DisplayPort Intel® FPGA IP User Guide

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ID 683273
Date 1/22/2025
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Document Table of Contents
Document Table of Contents x
1. DisplayPort Intel® FPGA IP Quick Reference 2. About This IP 3. Getting Started 4. DisplayPort Intel® FPGA IP Hardware Design Examples 5. DisplayPort Source 6. DisplayPort Sink 7. DisplayPort Intel® FPGA IP Parameters 8. DisplayPort Intel® FPGA IP Simulation Example 9. DisplayPort API Reference 10. DisplayPort Source Register Map and DPCD Locations 11. DisplayPort Sink Register Map and DPCD Locations 12. GTS DisplayPort PHY Intel® FPGA IP 13. Duplex and Dual Simplex PHY Modes 14. DisplayPort Intel® FPGA IP User Guide Archives 15. Document Revision History for the DisplayPort Intel® FPGA IP User Guide
1. DisplayPort Intel® FPGA IP Quick Reference x
1.1. DisplayPort Terms and Acronyms
2. About This IP x
2.1. Release Information 2.2. Device Family Support 2.3. IP Core Verification 2.4. Performance and Resource Utilization
3. Getting Started x
3.1. Installing and Licensing Intel® FPGA IP Cores 3.2. Specifying IP Parameters and Options 3.3. Simulating the Design 3.4. Compiling the Full Design and Programming the FPGA 3.5. Calculating Video Bandwidth and Recovered Pixel Clock Frequency
3.1. Installing and Licensing Intel® FPGA IP Cores x
3.1.1. Intel® FPGA IP Evaluation Mode
3.3. Simulating the Design x
3.3.1. Simulating with the ModelSim Simulator
4. DisplayPort Intel® FPGA IP Hardware Design Examples x
4.1. DisplayPort Intel® FPGA IP Hardware Design Examples for Arria® 10, Cyclone® 10 GX, Stratix® 10, Agilex™ 7 F-Tile, and Agilex™ 5E (GTS) Devices 4.2. HDCP Over DisplayPort Design Example for Arria® 10 and Stratix® 10 Devices 4.3. DisplayPort Intel® FPGA IP Hardware Design Examples for Arria V, Cyclone V, and Stratix V Devices
4.3. DisplayPort Intel® FPGA IP Hardware Design Examples for Arria V, Cyclone V, and Stratix V Devices x
4.3.1. Clock Recovery Core 4.3.2. Transceiver and Clocking 4.3.3. Required Hardware 4.3.4. Design Walkthrough 4.3.5. DisplayPort Link Training Flow 4.3.6. DisplayPort Post Link Training Adjust Request Flow (LQA) 4.3.7. Translating DisplayPort Link Training AUX Transactions 4.3.8. DisplayPort MST Source User Application
4.3.1. Clock Recovery Core x
4.3.1.1. Clock Recovery Core Parameters 4.3.1.2. Clock Recovery Interface
4.3.1.2. Clock Recovery Interface x
4.3.1.2.1. Video Input Port
4.3.4. Design Walkthrough x
