2026-08-17 | CS.LG机器学习 | 共 70 篇
[机构]信息由AI分析生成,可能存在错误,仅供参考,以论文实际显示为准
快速导航
1. 深度学习架构与训练方法 9 篇
2. 表示学习、自监督与对比学习 3 篇
3. 强化学习与序列决策 5 篇
4. 生成模型与概率建模 1 篇
5. 优化、泛化与理论分析 4 篇
6. 高效学习、压缩与部署 3 篇
7. 联邦学习、隐私与安全 1 篇
8. 鲁棒性、不确定性与可信学习 3 篇
9. 图学习与结构化数据 3 篇
10. 迁移、元学习与持续学习 2 篇
11. 数据集、基准与评测 4 篇
12. 机器学习应用 7 篇
13. 其他/综合机器学习 25 篇
1. 深度学习架构与训练方法 | 9 篇
1. Training-Free Knowledge Transfer Across Model Scales through Activation-Guided Pruning
通过激活引导剪枝实现跨模型规模的无训练知识迁移
AI 总结:本文提出激活剪枝融合框架APM,通过激活引导选择源模型的显著组件并注入目标模型,无需训练和显式语义对齐,在16个基准上将3B目标模型平均准确率从55.5%提升至60.6%。
链接:https://arxiv.org/abs/2608.13596
作者:Jiahe Fan, Si Chen, Yinghao Hou, Aiyuan Zhang, Hong Xie
英文摘要:Heterogeneous model fusion seeks to combine models that differ in tasks, initializations, architectures, or scales. We study an underexplored cross-scale setting: improving a small recipient language model with a stronger donor despite substantial architectural mismatch. We ask whether useful capabilities can be transferred without explicit neuron-wise semantic alignment. Building on the observation that truncating a large model to a smaller architecture and injecting it with a tiny mixing weight can already improve the recipient, we propose Activation-Prune-Merge (APM), an activation-guided framework for cross-scale fusion. APM constructs task-conditioned activation maps on the donor, selects salient layers, hidden dimensions, attention heads, and MLP neurons to prune it to the recipient architecture, and injects the resulting donor slice into the original recipient using a micro interpolation coefficient. This formulation treats the donor as a source of concentrated functional components rather than requiring precise structural transplantation. Across 16 benchmarks spanning reasoning, mathematics, code generation, instruction following, and classification, APM improves the overall average accuracy from 55.5% to 60.6% over the original 3B recipient. RTE accuracy increases from 64.3% to 82.3%, QNLI from 52.3% to 65.7%, and BoolQ from 70.8% to 79.2%. Analyses of injection ratios and sequential multi-stage fusion further suggest that activation-guided extraction improves the quality of the transferable donor slice while preserving the small-ratio fusion regime. These results provide evidence that cross-scale heterogeneous fusion can succeed without explicit semantic alignment when the donor contribution is sufficiently concentrated and carefully selected.
2. Dynamic Multi-Depot Vehicle Routing with Online Requests: Event-Driven Transformer--DRL and Rolling-Horizon Benchmarking
带在线请求的动态多车场车辆路径问题:事件驱动Transformer深度强化学习与滚动时域基准测试
AI 总结:针对带在线请求的动态多车场车辆路径问题,提出事件驱动的Transformer深度强化学习框架,经多场景基准测试,该学习策略在部分指标上弱于最强启发式算法,无单一方法在所有维度最优。
链接:https://arxiv.org/abs/2608.13799
机构:Louisiana State University(路易斯安那州立大学)
作者:Faezeh Ardali, Gerald M. Knapp
英文摘要:This paper presents an event-driven learning and benchmarking framework for the Dynamic Multi-Depot Vehicle Routing Problem with progressively revealed requests and evolving vehicle states. Masked MLP and Transformer policies are trained through behavior cloning and proximal policy optimization. Deterministic feasibility masking prevents invalid vehicle--request assignments, while fixed-prefix/flexible-suffix route commitments protect completed, active, and near-term decisions and separately measure vehicle reassignment and resequencing. The learned policies are compared with dynamic insertion heuristics and time-limited rolling-horizon optimization. In a 20-scenario policy benchmark, all methods completed every request without invalid actions, but nearest feasible achieved the lowest mean objective and outperformed the learned policies in routing quality, waiting time, stability, makespan, and runtime. Across five independent training runs, PPO had little average effect on the MLP and improved the Transformer on average, although with greater seed variability. Under the common protocol, nearest feasible achieved the lowest combined objective and route disruption, whereas rolling horizon achieved the lowest waiting times and makespan at substantially higher computational cost. The learned policies retained millisecond-level decisions and transferred to instances with up to 80 requests without retraining, but did not outperform the strongest heuristic. No single method was best across routing efficiency, service responsiveness, stability, and online computation.
