FPGAs are general-purpose semiconductor devices that can be reconfigured to execute given hardware applications. The FPGA Design and Validation is unlike the traditional fixed-function chips since (unlike the older version) it is a way to design customized digital circuits and then change them even after production. Such flexibility has seen wide application of FPGAs in various industries including telecommunications, automotive, aerospace, consumer electronics and medical devices.
FPGA design and validation encompass the complete development lifecycle of reconfigurable hardware, from system architecture, RTL design and IP integration to synthesis, timing closure and hardware validation. The process emphasizes functional correctness, performance, power efficiency and reliability, supported by rigorous simulation, formal verification and hardware-in-loop testing.
Techlabs’ FPGA product and support capabilities address complex, high-speed and safety-critical applications across defence, aerospace, automotive, industrial and communication domains. By incorporating design-for-test, compliance with industry and defence standards, and comprehensive pre- and post-silicon validation, Techlabs ensures predictable deployment, reduced program risk and long-term maintainability of FPGA-based systems. Validation process generally consists of simulation, hardware test, timing analysis and functional test. FPGA Design and Validation are together aimed at assisting organizations to develop scalable, efficient, and high-performance electronic systems.
Register transfer level (RTL) Design Creation is the process of designing digital circuits by specifying the data flow and control logic among registers with hardware description languages such as Verilog or VHDL. It is the basis of development of hardware prior to synthesis and implementation.
It is the reuse of already developed and tested design components, modules or intellectual property (IP) block in a new hardware or in an FPGA project. It will aid in the speedy development of the design at the same time ensuring that the design is reliable.
In simulation and debug, digital designs are tested in a computer-based environment to verify their functionality and expose errors prior to being implemented on hardware. Simulation mimics the real-world environment whereas debugging aims at finding out and correcting design errors.
Rapid FPGA-based SoC (System-on-Chip) and ASIC (Application-Specific Integrated Circuit) prototyping involves using FPGA platforms to quickly develop and test chip designs before final production. It helps validate functionality and system integration efficiently.
Advanced Verification is a complete procedure of checking hardware designs through automated hardware verification tools, methodologies and testing models to get the correct hardware verification, performance and compliance.
Advanced FPGA Synthesis is the conversion of high-level RTL design into optimized gate-level representations that can be used to implement the design on an FPGA. It provides effective mapping of design logic to FPGA resources.
Requirements tracking system are the methodical procedure of recording, tracking and managing design requirements throughout the development life cycle to guarantee that all specifications are met
DO-254 Solution means adherence to the DO-254 aviation standard offering the guidelines for designing and verifying airborne electronic hardware systems to ensure safety and reliability. DO-254 solutions improve the safety and quality of aerospace electronics. They enforce compliance for aviation certification. This process enhances design traceability, documentation, and accuracy of verification.
