ-2 | maze | sequential_traversal | images/MZ-2.png | b94e9b199c054e6ff90c251be8ba9b0df17189dd9647bbdd61d5dc692942b12b | maze_00002.gptimage_v3_cornfield.png | The image shows a maze with several labeled openings on its border. Exactly one pair of openings is connected by a path through the maze; all other pairs are blocked by walls. Identify the connected pair. A path exists only if you can travel from one opening to another through corridors without crossing any wall. Repor... | "A-G" |
MZ-3 | maze | sequential_traversal | images/MZ-3.png | a165f4c4c84a16660f11aea536c50555f7637114973fc89d5283955a39ac4314 | maze_00003.gptimage_v4_library.png | The image shows a maze with several labeled openings on its border. Exactly one pair of openings is connected by a path through the maze; all other pairs are blocked by walls. Identify the connected pair. A path exists only if you can travel from one opening to another through corridors without crossing any wall. Repor... | "C-G" |
MZ-4 | maze | sequential_traversal | images/MZ-4.png | 08177b3d624709e9a53a733fec5efd8f1fcd43a1c3a74b2dc0ba8e4d6dcadb85 | maze_00004.gptimage_v5_snowmaze.png | The image shows a maze with several labeled openings on its border. Exactly one pair of openings is connected by a path through the maze; all other pairs are blocked by walls. Identify the connected pair. A path exists only if you can travel from one opening to another through corridors without crossing any wall. Repor... | "B-C" |
TO-0 | traverse_ordering | sequential_traversal | images/TO-0.png | a55eaaab754a98dcc7c2a72c62aef5dcfd3a713a9d4d82d92e7642d855cc39c3 | traverse_ordering_00000.gptimage_v1_beach.png | The image shows two curves or strands that cross each other. Several labeled points are marked on the two curves combined. A green 'S' marks the start endpoint of one of the curves. Starting from S, follow THAT curve (the one S lies on) all the way to its other endpoint, and list the labels of the marked points you vis... | "L, G, H, F, C, K" |
TO-1 | traverse_ordering | sequential_traversal | images/TO-1.png | 802513182beca8954adb481bf7351958cb7c74909e80a94496bcc11cae8fd313 | traverse_ordering_00001.gptimage_v2_workshop.png | The image shows two curves or strands that cross each other. Several labeled points are marked on the two curves combined. A green 'S' marks the start endpoint of one of the curves. Starting from S, follow THAT curve (the one S lies on) all the way to its other endpoint, and list the labels of the marked points you vis... | "J, I, A, L, B, E" |
TO-2 | traverse_ordering | sequential_traversal | images/TO-2.png | 616488cce7610f749e86bc449415960cdba9a60d8c479a1a928bf87ba9a2cd36 | traverse_ordering_00002.gptimage_v3_forest.png | The image shows two curves or strands that cross each other. Several labeled points are marked on the two curves combined. A green 'S' marks the start endpoint of one of the curves. Starting from S, follow THAT curve (the one S lies on) all the way to its other endpoint, and list the labels of the marked points you vis... | "I, A, E, F, C, H" |
TO-3 | traverse_ordering | sequential_traversal | images/TO-3.png | 4f275ac1edda0bfc2581550d1d4bab670d15a050399e207f8b5776bf69e8b7c4 | traverse_ordering_00003.gptimage_v4_hoses.png | The image shows two curves or strands that cross each other. Several labeled points are marked on the two curves combined. A green 'S' marks the start endpoint of one of the curves. Starting from S, follow THAT curve (the one S lies on) all the way to its other endpoint, and list the labels of the marked points you vis... | "B, H, D, A, F, G" |
TO-4 | traverse_ordering | sequential_traversal | images/TO-4.png | 3d08aa963f8aa0560967a28a8f6bee9a27ff8a4994654ba215080bd8998f8625 | traverse_ordering_00004.gptimage_v5_ivy.png | The image shows two curves or strands that cross each other. Several labeled points are marked on the two curves combined. A green 'S' marks the start endpoint of one of the curves. Starting from S, follow THAT curve (the one S lies on) all the way to its other endpoint, and list the labels of the marked points you vis... | "D, F, A, C, B, L" |
CMC-0 | constellation_match_count | visual_attribute_transfer | images/CMC-0.png | 5f929a6fea5039fae7174bd6913c431052e366f284482c92496ef6def6b13877 | constellation_match_count_00000.gptimage_v1_stars.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a small constellation of marker points. The right panel shows the Field: a larger scene with many marker points. Both panels are drawn at the SAME pixel scale. Count how many copies of the Template pattern appear in the F... | 5 |
