Custom IP Core Design
Design and implementation of reusable FPGA IP blocks: AXI-streaming datapaths, register-controlled cores, packet engines, trigger modules, buffering blocks, DSP pipelines, testbenches, and integration-ready RTL.
Principal-Level AMD/Xilinx FPGA Engineering
FPGA Accel provides AMD/Xilinx FPGA consulting for system architecture, custom IP core design, RTL implementation, PCIe/QDMA, 100GbE/CMAC, DSP and RF datapaths, timing closure, board bring-up, and embedded software integration.
Operated by a Principal FPGA engineer with hands-on AMD/Xilinx experience across architecture, RTL implementation, high-speed interfaces, timing closure, and full system delivery.
Services
FPGA Accel can support a narrow technical problem, own a custom RTL/IP block, or help architect and implement the full FPGA subsystem around bandwidth, latency, timing closure, and lab validation.
Design and implementation of reusable FPGA IP blocks: AXI-streaming datapaths, register-controlled cores, packet engines, trigger modules, buffering blocks, DSP pipelines, testbenches, and integration-ready RTL.
End-to-end architecture for AMD FPGA systems, including device/IP selection, clocking, resets, data movement, memory topology, host interface, software control, observability, and implementation risk.
VHDL/SystemVerilog implementation, constraints, CDC cleanup, SLR-aware partitioning, floorplanning, physical optimization, resource tradeoffs, and timing closure on large AMD FPGA designs.
AMD FPGA Expertise
FPGA Accel focuses on real engineering execution inside the AMD FPGA ecosystem: Vivado, block design, IP integrator, AMD transceiver subsystems, PCIe/QDMA, CMAC/100GbE, RFSoC-style datapaths, Versal platform architecture, and timing closure on complex devices.
7 Series, UltraScale, UltraScale+, RFSoC, Versal, and Alveo-class AMD FPGA platforms
QDMA/XDMA-style DMA, CMAC, Aurora, AXI infrastructure, DDR controllers, GT transceivers, CPM/NoC integration patterns
Vivado architecture, IP integrator, constraints, simulation, implementation, physical optimization, ILA/debug, and board bring-up
PCIe cards, embedded FPGA platforms, RF/digital I/Q systems, high-speed packet pipelines, and storage/data-mover architectures
Technical Capabilities
The differentiator is the ability to connect architecture, RTL, AMD IP, timing behavior, software interfaces, and lab measurements into a working deliverable.
PCIe/QDMA streaming, descriptor-aware flows, AXI-stream fabrics, packet framing, DDR buffering, DMA-to-file utilities, backpressure behavior, and host/software validation.
Line-rate Ethernet integration, AMD CMAC, Aurora, GTH/GTY/GTM-based datapaths, clocking and reset sequencing, flow control, loopback, and link-level debug.
Digital I/Q processing, DDS/NCO design, FFT pipelines, spectral engines, trigger logic, timestamps, programmable delay, record/replay, and deterministic latency.
Yocto-based platform work, register access utilities, user-space DMA tools, file streaming, diagnostics, and hardware/software integration support.
Independent review of fragile FPGA designs, timing-risk reduction, CDC/reset review, IP integration cleanup, performance bottleneck analysis, and debug strategy.
Testbenches, deterministic stimulus, data checkers, debug counters, ILA planning, hardware validation, and clean handoff documentation for engineering teams.
Selected Challenges
Many engagements involve proprietary or NDA-restricted systems; examples are intentionally generalized while preserving the technical nature of the work.
Architected host-to-FPGA and FPGA-to-host data movement using custom AXI-stream datapaths, buffering strategies, register control, and software-facing DMA utilities.
Integrated AMD CMAC-based Ethernet datapaths with custom packet processing, flow-control behavior, loopback/debug hooks, and line-rate performance considerations.
Developed deterministic DSP/RF pipelines involving DDS/NCO generation, FFT processing, trigger logic, timestamping, programmable delay, capture, and replay functions.
Supported UltraScale+ and Versal-class designs involving SLR-aware partitioning, floorplanning, CDC cleanup, physical optimization, and timing-risk reduction.
Connected RTL, AMD IP, register interfaces, embedded Linux / Yocto utilities, diagnostics, and lab measurements into coherent hardware/software validation flows.
Reviewed troubled FPGA programs for timing risk, dataflow bottlenecks, CDC/reset issues, fragile IP integration, observability gaps, and practical debug strategy.
Engagement Models
Support can be structured as targeted custom IP core development, subsystem ownership, architecture review, risk assessment, rescue/timing-closure support, or ongoing integration and debug assistance.
Why FPGA Accel
FPGA Accel is built for teams that need a technical owner for hard FPGA work: someone who can reason about system architecture, implement clean RTL, navigate AMD IP details, close timing, debug hardware in the lab, and communicate clearly across FPGA, software, systems, and program stakeholders.
Contact
FPGA Accel can help with custom IP design, full FPGA system architecture, PCIe/DMA, 100GbE, RF/DSP datapaths, timing closure, embedded Linux integration, and hardware bring-up.
Northern Virginia / Dulles Technology Corridor
Serving clients nationwide
Custom IP cores, full system architecture, RTL development, integration support, bring-up, debug, and targeted consulting