{"id": "video_editor_01", "application": "video_editor", "application_name": "Video Editor", "task_number": 1, "difficulty": "easy", "title": "Trim a Video to First 5 Seconds", "prompt": "# Trim a Video to First 5 Seconds\n\n## GOAL\nAdd a video and trim it so that only the first 5 seconds remain.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and select \"White Candle\" and add it to timeline.\n2. Trim the clip so that only the first 5 seconds remain.\n3. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 27}
{"id": "video_editor_02", "application": "video_editor", "application_name": "Video Editor", "task_number": 2, "difficulty": "easy", "title": "Apply Light Correction and Boost Contrast", "prompt": "# Apply Light Correction and Boost Contrast\n\n## GOAL\nAdd a video, apply light correction, and increase only the contrast.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown, select \"Flower Video\" and add it to the timeline.\n2. Apply light correction to the entire clip by maxing out only the contrast value.\n3. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 27}
{"id": "video_editor_03", "application": "video_editor", "application_name": "Video Editor", "task_number": 3, "difficulty": "medium", "title": "Apply Fade-Out Transition", "prompt": "# Apply Fade-Out Transition\n\n## GOAL\nAdd a video and apply a fade-out transition to its last few seconds.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown, select \"Flower Video\" and add it to the timeline.\n2. Apply a fade-out transition targeting the last 3 seconds of the clip.\n3. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 28}
{"id": "video_editor_04", "application": "video_editor", "application_name": "Video Editor", "task_number": 4, "difficulty": "medium", "title": "Trim a Video to a Specific Portion", "prompt": "# Trim a Video to a Specific Portion\n\n## GOAL\nAdd a video and trim it to keep only the segment from 4s to 11s.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown, add \"White Candle\" video and drag to the timeline.\n2. Trim the video so that only the 4.00-11.00 seconds chunk remain.\n3. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 28}
{"id": "video_editor_05", "application": "video_editor", "application_name": "Video Editor", "task_number": 5, "difficulty": "medium", "title": "Add Background Audio to End of Video", "prompt": "# Add Background Audio to End of Video\n\n## GOAL\nAdd a video and an audio clip, positioning the audio as background for the end of the video.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown, add \"Flower Video\" and audio clip to the timeline.\n2. Position the audio clip so that it plays as background audio during the end portion of the video clip.\n3. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 28}
{"id": "video_editor_06", "application": "video_editor", "application_name": "Video Editor", "task_number": 6, "difficulty": "medium", "title": "Combine Three Videos in Sequence", "prompt": "# Combine Three Videos in Sequence\n\n## GOAL\nPlace three videos on the timeline in a specific order and export.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Tuning a Radio\", \"White Candle\" and \"Flower Video\".\n2. Drag all the videos to timeline and place them in same order.\n3. Trim ends of all videos so length of each clip matches length of \"Flower Video\" clip.\n4. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 29}
{"id": "video_editor_07", "application": "video_editor", "application_name": "Video Editor", "task_number": 7, "difficulty": "medium", "title": "The Quote", "prompt": "# The Quote\n\n## GOAL\nLift a middle segment out of a video, play it on its own first, then play the full original video.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Tuning a Radio\".\n2. On the timeline, first play only seconds 3 through 6 of the clip, then immediately after play the full original clip from start to end.\n3. Add a 1-second text block reading \"Earlier...\" with white text on black background, placed immediately before the full playthrough begins.\n4. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 29}
{"id": "video_editor_08", "application": "video_editor", "application_name": "Video Editor", "task_number": 8, "difficulty": "medium", "title": "Split Video and Insert Another in the Middle", "prompt": "# Split Video and Insert Another in the Middle\n\n## GOAL\nSplit a video at its midpoint and insert a second video between the two halves.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and select \"Flower Video\".\n2. Drag \"Flower Video\" to the timeline.\n3. Split the clip at its midpoint.\n4. Open the \"Sample Media\" dropdown and select \"Tuning a Radio\".\n5. Drag \"Tuning a Radio\" to the timeline.\n6. Insert \"Tuning a Radio\" between the two halves of \"Flower Video\".\n7. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 30}
{"id": "video_editor_09", "application": "video_editor", "application_name": "Video Editor", "task_number": 9, "difficulty": "medium", "title": "Reverse Order, Light Correction, and Fade-Out", "prompt": "# Reverse Order, Light Correction, and Fade-Out\n\n## GOAL\nArrange two videos in reverse order, apply light correction to a portion of the first, and apply a fade-out to the second.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\".\n2. Open the \"Sample Media\" dropdown and add \"Tuning a Radio\".\n3. Drag \"Tuning a Radio\" to the timeline first.\n4. Drag \"Flower Video\" to the timeline, placing it right after \"Tuning a Radio\".\n5. Select \"Tuning a Radio\" and apply light correction to the first 4 seconds of the clip: max out contrast only.\n6. Select \"Flower Video\" and apply a fade-out effect with ease-out easing to the last 3 seconds of the clip.\n7. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 30}
{"id": "video_editor_10", "application": "video_editor", "application_name": "Video Editor", "task_number": 10, "difficulty": "medium", "title": "Symmetric Audio Bridge", "prompt": "# Symmetric Audio Bridge\n\n## GOAL\nPlace an audio clip so its midpoint aligns with the transition between two videos, then trim both videos so the audio has equal silent runway on both sides.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\", \"Tuning a Radio\" and audio clip.\n2. Drag \"Flower Video\" and \"Tuning a Radio\" to the timeline back-to-back in that order.\n3. Place the audio clip on a separate track so that the middle of the audio clip aligns exactly with the cut between the two videos.\n4. Trim \"Flower Video\" from its start and \"Tuning a Radio\" from its end so that the audio clip begins exactly 1 second after the video timeline starts and ends exactly 1 second before the timeline ends.\n5. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 31}
{"id": "video_editor_11", "application": "video_editor", "application_name": "Video Editor", "task_number": 11, "difficulty": "medium", "title": "Split a Video, Swap Halves, and Insert a Midpoint Title", "prompt": "# Split a Video, Swap Halves, and Insert a Midpoint Title\n\n## GOAL\nSplit a video at its midpoint, swap the two halves, and insert a styled text block between them.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and select \"Tuning a Radio\".\n2. Drag \"Tuning a Radio\" to the timeline.\n3. Split the clip at its midpoint.\n4. Move the second half to the beginning of the timeline.\n5. Add a text block with the text \"Midpoint\".\n6. Set the font color to white.\n7. Set the background color to black.\n8. Set the text block duration to 1 second.\n9. Place the text block immediately after the second half.\n10. Move the first half to immediately after the text block.\n11. Verify the final timeline order is: second half of \"Tuning a Radio\" -> \"Midpoint\" text block -> first half of \"Tuning a Radio\".\n12. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 31}
{"id": "video_editor_12", "application": "video_editor", "application_name": "Video Editor", "task_number": 12, "difficulty": "hard", "title": "Trim and Duplicate a Video", "prompt": "# Trim and Duplicate a Video\n\n## GOAL\nTrim a video, then duplicate several times.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown, add \"Flower Video\" and drag it to timeline.\n2. Trim the clip so that 4 first seconds remain, duplicate the video 4 times, but trim even numbered video to 2 last seconds.\n4. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 32}
{"id": "video_editor_13", "application": "video_editor", "application_name": "Video Editor", "task_number": 13, "difficulty": "hard", "title": "Three Videos with Empty Gaps Between Them", "prompt": "# Three Videos with Empty Gaps Between Them\n\n## GOAL\nArrange three videos in sequence with specific empty gaps between them.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\", \"White Candle\" and \"Tuning a Radio\" videos.\n2. Drag the videos to timeline in the same order.\n3. Place the videos with empty gaps of 1 second and 2 seconds between them.\n4. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 32}
{"id": "video_editor_14", "application": "video_editor", "application_name": "Video Editor", "task_number": 14, "difficulty": "hard", "title": "Different Light Corrections on Three Videos", "prompt": "# Different Light Corrections on Three Videos\n\n## GOAL\nArrange three videos in sequence and apply a different light correction to each.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\", \"White Candle\" and \"Tuning a Radio\".\n2. Drag the video to timeline in asked above order.\n3. Apply light correction one each video clip: max out contrast for first, brightness for second and saturation for last video respectively.\n4. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 32}
{"id": "video_editor_15", "application": "video_editor", "application_name": "Video Editor", "task_number": 15, "difficulty": "hard", "title": "Two Videos with Audio at Transition", "prompt": "# Two Videos with Audio at Transition\n\n## GOAL\nArrange two videos in sequence and place an audio clip so it spans the transition between them.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\", \"Tuning a Radio\" and audio clip.\n2. Drag the videos to the timeline placing \"Tuning a Radio\" right after \"Flower Video\".\n3. Drag the audio clip to the timeline.\n4. Position the audio clip so that it spans the transition point between the two videos (equally overlapping the end of the first and the beginning of the second).\n5. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 33}
{"id": "video_editor_16", "application": "video_editor", "application_name": "Video Editor", "task_number": 16, "difficulty": "hard", "title": "Three Colored Text Blocks", "prompt": "# Three Colored Text Blocks\n\n## GOAL\nCreate an intro video with different color scenes.\n\n## STEPS\n1. Add a half-second text block with white \"Second!\" text.\n2. Duplicate the text block two times, setting new blocks texts, so that the timeline reads: \"Second!\" -> \"Third!\" -> \"First!\", resulting in three consecutive blocks on the timeline.\n3. Change text blocks background colors to be \"yellow\", \"red\" and \"green\" accordingly to their timeline order.\n4. Change durations of text blocks, so that each one is 2 times longer than previous one, leaving first text block duration unchanged.\n5. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 33}
{"id": "video_editor_17", "application": "video_editor", "application_name": "Video Editor", "task_number": 17, "difficulty": "hard", "title": "Trimmed Video with Closing Titles and Fade-Out", "prompt": "# Trimmed Video with Closing Titles and Fade-Out\n\n## GOAL\nAdd a video, trim it, append a closing title card, and apply a fade-out to the title.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and select \"White Candle\".\n2. Drag \"White Candle\" to the timeline.\n3. Trim the end of the clip so that only the first 10 seconds remain.\n4. Add a text block with the text \"The End\", black font color, and white background.\n5. Set the text block duration to 2 seconds.\n6. Place the text block on the timeline immediately after the trimmed video.\n7. Select the text block and apply a fade-out effect to it.\n8. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 34}