CMC-1 | constellation_match_count | visual_attribute_transfer | images/CMC-1.png | 18f56e2d6618ebc9a0d310b79d2cce471567ee9b2c4c9ca529aa1b2802691751 | constellation_match_count_00001.gptimage_v2_gemstones.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a small constellation of marker points. The right panel shows the Field: a larger scene with many marker points. Both panels are drawn at the SAME pixel scale. Count how many copies of the Template pattern appear in the F... | 6 |
CMC-2 | constellation_match_count | visual_attribute_transfer | images/CMC-2.png | f39221f5dd4c3a532ad331cfb87a1e032e91f31115e8fe871b464f7fd423a54a | constellation_match_count_00002.gptimage_v3_lights.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a small constellation of marker points. The right panel shows the Field: a larger scene with many marker points. Both panels are drawn at the SAME pixel scale. Count how many copies of the Template pattern appear in the F... | 8 |
CMC-3 | constellation_match_count | visual_attribute_transfer | images/CMC-3.png | 09de618818bd66d57a79d75bf18d2c1f85f731cb3db5f6da915cd8bf5e544a10 | constellation_match_count_00003.gptimage_v4_candy.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a small constellation of marker points. The right panel shows the Field: a larger scene with many marker points. Both panels are drawn at the SAME pixel scale. Count how many copies of the Template pattern appear in the F... | 9 |
CMC-4 | constellation_match_count | visual_attribute_transfer | images/CMC-4.png | 7cb4f3e981a45bca948a79e54c7a68aa9141c116d28436f47bda1e594b564485 | constellation_match_count_00004.gptimage_v5_shells.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a small constellation of marker points. The right panel shows the Field: a larger scene with many marker points. Both panels are drawn at the SAME pixel scale. Count how many copies of the Template pattern appear in the F... | 10 |
CSC-0 | contour_silhouette_count | visual_attribute_transfer | images/CSC-0.png | b650e26df2081f8e62d66dafc33486cf90549a0e10d1660cda1ed83cc900ed05 | contour_silhouette_count_00000.gptimage_v1_pool1_kitchen.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single closed silhouette. The right panel shows the Field: many closed silhouettes scattered across the canvas, all at the SAME pixel scale as the Template. Count the number of Field silhouettes that are exact copies of... | 5 |
CSC-1 | contour_silhouette_count | visual_attribute_transfer | images/CSC-1.png | 034e4e90dfd985f8dfc2e105cf3de8137b6e2cf2642566e855688a3cef29d70b | contour_silhouette_count_00001.gptimage_v2_pool2_jewellery.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single closed silhouette. The right panel shows the Field: many closed silhouettes scattered across the canvas, all at the SAME pixel scale as the Template. Count the number of Field silhouettes that are exact copies of... | 8 |
CSC-2 | contour_silhouette_count | visual_attribute_transfer | images/CSC-2.png | e516d6b0daddb0bf1197ec78fe3b082d94f00ad321f8dd3a5ed4750c8ed70f4e | contour_silhouette_count_00002.gptimage_v3_pool3_fruits.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single closed silhouette. The right panel shows the Field: many closed silhouettes scattered across the canvas, all at the SAME pixel scale as the Template. Count the number of Field silhouettes that are exact copies of... | 10 |
CSC-3 | contour_silhouette_count | visual_attribute_transfer | images/CSC-3.png | 60ea7ea5a0166726afa95812d7c848dcd0d1d7faeab3cc7a5aa265024dd353b4 | contour_silhouette_count_00003.gptimage_v4_pool4_industrial.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single closed silhouette. The right panel shows the Field: many closed silhouettes scattered across the canvas, all at the SAME pixel scale as the Template. Count the number of Field silhouettes that are exact copies of... | 12 |
CSC-4 | contour_silhouette_count | visual_attribute_transfer | images/CSC-4.png | f38c3ecaf3ecaec06633806d8cfa1b1b67cb79effc7b89c2743ead0236ace0a1 | contour_silhouette_count_00004.gptimage_v5_pool5_textile.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single closed silhouette. The right panel shows the Field: many closed silhouettes scattered across the canvas, all at the SAME pixel scale as the Template. Count the number of Field silhouettes that are exact copies of... | 15 |
