Intel Agilex® 7 Clocking and PLL User Guide: F-Series and I-Series

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ID 683761
Date 7/13/2023
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Document Table of Contents
Document Table of Contents x
1. Intel Agilex® 7 FPGA F-Series and I-Series Clocking and PLL Overview 2. F-Series and I-Series Clocking and PLL Architecture and Features 3. F-Series and I-Series Clocking and PLL Design Considerations 4. Clock Control Intel® FPGA IP Core 5. IOPLL Intel® FPGA IP Core 6. IOPLL Reconfig Intel® FPGA IP Core 7. Intel Agilex 7 Clocking and PLL User Guide: F-Series and I-Series Archives 8. Document Revision History for the Intel Agilex® 7 Clocking and PLL User Guide: F-Series and I-Series
1. Intel Agilex® 7 FPGA F-Series and I-Series Clocking and PLL Overview x
1.1. Clock Networks Overview 1.2. PLLs Overview
2. F-Series and I-Series Clocking and PLL Architecture and Features x
2.1. Clock Networks Architecture and Features 2.2. PLLs Architecture and Features
2.1. Clock Networks Architecture and Features x
2.1.1. Clock Network Architecture 2.1.2. Clock Resources 2.1.3. Clock Control Features
2.1.1. Clock Network Architecture x
2.1.1.1. Clock Network Hierarchy 2.1.1.2. Clock Sectors 2.1.1.3. Programmable Clock Routing
2.1.3. Clock Control Features x
2.1.3.1. Clock Gating 2.1.3.2. Clock Divider
2.1.3.1. Clock Gating x
2.1.3.1.1. Root Clock Gate 2.1.3.1.2. Sector Clock Gate 2.1.3.1.3. I/O PLL Clock Gate 2.1.3.1.4. LAB Clock Gate
2.2. PLLs Architecture and Features x
2.2.1. PLL Features 2.2.2. PLL Usage 2.2.3. PLL Locations 2.2.4. PLL Architecture 2.2.5. PLL Control Signals 2.2.6. PLL Feedback Modes 2.2.7. Clock Multiplication and Division 2.2.8. Programmable Phase Shift 2.2.9. Programmable Duty Cycle 2.2.10. PLL Cascading 2.2.11. PLL Input Clock Switchover 2.2.12. PLL Reconfiguration and Dynamic Phase Shift 2.2.13. PLL Calibration
2.2.5. PLL Control Signals x
2.2.5.1. Reset 2.2.5.2. Locked
2.2.6. PLL Feedback Modes x
2.2.6.1. Direct Compensation Mode 2.2.6.2. LVDS Compensation Mode 2.2.6.3. Source Synchronous Compensation Mode 2.2.6.4. Normal Compensation Mode 2.2.6.5. Zero-Delay Buffer Mode 2.2.6.6. External Feedback Mode
2.2.11. PLL Input Clock Switchover x
2.2.11.1. Automatic Switchover 2.2.11.2. Automatic Switchover with Manual Override 2.2.11.3. Manual Clock Switchover
2.2.13. PLL Calibration x
2.2.13.1. Power-Up Calibration 2.2.13.2. User Calibration
3. F-Series and I-Series Clocking and PLL Design Considerations x
3.1. Guidelines: Clock Switchover 3.2. Guidelines: Timing Closure 3.3. Guidelines: Resetting the PLL 3.4. Guidelines: Configuration Constraints 3.5. Guidelines: I/O PLL Reconfiguration 3.6. Clocking Constraints 3.7. IP Core Constraints 3.8. Guideline: Achieving 5% Duty Cycle for fOUT_EXT ≥ 300 MHz Using tx_outclk Port from LVDS SERDES Intel® FPGA IP
4. Clock Control Intel® FPGA IP Core x
4.1. Release Information for Clock Control Intel® FPGA IP 4.2. Clock Control IP Core Parameters 4.3. Clock Control IP Core Ports and Signals
5. IOPLL Intel® FPGA IP Core x
5.1. Release Information for IOPLL Intel® FPGA IP 5.2. .mif File Generation 5.3. IP-XACT File Generation 5.4. IOPLL IP Core Parameters 5.5. IOPLL IP Core Ports and Signals
5.2. .mif File Generation x
5.2.1. Generating a New .mif File 5.2.2. Adding Configurations to Existing .mif File
5.3. IP-XACT File Generation x
