課程名稱 |
(中文) 數位通訊系統 (英文) Digital Communication Systems |
開課單位 | 電機工程研究所 | ||
課程代碼 | E5700 | ||||
授課教師 | 劉皆成 | ||||
學分數 | 3.0 | 必/選修 | 選修 | 開課年級 | 研究所 |
先修科目或先備能力:通訊原理 (E4700) | |||||
課程概述與目標:The course is intended to provide a comprehensive coverage of digital communication systems for senior undergraduates and first year graduate students. | |||||
教科書 | Bernard Sklar, Digital Communications - Fundamentals and Applications, Prentice-Hall, 2nd Ed. 2001. |
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參考教材 | R. E Ziemer and R. L. Peterson, Introduction to Digital Communication, Prentice-Hall, 2nd Ed. 2001. |
課程大綱 | 學生學習目標 | 單元學習活動 | 學習成效評量 | 備註 | ||
週 | 單元主題 | 內容綱要 | ||||
1 | Introduction | 1. Why Digital ? 2. A Structured Overview of Digital Communication |
1. Why Digital ? 2. A Structured Overview of Digital Communication |
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2 | Formatting | 1. Pulse Code Modulation (PCM) 2. Waveform Representation of Binary Digits 3. PCM Waveform Types 4. M-ary Pulse-Modulation Waveforms |
1. Pulse Code Modulation (PCM) 2. Waveform Representation of Binary Digits 3. PCM Waveform Types 4. M-ary Pulse-Modulation Waveforms |
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3 | Detection of Binary Signals in Gaussian Noise | 1. Detection of Binary Signals in Gaussian Noise 2. Maximum Likelihood Receiver Structure 3. Error Probability and Error Function |
1. Detection of Binary Signals in Gaussian Noise 2. Maximum Likelihood Receiver Structure 3. Error Probability and Error Function |
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4 | Detection of Binary Signals in Gaussian Noise | 1. Detection of Binary Signals in Gaussian Noise 2. Maximum Likelihood Receiver Structure 3. Error Probability and Error Function |
1. Detection of Binary Signals in Gaussian Noise 2. Maximum Likelihood Receiver Structure 3. Error Probability and Error Function |
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5 | The Matched Filter | 1. The Matched Filter 2. Binary Data Transmission in White Gaussian Noise 3. Integrate-and-dump receiver 4. Correlator implementation of the Matched-Filter Receiver |
1. The Matched Filter 2. Binary Data Transmission in White Gaussian Noise 3. Integrate-and-dump receiver 4. Correlator implementation of the Matched-Filter Receiver |
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6 | The Matched Filter | 1. The Matched Filter 2. Binary Data Transmission in White Gaussian Noise 3. Integrate-and-dump receiver 4. Correlator implementation of the Matched-Filter Receiver |
1. The Matched Filter 2. Binary Data Transmission in White Gaussian Noise 3. Integrate-and-dump receiver 4. Correlator implementation of the Matched-Filter Receiver |
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7 | ISI and Nyquist Filter | 1. Intersymbol Interference (ISI) 2. Pulse Shaping To Reduce Intersymbol Interference 3. Partial Response Signaling for Interference Control 4. Equalization Method to Control Intersymbol Interference |
1. Intersymbol Interference (ISI) 2. Pulse Shaping To Reduce Intersymbol Interference 3. Partial Response Signaling for Interference Control 4. Equalization Method to Control Intersymbol Interference |
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8 | ISI and Nyquist Filter | 1. Intersymbol Interference (ISI) 2. Pulse Shaping To Reduce Intersymbol Interference 3. Partial Response Signaling for Interference Control 4. Equalization Method to Control Intersymbol Interference |
1. Intersymbol Interference (ISI) 2. Pulse Shaping To Reduce Intersymbol Interference 3. Partial Response Signaling for Interference Control 4. Equalization Method to Control Intersymbol Interference |
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9 | Signal Space | 1. Vector-Space Representation of Signal and Noise 2. Correlation Receiver |
