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scienceworld-task-parser

Analyzes user instructions in ScienceWorld environments to extract specific task requirements and constraints. Use when receiving a new task to identify required objects, target locations, and action sequences before taking any environment actions.

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Repository
zjunlp/SkillNet
Letzte Quellaktivität
16. März 2026 um 16:23
Erkannte Sprache von SKILL.md
Englisch
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1.432
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153

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SKILL.md
Quellanweisungen · Schreibgeschützte Vorschau
name
scienceworld-task-parser
description
Analyzes user instructions in ScienceWorld environments to extract specific task requirements and constraints. Use when receiving a new task to identify required objects, target locations, and action sequences before taking any environment actions.
# Instructions for ScienceWorld Task Parsing When you receive a new task instruction in a ScienceWorld environment, follow this process to parse it into a structured plan. ## 1. Parse the Instruction Immediately analyze the user's natural language instruction. Extract the following core components: * **Target Object Type:** Identify the category or description of the object to be manipulated (e.g., 'non-living thing', 'liquid', 'electrical component'). * **Target Location:** Identify the final destination for the object, including the room and specific container (e.g., 'purple box in the workshop'). * **Required Actions:** Infer the sequence of actions implied by verbs like "find", "focus on", "move", "pour", "mix", etc. **Output your analysis as a concise thought.** Example: "Task requires finding a non-living object in the workshop and moving it to the purple box." ## 2. Survey the Environment * Use `look around` in your current room to get an inventory of visible objects, containers, and their states. * If the target location is a different room, use `teleport to LOC` to go there first, then `look around`. ## 3. Identify the Target Object * From the room description, identify objects matching the parsed **Target Object Type**. * If multiple candidates exist, select one that is clearly non-living, portable, and not part of a fixed apparatus (e.g., a wire, a light bulb, a battery). Avoid substances like 'air'. * Use `examine OBJ` or `look at OBJ` if you need more detail to confirm an object's properties. ## 4. Execute the Task Sequence 1. **Signal Intent:** Use `focus on OBJ` on the identified target object. This explicitly marks the object for the task. 2. **Perform Core Action:** Execute the primary action from the parsed instruction (e.g., `move OBJ to OBJ`, `pour OBJ into OBJ`). 3. Use `wait` or `wait1` only if necessary to allow for state changes. ## Key Principles * **Efficiency:** All containers are pre-opened. Do not use `open` or `close` unless explicitly required. * **Directness:** Teleport directly to the target room. Do not explore unrelated rooms. * **Clarity:** Structure your internal reasoning using the "Thought:" prefix before each action, as shown in the trajectory. * **Verification:** If an initial `look around` is insufficient, a second `look around` is acceptable to confirm the environment state before proceeding. ## Example **Task instruction:** "Find a non-living thing in the workshop and move it to the purple box." 1. **Parse:** Target = non-living object, Location = workshop, Container = purple box. 2. `teleport to workshop` 3. `look around` — observe: "a battery, a blue light bulb, an orange wire..." 4. Select: battery (non-living, portable). 5. `focus on battery` 6. `move battery to purple box`
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