Verdict Instability of OOD Scores under Reference Resampling
研究通过重采样参考集测量OOD分数判决不稳定性,提出一种无参数闭式方法,并分析了类不平衡下判决不稳定性的特性。
研究通过重采样参考集测量OOD分数判决不稳定性,提出一种无参数闭式方法,并分析了类不平衡下判决不稳定性的特性。
This work addresses the challenge of achieving fair reward allocation and precise contribution attribution in fully delegated AI collaborative systems under heterogeneous human value constraints. The authors propose a value-constrained credit assignment framework that leverages value-conditioned gradient filtering and traversal-based learning to enable fine-grained attribution while preserving explicit gradient pathways. By integrating online marginal contribution signals with cumulative payoff settlement, the method effectively supports efficient collaboration among agents with diverse value preferences. Experimental results demonstrate that the proposed framework significantly outperforms conventional federated averaging approaches, maintaining model performance while avoiding the quality degradation commonly associated with aggregated learning.
This work addresses the high communication overhead in federated learning, the inability of conventional split learning to replicate centralized mini-batch gradient dynamics, and its associated privacy risks by proposing TL++, a dual-mode traversing learning framework. TL++ constructs virtual batches across nodes to faithfully reproduce centralized training dynamics. In its base mode, it exchanges only activations and gradients at the cut layer; in its secure mode, it further integrates secret sharing to provide activation-level privacy guarantees. TL++ achieves, for the first time in split learning, accuracy nearly matching that of centralized training—reaching 91.41% (base) and 90.93% (secure) on CIFAR-10—outperforming the strongest baseline by over 12 percentage points while reducing communication overhead by 13.1×, and demonstrates strong performance on the PubMedQA task as well.
This study addresses the challenge of accurately predicting retaining wall deformation during staged excavation of foundation pits. The authors propose a multi-resolution ConvLSTM framework that integrates Gaussian noise-augmented numerical simulation data with a stacked ensemble strategy to model temporal dynamics across multiple time scales. Notably, this approach achieves high-precision predictions of wall deformation under diverse engineering conditions without requiring any field-measured data for training—relying solely on simulated and augmented data. Validation against monitoring data from 34 points across 11 construction sites in Korea demonstrates an average absolute error of 1.4 mm and a coefficient of determination (R²) of 0.93. The model reliably forecasts deformations induced by subsequent 5.0-meter excavation stages, significantly enhancing predictive generalizability and practical applicability in real-world geotechnical engineering scenarios.
Current generative AI platforms strictly bind user-purchased tokens to specific timeframes, accounts, and services, significantly limiting usage flexibility. Drawing on MacLean et al.’s (1991) design space analysis framework, this study systematically examines the terms of service of ChatGPT, Claude, Gemini, and Grok, reconceptualizing tokens not merely as techno-economic units but as a design element for user empowerment. The work introduces the concept of “token usage transferability” and identifies five design axes—Target, Direction, Unit, Control, and Reversibility—defining five distinct types of transferability: carry-over, co-management, transfer, conversion, and trade. This framework offers a systematic design blueprint to enhance user autonomy in generative AI ecosystems.
研究通过重采样参考集测量OOD分数判决不稳定性,提出一种无参数闭式方法,并分析了类不平衡下判决不稳定性的特性。
This work addresses the challenge of achieving fair reward allocation and precise contribution attribution in fully delegated AI collaborative systems under heterogeneous human value constraints. The authors propose a value-constrained credit assignment framework that leverages value-conditioned gradient filtering and traversal-based learning to enable fine-grained attribution while preserving explicit gradient pathways. By integrating online marginal contribution signals with cumulative payoff settlement, the method effectively supports efficient collaboration among agents with diverse value preferences. Experimental results demonstrate that the proposed framework significantly outperforms conventional federated averaging approaches, maintaining model performance while avoiding the quality degradation commonly associated with aggregated learning.
This work addresses the high communication overhead in federated learning, the inability of conventional split learning to replicate centralized mini-batch gradient dynamics, and its associated privacy risks by proposing TL++, a dual-mode traversing learning framework. TL++ constructs virtual batches across nodes to faithfully reproduce centralized training dynamics. In its base mode, it exchanges only activations and gradients at the cut layer; in its secure mode, it further integrates secret sharing to provide activation-level privacy guarantees. TL++ achieves, for the first time in split learning, accuracy nearly matching that of centralized training—reaching 91.41% (base) and 90.93% (secure) on CIFAR-10—outperforming the strongest baseline by over 12 percentage points while reducing communication overhead by 13.1×, and demonstrates strong performance on the PubMedQA task as well.
This study addresses the challenge of accurately predicting retaining wall deformation during staged excavation of foundation pits. The authors propose a multi-resolution ConvLSTM framework that integrates Gaussian noise-augmented numerical simulation data with a stacked ensemble strategy to model temporal dynamics across multiple time scales. Notably, this approach achieves high-precision predictions of wall deformation under diverse engineering conditions without requiring any field-measured data for training—relying solely on simulated and augmented data. Validation against monitoring data from 34 points across 11 construction sites in Korea demonstrates an average absolute error of 1.4 mm and a coefficient of determination (R²) of 0.93. The model reliably forecasts deformations induced by subsequent 5.0-meter excavation stages, significantly enhancing predictive generalizability and practical applicability in real-world geotechnical engineering scenarios.
Current generative AI platforms strictly bind user-purchased tokens to specific timeframes, accounts, and services, significantly limiting usage flexibility. Drawing on MacLean et al.’s (1991) design space analysis framework, this study systematically examines the terms of service of ChatGPT, Claude, Gemini, and Grok, reconceptualizing tokens not merely as techno-economic units but as a design element for user empowerment. The work introduces the concept of “token usage transferability” and identifies five design axes—Target, Direction, Unit, Control, and Reversibility—defining five distinct types of transferability: carry-over, co-management, transfer, conversion, and trade. This framework offers a systematic design blueprint to enhance user autonomy in generative AI ecosystems.