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Edition-24a.2

Contents:

  • Course Overview
    • Course deliverables:
  • Pre-requisites
  • Getting Started with the Course
  • Course Contents
    • 1. Introduction to ADALM-Pluto SDR and its application programming interface
    • 2. Analysis of Wireless Channel Spectrum using Software Defined Radios
    • 3. Coarse Downlink Time Synchronization in 5G-Wireless Networks
    • 4. Implementation of OFDM in 5G networks
    • 5. Carrier Frequency Offset Estimation and Correction using PSS in 5G Networks
    • 6. Channel Estimation and Equalization for SSB/PBCH using PBCH-DMRS
    • 7. Implementation of PBCH Chain in 5G Networks
    • 8. PDCCH Implementation and Blind Decoding in 5G Networks
    • 9. Data Communication using PDSCH in 5G Networks
    • 10. MIMO-OFDM Systems in 5G Networks
    • 11. Important System Parameters and their effect on the 5G Networks Performance
  • Codes
    • Introduction to Software Defined Radios (SDRs) and Its Application Programming Interface
      • Import Python libraries
      • System Parameters
      • Set-up the SDR
      • Transmitting the data
      • Receiving the data
    • 2. Analysis of Wireless Channel Spectrum using ADALM-Pluto SDR
      • Wireless Spectrum Analysis based on Fast Fourier Transform techniques
        • 2. Import libraries
        • 2. System Parameters
        • 2. Setup SDRs
        • 2. Transmitter Side
          • 2. Generate Samples for transmission
          • 2. Transmit the samples
        • 2. Receiver Side
          • 2. Signal Acquisition: Receive the samples
        • 2. Spectrum Computation
          • 2. Compute the power spectral density
          • 2. Display the power spectral density
        • 2. Quasi realtime Spectrum Analysis
      • Transmitter-side: Wireless Spectrum Analysis based on Fast Fourier Transform techniques
        • 2.1 Import libraries
        • 2.1 System Parameters
        • 2.1 Setup SDRs
        • 2.1 Transmitter Side
          • 2.1 Generate Samples for transmission
          • 2.1 Transmit the samples
      • Receiver-side:Fast Fourier Transform based Spectrum Analysis
        • 2.2 Import libraries
        • 2.2 System Parameters
        • 2.2 Setup SDRs
        • 2.2 Receiver Side
          • 2.2 Signal Acquisition: Receive the samples
        • 2.2 Spectrum Computation
          • 2.2 Compute the power spectral density
          • 2.2 Display the power spectral density
        • 2.2 Quasi Real-time Spectrum Analysis
    • 3. Coarse Downlink Time/OFDM frame Synchronization in 5G-Wireless Networks
      • Downlink Time/Frame Synchronization using PSS in 5G Networks
        • 3. Import Libraries
          • 3. Import Some Basic Python Libraries
          • 3. Import 5G Libraries
        • 3. Emulation Parameters
        • 3. Generate SSB Parameters
        • Generate PSS
        • Generate SSS
        • Generate PBCH-DMRS
        • Generate PBCH Payload
        • Generate SSB
        • Load SSB into SSB resource Grid
        • 3. Construct Transmission Grid and Generate Time Domain Samples
        • OFDM Modulation
        • 3. SDR-Setup Configurations
        • 3. Transmission: SDR RF Transmitter
        • 3. Reception: SDR RF Receiver
        • 3. Time Synchronization: Based on PSS Correlation
        • 3. Frame Synchronization: Visualization
        • 3. Saving Running frames
      • BS Side Implementation-Downlink Time/Frame Synchronization using PSS in 5G Networks
        • 3.1 Import Libraries
          • 3.1 Import Some Basic Python Libraries
          • 3.1 Import 5G Libraries
        • 3.1 Emulation Parameters
        • 3.1 Generate SSB Parameters
        • 3.1 Construct Transmission Grid and Generate Time Domain Samples
        • 3.1 SDR-Setup Configurations
        • 3.1 Transmission: SDR RF Transmitter
      • UE Side Implementation-Downlink Time/Frame Synchronization using PSS in 5G Networks
        • 3.2 Import Libraries
          • 3.2 Import Some Basic Python Libraries
          • 3.2 Import 5G Libraries
        • 3.2 Emulation Parameters
        • 3.2 SDR-Setup Configurations
        • 3.2 Reception: SDR RF Receiver
        • 3.2 Time Frequency Configurations
        • 3.2 Time Synchronization: Based on PSS Correlation
        • 3.2 Frame Synchronization: Visualization
        • 3.2 Saving Running frames
    • 4. OFDM in 5G Networks
      • OFDM in 5G Networks