4.3.4.1. Set Up the Hardware 4.3.4.2. Copy the Design Files to Your Working Directory 4.3.4.3. Build the FPGA Design 4.3.4.4. Load and Run the Software 4.3.4.5. View the Results
5. DisplayPort Source x
5.1. IP to Transceiver Parallel Data Interface Width 5.2. Main Data Path 5.3. Controller Interface 5.4. Sideband Channel 5.5. Source Embedded DisplayPort (eDP) Support 5.6. HDCP 1.3 TX Architecture 5.7. HDCP 2.3 TX Architecture 5.8. Source Interfaces 5.9. Source Clock Tree
5.2. Main Data Path x
5.2.1. Video Packetizer Path 5.2.2. Video Geometry Measurement Path 5.2.3. Audio and Secondary Stream Encoder Path 5.2.4. Training and Link Quality Patterns Generator
5.2.4. Training and Link Quality Patterns Generator x
5.2.4.1. DP1.4 (8B/10B Channel Coding) 5.2.4.2. DP2.0 (128B/132B Channel Coding)
5.8. Source Interfaces x
5.8.1. Controller Interface 5.8.2. AUX Interface 5.8.3. Video Interface 5.8.4. TX Transceiver Interface 5.8.5. Transceiver Reconfiguration Interface 5.8.6. Transceiver Analog Reconfiguration Interface 5.8.7. Secondary Stream Interface 5.8.8. Audio Interface
5.8.3. Video Interface x
5.8.3.1. Video Interface (TX Video IM Enable = 0) 5.8.3.2. Video Interface (TX Video IM Enable = 1) 5.8.3.3. Video Interface (Enable Active Video Data Protocols = AXIS-VVP Full)
6. DisplayPort Sink x
6.1. Transceiver to IP Parallel Data Interface Width 6.2. Sink Embedded DisplayPort (eDP) Support 6.3. Sink Non-GPU Mode Support 6.4. HDCP 1.3 RX Architecture 6.5. HDCP 2.3 RX Architecture 6.6. Sink Interfaces 6.7. Sink Clock Tree
6.6. Sink Interfaces x
6.6.1. Controller Interface 6.6.2. AUX Interface 6.6.3. Debugging Interface 6.6.4. Video Interface 6.6.5. Video Interface (Enable Active Video Data Protocols = AXIS-VVP Full) 6.6.6. Clocked Video Input Interface 6.6.7. RX Transceiver Interface 6.6.8. Transceiver Reconfiguration Interface 6.6.9. Secondary Stream Interface 6.6.10. Audio Interface 6.6.11. Non-GPU Mode EDID Interface 6.6.12. MSA Interface
6.6.2. AUX Interface x
6.6.2.1. AUX Debug Interface 6.6.2.2. EDID Interface
6.6.3. Debugging Interface x
6.6.3.1. Link Parameters Interface 6.6.3.2. Video Stream Out Interface
7. DisplayPort Intel® FPGA IP Parameters x
7.1. DisplayPort Intel® FPGA IP Source Parameters 7.2. DisplayPort Intel® FPGA IP Sink Parameters
8. DisplayPort Intel® FPGA IP Simulation Example x
8.1. Design Walkthrough
8.1. Design Walkthrough x
8.1.1. Copy the Simulation Files to Your Working Directory 8.1.2. Generate the IP Simulation Files and Scripts, and Compile and Simulate 8.1.3. View the Results
9. DisplayPort API Reference x
