Contagion on the Trading Floor: How Adversarial Signals Spread in Multi-Agent Trading Systems
研究了多代理交易系统对恶意输入的脆弱性,通过构建GMATS框架并设计黑盒攻击者模拟攻击,评估了对抗内容传播的影响及如何提高系统的鲁棒性。
研究了多代理交易系统对恶意输入的脆弱性,通过构建GMATS框架并设计黑盒攻击者模拟攻击,评估了对抗内容传播的影响及如何提高系统的鲁棒性。
本文通过引入AVTrace评估套件,诊断全模态模型在音频-视觉时间推理方面的能力,包括事件定位、同步判断等问题,并提出参数高效的时序后训练方法以改善模型性能。
为解决RNA三维结构评估问题,提出SIRGE方法,结合序列信息与几何模型,通过预训练语言模型增强结构评价准确性。
This work addresses the challenge that pre-trained PDE foundation models typically require dense solution data—often unavailable—for effective transfer to unseen systems. To overcome this limitation, the authors propose an unsupervised fine-tuning framework that leverages PDE residuals and boundary conditions to construct a physics-informed objective, enabling efficient adaptation without ground-truth solutions. A key innovation is the introduction of NSLoRA, which incorporates Newton–Schulz orthogonalization into low-rank adaptation (LoRA) to mitigate imbalanced learning of physical quantities inherent in standard LoRA. Experimental results demonstrate that the proposed method achieves performance on par with supervised LoRA fine-tuning across diverse, heterogeneous multidimensional PDE benchmarks, significantly outperforming existing neural operators and PDE foundation models.
研究了多代理交易系统对恶意输入的脆弱性,通过构建GMATS框架并设计黑盒攻击者模拟攻击,评估了对抗内容传播的影响及如何提高系统的鲁棒性。
本文通过引入AVTrace评估套件,诊断全模态模型在音频-视觉时间推理方面的能力,包括事件定位、同步判断等问题,并提出参数高效的时序后训练方法以改善模型性能。
为解决RNA三维结构评估问题,提出SIRGE方法,结合序列信息与几何模型,通过预训练语言模型增强结构评价准确性。
This work addresses the challenge that pre-trained PDE foundation models typically require dense solution data—often unavailable—for effective transfer to unseen systems. To overcome this limitation, the authors propose an unsupervised fine-tuning framework that leverages PDE residuals and boundary conditions to construct a physics-informed objective, enabling efficient adaptation without ground-truth solutions. A key innovation is the introduction of NSLoRA, which incorporates Newton–Schulz orthogonalization into low-rank adaptation (LoRA) to mitigate imbalanced learning of physical quantities inherent in standard LoRA. Experimental results demonstrate that the proposed method achieves performance on par with supervised LoRA fine-tuning across diverse, heterogeneous multidimensional PDE benchmarks, significantly outperforming existing neural operators and PDE foundation models.