SCD-0 | spot_the_contour_diff | visual_attribute_transfer | images/SCD-0.png | 3bf0b8dabd91d3cf952ecafa2818fd7758f2feeb6ffd54299bb471c83eb4005d | contour_diff_00000.gptimage_v1_pool1_kitchen.png | Two panels are shown side by side. Each panel contains the same set of closed silhouettes at the same positions. Some silhouettes in the right panel have a different shape from the corresponding silhouette in the left panel. Count the number of pairs whose shape differs between the two panels and report the integer cou... | 5 |
SCD-1 | spot_the_contour_diff | visual_attribute_transfer | images/SCD-1.png | 14ab657991686763224af9c32d45ca07cc5cdb746bb037b71621da4bcab79d97 | contour_diff_00001.gptimage_v2_pool2_jewellery.png | Two panels are shown side by side. Each panel contains the same set of closed silhouettes at the same positions. Some silhouettes in the right panel have a different shape from the corresponding silhouette in the left panel. Count the number of pairs whose shape differs between the two panels and report the integer cou... | 8 |
SCD-2 | spot_the_contour_diff | visual_attribute_transfer | images/SCD-2.png | 80f6908839fbb8f8787b04e88634bfdaa3713a9f55030c63ee6f472178530096 | contour_diff_00002.gptimage_v3_pool3_fruits.png | Two panels are shown side by side. Each panel contains the same set of closed silhouettes at the same positions. Some silhouettes in the right panel have a different shape from the corresponding silhouette in the left panel. Count the number of pairs whose shape differs between the two panels and report the integer cou... | 10 |
SCD-3 | spot_the_contour_diff | visual_attribute_transfer | images/SCD-3.png | 731301ded0afe036b66e41d5696f970151032ebc25a22d594a3af272745d9067 | contour_diff_00003.gptimage_v4_pool4_industrial.png | Two panels are shown side by side. Each panel contains the same set of closed silhouettes at the same positions. Some silhouettes in the right panel have a different shape from the corresponding silhouette in the left panel. Count the number of pairs whose shape differs between the two panels and report the integer cou... | 12 |
SCD-4 | spot_the_contour_diff | visual_attribute_transfer | images/SCD-4.png | b75e993758e0967a41def272396d62ab00a3969e5752c82fcb75dab13e399c3e | contour_diff_00004.gptimage_v5_pool5_textile.png | Two panels are shown side by side. Each panel contains the same set of closed silhouettes at the same positions. Some silhouettes in the right panel have a different shape from the corresponding silhouette in the left panel. Count the number of pairs whose shape differs between the two panels and report the integer cou... | 15 |
SFD-0 | spot_the_field_diff | visual_attribute_transfer | images/SFD-0.png | 9bd58bde7410c52abb44e401103af4ab81fda4c9cce1f5e26f761ae64b4b5c93 | field_diff_00000.gptimage_v1_corkboard.png | Three panels are shown side by side. The leftmost panel is an INDEX key: a grid of cells numbered in row-major order (top-left = 1, increasing left-to-right then top-to-bottom). The middle and right panels are 2D color fields, each divided into the same grid. Compare the middle (Field A) and right (Field B) panels cell... | "6, 7, 8, 11" |
SFD-1 | spot_the_field_diff | visual_attribute_transfer | images/SFD-1.png | 1460a81f6979fb4c9cc91422f7b2ef5c28c9fad4b4ceafacf3f2f3c4785523d5 | field_diff_00001.gptimage_v2_woodendesk.png | Three panels are shown side by side. The leftmost panel is an INDEX key: a grid of cells numbered in row-major order (top-left = 1, increasing left-to-right then top-to-bottom). The middle and right panels are 2D color fields, each divided into the same grid. Compare the middle (Field A) and right (Field B) panels cell... | 6 |
SFD-2 | spot_the_field_diff | visual_attribute_transfer | images/SFD-2.png | 13b5ac75ddc28310e2796ebdf259765ca00f352df17d85eebb70f3754cea1575 | field_diff_00002.gptimage_v3_clipboard.png | Three panels are shown side by side. The leftmost panel is an INDEX key: a grid of cells numbered in row-major order (top-left = 1, increasing left-to-right then top-to-bottom). The middle and right panels are 2D color fields, each divided into the same grid. Compare the middle (Field A) and right (Field B) panels cell... | "3, 4, 8, 9, 10, 12, 13" |
