Fpga Development Services
Our FPGA specialists bring proven expertise in custom IP development, system integration, and real-time processing solutions. Access skilled engineers within 2 weeks to speed up your development cycle.
500+ companies rely on our top 1% tech talent.
FPGA Development Services We Provide
1. Custom FPGA Design Services and Implementation
FPGA design services require precise hardware architecture knowledge and advanced optimization expertise. You need custom FPGA solutions that balance performance requirements with resource utilization, implementing efficient hardware designs for applications from high-speed signal processing to complex control systems.
We employ industry-standard HDL languages and advanced synthesis tools to create optimized implementations. Our development process includes thorough simulation phases, detailed timing analysis, and systematic optimization steps. Design validation happens with advanced verification methods. This powers reliable operation under different operating conditions and constraints.
2. IP Core Development
Intellectual property cores support modular, reusable FPGA components that accelerate development cycles. Developers must create custom IP cores optimized for specific performance requirements while maintaining compatibility with existing systems and standard interfaces. This includes developing specialized processing units, interface controllers, and algorithm accelerators.
Every IP we develop is thoroughly tested and well-documented, with support packages that make integration smooth and hassle-free. Each core is tested across multiple FPGA platforms and operating conditions. We implement parameterizable designs that support configuration flexibility while maintaining performance targets.
3. FPGA Verification and Testing
Modern FPGA designs demand sophisticated verification strategies to support functionality and performance. You need multi-layered verification approaches, including RTL simulation, formal verification, hardware co-simulation, and in-system validation. This comprehensive testing means designs meet both functional requirements and timing constraints.
Our testing protocols include detailed timing analysis, power consumption assessment, and resource utilization optimization. We combine directed testing for critical paths with constrained random verification for complete coverage. Plus, our verification environments support both UVM and traditional testbench methodologies.
4. System Integration
FPGA integration demands expertise in complex interface design and timing requirements. Interaction between FPGA components, external processors, memory systems, and peripheral interfaces can be tricky.
Integration services cover all bases to support smooth operation. Our approach emphasizes reliable data transfer, proper synchronization across clock domains, and efficient resource utilization. We implement error handling and monitoring capabilities for higher rates of system reliability.
5. FPGA Migration and Optimization
Hardware migration projects demand expertise in various FPGA architectures and their unique capabilities. Successful transitions between different FPGA families and vendors maintain functionality while improving performance. Complex porting challenges, including architecture-specific optimizations and timing closure, require skilled execution to achieve effective migration and better system efficiency.
How does it work? Our optimization process uses advanced tools and methodologies to identify performance bottlenecks and implement architectural improvements. This includes a detailed resource utilization analysis, timing paths, and power consumption patterns. We apply vendor-specific optimization techniques to maximize design efficiency.
6. Real-Time System Development
Real-time FPGA applications demand precise timing control and deterministic behavior. Custom FPGS design solutions can include time-critical applications such as industrial control systems, signal processing chains, and high-speed data acquisition systems. We implement architectures that guarantee consistent performance under strict timing constraints.
Implementation includes carefully considering latency requirements, data throughput specifications, and resource allocation strategies. Our designs incorporate sophisticated monitoring and debug capabilities while maintaining real-time performance requirements. We optimize clock domain crossings and implement an efficient buffering strategy.
Rolls Royce case study
Rolls Royce turned to BairesDev to develop an efficient, user-friendly mobile app. A two-week discovery process with the Rolls Royce product owner identified a comprehensive list of functionalities, data streams, and displays required to meet their clients’ expectations for a mobile SDS. Read the entire Rolls Royce case study.
Key Things to Know About FPGA
Best Practices for FPGA
Successful FPGA implementation begins with thorough architecture planning and resource management. Early decisions impact project success, performance, and maintainability. Focusing on these foundational elements sets the stage for an efficient and effective design process:
Implement strategic partitioning of logic functions to maximize FPGA resource utilization. Balance logic distribution across the device while maintaining timing constraints and power requirements.
Design proper clock domain crossings and synchronization strategies. Establish clear clock hierarchies and minimize clock skew with careful constraint definition and placement.
Plan memory hierarchies to optimize data access and minimize bottlenecks. For optimal performance, consider block RAM utilization, external memory interfaces, and caching strategies.
Implement power analysis early in the design phase. Consider thermal constraints, voltage requirements, and power distribution across different operational modes.
Effective FPGA development requires disciplined coding practices and verification strategies throughout the entire implementation process, including:
Maintain consistent coding styles and naming conventions across the project. Include parameterizable designs that support reuse and configuration flexibility.
Use version control for RTL code, constraints, and IP configurations. Maintain clear documentation of design changes and implementation decisions.
Implement systematic timing closure methodology from initial design through final implementation. Address timing violations early through proper constraints and logical organization.
