Intel® Quartus® Prime Pro Edition User Guide: Debug Tools

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ID 683819
Date 12/12/2022
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Document Table of Contents
Document Table of Contents x
1. Answers to Top FAQs 2. System Debugging Tools Overview 3. Design Debugging with the Signal Tap Logic Analyzer 4. Quick Design Verification with Signal Probe 5. In-System Debugging Using External Logic Analyzers 6. In-System Modification of Memory and Constants 7. Design Debugging Using In-System Sources and Probes 8. Analyzing and Debugging Designs with System Console 9. Intel® Quartus® Prime Pro Edition User Guide Debug Tools Archives A. Intel® Quartus® Prime Pro Edition User Guides
2. System Debugging Tools Overview x
2.1. System Debugging Tools Portfolio 2.2. Tools for Monitoring RTL Nodes 2.3. Stimulus-Capable Tools 2.4. Virtual JTAG Interface Intel® FPGA IP 2.5. System-Level Debug Fabric 2.6. SLD JTAG Bridge 2.7. Partial Reconfiguration Design Debugging 2.8. Preserving Signals for Debugging 2.9. System Debugging Tools Overview Revision History
2.1. System Debugging Tools Portfolio x
2.1.1. System Debugging Tools Comparison 2.1.2. Suggested Tools for Common Debugging Requirements 2.1.3. Debugging Ecosystem
2.2. Tools for Monitoring RTL Nodes x
2.2.1. Resource Usage 2.2.2. Pin Usage 2.2.3. Usability Enhancements
2.2.1. Resource Usage x
2.2.1.1. Overhead Logic
2.2.1.1. Overhead Logic x
2.2.1.1.1. For Signal Tap Logic Analyzer 2.2.1.1.2. For Signal Probe 2.2.1.1.3. For Logic Analyzer Interface
2.2.2. Pin Usage x
2.2.2.1. For Signal Tap Logic Analyzer 2.2.2.2. For Signal Probe 2.2.2.3. For Logic Analyzer Interface
2.2.3. Usability Enhancements x
2.2.3.1. Incremental Routing 2.2.3.2. Automation Via Scripting
2.3. Stimulus-Capable Tools x
2.3.1. In-System Sources and Probes 2.3.2. In-System Memory Content Editor 2.3.3. System Console
2.3.1. In-System Sources and Probes x
2.3.1.1. Push Button Functionality
2.3.2. In-System Memory Content Editor x
2.3.2.1. Generate Test Vectors
2.3.3. System Console x
2.3.3.1. Test Signal Integrity 2.3.3.2. Board Bring-Up and Verification 2.3.3.3. Debug with Available Toolkits
2.6. SLD JTAG Bridge x
2.6.1. SLD JTAG Bridge Index 2.6.2. Instantiating the SLD JTAG Bridge Agent 2.6.3. Instantiating the SLD JTAG Bridge Host
2.7. Partial Reconfiguration Design Debugging x
2.7.1. Debug Fabric for Partial Reconfiguration Designs
2.7.1. Debug Fabric for Partial Reconfiguration Designs x
2.7.1.1. Generation of PR Debug Infrastructure
2.8. Preserving Signals for Debugging x
2.8.1. Preserve for Debug Overview 2.8.2. Marking Signals for Debug
2.8.2. Marking Signals for Debug x
2.8.2.1. Step 1: Enabling Preserve for Debug 2.8.2.2. Step 2: Implement Preserve for Debug Assignments 2.8.2.3. Step 3: Locate and Report Preserve for Debug Nodes
2.8.2.1. Step 1: Enabling Preserve for Debug x
2.8.2.1.1. Enabling Preserve for Debug In Project Settings 2.8.2.1.2. Enabling Preserve for Debug at Instance Level
2.8.2.2. Step 2: Implement Preserve for Debug Assignments x
2.8.2.2.1. HDL Implementation 2.8.2.2.2. Intel® Quartus® Prime Settings Implementation
2.8.2.3. Step 3: Locate and Report Preserve for Debug Nodes x
2.8.2.3.1. Locating Preserve for Debug Nodes 2.8.2.3.2. Reporting Preserve for Debug Nodes
3. Design Debugging with the Signal Tap Logic Analyzer x
