HyperEyes presents a parallel multimodal search agent using Unified Grounded Search and Dual-Grained Efficiency-Aware RL. HyperEyes-30B surpasses the strongest open-source agent by 9.9% accuracy while requiring 5.
论文原始摘要
Existing multimodal search agents process target entities sequentially, issuing one tool call per entity and accumulating redundant interaction rounds whenever a query decomposes into independent sub-retrievals. We argue that effective multimodal agents should search wider rather than longer: dispatching multiple grounded queries concurrently within a round. To this end, we present HyperEyes, a parallel multimodal search agent that fuses visual grounding and retrieval into a single atomic action, enabling concurrent search across multiple entities while treating inference efficiency as a first-class training objective. HyperEyes is trained in two stages. For cold-start supervision, we develop a Parallel-Amenable Data Synthesis Pipeline covering visual multi-entity and textual multi-constraint queries, curating efficiency-oriented trajectories via Progressive Rejection Sampling. Building on this, our central contribution, a Dual-Grained Efficiency-Aware Reinforcement Learning framework, operates at two levels. At the macro level, we propose TRACE (Tool-use Reference-Adaptive Cost Efficiency), a trajectory-level reward whose reference is monotonically tightened during training to suppress superfluous tool calls without restricting genuine multi-hop search. At the micro level, we adapt On-Policy Distillation to inject dense token-level corrective signals from an external teacher on failed rollouts, mitigating the credit-assignment deficiency of sparse outcome rewards. Since existing benchmarks evaluate accuracy as the sole metric, omitting inference cost, we introduce IMEB, a human-curated benchmark of 300 instances that jointly evaluates search capability and efficiency. Across six benchmarks, HyperEyes-30B surpasses the strongest comparable open-source agent by 9.9% in accuracy with 5.3x fewer tool-call rounds on average.
Paper Collector 中文速览
HyperEyes通过并行多模态搜索和双粒度效率感知强化学习提升搜索效率
方法概述
两阶段训练:先通过渐进拒绝采样合成并行友好数据;再用双粒度强化学习优化,宏观层采用TRACE轨迹级奖励自适应抑制冗余调用,微观层用On-Policy蒸馏注入token级校正信号
核心贡献
提出并行多模态搜索框架,融合视觉定位与检索为原子操作,设计双粒度效率感知强化学习(TRACE奖励+On-Policy蒸馏),构建IMEB效率评测基准
原始来源与核验范围
核验仅覆盖论文正文中的主张、证据片段和参考文献关系。NGJOO 未独立运行作者代码、重做实验或验证真实部署效果;页面中的可复现性分数是文档完整度评估,不是复现实验结果。
核心问题
How can multimodal search agents be optimized to perform parallel tool invocations instead of sequential ones, reducing interaction redundancy while maintaining or improving accuracy?
核心方法
HyperEyes uses a Unified Grounded Search action space that fuses visual grounding and retrieval into a single atomic action for parallel execution. The training pipeline combines Supervised Fine-Tuning on efficiency-filtered trajectories with a Dual-Grained RL framework featuring TRACE for trajectory-level efficiency guidance and On-Policy Distillation for token-level supervision.
论点验证
Specific quantitative results stated in p_48 and verifiable from Table 2. HyperEyes-30B achieves 9.9% higher accuracy than VDR with 5.3× fewer tool calls. These are concrete numbers from controlled comparisons against baselines.
UGS design is described in p_16, explaining how visual grounding becomes a parameter of the retrieval action rather than a prerequisite step. The controlled experiments in Figure 4 validate this design choice.
The parallel dispatch capability is described in p_16 and demonstrated in controlled experiments (Figure 4, p_95) showing UGS achieves fewer tool-call turns (2.04) compared to sequential paradigms (2.7/3.07).
The number 246,000 is stated in p_19. However, the breakdown between public benchmarks and internal annotations is not detailed, and the exact sources are not comprehensively listed.
The number 25,000 synthetic queries is stated in p_19, with detailed breakdown in p_20-21 (20,000 visual + 5,000 textual). The arithmetic is consistent: 246,000 + 25,000 = 271,000.
Specific number stated in p_20 and confirmed in p_69. The visual multi-entity synthesis pipeline is described in detail with source datasets and methodology.
Specific number stated in p_21 and confirmed in p_69. The textual multi-constraint synthesis pipeline is described with Wikidata source and constraint-chain construction.
The filtering process is described in p_22 using Qwen3-VL-235B. The final number 271,000 matches the sum of 246,000 + 25,000. However, the exact filtering rate/rejection statistics are not provided.
PRS is described in p_23 with Algorithm 1 provided. The mechanism of ascending budget schedule and shortest-trajectory retention is clearly specified.
Specific numbers stated in p_24: 271,000 → 30,000 trajectories. The distillation ratio (~11%) is concrete. Table 4 ablation validates the quality filtering approach.
Specific numbers stated in p_25 and p_77: 6,056 for 30B and 9,337 for 235B. The pass@1 vs pass@5 selection criteria is clearly described.
The two-stage paradigm is described in p_26. However, while the stages are specified, the paper does not provide a detailed comparison of SFT-only vs SFT+RL to isolate the contribution of each stage.
The SFT phase is described in p_27 as next-token prediction on trajectory corpus. This is standard practice but not extensively validated in isolation.
... 共 46 个论点
可复现性评估
较低可复现性 (0%)
缺失的复现细节
- No code available - implementation details for HyperEyes, GRPO, TRACE, and OPD are not publicly accessible
- No training data available - 30,000 curated trajectories for cold start and parallel QA corpus are not released
- No evaluation data available - the newly proposed IMEB benchmark is not publicly accessible
- Hyperparameters not accessible in provided text - Appendix E mentioned but not available (learning rate, batch size, epochs, optimizer settings, etc.)
- Random seeds not specified for reproducibility of training and evaluation
- Hardware specifications not provided - critical for 30B and 235B model training
- Training duration/computational cost not specified
- Data preprocessing and curation details for trajectories not described
- Medium-difficulty sample selection criteria for RL phase not specified
- LLM-as-a-judge implementation details for accuracy evaluation not provided
局限与证据边界
- On-Policy Distillation requires a stronger same-family teacher, which inherently bounds the student's reasoning capabilities and prevents direct application at the frontier scale.
- Our parallel framework focuses exclusively on static image and text environments, lacking the spatial-temporal grounding mechanisms necessary for dynamic modalities like video or audio.
- A residual performance gap persists compared to leading closed-source frontier models (e.g., Gemini-3.1-Pro), highlighting the need for larger-scale reinforcement learning and more diverse multimodal training distributions in future research.
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分析时间:2026-05-12T13:36:01+00:00 · 数据来源:Paper Collector