About the service
I am a digital hardware engineer, not a programmer who writes firmware on the side. My work lives inside FPGAs: I write synthesizable RTL in Verilog and VHDL, build finite state machines, pipelines, and data paths clocked at hundreds of megahertz, and track every register, every clock edge, and every nanosecond of timing margin. Over the years I have delivered controllers, high-speed interfaces, DSP chains, and custom accelerators for Xilinx and Intel silicon, and I know well: a project is not ready when it simply simulates—it is ready when timing closes and it behaves on real hardware exactly as it does on screen.
Usually the work starts with your technical specification, a rough block diagram, or simply a task that needs to be offloaded from a loaded processor and moved into dedicated logic. I turn that into clean architecture, break it into clocked modules, and back each one with self-checking testbenches so errors surface in simulation, not on the bench. I take timing closure seriously: constraints, clock domain crossings, false and multi-cycle paths are handled deliberately, not left to the tools to guess. When throughput matters—I parallelize and pipeline the path; when area or power matter—I change the architecture and honestly tell you what that trade-off gives. I explain in clear language what is realistically achievable within your silicon budget, frequency headroom, and resources, and I deliver readable, commented source code under version control along with waveforms and a brief report, not an enigmatic bitstream. Whether you need one module reviewed, an old project brought back to life, or a full acceleration block from idea to working board—I lead RTL from start to finish.
— RTL design in Verilog, SystemVerilog, and VHDL
— Implementation in Xilinx FPGAs (Vivado) and Intel (Quartus)
— Self-checking testbenches, simulation, and functional verification
— Timing closure, constraints, and clock domain crossings
— High-speed interfaces, DSP pipelines, and custom accelerators
— Code review, debugging, and reviving legacy HDL
Usually the work starts with your technical specification, a rough block diagram, or simply a task that needs to be offloaded from a loaded processor and moved into dedicated logic. I turn that into clean architecture, break it into clocked modules, and back each one with self-checking testbenches so errors surface in simulation, not on the bench. I take timing closure seriously: constraints, clock domain crossings, false and multi-cycle paths are handled deliberately, not left to the tools to guess. When throughput matters—I parallelize and pipeline the path; when area or power matter—I change the architecture and honestly tell you what that trade-off gives. I explain in clear language what is realistically achievable within your silicon budget, frequency headroom, and resources, and I deliver readable, commented source code under version control along with waveforms and a brief report, not an enigmatic bitstream. Whether you need one module reviewed, an old project brought back to life, or a full acceleration block from idea to working board—I lead RTL from start to finish.
— RTL design in Verilog, SystemVerilog, and VHDL
— Implementation in Xilinx FPGAs (Vivado) and Intel (Quartus)
— Self-checking testbenches, simulation, and functional verification
— Timing closure, constraints, and clock domain crossings
— High-speed interfaces, DSP pipelines, and custom accelerators
— Code review, debugging, and reviving legacy HDL
