F-Tile Dynamic Reconfiguration Suite Intel® FPGA IP User Guide

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ID 711009
Date 9/30/2024
Public
Document Table of Contents
Document Table of Contents x
1. About the F-Tile Dynamic Reconfiguration Suite Core 2. Interface Overview 3. Parameters 4. Designing with the IP Core 5. Block Description 6. Configuration Registers 7. F-Tile Dynamic Reconfiguration Suite Intel® FPGA IP User Guide Archives 8. Document Revision History for the F-Tile Dynamic Reconfiguration Suite User Guide
1. About the F-Tile Dynamic Reconfiguration Suite Core x
1.1. Features 1.2. Design Considerations 1.3. Device Family Support 1.4. Resource Utilization 1.5. Release Information
2. Interface Overview x
2.1. Clock Signals 2.2. Reset 2.3. Avalon® Memory-Mapped Interface 2.4. Control and Status Interface
4. Designing with the IP Core x
4.1. Generating Dynamic Reconfiguration Design and Configuration Profiles 4.2. Dynamic Reconfiguration QSF Settings 4.3. Dynamic Reconfiguration Using QSF-driven Flow 4.4. Dynamic Reconfiguration Rules 4.5. Hardware States and Configuration Profiles 4.6. Nios® -Based Dynamic Reconfiguration Flow 4.7. Using the Tile Assignment Editor 4.8. Visualizing Dynamic Reconfiguration Group Placement 4.9. Assigning IP_COLOCATE Hierarchy 4.10. Example: Dynamic Reconfiguration with Multirate IP Flow 4.11. Example: Dynamic Reconfiguration Programming Sequence 4.12. Dynamic Reconfiguration Error Recovery Handling 4.13. Determining Profile Numbers 4.14. Master Clock Channel 4.15. Using the IP_RECONFIG_GROUP_PARENT QSF Assignment 4.16. Simulating the IP Core
4.6. Nios® -Based Dynamic Reconfiguration Flow x
4.6.1. Selecting the Nios® Data Memory Size
4.7. Using the Tile Assignment Editor x
4.7.1. Creating QSF Assignments 4.7.2. Generating the IP_Colocate QSF Assignment
4.14. Master Clock Channel x
4.14.1. Selecting the Master Clock Channel
5. Block Description x
5.1. Clocks 5.2. Reset 5.3. Stack Clocking for Fracturability
6. Configuration Registers x
6.1. Dynamic Reconfiguration New Trigger 6.2. Dynamic Reconfiguration Next Profile 0 6.3. Dynamic Reconfiguration Next Profile 1 6.4. Dynamic Reconfiguration Next Profile 2 6.5. Dynamic Reconfiguration Next Profile 3 6.6. Dynamic Reconfiguration Next Profile 4 6.7. Dynamic Reconfiguration Next Profile 5 6.8. Dynamic Reconfiguration Next Profile 6 6.9. Dynamic Reconfiguration Next Profile 7 6.10. Dynamic Reconfiguration Next Profile 8 6.11. Dynamic Reconfiguration Next Profile 9 6.12. Dynamic Reconfiguration Next Profile 10 6.13. Dynamic Reconfiguration Next Profile 11 6.14. Dynamic Reconfiguration Next Profile 12 6.15. Dynamic Reconfiguration Next Profile 13 6.16. Dynamic Reconfiguration Next Profile 14 6.17. Dynamic Reconfiguration Next Profile 15 6.18. Dynamic Reconfiguration Next Profile 16 6.19. Dynamic Reconfiguration Next Profile 17 6.20. Dynamic Reconfiguration Next Profile 18 6.21. Dynamic Reconfiguration Next Profile 19 6.22. Dynamic Reconfiguration Avalon MM Timeout 6.23. Dynamic Reconfiguration TX Channel Reconfiguration 6.24. Dynamic Reconfiguration RX Channel Reconfiguration 6.25. Dynamic Reconfiguration TX Channel in Reset Acknowledgment 6.26. Dynamic Reconfiguration TX Channel out of Reset 6.27. Dynamic Reconfiguration TX Channel Reset Control Init Status 6.28. Dynamic Reconfiguration TX Channel Source Alarm 6.29. Dynamic Reconfiguration RX Channel in Reset Acknowledgment 6.30. Dynamic Reconfiguration RX Channel out of Reset 6.31. Dynamic Reconfiguration RX Channel Reset Control Init Status 6.32. Dynamic Reconfiguration RX Channel Source Alarm 6.33. Dynamic Reconfiguration Local Error Status
1. About the F-Tile Dynamic Reconfiguration Suite Core
2. Interface Overview
3. Parameters
4. Designing with the IP Core
5. Block Description
6. Configuration Registers
7. F-Tile Dynamic Reconfiguration Suite Intel® FPGA IP User Guide Archives
8. Document Revision History for the F-Tile Dynamic Reconfiguration Suite User Guide

4.5. Hardware States and Configuration Profiles

To program the relevant dynamic reconfiguration CSR registers, you must know the profiles, reconfiguration groups, EMIB and transceiver numbering associations. The IP and the Quartus® Prime software collaterals provide the appropriate associations. To ensure the hardware configures into a correct state, all relevant CSR fields must be programmed correctly.

Quartus® Prime software generates the .mif file containing multiple profiles. Each profile contains the delta programming sequences, in a linked-list format, used by the Nios® core to retrieve necessary information.

The Quartus® Prime software-generated programming sequences for each profile uses the global Avalon® memory-mapped interface address space. The programming sequences contain all the necessary CSR writes for all EMIB to transceiver paths, including both 1:1 and N:1 EMIB to transceiver cases. For instance, a single-lane 50G Ethernet requires 2 EMIBs and 1 transceiver, and the programming sequences have catered for CSRs to be programmed for paths from the 2 EMIBs to the transceiver.

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