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2.1. E-Tile Hard IP for Ethernet Intel FPGA IP Supported Features
2.2. E-Tile Hard IP for Ethernet Intel FPGA IP Overview
2.3. IP Core Device Family and Speed Grade Support
2.4. IP Core Verification
2.5. Resource Utilization
2.6. Release Information
2.7. Getting Started
2.8. E-Tile Hard IP for Ethernet Intel FPGA IP Parameters
2.9. Functional Description
2.10. Reset
2.11. Interfaces and Signals
2.12. Register Descriptions
2.13. Document Revision History for the E-tile Hard IP for Ethernet Intel FPGA IP Core
2.9.1. E-Tile Hard IP for Ethernet Intel FPGA IP MAC
2.9.2. 1588 Precision Time Protocol Interfaces
2.9.3. PCS, OTN, FlexE, and Custom PCS Modes
2.9.4. Auto-Negotiation and Link Training
2.9.5. TX and RX RS-FEC
2.9.6. PMA Direct Mode
2.9.7. Dynamic Reconfiguration
2.9.8. Ethernet Adaptation Flow for 10G/25G and 100G/4x25G Dynamic Reconfiguration Design Example
2.9.9. Ethernet Adaptation Flow with PTP or with External AIB Clocking
2.9.10. Ethernet Adaptation Flow with Non-external AIB Clocking
2.9.1.2.1. RX Preamble Processing
2.9.1.2.2. RX Strict SFD Checking
2.9.1.2.3. RX FCS Checking
2.9.1.2.4. RX Malformed Packet Handling
2.9.1.2.5. Removing PAD Bytes and FCS Bytes from RX Frames
2.9.1.2.6. RX Undersized Frames, Oversized Frames, and Frames with Length Errors
2.9.1.2.7. Inter-Packet Gap
2.9.2.1. Implementing a 1588 System That Includes a E-Tile Hard IP for Ethernet Intel FPGA IP
2.9.2.2. PTP Timestamp Accuracy
2.9.2.3. PTP Transmit Functionality
2.9.2.4. PTP Receive Functionality
2.9.2.5. External Time-of-Day Module for 1588 PTP Variations
2.9.2.6. PTP Timestamp and TOD Formats
2.9.2.7. 10G/25G TX and RX Unit Interval Adjustment
2.9.2.8. 10G/25G TX and RX PTP Extra Latency
2.9.2.9. 100G PTP TX User Flow
2.9.2.10. 100G PTP RX User Flow
2.9.2.11. 100G RX Virtual Lane Offset Calculation for No FEC Variants
2.9.2.12. 100G UI Adjustment
2.9.2.13. Minimum and Maximum Reference Time (TAM) Interval for UI Measurement (Hardware)
2.9.2.14. PTP System Considerations
2.9.2.15. Logic Lock Regions Requirements for PTP Accuracy Advanced Mode
2.11.1. TX MAC Interface to User Logic
2.11.2. RX MAC Interface to User Logic
2.11.3. TX PCS Interface to User Logic
2.11.4. RX PCS Interface to User Logic
2.11.5. FlexE and OTN Mode TX Interface
2.11.6. FlexE and OTN Mode RX Interface
2.11.7. TX Custom PCS Interface to User Logic
2.11.8. RX Custom PCS Interface to User Logic
2.11.9. PMA Direct Interface
2.11.10. Custom Rate Interface
2.11.11. Deterministic Latency Interface
2.11.12. 1588 PTP Interface
2.11.13. Ethernet Link and Transceiver Signals
2.11.14. Reconfiguration Interfaces and Signals
2.11.15. Miscellaneous Status and Debug Signals
2.11.16. Reset Signals
2.11.17. Clocks
2.11.17.3.1. Single 25G Ethernet Channel (with FEC)
2.11.17.3.2. Single 10G Ethernet Channel (without FEC)
2.11.17.3.3. Four 25G Ethernet Channels (with FEC) within a Single FEC Block
2.11.17.3.4. Ethernet 25G x 4 (FEC Off)
2.11.17.3.5. 10G/25G Ethernet Channel with Basic PTP Accuracy Mode
2.11.17.3.6. 10G/25G Ethernet Channel with Advanced PTP Accuracy Mode
2.11.17.3.7. 100G Ethernet with Aggregated FEC
2.11.17.3.8. 100G Ethernet with PTP
2.11.17.3.9. Single 25G Synchronous Ethernet Channel
2.11.17.3.10. Multiple 25G Synchronous Ethernet Channels
2.12.1. Auto Negotiation and Link Training Registers
2.12.2. PHY Registers
2.12.3. TX MAC Registers
2.12.4. RX MAC Registers
2.12.5. Pause and Priority- Based Flow Control Registers
2.12.6. TX Statistics Counter Registers
2.12.7. RX Statistics Counter Registers
2.12.8. 1588 PTP Registers
2.12.9. RS-FEC Registers
2.12.10. PMA Registers
2.12.1.1. ANLT Sequencer Config
2.12.1.2. ANLT Sequencer Status
2.12.1.3. Auto Negotiation Config Register 1
2.12.1.4. Auto Negotiation Config Register 2