9.1. Using the Library 9.2. btc_dprx_syslib API Reference 9.3. btc_dprx_aux_get_request 9.4. btc_dprx_aux_handler 9.5. btc_dprx_aux_post_reply 9.6. btc_dprx_baseaddr 9.7. btc_dprx_dpcd_gpu_access 9.8. btc_dprx_edid_set 9.9. btc_dprx_hpd_get 9.10. btc_dprx_hpd_pulse 9.11. btc_dprx_hpd_set 9.12. btc_dprx_lt_eyeq_init 9.13. btc_dprx_lt_force 9.14. btc_dprx_rtl_ver 9.15. btc_dprx_sw_ver 9.16. btc_dprx_syslib_add_rx 9.17. btc_dprx_syslib_info 9.18. btc_dprx_syslib_init 9.19. btc_dprx_syslib_monitor 9.20. btc_dprx_mst_link_addr_rep_set 9.21. btc_dprx_mst_conn_stat_notify_req 9.22. btc_dprx_mst_conn_stat_notify_rep 9.23. btc_dptx_syslib API Reference 9.24. btc_dptx_aux_i2c_read 9.25. btc_dptx_aux_i2c_write 9.26. btc_dptx_aux_read 9.27. btc_dptx_aux_write 9.28. btc_dptx_baseaddr 9.29. btc_dptx_edid_block_read 9.30. btc_dptx_edid_read 9.31. btc_dptx_fast_link_training 9.32. btc_dptx_hpd_change 9.33. btc_dptx_is_link_up 9.34. btc_dptx_link_bw 9.35. btc_dptx_link_training 9.36. btc_dptx_rtl_ver 9.37. btc_dptx_set_color_space 9.38. btc_dptx_sw_ver 9.39. btc_dptx_syslib_add_tx 9.40. btc_dptx_syslib_init 9.41. btc_dptx_syslib_monitor 9.42. btc_dptx_test_autom 9.43. btc_dptx_video_enable 9.44. btc_dptx_mst_allocate_payload_rep 9.45. btc_dptx_mst_allocate_payload_req 9.46. btc_dptx_mst_clear_payload_table_rep 9.47. btc_dptx_mst_clear_payload_table_req 9.48. btc_dptx_mst_conn_stat_notify_req 9.49. btc_dptx_mst_down_rep_irq 9.50. btc_dptx_mst_enable 9.51. btc_dptx_mst_enum_path_rep 9.52. btc_dptx_mst_enum_path_req 9.53. btc_dptx_mst_get_msg_transact_ver_rep 9.54. btc_dptx_mst_get_msg_transact_ver_req 9.55. btc_dptx_mst_link_address_rep 9.56. btc_dptx_mst_link_address_req 9.57. btc_dptx_mst_remote_dpcd_wr_rep 9.58. btc_dptx_mst_remote_dpcd_wr_req 9.59. btc_dptx_mst_remote_i2c_rd_rep 9.60. btc_dptx_mst_remote_i2c_rd_req 9.61. btc_dptx_mst_set_color_space 9.62. btc_dptx_mst_tavgts_set 9.63. btc_dptx_mst_up_req_irq 9.64. btc_dptx_mst_vcpid_set 9.65. btc_dptx_mst_vcptab_addvc 9.66. btc_dptx_mst_vcptab_clear 9.67. btc_dptx_mst_vcptab_delvc 9.68. btc_dptx_mst_vcptab_update 9.69. btc_dptxll_syslib API Reference 9.70. btc_dptxll_hpd_change 9.71. btc_dptxll_hpd_irq 9.72. btc_dptxll_mst_cmp_ports 9.73. btc_dptxll_mst_edid_read_rep 9.74. btc_dptxll_mst_edid_read_req 9.75. btc_dptxll_mst_get_device_ports 9.76. btc_dptxll_mst_set_csn_callback 9.77. btc_dptxll_mst_topology_discover 9.78. btc_dptxll_stream_allocate_rep 9.79. btc_dptxll_stream_allocate_req 9.80. btc_dptxll_stream_calc_VCP_size 9.81. btc_dptxll_stream_delete_rep 9.82. btc_dptxll_stream_delete_req 9.83. btc_dptxll_stream_get 9.84. btc_dptxll_stream_set_color_space 9.85. btc_dptxll_stream_set_pixel_rate 9.86. btc_dptxll_sw_ver 9.87. btc_dptxll_syslib_add_tx 9.88. btc_dptxll_syslib_init 9.89. btc_dptxll_syslib_monitor 9.90. btc_dpxx_syslib Additional Types 9.91. btc_dprx_syslib Supported DPCD Locations