3.1. Signal Tap Logic Analyzer Introduction 3.2. Signal Tap Debugging Flow 3.3. Step 1: Add the Signal Tap Logic Analyzer to the Project 3.4. Step 2: Configure the Signal Tap Logic Analyzer 3.5. Step 3: Compile the Design and Signal Tap Instances 3.6. Step 4: Program the Target Hardware 3.7. Step 5: Run the Signal Tap Logic Analyzer 3.8. Step 6: Analyze Signal Tap Captured Data 3.9. Other Signal Tap Debugging Flows 3.10. Signal Tap Logic Analyzer Design Examples 3.11. Custom State-Based Triggering Flow Examples 3.12. Signal Tap File Templates 3.13. Running the Stand-Alone Version of Signal Tap 3.14. Signal Tap Scripting Support 3.15. Signal Tap File Version Compatibility 3.16. Design Debugging with the Signal Tap Logic Analyzer Revision History
3.1. Signal Tap Logic Analyzer Introduction x
3.1.1. Signal Tap Hardware and Software Requirements
3.3. Step 1: Add the Signal Tap Logic Analyzer to the Project x
3.3.1. Creating a Signal Tap Instance with the Signal Tap GUI 3.3.2. Creating a Signal Tap Instance by HDL Instantiation
3.3.1. Creating a Signal Tap Instance with the Signal Tap GUI x
3.3.1.1. Managing Signal Tap Instances
3.3.2. Creating a Signal Tap Instance by HDL Instantiation x
3.3.2.1. Signal Tap Intel® FPGA IP Parameters
3.4. Step 2: Configure the Signal Tap Logic Analyzer x
3.4.1. Preserving Signals for Monitoring and Debugging 3.4.2. Preventing Changes that Require Full Recompilation 3.4.3. Specifying the Clock, Sample Depth, and RAM Type 3.4.4. Specifying the Buffer Acquisition Mode 3.4.5. Adding Signals to the Signal Tap Logic Analyzer 3.4.6. Defining Trigger Conditions 3.4.7. Specifying Pipeline Settings 3.4.8. Filtering Relevant Samples
3.4.4. Specifying the Buffer Acquisition Mode x
3.4.4.1. Non-Segmented Buffer 3.4.4.2. Segmented Buffer
3.4.5. Adding Signals to the Signal Tap Logic Analyzer x
3.4.5.1. Adding Pre-Synthesis or Post-Fit Nodes 3.4.5.2. Adding Simulator-Aware Signal Tap Nodes 3.4.5.3. Adding Nios® II Processor Signals with a Plug-In 3.4.5.4. Signals Unavailable for Signal Tap Debugging 3.4.5.5. Organizing Signals in the Signal Tap Logic Analyzer
3.4.5.2. Adding Simulator-Aware Signal Tap Nodes x
3.4.5.2.1. Add Simulator-Aware Node Finder Settings
3.4.6. Defining Trigger Conditions x
3.4.6.1. Basic Trigger Conditions 3.4.6.2. Nested Trigger Conditions 3.4.6.3. Comparison Trigger Conditions 3.4.6.4. Advanced Trigger Conditions 3.4.6.5. Custom Trigger HDL Object 3.4.6.6. Specify Trigger Position 3.4.6.7. Power-Up Triggers 3.4.6.8. External Triggers 3.4.6.9. Trigger Condition Flow Control 3.4.6.10. Sequential Triggering 3.4.6.11. State-Based Triggering 3.4.6.12. Trigger Lock Mode
3.4.6.3. Comparison Trigger Conditions x
3.4.6.3.1. Specifying the Comparison Trigger Conditions
3.4.6.4. Advanced Trigger Conditions x
3.4.6.4.1. Examples of Advanced Triggering Expressions
3.4.6.5. Custom Trigger HDL Object x
3.4.6.5.1. Using the Custom Trigger HDL Object 3.4.6.5.2. Required Inputs and Outputs of Custom Trigger HDL Module 3.4.6.5.3. Custom Trigger HDL Module Properties
3.4.6.6. Specify Trigger Position x
3.4.6.6.1. Post-fill Count
3.4.6.7. Power-Up Triggers x
3.4.6.7.1. Enabling a Power-Up Trigger 3.4.6.7.2. Configuring Power-Up Trigger Conditions 3.4.6.7.3. Managing Signal Tap Instances with Run-Time and Power-Up Trigger Conditions
3.4.6.10. Sequential Triggering x
3.4.6.10.1. Configuring the Sequential Triggering Flow
3.4.6.11. State-Based Triggering x
3.4.6.11.1. State-Based Triggering Flow Tab 3.4.6.11.2. State Machine Pane 3.4.6.11.3. Resources Pane 3.4.6.11.4. State Diagram Pane 3.4.6.11.5. Signal Tap Trigger Flow Description Language 3.4.6.11.6. State-Based Storage Qualifier Feature