SFD-3 | spot_the_field_diff | visual_attribute_transfer | images/SFD-3.png | 2b351ff7e5344eae263f953ab5a78d225b6df81596dd18b3eea24021e9d9a519 | field_diff_00003.gptimage_v4_blanket.png | Three panels are shown side by side. The leftmost panel is an INDEX key: a grid of cells numbered in row-major order (top-left = 1, increasing left-to-right then top-to-bottom). The middle and right panels are 2D color fields, each divided into the same grid. Compare the middle (Field A) and right (Field B) panels cell... | "3, 5, 6, 7, 8, 9, 11, 13, 14, 15" |
SFD-4 | spot_the_field_diff | visual_attribute_transfer | images/SFD-4.png | 2aec3568530c4eb4d83d84015818c3eaeb4f61c13e6ac2ac05029f715a16afbd | field_diff_00004.gptimage_v5_folder.png | Three panels are shown side by side. The leftmost panel is an INDEX key: a grid of cells numbered in row-major order (top-left = 1, increasing left-to-right then top-to-bottom). The middle and right panels are 2D color fields, each divided into the same grid. Compare the middle (Field A) and right (Field B) panels cell... | "1, 2, 3, 5, 7, 8, 9, 10, 11, 12, 13, 14" |
SSD-0 | spot_the_signal_diff | visual_attribute_transfer | images/SSD-0.png | 5101f298b4eff88220e6556800c6aa5cdcbabb39f3d929ae1661aa735108c55b | signal_diff_00000.gptimage_v1_lab.png | Two 1D signals are shown side by side. Each signal's x-axis is divided into equal segments by thin vertical gridlines, and each segment is numbered above the gridlines (the two signals share the same numbering). Compare the left (Signal A) and right (Signal B) signals segment by segment. List the numbers of all segment... | "7, 8, 9" |
SSD-1 | spot_the_signal_diff | visual_attribute_transfer | images/SSD-1.png | cc3743c0ba8a6310a562f221e750d8d918ff305762a5bd1b3a44c149a3789252 | signal_diff_00001.gptimage_v2_whiteboard.png | Two 1D signals are shown side by side. Each signal's x-axis is divided into equal segments by thin vertical gridlines, and each segment is numbered above the gridlines (the two signals share the same numbering). Compare the left (Signal A) and right (Signal B) signals segment by segment. List the numbers of all segment... | "2, 5, 7, 8, 10" |
SSD-2 | spot_the_signal_diff | visual_attribute_transfer | images/SSD-2.png | 6050738551a82fb9659e42b7ebf5877a789794e1b7e127706dd338e0aceab086 | signal_diff_00002.gptimage_v3_workbench.png | Two 1D signals are shown side by side. Each signal's x-axis is divided into equal segments by thin vertical gridlines, and each segment is numbered above the gridlines (the two signals share the same numbering). Compare the left (Signal A) and right (Signal B) signals segment by segment. List the numbers of all segment... | 8 |
SSD-3 | spot_the_signal_diff | visual_attribute_transfer | images/SSD-3.png | 4d700c3e6be20af7fde17ab05616ebde070a00f5345385528ec686e7a16177a3 | signal_diff_00003.gptimage_v4_monitor.png | Two 1D signals are shown side by side. Each signal's x-axis is divided into equal segments by thin vertical gridlines, and each segment is numbered above the gridlines (the two signals share the same numbering). Compare the left (Signal A) and right (Signal B) signals segment by segment. List the numbers of all segment... | "3, 4, 6, 9" |
SSD-4 | spot_the_signal_diff | visual_attribute_transfer | images/SSD-4.png | 3387cf3ef346cd9cfebb554d0cabfc1980b0b768c1e1cee75a5c55c8fdd7b03c | signal_diff_00004.gptimage_v5_fabric.png | Two 1D signals are shown side by side. Each signal's x-axis is divided into equal segments by thin vertical gridlines, and each segment is numbered above the gridlines (the two signals share the same numbering). Compare the left (Signal A) and right (Signal B) signals segment by segment. List the numbers of all segment... | "2, 3, 5, 6, 10" |
STD-0 | spot_the_stroke_diff | visual_attribute_transfer | images/STD-0.png | df712b3d672531c1a4e96f6593ded0dfe760dc8b9748a7a3c6cee8dd6440270f | stroke_diff_00000.gptimage_v1_pool1_twigs.png | Two panels are shown side by side. Each panel contains the same number of elongated pieces (strands, twigs, threads, etc.) at the same positions. Some pieces in the right panel have a different shape from the corresponding piece in the left panel. Count the number of pairs whose shape differs between the two panels and... | 5 |
STD-1 | spot_the_stroke_diff | visual_attribute_transfer | images/STD-1.png | 8af263de4e70c44aafed2a3db9c42bb2808d65d9a11c7c8a1452bbf71acbbb69 | stroke_diff_00001.gptimage_v2_pool2_sewing.png | Two panels are shown side by side. Each panel contains the same number of elongated pieces (strands, twigs, threads, etc.) at the same positions. Some pieces in the right panel have a different shape from the corresponding piece in the left panel. Count the number of pairs whose shape differs between the two panels and... | 8 |