Maintain a structured approach to IP integration and version control. Remember to document interface requirements and verify compatibility across different IP cores.
Verification supports reliable FPGA operation under all conditions and validates design functionality before deployment. Verify and test the following:
Develop thorough tests covering normal operation and edge cases. Implement directed and random testing approaches for complete coverage.
Create systematic hardware validation procedures, including in-system testing. You’ll need to verify operation across voltage and temperature variations.
Implement debug interfaces and performance monitoring capabilities to improve your outcomes. Include mechanisms for real-time system analysis and troubleshooting.
Validate designs against relevant industry standards and protocols. Check for compliance with interface specifications and timing requirements.
Why Choose BairesDev for FPGA Development
Top 1% of Tech Talent
Considering an FPGA design firm? Our selection process identifies exceptional FPGA developers who meet demanding technical standards. Each engineer demonstrates mastery across critical areas, including HDL development, synthesis tools, and verification methodologies. Their expertise includes complex timing analysis, power optimization, and system integration.
Our engineers maintain active knowledge of modern FPGA architectures and development tools. They regularly work with the latest platforms from major vendors, including Xilinx (AMD) and Intel. Your projects benefit from current best practices and optimization techniques.
Nearshore, Timezone-Aligned Talent
Our development teams operate in your time zone, allowing for immediate collaboration on complex FPGA designs. Alignment like this is crucial for hardware development, where technical discussions and design decisions require real-time interaction. Teams participate in architecture reviews, design meetings, and problem-solving sessions.
By working in real-time with your team, we speed up development and quickly address any issues. Our engineers are accessible during your business hours. This synchronization benefits complex integration projects where hardware and software teams must coordinate closely.
Flexible Engagement Models
We adapt our services to match your FPGA development needs and project requirements. Whether you need help with your initial concept or specialized expertise in verification or optimization, our engagement models power-efficient resource allocation.
Our approach supports changing project demands and technical priorities. Teams can scale to meet aggressive development schedules or adjust focus as requirements evolve. This adaptability leads to consistent progress while maintaining cost efficiency throughout the development lifecycle.
Our process. Simple, seamless, streamlined.
During our first discussion, we'll delve into your business goals, budget, and timeline. This stage helps us gauge whether you’ll need a dedicated software development team or one of our other engagement models (staff augmentation or end-to-end software outsourcing).
We’ll formulate a detailed strategy that outlines our approach to backend development, aligned with your specific needs and chosen engagement model. Get a team of top 1% specialists working for you.
With the strategy in place and the team assembled, we'll commence work. As we navigate through the development phase, we commit to regularly updating you on the progress, keeping a close eye on vital metrics to ensure transparency and alignment with your goals.
Frequently Asked Questions (FAQ)
What development tools and platforms do you work with?
Our teams work extensively with industry-standard FPGA development environments, including Xilinx Vivado, Intel Quartus Prime, and associated debug tools. We have experience across multiple device families and implement designs using both VHDL and Verilog. Our development process incorporates advanced verification tools, timing analyzers, and power estimation software.
Can you support both new designs and existing system modifications?
Yes, we handle both new development and updates to existing FPGA designs. Our teams analyze current implementations, identify improvement opportunities, and implement updates while maintaining system compatibility. This includes porting designs between different FPGA families and vendors.
How do you review design quality and reliability?
Quality assurance runs through the entire development process through systematic code reviews, automated testing, and formal verification. We implement comprehensive timing closure methodology and validate designs across voltage and temperature variations. Complete documentation covers design decisions, constraints, and maintenance procedures.
What experience do you have with high-speed interfaces?
Our teams regularly implement high-speed interfaces, including PCIe, Ethernet, and custom protocols. We understand signal integrity requirements, proper constraint definition, and validation methodologies for high-speed designs. This includes experience with multi-gigabit transceivers and complex SerDes implementations.
How do you handle intellectual property protection?
We implement strict IP protection measures, including secure development environments and comprehensive NDAs. All design files, documentation, and source code remain client property. Our process includes handling sensitive information and clear ownership transfer procedures.
How is FPGA technology used in gaming?
FPGA technology plays a significant role in retro gaming, with devices like the Analogue Pocket and MiSTer FPGA leading the charge. The Analogue Pocket is a handheld console that uses FPGA cores to replicate the hardware of classic systems such as the Game Boy and Sega Game Gear, allowing players to experience their favorite games with high accuracy and modern enhancements. Meanwhile, the MiSTer FPGA is an open-source platform designed for enthusiasts, emulating a wide array of retro consoles and arcade machines by recreating the original hardware at the circuit level. These applications showcase how FPGA technology delivers unparalleled precision and low-latency performance, preserving gaming history for a new generation.
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