3.4.6.11.5. Signal Tap Trigger Flow Description Language x
3.4.6.11.5.1. <state_label> 3.4.6.11.5.2. <boolean_expression> 3.4.6.11.5.3. <action_list> 3.4.6.11.5.4. Trigger that Skips Clock Cycles after Hitting Condition 3.4.6.11.5.5. Storage Qualification with Post-Fill Count Value Less than m 3.4.6.11.5.6. Resource Manipulation Action 3.4.6.11.5.7. Buffer Control Actions 3.4.6.11.5.8. State Transition Action
3.4.6.11.6. State-Based Storage Qualifier Feature x
3.4.6.11.6.1. Storage Qualification Feature for the State-Based Trigger Flow
3.4.8. Filtering Relevant Samples x
3.4.8.1. Input Port Mode 3.4.8.2. Transitional Mode 3.4.8.3. Conditional Mode 3.4.8.4. Start/Stop Mode 3.4.8.5. State-Based Mode 3.4.8.6. Showing Data Discontinuities 3.4.8.7. Disable the Storage Qualifier
3.5. Step 3: Compile the Design and Signal Tap Instances x
3.5.1. Recompiling Only Signal Tap Changes 3.5.2. Timing Preservation 3.5.3. Performance and Resource Considerations
3.5.3. Performance and Resource Considerations x
3.5.3.1. Increasing Signal Tap Logic Performance 3.5.3.2. Reducing Signal Tap Device Resources
3.6. Step 4: Program the Target Hardware x
3.6.1. Ensure Compatibility Between .stp and .sof Files
3.7. Step 5: Run the Signal Tap Logic Analyzer x
3.7.1. Changing the Post-Fit Signal Tap Target Nodes 3.7.2. Runtime Reconfigurable Options 3.7.3. Signal Tap Status Messages
3.8. Step 6: Analyze Signal Tap Captured Data x
3.8.1. Viewing Capture Data Using Segmented Buffers 3.8.2. Viewing Data with Different Acquisition Modes 3.8.3. Creating Mnemonics for Bit Patterns 3.8.4. Locating a Node in the Design 3.8.5. Saving Captured Signal Tap Data 3.8.6. Exporting Captured Signal Tap Data 3.8.7. Creating a Signal Tap List File
3.8.2. Viewing Data with Different Acquisition Modes x
3.8.2.1. Continuous Mode and a Storage Qualifier Examples
3.8.3. Creating Mnemonics for Bit Patterns x
3.8.3.1. Adding Mnemonics with a Plug-In
3.9. Other Signal Tap Debugging Flows x
3.9.1. Signal Tap and Simulator Integration 3.9.2. Managing Multiple Signal Tap Configurations 3.9.3. Debugging Partial Reconfiguration Designs with Signal Tap 3.9.4. Debugging Block-Based Designs with Signal Tap 3.9.5. Debugging Devices that use Configuration Bitstream Security 3.9.6. Signal Tap Data Capture with the MATLAB* MEX Function
3.9.1. Signal Tap and Simulator Integration x
3.9.1.1. Generating a Simulation Testbench from Signal Tap Data 3.9.1.2. Create Simulation Testbench Dialog Box Settings
3.9.2. Managing Multiple Signal Tap Configurations x
3.9.2.1. Data Log Pane 3.9.2.2. SOF Manager
3.9.3. Debugging Partial Reconfiguration Designs with Signal Tap x
3.9.3.1. Signal Tap Guidelines for PR Designs 3.9.3.2. PR Design Setup for Signal Tap Debug 3.9.3.3. Performing Data Acquisition in a PR design
3.9.3.2. PR Design Setup for Signal Tap Debug x
3.9.3.2.1. Preparing the Static Region for Signal Tap Debugging 3.9.3.2.2. Preparing the Base Revision for Signal Tap Debugging 3.9.3.2.3. Preparing PR Personas for Signal Tap Debugging
3.9.4. Debugging Block-Based Designs with Signal Tap x
3.9.4.1. Signal Tap Debugging with a Core Partition 3.9.4.2. Signal Tap Debugging with a Root Partition 3.9.4.3. Compiler Snapshots and Signal Tap Debugging
3.9.4.1. Signal Tap Debugging with a Core Partition x
3.9.4.1.1. Partition Boundary Ports Method 3.9.4.1.2. Debug a Core Partition through Partition Boundary Ports 3.9.4.1.3. Export a Core Partition with Partition Boundary Ports 3.9.4.1.4. Signal Tap HDL Instance Method 3.9.4.1.5. Export a Core Partition with Signal Tap HDL Instances 3.9.4.1.6. Debug a Core Partition Exported with Signal Tap HDL Instances