        • 4. Import Libraries
          • 4. Import Python and SDR Libraries
          • 4. Import 5G Toolkit Libraries
        • 4. Emulation Parameters
        • 4. Transmitter Implementation
        • 4. Generate the SSB Grid for synchronization
        • 4. PSS, SSS, PBCH, DMRS Generation
        • 4. SSB Generation
        • 4. Generate transmission Grid
        • 4. OFDM Modulation: Transmitted SSB
        • 4. SDR-Setup Configurations
        • 4. Transmission
        • 4. Reception
        • 4. Receive Samples from SDR
        • 4. Time Synchronization: Detection of PSS
        • 4. OFDM Demodulation: Receiver
        • 4. Quasi-realtime reception of OFDM Grid
      • Transmitter side implementation: OFDM in 5G Networks
        • 4.1 Import Libraries
          • 4.1 Import Python and SDR Libraries
          • 4.1 Import 5G Toolkit Libraries
        • 4.1 Emulation Parameters
        • 4.1 Transmitter Implementation
        • 4.1 Generate the SSB Grid for synchronization
        • 4.1 PSS, SSS, PBCH, DMRS Generation
        • 4.1 SSB Generation
        • 4.1 Generate transmission Grid
        • 4.1 OFDM Modulation: Transmitted SSB
        • 4.1 SDR-Setup Configurations
        • 4.1 Transmission
      • Receiver side implementation: OFDM in 5G Networks
        • 4.2 Import Libraries
          • 4.2 Import Python and SDR Libraries
          • 4.2 Import 5G Toolkit Libraries
        • 4.2 Emulation Parameters
        • 4.2 SDR-Setup Configurations
        • 4.2 Reception
        • 4.2 Receive Samples from SDR
        • 4.2 Time Synchronization: Detection of PSS
        • 4.2 OFDM Demodulation: Receiver
        • 4.2 Quasi-realtime reception of OFDM Grid
    • 5. Carrier frequency offset (CFO) Estimation and Correction in 5G networks
      • 5. Carrier frequency offset estimation and correction in 5G networks
        • 5. Import Libraries
          • 5. Import Python and SDR Libraries
        • 5. Toolkit Libraries
        • 5. Simulation Parameters
        • 5. PBCH Payload Generation: MIB + ATI
        • 5. PSS, SSS, PBCH, DMRS Generation
        • 5. Constellation Diagram: Base Station
        • 5. SSB Generation
        • 5. OFDM Implementation: Transmission of SSB
        • 5. SDR Setup
        • 5. Transmission of samples
        • 5. Receiver
          • 5. Receive Samples from SDR
        • 5. Time Synchronization: Coarse Tuning
        • 5. CFO Estimation
        • 5. OFDM Demodulation
        • 5. Extract SSB Grid
        • 5. PBCH Processing
        • 5. Constellation Diagram: User Equipment
        • 5. Error vector magnitude (EVM)
        • 5. Quasi-realtime: CFO Estimation and Reconstruction
      • 5.1 Base-station side: Carrier frequency offset (CFO) estimation and correction in 5G networks
        • 5.1 Import Libraries
          • 5.1 Import Python and SDR Libraries
        • 5.1 Toolkit Libraries
        • 5.1 Simulation Parameters
        • 5.1 PBCH Payload Generation: MIB + ATI
        • 5.1 PSS, SSS, PBCH, DMRS Generation
        • 5.1 Constellation Diagram: Base Station
        • 5.1 SSB Generation
        • 5.1 OFDM Implementation: Transmission of SSB
        • 5.1 SDR Setup
        • 5.1 Transmission of samples
      • 5. UE_Side: Carrier frequency offset (CFO) estimation and correction in 5G networks
        • 5.2 Import Libraries
          • 5.2 Import Python and SDR Libraries
        • 5.2 Toolkit Libraries
        • 5.2 Simulation Parameters
        • 5.2 TimeFrequency Parameters
        • 5.2 SDR Setup
        • 5.2 Receiver
          • 5.2 Receive Samples from SDR
        • 5.2 Time Synchronization: Coarse Tuning
        • 5.2 CFO Estimation
        • 5.2 OFDM Demodulation
        • 5.2 Extract SSB Grid
        • 5.2 PBCH Processing
        • 5.2 Constellation Diagram: User Equipment
        • 5.2 Error vector magnitude (EVM)
        • 5.2 Quasi-realtime: CFO Estimation and Reconstruction
    • 6. Channel Estimation and Equalization for SSB-PBCH using PBCH-DMRS
      • 6. Channel Estimation and Equalization for SSB-PBCH in 5G Networks
        • 6. Import Libraries
          • 6. Import Python and SDR Libraries
          • 6. Import 5G Toolkit Libraries
        • 6. Emulation Parameters
        • 6. PBCH Payload Generation: MIB + ATI
        • 6. PSS, SSS, PBCH, DMRS Generation
        • 6. Constellation Diagram: Base Station
        • 6. SSB Generation
        • 6. OFDM Implementation– Transmission of SSB.
