Intel® Arria® 10 Avalon® Streaming with SR-IOV IP for PCIe* User Guide

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ID 683686
Date 1/11/2022
Public
Document Table of Contents
Document Table of Contents x
1. Datasheet 2. Getting Started with the SR-IOV Design Example 3. Parameter Settings 4. Physical Layout 5. Interfaces and Signal Descriptions 6. Registers 7. Programming and Testing SR-IOV Bridge MSI Interrupts 8. Error Handling 9. IP Core Architecture 10. Design Implementation 11. Debugging 12. Document Revision History A. Transaction Layer Packet (TLP) Header Formats B. Intel® Arria® 10 Avalon-ST with SR-IOV Interface for PCIe Solutions User Guide Archive
1. Datasheet x
1.1. Intel® Arria® 10 Avalon® -ST Interface with SR-IOV for PCI Express* Datasheet 1.2. Release Information 1.3. Device Family Support 1.4. Debug Features 1.5. IP Core Verification 1.6. Performance and Resource Utilization 1.7. Recommended Speed Grades for SR-IOV Interface
1.1. Intel® Arria® 10 Avalon® -ST Interface with SR-IOV for PCI Express* Datasheet x
1.1.1. SR-IOV Features
1.5. IP Core Verification x
1.5.1. Compatibility Testing Environment
2. Getting Started with the SR-IOV Design Example x
2.1. Directory Structure for Intel® Arria® 10 SR-IOV Design Example 2.2. Design Components for the SR-IOV Design Example 2.3. Generating the SR-IOV Design Example 2.4. Compiling and Simulating the Design for SR-IOV
3. Parameter Settings x
3.1. Parameters 3.2. Intel® Arria® 10 Avalon-ST Settings 3.3. Intel® Arria® 10 SR-IOV System Settings 3.4. Base Address Register (BAR) Settings 3.5. SR-IOV Device Identification Registers 3.6. Intel® Arria® 10 Interrupt Capabilities 3.7. Physical Function TLP Processing Hints (TPH) 3.8. Address Translation Services (ATS) 3.9. PCI Express and PCI Capabilities Parameters 3.10. PHY Characteristics 3.11. Example Designs
3.9. PCI Express and PCI Capabilities Parameters x
3.9.1. PCI Express and PCI Capabilities 3.9.2. Error Reporting 3.9.3. Link Capabilities 3.9.4. Slot Capabilities 3.9.5. Power Management
4. Physical Layout x
4.1. Hard IP Block Placement In Intel® Cyclone® 10 GX Devices 4.2. Hard IP Block Placement In Intel® Arria® 10 Devices 4.3. Channel and Pin Placement for the Gen1, Gen2, and Gen3 Data Rates 4.4. Channel Placement and fPLL and ATX PLL Usage for the Gen3 Data Rate 4.5. PCI Express Gen3 Bank Usage Restrictions
5. Interfaces and Signal Descriptions x
5.1. Avalon-ST TX Interface 5.2. Component-Specific Avalon-ST Interface Signals 5.3. Avalon-ST RX Interface 5.4. BAR Hit Signals 5.5. Configuration Status Interface 5.6. Clock Signals 5.7. Function-Level Reset (FLR) Interface 5.8. SR-IOV Interrupt Interface 5.9. Configuration Extension Bus (CEB) Interface 5.10. Implementing MSI-X Interrupts 5.11. Control Shadow Interface 5.12. Local Management Interface (LMI) Signals 5.13. Reset, Status, and Link Training Signals 5.14. Hard IP Reconfiguration Interface 5.15. Serial Data Signals 5.16. Test Signals 5.17. PIPE Interface Signals 5.18. Intel® Arria® 10 Development Kit Conduit Interface
5.9. Configuration Extension Bus (CEB) Interface x
5.9.1. Vital Product Data (VPD) Capability
5.9.1. Vital Product Data (VPD) Capability x
5.9.1.1. Determine the Pointer Address of an External Capability Register 5.9.1.2. VPD Capability Implementation
6. Registers x