{"id": "video_editor_18", "application": "video_editor", "application_name": "Video Editor", "task_number": 18, "difficulty": "hard", "title": "Overlay Text and Audio on a Video", "prompt": "# Overlay Text and Audio on a Video\n\n## GOAL\nAdd a video to the timeline, overlay a text block on the first 2 seconds, and add an audio clip playing in parallel for the same 2 seconds.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\" and audio clip.\n2. Drag \"Flower Video\" to the timeline.\n3. Add a 2-second \"Intro\" text block with font size of 72 on a track above the video track so it overlays the first 2 seconds of \"Flower Video\".\n4. Drag the audio clip to the timeline.\n5. Position the audio clip so it starts at the beginning of the timeline and plays for the first 2 seconds, in parallel with the video and the text overlay.\n6. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 34}
{"id": "video_editor_19", "application": "video_editor", "application_name": "Video Editor", "task_number": 19, "difficulty": "hard", "title": "Alternating Split Segments with Per-Segment Corrections", "prompt": "# Alternating Split Segments with Per-Segment Corrections\n\n## GOAL\nSplit two videos into quarters, interleave them on the timeline, and apply a different light correction to each odd-indexed segment.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Tuning a Radio\" and \"White Candle\".\n2. Drag \"Tuning a Radio\" to the timeline and split it into 3 equal segments (T1, T2, T3).\n3. Drag \"White Candle\" to the timeline after \"Flower Video\" and split it into 3 equal segments (W1, W2, W3).\n4. Reorder the segments on the timeline so the final order is: T1 -> W1 -> T2 -> W2 -> T3 -> W3.\n5. Apply light correction to first two odd-positioned segment on the timeline: max out contrast for first segment, max out brightness for last segment.\n6. Trim each of the segments so that all segments on the timeline have the same duration, equal to the shortest segment.\n7. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 35}
{"id": "video_editor_20", "application": "video_editor", "application_name": "Video Editor", "task_number": 20, "difficulty": "hard", "title": "Act Titles Before Each Video", "prompt": "# Act Titles Before Each Video\n\n## GOAL\nArrange three videos in sequence, each preceded by a titled text block.\n\n## STEPS\n1. Open the \"Sample Media\" dropdown and add \"Flower Video\".\n2. Open the \"Sample Media\" dropdown and add \"White Candle\".\n3. Open the \"Sample Media\" dropdown and add \"Tuning a Radio\".\n4. Add a text block with text \"Act I\", black font color, white background, and 1-second duration. Place it on the timeline.\n5. Drag \"Flower Video\" to the timeline, placing it immediately after the \"Act I\" text block.\n6. Add a text block with text \"Act II\", black font color, white background, and 1-second duration. Place it on the timeline immediately after \"Flower Video\".\n7. Drag \"White Candle\" to the timeline, placing it immediately after the \"Act II\" text block.\n8. Add a text block with text \"Act III\", black font color, white background, and 1-second duration. Place it on the timeline immediately after \"White Candle\".\n9. Drag \"Tuning a Radio\" to the timeline, placing it immediately after the \"Act III\" text block.\n10. Verify the final timeline order is: \"Act I\" -> \"Flower Video\" -> \"Act II\" -> \"White Candle\" -> \"Act III\" -> \"Tuning a Radio\".\n11. Export the result.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 36}
{"id": "workflow_builder_01", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 1, "difficulty": "easy", "title": "Remove a Node and Reconnect in a Pipeline", "prompt": "# Remove a Node and Reconnect in a Pipeline\n\n## GOAL\nRemove a node from a multi-step pipeline and reconnect the upstream node to the downstream node.\n\n## STEPS\n1. Open the \"API Data Pipeline\" workflow.\n2. Delete the \"Sort\" node.\n3. Reconnect the \"Map\" node directly to the next downstream node.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 36}
{"id": "workflow_builder_02", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 2, "difficulty": "easy", "title": "Create a Simple Three-Node Workflow", "prompt": "# Create a Simple Three-Node Workflow\n\n## GOAL\nCreate a simple three-node workflow from scratch with a Manual Trigger, a configured HTTP Request, and a No Operation node.\n\n## STEPS\n1. Create a new workflow named \"Example Todo Fetch\".\n2. Add these nodes and connect them in sequence: ‘Manual Trigger -> HTTP Request -> No Operation‘.\n3. Configure the \"HTTP Request\" node:\n- Method: \"GET\"\n- URL: ‘https://jsonplaceholder.typicode.com/todos/1‘\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 37}
{"id": "workflow_builder_03", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 3, "difficulty": "medium", "title": "Insert a Wait Node into a Workflow", "prompt": "# Insert a Wait Node into a Workflow\n\n## GOAL\nInsert a Wait node with a 1-second delay between two existing nodes in a workflow and reconnect the flow.\n\n## STEPS\n1. Open the \"Range -> Map -> Table (scaffolding)\" workflow.\n2. Insert a \"Wait\" node between the \"Map\" and \"Table Preview\" nodes.\n3. Configure the delay to \"1 second\".\n4. Reconnect the workflow correctly.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 37}
{"id": "workflow_builder_04", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 4, "difficulty": "medium", "title": "Delete a Node and Disable Default Port in Switch", "prompt": "# Delete a Node and Disable Default Port in Switch\n\n## GOAL\nDelete a branch target node from a Switch-based pipeline and disable the corresponding default port in the Switch settings.\n\n## STEPS\n1. Open the \"Data Categorization Pipeline\" workflow.\n2. Delete one of the \"Edit Fields (Set)\" node responsible for \"Default\" branch of a \"Switch\" node.\n3. Disable the \"Default\" port in the \"Switch\" node settings.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 38}
{"id": "workflow_builder_05", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 5, "difficulty": "medium", "title": "Add a Node Using Search", "prompt": "# Add a Node Using Search\n\n## GOAL\nUse the node search to find and add a Send Email node, configure its subject, and connect it to the end of a pipeline.\n\n## STEPS\n1. Open the \"API Data Pipeline\" workflow.\n2. Use the node search box to find \"Send Email\".\n3. Add the \"Send Email\" node to the canvas after the \"Sort\" node.\n4. Set \"Send Email\" subject to \"Users list\".\n5. Connect the \"Sort\" node output to the \"Send Email\" node input.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 38}
{"id": "workflow_builder_06", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 6, "difficulty": "medium", "title": "Insert a Formula Node into a Workflow", "prompt": "# Insert a Formula Node into a Workflow\n\n## GOAL\nInsert a Formula node into a workflow, configure it to compute a derived field, and reconnect the data flow.\n\n## STEPS\n1. Open the \"Range -> Map -> Table (scaffolding)\" workflow.\n2. Insert a \"Formula\" node between the \"Map\" and \"Table\" nodes.\n3. Configure the \"Formula\" node to name a new field ‘double‘ with value ‘item.value * 2‘.\n4. Reconnect the workflow so the final path is: ‘Range -> Map -> Formula -> Table‘.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 38}
{"id": "workflow_builder_07", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 7, "difficulty": "medium", "title": "Insert and Configure a Filter Node", "prompt": "# Insert and Configure a Filter Node\n\n## GOAL\nAdd and configure a Filter node in an existing workflow, wiring it into the correct position in the data flow.\n\n## STEPS\n1. Open the \"Range -> Map -> Table (scaffolding)\" workflow.\n2. Delete the rightmost \"Table\" node.\n3. Add a \"Filter\" node and connect \"Map\" node output to the \"Filter\" node input .\n4. Configure the filter to pass only values where ‘item.value > 10‘.\n5. The final path must be: ‘Range -> Map -> Filter‘.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 39}
{"id": "workflow_builder_08", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 8, "difficulty": "medium", "title": "Insert a Filter Node into an Existing Pipeline", "prompt": "# Insert a Filter Node into an Existing Pipeline\n\n## GOAL\nInsert a Filter node between two existing nodes in a pipeline and configure it with a specific condition.\n\n## STEPS\n1. Open the \"Order Processing Pipeline\" workflow.\n2. Add a \"Filter\" node between the \"Database Connector\" and the \"If\" node.\n3. Configure the filter to pass only orders where ‘item.status === ’completed’‘.\n4. Reconnect the workflow so the path through this section is: ‘Database Connector -> Filter -> If‘.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 39}
{"id": "workflow_builder_09", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 9, "difficulty": "medium", "title": "Rewire a Branch Input to a Different Node", "prompt": "# Rewire a Branch Input to a Different Node\n\n## GOAL\nRewire a branch input on a downstream node so it feeds into a different merge point in the pipeline.\n\n## STEPS\n1. Open the \"Enterprise Data Pipeline\" workflow.\n2. Find the \"Data Table\" node that receives inputs from the priority branches.\n3. Disconnect the input coming from the lower \"Edit Fields (Set)\" node.\n4. Reconnect that lower \"Edit Fields (Set)\" node into the \"HTTP Request\" node located on the right, below \"Send Email\" node.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 40}
{"id": "workflow_builder_10", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 10, "difficulty": "medium", "title": "Add an Side Branch Without Breaking Existing Output", "prompt": "# Add an Side Branch Without Breaking Existing Output\n\n## GOAL\nAdd a side branch that records processed records while keeping the original main pipeline output unchanged.\n\n## STEPS\n1. Open the \"Order Processing Pipeline\" workflow.\n2. Find the node immediately before the final \"Aggregate\" output node.\n3. Add a \"No Operation\" node.\n4. Add a \"Data Table\" node after the \"No Operation\" node.\n5. Connect the node immediately before the final output node to the new \"No Operation\" node, leaving all other existing connections as is.\n6. Connect \"No Operation\" to the new \"Data Table\" node.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 40}
{"id": "workflow_builder_11", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 11, "difficulty": "medium", "title": "Split a Pipeline into Two Conditional Branches", "prompt": "# Split a Pipeline into Two Conditional Branches\n\n## GOAL\nModify an existing linear workflow so that active and inactive users are processed through separate branches.\n\n## STEPS\n1. Open the \"API Data Pipeline\" workflow.\n2. Insert an \"If\" node between the \"Map\" node and the next downstream node.\n3. Configure the \"If\" condition to check: ‘item.active === true‘\n4. Add a new \"Send Email\" node for the true branch.\n5. Set the new \"Send Email\" subject to: ‘Active user report‘\n6. Connect the workflow so that:\n- ‘HTTP Request -> Map -> If‘\n- The ‘true‘ output of \"If\" goes to the new \"Send Email\" node.\n- The ‘false‘ output of \"If\" goes to the existing downstream path that originally followed \"Map\".\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 41}
{"id": "workflow_builder_12", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 12, "difficulty": "hard", "title": "Add a New Output Branch to a Switch Node", "prompt": "# Add a New Output Branch to a Switch Node\n\n## GOAL\nAdd a new output case to a Switch node in a complex pipeline and wire it to an existing downstream node.\n\n## STEPS\n1. Open the \"Enterprise Data Pipeline\" workflow.\n2. In the main \"Switch\" node, add a new case labeled ‘priority_urgent‘, do not include \"expr\" field.\n3. Connect the new ‘priority_urgent‘ output to the same \"Edit Fields (Set)\" node currently connected to the \"default\" output.\n4. Do not change any other routes or node settings.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 41}
{"id": "workflow_builder_13", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 13, "difficulty": "hard", "title": "Rewire Edges in a Pipeline", "prompt": "# Rewire Edges in a Pipeline\n\n## GOAL\nRewire existing connections in a complex pipeline without adding, deleting, or reconfiguring any nodes.\n\n## STEPS\n1. Open the \"Enterprise Data Pipeline\" workflow.\n2. Disconnect the edge from the top-row \"No Operation\" node to the top-row \"Merge\" node.\n3. Connect that same \"No Operation\" node to the \"Switch\" node.\n4. Rewire the ‘priority_low‘ output of the \"Switch\" to the lower \"Edit Fields (Set)\" node.\n5. Do not create, delete, move, or reconfigure any nodes.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 42}
{"id": "workflow_builder_14", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 14, "difficulty": "hard", "title": "Insert a Filter and Modify Sort in a Pipeline", "prompt": "# Insert a Filter and Modify Sort in a Pipeline\n\n## GOAL\nMake multiple changes to an existing pipeline: insert a Filter, reconfigure a Sort, and delete a trailing Limit node.\n\n## STEPS\n1. Open the \"API Data Pipeline\" workflow.\n2. Insert a \"Filter\" node between the \"Map\" and \"Sort\" nodes.\n3. Configure the \"Filter\" to pass only items where ‘item.email.includes(\".org\")‘.\n4. Change the \"Sort\" node to use field ‘email‘ with direction ‘desc‘.\n5. Delete last \"Limit\" node.\n6. The final path must be: ‘HTTP Request -> Map -> Filter -> Sort‘.\n7. Do not add any other nodes.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 42}
{"id": "workflow_builder_15", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 15, "difficulty": "hard", "title": "Add a New Priority Branch to a Switch Node", "prompt": "# Add a New Priority Branch to a Switch Node\n\n## GOAL\nExtend a Switch node with a new priority branch, add a dedicated processing node for it, and wire it into the main pipeline.\n\n## STEPS\n1. Open the \"Enterprise Data Pipeline\" workflow.\n2. Find the \"Switch\" node that routes items by priority.\n3. Add a new output branch labeled ‘priority_urgent‘, do not include \"expr\" field.\n4. Add a new \"Edit Fields (Set)\" node for the urgent branch.\n5. Connect the ‘priority_urgent‘ output to the new \"Edit Fields (Set)\" node.\n6. Connect the new \"Edit Fields (Set)\" node back into the \"Data Table\" node.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 43}
{"id": "workflow_builder_16", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 16, "difficulty": "hard", "title": "Create a Simple Loop Workflow", "prompt": "# Create a Simple Loop Workflow\n\n## GOAL\nCreate a new workflow where data passes through a loop before reaching the final output.\n\n## STEPS\n1. Create a new workflow named \"Simple Loop Pipeline\".\n2. Add exactly these nodes:\n- \"Manual Trigger\"\n- \"Map\"\n- \"If\"\n- \"Data Table\"\n3. Configure the \"Map\" node to add or update the field: ‘counter = (item.counter || 0) + 1‘\n4. Configure the \"If\" node with the condition: ‘item.counter < 3‘\n5. Connect the workflow as follows:\n- ‘Manual Trigger -> Map -> If‘\n- The ‘true‘ output of \"If\" loops back to the \"Map\" node.\n- The ‘false‘ output of \"If\" goes to \"Data Table\".\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 43}
{"id": "workflow_builder_17", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 17, "difficulty": "hard", "title": "Create a Branching Workflow with Merge", "prompt": "# Create a Branching Workflow with Merge\n\n## GOAL\nBuild a branching workflow with an If condition that routes data to two different nodes, then merges the branches back together.\n\n## STEPS\n1. Create a new workflow named \"ICML Project\".\n2. Add these nodes and connect them: ‘Manual Trigger -> Database Connector -> If‘.\n3. Add two more nodes: \"Crypto\" and \"Guardrails\".\n4. From the \"If\" node:\n- Connect the \"true\" output to a \"Crypto\" node.\n- Connect the \"false\" output to a \"Guardrails\" node.\n5. Connect both branches into a \"Merge\" node: ‘Crypto -> Merge‘ and ‘Guardrails -> Merge‘.\n6. Set the \"If\" condition to check: ‘item.country === \"UK\"‘.\n7. Do not add any extra nodes.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 44}
{"id": "workflow_builder_18", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 18, "difficulty": "hard", "title": "Create a Simple Decision Tree Workflow", "prompt": "# Create a Simple Decision Tree Workflow\n\n## GOAL\nCreate a small tree-shaped workflow with 3 If nodes and 4 final outputs.\n\n## STEPS\n1. Create a new workflow named \"Simple Decision Tree Pipeline\".\n2. Add:\n- 1 Manual Trigger\n- 3 If nodes\n- 2 Data Table nodes\n3. Configure the If nodes:\n- Root If: ‘item.score >= 50‘\n- Upper-branch If: ‘item.score >= 80‘\n- Lower-branch If: ‘item.score >= 20‘\n4. Connect:\n- ‘Manual Trigger -> Root If‘\n- Root If ‘true‘ -> Upper-branch If\n- Root If ‘false‘ -> Lower-branch If\n- Upper-branch If ‘true‘ -> first Data Table\n- Upper-branch If ‘false‘ -> second Data Table\n- Lower-branch If ‘true‘ -> first Data Table\n- Lower-branch If ‘false‘ -> second Data Table\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 45}
{"id": "workflow_builder_19", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 19, "difficulty": "hard", "title": "Create a Conditional Email Workflow", "prompt": "# Create a Conditional Email Workflow\n\n## GOAL\nCreate a conditional email workflow where the If node routes to two separate Send Email nodes with different subjects.\n\n## STEPS\n1. Create a new workflow named \"ICML Project\".\n2. Add these nodes and connect them in sequence: ‘Chat Trigger -> Database Connector -> If‘.\n3. Add two \"Send Email\" nodes.\n4. Connect first \"Send Email\" node only to the \"false\" output of the \"If\" node.\n5. Connect second \"Send Email\" node only to the \"true\" output of the \"If\" node.\n6. Set the \"If\" condition to check: ‘item.country === \"FR\"‘.\n7. Set the first \"Send Email\" subject to: ‘ICML Project notification‘.\n8. Set the second \"Send Email\" subject to: ‘Notification de projet ICML‘.\n9. Do not add extra nodes.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 45}
{"id": "workflow_builder_20", "application": "workflow_builder", "application_name": "Workflow Builder", "task_number": 20, "difficulty": "hard", "title": "Create a Multi-Node Workflow with Configuration", "prompt": "# Create a Multi-Node Workflow with Configuration\n\n## GOAL\nCreate a five-node workflow from scratch with HTTP, mapping, filtering, and email nodes, each configured with specific settings.\n\n## STEPS\n1. Create a new workflow named \"Newsletter System\".\n2. Add exactly these 5 nodes and wire them it the following in sequence: ‘Manual Trigger -> HTTP Request -> Map -> Filter -> Send Email‘.\n3. Configure the nodes:\n- \"HTTP Request\" method: \"GET\"\n- \"HTTP Request\" URL: ‘https://jsonplaceholder.typicode.com/users‘\n- \"Filter\" condition: pass only items where ‘item.address?.city === \"Gwenborough\"‘\n- \"Send Email\" From: ‘newsletter@example.com‘\n- \"Send Email\" Recipients: ‘local-subscribers@example.com‘\n- \"Send Email\" Subject: ‘Local Newsletter‘\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 46}
{"id": "3d_modeller_01", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 1, "difficulty": "easy", "title": "Double the Cube’s Scale", "prompt": "# Double the Cube’s Scale\n\n## GOAL\nOpen a single-object scene, double the cube’s scale on all axes, and change the scene background color.\n\n## STEPS\n1. Open the \"Single Cube Scene\".\n2. Double its current scale along all three axes, and set the scene’s background color to white (#ffffff).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 47}
{"id": "3d_modeller_02", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 2, "difficulty": "easy", "title": "Position Elements Relative to Reference", "prompt": "# Position Elements Relative to Reference\n\n## GOAL\nOpen a scene and reposition two elements at a fixed distance from a reference object along the X-axis, preserving their orientations.\n\n## STEPS\n1. Open the \"Basic Shape Scene\".\n2. Use the blue sphere as the reference point. Position the other two elements at a distance of 3 units from the reference along the X-axis, while preserving their original orientations.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 48}
{"id": "3d_modeller_03", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 3, "difficulty": "medium", "title": "Place Cubes in All Octants", "prompt": "# Place Cubes in All Octants\n\n## GOAL\nCreate a new scene and place one cube in each of the eight 3D octants at symmetric coordinates.\n\n## STEPS\n1. Create a new scene named \"Octant Cubes\".\n2. Generate cubes by assigning one default cube to each octant in 3D space, positioned at coordinates with absolute values of (1, 1, 1). Name all the cubes as Cube.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 49}
{"id": "3d_modeller_04", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 4, "difficulty": "medium", "title": "Reorder Elements Along X-Axis", "prompt": "# Reorder Elements Along X-Axis\n\n## GOAL\nRearrange four objects into a specified order along the positive X-axis with uniform spacing between centers.\n\n## STEPS\n1. Open the \"Row of Objects Scene\".\n2. Reorder the elements as sphere, cone, cube, and cylinder along the positive X-axis. Final distance between centers of consecutive objects must be equal to 1.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 49}
{"id": "3d_modeller_05", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 5, "difficulty": "medium", "title": "Find and Recolor Nearest Elements", "prompt": "# Find and Recolor Nearest Elements\n\n## GOAL\nIdentify the two elements closest to a reference cube and change their color to red.\n\n## STEPS\n1. Open the \"Geometric Garden\".\n2. Use the stone block cube as the reference. Identify the two remaining elements whose centers are closest to that of the stone block cube. Finally, change their color to red (#ff0000).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 50}
{"id": "3d_modeller_06", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 6, "difficulty": "medium", "title": "Spheres Touching Cube Faces From Inside", "prompt": "# Spheres Touching Cube Faces From Inside\n\n## GOAL\nCreate unit spheres that touch the faces of an imagined cube from inside.\n\n## STEPS\n1. Open the \"Empty Scene\".\n2. Imagine a cube of side 6 laying on the XZ plane.\n3. Add one unit sphere per cube face.\n4. Place each sphere inside the imagined cube so it touches, but does not intersect, its assigned face at the center of that face.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 51}
{"id": "3d_modeller_07", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 7, "difficulty": "medium", "title": "Place a Torus on the Missing Axis", "prompt": "# Place a Torus on the Missing Axis\n\n## GOAL\nIdentify the unoccupied axis in the XZ plane and place a new torus there, matching the distance of existing elements from the center.\n\n## STEPS\n1. Open the \"Four Objects Scene\".\n2. Add a torus and place it along the only axis in the XZ plane that does not contain any existing element. Set its distance from the central point to be the same as that of the other elements.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 52}
{"id": "3d_modeller_08", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 8, "difficulty": "medium", "title": "Adjust Cube (Cuboid) Scale and Stack Cone", "prompt": "# Adjust Cube (Cuboid) Scale and Stack Cone\n\n## GOAL\nModify the cuboids Y-axis scale and reposition it to rest on the XZ plane, then place the cone on top of the cuboid with proper surface contact.\n\n## STEPS\n1. Open the Four Objects Scene.\n2. Set the cuboids scale along the Y-axis to 20, and adjust its position so that its bottom surface is in contact with the XZ plane.\n3. Adjust the position of the cone so that its bottom surface is in contact with the top surface of the cuboid, without overlap.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 53}
{"id": "3d_modeller_09", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 9, "difficulty": "medium", "title": "Symmetric Scene Around the Origin Object", "prompt": "# Symmetric Scene Around the Origin Object\n\n## GOAL\nMake the scene symmetric using the object at the origin as the scene center.\n\n## STEPS\n1. Open the \"Two Objects Scene\".\n2. Treat the object located at the origin as the center of the scene. Do not move or modify this center object.\n3. Change the existing cube’s color to red (#ff0000).\n4. Add exactly one new object.\n5. Change the new object’s properties so that the final scene is symmetric around the center object.\n6. Do not add any guide objects or extra objects.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 54}
{"id": "3d_modeller_10", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 10, "difficulty": "medium", "title": "Complete the Top-Down Plus", "prompt": "# Complete the Top-Down Plus\n\n## GOAL\nLook at the scene from above. The four existing objects form an incomplete plus sign one arm of the plus is missing. Add a single cube that visually completes the plus as seen from the +Y (top-down) direction.\n\n## STEPS\n1. Open the \"Four Objects Scene\".\n2. From top down view figures form a plus sign without one arm. Identify which arm of the top-down plus shape is missing.\n3. Add a new object named \"Plug\" in the missing arm position so that, viewed from directly above (+Y), the five objects form a symmetric plus sign. The new object’s shape must match the existing object on the opposite arm of the plus, while keeping default rotation and unit scale.\n4. Place the \"Plug\" object on the same Y-axis level as all the other objects and color it purple (#aa00ff).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 55}
{"id": "3d_modeller_11", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 11, "difficulty": "medium", "title": "Fill the Missing End", "prompt": "# Fill the Missing End\n\n## GOAL\nAdd one object that visually extends the row pattern, without disturbing the existing row.\n\n## STEPS\n1. Open the \"Row of Objects Scene\".\n2. In the default camera, observe the four objects as a left-to-right row of distinct silhouettes.\n3. Add exactly one new object named \"Row Extension\" at the next equally spaced position beyond the current rightmost visible silhouette, continuing the same straight row and center-to-center spacing.\n4. The new object’s must: * match the shape of the second (starting from the origin) object in the row, * match the row’s Y and Z levels, use default rotation and unit scale, * have a purple (#aa00ff) color.\n5. Preserve every original row object’s position, rotation, scale, color, name, visibility, opacity, and wireframe setting.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 56}
{"id": "3d_modeller_12", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 12, "difficulty": "hard", "title": "Minimize Total Exposed Volume", "prompt": "# Minimize Total Exposed Volume\n\n## GOAL\nReposition objects in the XZ plane to minimize total exposed volume by maximizing overlap, keeping Y positions and all rotations/scales fixed.\n\n## STEPS\n1. Open the \"Geometric Garden\".\n2. Use the stone block as the reference. Adjust the positions of the other objects along the X- and Z-axes while keeping their Y-axis positions fixed, with all rotations and scales unchanged. The objective is to minimize the total exposed volume of all objects, excluding any overlapping volume from the calculation.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 57}
{"id": "3d_modeller_13", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 13, "difficulty": "hard", "title": "Create Cube (Cuboid) with Scale Combinations", "prompt": "# Create Cube (Cuboid) with Scale Combinations\n\n## GOAL\nFind all possible integer scale combinations of a cube using the values 1, 2, and 4 on the x, y, and z axes. The three scale values must be assigned in all possible permutations, and each axis may be either positive or negative.\n\n## STEPS\n1. Open the \"Empty Scene\".\n2. Create cubes (cuboids) for all possible combinations of scale values [1, 2, 4] across the x, y, and z axes, allowing each axis to be positive or negative.\n3. Set the position of each cube to (0, 0, 0) and assign all of them the same name, Cube 1.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 58}
{"id": "3d_modeller_14", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 14, "difficulty": "hard", "title": "Match Cone Volume to Cylinder and Stack", "prompt": "# Match Cone Volume to Cylinder and Stack\n\n## GOAL\nAdjust a cone’s Y-axis scale to match the cylinder’s volume, place the cone on top of the cylinder, and recolor both to red.\n\n## STEPS\n1. Open the Four Objects Scene.\n2. Adjust the cone so that its volume matches that of the cylinder by modifying only the scale along the Y-axis. The volume of the cylinder is given by V = πr2h, and the volume of the cone is given by V = (1/3)πr2h. Determine the required Y-axis scaling factor to achieve equal volumes. Next, position the cone on top of the cylinder without any overlap. Finally, treat the cylinder and cone as a single object and change its color to red (#ff0000).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 59}
{"id": "3d_modeller_15", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 15, "difficulty": "hard", "title": "Create a Minimum-Surface-Area Cube (Cuboid)", "prompt": "# Create a Minimum-Surface-Area Cube (Cuboid)\n\n## GOAL\nCreate a cube with a volume of 8 and the smallest possible surface area, then set specific position, rotation, color, opacity, and background.\n\n## STEPS\n1. Open the Empty Scene.\n2. Create a cube (cuboid) with integer side lengths a, b, and c such that the volume constraint abc = 8 is satisfied. The surface area is given by the formula S = 2(ab + bc + ac). Determine the integer dimensions that minimize the surface area, and construct the cuboid accordingly.\n3. Set the cuboids position to (1, 1, 1), rotation to (45, 45, 45), color to blue (#0000ff), and opacity to 0.5.\n4. Set the background color to white (#ffffff).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 60}
{"id": "3d_modeller_16", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 16, "difficulty": "hard", "title": "Stack Three Cubes into a Larger Cube (Cuboid)", "prompt": "# Stack Three Cubes into a Larger Cube (Cuboid)\n\n## GOAL\nAdd two cubes (cuboids) to an existing scene so that all three cubes together form a single larger cube stacked along the Y-axis with no overlap.\n\n## STEPS\n1. Open the \"Single Cube Scene\".\n2. Add two cubes (cuboids) that, together with the given Cube 1, form a unified larger cube (cuboid) with the same rotation. The bottom cubes (cuboids) should have its lower surface in contact with the XZ plane, and the total height along the Y-axis should be 3. Ensure that there is no overlap among the three individual cubes (cuboids). Name the bottom cube Cube 2 and set its color to blue (#0000ff). Name the top cube Cube 3 and set its color to green (#00ff00).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 60}
{"id": "3d_modeller_17", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 17, "difficulty": "hard", "title": "Iterative Volume-Based Filtering and Scaling", "prompt": "# Iterative Volume-Based Filtering and Scaling\n\n## GOAL\nIteratively remove the object with the smallest volume, double the Y-axis scale of the remaining objects, and repeat until only one object remains, then set its color to white.\n\n## STEPS\n1. Open the Row of Objects Scene.\n2. Compute the volumes of all objects (cuboid, cone, ellipsoid, cylinder). The relevant surface area formulas are: * Cube (Cuboid): V = a * b * c * Cylinder: V = pi * r^2 * h * Sphere (Ellipsoid): V = 1/6 * pi * a * b * c * Cone: V = 1/3 * pi * r^2 * h\n3. Identify and delete the object with the smallest volume.\n4. Double the Y-axis scale of all remaining objects.\n5. Repeat Steps 2-4 until only one object remains.\n6. Set the remaining objects color to white (255, 255, 255).\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 61}
{"id": "3d_modeller_18", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 18, "difficulty": "hard", "title": "Reorder by Surface Area Plus Volume", "prompt": "# Reorder by Surface Area Plus Volume\n\n## GOAL\nSort four elements along the positive X-axis by the sum of their surface area and volume (smallest to largest), preserving the original color order.\n\n## STEPS\n1. Open the Row of Objects Scene.\n2. Reorder the given elements (cube (cuboid), sphere, cylinder, cone) along the positive X-axis, arranging them from smallest to largest based on the sum of their surface area and volume. The relevant formulas are: * Cube (cuboid): surface area S = 2(ab + bc + ac), volume V = abc * Sphere: surface area S = 4πr2, volume V = (4/3)r * Cylinder: surface area S = 2πr2 + 2rh, volumeV = πr2h * Cone: surface area S = πr2 + rl, volumeV = (1/3)πr2h (where l is the slant height) Preserve the original color order while reordering.\n3. Distance between centers of consecutive object must me 2.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 62}
{"id": "3d_modeller_19", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 19, "difficulty": "hard", "title": "Build a Ball on Table (Open-Ended)", "prompt": "# Build a Ball on Table (Open-Ended)\n\n## GOAL\nConstruct a table from a tabletop cube and four cylinder legs, then place a ball on the tabletop, computing positions so all parts are in contact.\n\n## STEPS\n1. Create a new scene named Ball on Table. Then, construct a 3D table and place a ball on the tabletop. The table consists of the following components: a cube named Tabletop, which serves as the reference point, with its position set to (0, 4.2, 0) and scaled to (4, 0.4, 4); four cylinders of equal size named TableLeg, each scaled to (0.5, 4, 0.5); and a sphere named Ball with default settings. These components constitute all the elements required to construct the Ball on Table scene. Your task is to determine their positions (except for the Tabletop, which is fixed as the reference). Each element should be connected to or tangent to the others.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 63}
{"id": "3d_modeller_20", "application": "3d_modeller", "application_name": "3D Modeller", "task_number": 20, "difficulty": "hard", "title": "Build a 3D Snowman", "prompt": "# Build a 3D Snowman\n\n## GOAL\nBuild a 3D snowman from scratch using multiple primitives (cylinder body, sphere head, torus eyes, cone nose, torus mouth, cube arms) with precise transforms.\n\n## STEPS\n1. Create a new scene named \"Snowman\".\n2. Construct a 3D snowman. First, add a cylinder and name it Body. Set its position to (0, 0.5, 0), using the default rotation, scale, color, and opacity. Second, add a sphere named Head and set its position to (0, 1.4, 0). Third, add a torus named Right Eye. Set its position to (0.45, 1.6, 0.2), rotation to (0, 90, 0), scale to (0.2, 0.2, 0.2), and color to black (#000000). Fourth, duplicate the Right Eye and rename it Left Eye. Set its position symmetrically along the Z-axis opposite to the right eye. Fifth, add a cone named Nose. Set its position to (0.5, 1.5, 0), rotation to (0, 0, -90), scale to (0.1, 0.2, 0.1), and color to yellow (#ffff00). Sixth, add another torus named Mouth. Set its position to (0.5, 1.3, 0), rotation to (0, 90, 0), scale to (0.3, 0.1, 0.1), and color to red (#ff0000). Seventh, add a cube named Right Arm. Set its position to (0, 0.5, 0.6), rotation to (-45, 0, 0), and scale to (0.3, 0.8, 0.3). Finally, duplicate the Right Arm and rename it Left Arm. Set its position symmetrically along the Z-axis opposite to the right arm, and apply the opposite rotation along the X-axis.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 64}
{"id": "flight_analyser_01", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 1, "difficulty": "easy", "title": "Count Visible Aircraft at a Specific Zoom Level", "prompt": "# Count Visible Aircraft at a Specific Zoom Level\n\n## GOAL\nCount how many aircraft icons are visible on screen after centering on an airport and zooming in.\n\n## STEPS\n1. Set the playback time to 14:00 UTC.\n2. Search for airport ICN to center the map on it.\n3. Zoom in exactly 3 steps.\n4. Count the total number of aircraft icons currently visible on the screen.\n\n# RESULT FORMAT\n```json\n{\n\"count\": <N>\n}\n```", "result_format": "{\n\"count\": <N>\n}", "ground_truth": "{\"count\":2}", "ground_truth_type": "text_answer", "source_page": 65}
{"id": "flight_analyser_02", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 2, "difficulty": "easy", "title": "Read Telemetry at a Specific Time", "prompt": "# Read Telemetry at a Specific Time\n\n## GOAL\nLook up a flight’s geo altitude and ground speed at a precise moment.\n\n## STEPS\n1. Set the playback time to 14:30 UTC.\n2. Pause the playback.\n3. Search for flight VVC5776 using the search bar.\n4. Open its telemetry data.\n5. Read and report the exact geo altitude and ground speed values.\n\n# RESULT FORMAT\n```json\n{\n\"geo_altitude\": \"<value>\",\n\"ground_speed\": \"<value>\"\n}\n```", "result_format": "{\n\"geo_altitude\": \"<value>\",\n\"ground_speed\": \"<value>\"\n}", "ground_truth": "{\"geo_altitude\":\"30,407 ft\",\"ground_speed\":\"386 kts\"}", "ground_truth_type": "text_answer", "source_page": 65}
{"id": "flight_analyser_03", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 3, "difficulty": "medium", "title": "Count Landings at an Airport Over a Time Window", "prompt": "# Count Landings at an Airport Over a Time Window\n\n## GOAL\nObserve an airport and count how many aircraft land during a specified period.\n\n## STEPS\n1. Set the playback time to 16:14 UTC.\n2. Navigate to Budapest Ferenc Liszt Airport (BUD).\n3. Observe the airport for 10 minutes of playback time.\n4. Count how many new aircraft land at the airport during this period.\n\n# RESULT FORMAT\n```json\n{\n\"count\": <N>\n}\n```", "result_format": "{\n\"count\": <N>\n}", "ground_truth": "{\"count\":5}", "ground_truth_type": "text_answer", "source_page": 66}
{"id": "flight_analyser_04", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 4, "difficulty": "medium", "title": "Count Aircraft Within a Circle at a Specific Time", "prompt": "# Count Aircraft Within a Circle at a Specific Time\n\n## GOAL\nCount how many aircraft are located inside a defined radius around an airport.\n\n## STEPS\n1. Set the playback time to 11:41 UTC.\n2. Search for Thiruvananthapuram International Airport (TRV) to center the map on it.\n3. Draw a 450 km radius circle centered on the airport.\n4. Count the number of aircraft located within this circle.\n\n# RESULT FORMAT\n```json\n{\n\"count\": <N>\n}\n```", "result_format": "{\n\"count\": <N>\n}", "ground_truth": "{\"count\":4}", "ground_truth_type": "text_answer", "source_page": 67}
{"id": "flight_analyser_05", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 5, "difficulty": "medium", "title": "Identify the First Departure After a Given Time", "prompt": "# Identify the First Departure After a Given Time\n\n## GOAL\nFind the first flight that departs from an airport after a specific time.\n\n## STEPS\n1. Set the playback time to 11:30 UTC.\n2. Zoom into John F. Kennedy International Airport (JFK) in New York.\n3. Observe departures from the airport.\n4. Identify the first flight that departs after this time.\n5. Report that flight’s callsign.\n\n# RESULT FORMAT\n```json\n{\n\"callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"callsign\": \"<callsign>\"\n}", "ground_truth": "{\"callsign\":\"AAL1535\"}", "ground_truth_type": "text_answer", "source_page": 67}
{"id": "flight_analyser_06", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 6, "difficulty": "medium", "title": "Determine a Border Crossing Time (Canada to US)", "prompt": "# Determine a Border Crossing Time (Canada to US)\n\n## GOAL\nTrack a flight and report the exact time it crosses the Canada-United States border.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Search for flight SAS907 using the search bar.\n3. Locate the flight on the map and begin tracking it forward in time.\n4. Report the UTC time at which it crosses the Canada-United States border.\n\n# RESULT FORMAT\n```json\n{\n\"crossing_time_utc\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"crossing_time_utc\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"crossing_time_utc\":\"16:35 UTC\"}", "ground_truth_type": "text_answer", "source_page": 68}
{"id": "flight_analyser_07", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 7, "difficulty": "medium", "title": "Identify the First Channel Crossing (UK to France)", "prompt": "# Identify the First Channel Crossing (UK to France)\n\n## GOAL\nFind the first flight to cross from England into France over the English Channel after a given time.\n\n## STEPS\n1. Set the playback time to 16:08 UTC.\n2. Zoom into the narrowest part of the English Channel.\n3. Identify all flights that were over England at 16:08 UTC.\n4. Observe which of those flights is the first to cross into France.\n5. Report that flight’s callsign.\n\n# RESULT FORMAT\n```json\n{\n\"callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"callsign\": \"<callsign>\"\n}", "ground_truth": "{\"callsign\":\"TOM7KW\"}", "ground_truth_type": "text_answer", "source_page": 69}
{"id": "flight_analyser_08", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 8, "difficulty": "medium", "title": "Find the Last Flight to Leave a Circle", "prompt": "# Find the Last Flight to Leave a Circle\n\n## GOAL\nDetermine which flight is the last to exit a radius around a given airport.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Navigate to Karlovy Vary Airport.\n3. Draw a 40 km radius circle around the airport.\n4. Identify all flights currently inside the circle.\n5. Track them forward in time and determine which flight leaves the circle last.\n6. Report that flight’s callsign.\n\n# RESULT FORMAT\n```json\n{\n\"callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"callsign\": \"<callsign>\"\n}", "ground_truth": "{\"callsign\":\"TVS5AD\"}", "ground_truth_type": "text_answer", "source_page": 69}
{"id": "flight_analyser_09", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 9, "difficulty": "medium", "title": "Count Airborne Aircraft Near an Airport", "prompt": "# Count Airborne Aircraft Near an Airport\n\n## GOAL\nCount how many aircraft within a radius of a given airport have an \"Airborne\" status.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Search for airport ORY to center the map on it.\n3. Zoom in exactly 3 steps.\n4. Within a 20 km radius of ORY, open the details of each aircraft in view.\n5. Count how many have an \"Airborne\" status at 16:00 UTC and collect their callsigns.\n\n# RESULT FORMAT\n```json\n{\n\"count\": <N>,\n\"callsigns\": [\"<CS1>\", \"<CS2>\", \"...\"]\n}\n```", "result_format": "{\n\"count\": <N>,\n\"callsigns\": [\"<CS1>\", \"<CS2>\", \"...\"]\n}", "ground_truth": "{\"count\":5,\"callsigns\":[\"CTM3813\",\"TVF3828\",\"EJU54MG\",\"TVF3124\",\"FMY8055\"]}", "ground_truth_type": "text_answer", "source_page": 70}
{"id": "flight_analyser_10", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 10, "difficulty": "medium", "title": "Check Whether a Flight Path Enters a Circle", "prompt": "# Check Whether a Flight Path Enters a Circle\n\n## GOAL\nwhether a specific flight’s path ever enters a defined radius around an airport.\n\n## STEPS\n1. Set the playback time to 11:15 UTC.\n2. Search for Missoula Montana Airport (MSO) to center the map on it.\n3. Draw a 500 km radius circle centered on the airport.\n4. Search for flight ASA1217 and identify the flight closest to ASA1217 at that moment whose track crosses the 500 km radius circle.\n5. Report the callsign of that closest flight.\n\n# RESULT FORMAT\n```json\n{\n\"callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"callsign\": \"<callsign>\"\n}", "ground_truth": "{\"callsign\":\"N213AL\"}", "ground_truth_type": "text_answer", "source_page": 71}
{"id": "flight_analyser_11", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 11, "difficulty": "medium", "title": "Detect a Border Crossing (Poland to Germany)", "prompt": "# Detect a Border Crossing (Poland to Germany)\n\n## GOAL\nFind the first aircraft whose track crosses from Poland into Germany after a given time.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Navigate to the Germany-Poland border region.\n3. Observe aircraft tracks crossing the border.\n4. Identify the first aircraft that crosses from Poland into Germany (not the reverse direction) and does not re-enter Polish airspace afterward.\n5. Confirm the crossing direction by comparing two successive positions one before and one after the border.\n6. Report that aircraft’s callsign.\n\n# RESULT FORMAT\n```json\n{\n\"callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"callsign\": \"<callsign>\"\n}", "ground_truth": "{\"callsign\":\"LOT335\"}", "ground_truth_type": "text_answer", "source_page": 71}
{"id": "flight_analyser_12", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 12, "difficulty": "hard", "title": "Count Airports Passed Along a Flight Path", "prompt": "# Count Airports Passed Along a Flight Path\n\n## GOAL\nTrack a flight over a period and count how many airports it passes within close proximity.\n\n## STEPS\n1. Set the playback time to 17:15 UTC.\n2. Search for flight SAS907 using the search bar and locate it on the map.\n3. Track the flight for the next 30 minutes of playback time.\n4. Count how many airports the flight passes within a 30 km radius and list their airport codes.\n\n# RESULT FORMAT\n```json\n{\n\"count\": <N>,\n\"airports\": [\"<airport1>\", \"<airport2>\", \"...\"]\n}\n```", "result_format": "{\n\"count\": <N>,\n\"airports\": [\"<airport1>\", \"<airport2>\", \"...\"]\n}", "ground_truth": "{\"count\":3,\"airports\":[\"RUT\",\"ALB\",\"SWF\"]}", "ground_truth_type": "text_answer", "source_page": 72}
{"id": "flight_analyser_13", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 13, "difficulty": "hard", "title": "Detect the First Stable East-to-West Ordering of Three Flights", "prompt": "# Detect the First Stable East-to-West Ordering of Three Flights\n\n## GOAL\nthe first time three aircraft reach a specified west-to-east ordering and keep it for a sustained period.\n\n## STEPS\n1. Set the playback time to 16:20 UTC.\n2. Search for flights AFR24NL, RYR61XN, and BEL0GA and track them forward in time.\n3. Find the first UTC minute when the west-to-east order of the flights becomes BEL0GA -> AFR24NL -> RYR61XN.\n4. Report that UTC time.\n\n# RESULT FORMAT\n```json\n{\n\"order_start_utc\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"order_start_utc\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"order_start_utc\":\"16:27 UTC\"}", "ground_truth_type": "text_answer", "source_page": 73}
{"id": "flight_analyser_14", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 14, "difficulty": "hard", "title": "Count Country Borders Crossed from Track History", "prompt": "# Count Country Borders Crossed from Track History\n\n## GOAL\nDetermine how many country borders a flight has crossed based on its visible track history.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Search for flight MSR726 using the search bar.\n3. Examine the flight’s visible track history (trajectory) as shown at the current moment.\n4. Count how many country borders the track crosses and list each country entered.\n\n# RESULT FORMAT\n```json\n{\n\"num_country_borders\": <N>,\n\"countries\": [\"<country1>\", \"<country2>\", \"...\"]\n}\n```", "result_format": "{\n\"num_country_borders\": <N>,\n\"countries\": [\"<country1>\", \"<country2>\", \"...\"]\n}", "ground_truth": "{\"num_country_borders\":4,\"countries\":[\"Belgium\",\"Germany\",\"Austria\",\"Slovenia\"]}", "ground_truth_type": "text_answer", "source_page": 73}
