Re:Build AppliedLogix is a leading provider of FPGA design services, offering a range of solutions to address your most demanding engineering challenges. Our team of expert FPGA engineers and FPGA developers support our customers at any phase of firmware development from early architecture and technology selection through implementation, timing closure, and validation using modern FPGA verification methodologies and frameworks such as OSVVM.
We provide comprehensive FPGA board design services, including:
Our team of FPGA consultants offers expert guidance on all aspects of your FPGA development project, including:
We have experience designing with a wide range of FPGA and CPLD devices, including:
Re:Build AppliedLogix develops FPGA solutions using AMD (formerly Xilinx), Intel (formerly Altera), Lattice Semiconductor, Microchip, and Efinix FPGA devices. Supported FPGA families include AMD Spartan, Artix, Kintex, Virtex, Zynq SoCs and Kria MPSoCs; Intel Cyclone, Arria, and Stratix; Lattice ECP5, and iCE40; Microchip PolarFire and Efinix Trion.
Our engineers help customers select the best FPGA architecture based on processing performance, interface requirements, power consumption, development tools, product lifecycle, and total system cost.
FPGA development projects typically require 8-24+ weeks, depending on design complexity, interface requirements, verification needs, and performance goals.
Simple designs that implement standard interfaces and moderate signal processing often require 8-12 weeks. Complex FPGA systems involving DDR memory, multi-gigabit transceivers, or intensive DSP algorithms typically need 16 to 24+ weeks.
A complete FPGA development program usually includes requirements definition, architecture design, RTL development, simulation, verification, synthesis, timing closure, hardware integration, and system-level testing.
Re:Build AppliedLogix uses a multi-stage FPGA verification process that includes RTL simulation, self-checking testbenches, assertion-based verification, functional coverage analysis, timing simulation, hardware-in-the-loop testing, and formal verification for safety-critical or high-reliability logic.
Our FPGA development methodology targets greater than 95% code coverage and includes stress testing, integration testing, and hardware validation before production deployment. This process helps identify design defects early, improve timing closure success, and reduce project risk.
Re:Build AppliedLogix implements multiple FPGA security mechanisms to help protect intellectual property from unauthorized access, cloning, and reverse engineering. Depending on the FPGA platform and application requirements, security measures may include AES-256 bitstream encryption, device-specific encryption keys stored in eFuses, secure boot, cryptographic authentication, anti-tamper configuration settings, and disabling JTAG debug access in production systems.
While no hardware security approach can eliminate all risk, modern FPGA security features significantly increase the effort, expertise, and cost required to reverse engineer protected designs.
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