5.3.1. Generating a New IP-XACT File
5.4. IOPLL IP Core Parameters x
5.4.1. IOPLL IP Core Parameters - PLL Tab 5.4.2. IOPLL IP Core Parameters - Settings Tab 5.4.3. IOPLL IP Core Parameters - Cascading Tab 5.4.4. IOPLL IP Core Parameters - Dynamic Reconfiguration Tab 5.4.5. IOPLL IP Core Parameters - Advanced Parameters Tab
6. IOPLL Reconfig Intel® FPGA IP Core x
6.1. Release Information for IOPLL Reconfig Intel® FPGA IP 6.2. Implementing I/O PLL Reconfiguration in the IOPLL Reconfig IP Core 6.3. IOPLL Reconfig IP Core Reconfiguration Modes 6.4. Avalon® Memory-Mapped Interface Ports in the IOPLL Reconfig IP Core 6.5. Address Bus and Data Bus Settings 6.6. Design Example
6.2. Implementing I/O PLL Reconfiguration in the IOPLL Reconfig IP Core x
6.2.1. Connectivity between the IOPLL and IOPLL Reconfig IP Cores 6.2.2. Connecting the IOPLL and IOPLL Reconfig IP Cores
6.3. IOPLL Reconfig IP Core Reconfiguration Modes x
6.3.1. .mif Streaming Reconfiguration 6.3.2. Advanced Mode Reconfiguration 6.3.3. Clock Gating Reconfiguration 6.3.4. Dynamic Phase Shift Reconfiguration
6.3.1. .mif Streaming Reconfiguration x
6.3.1.1. Recalibration Using .mif
6.3.2. Advanced Mode Reconfiguration x
6.3.2.1. Recalibration Using Advanced Mode
6.5. Address Bus and Data Bus Settings x
6.5.1. Address Bus and Data Bus Settings for Advanced Mode Reconfiguration 6.5.2. Output Clock and the Corresponding Data Bit Setting for Clock Gating Reconfiguration 6.5.3. Data Bus Setting for Dynamic Phase Shift for IOPLL Reconfig IP Core
6.5.1. Address Bus and Data Bus Settings for Advanced Mode Reconfiguration x
6.5.1.1. Data Bus Setting for Bandwidth Control and Charge Pump 6.5.1.2. Data Bus Setting for Ripplecap
6.6. Design Example x
6.6.1. Reconfiguration Option: .mif Streaming Reconfiguration Using IOPLL Reconfig IP Core 6.6.2. Reconfiguration Option: Advanced Mode Reconfiguration and Recalibration Using IOPLL Reconfig IP Core 6.6.3. Reconfiguration Option: Clock Gating Reconfiguration Using IOPLL Reconfig IP Core
1. Intel Agilex® 7 FPGA F-Series and I-Series Clocking and PLL Overview
2. F-Series and I-Series Clocking and PLL Architecture and Features
3. F-Series and I-Series Clocking and PLL Design Considerations
4. Clock Control Intel® FPGA IP Core
5. IOPLL Intel® FPGA IP Core
6. IOPLL Reconfig Intel® FPGA IP Core
7. Intel Agilex 7 Clocking and PLL User Guide: F-Series and I-Series Archives
8. Document Revision History for the Intel Agilex® 7 Clocking and PLL User Guide: F-Series and I-Series

2.1.1.2. Clock Sectors

Each clock sector has a dedicated sector clock (SCLK) network and a row clock network that can be accessed by the programmable clock routing. On each side of the clock sector, there is a channel that contains 64 unidirectional wires in bidirectional pairs, where only one wire in each pair can be used at one time. At each corner, there is a set of programmable clock switch multiplexers that can route between these clock wires.

A signal on a vertical clock wire can enter the sector to its left or right via clock tap multiplexers. The clock tap multiplexer drives a sector clock, which distributes the signal to each row in the clock sector. In each row, there are six row clock resources that route to all core functional blocks, PLLs, and I/O interfaces in the sector, and to adjacent transceivers.

Figure 3. Dedicated Clock Resources Within a Clock Sector
Level Two Title