Keeping up with the growing demands of AI requires intervention across the full design stack — from algorithm reformulation to silicon.
I build that bridge — designing dedicated silicon accelerators and brain-inspired algorithms that bring AI to the edge. My work spans Hyperdimensional Computing, RISC-V custom ISA extensions, and contextual bandit algorithms on embedded platforms, evaluated on FPGA and ASIC from algorithm to GDSII.
I am a Ph.D. candidate in Information and Communications Technologies at Sapienza University of Rome, specializing in the algorithmic-hardware co-design of dedicated accelerators for next-generation AI on resource-constrained devices.
My work spans the full design stack — from mathematical reformulation of learning algorithms and brain-inspired computing paradigms to RTL design, FPGA prototyping, and ASIC synthesis — with a relentless focus on minimizing energy consumption and execution time for edge intelligence.
I have published 22 papers (10 as first author) across top IEEE and ACM venues, and delivered 160 hours of university tutoring on FPGA design and hardware-accelerated AI for Master's students. My open-source framework AeneasHDC is the first automatic platform for deploying Hyperdimensional Computing models on FPGAs.
Sapienza University of Rome
DIET Department, Digital Systems Lab
Prof. Mauro Olivieri
AASS Research Centre, Örebro University
Sweden — Mar 2025 – Jul 2025
Italian (Native), English (C1), French (A2)
My research enables efficient embedded intelligence on resource-constrained devices through algorithmic-hardware co-design, spanning three core pillars:
Brain-inspired computing with high-dimensional distributed representations. I design dedicated hardware accelerators for HDC/VSA models, achieving up to three orders of magnitude speedup vs. software implementations.
Custom ISA extensions, reconfigurable coprocessors, and optimized arithmetic units targeting AI workloads on embedded platforms. Built on the open-source RISC-V Klessydra core family, my accelerators deliver orders-of-magnitude speedup on learning tasks with full GCC compiler integration, evaluated on both FPGA and ASIC (GF22FDX).
Reformulating learning paradigms by exploiting neuro-inspired representations for sequential decision-making on resource-constrained devices. My HD-CB framework maps contextual bandit problems into high-dimensional spaces, achieving competitive performance with orders-of-magnitude lower complexity than traditional approaches.
22 publications including 8 journal articles and 14 conference papers. 10 as first author.
IEEE Emerging Topics in Computational Society (submitted)
ACM Trans. Embedded Comput. Syst., 2025. DOI: 10.1145/3736226
IEEE Open J. Comput. Soc. (submitted)
IEEE Trans. Comput. (submitted)
Microproc. Microsyst., 2025
IEEE Trans. Comput., vol. 73, no. 7, pp. 1767–1779, 2024
IEEE Access, vol. 12, pp. 95720–95735, 2024
Electronics, vol. 12, no. 17, 2023
IEEE IJCNN, Rome, 2025 (Accepted)
IEEE MetroInd4.0&IoT, 2025
IEEE IJCNN, Yokohama, 2024
IEEE PRIME, Larnaca, 2024
IEEE DFT, Oxfordshire, 2024
IEEE DFT, Oxfordshire, 2024
ApplePies, 2024
IEEE PRIME, Valencia, 2023
ApplePies, 2023
SIE, 2023
ApplePies, 2023
ApplePies, 2023
ApplePies, Genova, 2022
ApplePies, 2022
The first open-source automatic framework for generating flexible HDC hardware accelerators on FPGAs. Supports classification, regression, and clustering with 22 configurable parameters. Automates the full pipeline: model configuration, software instantiation (Python, MATLAB, C++), HLS-based HW generation, Vivado synthesis, and automated characterization reports.
Open-source reconfigurable hyperdimensional computing coprocessor integrated into the Klessydra-T03 RISC-V core. Features configurable SIMD parallelism, runtime hypervector size configuration, and custom C intrinsics for ML workloads.
Stand-alone version of the HDCU accelerator, decoupled from the Klessydra processor ecosystem for flexible integration and design-space exploration of the HDC hardware unit in isolation.
Sapienza University of Rome
Post-doctoral collaboration on HDC algorithm analysis and dedicated hardware solutions for FPGA and ASIC implementation.
AASS Research Centre, Örebro University, Sweden
Designed the first MCR hardware accelerator. Joint manuscript with Dr. Denis Kleyko. Evaluated across 123 classification datasets.
Digital Systems Lab, DIET Dept., Sapienza
Three-year program on algorithmic-hardware co-design: HDC accelerators, RISC-V extensions, variable-latency arithmetic, contextual bandits.
Sapienza University of Rome
Digital System Programming (140h) and Digital System Architectures (20h). Tutored 20+ Master's students on FPGA design and HW acceleration.
Sapienza University of Rome
Thesis: “Algorithmic Hardware Co-Design for Efficient Embedded Intelligence.” Evaluated on FPGA (Xilinx) and ASIC (GF22FDX) with RISC-V Klessydra cores.
Sapienza University of Rome — 110/110 cum laude
Thesis on contextual bandit algorithms on RISC-V with reconfigurable vector acceleration. Up to 45x speedup on matrix operations.
Sapienza University of Rome
Thesis: “State of the Art in Neuromorphic Computing.” Survey of spiking neural networks and brain-inspired architectures.
I am open to collaborations, visiting positions, and discussions about hardware-accelerated AI, HDC/VSA, or embedded intelligence. Feel free to reach out.