E-tile Hard IP Intel® Agilex™ Design Example User Guide: Ethernet, E-tile CPRI PHY and Dynamic Reconfiguration

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ID 683860
Date 8/04/2021
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Document Table of Contents
Document Table of Contents x
1. About E-tile Hard IP Intel® Agilex™ Design Example User Guide 2. E-tile Ethernet IP for Intel® Agilex™ FPGA Design Example 3. E-tile CPRI PHY Intel® FPGA IP Design Example 4. E-Tile Dynamic Reconfiguration Design Example 5. E-tile Hard IP Intel® Agilex™ Design Examples User Guide Archives
2. E-tile Ethernet IP for Intel® Agilex™ FPGA Design Example x
2.1. Quick Start Guide 2.2. 10GE/25GE with Optional RS-FEC Design Examples 2.3. 100GE with Optional RS-FEC Design Example 2.4. Ethernet Toolkit Overview 2.5. Document Revision History for the E-tile Hard IP for Ethernet Intel® Agilex™ FPGA IP Design Example User Guide
2.1. Quick Start Guide x
2.1.1. Directory Structure 2.1.2. Generating the Design 2.1.3. Simulating the E-tile Ethernet IP for Intel Agilex FPGA Design Example Testbench 2.1.4. Compiling the Compilation-Only Project 2.1.5. Compiling and Configuring the Design Example in Hardware 2.1.6. Testing the E-tile Ethernet IP for Intel Agilex FPGA Hardware Design Example
2.1.6. Testing the E-tile Ethernet IP for Intel Agilex FPGA Hardware Design Example x
2.1.6.1. 10GE/25GE Design Example 2.1.6.2. 100GE MAC+PCS with Optional (528,514) RS-FEC or (544,514) RS-FEC and Adaptation Flow Hardware Design Example 2.1.6.3. 100GE PCS Only with Optional (528,514) RS-FEC or (544,514) RS-FEC, and Optional PTP Hardware Design Example
2.2. 10GE/25GE with Optional RS-FEC Design Examples x
2.2.1. Simulation Design Examples 2.2.2. Hardware Design Examples 2.2.3. 10GE/25GE Design Example Interface Signals 2.2.4. 10GE/25GE Design Examples Registers
2.2.1. Simulation Design Examples x
2.2.1.1. Non-PTP 10GE/25GE MAC+PCS with Optional RS-FEC Simulation Design Example 2.2.1.2. PTP 10GE/25GE MAC+PCS with Optional RS-FEC Simulation Design Example 2.2.1.3. 10GE/25GE PCS Only, OTN, or FlexE with Optional RS-FEC Simulation Design Example 2.2.1.4. 10GE/25GE Custom PCS with Optional RS-FEC Simulation Design Example
2.2.2. Hardware Design Examples x
2.2.2.1. 10GE/25GE MAC+PCS with Optional RS-FEC and PTP Hardware Design Example Components 2.2.2.2. 10GE/25GE PCS Only with Optional RS-FEC Hardware Design Example Components 2.2.2.3. 10GE/25GE Custom PCS with Optional RS-FEC Hardware Design Example
2.3. 100GE with Optional RS-FEC Design Example x
2.3.1. Simulation Design Examples 2.3.2. Hardware Design Examples 2.3.3. 100GE MAC+PCS with Optional RS-FEC Design Example Interface Signals 2.3.4. 100GE PCS with Optional RS-FEC Design Example Interface Signals 2.3.5. 100GE MAC+PCS with Optional RS-FEC Design Example Registers 2.3.6. 100GE PCS with Optional RS-FEC Design Example Registers
2.3.1. Simulation Design Examples x
2.3.1.1. Non-PTP E-tile Ethernet IP for Intel Agilex FPGA 100GE MAC+PCS with Optional RS-FEC Simulation Design Example 2.3.1.2. E-tile Ethernet IP for Intel Agilex FPGA 100GE MAC+PCS with Optional RS-FEC and PTP Simulation Design Example 2.3.1.3. E-tile Ethernet IP for Intel Agilex FPGA 100GE PCS Only with Optional RS-FEC Simulation Design Example 2.3.1.4. E-tile Ethernet IP for Intel Agilex FPGA 100GE OTN with Optional RS-FEC Simulation Design Example 2.3.1.5. E-tile Ethernet IP for Intel Agilex FPGA 100GE FlexE with Optional RS-FEC Simulation Design Example
2.3.2. Hardware Design Examples x
2.3.2.1. 100GE MAC+PCS with Optional RS-FEC and PMA Adaptation Flow Hardware Design Example Components 2.3.2.2. 100GE MAC+PCS with Optional RS-FEC and PTP Hardware Design Example 2.3.2.3. 100GE PCS with Optional RS-FEC Hardware Design Example Components
2.4. Ethernet Toolkit Overview x
2.4.1. Features
3. E-tile CPRI PHY Intel® FPGA IP Design Example x
3.1. E-tile CPRI PHY Intel® FPGA IP Quick Start Guide 3.2. E-tile CPRI PHY Design Example Description 3.3. Document Revision History for the E-tile CPRI PHY Intel® FPGA IP Design Example User Guide
3.1. E-tile CPRI PHY Intel® FPGA IP Quick Start Guide x
3.1.1. Hardware and Software Requirements 3.1.2. Generating the Design 3.1.3. Directory Structure 3.1.4. Simulating the Design Example Testbench 3.1.5. Compiling the Compilation-Only Project 3.1.6. Compiling and Configuring the Design Example in Hardware 3.1.7. Testing the E-tile CPRI PHY Intel® FPGA IP Hardware Design Example