6.1. Addresses for Physical and Virtual Functions 6.2. Correspondence between Configuration Space Registers and the PCIe Specification 6.3. PCI and PCI Express Configuration Space Registers 6.4. MSI Registers 6.5. MSI-X Capability Structure 6.6. Power Management Capability Structure 6.7. PCI Express Capability Structure 6.8. Advanced Error Reporting (AER) Enhanced Capability Header Register 6.9. Uncorrectable Error Status Register 6.10. Uncorrectable Error Mask Register 6.11. Uncorrectable Error Severity Register 6.12. Correctable Error Status Register 6.13. Correctable Error Mask Register 6.14. Advanced Error Capabilities and Control Register 6.15. Header Log Registers 0-3 6.16. SR-IOV Virtualization Extended Capabilities Registers 6.17. Virtual Function Registers
6.3. PCI and PCI Express Configuration Space Registers x
6.3.1. Type 0 Configuration Space Registers 6.3.2. PCI and PCI Express Configuration Space Register Content 6.3.3. Interrupt Line and Interrupt Pin Register
6.16. SR-IOV Virtualization Extended Capabilities Registers x
6.16.1. SR-IOV Virtualization Extended Capabilities Registers Address Map 6.16.2. ARI Enhanced Capability Header 6.16.3. SR-IOV Enhanced Capability Registers 6.16.4. Initial VFs and Total VFs Registers 6.16.5. VF Device ID Register 6.16.6. Page Size Registers 6.16.7. VF Base Address Registers (BARs) 0-5 6.16.8. Secondary PCI Express Extended Capability Header 6.16.9. Lane Status Registers 6.16.10. Transaction Processing Hints (TPH) Requester Enhanced Capability Header
7. Programming and Testing SR-IOV Bridge MSI Interrupts x
7.1. Setting Up and Verifying MSI Interrupts 7.2. Masking MSI Interrupts 7.3. Dropping a Pending MSI Interrupt
8. Error Handling x
8.1. Physical Layer Errors 8.2. Data Link Layer Errors 8.3. Transaction Layer Errors 8.4. Error Reporting and Data Poisoning 8.5. Uncorrectable and Correctable Error Status Bits
9. IP Core Architecture x
9.1. PCI Express Protocol Stack 9.2. Data Link Layer 9.3. Physical Layer 9.4. Top-Level Interfaces 9.5. Intel® Arria® 10 Hard IP for PCI Express with Single-Root I/O Virtualization (SR-IOV)
9.4. Top-Level Interfaces x
9.4.1. Avalon-ST Interface 9.4.2. Clocks and Reset 9.4.3. Interrupts 9.4.4. PIPE
10. Design Implementation x
10.1. Making Pin Assignments to Assign I/O Standard to Serial Data Pins 10.2. Recommended Reset Sequence to Avoid Link Training Issues 10.3. SDC Timing Constraints
11. Debugging x
11.1. Setting Up Simulation 11.2. Simulation Fails To Progress Beyond Polling.Active State 11.3. Hardware Bring-Up Issues 11.4. Link Training 11.5. Creating a Signal Tap Debug File to Match Your Design Hierarchy 11.6. Use Third-Party PCIe Analyzer 11.7. BIOS Enumeration Issues
11.1. Setting Up Simulation x
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
12. Document Revision History x
12.1. Document Revision History for the Intel® Arria® 10 Avalon® Streaming with SR-IOV IP for PCIe* User Guide
A. Transaction Layer Packet (TLP) Header Formats x
A.1. TLP Packet Formats without Data Payload A.2. TLP Packet Formats with Data Payload
1. Datasheet
2. Getting Started with the SR-IOV Design Example
3. Parameter Settings
4. Physical Layout
5. Interfaces and Signal Descriptions
6. Registers
7. Programming and Testing SR-IOV Bridge MSI Interrupts
8. Error Handling
9. IP Core Architecture
10. Design Implementation
11. Debugging
12. Document Revision History
A. Transaction Layer Packet (TLP) Header Formats
B. Intel® Arria® 10 Avalon-ST with SR-IOV Interface for PCIe Solutions User Guide Archive

5.5. Configuration Status Interface

The output signals listed below drive the settings of the various configuration register fields of the Functions. These settings are often needed in designing Application Layer logic.