        • 6. SDR Setup
        • 6. Transmission
        • 6. Receive Samples from SDR
        • 6. Time Synchronization: Coarse Tuning
        • 6. CFO Estimation
        • 6. OFDM Demodulation
        • 6. Extract SSB Grid
        • 6. SSS and DMRS Parameter Detection
        • 6. Channel Estimation and PBCH Symbol Equalization
        • 6. PBCH Decoding
        • 6. Constellation Diagram: UE
        • 6. Checking whether CRC is correct
        • 6. Quasi-realtime: CFO Estimation and Reconstruction
      • 6. BS-Side: Channel Estimation and Equalization for SSB-PBCH in 5G Networks
        • 6.1 Import Libraries
          • 6.1 Import Python and SDR Libraries
          • 6.1 Import 5G Toolkit Libraries
        • 6.1 Emulation Parameters
        • 6.1 PBCH Payload Generation: MIB + ATI
        • 6.1 PSS, SSS, PBCH, DMRS Generation
        • 6.1 Constellation Diagram: Base Station
        • 6.1 SSB Generation
        • 6.1 OFDM Implementation– Transmission of SSB.
        • 6.1 SDR Setup
        • 6.1 Transmission
      • 6. UE-Side: Channel Estimation and Equalization for SSB-PBCH in 5G Networks
        • 6.2 Import Libraries
          • 6.2 Import Python and SDR Libraries
          • 6.2 Import 5G Toolkit Libraries
        • 6.2 Emulation Parameters
        • 6.2 Time-frequency Parameter
        • 6.2 SDR Setup
        • 6.2 Receive Samples from SDR
        • 6.2 Time Synchronization: Coarse Tuning
        • 6.2 CFO Estimation
        • 6.2 OFDM Demodulation
        • 6.2 Extract SSB Grid
        • 6.2 SSS and DMRS Parameter Detection
        • 6.2 Channel Estimation and PBCH Symbol Equalization
        • 6.2 PBCH Decoding
        • 6.2 Constellation Diagram: UE
        • 6.2 Checking whether CRC is correct
        • 6.2 Quasi-realtime: CFO Estimation and Reconstruction
    • 7. PBCH and MIB in 5G Networks
      • 7. Physical Broadcast Channel in 5G Networks
        • 7. Import Libraries
          • 7. Import Python and SDR Libraries
          • 7. Import 5G Toolkit Libraries
          • 7. Import PBCH Components
        • 7. Emulation Configurations
        • 7. PBCH Payload Generation: MIB + ATI
        • 7. PSS, SSS, PBCH, DMRS Generation
        • 7. PBCH: Transmitter
        • 7. Constellation Diagram: Base Station
        • 7. SSB Generation
        • 7. OFDM Implementation
        • 7. SDR Setup
        • 7. Transmission
        • 7. Receive Samples from SDR
        • 7. Time Synchronization: Coarse Tuning
        • 7. CFO Estimation
        • 7. OFDM Demodulation
        • 7. Extract SSB Grid
        • 7. PBCH Processing
        • 7. Channel Estimation and PBCH Symbol Equalization
        • 7. PBCH Decoding
        • 7. PBCH Receiver: Components
        • 7. Constellation Diagram: UE
        • 7. Checking whether CRC is correct
        • 7. MIB and ATI Parameters at User Equioment
      • 7. Base-station side: Physical Broadcast Channel in 5G Networks
        • 7.1 Import Libraries
          • 7.1 Import Python and SDR Libraries
          • 7.1 Import 5G Toolkit Libraries
          • 7.1 Import PBCH Components
        • 7.1 Emulation Configurations
        • 7.1 PBCH Payload Generation: MIB + ATI
        • 7.1 PSS, SSS, PBCH, DMRS Generation
        • 7.1 PBCH: Transmitter
        • 7.1 Constellation Diagram: Base Station
        • 7.1 SSB Generation
        • 7.1 OFDM Implementation
        • 7.1 SDR Setup
        • 7.1 Transmission
        • MIB Information: Transmitted
      • 7. User equipment side: Physical Broadcast Channel in 5G Networks
        • 7.2 Import Libraries
          • 7.2 Import Python and SDR Libraries
          • 7.2 Import 5G Toolkit Libraries
          • 7.2 Import PBCH Components
        • 7.2 Emulation Configurations
        • 7.2 Time Frequency Parameters
        • 7.2 SDR Setup