{"id": "flight_analyser_15", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 15, "difficulty": "hard", "title": "Find the Closest Aircraft and Its Overtake Time", "prompt": "# Find the Closest Aircraft and Its Overtake Time\n\n## GOAL\nLocate the aircraft nearest to a given flight and determine when it overtakes that flight.\n\n## STEPS\n1. Set the playback time to 07:50 UTC.\n2. Search for flight VOE25HV using the search bar.\n3. Identify the aircraft currently closest to VOE25HV.\n4. Track both aircraft forward in time.\n5. Report the closest aircraft’s callsign and the UTC time at which it overtakes (passes ahead of) VOE25HV.\n\n# RESULT FORMAT\n```json\n{\n\"closest_callsign\": \"<callsign>\",\n\"overtake_time_utc\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"closest_callsign\": \"<callsign>\",\n\"overtake_time_utc\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"closest_callsign\":\"N656FN\",\"overtake_time_utc\":\"07:54 UTC\"}", "ground_truth_type": "text_answer", "source_page": 74}
{"id": "flight_analyser_16", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 16, "difficulty": "hard", "title": "Find the Closest Aircraft Pair Near an Airport", "prompt": "# Find the Closest Aircraft Pair Near an Airport\n\n## GOAL\nAmong airborne aircraft near Zurich, find the two that are closest to each other.\n\n## STEPS\n1. Set the playback time to 16:00 UTC.\n2. Zoom into Zurich, Switzerland.\n3. Identify all aircraft within 40 km of the airport at the time. Exclude any aircraft on the ground in the airport area.\n4. Determine which two airborne aircraft are closest to each other.\n5. Report both callsigns. List the aircraft with the higher geographical altitude first.\n\n# RESULT FORMAT\n```json\n{\n\"aircraft_1_callsign\": \"<callsign>\",\n\"aircraft_2_callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"aircraft_1_callsign\": \"<callsign>\",\n\"aircraft_2_callsign\": \"<callsign>\"\n}", "ground_truth": "{\"aircraft_1_callsign\":\"AFR33SD\",\"aircraft_2_callsign\":\"SWR60L\"}", "ground_truth_type": "text_answer", "source_page": 75}
{"id": "flight_analyser_17", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 17, "difficulty": "hard", "title": "Detect the First Landing and First Departure from an Airport", "prompt": "# Detect the First Landing and First Departure from an Airport\n\n## GOAL\none airport over a short time window and identify the first aircraft that lands and the first aircraft that departs after the start time.\n\n## STEPS\n1. Set the playback time to 10:05 UTC.\n2. Find Vienna Airport (VIE).\n3. Observe aircraft activity for the next 10 minutes of playback time.\n4. Identify:\n- the first aircraft that departs from the airport after the start time.\n- the aircraft that is second to land at the airport after the start time.\n5. Report both callsigns and their UTC times.\n\n# RESULT FORMAT\n```json\n{\n\"second_landing_callsign\": \"<callsign>\",\n\"first_departure_callsign\": \"<callsign>\"\n}\n```", "result_format": "{\n\"second_landing_callsign\": \"<callsign>\",\n\"first_departure_callsign\": \"<callsign>\"\n}", "ground_truth": "{\"second_landing_callsign\":\"AUA87\",\"first_departure_callsign\":\"AUA7F\"}", "ground_truth_type": "text_answer", "source_page": 76}
{"id": "flight_analyser_18", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 18, "difficulty": "hard", "title": "Find the Previous Departure Before a Target Flight", "prompt": "# Find the Previous Departure Before a Target Flight\n\n## GOAL\ndepartures from Manchester Airport within a defined radius and identify which flight departed immediately before a given target flight.\n\n## STEPS\n1. Set the playback time to 14:22 UTC.\n2. Search for Manchester Airport (MAN).\n3. Draw a 10 km radius circle centered on the airport.\n4. Monitor departures from the airport.\n5. Locate the departure of flight EZY14GQ.\n6. Determine which flight departed from Manchester Airport immediately before EZY14GQ.\n7. Report:\n- the previous flight callsign,\n- the UTC time when the previous flight left the radius circle.\n\n# RESULT FORMAT\n```json\n{\n\"previous_callsign\": \"<callsign>\",\n\"previous_left_time\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"previous_callsign\": \"<callsign>\",\n\"previous_left_time\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"previous_callsign\":\"RUK6797\",\"previous_left_time\":\"14:25 UTC\"}", "ground_truth_type": "text_answer", "source_page": 77}
{"id": "flight_analyser_19", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 19, "difficulty": "hard", "title": "Identify the Last Remaining Flight Inside a Zone", "prompt": "# Identify the Last Remaining Flight Inside a Zone\n\n## GOAL\nseveral flights near an airport, determine which one is the last to remain inside a monitored radius.\n\n## STEPS\n1. Set the playback time to 16:21 UTC.\n2. Search for airport XCR and draw a 50 km radius circle around it.\n3. Locate flights SWR441R, UAE4PV, THY6FE, and S5BBC in the area.\n4. Track all four flights forward in time.\n5. Determine the moment when all of those flights left the circle.\n6. Report:\n- the UTC time when all 4 initial flights left the circle,\n- the callsign of the first new flight entering the circle,\n- the first UTC time when the circle contains 4 new flights.\n\n# RESULT FORMAT\n```json\n{\n\"initial_left_utc\": \"<HH:MM UTC>\",\n\"first_new_callsign\": \"<callsign>\",\n\"first_time_with_four_new_utc\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"initial_left_utc\": \"<HH:MM UTC>\",\n\"first_new_callsign\": \"<callsign>\",\n\"first_time_with_four_new_utc\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"initial_left_utc\":\"16:25 UTC\",\"first_new_callsign\":\"EJU79XU\",\"first_time_with_four_new_utc\":\"16:28 UTC\"}", "ground_truth_type": "text_answer", "source_page": 78}
{"id": "flight_analyser_20", "application": "flight_analyser", "application_name": "Flight Analyser", "task_number": 20, "difficulty": "hard", "title": "Track a Two-Stage Zone Transition for Two Flights", "prompt": "# Track a Two-Stage Zone Transition for Two Flights\n\n## GOAL\na multi-step temporal relationship between two flights around the same airport.\n\n## STEPS\n1. Set the playback time to 11:43 UTC.\n2. Search for the target airport, Ostend-Bruges International Airport (OST).\n3. Identify the two approaching flights that will be the first new flights to enter a 35 km radius zone around the airport.\n4. Find the first UTC time when exactly one of the two flights enters the 35 km zone around the airport.\n5. Continue tracking until both flights are outside the circle.\n6. Report:\n- the first time either of the two planes enters the zone,\n- which flight is the second to be inside the zone,\n- the UTC time when both flights finally exit the zone.\n\n# RESULT FORMAT\n```json\n{\n\"any_enters_utc\": \"<HH:MM UTC>\",\n\"last_inside_callsign\": \"<callsign>\",\n\"final_exit_time_utc\": \"<HH:MM UTC>\"\n}\n```", "result_format": "{\n\"any_enters_utc\": \"<HH:MM UTC>\",\n\"last_inside_callsign\": \"<callsign>\",\n\"final_exit_time_utc\": \"<HH:MM UTC>\"\n}", "ground_truth": "{\"any_enters_utc\":\"11:44 UTC\",\"last_inside_callsign\":\"RYR496K\",\"final_exit_time_utc\":\"11:50 UTC\"}", "ground_truth_type": "text_answer", "source_page": 79}
{"id": "circuit_designer_01", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 1, "difficulty": "easy", "title": "Build a NOT Gate Using a NAND Gate", "prompt": "# Build a NOT Gate Using a NAND Gate\n\n## GOAL\nImplement a logical NOT function using only a universal NAND gate.\n\n## STEPS\n1. Add the following components:\n- One input switch: A\n- One output switch: Y\n- Logical gates as needed\n2. Wiring:\n- Make a NOT gate using only NAND gate.\n3. Define output:\n- The output of the scheme must be the circuit output Y.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 80}
{"id": "circuit_designer_02", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 2, "difficulty": "easy", "title": "Build a 3-Input Odd-Parity Circuit", "prompt": "# Build a 3-Input Odd-Parity Circuit\n\n## GOAL\nConstruct a circuit with three binary inputs (A, B, C) and one output (Y) such that: - Y = 1 when an odd number of inputs are 1 - Y = 0 when an even number of inputs are 1\n\n## STEPS\n1. Add the following components:\n- Three input switches: A, B, C\n- Two XOR gates\n- One output switch: Y\n2. Wiring:\n- Connect A and B to the inputs of the first XOR gate.\n- Connect the output of the first XOR gate and C to the inputs of the second XOR gate.\n3. Define output:\n- The output of the second XOR gate must be the circuit output Y.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 80}
{"id": "circuit_designer_03", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 3, "difficulty": "medium", "title": "Build a Full-Adder Using Logic Gates", "prompt": "# Build a Full-Adder Using Logic Gates\n\n## GOAL\nConstruct a circuit that computes the 1-bit full- adder functions: SUM = A XOR B XOR CIN COUT = (A AND B) OR (A AND CIN) OR (B AND CIN)\n\n## STEPS\n1. Add the following components:\n- Three input switches: A, B, CIN\n- Two output switches: SUM and COUT\n- Logical gates as needed\n2. Build the circuit so that:\n- SUM is computed as the XOR of A, B, and CIN\n- COUT is computed as the carry bit of the full adder\n3. Define outputs:\n- The output of the second XOR gate must be the circuit output SUM.\n- The output of the second OR gate must be the circuit output COUT.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 81}
{"id": "circuit_designer_04", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 4, "difficulty": "medium", "title": "Build a 1-Bit ALU With 2 Operations", "prompt": "# Build a 1-Bit ALU With 2 Operations\n\n## GOAL\nConstruct a simple 1-bit ALU that takes two data inputs A, B and one operation-select bit OP, then produces one output RESULT. The ALU must support two operations OR and AND\n\n## STEPS\n1. Add three input switches: A, B and OP\n2. Add one output switch: RESULT\n3. Build both candidate operation wires:\n- W_AND = A AND B\n- W_OR = A OR B\n4. Use OP to select which operation appears at RESULT:\n- When OP = 0, RESULT = W_AND\n- When OP = 1, RESULT = W_OR\n5. Verification:\n- For OP = 0, the circuit must behave like an AND gate.\n- For OP = 1, the circuit must behave like an OR gate.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 81}
{"id": "circuit_designer_05", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 5, "difficulty": "medium", "title": "Build a BCD-to-7-Segment Decoder for Segment a", "prompt": "# Build a BCD-to-7-Segment Decoder for Segment a\n\n## GOAL\nImplement a circuit that takes a BCD input D = (D3, D2, D1, D0) and drives output SEG_A high when segment a of a 7-segment display must be lit. Use the following Boolean expression: SEG_A = D3 + D1 + (D2 AND D0) + (NOT D2 AND NOT D0)\n\n## STEPS\n1. Add the following components:\n- Four input switches: D3, D2, D1, D0\n- One output switch: SEG_A\n- Logical gates as needed\n2. Build the circuit:\n- Treat D3 as the most significant bit.\n- Implement ‘SEG_A‘ exactly as given in the goal equation.\n- Use NOT gates where negated signals are required.\n- Combine the terms using the necessary AND and OR gates.\n3. Define the output:\n- The single circuit output must be SEG_A.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 82}
{"id": "circuit_designer_06", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 6, "difficulty": "medium", "title": "Build a 1-to-4 Demultiplexer", "prompt": "# Build a 1-to-4 Demultiplexer\n\n## GOAL\nImplement a circuit with one data input D, two select bits S1 and S0, and four outputs Y0..Y3, such that D is routed to exactly one output chosen by (S1, S0) while the others stay low: Y0 = (NOT S1 AND NOT S0 AND D), Y1 = (NOT S1 AND S0 AND D), Y2 = (S1 AND NOT S0 AND D), Y3 = (S1 AND S0 AND D)\n\n## STEPS\n1. Add the following components:\n- One data input switch: D\n- Two select input switches: S1, S0\n- Four output switches: Y0, Y1, Y2, Y3\n- Logical gates as needed\n2. Build the circuit so that:\n- For each Yi, build the 3-input AND of D and the select pattern for i.\n- Exactly one Yi can be 1 at any time, and only when D = 1.\n3. Define outputs:\n- The four circuit outputs must be Y0, Y1, Y2, Y3.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 82}