2.12.1.5. Auto Negotiation Status Register
2.12.1.6. Auto Negotiation Config Register 3
2.12.1.7. Auto Negotiation Config Register 4
2.12.1.8. Auto Negotiation Config Register 5
2.12.1.9. Auto Negotiation Config Register 6
2.12.1.10. Auto Negotiation Status Register 1
2.12.1.11. Auto Negotiation Status Register 2
2.12.1.12. Auto Negotiation Status Register 3
2.12.1.13. Auto Negotiation Status Register 4
2.12.1.14. Auto Negotiation Status Register 5
2.12.1.15. AN Channel Override
2.12.1.16. Consortium Next Page Override
2.12.1.17. Consortium Next Page Link Partner Status
2.12.1.18. Link Training Config Register 1
2.12.1.19. Link Training Status Register 1
2.12.1.20. Link Training Config Register for Lane 0
2.12.1.21. Link Training Config Register for Lane 1
2.12.1.22. Link Training Config Register for Lane 2
2.12.1.23. Link Training Config Register for Lane 3
2.12.2.1. PHY Module Revision ID
2.12.2.2. PHY Scratch Register
2.12.2.3. Loopback Mode
2.12.2.4. PHY Configuration
2.12.2.5. Reset Sequencer RS-FEC Disable
2.12.2.6. RX CDR PLL Locked
2.12.2.7. TX Datapath Ready
2.12.2.8. Frame Errors Detected
2.12.2.9. Clear Frame Errors
2.12.2.10. RX PCS Status for AN/LT
2.12.2.11. PCS Error Injection
2.12.2.12. Alignment Marker Lock
2.12.2.13. Change in RX PCS Deskew Status
2.12.2.14. BER Count
2.12.2.15. Transfer Ready (AIB reset) Status for EHIP, ELANE, and PTP Channels
2.12.2.16. EHIP, ELANE, and RS-FEC Reset Status
2.12.2.17. PCS Virtual Lane 0
2.12.2.18. PCS Virtual Lane 1
2.12.2.19. PCS Virtual Lane 2
2.12.2.20. PCS Virtual Lane 3
2.12.2.21. Recovered Clock Frequency in KHz
2.12.2.22. TX Clock Frequency in KHz
2.12.2.23. Configuration Fields for TX PLD
2.12.2.24. Status for TX PLDs
2.12.2.25. Status for Dynamic Deskew Buffer
2.12.2.26. Configuration for RX PLD Block
2.12.2.27. Configuration for RX PCS
2.12.2.28. BIP Counter 0
2.12.2.29. BIP Counter 1
2.12.2.30. BIP Counter 2
2.12.2.31. BIP Counter 3
2.12.2.32. BIP Counter 4
2.12.2.33. BIP Counter 5
2.12.2.34. BIP Counter 6
2.12.2.35. BIP Counter 7
2.12.2.36. BIP Counter 8
2.12.2.37. BIP Counter 9
2.12.2.38. BIP Counter 10
2.12.2.39. BIP Counter 11
2.12.2.40. BIP Counter 12
2.12.2.41. BIP Counter 13
2.12.2.42. BIP Counter 14
2.12.2.43. BIP Counter 15
2.12.2.44. BIP Counter 16
2.12.2.45. BIP Counter 17
2.12.2.46. BIP Counter 18
2.12.2.47. BIP Counter 19
2.12.2.48. Timer Window for Hi-BER Checks
2.12.2.49. Hi-BER Frame Errors
2.12.2.50. Error Block Count
2.12.2.51. Deskew Depth 0
2.12.2.52. Deskew Depth 1
2.12.2.53. Deskew Depth 2
2.12.2.54. Deskew Depth 3
2.12.2.55. RX PCS Test Error Count
2.12.3.1. TX MAC Module Revision ID
2.12.3.2. TX MAC Scratch Register
2.12.3.3. Link Fault Configuration
2.12.3.4. IPG Words to remove per Alignment Marker Period
2.12.3.5. Maximum TX Frame Size
2.12.3.6. TX MAC Configuration
2.12.3.7. EHIP TX MAC Feature Configuration
2.12.3.8. TX MAC Source Address Lower Bytes
2.12.3.9. TX MAC Source Address Higher Bytes
2.12.5.1. TXSFC Module Revision ID
2.12.5.2. TX SFC Scratch Register
2.12.5.3. Enable TX Pause Ports
2.12.5.4. TX Pause Request
2.12.5.5. Enable Automatic TX Pause Retransmission
2.12.5.6. Retransmit Holdoff Quanta
2.12.5.7. Retransmit Pause Quanta
2.12.5.8. Enable TX XOFF
2.12.5.9. Enable Uniform Holdoff
2.12.5.10. Set Uniform Holdoff
2.12.5.11. Lower 4 bytes of the Destination address for Flow Control
2.12.5.12. Higher 2 bytes of the Destination address for Flow Control
2.12.5.13. Lower 4 bytes of the Source address for Flow Control frames
2.12.5.14. Higher 2 bytes of the Source address for Flow Control frames
2.12.5.15. TX Flow Control Feature Configuration
2.12.5.16. Pause Quanta 0
2.12.5.17. Pause Quanta 1
2.12.5.18. Pause Quanta 2
2.12.5.19. Pause Quanta 3
2.12.5.20. Pause Quanta 4
2.12.5.21. Pause Quanta 5
2.12.5.22. Pause Quanta 6
2.12.5.23. Pause Quanta 7
2.12.5.24. PFC Holdoff Quanta 0
