Visible to Intel only — GUID: cxc1600106390525
Ixiasoft
1. Datasheet
2. Getting Started with the SR-IOV DMA Example Design
3. Parameter Settings
4. Interfaces and Signal Descriptions
5. Registers
6. Programming and Testing SR-IOV Bridge MSI Interrupts
7. Error Handling
8. IP Core Architecture
9. Design Implementation
10. Transceiver PHY IP Reconfiguration
11. Debugging
A. Frequently Asked Questions for PCI Express
B. Transaction Layer Packet (TLP) Header Formats
C. Stratix V Avalon-ST with SR-IOV Interface for PCIe Solutions User Guide Archive
12. Document Revision History
1.1. Stratix® V Avalon-ST Interface with SR-IOV for PCIe Datasheet
1.2. Release Information
1.3. Device Family Support
1.4. Design Examples for SR-IOV
1.5. Debug Features
1.6. IP Core Verification
1.7. Performance and Resource Utilization
1.8. Recommended Speed Grades for SR-IOV Interface
1.9. Creating a Design for PCI Express
2.1. Generating the Example Design Testbench
2.2. Understanding the Generated Files and Directories
2.3. Simulating the SR-IOV Example Design
2.4. Running a Gate-Level Simulation
2.5. Understanding the DMA Functionality
2.6. Compiling the Example Design with the Quartus® Prime Software
2.7. Using the IP Catalog To Generate Your Stratix V Hard IP for PCI Express as a Separate Component
4.1. Avalon-ST TX Interface
4.2. Component-Specific Avalon-ST Interface Signals
4.3. Avalon-ST RX Interface
4.4. BAR Hit Signals
4.5. Configuration Status Interface
4.6. Clock Signals
4.7. Function-Level Reset Interface
4.8. Interrupt Interface
4.9. Configuration Extension Bus (CEB) Interface
4.10. Implementing MSI-X Interrupts
4.11. Local Management Interface (LMI) Signals
4.12. Reset, Status, and Link Training Signals
4.13. Transceiver Reconfiguration
4.14. Serial Data Signals
4.15. Test Signals
4.16. PIPE Interface Signals
5.1. Correspondence between Configuration Space Registers and the PCIe Specification
5.2. PCI and PCI Express Configuration Space Registers
5.3. MSI Registers
5.4. MSI-X Capability Structure
5.5. Power Management Capability Structure
5.6. PCI Express Capability Structure
5.7. Advanced Error Reporting (AER) Enhanced Capability Header Register
5.8. Uncorrectable Error Status Register
5.9. Uncorrectable Error Mask Register
5.10. Uncorrectable Error Severity Register
5.11. Correctable Error Status Register
5.12. Correctable Error Mask Register
5.13. Advanced Error Capabilities and Control Register
5.14. Header Log Registers 0-3
5.15. SR-IOV Virtualization Extended Capabilities Registers
5.16. Virtual Function Registers
5.15.1. SR-IOV Virtualization Extended Capabilities Registers Address Map
5.15.2. ARI Enhanced Capability Header
5.15.3. SR-IOV Enhanced Capability Registers
5.15.4. Initial VFs and Total VFs Registers
5.15.5. VF Device ID Register
5.15.6. Page Size Registers
5.15.7. VF Base Address Registers (BARs) 0-5
5.15.8. Secondary PCI Express Extended Capability Header
5.15.9. Lane Status Registers
11.1.1. Changing Between Serial and PIPE Simulation
11.1.2. Using the PIPE Interface for Gen1 and Gen2 Variants
11.1.3. Viewing the Important PIPE Interface Signals
11.1.4. Disabling the Scrambler for Gen1 and Gen2 Simulations
11.1.5. Disabling 8B/10B Encoding and Decoding for Gen1 and Gen2 Simulations
11.1.6. Changing between the Hard and Soft Reset Controller
Visible to Intel only — GUID: cxc1600106390525
Ixiasoft
4.9.1.2. VPD Capability Implementation
Here are the required settings if you choose to implement the VPD capability in the MSI capability register space for the physical function:
- Make sure the MSI feature is disabled in the IP Parameter Editor GUI.
- Check the Enable PCI Express Extended Space (CEB) option and specify the CEB REQ to ACK latency (in Clock Cycles).
- Set the CEB PF External Standard Capability Pointer Address (DW address in Hex) value to 0x14 and leave CEB PF External Extended Capability Pointer Address (DW address in Hex) in the default setting, 0x0.
Note: Table 6.2 uses byte addresses while the IP Parameter Editor GUI requires the external capability pointer address in dword format. To convert byte addresses to dword addresses, divide the byte address by 4.
Consequently, the VPD Capability register can be accessed by the host system starting from 0x50 (byte address) or 0x14 (dword address). The VPD capability structure is shown in the figure below.
The figure below shows the capability link list for this implementation: