AuthenTree replaces the centralized security anchor of chiplet authentication with a tree-structured multi-party computation that no single chiplet controls.
ECOLogic: Enabling Circular, Obfuscated, and Adaptive Logic via eFPGA-Augmented SoCs
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
Traditional hardware platforms - ASICs and FPGAs - offer competing trade-offs among performance, flexibility, and sustainability. ASICs provide high efficiency but are inflexible post-fabrication, require costly re-spins for updates, and expose IPs to piracy risks. FPGAs offer reconfigurability and reuse, yet suffer from substantial area, power, and performance overheads, resulting in higher carbon footprints. We present ECOLogic, a hybrid design paradigm that embeds lightweight eFPGA fabric within ASICs to enable secure, updatable, and resource-aware computation. Central to this architecture is ECOScore, a quantitative scoring framework that evaluates IPs based on adaptability, piracy threat, performance tolerance, and resource fit to guide RTL partitioning. Evaluated across six diverse SoC modules, ECOLogic retains an average of 90 percent ASIC-level performance (up to 2 GHz), achieves 9.8 ns timing slack (versus 5.1 ns in FPGA), and reduces power by 480 times on average. Moreover, sustainability analysis shows a 99.7 percent reduction in deployment carbon footprint and 300 to 500 times lower emissions relative to FPGA-only implementations. These results position ECOLogic as a high-performance, secure, and environmentally sustainable solution for next-generation reconfigurable systems.
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cs.CR 1years
2025 1verdicts
UNVERDICTED 1representative citing papers
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AuthenTree: A Scalable MPC-Based Distributed Trust Architecture for Chiplet-based Heterogeneous Systems
AuthenTree replaces the centralized security anchor of chiplet authentication with a tree-structured multi-party computation that no single chiplet controls.