3.2. E-tile CPRI PHY Design Example Description x
3.2.1. Features 3.2.2. Simulation Design Example 3.2.3. Hardware Design Example 3.2.4. Interface Signals 3.2.5. Design Example Register Map for Reconfiguration
4. E-Tile Dynamic Reconfiguration Design Example x
4.1. Quick Start Guide 4.2. 10G/25G Ethernet Dynamic Reconfiguration Design Examples 4.3. 25G Ethernet to CPRI Dynamic Reconfiguration Design Example 4.4. CPRI Dynamic Reconfiguration Design Examples 4.5. 100G Ethernet Dynamic Reconfiguration Design Example 4.6. Document Revision History for the E-tile Dynamic Reconfiguration Design Example
4.1. Quick Start Guide x
4.1.1. Directory Structure 4.1.2. Generating the Design 4.1.3. Simulating the E-Tile Dynamic Reconfiguration Design Example Testbench 4.1.4. Compiling and Configuring the Design Example in Hardware 4.1.5. Testing the E-tile Dynamic Reconfiguration Hardware Design Example
4.1.2. Generating the Design x
4.1.2.1. Design Example Parameters
4.1.3. Simulating the E-Tile Dynamic Reconfiguration Design Example Testbench x
4.1.3.1. Running the Simulation with Default HEX File 4.1.3.2. Running the Simulation with New HEX File 4.1.3.3. Performing the Link Initialization
4.1.5. Testing the E-tile Dynamic Reconfiguration Hardware Design Example x
4.1.5.1. Running the Design Example in Hardware 4.1.5.2. Power Management Setting for Agilex Transceiver Signal Integrity Development Kit
4.2. 10G/25G Ethernet Dynamic Reconfiguration Design Examples x
4.2.1. Functional Description 4.2.2. Simulation Design Examples 4.2.3. Hardware Design Examples 4.2.4. 10GE/25GE Design Example Interface Signals 4.2.5. 10GE/25GE Design Examples Registers
4.2.1. Functional Description x
4.2.1.1. Clocking Scheme
4.2.2. Simulation Design Examples x
4.2.2.1. 10GE/25GE MAC+PCS with RS-FEC and PTP Simulation Dynamic Reconfiguration Design Example Components 4.2.2.2. 10GE/25GE MAC+PCS with RS-FEC Simulation Dynamic Reconfiguration Design Example Components
4.2.3. Hardware Design Examples x
4.2.3.1. 10GE/25GE MAC+PCS with RS-FEC and PTP Hardware Dynamic Reconfiguration Design Example Components 4.2.3.2. 10GE/25GE MAC+PCS with RS-FEC Hardware Dynamic Reconfiguration Design Example Components
4.3. 25G Ethernet to CPRI Dynamic Reconfiguration Design Example x
4.3.1. Functional Description 4.3.2. Simulation Design Examples 4.3.3. Hardware Design Examples 4.3.4. 25G Ethernet to CPRI Design Example Interface Signals 4.3.5. 25G Ethernet to CPRI Design Examples Registers
4.3.1. Functional Description x
4.3.1.1. Clocking Scheme 4.3.1.2. Reset
4.3.2. Simulation Design Examples x
4.3.2.1. 25GE MAC+PCS with RS-FEC and PTP to CPRI Simulation Dynamic Reconfiguration Design Example Components
4.3.3. Hardware Design Examples x
4.3.3.1. 25GE MAC+PCS with RS-FEC and PTP to CPRI Hardware Dynamic Reconfiguration Design Example Components
4.4. CPRI Dynamic Reconfiguration Design Examples x
4.4.1. Functional Description 4.4.2. Simulation Design Examples 4.4.3. Hardware Design Examples 4.4.4. CPRI Design Example Interface Signals 4.4.5. CPRI Design Example Registers
4.4.1. Functional Description x
4.4.1.1. Clocking Scheme
4.4.2. Simulation Design Examples x
4.4.2.1. 24G CPRI PHY with RS-FEC Simulation Dynamic Reconfiguration Design Example Components 4.4.2.2. 9.8G CPRI PHY Simulation Dynamic Reconfiguration Design Example Components
4.4.3. Hardware Design Examples x
4.4.3.1. CPRI PHY with RS-FEC Hardware Dynamic Reconfiguration Design Example Components
4.5. 100G Ethernet Dynamic Reconfiguration Design Example x
4.5.1. Functional Description 4.5.2. Testing the 100G Ethernet Dynamic Reconfiguration Hardware Design Example 4.5.3. Simulation Design Examples 4.5.4. 100GE DR Hardware Design Examples 4.5.5. 100G Ethernet Dynamic Reconfiguration Design Example Interface Signals 4.5.6. 100G Ethernet Dynamic Reconfiguration Examples Registers
4.5.3. Simulation Design Examples x
4.5.3.1. 100GE MAC+PCS with Optional RS-FEC Dynamic Reconfiguration Simulation Design Example
4.5.4. 100GE DR Hardware Design Examples x
4.5.4.1. 100GE MAC+PCS with Optional RS-FEC Dynamic Reconfiguration Hardware Design Example Components
1. About E-tile Hard IP Intel® Agilex™ Design Example User Guide
2. E-tile Ethernet IP for Intel® Agilex™ FPGA Design Example
3. E-tile CPRI PHY Intel® FPGA IP Design Example
4. E-Tile Dynamic Reconfiguration Design Example
5. E-tile Hard IP Intel® Agilex™ Design Examples User Guide Archives

