1. About the GTS CPRI PHY FPGA IP
2. Getting Started
3. GTS CPRI PHY IP Parameters
4. Functional Description
5. Interface Signals
6. GTS CPRI PHY IP Registers
7. GTS CPRI PHY IP Troubleshooting
8. GTS CPRI PHY Intel FPGA IP User Guide Archives
9. Document Revision History for the GTS CPRI PHY Intel FPGA IP User Guide
5.1. GTS CPRI PHY IP Clock Signals
5.2. GTS CPRI PHY IP Reset Signals
5.3. GTS CPRI PHY IP TX MII (64b/66b)
5.4. GTS CPRI PHY IP RX MII (64b/66b)
5.5. GTS CPRI PHY IP Status Interface for 64b/66b Line Rate
5.6. GTS CPRI PHY IP TX Interface (8b/10b)
5.7. GTS CPRI PHY IP RX Interface (8b/10b)
5.8. GTS CPRI PHY IP Status Interface for 8b/10b Line Rate
5.9. GTS CPRI PHY IP Serial Interface
5.10. GTS CPRI PHY Reconfiguration Interface
5.11. GTS CPRI PHY IP Dynamic Reconfiguration Local Avalon Memory-Mapped Interface
5.12. GTS CPRI PHY IP Datapath and PMA Avalon Memory-Mapped Interface
2.4. GTS CPRI PHY IP Testbenches
Altera provides a testbench design example that you can generate for the GTS CPRI PHY Altera® FPGA IP.
To generate the testbench, in the GTS CPRI PHY Altera® FPGA IP parameter editor, you must first set the parameter values for the IP core variation you intend to generate in your end product. If you do not set the parameter values for your DUT to match the parameter values in your end product, the testbench you generate does not exercise the IP variation you intend.
The testbench demonstrates XGMII or 8B/10B data transfer to PHY with internal serial loopback and performs basic latency calculations. It is not intended to be a substitute for a full verification environment.