        • 7.2 Receive Samples from SDR
        • 7.2 Time Synchronization: Coarse Tuning
        • 7.2 CFO Estimation
        • 7.2 OFDM Demodulation
        • 7.2 Extract SSB Grid
        • 7.2 PBCH Processing
        • 7.2 Channel Estimation and PBCH Symbol Equalization
        • 7.2 PBCH Decoding
        • 7.2 PBCH Receiver: Components
        • 7.2 Constellation Diagram: UE
        • 7.2 Checking whether CRC is correct
        • 7.2 MIB and ATI Parameters at User Equioment
    • 8. Blind Decoding of Physical Downlink Control Channel in 5G Networks
      • 8. Blind Decoding Of Physical Downlink Control Channel on Plutto-SDR
        • 8. Import Libraries
          • 8. Import Python and SDR Libraries
          • 8. Import 5G Toolkit Libraries
        • 8. Emulation Configurations
        • 8. Transmitter Implementation
        • 8. Generate the SSB Grid for synchronization
        • 8. CORESET and Search Space Set Parameters
        • 8. Display Grids
          • 8. PDCCH Grid
          • 8. SSB Grid
          • 8. SSB, PDCCH Merged Grid
        • 8. Constellation Diagram
        • 8. OFDM Modulation: Tx
        • 8. SDR-Setup Configurations
        • 8. Transmission: SDR RF Transmitter
        • 8. Receiver Implementation
        • 8. Reception: SDR RF Receiver
        • 8. Time Synchronization: Based on PSS Correlation
        • 8. OFDM Demodulation and SSB Extraction
        • 8. SSB Grid: Transmitter and Receiver
        • 8. Spectrum: Transmitted Grid and Received Grid
        • 8. Parameter Estimation for SSB and PBCH
        • 8. Channel Estimation and PBCH Symbol Equalization
        • 8. PBCH Decoding and Constellation
        • 8. Performance Verification
        • 8. Channel Estimation and Equalization of PDCCH
        • 8. Blind Decoding of PDCCH candidates
          • 8. Received Constellation
        • 8. Quasi real time animation
      • 8.1 Base station side: Blind Decoding Of Physical Downlink Control Channel on Plutto-SDR
        • 8.1 Import Libraries
          • 8.1 Import Python and SDR Libraries
          • 8.1 Import 5G Toolkit Libraries
        • 8.1 Emulation Configurations
        • 8.1 Transmitter Implementation
        • 8.1 Generate the SSB Grid for synchronization
          • 8.1 CORESET and Search Space Set Parameters
          • 8.1 Display Grids
        • 8.1 Constellation Diagram
        • 8.1 OFDM Modulation: Tx
        • 8.1 SDR-Setup Configurations
        • 8.1 Transmission: SDR RF Transmitter
      • 8.2 User-Equipment side: Blind Decoding Of Physical Downlink Control Channel on Plutto-SDR
        • 8.2 Import Libraries
          • 8.2 Import Python and SDR Libraries
          • 8.2 Import 5G Toolkit Libraries
        • 8.2 Emulation Configurations
        • 8.2 SDR-Setup Configurations
        • 8.2 Receiver Implementation
        • 8.2 Reception: SDR RF Receiver
        • 8.2 Time-Frequency Parameters
        • 8.2 Time Synchronization: Based on PSS Correlation
        • 8.2 CFO Estimation
        • 8.2 OFDM Demodulation and SSB Extraction
        • 8.2 Spectrum: Received Grid
        • 8.2 Parameter Estimation for SSB and PBCH
        • 8.2 Channel Estimation and PBCH Symbol Equalization
        • 8.2 PBCH Decoding and Constellation
        • 8.2 CORESET and Search Space Parameters
        • 8.2 Channel Estimation and Equalization of PDCCH
        • Blind Decoding
          • Blind Decoding of PDCCH candidates
          • 8.2 Received Constellation
        • 8.2 Quasi-real-time simulation
    • 9. Data Communication in 5G Networks using Physical Downlink Shared Channel
      • 9. Downlink Data Communication in 5G Networks
        • 9. Import Python Libraries
        • 9. 5G Toolkit Libraries
        • 9. Emulation Parameters
        • 9. PDSCH Transmitter Implementation