{"id": "circuit_designer_07", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 7, "difficulty": "medium", "title": "Build a 1-Bit Comparator with Three Outputs", "prompt": "# Build a 1-Bit Comparator with Three Outputs\n\n## GOAL\nConstruct a circuit that compares two 1-bit inputs A and B and produces three outputs: A_GT_B = 1 when A > B A_EQ_B = 1 when A = B A_LT_B = 1 when A < B\n\n## STEPS\n1. Add the following components:\n- Two input switches: A and B\n- Two NOT gates\n- Two AND gates\n- One XNOR gate\n- Three output switches: A_GT_B, A_EQ_B, and A_LT_B\n2. Wiring:\n- Connect input B to the first NOT gate.\n- Connect input A and the output of the first NOT gate to the inputs of the first AND gate.\n- Connect input A to the second NOT gate.\n- Connect the output of the second NOT gate and input B to the inputs of the second AND gate.\n- Connect inputs A and B to the inputs of the XNOR gate.\n3. Define outputs:\n- The output of the first AND gate must be the circuit output A_GT_B.\n- The output of the second AND gate must be the circuit output A_LT_B.\n- The output of the XNOR gate must be the circuit output A_EQ_B.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 83}
{"id": "circuit_designer_08", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 8, "difficulty": "medium", "title": "Inverting Summing Amplifier", "prompt": "# Inverting Summing Amplifier\n\n## GOAL\nConstruct an inverting summing amplifier using an ideal op-amp and measure its output voltage.\n\n## STEPS\n1. Add and configure components:\n- Add an Ideal Op-Amp.\n- Add a 1-terminal DC Voltage Source (V1) and set it to 1.5 V.\n- Add a Resistor (R1) and set its resistance to 2 k ohms.\n- Add a 1-terminal DC Voltage Source (V2) and set it to -3.0 V.\n- Add a Resistor (R2) and set its resistance to 5 k ohms.\n- Add a Feedback Resistor (Rf) and set its resistance to 10 k ohms.\n- Add a Ground connection.\n2. Wiring:\n- Connect the non-inverting (+) input of the Op-Amp directly to Ground.\n- Connect V1 to one end of R1.\n- Connect V2 to one end of R2.\n- Connect the free ends of both R1 and R2 to the inverting (-) input of the Op-Amp.\n- Connect Rf between the Op-Amp’s output terminal and its inverting (-) input terminal.\n3. Once the circuit reaches a steady state, hover your mouse over the Op-Amp and report the exact Output Voltage (Vout) displayed in the information box at the bottom right corner of the screen.\n\n# RESULT FORMAT\n```json\n{\n\"opamp_output_voltage\": \"value\"\n}\n```", "result_format": "{\n\"opamp_output_voltage\": \"value\"\n}", "ground_truth": "{\"opamp_output_voltage\":\"-1.5 V\"}", "ground_truth_type": "text_answer", "source_page": 84}
{"id": "circuit_designer_09", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 9, "difficulty": "medium", "title": "Wheatstone Bridge Voltage Measurement", "prompt": "# Wheatstone Bridge Voltage Measurement\n\n## GOAL\nConstruct a Wheatstone bridge circuit and measure the voltage drop across one of the bridge resistors.\n\n## STEPS\n1. Add and configure components:\n- Add a 2-terminal DC Voltage Source and set its voltage to 10 V.\n- Add a Resistor (R1) and set its resistance to 1 k ohms.\n- Add a Resistor (R2) and set its resistance to 2.2 k ohms.\n- Add a Resistor (R3) and set its resistance to 3.3 k ohms.\n- Add a Resistor (R4) and set its resistance to 4.7 k ohms.\n- Add a Ground connection.\n2. Wiring:\n- Ground the negative terminal of the voltage source.\n- Connect one end of R1 to the positive terminal of the voltage source.\n- Connect one end of R2 to the positive terminal of the voltage source.\n- Connect the free end of R1 to one end of R3.\n- Connect the free end of R2 to one end of R4.\n- Connect the free ends of R3 and R4 together and to Ground.\n3. Once the circuit reaches a steady state, hover your mouse over Resistor R4 (the 4.7 k ohm resistor) and report the exact Voltage Drop (Vd) displayed in the information box at the bottom right corner of the screen.\n\n# RESULT FORMAT\n```json\n{\n\"voltage_drop_R4\": \"value\"\n}\n```", "result_format": "{\n\"voltage_drop_R4\": \"value\"\n}", "ground_truth": "{\"voltage_drop_R4\":\"6.812 V\"}", "ground_truth_type": "text_answer", "source_page": 85}
{"id": "circuit_designer_10", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 10, "difficulty": "medium", "title": "RLC DC Steady-State Trick", "prompt": "# RLC DC Steady-State Trick\n\n## GOAL\nConstruct an RLC circuit driven by DC and measure the capacitor voltage at steady state.\n\n## STEPS\n1. Add and configure components:\n- Add a 2-terminal DC Voltage Source and set its voltage to 24 V.\n- Add a Resistor (R1) and set its resistance to 1 k ohms.\n- Add an Inductor and set its inductance to 100 mH.\n- Add a Resistor (R2) and set its resistance to 2.2 k ohms.\n- Add a Capacitor and set its capacitance to 10 uF.\n- Add a Resistor (R3) and set its resistance to 4.7 k ohms.\n- Add a Ground connection.\n2. Wiring:\n- Ground the negative terminal of the voltage source.\n- Connect one end of R1 to the positive terminal of the source. Call the other end of R1 \"Node A\".\n- From Node A, create a path to Ground containing the Inductor in series with R2.\n- From Node A, create a second parallel path to Ground containing the Capacitor in series with R3.\n3. Hover your mouse over the Capacitor. Wait for the simulation to charge the capacitor and reach a complete DC steady state (capacitor current displayed in the information box is less than 20 nA) and report the exact Voltage Drop (Vd) displayed in the information box at the bottom right corner of the screen.\n\n# RESULT FORMAT\n```json\n{\n\"capacitor_voltage_drop\": \"value\"\n}\n```", "result_format": "{\n\"capacitor_voltage_drop\": \"value\"\n}", "ground_truth": "{\"capacitor_voltage_drop\":\"16.5 V\"}", "ground_truth_type": "text_answer", "source_page": 86}
{"id": "circuit_designer_11", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 11, "difficulty": "medium", "title": "555 Timer Astable: Output Frequency", "prompt": "# 555 Timer Astable: Output Frequency\n\n## GOAL\nConfigure a 555 timer in astable (free-running) mode and measure the exact output frequency and duty cycle on the oscilloscope.\n\n## STEPS\n1. Add and configure components:\n- Add a 555 Timer chip.\n- Add a Voltage Source 1-terminal (Vcc) and set it to 5 V.\n- Add a Resistor (Ra) and set its resistance to 10 k ohms.\n- Add a Resistor (Rb) and set its resistance to 22 k ohms.\n- Add a Capacitor (Ct) and set its capacitance to 100 nF.\n- Add a Ground connection.\n2. Wiring:\n- Connect Vcc to Pin 8 (V+) of the 555.\n- Connect Pin 1 (GND) of the 555 to Ground.\n- Connect Pin 4 (RESET) of the 555 directly to Vcc (keep reset inactive).\n- Connect Ra between Vcc and Pin 7 (DISCH).\n- Connect Rb between Pin 7 (DISCH) and Pin 6 (THRESH).\n- Connect Pin 6 (THRESH) directly to Pin 2 (TRIG).\n- Connect Ct between Pin 6 (THRESH) and Ground.\n3. Right-click Pin 3 (OUT) of the 555 and select \"View in New Scope\". In the scope’s properties, enable BOTH \"Show Frequency\" AND \"Show Duty Cycle\". Let the simulation run for at least 30 output cycles to let the measurements settle, then report the exact Frequency and Duty Cycle values displayed on the scope.\n\n# RESULT FORMAT\n```json\n{\n\"output_frequency\": \"value\",\n\"duty_cycle\": \"value\"\n}\n```", "result_format": "{\n\"output_frequency\": \"value\",\n\"duty_cycle\": \"value\"\n}", "ground_truth": "{\"output_frequency\":\"260.417 Hz\",\"duty_cycle\":\"58%\"}", "ground_truth_type": "text_answer", "source_page": 87}
{"id": "circuit_designer_12", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 12, "difficulty": "hard", "title": "Build a 4-bit Monotonic Sequence Detector", "prompt": "# Build a 4-bit Monotonic Sequence Detector\n\n## GOAL\nConstruct a combinational circuit with four binary inputs A, B, C, D (read left-to-right as a sequence in that order) and one output Y, such that Y = 1 if and only if the bit sequence A, B, C, D is non- decreasing i.e., a 1 is never followed by a 0 anywhere in the sequence.\n\n## STEPS\n1. Add the following components:\n- Four input switches: A, B, C, D\n- One output switch: Y\n- AND, OR, NOT, NAND, NOR, XOR, XNOR gates as needed\n2. Build the circuit so that:\n- Y must produce the correct value for all 16 possible input combinations.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 87}
{"id": "circuit_designer_13", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 13, "difficulty": "hard", "title": "Build a 2-bit Binary Squarer", "prompt": "# Build a 2-bit Binary Squarer\n\n## GOAL\nConstruct a combinational circuit with two binary inputs A1, A0 (A1 the most significant bit) representing the unsigned integer N = 2 * A1 + A0, and four binary outputs P3, P2, P1, P0 (P3 the most significant bit) representing the unsigned binary value of N^2, such that for every one of the 4 input combinations: N^2 = 8 * P3 + 4 * P2 + 2 * P1 + P0\n\n## STEPS\n1. Add the following components:\n- Two input switches: A1, A0\n- Four output switches: P3, P2, P1, P0\n- AND, OR, NOT, NAND, NOR, XOR, XNOR gates as needed\n2. The circuit must produce correct values for all 4 input combinations.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 88}
{"id": "circuit_designer_14", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 14, "difficulty": "hard", "title": "Build a 4-to-2 Priority Encoder with Valid Flag", "prompt": "# Build a 4-to-2 Priority Encoder with Valid Flag\n\n## GOAL\nConstruct a combinational circuit with four request inputs R3, R2, R1, R0 (R3 is the highest priority) and three outputs Y1, Y0, V such that: - V = 1 if at least one request is high; V = 0 otherwise. - When V = 1, (Y1, Y0) is the binary index of the highest-priority asserted input: R3 high (Y1, Y0) = (1, 1) R3 low, R2 high (1, 0) R3 low, R2 low, R1 high (0, 1) only R0 high (0, 0) - When V = 0, (Y1, Y0) is don’t-care. Implement the outputs using these expressions (priority is enforced by masking lower-priority requests with NOT of higher-priority ones): Y1 = R3 OR (NOT R3 AND R2) = R3 OR R2 Y0 = R3 OR (NOT R2 AND R1) V = R3 OR R2 OR R1 OR R0 Outputs must be correct for all 16 input combinations.\n\n## STEPS\n1. Add the following components:\n- Four input switches: R3, R2, R1, R0\n- Three output switches: Y1, Y0, V\n- AND, OR, NOT, NAND, NOR, XOR, XNOR gates as needed\n2. Build Y1, Y0, V exactly as given above.\n3. Define outputs:\n- The three circuit outputs must be Y1, Y0, V.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 88}
{"id": "circuit_designer_15", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 15, "difficulty": "hard", "title": "Build a 3-Input Majority and Minority Detector", "prompt": "# Build a 3-Input Majority and Minority Detector\n\n## GOAL\nConstruct a combinational circuit with three binary inputs A, B, C and two outputs MAJ and MIN such that: - MAJ = 1 when at least two of the three inputs are 1 - MIN = 1 when at least two of the three inputs are 0 Exactly one of MAJ and MIN is high for every input combination, and they are logical complements. Implement the outputs using these expressions, sharing the three pairwise-AND terms across both outputs: T_AB = A AND B T_AC = A AND C T_BC = B AND C MAJ = T_AB OR T_AC OR T_BC MIN = (NOT T_AB) AND (NOT T_AC) AND (NOT T_BC) The three pairwise-AND wires (T_AB, T_AC, T_BC) must each be computed by a single AND gate and fan out to both the MAJ OR-tree and the MIN NOT/AND-tree.\n\n## STEPS\n1. Add the following components:\n- Three input switches: A, B, C\n- Two output switches: MAJ, MIN\n- AND, OR, NOT, NAND, NOR, XOR, XNOR gates as needed\n2. Build T_AB, T_AC, T_BC exactly as given. Then build MAJ and MIN by reusing those three wires.\n3. Define outputs:\n- The two circuit outputs must be MAJ and MIN.\n- Outputs must be correct for all 8 input combinations.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 89}