3.9.4.1.4. Signal Tap HDL Instance Method x
3.9.4.1.4.1. Debug a Core Partition Exported with Signal Tap HDL Instances
3.9.4.2. Signal Tap Debugging with a Root Partition x
3.9.4.2.1. Export the Root Partition with SLD JTAG Bridge 3.9.4.2.2. Debugging an Exported Root Partition and Core Partition Simultaneously using the SLD JTAG Bridge
3.9.4.3. Compiler Snapshots and Signal Tap Debugging x
3.9.4.3.1. Add Post-Fit Nodes when Reusing a Partition Containing a Synthesis Snapshot
3.11. Custom State-Based Triggering Flow Examples x
3.11.1. Trigger Example 1: Custom Trigger Position 3.11.2. Trigger Example 2: Trigger When triggercond1 Occurs Ten Times between triggercond2 and triggercond3
3.14. Signal Tap Scripting Support x
3.14.1. Signal Tap Command-Line Options 3.14.2. Data Capture from the Command Line
4. Quick Design Verification with Signal Probe x
4.1. Signal Probe Debugging Flow 4.2. Quick Design Verification with Signal Probe Revision History
4.1. Signal Probe Debugging Flow x
4.1.1. Step 1: Reserve Signal Probe Pins 4.1.2. Step 2: Assign Nodes to Signal Probe Pins 4.1.3. Step 3: Connect the Signal Probe Pin to an Output Pin 4.1.4. Step 4: Compile the Design 4.1.5. (Optional) Step 5: Modify the Signal Probe Pins Assignments 4.1.6. Step 6: Run Fitter-Only Compilation 4.1.7. Step 7: Check Connection Table in Fitter Report
5. In-System Debugging Using External Logic Analyzers x
5.1. About the Intel® Quartus® Prime Logic Analyzer Interface 5.2. Choosing a Logic Analyzer 5.3. Flow for Using the LAI 5.4. Controlling the Active Bank During Runtime 5.5. LAI Core Parameters 5.6. In-System Debugging Using External Logic Analyzers Revision History
5.2. Choosing a Logic Analyzer x
5.2.1. Required Components
5.3. Flow for Using the LAI x
5.3.1. Defining Parameters for the Logic Analyzer Interface 5.3.2. Mapping the LAI File Pins to Available I/O Pins 5.3.3. Mapping Internal Signals to the LAI Banks 5.3.4. Compiling Your Intel® Quartus® Prime Project 5.3.5. Programming Your Intel-Supported Device Using the LAI
5.4. Controlling the Active Bank During Runtime x
5.4.1. Acquiring Data on Your Logic Analyzer
6. In-System Modification of Memory and Constants x
6.1. IP Cores Supporting In System Memory Content Editor 6.2. Debug Flow with the In-System Memory Content Editor 6.3. Enabling Runtime Modification of Instances in the Design 6.4. Programming the Device with the In-System Memory Content Editor 6.5. Loading Memory Instances to the ISMCE 6.6. Monitoring Locations in Memory 6.7. Editing Memory Contents with the Hex Editor Pane 6.8. Importing and Exporting Memory Files 6.9. Access Two or More Devices 6.10. Scripting Support 6.11. In-System Modification of Memory and Constants Revision History
6.10. Scripting Support x
6.10.1. The insystem_memory_edit Tcl Package
6.10.1. The insystem_memory_edit Tcl Package x
6.10.1.1. Getting Information about the insystem_memory_edit Package
7. Design Debugging Using In-System Sources and Probes x
7.1. Hardware and Software Requirements 7.2. Design Flow Using the In-System Sources and Probes Editor 7.3. Compiling the Design 7.4. Running the In-System Sources and Probes Editor 7.5. Tcl interface for the In-System Sources and Probes Editor 7.6. Design Example: Dynamic PLL Reconfiguration 7.7. Design Debugging Using In-System Sources and Probes Revision History