3. MedMix: Specialization-Consistent Federated Sparse MoEs under Modality Heterogeneity
MedMix:模态异质性下的专业化一致联邦稀疏混合专家模型
AI 总结:针对联邦多模态医疗AI的客户端与样本级模态异质性问题,提出MedMix框架,通过模态上下文感知路由、共识引导路由对齐与客户端自适应专家聚合,在多模态医疗数据集上取得最优平均F1值,严重异质性下提升显著。
链接:https://arxiv.org/abs/2608.13911
机构:KAIST(韩国科学技术院); NTU Singapore(新加坡南洋理工大学)
作者:Adiba Orzikulova, Dong Min Kim, Jaehong Yoon, Sung-Ju Lee
英文摘要: Federated multimodal medical AI faces modality heterogeneity at both the client and sample levels: clients may systematically lack access to specific modality types, while individual records within the same client may contain different partial modality subsets. Sparse Mixture-of-Experts (MoE) architectures are a promising remedy for modality-adaptive computation, but their use in federated learning is fragile under cross-client modality heterogeneity, where locally learned routing policies can diverge across clients and drive experts toward incompatible specializations. Different clients may assign the same observed modality configuration to different experts, or train similarly indexed experts on different missing-modality configurations, causing standard aggregation to misalign or overwrite the expert specialization that sparse MoEs are intended to learn. To address this challenge, we propose MedMix, a semantic-alignment framework for federated multimodal sparse MoEs that coordinates cross-client routing and expert specialization using modality context. At the client side, MedMix uses modality-context-aware routing to guide expert selection using each token's modality identity, position, and incompleteness context. Across clients, it uses consensus-guided routing alignment to construct server-side consensus anchors for shared modality patterns and align local routing distributions across clients. Complementing these routing mechanisms, client-adaptive expert aggregation leverages client-specific modality-pattern prototypes to match and aggregate functionally similar experts across clients. Experiments on real-world multimodal medical datasets show that MedMix achieves the best average F1 across diverse modality heterogeneity and modality incompleteness settings, with especially clear gains under severe heterogeneity.
4. Hybrid Quantum-inspired Kolmogorov-Arnold Networks for Privacy-Aware Federated Biosignal Learning
面向隐私感知的联邦生物信号学习的混合量子启发式柯尔莫哥洛夫-阿诺尔德网络
AI 总结:该研究针对联邦生物信号学习的隐私与效率挑战,提出混合量子启发式柯尔莫哥洛夫-阿诺尔德网络(HQKAN),在两类心电数据集上较MLP实现参数与通信成本降低,且分类性能更优。
链接:https://arxiv.org/abs/2608.13914
机构:National Taiwan University(台湾大学); National Center for High-Performance Computing(国家高速计算机中心); National Institutes of Applied Research(应用研究院); Brookhaven National Laboratory(布鲁克海文国家实验室); Korea Advanced Institute of Science and Technology(韩国科学技术院); Beth Israel Deaconess Medical Center(贝斯以色列女执事医疗中心); Harvard University(哈佛大学); National Yang Ming Chiao Tung University(国立阳明交通大学); National Center for Theoretical Sciences(国家理论科学中心)
作者:Chun-Hua Lin, Samuel Yen-Chi Chen, Yu-Chao Hsu, Kuo-Chung Peng, Jiun-Cheng Jiang, Chi-Sheng Chen, Tai-Yue Li, Nan-Yow Chen, En-Jui Kuo, Hsi-Sheng Goan
英文摘要:Electrocardiogram (ECG) recordings are sensitive biomedical data, limiting the ability of hospitals and wearable devices to share raw signals for centralized model training. Federated learning addresses this practical privacy constraint by enabling collaborative model training while keeping raw biosignal data at their respective sources. However, federated ECG classification remains challenging due to limited client-side samples, imbalanced arrhythmia labels, and non-independent and identically distributed (non-IID) data across clients. These constraints require classifiers that are both communication-efficient and robust to cross-client distribution shifts. In this work, we evaluate a hybrid quantum-inspired Kolmogorov-Arnold network (HQKAN) against a multilayer perceptron (MLP) for five-class arrhythmia classification on the MIT-BIH dataset and three-class classification on the INCART dataset under federated averaging (FedAvg). Across multiple client configurations, HQKAN improves most aggregate and minority-class metrics while using 37.35% fewer trainable parameters and reducing communication cost by 24.89% on MIT-BIH; on INCART, it achieves corresponding reductions of 44.81% and 36.41%. These results indicate that HQKAN offers a compact, communication-efficient and robust alternative to the MLP baseline for privacy-aware federated learning on biosignal data.
