XCZU5EV-3FBVB900E

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XCZU5EV-3FBVB900E is an Embedded - System On Chip (SoC) technology, developed by Xilinx Inc., which provides excellent logic performance, low power consumption and high integration. It is widely used in various fields such as industry control, automobile, communication, consumer electronics, etc. This article will introduce the application area and working principle of XCZU5EV-3FBVB900E in detail.

Application Field

XCZU5EV-3FBVB900E is suitable for a variety of embedded applications, including IoT, edge computing, industrial control, motion control, vision & image processing, automotive and storage. It is also perfectly suitable for development of intelligent video analysis applications, being capable of running several high-performance video processing algorithms.

In the field of industrial control, XCZU5EV-3FBVB900E has integrated three ARM Cortex-A9 processors, providing a powerful system platform for real-time control. It has built-in industrial, IO, bus and communication interface all-in-one solutions, reducing costs and improving system stability. In addition, the full-featured RADAR and LIDAR system applications further enrich the application scenarios.

In the automotive field, XCZU5EV-3FBVB900E is a high-powered SoC, featuring heterogeneous computing capabilities and built-in CAN/LIN/Ethernet MAC/PHY interfaces. It also supports flexray and dual-channel Ethernet channels, and has strong computing power, which is suitable for ADAS, automotive electronic control and other applications.

XCZU5EV-3FBVB900E has the following features:

• High performance
• Low power consumption
• Flexible FPGA fabric
• Integrated interfaces
• Hardware based video processing functions

Working Principle

The XCZU5EV-3FBVB900E integrates multiple hard IP modules and a column-level FPGA logic cell array (FA). These hard IP modules include a set of ARM Cortex-A9 processors, a DDR4 memory controller and Ethernet/PCIe network interface. They form a low-level subsystem, cooperating with the high-level software running in the processor.

The FPGA array provides the user with flexible FPGA resources for user definition configuration. It includes DSP, BRAM, BlockRAM, BlockROM, FIFO_IP, Microblaze processor and Multi-Gigabit Transceiver (MGT). The combination of different resources can better serve the user\'s application needs.

The FPGA consists of a large array of logic cells that can be reconfigured to meet specific application requirements. Logic cells are basic building blocks of the FPGA. Each logic cell can perform logic functions like AND, OR, NOT, NAND, NOR, EX-OR, etc. The user can configure the logic cell array to implement user-defined functions. It is also possible to create custom datapaths, filters, memories, accumulators and other more complex blocks.

The FPGA array is connected to the hard IP modules through a high-speed multi-level interconnection network. This network supports communication between the hard IP modules, between the hard IP modules and the FPGA, and between the FPGA and the processor. For example, a memory controller can access the memory connected to the FPGA through this network.

The XCZU5EV-3FBVB900E also provides hardware-based video processing functions. The hardware video processing block (VPD) consists of several functional blocks for video processing, including chroma resampling, scaling and format conversion. These functions are well-suited for intelligent video analytics applications.

Conclusion

XCZU5EV-3FBVB900E is equipped with high performance, low power consumption and high integration, making it an ideal choice for embedded applications. It has excellent applications in the fields of industry control, automotive, communication and consumer electronics. It also provides powerful hardware-based video processing functions for intelligent video analytics applications. The FPGA fabric and interconnection network provide the user with flexible FPGA resources and high-speed inter-module communication, which further expand the application scenarios.

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