10. DisplayPort Source Register Map and DPCD Locations x
10.1. Source General Registers 10.2. Source MSA Registers 10.3. Source Link PHY Control and Status 10.4. Source Timestamp 10.5. Source CRC Registers 10.6. Source Audio Registers 10.7. Source MST Registers 10.8. Source AUX Controller Interface 10.9. Source-Supported DPCD Locations 10.10. Source AXI2CV Registers
10.1. Source General Registers x
10.1.1. DPTX_TX_CONTROL 10.1.2. DPTX_TX_STATUS 10.1.3. DPTX_TX_VERSION
10.2. Source MSA Registers x
10.2.1. DPTX0_MSA_MVID 10.2.2. DPTX0_MSA_NVID 10.2.3. DPTX0_MSA_HTOTAL 10.2.4. DPTX0_MSA_VTOTAL 10.2.5. DPTX0_MSA_HSP 10.2.6. DPTX0_MSA_HSW 10.2.7. DPTX0_MSA_HSTART 10.2.8. DPTX0_MSA_VSTART 10.2.9. DPTX0_MSA_VSP 10.2.10. DPTX0_MSA_VSW 10.2.11. DPTX0_MSA_HWIDTH 10.2.12. DPTX0_MSA_VHEIGHT 10.2.13. DPTX0_MSA_MISC0 10.2.14. DPTX0_MSA_MISC1 10.2.15. DPTX0_MSA_COLOR 10.2.16. DPTX0_VBID
10.3. Source Link PHY Control and Status x
10.3.1. DPTX_PRE_VOLT0/DPTX_REG_TXFFE0 10.3.2. DPTX_PRE_VOLT1/DPTX_REG_TXFFE1 10.3.3. DPTX_PRE_VOLT2/DPTX_REG_TXFFE2 10.3.4. DPTX_PRE_VOLT3/DPTX_REG_TXFFE3 10.3.5. DPTX_RECONFIG 10.3.6. DPTX_TEST_80BIT_PATTERN1/DPTX_TEST_264BIT_PATTERN1 10.3.7. DPTX_TEST_80BIT_PATTERN2/DPTX_TEST_264BIT_PATTERN2 10.3.8. DPTX_TEST_80BIT_PATTERN3/DPTX_TEST_264BIT_PATTERN3 10.3.9. DPTX_TEST_264BIT_PATTERN4 10.3.10. DPTX_TEST_264BIT_PATTERN5 10.3.11. DPTX_TEST_264BIT_PATTERN6 10.3.12. DPTX_TEST_264BIT_PATTERN7 10.3.13. DPTX_TEST_264BIT_PATTERN8 10.3.14. DPTX_TEST_264BIT_PATTERN9
10.7. Source MST Registers x
10.7.1. DPTX_MST_VCPTAB0 10.7.2. DPTX_MST_VCPTAB1 10.7.3. DPTX_MST_VCPTAB2 10.7.4. DPTX_MST_VCPTAB3 10.7.5. DPTX_MST_VCPTAB4 10.7.6. DPTX_MST_VCPTAB5 10.7.7. DPTX_MST_VCPTAB6 10.7.8. DPTX_MST_VCPTAB7 10.7.9. DPTX_MST_TAVG_TS 10.7.10. DPTX_MST_ECF0 10.7.11. DPTX_MST_ECF1
10.8. Source AUX Controller Interface x
10.8.1. DPTX_AUX_CONTROL 10.8.2. DPTX_AUX_COMMAND 10.8.3. DPTX_AUX_BYTE0 10.8.4. DPTX_AUX_BYTE1 10.8.5. DPTX_AUX_BYTE2 10.8.6. DPTX_AUX_BYTE3 10.8.7. DPTX_AUX_BYTE4 10.8.8. DPTX_AUX_BYTE5 10.8.9. DPTX_AUX_BYTE6 10.8.10. DPTX_AUX_BYTE7 10.8.11. DPTX_AUX_BYTE8 10.8.12. DPTX_AUX_BYTE9 10.8.13. DPTX_AUX_BYTE10 10.8.14. DPTX_AUX_BYTE11 10.8.15. DPTX_AUX_BYTE12 10.8.16. DPTX_AUX_BYTE13 10.8.17. DPTX_AUX_BYTE14 10.8.18. DPTX_AUX_BYTE15 10.8.19. DPTX_AUX_BYTE16 10.8.20. DPTX_AUX_BYTE17 10.8.21. DPTX_AUX_BYTE18 10.8.22. DPTX_AUX_RESET
