Alinx AXW49

Alinx AXW49 RF Development Board User Manual

AMD Xilinx Zynq UltraScale+ RFSoC XCZU49DR FPGA for 5G Wireless Systems

1. Introduction

The Alinx AXW49 RF Development Board is an ultra-high-end RFSoC FPGA development board designed for high-performance RF signal processing in 5G wireless systems and other advanced applications. It is built around the AMD Zynq UltraScale+ RFSoC architecture, offering a powerful platform for complex algorithm real-time processing.

Alinx AXW49 RF Development Board features overview
Figure 1: Alinx AXW49 RF Development Board Key Features

This board integrates a Zynq UltraScale XCZU49DR FPGA chip, which includes Quad ARM Cortex-A53 and Dual ARM Cortex-R5F processors. It supports real-time operating systems (RTOS) and Linux parallel running, making it suitable for high-precision scenarios such as 5G base stations, radar signal processing, and test and measurement applications.

2. Packing List

Upon receiving your Alinx AXW49 RF Development Board, please verify that all the following items are included in the package:

Packing List for Alinx AXW49 RF Development Board
Figure 2: Packing List
ItemQuantity
FPGA Development Board1 piece
Cooling fan1
SD card1 piece
NIC (Network Interface Card)1
Type-C line1
Power Adapter1
SMA wire1
Data USB flash disk1

3. Setup

The Alinx AXW49 RF Development Board is a professional electronic module/development board. Due to the diverse application scenarios and wiring methods, a unified printed manual with detailed wiring diagrams cannot be provided. For specific setup instructions, including wiring diagrams, driver files, or technical documentation, please contact customer service for guidance tailored to your specific model.

3.1. Initial Connection

  1. Power Supply: Connect the provided Power Adapter to the board's power supply interface. The board requires an input voltage of 24~32V.
  2. Cooling Fan: Attach the cooling fan to the designated header on the board to ensure proper thermal management during operation.
  3. SD Card: Insert the SD card into the Micro SD Card slot. This card typically contains the necessary boot files or operating system.
  4. Network Connection: For network access, connect an Ethernet cable to the 10/100/1000 Ethernet RGMII (RJ45) network port.
  5. USB Connection: Connect the Type-C line to the USB 3.0 Port for data transfer or debugging purposes.
  6. RF Connections: Use the SMA wires to connect to the 16-way ADCs (14-bit, 2.5GSPS) and 16 DAC ports (14-bit, 9.85GSPS) as required by your application.
  7. Optional M.2 SSD: If using an M.2 SSD, connect it to the M.2 interface. Note that users need to purchase the M.2 SSD separately.
Top view of Alinx AXW49 RF Development Board
Figure 3: Alinx AXW49 RF Development Board Overview

4. Operating Instructions

The AXW49 board leverages the Zynq UltraScale+ RFSoC's heterogeneous computing architecture, which includes a complete ARM processing subsystem, FPGA architecture, and analog-to-digital programmability in the RF signal chain.

4.1. Core Architecture and Processing

The Zynq UltraScale XCZU49DR FPGA chip integrates Quad ARM Cortex-A53 and Dual ARM Cortex-R5F processors. This architecture supports parallel execution of real-time operating systems (RTOS) and Linux, enabling efficient processing of complex algorithms.

Development Board hardcore architecture details
Figure 4: Development Board Core Architecture

4.2. RF Direct Sampling and Synchronization

The board features 16-channel 14-bit RF direct mining technology, allowing for integration with heterogeneous multi-board synchronization. This technology enables direct RF sampling, reducing the complexity of the RF signal chain and improving performance.

16-channel 14bit RF direct mining technology integration
Figure 5: RF Direct Mining Technology

4.3. High-Performance ADC/DAC Operation

The AXW49 supports 16 14-bit ADCs with a 2.5GSPS input and 16 14-bit DACs with a 9.85GSPS output. It handles single-ended signal input and output, performing differential single-ended interconversion through balun devices for data transmission and reception. The VCM signal also leads to TP, allowing users to adjust common mode voltage.

High performance high RF sampling rate ADC/DAC details
Figure 6: ADC/DAC Performance

4.4. Application Scenarios

The board is designed for extensive application scenarios, including:

  • Satellite Communication: Utilizes direct RF sampling and ZYNQ RFSoC for signal generation and analysis.
  • 5G and LTE Wireless Technology: Enables wireless infrastructure manufacturers to achieve significant chopping block reduction in area and power consumption, crucial for MIMO technology development.
  • Radar Signal Processing and Data Link: Supports 16-channel ADCs and 16-channel DACs for low latency transceiver applications.
  • Test and Measurement: Provides a high-speed multifunctional instrument for signal generation and analysis through direct RF sampling, high flexibility, and software programmability.
Extensive application scenarios for the development board
Figure 7: Application Scenarios

5. Maintenance

To ensure the longevity and optimal performance of your Alinx AXW49 RF Development Board, follow these general maintenance guidelines:

  • Keep Clean: Regularly clean the board with a soft, dry brush or compressed air to remove dust and debris. Avoid using liquids or harsh chemicals.
  • Storage: Store the board in a dry, anti-static environment when not in use.
  • Handle with Care: Always handle the board by its edges to avoid touching sensitive components. Use anti-static precautions (e.g., wrist strap) when handling.
  • Environmental Conditions: Operate the board within the specified ambient temperature range of -40°C to 70°C. Avoid extreme temperatures or humidity.

