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We are excited to share this groundbreaking update regarding our Vaaman platform, which can now be enhanced with the Hailo AI Kit. This integration exemplifies how FPGA technology remains highly relevant alongside AI accelerators. By combining AI capabilities with FPGA-based computation, we unlock new possibilities for:
As part of our ongoing commitment to transparency and performance optimization, we conducted extensive benchmarking on Vaaman using Hailo8L (13 TOPS). Below are the inference results across various AI models:
Model | Frames Per Second (FPS) | Latency (ms) |
---|---|---|
RESNET50 | 23.99 | 30.17 |
MNV1 | 1866.58 | 1.85 |
MNV2 | 1738.5 | 3.4 |
MNV3 | 74.72 | 11.69 |
MNV | 357.29 | NS * |
MNV | 46.06 | NS * |
* - NS: Not supported due to NMS network limitations
These benchmarks highlight how AI models run efficiently on Vaaman with Hailo8L, demonstrating its suitability for high-speed inferencing applications across multiple industries, including robotics, automation, and edge computing.
Despite the rise of dedicated AI accelerators like Hailo, FPGA technology continues to play a crucial role in computational applications. Here’s why integrating FPGA with AI accelerators makes sense:
Digital signal processing (DSP) is fundamental in industries such as telecommunications, audio processing, and radar systems. FPGA can be optimized to handle DSP workloads with low latency and high efficiency, making it ideal for applications that demand real-time performance.
Example: In a smart hearing aid, FPGA can filter out background noise in real time, enhancing the clarity of the user’s experience.
FFT is essential in various signal processing applications, including medical imaging, communications, and industrial monitoring. FPGA-based implementations can significantly accelerate FFT computations, enabling faster data analysis and improved response times.
Example: In MRI machines, FPGA-accelerated FFT can help reconstruct images faster, reducing patient scan times and improving efficiency.
Autonomous driving, robotics, and industrial automation require precise, real-time control. FPGAs provide deterministic execution, ensuring millisecond-level response times, which is critical for applications such as:
Collision avoidance in autonomous vehicles
Example: An FPGA can instantly process sensor data to trigger emergency braking.
Robot motion planning and adaptive control
Example: Industrial robots can adjust grip strength dynamically based on the weight of the object they’re holding.
Smart manufacturing systems that need precise timing
Example: FPGA-controlled conveyor belts in a factory can synchronize packaging operations with millisecond accuracy.
FPGAs allow users to create custom processing pipelines tailored to their specific computational needs. Unlike fixed-function processors, FPGA logic can be reconfigured on-the-fly, making them adaptable to various workloads without the need for additional hardware investment.
Example: A high-frequency trading system can use FPGA logic to execute trades in microseconds, reducing latency and maximizing profits.
Vaaman offers a seamless fusion of AI acceleration with Hailo and FPGA-based computing power, providing an unmatched level of flexibility and efficiency. Whether you are working in:
Vaaman ensures that your applications are optimized for peak performance.
This unique combination makes Vaaman a versatile choice for engineers, researchers, and developers looking to push the boundaries of innovation.
We are continuously working on expanding the capabilities of Vaaman. Future updates will focus on:
Stay tuned for further updates, and thank you for supporting our journey towards redefining the future of computing! 🚀