5. DeaMoE: Efficient MoE Structure for Fast Small-Batch Decoding
DeaMoE:用于快速小批量解码的高效MoE结构
AI 总结:针对小批量解码下MoE模型专家权重加载的瓶颈,提出DeaMoE架构,通过专家分组共享参数与两阶段路由策略提升效率,在多款模型及显卡上实现显著速度提升。
链接:https://arxiv.org/abs/2608.14385
机构:University of Science and Technology of China(中国科学技术大学); Institute of Artificial Intelligence, Hefei Comprehensive National Science Center(合肥综合性国家科学中心人工智能研究院); Shanxi University(山西大学)
作者:Zewen Jin, Shen Fu, Zeping Duan, Shannon Wang, Weihao Wu, Chengjie Tang, Congkun Ai, Ping Gong, Zijian Dai, Youhui Bai, Cheng Li
英文摘要:Mixture-of-Experts (MoE) models have been widely adopted in real-time interactive applications such as coding assistants, real-time audio-video interaction systems. To meet the extremely low response latency requirements of these scenarios, practitioners commonly employ small-batch decoding, under which MoE inference becomes memory-bound and is severely bottlenecked by expert weight loading. However, this bottleneck has received limited attention, and existing solutions such as post-training weight compression or fine-grained expert design during pre-training either degrade model accuracy or introduce additional computation and communication overhead. To tackle this issue, we propose DeaMoE, a decoding-efficient MoE architecture, in which the experts are grouped into several departments, and the experts belonging to the same department share most parameters since they come from the same professional field, and additionally each expert contains a few private parameters to reflect its uniqueness. Moreover, we design customized two-stage routing strategy for DeaMoE to avoid redundant loading, under which DeaMoE greatly improves the efficiency during LLM decoding. Compared with vanilla MoE, DeaMoE reduces per-step loaded weights by up to 50.9% and achieves up to 1.33 end-to-end TPOT speedup for the pre-trained 7B model on A40, and up to 2.00x and 1.97x peak speedup for DeepSeek-V3 on A40 and H100 in microbenchmarks.