{"id": "circuit_designer_16", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 16, "difficulty": "hard", "title": "BJT Differential Pair with Resistor Loads", "prompt": "# BJT Differential Pair with Resistor Loads\n\n## GOAL\nBuild a BJT differential pair with resistor collector loads and an NPN current-mirror tail. Apply a small differential input and measure the peak-to-peak output voltage at the collector of the right-side transistor.\n\n## STEPS\n1. Add and configure components:\n- Add three supply nodes: Vcc = +10 V, Vee = -10 V, and Ground.\n- Add two default NPN transistors for the input pair: Q1 and Q2.\n- Add two collector-load resistors:\n- Rc1 = 10 k ohms\n- Rc2 = 10 k ohms\n- Add two default NPN transistors for the tail current mirror: Q5 and Q6.\n- Add a reference resistor Rref and set its resistance to 19 k ohms.\n- Add a 1-terminal A/C Voltage Source (Vin) and set: Max Voltage = 1 mV, Frequency = 1000 Hz, DC offset = 0 V, phase = 0 deg.\n2. Wiring:\n- Connect the emitters of Q1 and Q2 together. Call this node TAIL.\n- Connect Rc1 from Vcc to the collector of Q1.\n- Connect Rc2 from Vcc to the collector of Q2. Call the collector of Q2 OUT.\n- Connect the emitters of Q5 and Q6 to Vee.\n- Diode-connect Q5 by shorting its collector to its base.\n- Connect Rref from Vcc to the collector/base node of Q5.\n- Connect the base of Q6 to the base of Q5.\n- Connect the collector of Q6 to the TAIL node.\n- Connect Vin to the base of Q1.\n- Connect the base of Q2 directly to Ground.\n3. Measurement:\n- Run the simulation.\n- Confirm that the DC operating point places OUT between the rails, approximately around +5 V DC.\n- Scope the OUT node.\n- In steady state, read the Peak-to-Peak value shown in the scope overlay.\n- Report the measured peak-to-peak AC voltage at OUT.\n\n# RESULT FORMAT\n```json\n{\n\"diff_pair_output_peak_to_peak\": \"value\"\n}\n```", "result_format": "{\n\"diff_pair_output_peak_to_peak\": \"value\"\n}", "ground_truth": "{\"diff_pair_output_peak_to_peak\":\"191.615 mV\"}", "ground_truth_type": "text_answer", "source_page": 90}
{"id": "circuit_designer_17", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 17, "difficulty": "hard", "title": "Build a 3-bit Two’s-Complement Negator with Overflow Flag", "prompt": "# Build a 3-bit Two’s-Complement Negator with Overflow Flag\n\n## GOAL\nConstruct a combinational circuit that takes a 3-bit two’s-complement signed integer A = (A2, A1, A0), where A2 is the sign bit and the represented value is val(A) = -4 * A2 + 2 * A1 + A0 (range: -4 .. +3) and produces: - A 3-bit two’s-complement output Y = (Y2, Y1, Y0) such that val(Y) = -val(A) whenever -val(A) is representable in 3-bit two’s complement. - A 1-bit overflow flag OVF that is 1 if and only if A = 100 (i.e. val(A) = -4), because +4 cannot be represented in 3-bit two’s complement. When OVF = 1, the value of Y is unconstrained (don’t-care). The negation must be computed as Y = (NOT A) + 1 using bitwise inversion followed by a 3-bit ripple- carry incrementer.\n\n## STEPS\n1. Add the following components:\n- Three input switches: A2, A1, A0\n- Four output switches: Y2, Y1, Y0, OVF\n- AND, OR, NOT, NAND, NOR, XOR, XNOR gates as needed\n2. Build the circuit so that:\n- First stage: compute B0 = NOT A0, B1 = NOT A1, B2 = NOT A2 using NOT gates.\n- Second stage: ripple-carry increment B by 1 using three half-adders chained by carry:\n- Bit 0: Y0 = B0 XOR 1 = NOT B0 (equivalently, Y0 = A0); carry C1 = B0 AND 1 = B0.\n- Bit 1: Y1 = B1 XOR C1; carry C2 = B1 AND C1.\n- Bit 2: Y2 = B2 XOR C2. (The final carry-out is discarded it does not feed OVF.)\n- Overflow: OVF = A2 AND (NOT A1) AND (NOT A0). This is the only input pattern for which the negation overflows.\n- Y must produce the correct value for all 7 non- overflow input combinations, and OVF must be correct for all 8 input combinations.\n3. Define outputs:\n- The four circuit outputs must be Y2, Y1, Y0, OVF.\n\n# RESULT FORMAT\n```json\n{\"answer\": \"done\"}\n```", "result_format": "{\"answer\": \"done\"}", "ground_truth": null, "ground_truth_type": "application_state", "source_page": 91}
{"id": "circuit_designer_18", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 18, "difficulty": "hard", "title": "4-Bit Asynchronous Ripple Counter: MSB Output Frequency", "prompt": "# 4-Bit Asynchronous Ripple Counter: MSB Output Frequency\n\n## GOAL\nBuild a 4-bit asynchronous (ripple) counter from JK flip-flops driven by a 1 kHz clock, and measure the output frequency at the MSB (Q3). Each flip- flop divides its clock input by 2, so a 4-bit ripple counter divides the master clock by 2^4 = 16.\n\n## STEPS\n1. Add and configure components:\n- Add a Clock source (Inputs/Outputs menu Clock, or use a Square-wave Voltage Source). Set: frequency = 1000 Hz, duty cycle = 50%, high level = 5 V, low level = 0 V.\n- Add four JK Flip-Flops (Chips menu JK Flip-Flop). Label them FF0 (LSB) through FF3 (MSB).\n- Add a Logic Input set permanently to high (5 V) used as a constant logic-1 source for the J and K pins.\n- Add a Logic Output for visualising Q3.\n- Add Ground.\n2. Wiring (asynchronous toggle counter):\n- Tie BOTH J and K of every flip-flop (FF0-FF3) to the constant-high Logic Input this configures each one to toggle on every clock edge.\n- Connect the Clock source to the CLK input of FF0.\n- Connect Q (output) of FF0 CLK of FF1.\n- Connect Q of FF1 CLK of FF2.\n- Connect Q of FF2 CLK of FF3.\n- Connect Q of FF3 the Logic Output indicator.\n- Leave the !Q (inverted) outputs unconnected, and leave any RESET/SET pins unconnected (or tie them to the inactive level if the chip block exposes them).\n3. Click RUN.\n4. Right-click the wire at Q3 (the output of FF3) View in New Scope. In the scope’s properties, enable \"Show Frequency\". Let the simulation run for at least 1 second of simulated time so the counter cycles through all 16 states many times and the frequency overlay locks in.\n5. Report the frequency value displayed on the scope at Q3.\n\n# RESULT FORMAT\n```json\nThe value must be a string containing the numeric\nfrequency in Hz with units, e.g.\n\"62.5 Hz\".\nDo NOT\nemit the literal placeholder text \"value\".\nDo NOT\nomit units.\nRound to 1 decimal place if needed.\n“‘json\n{\n\"msb_output_frequency\":\n\"<frequency>\"\n}\n```", "result_format": "The value must be a string containing the numeric\nfrequency in Hz with units, e.g.\n\"62.5 Hz\".\nDo NOT\nemit the literal placeholder text \"value\".\nDo NOT\nomit units.\nRound to 1 decimal place if needed.\n“‘json\n{\n\"msb_output_frequency\":\n\"<frequency>\"\n}", "ground_truth": "{\"msb_output_frequency\":\"62.5 Hz\"}", "ground_truth_type": "text_answer", "source_page": 92}
{"id": "circuit_designer_19", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 19, "difficulty": "hard", "title": "Common-Emitter BJT Amplifier: Mid-Band Peak-to- Peak Output", "prompt": "# Common-Emitter BJT Amplifier: Mid-Band Peak-to- Peak Output\n\n## GOAL\nBuild a classic common-emitter BJT voltage amplifier with a voltage-divider bias network and a bypassed emitter resistor, and measure the peak-to-peak output voltage at the collector for a small AC input.\n\n## STEPS\n1. Add and configure components:\n- Add a Voltage Source 1-terminal (Vcc) and set it to 12 V.\n- Add a Transistor (bipolar, NPN). Leave default model parameters.\n- Add a Resistor (R1) and set it to 47 k ohms (top bias).\n- Add a Resistor (R2) and set it to 10 k ohms (bottom bias).\n- Add a Resistor (Rc) and set it to 3.3 k ohms (collector).\n- Add a Resistor (Re) and set it to 1 k ohms (emitter).\n- Add a Capacitor (Cin) and set it to 1 uF (input coupling).\n- Add a Capacitor (Ce) and set it to 100 uF (emitter bypass).\n- Add a Capacitor (Cout) and set it to 1 uF (output coupling).\n- Add a Resistor (R_load) and set it to 10 k ohms.\n- Add a 1-terminal A/C Voltage Source (Vin) and set: Max Voltage = 10 mV, Frequency = 10 kHz, DC offset = 0, phase = 0.\n- Add a Ground connection.\n2. Wiring:\n- Connect Vcc to the top of R1 and to the top of Rc.\n- Connect the bottom of R1 and the top of R2 together call this node \"Base_Bias\". Connect the transistor’s base to Base_Bias.\n- Connect the bottom of R2 to Ground.\n- Connect the bottom of Rc to the transistor’s collector. Call this node \"Collector\".\n- Connect the transistor’s emitter to the top of Re. Call this node \"Emitter\".\n- Connect the bottom of Re to Ground.\n- Connect Ce between Emitter and Ground (parallel with Re).\n- Connect Cin between Vin and Base_Bias.\n- Connect Cout between Collector and one end of R_load. Call the other end of R_load \"Node OUT\".\n- Connect Node OUT to Ground through R_load (i.e., R_load is between Cout and Ground, and Node OUT is the junction with Cout).\n3. Right-click the wire at Node OUT (the load side of Cout) and select \"View in New Scope\". In the scope’s properties, enable \"Show Peak-to-Peak\". Let the simulation run for at least 50 input cycles so all coupling capacitors fully charge and the amplifier settles into its operating point, then report the exact Peak-to-Peak value displayed on the scope.\n\n# RESULT FORMAT\n```json\n{\n\"amplifier_output_peak_to_peak\": \"value\"\n}\n```", "result_format": "{\n\"amplifier_output_peak_to_peak\": \"value\"\n}", "ground_truth": "{\"amplifier_output_peak_to_peak\":\"2.605 V\"}", "ground_truth_type": "text_answer", "source_page": 93}
{"id": "circuit_designer_20", "application": "circuit_designer", "application_name": "Circuit Designer", "task_number": 20, "difficulty": "hard", "title": "Wien Bridge Oscillator with Diode AGC", "prompt": "# Wien Bridge Oscillator with Diode AGC\n\n## GOAL\nBuild a Wien-bridge oscillator using an op-amp with positive-feedback RC network and a negative-feedback gain network. Use anti-parallel diodes for soft amplitude limiting (automatic gain control), let the loop self-start from a small initial-condition seed, and report both the steady-state oscillation frequency and the peak-to-peak output voltage at the op-amp output.\n\n## STEPS\n1. Add and configure components:\n- Add an Op Amp (use the default model, finite-GBW, rails at ±15 V).\n- Positive-feedback (Wien) network:\n- Resistor Rs = 10 k ohms (series arm).\n- Capacitor Cs = 10 nF (series arm).\n- Resistor Rp = 10 k ohms (parallel arm).\n- Capacitor Cp = 10 nF (parallel arm).\n- Negative-feedback (gain-setting) network with diode AGC:\n- Resistor Rg = 10 k ohms (from input to ground).\n- Resistor Rf_a = 12 k ohms (first half of the feedback resistor).\n- Resistor Rf_b = 10 k ohms (second half of the feedback resistor; the diodes shunt this part as the swing grows).\n- Two anti-parallel diodes (default Si model), each connected across Rf_b.\n- Add Ground connections.\n2. Wiring:\n- Positive-feedback network (between op-amp OUTPUT and the + input):\n- Rs from op-amp OUTPUT to a node \"Node_S\".\n- Cs from Node_S to the op-amp + input (call this node \"Node_Plus\").\n- Rp from Node_Plus to Ground.\n- Cp from Node_Plus to Ground (in parallel with Rp).\n- Negative-feedback network:\n- Rg from the op-amp input to Ground.\n- Rf_a from the op-amp input to a midpoint node \"Node_FB_Mid\".\n- Rf_b from Node_FB_Mid to op-amp OUTPUT.\n- Diode D1 from Node_FB_Mid (anode) to op-amp OUTPUT (cathode) i.e., across Rf_b.\n- Diode D2 from op-amp OUTPUT (anode) to Node_FB_Mid (cathode) i.e., the anti-parallel partner of D1, also across Rf_b.\n3. Seed start-up:\n- Right-click Cp (the cap in the parallel arm) Edit set Initial Voltage = 0.1 V (or higher if needed). CircuitJS1’s components are noiseless, so without a seed the oscillator will not spontaneously start.\n4. Run the simulation.\n5. Right-click the op-amp OUTPUT terminal node and select \"View in New Scope\". In the scope’s properties, enable BOTH \"Show Frequency\" AND \"Show Peak-to-Peak\". Let the simulation run long enough for the amplitude to grow into the diode-clamped steady state (~50-100 ms simulated). The frequency overlay needs at least 5-10 cycles visible per screen to lock in if it reads blank, zoom the scope’s TIME axis (not the voltage axis) until cycles are clearly resolved, then wait for the readout to stabilise.\n6. Report the exact Frequency and Peak-to-Peak values displayed on the scope.\n\n# RESULT FORMAT\n```json\n{\n\"oscillation_frequency\": \"value\",\n\"output_peak_to_peak\": \"value\"\n}\n```", "result_format": "{\n\"oscillation_frequency\": \"value\",\n\"output_peak_to_peak\": \"value\"\n}", "ground_truth": "{\"oscillation_frequency\":\"1.589 kHz\",\"output_peak_to_peak\":\"1.422 V\"}", "ground_truth_type": "text_answer", "source_page": 94}