校際選修

115-1 選課時程

進行中

  • 初選第一階段 6/15/2026
  • 初選第二階段 6/22/2026
  • 校際選修 8/24/2026
  • 初選第三階段 8/31/2026
  • 開學後加退選 9/7/2026
  • 逾期加退選 9/21/2026
選課資源

機器學習無線通訊

Machine Learning for Wireless Communications

學期
114-1
學分
3 學分
當期課號
535107
永久課號
EEEE30041
開課單位
電機工程學系
授課教師
許亨仰、闕河鳴、陳達慶、王蒞君
校區
光復
類別
選修
上課時間表
週三
A
18:30–19:20
機器學習無線通訊
ED203
3 節連堂
B
19:30–20:20
C
20:30–21:20

* 根據陽明交大上課時間表所列

概述

This course aims to equip students with machine learning (AI) and wireless communication algorithm design capabilities, understanding 5G and O-RAN architectures, and enabling hands-on implementation of communication algorithms in 5G and O-RAN small base stations on FPGA/RFSoC platforms. Students will learn the complete process from communication system modeling and AI algorithm design to implementation and testing on an FPGA board, thereby mastering cross-domain skills spanning theory, algorithms, and hardware implementation. Course objectives include: Part I: Wireless Communication Fundamentals and Communication Algorithm Design (王蒞君老師、闕河鳴老師): Master the fundamentals of communication OFDM, gain familiarity with the Vivado/Vitis development process, and be able to convert algorithms into RTL. Part II: FPGA/RFSoC Platform Implementation (陳達慶老師、王蒞君老師): Combine software-defined radio (SDR) with FPGA acceleration and implement them on an RFSoC hardware platform. Part III: Communications AI Chip Introduction and Design (闕河鳴老師、王蒞君老師): Learn machine learning and real-time AI algorithm techniques and apply them to communications chips. Part IV: 5G ORAN (許亨仰老師、王蒞君老師): Decomposing the traditional closed 5G base station functions into three independent units: the radio unit (RU), the distributed unit (DU), and the centralized unit (CU).

先修科目

1. Digital Communications 2. Computer Networks

評分方式

1. Assignments: 20% 2. Mid-Term: 30% 3. Final Exam 30% 4. Project 20%

週次計畫
週次主題
第 1 週- Course Introduction- Vivado / Vitis Introduction Overview + RFSoC FPGA (Summer 課程成果) AMD FPGA Architecture & Design Flow Development Tools and Environment
第 2 週- OFDM Transmitter Design OFDM Modulation & Frame Generation RFDC Configuration & IP Integration
第 3 週- OFDM Transmitter Design OFDM Transmitter – RF Up-Conversion
第 4 週- OFDM Receiver Design OFDM Receiver – RF Down-Conversion
第 5 週- OFDM Receiver Design OFDM Receiver Synchronization
第 6 週- OFDM Receiver Design Channel Estimation and Equalization
第 7 週- OFDM Transmission and Receivin OFDM System Integration
第 8 週- OFDM Transmission and Receivin OFDM System Tseting
第 9 週Introduction and Design of Communication AI Chips (I)
第 10 週Introduction and Design of Communication AI Chips (II)
第 11 週- Wireless Technology Trend (1G~5G)- Wi-Fi vs Cellular- 5G feature (eMBB/URLLC/mMTC)- Cellular System Architecture 5G telecom system experiment I
第 12 週- Radio Frame Structure- Slot configuration- 5G NR Physical Channels- Signal Processing 5G telecom system experiment II
第 13 週- 5G NR Protocol Stack- Attach Procedure- L2 DL/UL Data Flow- RRC and NAS 5G telecom system experiment III
第 14 週- Applications for 5G Telecommunication 5G telecom system experiment IV
第 15 週- RedCap- NTN Telecom Type- IoT NTN- NR NTN 5G telecom system experiment V
第 16 週Final-Term Exams: Final Presentation (Students)
教科書

1. Machine Learning for Future Wireless Communications, F. L. Luo, Wiley, IEEE Press, 2020 2. Key Technologies for 5G Wireless Systems, Vincent W. S. Wong, Robert Schober, Derrick Wing Kwan Ng, Li-Chun Wang, Cambridge University Press 2017. 3. SDR with Zynq Ultrascale+ RFSoC, AMD, 2022. 4. Shaping future 6G networks: Needs, impacts, and technologies. John Wiley & Sons, 2021.

Office Hours
聯絡方式
wang@nycu.edu.tw