        • 9. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 9. Generate the PDSCH Resource Grid
        • 9. SSB Transmitter Implementation
        • 9. Generate the SSB Resource Grid
        • 9. SDR-Setup Configurations
        • 9. Transmission: SDR RF Transmitter
        • 9. Receiver Implementation: SSB
        • 9. Reception: SDR RF Receiver
        • 9. Time Synchronization: Based on PSS Correlation
        • 9. PBCH Receiver
        • 9. SSB Grid: Transmitter and Receiver
        • 9. Spectrum: Transmitted Grid and Received Grid
        • 9. PBCH Decoding and Constellation
        • 9. Performance Verification
        • 9. PDSCH Receiver Implementation
          • 9. Extract PDSCH Resource Grid
          • 9. PDSCH Receiver
          • 9. Constellation Diagram
        • 9. Key Performance Indicators
        • Quasi-realtime simulation
      • 9. Base-station side: Downlink Data Communication in 5G Networks
        • 9.1. Import Python Libraries
        • 9.1. 5G Toolkit Libraries
        • 9.1. Emulation Parameters
        • 9.1. PDSCH Transmitter Implementation
        • 9.1. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 9.1. Generate the PDSCH Resource Grid
        • 9.1. SSB Transmitter Implementation
        • 9.1. Generate the SSB Resource Grid
        • 9.1. SDR-Setup Configurations
        • 9.1. Transmission: SDR RF Transmitter
      • 9. UE Side: Downlink Data Communication in 5G Networks
        • 9.2. Import Python Libraries
        • 9.2. 5G Toolkit Libraries
        • 9.2. Emulation Parameters
        • Time-Frequency Parameters
        • 9.2. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 9.2. SDR-Setup Configurations
        • 9.2. Receiver Implementation: SSB
        • 9.2. Reception: SDR RF Receiver
        • 9.2. Time Synchronization: Based on PSS Correlation
        • 9.2. PBCH Receiver
        • 9.2. SSB Grid: Transmitter and Receiver
        • 9.2. Spectrum: Transmitted Grid and Received Grid
        • 9.2. PBCH Decoding and Constellation
        • 9.2. PDSCH Receiver Implementation
          • 9.2. Extract PDSCH Resource Grid
          • 9.2. PDSCH Receiver
          • 9.2. Constellation Diagram
        • 9.2. Key Performance Indicators
        • 9.2. Quasi-realtime simulation
    • 10. MIMO-OFDM in 5G Networks
      • 10. MIMO-OFDM in Spatial Multiplexing Mode in 5G Networks
        • 10. Import Python Libraries
        • 10. 5G Toolkit Libraries
        • 10. Emulation Parameters
        • 10. PDSCH Transmitter Implementation
        • 10. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 10. Generate the PDSCH Resource Grid
        • 10. SSB Transmitter Implementation
        • 10. Generate the SSB Resource Grid
        • 10. Precoding and Beamforming Architecture
        • 10. SDR-Setup Configurations
        • 10. Transmission: SDR RF Transmitter
          • 10. Precoding and Beamforming the OFDM signal
        • 10. Receiver Implementation: SSB
        • 10. Reception: SDR RF Receiver
        • 10. Time Synchronization: Based on PSS Correlation
        • 10. PBCH Receiver
        • 10. SSB Grid: Transmitter and Receiver
        • 10. Spectrum: Transmitted Grid and Received Grid
        • 10. PBCH Decoding and Constellation
        • 10. Performance Verification
        • 10. PDSCH Receiver Implementation
          • 10. Extract PDSCH Resource Grid
          • 10. PDSCH Receiver
          • 10. Constellation Diagram
        • 10. Key Performance Indicators
        • 10. Quasi-realtime simulation: MIMO in Spatial Multiplexing Mode
      • 10 MIMO-OFDM in Spatial Diversity Mode in 5G Networks
        • 10.1 Import Python Libraries
        • 10.1. 5G Toolkit Libraries
        • 10.1. Emulation Parameters
        • 10.1. PDSCH Transmitter Implementation