3.2.2. Simulation Design Example

The E-tile CPRI PHY design example generates a simulation testbench and simulation files that instantiates the E-tile CPRI PHY Intel® FPGA IP core when you select the Simulation option.
Figure 23.  E-tile CPRI PHY Intel® FPGA IP for 10.1316, 12.1651, and 24.33024 Gbps (with and without RS-FEC) Line Rates
Figure 24.  E-tile CPRI PHY Intel® FPGA IP for 2.4376, 3.0720, 4.9152, 6.144, 9.8304 Gbps Line Rates

In this design example, the simulation testbench provides basic functionality such as startup and wait for lock, transmit and receive packets.

The successful test run displays output confirming the following behavior:
  1. The client logic resets the IP core.
  2. The client logic waits for the RX datapath alignment.
  3. The client logic transmits hyperframes on the TX MII interface and waits for five hyperframes to be received on RX MII interface. Hyperframes are transmitted and received on MII interface according to the CPRI v7.0 specifications.
    Note: The CPRI designs that target 2.4/3/4.9/6.1/9.8 Gbps line rates use 8b/10b interface and the designs that target 10.1, 12.1 and 24.3 Gbps (with and without RS-FEC) use MII interface.
    Note: This design example includes a round trip counter to count the round trip latency from TX to RX.
  4. The client logic reads the round trip latency value and checks for the content and correctness of the hyperframes data on the RX MII side once the counter completes the round trip latency count.
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