Over a three-month period, contributed to vic9112/final_project_2025 by developing and modernizing digital signal processing and arithmetic hardware modules. Built a Python-based golden reference generator for floating-point multiplication, aligning with IEEE 754 standards to improve verification accuracy. Refactored Verilog core logic to enhance performance and maintainability, and expanded FFT and NTT transform capabilities with support for inverse operations and robust overflow handling. Integrated new multiplication units and addressed hardware timing issues to ensure reliable simulation. Demonstrated expertise in Verilog, Python, and FPGA development, delivering well-structured testbenches and codebase improvements that support high-throughput signal processing and cryptographic workloads.
July 2025 monthly summary for vic9112/final_project_2025: Delivered expanded FFT/NTT transform capabilities with inverse transforms, updated arithmetic and overflow handling, and strengthened test coverage. Fixed critical hardware timing issue in mul16_ntt.v to ensure accurate sequential behavior during simulation. Result: broader transform capabilities, more robust arithmetic logic, and improved simulation reliability, enabling safer progression toward production integration.
July 2025 monthly summary for vic9112/final_project_2025: Delivered expanded FFT/NTT transform capabilities with inverse transforms, updated arithmetic and overflow handling, and strengthened test coverage. Fixed critical hardware timing issue in mul16_ntt.v to ensure accurate sequential behavior during simulation. Result: broader transform capabilities, more robust arithmetic logic, and improved simulation reliability, enabling safer progression toward production integration.
June 2025 performance summary for vic9112/final_project_2025. Focused on modernizing transform modules and expanding numeric cores to support FFT, iFFT, NTT, and iNTT, while cleaning legacy paths and improving data-path alignment. Key integration work also included new Verilog multiplication units with arithmetic support and integration into mul.v, with preparations for floating-point handling and modular arithmetic. This period delivered groundwork for higher-throughput transform workloads and cryptographic/zero-knowledge workloads, reducing maintenance burden and stabilizing the hardware design.
June 2025 performance summary for vic9112/final_project_2025. Focused on modernizing transform modules and expanding numeric cores to support FFT, iFFT, NTT, and iNTT, while cleaning legacy paths and improving data-path alignment. Key integration work also included new Verilog multiplication units with arithmetic support and integration into mul.v, with preparations for floating-point handling and modular arithmetic. This period delivered groundwork for higher-throughput transform workloads and cryptographic/zero-knowledge workloads, reducing maintenance burden and stabilizing the hardware design.
May 2025: Delivered two high-impact updates for vic9112/final_project_2025—a Golden Reference Generator for Floating-Point Multiplication and a Verilog Core Functionality Overhaul. These efforts enhance verification accuracy, reduce debugging time, and boost core performance.
May 2025: Delivered two high-impact updates for vic9112/final_project_2025—a Golden Reference Generator for Floating-Point Multiplication and a Verilog Core Functionality Overhaul. These efforts enhance verification accuracy, reduce debugging time, and boost core performance.
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