2.12.5.25. PFC Holdoff Quanta 1
2.12.5.26. PFC Holdoff Quanta 2
2.12.5.27. PFC Holdoff Quanta 3
2.12.5.28. PFC Holdoff Quanta 4
2.12.5.29. PFC Holdoff Quanta 5
2.12.5.30. PFC Holdoff Quanta 6
2.12.5.31. PFC Holdoff Quanta 7
2.12.5.32. RXSFC Module Revision ID
2.12.5.33. RXSFC Scratch Register
2.12.5.34. Enable RX Pause Frame Processing
2.12.5.35. Forward Flow Control Frames
2.12.5.36. Lower 4 bytes of the Destination address for RX Pause Frames
2.12.5.37. Higher 2 bytes of the Destination address for RX Pause Frames
2.12.5.38. RX Flow Control Feature Configuration
3.1. Supported Features
3.2. E-Tile CPRI PHY Intel® FPGA IP Overview
3.3. E-Tile CPRI PHY Device Family Support
3.4. Resource Utilization
3.5. Release Information
3.6. E-Tile CPRI PHY Intel FPGA IP Core Device Speed Grade Support
3.7. Getting Started
3.8. Parameter Settings
3.9. Functional Description
3.10. E-Tile CPRI PHY Intel FPGA IP Interface Signals
3.11. Registers
3.12. Document Revision History for the E-tile CPRI PHY Intel FPGA IP
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2.9.10. Ethernet Adaptation Flow with Non-external AIB Clocking
This adaptation flow applies to single 10GE/25GE/100GE and multilane 10GE/25GE variants.
Refer to Loading a PMA Configuration and PMA Registers 0x200 to 0x203 Usage sections in the E-tile Transceiver PHY User Guide for more details on the adaptation flow and how to get started.
This adaptation flow assumes a valid Ethernet traffic.
- Assert i_sl_tx_rst_n/i_tx_rst_n/soft_tx_rst and i_sl_rx_rst_n/i_rx_rst_n/soft_rx_rst signals.
- Trigger PMA analog reset. 18 19
- Reload PMA settings (call the PMA attribute sequencer) on all lanes.
- Apply control status registers (CSR) reset.
- For 100GE/25GE/10GE single instance, cycle control status registers (CSR) reset.
- For 25GE/10GE multilane instance, hold CSR reset on slave channels, cycle master channel CSR reset, then release CSR reset on slave channels as indicated in the below figure.
Figure 32. Reset Sequence in 10G/25G Multilane Mode
- Deassert the i_sl_tx_rst_n/i_tx_rst_n/soft_tx_rst signal.
- If using a PMA configuration, load the PMA configuration using control status registers (CSR). This is loaded to the registers using PMA registers 0x200 to 0x203 20.
- Write 0x40143 = 0x80.
- Read 0x40144[0] until it changes to 1.
- Enable internal serial loopback 21 and run initial adaptation. Verify that the initial adaptation status is complete using interrupt code 0x0126 and data 0x0B00.
- Enable mission mode and disable internal serial loopback (skip this step if using internal serial loopback)21.
- Wait for valid data traffic on RX and then proceed to the next step.
- Run initial adaptation. Verify that the initial adaptation status is complete using interrupt code 0x0126 and data 0x0B00 (skip this step if using internal serial loopback).
- Run continuous adaptation 22.
- Deassert the i_sl_rx_rst_n/i_rx_rst_n/soft_rx_rst signal.
- Optional: Verify that the link status signal rx_aligned transitions high.
- Send packets.
18 Refer to PMA Analog Reset section in the E-tile Transceiver PHY User Guide.
19 This step also resets the transmit side. For scenarios where the transmit side should left untouched, the PMA analog reset should never be asserted. For such scenerios, refer to the Signal Detect Algorithm section in the E-tile Transceiver PHY User Guide.
20 Refer to Loading a PMA Configuration and PMA Registers 0x200 to 0x203 Usage sections in the E-tile Transceiver PHY User Guide.
21 For how to enable and disable internal serial loopback, refer to 0x0008: Internal Serial Loopback and Reverse Parallel Loopback Control section in the E-tile Transceiver PHY User Guide.
22 During the continuous adaptation, the link partner must keep sending the data. If link goes down, the entire sequence must be repeated.