6. Troubleshooting

If you encounter issues with your Alinx AXW49 RF Development Board, consider the following general troubleshooting steps. For complex problems, wiring diagrams, driver files, or specific technical documentation, please contact customer service.

  • Power Issues: Ensure the power adapter is correctly connected and providing the specified voltage (24-32V). Check for any loose connections.
  • Boot-up Failure: Verify that the SD card is properly inserted and contains the correct boot files.
  • Connectivity Problems: Check all cable connections (Ethernet, USB, SMA) for secure fit. Ensure drivers are correctly installed for any connected peripherals.
  • Overheating: Confirm the cooling fan is properly installed and functioning. Ensure adequate airflow around the board.
  • Software/Firmware: If issues arise after a software or firmware update, try reverting to a previous stable version if possible, or consult the latest documentation from customer support.

7. Specifications

7.1. General Specifications

  • Brand Name: Alinx (cbhioarpd)
  • Model: AXW49
  • Origin: Mainland China
  • Battery Included: No
  • High-concerned chemical: None
  • Typical Application Fields: Education and Learning, 5G Base Stations, Radar Signal Processing, Test and Measurement.
  • Demo Board Type: ARM
  • Dimensions: 200mm x 200mm (Expansion Board)
  • Power Consumption: 60W (measured value based on purpose)
  • Ambient Temperature: Working -40°C to 70°C
Structure Size diagram of the expansion board
Figure 8: Expansion Board Structure Size Diagram

7.2. ZYNQ Heart Slice Parameters

Table of ZYNQ heart slice parameters
Figure 9: ZYNQ Heart Slice Parameters
ParameterValue
Chip modelXCZU49DR-2FFVF1760E
Chip CPUQuad-core Arm CortexA53 MPCore, Dual-core Arm Cortex R5F MPCore
14 bit 2.5GSPS RF-ADC16
14 bit 9.85GSPS RF-DAC16
Decimation/interpolation1x, 2x, 3x, 4x, 5x, 6x, 8x, 10x, 12x, 16x, 20x, 24x, 40x
GTY16
System Logic Cell930K
CLB LUTs425K
Max.Dist.RAM13.0Mb
Total Block RAM38.0Mb
UltraRAM22.5Mb
DSP Slices4272
PCIe Gen4 x82

7.3. Interfaces and Functions

Table of interfaces and functions
Figure 10: Interfaces and Functions
CategoryInterface/Function
MemoryPS terminal: 4x 1GB DDR4 (total 4GB, 64bit data rate 2400Mbps)
PL-side: 4x 1GB DDR4 (total 4GB, 64bit data rate 2400Mbps)
Board Power Supply39-30-1060 interface (input voltage 24~32V)
PS Interface2x 128MB QSPI flash curing profile
1x USB 3.0 Port
1x 10/100/1000 Ethernet RGMII (RJ45) network port
1x Micro SD Card
PL Interface1x M.2 interface (for M.2 SSD, user-purchased)
16-way ADCs (14-bit, 2.5GSPS) ports
16 DAC ports (14-bit, 9.85GSPS)
2x QSFP 100G optical port (single channel data rate 100Gb/s)
32x IO

8. User Tips

  • Consult Documentation: Given the complexity and versatility of this development board, always refer to the latest technical documentation and application notes provided by Alinx or Xilinx for your specific project.
  • Community Support: Engage with online forums and communities dedicated to Xilinx Zynq UltraScale+ RFSoC for shared knowledge and troubleshooting tips.
  • Start Simple: When beginning a new project, start with basic examples and gradually increase complexity to better understand the board's capabilities and avoid common pitfalls.

9. Warranty and Support

This product is a professional electronic module/development board. If you have any questions during use or require specific resources such as wiring diagrams, driver files, or additional technical documentation, please feel free to contact our customer service. We are committed to providing full technical support and guidance for your specific model.

A user manual in PDF format is available for download: Alinx AXW49 User Manual (PDF)

10. Frequently Asked Questions (FAQ)

Q: What operating systems does the board support?
A: The board supports real-time operating systems (RTOS) and Linux, running in parallel on its ARM processors.
Q: Can I expand the storage on the board?
A: Yes, the board includes an M.2 interface for connecting an M.2 SSD, which users need to purchase separately.
Q: Where can I find detailed wiring diagrams?
A: Due to varied application scenarios, detailed wiring diagrams are not included in a general manual. Please contact customer service for specific wiring diagrams and technical documentation relevant to your use case.
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