STD-2 | spot_the_stroke_diff | visual_attribute_transfer | images/STD-2.png | dd26b142ae3f324d713c4ebde1630d2cbeddcf0758682bf32b60dc2c6288de0a | stroke_diff_00002.gptimage_v3_pool3_noodles.png | Two panels are shown side by side. Each panel contains the same number of elongated pieces (strands, twigs, threads, etc.) at the same positions. Some pieces in the right panel have a different shape from the corresponding piece in the left panel. Count the number of pairs whose shape differs between the two panels and... | 10 |
STD-3 | spot_the_stroke_diff | visual_attribute_transfer | images/STD-3.png | bade76b8a07ab6805437b9952a3a438f88152fdfe446c2f2f2818c5047fc35e3 | stroke_diff_00003.gptimage_v4_pool4_wire.png | Two panels are shown side by side. Each panel contains the same number of elongated pieces (strands, twigs, threads, etc.) at the same positions. Some pieces in the right panel have a different shape from the corresponding piece in the left panel. Count the number of pairs whose shape differs between the two panels and... | 12 |
STD-4 | spot_the_stroke_diff | visual_attribute_transfer | images/STD-4.png | 8a526d7f5ab2f6429db542939c74abb109a8c0b651640291a7e1b0be0dcb91e7 | stroke_diff_00004.gptimage_v5_pool5_organic.png | Two panels are shown side by side. Each panel contains the same number of elongated pieces (strands, twigs, threads, etc.) at the same positions. Some pieces in the right panel have a different shape from the corresponding piece in the left panel. Count the number of pairs whose shape differs between the two panels and... | 15 |
SGC-0 | stroke_gesture_count | visual_attribute_transfer | images/SGC-0.png | 07cc07427e72e28ad81cf374d5f7029cb2c31177dc1bc8593615d8692b5913fe | stroke_gesture_count_00000.gptimage_v1_pool1_twigs.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single elongated piece with a specific curvature profile. The right panel shows the Field: many elongated pieces of similar thickness scattered across the canvas. Both panels use the SAME pixel scale. Count the number o... | 5 |
SGC-1 | stroke_gesture_count | visual_attribute_transfer | images/SGC-1.png | 2069c73768f3aa6d010048fdffab71b50af1584ba00bf6226341c9cfba8409d8 | stroke_gesture_count_00001.gptimage_v2_pool2_sewing.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single white brush stroke with a specific curvature profile. The right panel shows the Field: many white brush strokes scattered across the canvas, all at the same thickness. Both panels use the SAME pixel scale and str... | 8 |
SGC-2 | stroke_gesture_count | visual_attribute_transfer | images/SGC-2.png | d63c140840e20bec90d4b1fbe6d250784a2aba9db3bd523917fc94c9d2d8dd62 | stroke_gesture_count_00002.gptimage_v3_pool3_noodles.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single elongated piece with a specific curvature profile. The right panel shows the Field: many elongated pieces of similar thickness scattered across the canvas. Both panels use the SAME pixel scale. Count the number o... | 10 |
SGC-3 | stroke_gesture_count | visual_attribute_transfer | images/SGC-3.png | 4d3e00a1593a3fc94182c43d5b2f4e0cfd06b710af44174f0d860b081f1807e2 | stroke_gesture_count_00003.gptimage_v4_pool4_wire.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single elongated piece with a specific curvature profile. The right panel shows the Field: many elongated pieces of similar thickness scattered across the canvas. Both panels use the SAME pixel scale. Count the number o... | 12 |
SGC-4 | stroke_gesture_count | visual_attribute_transfer | images/SGC-4.png | 90fbdc38b1d0dcbbeab0ec4c1750303fb8058f5dcee9052ae3435e0e4855f1bb | stroke_gesture_count_00004.gptimage_v5_pool5_organic.png | This image has two panels separated by a thin vertical divider. The left panel shows the Template: a single elongated piece with a specific curvature profile. The right panel shows the Field: many elongated pieces of similar thickness scattered across the canvas. Both panels use the SAME pixel scale. Count the number o... | 15 |
ActiveVision
An exam for active observers — a benchmark for diagnosing whether multimodal large language models can iteratively look at an image during reasoning, instead of compressing it into a fixed embedding once.
