ImageNet classification with deep convolutional neural networks
Alex Krizhevsky, Ilya Sutskever et al.
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Influential Citations
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2026
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Transforming multimodal sources into condensed and structured media outputs can be fundamentally conceptualized as a long-horizon agentic process centered on a model-harness system. While an ideal harness system should align with human design priors and accumulate reusable experience through empirical exploration to drive recursive self-improvement, existing paradigms remain static and fall short of this capability. In this paper, we present AutoDesign, a framework that aligns with human design priors, where a meta-harness optimizer guides a code agent to recursively improve harness based on rollout feedback. To instantiate and evaluate this framework, we focus on the academic paper-to-poster generation task and introduce PosterBench, comprising a 100-paper Main Track spanning five disciplines and PosterBench-mini, a shared 10-paper subset for controlled evaluation. On the PosterBench Main Track, AutoDesign achieves the highest score of 78.32, surpassing the closed-source commercial system Claude Design by 7.45 points. Across seven controlled code-agent-model configurations, integrating the learned DesignHarness consistently improves performance, increasing the average PosterBench Score from 54.99 to 67.39 (+12.4%). In a fully autonomous long-horizon loop, it executes 253 tool calls and 11 editing turns within 40 minutes for under $3, reaching average conference-poster quality in human evaluation. A system-blind human study further demonstrates that AutoDesign achieves the highest human preference among evaluated systems.
AutoDesign addresses a critical gap in current AI agent systems: the lack of recursive self-improvement. Most existing agentic frameworks are static, relying on fixed prompts or hand-crafted harnesses that do not adapt based on experience. AutoDesign introduces a meta-harness optimization approach that allows the system to learn from its own rollouts, aligning with human design priors and accumulating reusable experience. This is a significant step toward truly autonomous AI systems that can improve themselves over time.
The paper also introduces PosterBench, a new benchmark for evaluating long-horizon agentic design tasks. By focusing on the concrete task of converting academic papers into posters, the authors provide a realistic and challenging testbed that requires multimodal understanding, structured output generation, and iterative refinement. This benchmark will likely become a standard for evaluating future agentic design systems.
AutoDesign achieves the highest score of 78.32 on the PosterBench Main Track, surpassing the closed-source commercial system Claude Design by 7.45 points. Across seven controlled code-agent-model configurations, integrating the learned DesignHarness consistently improves performance, increasing the average PosterBench Score from 54.99 to 67.39, a +12.4% improvement. In a system-blind human study, AutoDesign receives the highest human preference among evaluated systems, and its outputs reach average conference-poster quality. These results highlight the effectiveness of the meta-harness optimization approach.
The broader impact of AutoDesign extends beyond paper-to-poster generation. The concept of meta-harness optimization can be applied to any long-horizon agentic task, such as software development, scientific discovery, or content creation. By enabling systems to learn from their own experience, AutoDesign paves the way for AI agents that become more capable over time without human intervention. The introduction of PosterBench also provides a standardized evaluation framework, encouraging further research in this area. As AI systems become more autonomous, frameworks like AutoDesign will be crucial for ensuring they can adapt and improve in dynamic environments.
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