Table 26.  Configuration Status Interface

Signal

Direction

Description

bus_num_f0-f3[7:0] Output

Bus number assigned to the PF by the Root Complex. Captured from CfgWr transactions.

When ARI is in use, the Application Layer uses bus_num_f<n>-1 to generate requests as a master or respond to requests as a Completer.

When ARI is not in use, the application uses bus_num_f<n>-1 when generating requests from PF<n>-1 and its associated VF and responding to requests as a Completer.

Provided for information only. The SR-IOV Bridge inserts the appropriate bus number in the header of transmitted TLPs
device_num_f0-f3[4:0] Output

Device number assigned to the PF by the Root Complex. Captured from CfgWr transactions. When ARI is not in use, the Application Layer uses device_num_f<n>-1 when generating requests from PF<n>-1 and responding to requests as a Completer.

Not used when ARI is enabled.

Provided for information only. The SR-IOV Bridge inserts the appropriate device number in the header of transmitted TLPs.

mem_space_en_pf[<n>-1:0]

Output

The PF Command Registers drive the Memory Space Enable bit. <n> is the number of PFs.

bus_master_en_pf[<n>-1:0]

Output

The PF Command Registers drive the Bus Master Enable bit. <n> is the number of PFs.

mem_space_en_vf[<n>-1:0]

Output

The PF Control Registers drive the SR-IOV Memory Space Enable bit. <n> is the number of PFs.

pf[<n>-1:0]_num_vfs[15:0]

Output

This output drives the value of the NumVFs register in the PF SR-IOV Capability Structure .

max_payload_size[2:0]

Output

When only PF0 is present, the max payload size field of the PF0 PCI Express Device Control Register drives this output. When more PFs are present, the minimum value of the max payload size field of the PCI Express Device Control Registers drives this output.

rd_req_size[2:0]

Output

When only PF 0 is present, the max read request size field of PF0 PCI Express Device Control Register drives this output. When more PFs are present, the minimum value of the max read request size fields of the PCI Express Device Control Registers drives this output.

extended_tag_en_pf[<n>-1:0] Output Bit <n>of this output reflects the setting of the Extended Tag Enable, bit[8], of the Device Control Register of PF<n>.
completion_timeout_ disable_pf[<n>-1:0]   Bit <n> of this output reflects the setting of the Completion Timeout Disable, bit [4], of the Device Control 2 Register of PF<n>.
atomic_op_requester_en_pf[<n>-1:0] Output Bit <n> of this output reflects the setting of the Atomic Op Requester Enable bit of the Device Control 2 Register of PF <n>.
tph_st_mode_pf[2*<n>-1:0] Output Bits [1:0] of this output reflect the setting of the TPH ST Mode Select field, bits[1:0] of the TPH Requester Control Register of PF0. Bits [3:2] reflect the setting of the TPH ST Mode Select field bits [1:0] of the TPH Requester Control Register of PF 1, and so on.
tph_requester_en_pf[<n>-1:0] Output Bit <n>of this output reflects the setting of the TPH Requester Enable field, bit[8], of the TPH Requester Control Register of PF <n>.
ats_stu_pf[5*<n>-1:0] Output Bits [4:0] of this output reflect the setting of the Smallest Translation Unit field, bits [4:0], in the ATS Control Register of PF0; bits [9:5] reflect the setting of the Smallest Translation Unit field, bits [4:0], in the ATS Control Register of PF1, and so on.
ats_en_pf[<n>-1:0] Output Bit <n>of this output reflects the setting of the Enable bit, bit [15], in the ATS Control Register of PF <n>.
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