Dual-Locking Learned AI Models: A PIN-Based Sparse QIM Watermarking and Adaptive Index Permutation Approach
本文提出一种结合基于PIN的稀疏QIM水印和自适应索引置换的双锁定方法,以保护训练好的神经网络免受未经授权的使用。
本文提出一种结合基于PIN的稀疏QIM水印和自适应索引置换的双锁定方法,以保护训练好的神经网络免受未经授权的使用。
为了解决生命科学研究中数据整合的问题,本文介绍了一种名为kgsteward的工具,它通过从单一版本控制配置文件构建和维护RDF存储中的知识图谱。
本文介绍了TeamCAMS平台,用于模拟人与AI的互动研究,通过心理学理论指导开发,解决团队合作及人机交互相关问题。
This study addresses the problem of effectively measuring node centrality in graphs from geometric and topological perspectives. To this end, it introduces magnitude homology—a novel application in graph centrality analysis—and proposes a local centrality measure grounded in relative homology: the importance of a node is quantified by the change in magnitude homology resulting from its removal. The proposed measure satisfies several natural axioms, exhibits favorable theoretical properties, and demonstrates unique effectiveness in experiments, offering complementary insights to classical centrality metrics. This work thus provides a new topological lens for evaluating node importance in complex networks.
The widespread adoption of generative AI blurs the boundaries of users’ actual contributions in creative processes, often leading to misperceptions of authorship. This work introduces the novel concept of “authorship calibration”—defined as users’ accurate self-assessment of their genuine contribution in human-AI collaboration—and presents an empirical analysis based on the CoAuthor dataset. The study reveals that frequent AI users systematically overestimate their own input, whereas infrequent users exhibit more accurate calibration, thereby uncovering a link between AI usage intensity and metacognitive bias. These findings offer a new theoretical lens and empirical foundation for understanding how generative AI reshapes human perceptions of creative agency and authorship.
本文提出一种结合基于PIN的稀疏QIM水印和自适应索引置换的双锁定方法,以保护训练好的神经网络免受未经授权的使用。
为了解决生命科学研究中数据整合的问题,本文介绍了一种名为kgsteward的工具,它通过从单一版本控制配置文件构建和维护RDF存储中的知识图谱。
本文介绍了TeamCAMS平台,用于模拟人与AI的互动研究,通过心理学理论指导开发,解决团队合作及人机交互相关问题。
This study addresses the problem of effectively measuring node centrality in graphs from geometric and topological perspectives. To this end, it introduces magnitude homology—a novel application in graph centrality analysis—and proposes a local centrality measure grounded in relative homology: the importance of a node is quantified by the change in magnitude homology resulting from its removal. The proposed measure satisfies several natural axioms, exhibits favorable theoretical properties, and demonstrates unique effectiveness in experiments, offering complementary insights to classical centrality metrics. This work thus provides a new topological lens for evaluating node importance in complex networks.
The widespread adoption of generative AI blurs the boundaries of users’ actual contributions in creative processes, often leading to misperceptions of authorship. This work introduces the novel concept of “authorship calibration”—defined as users’ accurate self-assessment of their genuine contribution in human-AI collaboration—and presents an empirical analysis based on the CoAuthor dataset. The study reveals that frequent AI users systematically overestimate their own input, whereas infrequent users exhibit more accurate calibration, thereby uncovering a link between AI usage intensity and metacognitive bias. These findings offer a new theoretical lens and empirical foundation for understanding how generative AI reshapes human perceptions of creative agency and authorship.