Advancing Privacy, Efficiency, and Scalability in Cryptography, AI, and Networks

The recent advancements in the research area demonstrate a significant shift towards enhancing privacy, efficiency, and scalability in various domains, particularly in wireless networks, healthcare, and machine learning. A notable trend is the integration of Fully Homomorphic Encryption (FHE) and AI to address privacy concerns in data processing and cyberattack detection. Innovations in FHE, such as noise-resilient frameworks and novel encryption techniques, are being developed to improve computational efficiency and data integrity, especially in healthcare applications. Additionally, the use of AI-driven solutions in wireless networks, such as adaptive power management and channel access optimization, is showing promising results in enhancing network performance and fairness. In the realm of blockchain and IoT, asynchronous sidechain constructions are being proposed to improve scalability and interoperability, while maintaining security through advanced cryptographic primitives. Furthermore, the acceleration of Zero-Knowledge Proofs (ZKPs) using FPGA-based architectures is a significant development, offering substantial performance improvements in privacy-preserving applications. Overall, the field is progressing towards more efficient, secure, and privacy-preserving solutions across multiple domains, leveraging advancements in cryptography, AI, and network optimization.

Sources

A Practical Exercise in Adapting SIFT Using FHE Primitives

Bad Crypto: Chessography and Weak Randomness of Chess Games

Dual-Zone Hard-Core Model for RTS/CTS Handshake Analysis in WLANs

Fair AI-STA for Legacy Wi-Fi: Enhancing Sensing and Power Management with Deep Q-Learning

Noise-Resilient Homomorphic Encryption: A Framework for Secure Data Processing in Health care Domain

if-ZKP: Intel FPGA-Based Acceleration of Zero Knowledge Proofs

AsyncSC: An Asynchronous Sidechain for Multi-Domain Data Exchange in Internet of Things

Wall-Proximity Matters: Understanding the Effect of Device Placement with Respect to the Wall for Indoor Wireless Sensing

TETRIS: Composing FHE Techniques for Private Functional Exploration Over Large Datasets

Privacy-Preserving Cyberattack Detection in Blockchain-Based IoT Systems Using AI and Homomorphic Encryption

Towards privacy-preserving cooperative control via encrypted distributed optimization

Heterogeneous Multi-Agent Reinforcement Learning for Distributed Channel Access in WLANs

Nemesis: Noise-randomized Encryption with Modular Efficiency and Secure Integration in Machine Learning Systems

Efficient Ranking, Order Statistics, and Sorting under CKKS

Built with on top of