Benchmarking Post-Quantum Cryptography in Lightweight Virtualization Environments on Embedded Hardware
研究在嵌入式硬件上轻量级虚拟化环境中后量子密码学的性能,通过比较原生执行、Docker容器和Unikraftunikernel下多种算法的操作时间、内存及能耗。
研究在嵌入式硬件上轻量级虚拟化环境中后量子密码学的性能,通过比较原生执行、Docker容器和Unikraftunikernel下多种算法的操作时间、内存及能耗。
This study addresses the high cost and low efficiency of current ontology extension practices, which heavily rely on manual effort due to the underutilization of domain knowledge implicitly embedded in operational metrics. To overcome this limitation, the work proposes the first context-aware ontology extension framework that systematically leverages structured operational metrics as a source of contextual information. The framework formulates ontology extension as three subtasks: parent class prediction, relationship type prediction, and data property assignment, and integrates natural language processing with knowledge graph techniques to generate automated suggestions. Experimental evaluation on four cybersecurity ontologies demonstrates that the proposed approach significantly outperforms baseline methods relying solely on ontology-internal context, particularly in relationship type prediction and data property assignment, thereby effectively reducing the cost of ontology maintenance.
This study addresses the vulnerability of current audio deepfake detectors that inadvertently rely on provenance watermarks embedded in synthetic speech as shortcut cues, leading to degraded generalization, evasion via watermark removal, and false positives on genuine speech. The work systematically uncovers, for the first time, a tripartite failure mechanism induced by such watermarks and proposes a mitigation strategy that decouples the spurious correlation between watermarks and forgery labels by uniformly applying watermarks to both real and fake utterances during training. Leveraging white-box controlled experiments, black-box evaluations on commercial APIs, and adversarial watermark manipulations, the authors construct the paired corpus WASP. Empirical results demonstrate that this approach reduces the watermark-induced equal error rate from 75% to 16%, substantially restoring detection robustness. The WASP dataset is publicly released to foster further research.
This study investigates the impact of increasingly realistic audio deepfakes on human ability to identify genuine speech and on trust in authentic audio. Through a large-scale listening experiment involving 1,768 participants and 35,532 judgments, the authors systematically evaluated deepfake audio generated by 138 diverse speech synthesis systems, including commercial platforms, autoregressive models, sequence-to-sequence architectures, and flow-matching approaches. The work reveals a novel “suspicion shift” phenomenon: while detection accuracy for fake audio remains stable at approximately 72%, trust in real audio significantly declines, with identification accuracy dropping from 72.7% to 64.1%. These findings suggest that the primary societal threat of deepfakes lies not in evading detection but in eroding confidence in genuine audio content. Integrating human subjective assessments with high-accuracy machine detectors (>94.5%), this research provides critical empirical evidence for understanding the broader social implications of audio deepfakes.
This work addresses the limitations of existing cryptographic bill-of-materials (CBOMs), which lack architectural intent and security context, thereby hindering effective cryptographic migration planning. To overcome this gap, the authors propose the Security-Aware Trade-off Analysis Method (SATAM)—a novel approach that uniquely integrates architectural decisions with CBOM construction. By synthesizing established methods including ATAM, arc42, STRIDE, Architecture Decision Records (ADRs), and CARAF, SATAM produces an architecture-driven CBOM that embeds explicit security intent and migration-critical metadata. Leveraging design science research principles and an extension of the CycloneDX standard, the resulting CBOM demonstrably outperforms conventional asset inventory approaches, offering richer contextual information and more comprehensive support for cryptographic agility and informed migration decision-making.
研究在嵌入式硬件上轻量级虚拟化环境中后量子密码学的性能,通过比较原生执行、Docker容器和Unikraftunikernel下多种算法的操作时间、内存及能耗。
This study addresses the high cost and low efficiency of current ontology extension practices, which heavily rely on manual effort due to the underutilization of domain knowledge implicitly embedded in operational metrics. To overcome this limitation, the work proposes the first context-aware ontology extension framework that systematically leverages structured operational metrics as a source of contextual information. The framework formulates ontology extension as three subtasks: parent class prediction, relationship type prediction, and data property assignment, and integrates natural language processing with knowledge graph techniques to generate automated suggestions. Experimental evaluation on four cybersecurity ontologies demonstrates that the proposed approach significantly outperforms baseline methods relying solely on ontology-internal context, particularly in relationship type prediction and data property assignment, thereby effectively reducing the cost of ontology maintenance.
This study addresses the vulnerability of current audio deepfake detectors that inadvertently rely on provenance watermarks embedded in synthetic speech as shortcut cues, leading to degraded generalization, evasion via watermark removal, and false positives on genuine speech. The work systematically uncovers, for the first time, a tripartite failure mechanism induced by such watermarks and proposes a mitigation strategy that decouples the spurious correlation between watermarks and forgery labels by uniformly applying watermarks to both real and fake utterances during training. Leveraging white-box controlled experiments, black-box evaluations on commercial APIs, and adversarial watermark manipulations, the authors construct the paired corpus WASP. Empirical results demonstrate that this approach reduces the watermark-induced equal error rate from 75% to 16%, substantially restoring detection robustness. The WASP dataset is publicly released to foster further research.
This study investigates the impact of increasingly realistic audio deepfakes on human ability to identify genuine speech and on trust in authentic audio. Through a large-scale listening experiment involving 1,768 participants and 35,532 judgments, the authors systematically evaluated deepfake audio generated by 138 diverse speech synthesis systems, including commercial platforms, autoregressive models, sequence-to-sequence architectures, and flow-matching approaches. The work reveals a novel “suspicion shift” phenomenon: while detection accuracy for fake audio remains stable at approximately 72%, trust in real audio significantly declines, with identification accuracy dropping from 72.7% to 64.1%. These findings suggest that the primary societal threat of deepfakes lies not in evading detection but in eroding confidence in genuine audio content. Integrating human subjective assessments with high-accuracy machine detectors (>94.5%), this research provides critical empirical evidence for understanding the broader social implications of audio deepfakes.
This work addresses the limitations of existing cryptographic bill-of-materials (CBOMs), which lack architectural intent and security context, thereby hindering effective cryptographic migration planning. To overcome this gap, the authors propose the Security-Aware Trade-off Analysis Method (SATAM)—a novel approach that uniquely integrates architectural decisions with CBOM construction. By synthesizing established methods including ATAM, arc42, STRIDE, Architecture Decision Records (ADRs), and CARAF, SATAM produces an architecture-driven CBOM that embeds explicit security intent and migration-critical metadata. Leveraging design science research principles and an extension of the CycloneDX standard, the resulting CBOM demonstrably outperforms conventional asset inventory approaches, offering richer contextual information and more comprehensive support for cryptographic agility and informed migration decision-making.