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AstroAgentBench introduces a rigorous seven-family benchmark to standardize the evaluation of LLM agents in complex space mission planning, addressing previous inconsistencies in task contracts and success criteria. The study reveals that while top-tier systems can match traditional solvers on specific tasks, they still struggle with geometric design and often fail due to misformulated task contracts rather than pure reasoning deficits. This work provides critical insights into the limitations of current agentic architectures when applied to high-stakes, structured domains requiring precise execution.
AstroAgentBench: Evaluating Agentic Planning on Space Mission Planning Tasks
arXiv:2601.11354v2 Announce Type: replace Abstract: Recent LLM-for-Space systems address mission planning, scheduling, operations support, simulator control, and autonomy, but their evaluations use different task contracts, control settings, simulators, and success criteria. We introduce AstroAgentBench, a seven-family benchmark for executable space mission planning in the domains of scheduling, observation planning, constellation design, and relay support. For each case, an agent submits a planning artifact that is checked by an external verifier for schema, timing, geometry, resources, and mission value. Results report validity and normalized scores, with comparisons to task-specific solver references. Across five LLM agent systems and 35 held-out cases, the strongest systems approach or exceed solver-reference scores on several families, while weaker systems often fail to produce high-value valid plans and even strong systems lose quality on geometric, product-level, or design-heavy tasks. Trace analyses separate two failure points: task-contract misformulation and weak solution construction. Successful runs instead calibrate agent-written implementations against verifier feedback and adapt search to case-specific structure. Ablations show that procedure injection and memory accumulation help selectively, when they supply the missing formulation, calibration, or search support.
Abstract:Recent LLM-for-Space systems address mission planning, scheduling, operations support, simulator control, and autonomy, but their evaluations use different task contracts, control settings, simulators, and success criteria. We introduce AstroAgentBench, a seven-family benchmark for executable space mission planning in the domains of scheduling, observation planning, constellation design, and relay support. For each case, an agent submits a planning artifact that is checked by an external verifier for schema, timing, geometry, resources, and mission value. Results report validity and normalized scores, with comparisons to task-specific solver references. Across five LLM agent systems and 35 held-out cases, the strongest systems approach or exceed solver-reference scores on several families, while weaker systems often fail to produce high-value valid plans and even strong systems lose quality on geometric, product-level, or design-heavy tasks. Trace analyses separate two failure points: task-contract misformulation and weak solution construction. Successful runs instead calibrate agent-written implementations against verifier feedback and adapt search to case-specific structure. Ablations show that procedure injection and memory accumulation help selectively, when they supply the missing formulation, calibration, or search support.
35 pages, 5 figures. AACL-IJCNLP 2026. Benchmark renamed from AstroReason-Bench to AstroAgentBench; supersedes v1 with the full five-system evaluation. Code: this https URL Data: this https URL
Artificial Intelligence (cs.AI); Computation and Language (cs.CL)
arXiv:2601.11354 [cs.AI]
(or arXiv:2601.11354v2 [cs.AI] for this version)
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