7.2. Design Flow Using the In-System Sources and Probes Editor x
7.2.1. Instantiating the In-System Sources and Probes IP Core 7.2.2. In-System Sources and Probes IP Core Parameters
7.4. Running the In-System Sources and Probes Editor x
7.4.1. In-System Sources and Probes Editor GUI 7.4.2. Programming Your Device With JTAG Chain Configuration 7.4.3. Instance Manager 7.4.4. In-System Sources and Probes Editor Pane
7.4.4. In-System Sources and Probes Editor Pane x
7.4.4.1. Reading Probe Data 7.4.4.2. Writing Data 7.4.4.3. Organizing Data
8. Analyzing and Debugging Designs with System Console x
8.1. Introduction to System Console 8.2. Starting System Console 8.3. System Console GUI 8.4. Launching a Toolkit in System Console 8.5. Using System Console Services 8.6. On-Board Intel® FPGA Download Cable II Support 8.7. MATLAB* and Simulink* in a System Verification Flow 8.8. System Console Examples and Tutorials 8.9. Running System Console in Command-Line Mode 8.10. Using System Console Commands 8.11. Using Toolkit Tcl Commands 8.12. Analyzing and Debugging Designs with the System Console Revision History
8.1. Introduction to System Console x
8.1.1. IP Cores that Interact with System Console 8.1.2. Services Provided through Debug Agents 8.1.3. System Console Debugging Flow
8.2. Starting System Console x
8.2.1. Customizing System Console Startup
8.3. System Console GUI x
8.3.1. System Console Views 8.3.2. Toolkit Explorer Pane 8.3.3. System Explorer Pane 8.3.4. Customizing, Saving, and Resetting the System Console Layout
8.3.1. System Console Views x
8.3.1.1. Main View 8.3.1.2. Autosweep View 8.3.1.3. Dashboard View 8.3.1.4. Eye Viewer
8.3.1.1. Main View x
8.3.1.1.1. Link Pair View
8.4. Launching a Toolkit in System Console x
8.4.1. Available System Debugging Toolkits 8.4.2. Creating Collections from the Toolkit Explorer 8.4.3. Filtering and Searching Interactive Instances
8.5. Using System Console Services x
8.5.1. Locating Available Services 8.5.2. Opening and Closing Services 8.5.3. Using the SLD Service 8.5.4. Using the In-System Sources and Probes Service 8.5.5. Using the Monitor Service 8.5.6. Using the Device Service 8.5.7. Using the Design Service 8.5.8. Using the Bytestream Service 8.5.9. Using the JTAG Debug Service
8.5.3. Using the SLD Service x
8.5.3.1. SLD Commands
8.5.4. Using the In-System Sources and Probes Service x
8.5.4.1. In-System Sources and Probes Commands
8.5.5. Using the Monitor Service x
8.5.5.1. Monitor Commands
8.5.6. Using the Device Service x
8.5.6.1. Device Commands
8.5.7. Using the Design Service x
8.5.7.1. Design Service Commands
8.5.8. Using the Bytestream Service x
8.5.8.1. Bytestream Commands
8.5.9. Using the JTAG Debug Service x
8.5.9.1. JTAG Debug Commands
8.7. MATLAB* and Simulink* in a System Verification Flow x
8.7.1. Supported MATLAB* API Commands 8.7.2. High Level Flow
8.8. System Console Examples and Tutorials x
8.8.1. Nios® II Processor Example
8.8.1. Nios® II Processor Example x
8.8.1.1. Processor Commands
1. Answers to Top FAQs
2. System Debugging Tools Overview
3. Design Debugging with the Signal Tap Logic Analyzer
4. Quick Design Verification with Signal Probe
5. In-System Debugging Using External Logic Analyzers
6. In-System Modification of Memory and Constants
7. Design Debugging Using In-System Sources and Probes
8. Analyzing and Debugging Designs with System Console
9. Intel® Quartus® Prime Pro Edition User Guide Debug Tools Archives
A. Intel® Quartus® Prime Pro Edition User Guides

