Open-source RFSOC Algorithm Verification and Evaluation Board
The open-source RFSOC algorithm verification and evaluation board is built around the Xilinx ZYNQ UltraScale+ RFSoC ZU47DR, supported by two 14-bit ADCs operating at 5.0 GSPS and two 14-bit DACs running at 9.85 GSPS. This platform is a typical 2×2 MIMO system, featuring an external Gigabit Ethernet configuration interface and a 40G Ethernet data interface. It is a high‑performance, multi‑core heterogeneous software-defined radio hardware platform that integrates direct RF sampling, logic‑gate processing, and an embedded processor. The board comes with a wealth of design examples, including communication‑algorithm implementations in HDL, bare‑metal embedded designs, full‑system embedded designs, Pynq Jupyter‑based projects, and GNU Radio workflows, catering to diverse beginner‑level learning and development needs. Unlike conventional development environments, this platform supports both the PYNQ framework and the open‑source GNU Radio ecosystem. The PYNQ architecture, implemented in Python, significantly streamlines software‑oriented radio‑product development and provides a rich collection of open‑source software‑defined radio examples.
Model： IW-ZU47DR-2T2R
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Zynq UltraScale+ RFSOC Development Board
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- Commodity name: Open-source RFSOC Algorithm Verification and Evaluation Board
- 型号: IW-ZU47DR-2T2R
The open-source RFSOC algorithm verification and evaluation board is built around the Xilinx ZYNQ UltraScale+ RFSoC ZU47DR, supported by two 14-bit ADCs operating at 5.0 GSPS and two 14-bit DACs running at 9.85 GSPS. This platform is a typical 2×2 MIMO system, featuring an external Gigabit Ethernet configuration interface and a 40G Ethernet data interface. It is a high‑performance, multi‑core heterogeneous software-defined radio hardware platform that integrates direct RF sampling, logic‑gate processing, and an embedded processor. The board comes with a wealth of design examples, including communication‑algorithm implementations in HDL, bare‑metal embedded designs, full‑system embedded designs, Pynq Jupyter‑based projects, and GNU Radio workflows, catering to diverse beginner‑level learning and development needs. Unlike conventional development environments, this platform supports both the PYNQ framework and the open‑source GNU Radio ecosystem. The PYNQ architecture, implemented in Python, significantly streamlines software‑oriented radio‑product development and provides a rich collection of open‑source software‑defined radio examples.
The open-source RFSOC algorithm verification and evaluation board is built around the Xilinx ZYNQ UltraScale+ RFSoC ZU47DR, supported by two 14-bit, 5.0 GSPS ADC channels and two 14-bit, 9.85 GSPS DAC channels. This platform is a typical 2×2 MIMO system, featuring an external Gigabit Ethernet configuration interface and a 40G Ethernet data interface. It is a high‑performance, multi‑core heterogeneous software-defined radio hardware platform that integrates direct RF sampling, logic‑gate processing, and an embedded processor. The platform offers a wealth of design examples, including communication‑algorithm implementations in hardware, bare‑metal embedded designs, full‑system embedded designs, Pynq Jupyter‑based designs, and GNU Radio‑based designs, catering to diverse introductory learning and development needs. Unlike conventional development environments, this platform supports both the PYNQ framework and the open‑source GNU Radio ecosystem. The PYNQ architecture, implemented in Python, significantly streamlines software‑oriented radio‑product development and provides a rich collection of open‑source software‑defined radio examples.
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Performance Metrics
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Main applications
RFSOC Introductory Tutorial:Designed for students majoring in electronic information and novice developers to gain hands-on experience, this resource leverages open-source project examples to master RF link design, AD/DA data streams, and hardware–software co‑design, meeting the hardware‑training requirements of course labs and capstone projects.
5G Massive MIMO:A multi-antenna measurement platform was built to empirically validate core MIMO algorithms, such as channel estimation and multi-user spatial multiplexing, and to assess system throughput and multi-user interference suppression in a real‑world RF environment.
Hybrid Beamforming:Leveraging multiple RF channels, a hybrid analog‑digital beamforming architecture has been established, enabling real-time testing of algorithms for beam scanning, tracking, sidelobe suppression, and more, while facilitating rapid iteration of millimeter‑wave and Sub‑6 GHz array antenna designs.
Signal Detection and Interference:Conduct hardware validation for broadband spectrum sensing, interference identification, and adaptive interference mitigation; simulate complex electromagnetic environments; and support the development and testing of cognitive radio and wireless anti‑interference algorithms.
Satellite communication:Leveraging high-precision synchronization and wideband RF capabilities, we validated algorithms for Doppler compensation, carrier synchronization, and satellite–ground channel equalization, simulated satellite–ground transmission scenarios, and completed field testing of the satellite communication baseband solution. -
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Open-source RFSOC Algorithm Verification and Evaluation Board
IW-RFSOC-2T2R-47DR
Development board
1
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1
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1
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1
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1
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Power adapter + power cable
2
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SMA cable
4
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Data USB drive
1
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