Intel Agilex® 7 Hard Processor System Component Reference Manual

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ID 683581
Date 4/10/2023
Public
Document Table of Contents
Document Table of Contents x
1. Introduction to the Intel Agilex® 7 Hard Processor System Component 2. Configuring the Intel Agilex® 7 Hard Processor System Component 3. Simulating the Intel Agilex® 7 HPS Component
1. Introduction to the Intel Agilex® 7 Hard Processor System Component x
1.1. Cortex*-A53 MPCore* Processor 1.2. CoreSight* Debug Components 1.3. Interconnect 1.4. FPGA Bridges 1.5. Memory Controllers 1.6. Support Peripherals 1.7. Introduction to the HPS Component Revision History
1.6. Support Peripherals x
1.6.1. Interface Peripherals 1.6.2. On-Chip Memories
2. Configuring the Intel Agilex® 7 Hard Processor System Component x
2.1. Parameterizing the HPS Component 2.2. FPGA Interfaces 2.3. HPS Clocks and Resets 2.4. HPS EMIF 2.5. I/O Delays 2.6. Pin MUX and Peripherals 2.7. Generating and Compiling the HPS Component 2.8. Using the Address Span Extender Component 2.9. Configuring the HPS Component Revision History
2.2. FPGA Interfaces x
2.2.1. General Interfaces 2.2.2. HPS-FPGA AXI Bridges 2.2.3. HPS Boot Source 2.2.4. DMA Controller Interface 2.2.5. Interrupts
2.2.1. General Interfaces x
2.2.1.1. Enable MPU Standby and Event Interfaces 2.2.1.2. Enable General Purpose Signals 2.2.1.3. Enable Debug APB Interface 2.2.1.4. Enable System Trace Macrocell (STM) Hardware Events 2.2.1.5. Enable FPGA Cross Trigger Interface 2.2.1.6. Enable DDR Arm* Trace Bus (ATB)
2.2.2. HPS-FPGA AXI Bridges x
2.2.2.1. FPGA-to-HPS Slave Interface 2.2.2.2. HPS to FPGA AXI-4 Master Interface 2.2.2.3. Lightweight HPS to FPGA Master Interface
2.2.5. Interrupts x
2.2.5.1. FPGA-to-HPS 2.2.5.2. HPS-to-FPGA
2.3. HPS Clocks and Resets x
2.3.1. Input Clocks 2.3.2. Internal Clocks and Output Clocks 2.3.3. Resets
2.3.1. Input Clocks x
2.3.1.1. External Clock Source 2.3.1.2. FPGA-to-HPS Clocks Source 2.3.1.3. Peripheral FPGA Clocks
2.3.2. Internal Clocks and Output Clocks x
2.3.2.1. Main PLL Output Clocks – Desired Frequencies 2.3.2.2. HPS to FPGA User Clocks 2.3.2.3. HPS Peripheral Clocks – Desired Frequencies 2.3.2.4. Clock Sources 2.3.2.5. PLL Report
2.6. Pin MUX and Peripherals x
2.6.1. Pin Mux GUI 2.6.2. Pin Mux Report 2.6.3. EMAC ptp Interface
2.6.1. Pin Mux GUI x
2.6.1.1. Auto-Place IP 2.6.1.2. Advanced
3. Simulating the Intel Agilex® 7 HPS Component x
3.1. Simulation Flows 3.2. Clock and Reset Interfaces 3.3. FPGA-to-HPS AXI* Slave Interface 3.4. HPS-to-FPGA AXI* Master Interface 3.5. Lightweight HPS-to-FPGA AXI* Master Interface 3.6. HPS-to-FPGA MPU Event Interface 3.7. Interrupts Interface 3.8. HPS-to-FPGA Debug APB Interface 3.9. FPGA-to-HPS System Trace Macrocell Hardware Event Interface 3.10. HPS-to-FPGA Cross-Trigger Interface 3.11. HPS-to-FPGA Trace Port Interface 3.12. FPGA-to-HPS DMA Handshake Interface 3.13. General Purpose Input Interface 3.14. EMIF Conduit 3.15. Simulating the Intel Agilex® 7 HPS Component Revision History
3.1. Simulation Flows x
3.1.1. Setting Up the HPS Component for Simulation 3.1.2. Generating the HPS Simulation Model in Platform Designer 3.1.3. Running the Simulations
3.1.1. Setting Up the HPS Component for Simulation x
3.1.1.1. HPS Conduit Interfaces Connecting to the FPGA
3.1.3. Running the Simulations x
3.1.3.1. Running HPS RTL Simulation 3.1.3.2. Running HPS Post-Fit Simulation
3.1.3.2. Running HPS Post-Fit Simulation x
3.1.3.2.1. Post-Fit Simulation Files 3.1.3.2.2. BFM API Hierarchy Format
3.2. Clock and Reset Interfaces x
3.2.1. Clock Interface 3.2.2. Reset Interface
1. Introduction to the Intel Agilex® 7 Hard Processor System Component
2. Configuring the Intel Agilex® 7 Hard Processor System Component
3. Simulating the Intel Agilex® 7 HPS Component

2.8. Using the Address Span Extender Component

The FPGA-to-SoC bridge memory-mapped interface can be configured to expose their entire address spaces to the FPGA fabric, 132GB and 128GB, respectively. The address span extender component provides a memory-mapped window into the address space that it masters. Using the address span extender, an FPGA master with a smaller address span can access the entire address space exposed by the FPGA bridge.

You can use the address span extender between a soft logic master and an FPGA-to-SoC bridge. This component reduces the number of address bits required for a master to address a memory-mapped slave interface located in the HPS.

In the example shown in the figure below, the bridges in the HPS component are configured for 32-bit wide addresses (4GB address span).

Figure 31. Address Span Extender Components Two address span extender components used in a system with the HPS.

You can also use the address span extender in the HPS-to-FPGA direction, for slave interfaces in the FPGA. In this case, the HPS-to-FPGA bridge exposes a limited, variable address space in the FPGA, which can be paged in using the address span extender.

For example, suppose that the HPS-to-FPGA bridge has a 1-GB span, and the HPS needs to access three independent 1-GB memories in the FPGA portion of the device. To achieve this, the HPS programs the address span extender to access one SDRAM (1-GB) in the FPGA at a time. This technique is commonly called paging or windowing.

For more information about the Intel Span Extender, refer to the Address Span Extender section in the Intel® Quartus® Prime Pro Edition User Guide: Platform Designer.

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