3.8.1. Viewing Capture Data Using Segmented Buffers

Segmented buffers allow you to capture recurring events or sequences of events that span over a long period.

Each acquisition segment acts as a non-segmented buffer, continuously capturing data after activation. When you run analyses with segmented buffers, the Signal Tap logic analyzer captures back-to-back data for each acquisition segment within the data buffer. You define the trigger flow, or the type and order in which the trigger conditions evaluate for each buffer, either in the Sequential trigger flow control or in the Custom State-based trigger flow control.

The following figure shows a segmented acquisition buffer with four segments represented as four separate non-segmented buffers.

Figure 82. Segmented Acquisition Buffer

When the Signal Tap logic analyzer finishes an acquisition with a segment and advances to the next segment to start a new acquisition, the data capture that appears in the waveform viewer depends on when a trigger condition occurs. The figure illustrates the data capture method. The Trigger markers—Trigger 1, Trigger 2, Trigger 3 and Trigger 4—refer to the evaluation of the segment_trigger and trigger commands in the Custom State-based trigger flow. In sequential flows, the Trigger markers for segments 2 through 4 refer to the final trigger condition that you specify within the Setup tab.

If the Segment 1 Buffer is the active segment and Trigger 1 occurs, the Signal Tap logic analyzer starts evaluating Trigger 2 immediately. Data Acquisition for the Segment 2 buffer starts when either the Segment 1 Buffer finishes its post-fill count, or when Trigger 2 evaluates as TRUE, whichever condition occurs first. Thus, trigger conditions associated with the next buffer in the data capture sequence can preempt the post-fill count of the current active buffer. This allows the Signal Tap logic analyzer to accurately capture all the trigger conditions that occurred. Unused samples appear as a blank space in the waveform viewer.

Figure 83. Segmented Capture with Preemption of Acquisition SegmentsThe figure shows a capture using sequential flow control with the trigger condition for each segment specified as Don’t Care.

Each segment before the last captures only one sample, because the next trigger condition immediately preempts capture of the current buffer. The trigger position for all segments is specified as pre-trigger (12% of the data is before the trigger condition and 88% of the data is after the trigger position). Because the last segment starts immediately with the trigger condition, the segment contains only post-trigger data. The three empty samples in the last segment are left over from the pre-trigger samples that the Signal Tap logic analyzer allocated to the buffer.

For the sequential trigger flow, the Trigger Position option applies to every segment in the buffer. A custom state-based trigger flow provides maximum flexibility defining the trigger position. By adjusting the trigger position specific to the debugging requirements, you can help maximize the use of the allocated buffer space.

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