aiqbench analysis
The paper addresses a practical problem for language-instructed robots: deciding which cached room judgments stay valid after environment changes, without re-querying every room. An LLM compiles each instruction into dependencies, and the controller re-evaluates only affected judgments. Reported results are on simulated ProcTHOR and AI2-THOR benchmarks plus a Unitree G1 demo, with semantic evaluations cut from 30.6 to 11.2 on average while decisions match full recomputation. Readers should note that the decision-preservation guarantee depends on conservative dependency and footprint coverage, and that the evaluators' task accuracy was not improved.
MIND: Instruction-Conditioned Incremental Grounding for Robots
arXiv:2610.19262v1 Announce Type: cross Abstract: Robots following persistent language instructions must decide which cached room judgments remain valid as their environment changes. We present MIND (Maintenance via INstruction-conditioned Dependencies), a framework for maintaining target-room decisions without re-evaluating every room after each event. A language model compiles each instruction into dependencies for semantic qualification and target selection. The controller intersects semantic dependencies with event footprints, refreshes affected judgments, and updates reachability and selection separately. For fixed deterministic evaluation, planning, and selection, conservative dependency and footprint coverage preserves the decisions of full recomputation. On 240 five-event ProcTHOR sequences with an exact benchmark predicate, MIND reduces mean semantic evaluations from 30.6 to 11.2 while preserving all 1,200 post-event decisions. Frozen-evaluator experiments with Phi-4 and Qwen3-14B also preserve all 1,200 decisions, without improving the evaluators' underlying task accuracy. In 32 closed-loop AI2-THOR episodes using exact-predicate qualification and metadata-derived footprints, MIND matches the final target decision of full recomputation in every episode. Unitree G1 experiments demonstrate target reuse and reselection across room transitions without additional semantic evaluations under MIND, and abstention after a barrier and an object removal at 4 evaluations against 15 to 18. Additional materials are available at https://mind-icra27.github.io/.
Abstract:Robots following persistent language instructions must decide which cached room judgments remain valid as their environment changes. We present MIND (Maintenance via INstruction-conditioned Dependencies), a framework for maintaining target-room decisions without re-evaluating every room after each event. A language model compiles each instruction into dependencies for semantic qualification and target selection. The controller intersects semantic dependencies with event footprints, refreshes affected judgments, and updates reachability and selection separately. For fixed deterministic evaluation, planning, and selection, conservative dependency and footprint coverage preserves the decisions of full recomputation. On 240 five-event ProcTHOR sequences with an exact benchmark predicate, MIND reduces mean semantic evaluations from 30.6 to 11.2 while preserving all 1,200 post-event decisions. Frozen-evaluator experiments with Phi-4 and Qwen3-14B also preserve all 1,200 decisions, without improving the evaluators' underlying task accuracy. In 32 closed-loop AI2-THOR episodes using exact-predicate qualification and metadata-derived footprints, MIND matches the final target decision of full recomputation in every episode. Unitree G1 experiments demonstrate target reuse and reselection across room transitions without additional semantic evaluations under MIND, and abstention after a barrier and an object removal at 4 evaluations against 15 to 18. Additional materials are available at this https URL.
Robotics (cs.RO); Artificial Intelligence (cs.AI)
arXiv:2610.19262 [cs.RO]
(or arXiv:2610.19262v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2610.19262 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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