6. Designing Compact Neural Architectures via Neuron Gating and Mixed Activation
通过神经元门控与混合激活设计紧凑的神经架构
AI 总结:本研究提出基于神经元门控与混合激活的NAS方法,通过连续松弛优化架构空间,在MNIST、CIFAR-10上实现紧凑架构的高性能,优于DARTS,可优化过度参数化架构。
链接:https://arxiv.org/abs/2608.14443
机构:IIT Kanpur(印度理工学院坎普尔分校); IIM Ahmedabad(印度管理学院艾哈迈达巴德分校); Krishnamurthy Tandon School of AI(克里希纳穆尔蒂坦登人工智能学院)
作者:Abhishek Shukla, Ankur Sinha, Faiz Hamid
英文摘要: Neural Architecture Search (NAS) is naturally formulated as a bilevel optimization problem, where the upper-level optimizes the architecture using validation performance and the lower-level trains network parameters using training loss. However, NAS is computationally expensive due to discrete architectural decisions, exponentially growing search spaces, and the high cost of training candidate architectures. This work develops a general bilevel optimization framework for NAS across diverse architectures, including MLPs, CNNs, RNNs, and Transformers, to identify compact architectures with strong predictive performance. We propose three scalable formulations that replace discrete neuron- and activation-level decisions with continuous relaxations, enabling differentiable optimization over otherwise combinatorial architecture spaces. These formulations give rise to three NAS methods: NAS based on Neuron Gating (NAS-NG), NAS based on Mixed Activation (NAS-MA), and NAS based on Neuron Gating and Mixed Activation (NAS-NGMA). Experiments on MLPs and CNNs using MNIST and CIFAR-10 show that the proposed methods consistently identify compact architectures with competitive or improved predictive performance. On MNIST, NAS-NGMA achieves 98.68% test accuracy with 7.69M MLP parameters, while NAS-NG achieves 99.63% accuracy with only 0.26M CNN parameters. On CIFAR-10, the proposed methods consistently outperform vanilla DARTS. Further experiments demonstrate that NAS-NG can optimize substantially over-parameterized and literature-optimal architectures, improving accuracy while reducing parameters. These results establish relaxed bilevel optimization as a scalable alternative to discrete NAS and provide a general framework for efficient neuron- and activation-level architecture optimization.
7. LP-NAS: Linear Programming-based Neural Architecture Search
LP-NAS:基于线性规划的神经架构搜索
AI 总结:本文提出LP-NAS框架,将线性规划应用于可微分NAS,其变体在CIFAR等数据集上的搜索与评估阶段均优于DARTS及其多种变体,且架构可迁移至ImageNet。
链接:https://arxiv.org/abs/2608.14472
机构:IIT Kanpur(印度理工学院坎普尔分校); IIM Ahmedabad(印度管理研究所艾哈迈达巴德分校)
作者:Abhishek Shukla, Ankur Sinha, Faiz Hamid
英文摘要:Neural Architecture Search (NAS) aims to automate neural network architecture design, reducing reliance on human expertise. Among the various NAS methods, differentiable NAS has gained prominence due to its efficiency and accuracy compared to conventional NAS approaches. Since differentiable NAS relaxes the architecture search space into a continuous domain, it is possible to apply principles from continuous optimization to NAS. In this paper, we propose Linear Programming-based NAS (LP-NAS), a mathematical programming-based framework for differentiable NAS that is applicable to a wide range of continuous search spaces. LP-NAS formulates a linear program (LP) using the validation-loss gradient and the training-loss Hessian to compute an architecture update direction that improves generalization while preserving the optimality of the model parameters. By following this LP-derived descent direction, LP-NAS efficiently navigates the architecture search space, leading to faster and more effective architecture optimization. We introduce two computationally efficient variants of LP-NAS, namely S-LP-NAS and R-LP-NAS. Applying LP-NAS to the Differentiable Architecture Search (DARTS) search space results in two algorithmic variants, S-LP-DARTS and R-LP-DARTS. Both variants achieve faster convergence and significantly higher validation performance during the early search iterations than the standard DARTS algorithm. Extensive experiments on CIFAR-10 and CIFAR-100 show that LP-DARTS outperforms standard DARTS in both the architecture search and evaluation phases. Additionally, we compare our approach with several DARTS variants (P-DARTS, PC-DARTS, and STO-DARTS) on the CIFAR-10 dataset and demonstrate its effectiveness. Furthermore, we validate the transferability of the discovered architectures through experiments on the ImageNet dataset.
8. Rollplex: Cross-Phase GPU Spatial Sharing for Vision Language Model Post-Training
Rollplex:面向视觉语言模型后训练的跨阶段GPU空间共享
AI 总结:Rollplex是一种跨阶段GPU空间共享运行时,通过解耦RL后训练的参考与训练阶段、优化内存与并行度,提升VLMs后训练的GPU利用率与训练速度。
链接:https://arxiv.org/abs/2608.14498
机构:HKUST(香