XCZU7EV-2FFVC1156E
Zynq UltraScale+ MPSoC with quad-core Cortex-A53, dual-core Cortex-R5, Mali GPU for embedded vision.
Product Overview
Description
The XCZU7EV-2FFVC1156E is a high-performance Zynq UltraScale+ MPSoC featuring a heterogeneous multi-processor architecture. It includes a quad-core ARM Cortex-A53 application processor, dual-core Cortex-R5 real-time processors, and Mali-400 MP2 GPU for graphics acceleration.
The programmable logic provides 504,000 system logic cells, 1,728 DSP slices, and 36 GTH transceivers supporting up to 16.3 Gbps. The device includes a dedicated H.264/H.265 video codec capable of 4K60 encode/decode.
With advanced security features, safety extensions, and industrial temperature support, this MPSoC is ideal for automotive ADAS, industrial vision, medical imaging, and aerospace applications requiring high-performance embedded processing.
Product Series
XCZU
Primary Application
Automotive ADAS
Key Features
- High efficiency and reliability
- Optimized for industrial applications
- Comprehensive technical support
- Available from stock
Specifications
| Application Processor | Quad-core Cortex-A53 (1.5 GHz) |
|---|---|
| Real-time Processor | Dual-core Cortex-R5 (600 MHz) |
| GPU | Mali-400 MP2 |
| Logic Cells | 504,000 |
| DSP Slices | 1,728 |
| GTH Transceivers | 36 (16.3 Gbps) |
| Video Codec | H.264/H.265 4K60 |
| Package | FFVC1156 (35x35mm) |
Applications
Automotive ADAS
Automotive and EV electronics
Industrial Vision
Industrial automation and control
Medical Imaging
Medical electronics
Aerospace
Electronic system design
FAE Expert Insights
"The Zynq UltraScale+ XCZU7EV is my top recommendation for embedded vision and AI applications. The combination of quad-core A53 for Linux, dual-core R5 for real-time control, and Mali GPU for graphics creates a powerful heterogeneous platform. The integrated video codec is a game-changer - 4K60 encode/decode without consuming FPGA resources. I've used this device in multiple automotive ADAS projects where the real-time R5 cores handle sensor fusion while A53 runs the perception algorithms. The 36 GTH transceivers provide ample bandwidth for multi-camera systems. Security features including secure boot and crypto acceleration are essential for modern connected devices. Power consumption is reasonable for the performance - typically 8-12W for vision applications. This is the go-to device for complex embedded systems requiring both high-performance processing and real-time control."
Ideal heterogeneous platform for embedded vision and AI applications
— Jennifer Liu, BeiLuo
Frequently Asked Questions
How do the A53 and R5 processors work together?
The A53 and R5 processors have complementary roles: 1) A53 cores - run Linux for application processing, networking, and UI, 2) R5 cores - run RTOS or bare-metal for real-time control, 3) Inter-processor communication - via shared memory and OpenAMP, 4) Interrupt handling - R5 for time-critical interrupts, 5) Task distribution - A53 for compute-intensive, R5 for deterministic tasks. This architecture enables both high-performance processing and real-time response in a single device.
Use A53 for Linux applications. Use R5 for real-time control loops and safety-critical functions.
What is the video codec capability?
The EV variant includes dedicated video codec: 1) H.264 - encode/decode up to 4K60, 2) H.265/HEVC - encode/decode up to 4K60, 3) Simultaneous - encode and decode simultaneously at lower resolutions, 4) Bit rates - supports various bit rates for quality vs bandwidth tradeoff, 5) Latency - low latency modes for real-time applications. The codec operates independently without consuming programmable logic resources.
Use integrated codec for video streaming and surveillance. Use FPGA for custom video processing.
How do I boot the MPSoC?
MPSoC boot options: 1) QSPI flash - most common, stores FSBL and boot image, 2) SD card - convenient for development, 3) eMMC - for production systems, 4) NAND flash - high-density storage, 5) USB/JTAG - for debug and factory programming. Boot sequence: BootROM loads FSBL, FSBL configures PS and loads U-Boot/Linux. Secure boot supported with authentication and encryption.
Use QSPI for production. Use SD card for development. Enable secure boot for security requirements.
What security features are available?
MPSoC security features: 1) Secure boot - authenticate boot image with RSA, 2) Encryption - AES encryption for bitstream and data, 3) TrustZone - hardware isolation for secure world, 4) Crypto engines - hardware acceleration for AES, RSA, SHA, 5) Tamper detection - respond to physical attacks. These features enable secure systems for financial, government, and IoT applications.
Enable secure boot for production. Use TrustZone for sensitive data isolation.
Can I use this device for functional safety applications?
Yes, MPSoC supports functional safety: 1) Safety extensions - lock-step processors for A53 and R5, 2) ECC memory - error correction on all memory interfaces, 3) Safety monitors - watchdog timers and error detection, 4) Documentation - FMEDA and safety manuals available, 5) Certification - ISO 26262 and IEC 61508 support. The R5 lock-step mode is ideal for ASIL-D automotive applications.
Enable lock-step mode for highest safety levels. Use ECC memory for all safety-critical data.