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arXiv:2608.06501v1 Announce Type: new Abstract: Creative capabilities of MLLMs matter in design, communication, education, and human--AI collaboration, yet remain difficult to evaluate because explicit targets and rewar
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与依赖明确答案或固定奖励的传统评测不同,C4 聚焦于创造性思维中难以量化的“飞跃”环节。论文指出,当前的 MLLMs 在设计、教育和人机协作等需要真正创新能力的场景中表现仍不明确,核心难点在于缺乏有效的评估手段。C4 通过构建需要跨概念联想与合成的任务,试图捕捉模型在开放语义空间中进行创新性连接的能力,填补了这一评测空白。
从技术角度看,这项工作与近期多模态模型研究的多个前沿方向形成互补。例如,MMR-V 基准关注视频中的长程多帧推理,要求模型定位并整合非相邻帧的证据;而 C4 则将这种“非相邻”特性从时间维度拓展到了概念维度。同时,PixelThink 等工作探索了高效的链式像素推理,这些底层能力的进步为上层创造性理解提供了潜在的支撑。不过,原文未提供 C4 的具体任务示例与模型表现数据,其实际难度与区分度有待后续公开。
这项研究的意义在于将 MLLMs 的评测从“知道什么”推向“能创造什么”。它暗示,未来的模型评估可能需要更多类似 C4 的、面向开放创造力的基准,而非仅关注事实准确性与逻辑一致性。对于开发者而言,这或许意味着在模型训练中需要引入更多鼓励概念重组与远距离联想的学习信号。
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arXiv:2608.06501v1 Announce Type: new Abstract: Creative capabilities of MLLMs matter in design, communication, education, and human--AI collaboration, yet remain difficult to evaluate because explicit targets and reward signals are scarce compared with accuracy-oriented tasks. Cross-concept understanding is a core cognitive capacity underlying receptive creativity. It enables a perceiver to recover intended meaning from non-obvious but meaningful conceptual relations. We operationalize item construction as cross-concept encoding and model inference as cross-concept decoding. We introduce C4, a cognition-inspired evaluation framework for Chengyu (Chinese idiom)-based Cross-Concept Creativity. Its encoding component maps target slots to imageable substitute concepts along bridge paths in a manually annotated and third-party-reviewed cross-concept network, enabling batch generation with explicit structure, difficulty indexed by bridge count and depth, and exact answers. Using this framework, we instantiate the C4 Evaluation Set (C4-Eval), comprising 184 synthetic items and 37 human-created cross-concept chengyu figures collected from online sources. We manually construct and review cross-concept relations, bridge paths, and reasoning processes for the collected figures. Each C4-Eval item is instantiated in five task settings, yielding 884 primary answer-recovery cases. Across ten evaluated MLLMs, the strongest closed models reach 50.7% and 48.0% primary accuracy, while open-source models remain substantially lower. Candidate constraints improve accuracy sharply, but bridge hints and explanation requests provide only modest gains. These results expose a substantial gap in how current MLLMs decode creatively encoded meaning through cross-concept relations. The code is in the supplementary material.