10.10. Source AXI2CV Registers x
10.10.1. Source AXI2CV Registers Summary 10.10.2. Source AXI2CV Registers Description
10.10.2. Source AXI2CV Registers Description x
10.10.2.1. STATUS (0x50) 10.10.2.2. VIDEO_MODE_MATCH (0X51) 10.10.2.3. VIDEO_MODE_BANK_SELECT (0x53) 10.10.2.4. VIDEO_MODE_CONTROL (0x54) 10.10.2.5. VIDEO_MODE_SAMPLE_COUNT(0x55) 10.10.2.6. VIDEO_MODE_F0_LINE_COUNT (0x56) 10.10.2.7. VIDEO_MODE_F1_LINE_COUNT (0x57) 10.10.2.8. VIDEO_MODE_HORIZONTAL_FRONT_PORCH (0x58) 10.10.2.9. VIDEO_MODE_HORIZONTAL_SYNC_LENGTH (0x59) 10.10.2.10. VIDEO_MODE_HORIZONTAL_BLANKING (0x5A) 10.10.2.11. VIDEO_MODE_VERTICAL_FRONT_PORCH (0x5B) 10.10.2.12. VIDEO_MODE_VERTICAL_SYNC_LENGTH (0x5C) 10.10.2.13. VIDEO_MODE_VERTICAL_BLANKING (0x5D) 10.10.2.14. VIDEO_MODE_F0_VERTICAL_FRONT_PORCH (0x5E) 10.10.2.15. VIDEO_MODE_F0_VERTICAL_SYNC_LENGTH (0x5F) 10.10.2.16. VIDEO_MODE_F0_VERTICAL_BLANKING (0x60) 10.10.2.17. VIDEO_MODE_ACTIVE_PICTURE_LINE (0x61) 10.10.2.18. VIDEO_MODE_F0_VERTICAL_RISING (0x62) 10.10.2.19. VIDEO_MODE_FIELD_RISING (0x63) 10.10.2.20. VIDEO_MODE_FIELD_FALLING (0x64) 10.10.2.21. VIDEO_MODE_VALID (0x6D)
11. DisplayPort Sink Register Map and DPCD Locations x
11.1. Sink General Registers 11.2. Sink Timestamp 11.3. Sink Bit-Error Counters 11.4. FEC Registers 11.5. 128B/132B Link Quality Test Pattern Registers 11.6. Sink MSA Registers 11.7. Sink Audio Registers 11.8. Sink MST Registers 11.9. Sink AUX Controller Interface 11.10. Sink CRC Registers 11.11. Sink-Supported DPCD Locations 11.12. Sink CV2AXI Registers
11.1. Sink General Registers x
11.1.1. DPRX_RX_CONTROL 11.1.2. DPRX_RX_STATUS 11.1.3. DPRX_BER_CONTROL 11.1.4. DPRX_BER_CNT0 11.1.5. DPRX_BER_CNT1
11.3. Sink Bit-Error Counters x
11.3.1. DPRX_BER_CNTI0 11.3.2. DPRX_BER_CNTI1
11.4. FEC Registers x
11.4.1. DPRX_FEC_CONFIG 11.4.2. DPRX_FEC_ERROR_COUNT
11.5. 128B/132B Link Quality Test Pattern Registers x
11.5.1. DPRX_BER_TEST_PATTERN
11.6. Sink MSA Registers x
11.6.1. DPRX0_MSA_MVID 11.6.2. DPRX0_MSA_NVID 11.6.3. DPRX0_MSA_HTOTAL 11.6.4. DPRX0_MSA_VTOTAL 11.6.5. DPRX0_MSA_HSP 11.6.6. DPRX0_MSA_HSW 11.6.7. DPRX0_MSA_HSTART 11.6.8. DPRX0_MSA_VSTART 11.6.9. DPRX0_MSA_VSP 11.6.10. DPRX0_MSA_VSW 11.6.11. DPRX0_MSA_HWIDTH 11.6.12. DPRX0_MSA_VHEIGHT 11.6.13. DPRX0_MSA_MISC0 11.6.14. DPRX0_MSA_MISC1 11.6.15. DPRX0_MSA_COLOR 11.6.16. DPRX0_VBID
11.7. Sink Audio Registers x
11.7.1. DPRX0_AUD_MAUD 11.7.2. DPRX0_AUD_NAUD 11.7.3. DPRX0_AUD_AIF0 11.7.4. DPRX0_AUD_AIF1 11.7.5. DPRX0_AUD_AIF2 11.7.6. DPRX0_AUD_AIF3 11.7.7. DPRX0_AUD_AIF4
