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2026/03/26
Literature Recommendation: An RFSoC FPGA–Based Millimeter-Wave Digital Beamforming Receiver for MIMO Communications
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Literature Review – Multi-Channel Data Acquisition and Digital Beamforming System
2026/03/23
Literature Recommendation — Digital Transceiver Processor for RFSoC in Array Antenna Systems
Radiofrequency Reflectometry in Quantum Computing
2026/03/19
Literature Review: RFSoC Applications — A Radiation-Measurement Front-End Based on Pulse Monitoring
Collins’ ORCHA—System-in-Package Based on RFSoC
Lincoln Laboratory Paper Commentary: All-Digital Phased-Array Radar (4)
2025/12/24
Lincoln Laboratory Paper Review: RFSoC’s Contributions to the Development of Next-Generation All-Digital Phased Arrays (3)
Preface The U.S. National Weather Service operates a network of 150 dual-polarization Doppler weather radars to detect and forecast hazardous weather and to generate quantitative precipitation estimates. Dual‑polarization phased‑array radars (PPARs) support multiple approaches that can substantially increase volumetric sampling rates, thereby providing significant benefits for severe‑weather warnings and precipitation estimation. The agile electronic beams of dual‑polarization phased‑array radars also enable enhanced data quality and coverage tailored to operational priorities, improve clutter suppression through adaptive adjustment of the minimum elevation angle beam pattern, and eliminate beamwidth broadening caused by scanning.