        • 10.1. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 10.1. Generate the PDSCH Resource Grid
        • 10.1. SSB Transmitter Implementation
        • 10.1. Generate the SSB Resource Grid
        • 10.1 Precoding and Beamforming Architecture
        • 10.1. SDR-Setup Configurations
        • 10.1. Transmission: SDR RF Transmitter
          • 10.1 Precoding and Beamforming the OFDM signal
        • 10.1. Receiver Implementation: SSB
        • 10.1. Reception: SDR RF Receiver
        • 10.1. Time Synchronization: Based on PSS Correlation
        • 10.1. PBCH Receiver
        • 10.1. SSB Grid: Transmitter and Receiver
        • 10.1. Spectrum: Transmitted Grid and Received Grid
        • 10.1. PBCH Decoding and Constellation
        • 10.1. Performance Verification
        • 10.1. PDSCH Receiver Implementation
          • 10.1. Extract PDSCH Resource Grid
          • 10.1. PDSCH Receiver
          • 10.1. Constellation Diagram
        • 10.1. Key Performance Indicators
        • 10.1. Quasi-realtime simulation: MIMO in Spatial Diversity Mode
    • 11. Effect of System Parameters on the Performance of 5G Networks
      • 11.1 Effect of Bandwidth on 5G Networks Performance
        • 11.1. Import Python Libraries
        • 11.1. 5G Toolkit Libraries
        • 11.1. Emulation Parameters
          • 11.1. Initialization
        • 11.1. Time Frequency Parameters
        • 11.1. PDSCH Transmitter Implementation
        • 11.1. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 11.1. Generate the PDSCH Resource Grid
        • 11.1. SSB Transmitter Implementation
        • 11.1. Generate the SSB Resource Grid
        • 11.1.Precoding and Beamforming Architecture
        • 11.1. SDR-Setup Configurations
        • 11.1. Transmission: SDR RF Transmitter
          • 11.1. Precoding and Beamforming the OFDM signal
        • 11.1. Receiver Implementation: SSB
        • 11.1. Reception: SDR RF Receiver
        • 11.1. Time Synchronization: Based on PSS Correlation
        • 11.1. PBCH Receiver
        • 11.1. SSB Grid: Transmitter and Receiver
        • 11.1. Spectrum: Transmitted Grid and Received Grid
        • 11.1. PBCH Decoding and Constellation
        • 11.1. Performance Verification
        • 11.1. PDSCH Receiver Implementation
          • 11.1. Extract PDSCH Resource Grid
          • 11.1. PDSCH Receiver
          • 11.1. Constellation Diagram
        • 11.1. Key Performance Indicators
        • 11.1. Bandwidth vs Network Throughput
      • 11.3 Effect of Modulation Order and Coding Rate (MCS) on 5G Networks Performance
        • 11.3. Import Python Libraries
        • 11.3. 5G Toolkit Libraries
        • 11.3. Emulation Parameters
          • 11.3. Initialization
        • 11.3. Time Frequency Parameters
        • 11.3. PDSCH Transmitter Implementation
        • 11.3. Generate the PDSCH related parameters: Use PDSCH Configurations
        • 11.3. Generate the PDSCH Resource Grid
        • 11.3. SSB Transmitter Implementation
        • 11.3. Generate the SSB Resource Grid
        • 11.3. SDR-Setup Configurations
        • 11.3. Receiver Implementation: SSB
        • 11.3. Reception: SDR RF Receiver
        • 11.3. Time Synchronization: Based on PSS Correlation
        • 11.3. PBCH Receiver
        • 11.3. SSB Grid: Transmitter and Receiver
        • 11.3. Spectrum: Transmitted Grid and Received Grid
        • 11.3. PBCH Decoding and Constellation
        • 11.3. Performance Verification
        • 11.3. PDSCH Receiver Implementation
          • 11.3. Extract PDSCH Resource Grid
          • 11.3. PDSCH Receiver
          • 11.3. Constellation Diagram
        • 11.3. Key Performance Indicators
        • 11.3. MCS Index (\(Q_m, r\)) vs Network Throughput
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