11.8. Sink MST Registers x
11.8.1. DPRX_MST_VCPTAB0 11.8.2. DPRX_MST_VCPTAB1 11.8.3. DPRX_MST_VCPTAB2 11.8.4. DPRX_MST_VCPTAB3 11.8.5. DPRX_MST_VCPTAB4 11.8.6. DPRX_MST_VCPTAB5 11.8.7. DPRX_MST_VCPTAB6 11.8.8. DPRX_MST_VCPTAB7
11.9. Sink AUX Controller Interface x
11.9.1. DPRX_AUX_CONTROL 11.9.2. DPRX_AUX_STATUS 11.9.3. DPRX_AUX_COMMAND 11.9.4. DPRX_AUX_BYTE0 11.9.5. DPRX_AUX_BYTE1 11.9.6. DPRX_AUX_BYTE2 11.9.7. DPRX_AUX_BYTE3 11.9.8. DPRX_AUX_BYTE4 11.9.9. DPRX_AUX_BYTE5 11.9.10. DPRX_AUX_BYTE6 11.9.11. DPRX_AUX_BYTE7 11.9.12. DPRX_AUX_BYTE8 11.9.13. DPRX_AUX_BYTE9 11.9.14. DPRX_AUX_BYTE10 11.9.15. DPRX_AUX_BYTE11 11.9.16. DPRX_AUX_BYTE12 11.9.17. DPRX_AUX_BYTE13 11.9.18. DPRX_AUX_BYTE14 11.9.19. DPRX_AUX_BYTE15 11.9.20. DPRX_AUX_BYTE16 11.9.21. DPRX_AUX_BYTE17 11.9.22. DPRX_AUX_BYTE18 11.9.23. DPRX_AUX_I2C0 11.9.24. DPRX_AUX_I2C1 11.9.25. DPRX_AUX_RESET 11.9.26. DPRX_AUX_HPD
11.12. Sink CV2AXI Registers x
11.12.1. Sink CV2AXI Registers Summary 11.12.2. Sink CV2AXI Registers Description
11.12.2. Sink CV2AXI Registers Description x
11.12.2.1. STATUS (0x50) 11.12.2.2. ACTIVE SAMPLE COUNT (0x52) 11.12.2.3. F0_ACTIVE_LINE_COUNT (0x53) 11.12.2.4. F1_ACTIVE_LINE_COUNT (0x54) 11.12.2.5. TOTAL_SAMPLE_COUNT (0x55) 11.12.2.6. F0_TOTAL_LINE_COUNT (0x56) 11.12.2.7. F1_TOTAL_LINE_COUNT (0x57) 11.12.2.8. COLOR_PATTERN (0x5C) 11.12.2.9. CONTROL (0x64)
12. GTS DisplayPort PHY Intel® FPGA IP x
12.1. GTS DisplayPort PHY Intel® FPGA IP Parameters 12.2. DisplayPort Analog Parameters for GTS IPs
13. Duplex and Dual Simplex PHY Modes x
13.1. GTS DisplayPort PHY Duplex Mode IP Generation Flow 13.2. GTS DisplayPort PHY Dual Simplex Mode IP Generation Flow
1. DisplayPort Intel® FPGA IP Quick Reference
2. About This IP
3. Getting Started
4. DisplayPort Intel® FPGA IP Hardware Design Examples
5. DisplayPort Source
6. DisplayPort Sink
7. DisplayPort Intel® FPGA IP Parameters
8. DisplayPort Intel® FPGA IP Simulation Example
9. DisplayPort API Reference
10. DisplayPort Source Register Map and DPCD Locations
11. DisplayPort Sink Register Map and DPCD Locations
12. GTS DisplayPort PHY Intel® FPGA IP
13. Duplex and Dual Simplex PHY Modes
14. DisplayPort Intel® FPGA IP User Guide Archives
15. Document Revision History for the DisplayPort Intel® FPGA IP User Guide

12.1. GTS DisplayPort PHY Intel® FPGA IP Parameters

The following GUI features three tabs for PHY configuration. Based on the PHY mode you select in the initial IP tab, the RX and TX tabs either appear or disappear.
