F-Tile HDMI Intel® FPGA IP Design Example User Guide

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ID 709314
Date 8/05/2022
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Document Table of Contents
Document Table of Contents x
1. HDMI Intel® FPGA IP Design Example Quick Start Guide for Intel® Agilex™ F-tile Devices 2. HDMI 2.1 Design Example (Support FRL = 1, Enable Active Video Protocol = None) 3. HDMI 2.1 Design Example with AXI4-stream Interface Enabled (Support FRL =1, Enable Active Video Protocol = AXIS-VVP Full) 4. Document Revision History for the F-Tile HDMI Intel® FPGA IP Design Example User Guide
1. HDMI Intel® FPGA IP Design Example Quick Start Guide for Intel® Agilex™ F-tile Devices x
1.1. Directory Structure 1.2. Generating the Design 1.3. Simulating the Design 1.4. Compiling and Testing the Design
2. HDMI 2.1 Design Example (Support FRL = 1, Enable Active Video Protocol = None) x
2.1. Design Features 2.2. Hardware and Software Requirements 2.3. HDMI 2.1 RX-TX Retransmit Design Block Diagram 2.4. Design Parameters 2.5. Design Components 2.6. Design Software Flow 2.7. Clocking Scheme 2.8. Interface Signals 2.9. Hardware Setup 2.10. Simulation Testbench 2.11. Debugging Features
2.3. HDMI 2.1 RX-TX Retransmit Design Block Diagram x
2.3.1. Creating RX-Only or TX-Only Designs
2.4. Design Parameters x
2.4.1. IP Parameters 2.4.2. HDMI Intel® FPGA IP Design Example Parameters
2.5. Design Components x
2.5.1. HDMI TX Components 2.5.2. HDMI RX Components 2.5.3. Top-Level Common Blocks
2.5.1. HDMI TX Components x
2.5.1.1. TX PHY Adapter
2.5.1.1. TX PHY Adapter x
2.5.1.1.1. FRL and TMDS
2.5.2. HDMI RX Components x
2.5.2.1. RX PHY Adapter
2.11. Debugging Features x
2.11.1. Software Debug Message 2.11.2. SCDC Information from Sink Connected to TX 2.11.3. Clock Frequency Measurement
3. HDMI 2.1 Design Example with AXI4-stream Interface Enabled (Support FRL =1, Enable Active Video Protocol = AXIS-VVP Full) x
3.1. Design Features 3.2. Hardware and Software Requirements 3.3. HDMI 2.1 RX-TX Retransmit Design Block Diagrams 3.4. Design Parameters 3.5. Design Components 3.6. Design Software Flow 3.7. Clocking Scheme 3.8. Interface Signals 3.9. Hardware Setup 3.10. Debugging Features
3.3. HDMI 2.1 RX-TX Retransmit Design Block Diagrams x
3.3.1. HDMI 2.1 RX-TX Direct Retransmit Design Block Diagram (Without Video Frame Buffer) 3.3.2. HDMI 2.1 RX-TX Retransmit Design Block Diagram (With Video Frame Buffer)
3.4. Design Parameters x
3.4.1. HDMI RX Direction 3.4.2. HDMI TX Direction
3.6. Design Software Flow x
3.6.1. Configure Redriver Setting 3.6.2. Initialize TX Path 3.6.3. Initialize RX Path 3.6.4. Initialize HDMI TX Register 3.6.5. Wait for RX Path Ready 3.6.6. TX Reconfiguration and Link Training 3.6.7. Set TX Video Clock 3.6.8. Set AXI2CV Configuration 3.6.9. HDMI TX Transmit Video
3.7. Clocking Scheme x
3.7.1. HDMI 2.1 RX-TX Retransmit Design without Video Frame Buffer (Enable Active Video Protocol = AXIS-VVP Full, Video In and Out Use the Same Clock = ON) 3.7.2. HDMI 2.1 RX-TX Retransmit Design with Video Frame Buffer(Enable Active Video Protocol = AXIS-VVP Full, Video In and Out Use the Same = ON) 3.7.3. Clock Details
3.8. Interface Signals x
3.8.1. Platform Design System 3.8.2. HDMI RX PHY 3.8.3. HDMI TX PHY 3.8.4. RX-TX Link
3.9. Hardware Setup x
3.9.1. Support additional video resolutions
1. HDMI Intel® FPGA IP Design Example Quick Start Guide for Intel® Agilex™ F-tile Devices
2. HDMI 2.1 Design Example (Support FRL = 1, Enable Active Video Protocol = None)
3. HDMI 2.1 Design Example with AXI4-stream Interface Enabled (Support FRL =1, Enable Active Video Protocol = AXIS-VVP Full)
4. Document Revision History for the F-Tile HDMI Intel® FPGA IP Design Example User Guide

1.3. Simulating the Design

The HDMI testbench simulates a serial loopback design from a TX instance to an RX instance. Internal video pattern generator, audio sample generator, sideband data generator, and auxiliary data generator modules drive the HDMI TX instance and the serial output from the TX instance connects to the RX instance in the testbench.
Note: HDMI simulation is not supported when "Include I2C Master/Slave" option is enabled in the IP tab.
Figure 4. Design Simulation Flow
  1. Go to the desired simulation folder.
  2. Run the simulation script for the supported simulator of your choice. The script compiles and runs the testbench in the simulator.
  3. Analyze the results.
    Table 5.  Steps to Run Simulation
    Simulator Working Directory Instructions
    Riviera-PRO* /simulation/aldec
    In the command line, type 
    vsim -c -do aldec.do
    ModelSim* /simulation/mentor
    In the command line, type 
    vsim -c -do mentor.do
    VCS* /simulation/synopsys/vcs
    In the command line, type 
    source vcs_sim.sh
    VCS* MX /simulation/synopsys/vcsmx
    In the command line, type 
    source vcsmx_sim.sh
    Xcelium* Parallel /simulation/xcelium In the command line, type 
    source xcelium_sim.sh
    A successful simulation ends with the following message: 
    # SYMBOLS_PER_CLOCK 	= 2
# VIC               	= 4
# BPP               	= 0
# AUDIO_FREQUENCY (kHz)  = 48
# AUDIO_CHANNEL     	= 8
# Simulation pass
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