FPGA Design and Development.

The journey from Spec2Proto (Specification to Prototype) is one of our key strengths. Our team can take high-level specifications and transform them into optimized FPGA-based prototypes. This process involves detailed planning, design entry, synthesis, and implementation of the complete FPGA design. Once the prototype is implemented, it’s tested thoroughly to ensure it meets the functional and performance requirements.

Spec2Proto Implementation includes:

• Requirements Analysis: Understanding your high-level specifications and creating a clear roadmap for design and implementation.
• Driver and Firmware Development: Building corresponding device drivers and middleware to ensure that your FPGA prototype functions seamlessly within your system.
• Prototype Optimization: Ensuring that the prototype not only works but performs efficiently across all desired metrics—speed, power consumption, and scalability.

Qbit Labs provides RTL Design services that form the foundation for building complex digital systems. We excel in creating RTL designs that translate to optimized hardware on FPGAs, enabling flexibility, scalability, and superior performance for custom digital applications. Whether you're developing custom integrated circuits (ICs) or deploying FPGA-based solutions, our team specializes in turning high-level specifications into working prototypes.

We offer comprehensive RTL solutions, including:

• Custom RTL Development: Tailored solutions that meet your precise functional and performance needs.
• RTL for ASIC and FPGA: Seamlessly integrating your designs for both FPGA and ASIC implementations, providing flexibility and design reusability.
• Efficient Synthesis and Implementation: Ensuring your RTL code is optimized for FPGA hardware, balancing speed, area, and power consumption for optimal performance.

Our FPGA Design & Development services are underpinned by advanced Signal Processing techniques that enable the extraction, optimization, and enhancement of signals in a wide range of applications. We work with cutting-edge technologies to process complex signals for diverse industries, including telecommunications, automotive, aerospace, and more. By leveraging powerful FPGA resources, we ensure that your designs achieve superior performance, enhanced accuracy, and optimized power usage.

With our signal processing capabilities, we provide:

• High-Fidelity Signal Analysis: Advanced algorithms and real-time processing to ensure high-quality signal transmission and reception.
• Noise Reduction & Signal Enhancement: Improving signal-to-noise ratio (SNR) for clearer, more accurate data transmission.
• Real-Time Data Processing: Offering real-time, low-latency processing for critical applications such as wireless communication, radar, and satellite communications.

Our commitment to precision in signal processing ensures that our clients stay ahead in the competitive landscape, delivering systems that offer superior decision-making capabilities and faster time-to-market.

We offer comprehensive Verification & Validation services, ensuring that your FPGA designs meet all required specifications and operate correctly across various conditions. Our team applies advanced testing methodologies to ensure the reliability and performance of your design, providing a vital layer of confidence before deployment. Our testing encompasses everything from functional verification to stress testing in real-world environments.

Our Verification & Validation services include:

• Simulation and Emulation: Using sophisticated simulation tools to validate functionality and ensure that the design behaves as expected.
• Automated Test Benches: Developing custom test benches to facilitate the efficient verification of designs and reduce the time-to-market.
• Post-Silicon Validation: Ensuring that designs are validated in hardware, enabling early detection of potential issues even after the FPGA implementation.

Expertise in system integration, ensuring that your FPGA/ASIC design works flawlessly within a broader system. We focus on ensuring seamless interaction with other hardware and software components, including middleware integration.