Figure 53.  DisplayPort Intel® FPGA IP Intel® FPGA IP
Table 251.   DisplayPort Intel® FPGA IP Intel® FPGA IP parameters
Parameter Supported Values Default Setting Description
PHY Configuration
  • RX
  • TX
  • Duplex
 Duplex Selects the PHY configuration as either RX, TX, or Duplex. Agilex™ 5 introduces a fully duplex PHY option, enabling you to simplify your design by avoiding the complexity of Dual Simplex flow and eliminating the DS tool requirement.
Note: In a DS flow, you create two simplex PHYs (RX and TX) and merge them using the DS tool.
Common Lanes
  • 1
  • 2
  • 4
 4 The DisplayPort Protocol is built to support 1, 2, or 4 lanes, matching the altera_dp configuration. This configuration allocates either 1, 2, or 4 transceiver channels and adjusts the interface width between the phy and protocol core.
Important: : Ensure the PHY and protocol core settings match, as mismatches cause malfunctions. Currently, there is no way to detect this issue in your design.
Transceiver Clocking
  • PMA Direct
  • System PLL
 PMA Direct The DisplayPort PHY in Agilex™ 5 requires a fixed 150MHz reference clock for the transceiver to support all line rates for both RX and TX from 150MHz.

Agilex™ 5 has more flexible GTS-Quads than the F-Tile, making it more suitable for a flexible clocking architecture. To bypass Agilex™ 7 restrictions, the GUI allows you to choose between PMA or system clocking flows. If you select system clocking, the PLL defaults to the common Video Connectivity rate of 700MHz, but you have the option to override this frequency for custom applications. Note that only 700MHz is supported in version 24.3.

When you implement system PLL clocking, the DPHY's resource count increases due to the need for extra DC FIFOs. You instantiate the system PLL, which is a design IP, outside of the PHY, following the same process used in Agilex™ 7. For more details, please refer to the Clocking Section.
Enable Transceiver Toolkit
  • On
  • Off
 Off When turned on, enables you to tune your TX parameters and measure RX performance. Due to GTS DisplayPort restrictions, you cannot modify any RX parameters within the GTS, as they automatically adapt. Attempts to change RX parameters do not affect the final design and typically lead to an RBC violation, which causes the fitter to fail. You can modify only the four Analog parameters in Transmitter tab. After you have selected your settings, enter them into the Transmitter GUI tab. Refer to Table 252
Receiver (RX) and Transmitter (TX) Tab
Note: The PHY configuration settings you select in the initial IP tab control the appearance of the RX and TX tabs.
Maximum Line rate
  • RBR 1.62 Gbps
  • HBR1 2.7 Gbps
  • HBR2 5.4 Gbps
  • HBR3 8.1 Gbps
  • UHBR10 10Gbps
  • UHBR13 13.5Gpbs
  • UHBR10 10Gbps
 The altera-dp core includes a maximum line rate selector that requires adjustment to align with the specified value. Once you set this value, the width of the interface signals passing between the PHY and the protocol core changes. If the settings between the PHY and the protocol core do not match, the solution does not function correctly. Currently, no method exists to detect this mismatch in the design.
Level Two Title