Smart-grid gateways observe bursty duplicate sensor frames when radios retransmit during storms. Static Bloom filters either waste memory in quiet periods or saturate during peaks. We chain tiered filters whose false-positive targets adapt to measured duplicate rates using exponential smoothing. Trace replay from municipal water-meter feeds cuts RAM usage by forty percent versus a single large filter while maintaining duplicate suppression above ninety-nine percent on injected replay storms.

Farmers query crop advisory systems in Swahili-English code switching with regional dialect variants absent from monolingual corpora. We index extension bulletins in multiple languages, retrieve passages with language-agnostic embeddings, and fine-tune a small generator on synthetic code-switched question paraphrases. Pilot deployments with cooperative agronomists show higher answer adequacy ratings on pest-identification prompts than monolingual retrieval baselines when users insert local variety names.

Terraform plan outputs enumerate resource deltas but obscure dependency ripples that cause outages after apply. We parse plans into property graphs, align nodes with graph edit distance under typed edge constraints, and highlight cascading security-group and IAM changes. Developer surveys on anonymized enterprise modules report faster review times and fewer missed cross-stack side effects compared to plain textual diffs alone.

Small internet service providers lack resources to run full CT log mirrors yet must detect mis-issued certificates affecting their zones quickly. We deploy a minimal watcher that streams signed tree heads and verifies inclusion proofs for customer domain sets only. Measurements across three Baltic operators show sub-minute detection of test mis-issuance events while keeping memory footprints below two hundred megabytes on commodity VPS hosts.

Clinicians reject opaque risk scores even when deep survival networks outperform Cox baselines on c-index. We distill time-dependent hazard surfaces into compact if-then rules using anchored oblique splits validated against partial dependence checks. Retrospective evaluation on de-identified ward discharge records shows the rule set preserves ranking quality within two points of the parent network while supplying auditable triggers aligned with nursing checklist vocabulary.

Battery-powered edge gateways must trade numerical fidelity against joules per inference when models combine INT8 convolutions with FP16 attention blocks. We profile layer-wise energy on paired CPU-GPU-NPU boards and formulate a knapsack scheduler that assigns precision tiers under latency ceilings. Field trials on warehouse barcode-and-text pipelines reduce average power draw by twenty-three percent relative to uniform FP16 execution without breaching accuracy thresholds on held-out SKU images.

Banks cannot pool transaction graphs because of regulatory firewalls yet coordinated fraud rings span institutions. We train subgraph encoders locally and aggregate gradient updates through a secure aggregation layer that masks node identities with salted hashes. On synthetic inter-bank fraud scenarios derived from public payment-network statistics, the federated model matches centralized GNN accuracy while leaking no raw account identifiers under a passive adversary model.

The significant expansion of data-intensive multimedia applications over communication networks has posed new challenges in security. As text, image, and video streams are increasingly transmitted over open networks in real-time, ensuring confidentiality, integrity, and authentication has become more complex. From this perspective, in this paper, we present an optimized design and ASIC implementation of QMC-Crypto, a QoS-aware multi-core cryptographic processor tailored for high-throughput multimedia security. QMC-Crypto integrates dedicated cryptographic cores for AES, SHA-2, ECC, and a Grain-based keystream generator, supporting multiple configurable security modes, including confidentiality, integrity, authentication, and combined services (e.g., confidentiality + integrity, decryption + signature verification). To optimize power efficiency, latency, and memory performance, we have adopted a bottom-up approach based on coherent, interdependent architectural layers of efforts. We propose (1) a shared-buffer memory architecture to alleviate data redundancy and latency; (2) a dynamic QoS-aware task scheduling scheme to intelligently allocate resources; and (3) a Globally Asynchronous Locally Synchronous (GALS) clocking scheme to improve power efficiency and enhance resistance against timing-based side channel attacks. These efforts are complemented by additional design optimizations such as adaptive buffer scaling, minimalist task scheduling control logic, selective core activation, and compact ROM utilization, all aimed at achieving a performance-driven and resource-efficient final ASIC implementation. Finally, the QMC-Crypto was successfully validated by VHDL/Simulink co-simulation and fully implemented in ASIC using 0.5 µm CMOS technology, demonstrating real-time performance, low dynamic power, and a compact silicon footprint, making it suitable for secure multimedia processing in embedded systems.

This study experimentally investigates the cyclic bending response and buckling behavior of galvanized steel square tubes with outer side lengths of 20, 30, 40, and 50 mm under curvature ratios of −1, −0.5, and 0. The curvature ratio is defined as the ratio of the minimum controlled curvature to the maximum controlled curvature. The structural response is characterized by moment–curvature hysteresis loops and variations in outer side length with curvature, whereas buckling behavior is evaluated based on the relationship between curvature range and the number of cycles to failure. The experimental results reveal that stable elastoplastic hysteresis loops are established after several loading cycles for all curvature ratios. For a given curvature ratio, the peak moment increases with increasing outer side length. The variation in outer side length increases progressively with the number of cycles and exhibits serrated patterns for all tube sizes. At a given curvature, tubes with larger outer side lengths exhibit greater variations in outer side length. The buckling results further indicate that increasing both the curvature range and the outer side length reduces the number of cycles to failure. On a log–log scale, a linear relationship is observed between the curvature range and the number of cycles to failure. Finally, a theoretical model is proposed, and its predictions show good agreement with the experimental results.