1. Vector-Space Representation of Signal and Noise 2. Correlation Receiver |
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10 | Digital Modulation | 1. Basic Digital Modulation Schemes (ASK, FSK, PSK) 2. Coherent Detection and Noncoherent Detection 3. Quadrature Implementation of a Modulator |
1. Basic Digital Modulation Schemes (ASK, FSK, PSK) 2. Coherent Detection and Noncoherent Detection 3. Quadrature Implementation of a Modulator |
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11 | Digital Modulation | 1. Basic Digital Modulation Schemes (ASK, FSK, PSK) 2. Coherent Detection and Noncoherent Detection 3. Quadrature Implementation of a Modulator |
1. Basic Digital Modulation Schemes (ASK, FSK, PSK) 2. Coherent Detection and Noncoherent Detection 3. Quadrature Implementation of a Modulator |
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12 | Quadrature Signals | 1. Quadrature signals - Complex, but not Complicated 2. Quadrature Mixing or Complex Mixing |
1. Quadrature signals - Complex, but not Complicated 2. Quadrature Mixing or Complex Mixing |
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13 | Quadrature Signals | 1. Quadrature signals - Complex, but not Complicated 2. Quadrature Mixing or Complex Mixing |
1. Quadrature signals - Complex, but not Complicated 2. Quadrature Mixing or Complex Mixing |
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14 | Modulation and Coding Trade-Offs | 1. Goals of The Communications System Designer 2. Error Probability, Bandwidth, and SNR 3. Shannon-Hartley Capacity Theorem 4. Equivocation and Effective Transmission Rate |
1. Goals of The Communications System Designer 2. Error Probability, Bandwidth, and SNR 3. Shannon-Hartley Capacity Theorem 4. Equivocation and Effective Transmission Rate |
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15 | Modulation and Coding Trade-Offs | 1. Goals of The Communications System Designer 2. Error Probability, Bandwidth, and SNR 3. Shannon-Hartley Capacity Theorem 4. Equivocation and Effective Transmission Rate |
1. Goals of The Communications System Designer 2. Error Probability, Bandwidth, and SNR 3. Shannon-Hartley Capacity Theorem 4. Equivocation and Effective Transmission Rate |
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16 | Spread-Spectrum Systems | 1. PN-Sequence Generator 2. Direct-Sequence Spread-Spectrum (DS-SS) systems 3. Frequency Hopping Spread-Spectrum (HFSS) systems |
1. PN-Sequence Generator 2. Direct-Sequence Spread-Spectrum (DS-SS) systems 3. Frequency Hopping Spread-Spectrum (HFSS) systems |
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17 | Spread-Spectrum Systems | 1. PN-Sequence Generator 2. Direct-Sequence Spread-Spectrum (DS-SS) systems 3. Frequency Hopping Spread-Spectrum (HFSS) systems |
1. PN-Sequence Generator 2. Direct-Sequence Spread-Spectrum (DS-SS) systems 3. Frequency Hopping Spread-Spectrum (HFSS) systems |
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18 | Multiplexing and Multiple Access | 1. Frequency division (FD) 2.Time division (TD) 3. Code division (CD) 4. Space division (FD) or multiple beam frequency reuse. 5. Polarization division (PD) or dual polarization frequency reuse. |
1. Frequency division (FD) 2.Time division (TD) 3. Code division (CD) 4. Space division (FD) or multiple beam frequency reuse. 5. Polarization division (PD) or dual polarization frequency reuse. |
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19 | An Brief Introduction to Coding | 1. Source Encoding and Channel Encoding 2. Block code and Convolutional code |
1. Source Encoding and Channel Encoding 2. Block code and Convolutional code |
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20 | Communication Link Analysis | Communication Link Analysis | Communication Link Analysis |
教學要點概述: |