What's in this archive
| Path | Contents |
|---|---|
data/images/ |
85 photorealistic PNGs, the released benchmark images |
data/manifest.json |
Canonical index — one record per instance with id, task, category, image, image_sha256, image_source_filename, question, answer |
data/annotations/<task>.jsonl |
Per-task verification metadata (5 records per file × 17 tasks = 85). Includes the structural ground truth used to compute each answer (region adjacency, arrow chains, traversal paths, Hausdorff distances, etc.) |
code/<category>/<task>/creation.py |
Seedable, deterministic generator. The released images at v0.4 are produced at --difficulty 4. |
code/<category>/<task>/creation.md |
Per-task design and anti-shortcut spec (where present). |
code/<category>/<task>/data.json |
Per-task definition: shared question text, answer format. |
code/gpt_image_prompts.json |
One gpt-image-2 image-edit prompt per task, used to re-render the matplotlib structural draft as a photorealistic variant while preserving the discriminative structure. |
code/scope.md |
Project specification: the three task families and the six shortcut classes the design defeats. |
croissant.json |
Croissant 1.0 + Croissant-RAI 1.0 metadata for this dataset. |
LICENSE |
CC BY 4.0. |
Statistics
- 85 instances, 17 tasks, 3 task families.
- Distributed Scanning (25 instances, 5 tasks): attribute_group_counting, bounded_faces_counting, counting_connected_components, counting_regions, tangled_loops.
- Sequential Traversal (25 instances, 5 tasks): arrow_chain, color_zone_sequence, line_intersections, maze, traverse_ordering.
- Visual Attribute Transfer (35 instances, 7 tasks): constellation_match_count, contour_silhouette_count, spot_the_contour_diff, spot_the_field_diff, spot_the_signal_diff, spot_the_stroke_diff, stroke_gesture_count.
Loading
import json, pathlib
root = pathlib.Path("data_neurips2026")
manifest = json.loads((root / "data" / "manifest.json").read_text())
for item in manifest:
image_path = root / item["image"]
question = item["question"]
gold = item["answer"]
Generation pipeline
The pipeline is the artifact. Every benchmark image is produced in two deterministic stages:
- Geometric draft (matplotlib).
creation.py --seed S --difficulty 4lays out a structural specification (region partition, arrow positions, maze graph, brush-stroke field, etc.) and computes the answer in closed form. Output: a plain matplotlib PNG. - Photorealistic re-render (gpt-image-2). The matplotlib draft is sent to OpenAI gpt-image-2 via the image-edit endpoint, with a per-task prompt from
code/gpt_image_prompts.jsonthat preserves silhouettes, positions, counts, and labels but replaces the surface material with a photorealistic style (stones on sand, hedge maze from above, starfield, etc.).
The released benchmark contains only the Stage-2 images. Held-out splits with unpublished seeds and additional difficulties can be regenerated from the included generators.
Responsible AI
See croissant.json for the full RAI block. Headlines:
- Synthetic only: 100% synthetic. No human subjects, no PII, no real-world events.
- Use cases: testing and validation. Not for training.
- Limitations: small evaluation set; adversarial-by-design (not predictive of general vision-language ability); photorealistic re-renders depend on a closed-source service.
- License: CC BY 4.0.
Validating the Croissant file
Before submission, validate croissant.json with the official Croissant validator at:
https://huggingface.co/spaces/JoaquinVanschoren/croissant-checker
(Run well in advance of any submission deadline — the doc warns of heavy load near deadlines.)
Citation
Anonymous. ActiveVision: An Exam for Active Observers.
NeurIPS 2026 Datasets and Benchmarks Track (under review).
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