AK
Akash Kumar
Research areas: Computer Science · Hardware and Architecture · Embedded Systems Design Techniques · VLSI and FPGA Design Techniques · Low-power high-performance VLSI design
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Publications (238)
- FedALAQ: Federated Adaptive Layer-Wise Aggregation With Quantization Save
- XRel-Graph: Graph Learning-Driven Cross-Layer Reliability Management in Embedded Mixed-Criticality Systems Save
- EAGEL: Explainable And Generalized Structural Exploitation Against Logic Locking Save
- Transient Modeling of Nonlinear Components Using Global Gated Deep Recurrent Neural Network Masked With Dropout Save
- Structurally Secure Obfuscation: Assessing and Mitigating Structural Vulnerabilities in Circuits Obfuscation Save
- C-SIMD: CORDIC-Driven SIMD Processing Element for Resource-Efficient Multi-Precision Deep Learning Inference Save
- Cross-Layer Approximation and In-Network Acceleration Save
- Mixed-Precision Logarithmic Quantization for Efficient Neural Network Inference on FPGAs Save
- RepGhostFAS: Lightweight and Efficient Face Anti-Spoofing for Internet-of-Things (IoT) and Edge Devices Save
- X-DINC: Toward Cross-Layer ApproXimation for theDistributed and In-Network ACceleration of Multi-Kernel Applications Save
- EMGAxO: Extending Machine Learning Hardware Generators With Approximate Operators Save
- MdCSR: A Memory-Efficient Sparse Matrix Compression Format Save
- Design, Model, and Explore Approximate Arithmetic Operators with AI/ML: A Tutorial Save
- Special Sessions - Emerging Scope and Design Challenges for Approximate Computing: Optimizing Accuracy-PPA trade-offs and Beyond Save
- Flip-Break: Breaking Flip-flop-based Logic Locking in Sequential Circuits Save
- Fast Retraining of Approximate CNNs for High Accuracy Save
- Analytical Uncertainty Propagation in Neural Networks Save
- Efficient Post-training Augmentation for Adaptive Inference in Heterogeneous and Distributed IoT Environments Save
- GNN-MiCS: Graph Neural-Network-Based Bounding Time in Embedded Mixed-Criticality Systems Save
- MONO: Enhancing Bit-Flip Resilience With Bit Homogeneity for Neural Networks Save