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1. Datasheet
2. Getting Started with the Avalon-MM Design Example
3. Parameter Settings
4. 64- or 128-Bit Avalon-MM Interface to the Endpoint Application Layer
5. Registers
6. Interrupts for Endpoints
7. Error Handling
A. PCI Express Protocol Stack
8. Transceiver PHY IP Reconfiguration
9. Throughput Optimization
10. Design Implementation
11. Additional Features
12. Debugging
B. Frequently Asked Questions for PCI Express
C. Lane Initialization and Reversal
D. Document Revision History
2.1. Running Qsys
2.2. Generating the Example Design
2.3. Understanding Simulation Log File Generation
2.4. Running a Gate-Level Simulation
2.5. Simulating the Single DWord Design
2.6. Generating Synthesis Files
2.7. Creating a Quartus® Prime Project
2.8. Compiling the Design
2.9. Programming a Device
2.10. Understanding Channel Placement Guidelines
4.1. 32-Bit Non-Bursting Avalon-MM Control Register Access (CRA) Slave Signals
4.2. Bursting and Non-Bursting Avalon® -MM Module Signals
4.3. 64- or 128-Bit Bursting TX Avalon-MM Slave Signals
4.4. Clock Signals
4.5. Reset
4.6. Interrupts for Endpoints when Multiple MSI/MSI-X Support Is Enabled
4.7. Hard IP Status Signals
4.8. Physical Layer Interface Signals
5.1. Correspondence between Configuration Space Registers and the PCIe Specification
5.2. Type 0 Configuration Space Registers
5.3. Type 1 Configuration Space Registers
5.4. PCI Express Capability Structures
5.5. Intel-Defined VSEC Registers
5.6. CvP Registers
5.7. 64- or 128-Bit Avalon-MM Bridge Register Descriptions
5.8. Programming Model for Avalon-MM Root Port
5.9. Uncorrectable Internal Error Mask Register
5.10. Uncorrectable Internal Error Status Register
5.11. Correctable Internal Error Mask Register
5.12. Correctable Internal Error Status Register
5.7.1.1. Avalon-MM to PCI Express Interrupt Status Registers
5.7.1.2. Avalon-MM to PCI Express Interrupt Enable Registers
5.7.1.3. PCI Express Mailbox Registers
5.7.1.4. Avalon-MM-to-PCI Express Address Translation Table
5.7.1.5. PCI Express to Avalon-MM Interrupt Status and Enable Registers for Endpoints
5.7.1.6. Avalon-MM Mailbox Registers
5.7.1.7. Control Register Access (CRA) Avalon-MM Slave Port
A.4.1. Avalon‑MM Bridge TLPs
A.4.2. Avalon-MM-to-PCI Express Write Requests
A.4.3. Avalon-MM-to-PCI Express Upstream Read Requests
A.4.4. PCI Express-to-Avalon-MM Read Completions
A.4.5. PCI Express-to-Avalon-MM Downstream Write Requests
A.4.6. PCI Express-to-Avalon-MM Downstream Read Requests
A.4.7. Avalon-MM-to-PCI Express Read Completions
A.4.8. PCI Express-to-Avalon-MM Address Translation for 32-Bit Bridge
A.4.9. Minimizing BAR Sizes and the PCIe Address Space
A.4.10. Avalon® -MM-to-PCI Express Address Translation Algorithm for 32-Bit Addressing
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4.8.2.1. Physical Layout of Hard IP in Stratix V GX/GT/GS Devices
Stratix V devices include one, two, or four Hard IP for PCI Express IP cores. The following figures illustrate the placement of the PCIe IP cores, transceiver banks, and channels for the largest Stratix V devices. Note that the bottom left hard IP block includes the CvP functionality for flip chip packages. For other package types, the CvP functionality is in the bottom right block. All other Hard IP blocks do not include the CvP functionality.
Figure 14. Stratix V GX/GT/GS Devices with Four PCIe Hard IP Blocks
Smaller devices include the following PCIe Hard IP Cores:
- One Hard IP for PCIe IP core - bottom left IP core with CvP, located at GX banks L0 and L1
- Two Hard IP for PCIe IP cores - bottom left IP core with CvP and bottom right IP Core, located at banks L0 and L1, and banks R0 and R1
Refer to Stratix V GX/GT Channel and PCIe Hard IP (HIP) Layout for comprehensive information on the number of Hard IP for PCIe IP cores available in various Stratix V packages.