Intel® Quartus® Prime Pro Edition User Guide: PCB Design Tools

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ID 683768
Date 8/01/2023
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Document Table of Contents
Document Table of Contents x
1. Answers to Top FAQs 2. Signal Integrity Analysis with Third-Party Tools 3. Reviewing Printed Circuit Board Schematics with the Intel® Quartus® Prime Software 4. Siemens EDA PCB Design Tools Support 5. Cadence Board Design Tools Support 6. Intel Quartus Prime Pro Edition User Guide: PCB Design Tools Document Archives A. Intel® Quartus® Prime Pro Edition User Guides
2. Signal Integrity Analysis with Third-Party Tools x
2.1. Signal Integrity Analysis with Third-Party Tools 2.2. I/O Model Selection: IBIS or HSPICE 2.3. FPGA to Board Signal Integrity Analysis Flow 2.4. Simulation with IBIS Models 2.5. Simulation with HSPICE Models 2.6. Signal Integrity Analysis with Third-Party Tools Document Revision History
2.1. Signal Integrity Analysis with Third-Party Tools x
2.1.1. What's New In This Version 2.1.2. Signal Integrity Simulations with HSPICE and IBIS Models
2.3. FPGA to Board Signal Integrity Analysis Flow x
2.3.1. Create I/O and Board Trace Model Assignments 2.3.2. Customize the Output Files 2.3.3. Set Up and Run Simulations in Third-Party Tools 2.3.4. Interpret Simulation Results
2.4. Simulation with IBIS Models x
2.4.1. IBIS Model Access and Customization Flows 2.4.2. Elements of an IBIS Model 2.4.3. Customizing IBIS Models 2.4.4. Design Simulation Using the Siemens EDA HyperLynx* Software 2.4.5. Configuring LineSim to Use Intel IBIS Models 2.4.6. Integrating Intel IBIS Models into LineSim Simulations 2.4.7. Running and Interpreting LineSim Simulations
2.4.3. Customizing IBIS Models x
2.4.3.1. Customizing Downloaded IBIS Models for Intel® Stratix® 10 Devices, Intel® Arria® 10 Devices, and Intel® Cyclone® 10 GX Devices 2.4.3.2. Generate Custom IBIS Models with the EDA Netlist Writer GUI for Intel® Stratix® 10 Devices, Intel® Arria® 10 Devices, and Intel® Cyclone® 10 GX Devices 2.4.3.3. Customizing IBIS Model Files for Intel Agilex® 7 Devices
2.5. Simulation with HSPICE Models x
2.5.1. Supported Devices and Signaling 2.5.2. Accessing HSPICE Simulation Kits 2.5.3. The Double Counting Problem in HSPICE Simulations 2.5.4. HSPICE Writer Tool Flow 2.5.5. Running an HSPICE Simulation 2.5.6. Interpreting the Results of an Output Simulation 2.5.7. Interpreting the Results of an Input Simulation 2.5.8. Viewing and Interpreting Tabular Simulation Results 2.5.9. Viewing Graphical Simulation Results 2.5.10. Making Design Adjustments Based on HSPICE Simulations 2.5.11. Sample Input for I/O HSPICE Simulation Deck 2.5.12. Sample Output for I/O HSPICE Simulation Deck 2.5.13. Advanced Topics
2.5.3. The Double Counting Problem in HSPICE Simulations x
2.5.3.1. Defining the Double Counting Problem 2.5.3.2. The Solution to Double Counting
2.5.4. HSPICE Writer Tool Flow x
2.5.4.1. Applying I/O Assignments 2.5.4.2. Enabling HSPICE Writer 2.5.4.3. Enabling HSPICE Writer Using Assignments 2.5.4.4. Naming Conventions for HSPICE Files 2.5.4.5. Invoking HSPICE Writer 2.5.4.6. Invoking HSPICE Writer from the Command Line 2.5.4.7. Customizing Automatically Generated HSPICE Decks
2.5.11. Sample Input for I/O HSPICE Simulation Deck x
2.5.11.1. Header Comment 2.5.11.2. Simulation Conditions 2.5.11.3. Simulation Options 2.5.11.4. Constant Definition 2.5.11.5. Buffer Netlist 2.5.11.6. Drive Strength 2.5.11.7. I/O Buffer Instantiation 2.5.11.8. Board Trace and Termination 2.5.11.9. Stimulus Model 2.5.11.10. Simulation Analysis
2.5.12. Sample Output for I/O HSPICE Simulation Deck x
2.5.12.1. Header Comment 2.5.12.2. Simulation Conditions 2.5.12.3. Simulation Options 2.5.12.4. Constant Definition 2.5.12.5. I/O Buffer Netlist 2.5.12.6. Drive Strength 2.5.12.7. Slew Rate and Delay Chain 2.5.12.8. I/O Buffer Instantiation 2.5.12.9. Board and Trace Termination 2.5.12.10. Double-Counting Compensation Circuitry 2.5.12.11. Simulation Analysis Simulation Analysis Block
2.5.13. Advanced Topics x
2.5.13.1. PVT Simulations 2.5.13.2. Hold Time Analysis 2.5.13.3. I/O Voltage Variations 2.5.13.4. Correlation Report
3. Reviewing Printed Circuit Board Schematics with the Intel® Quartus® Prime Software x
3.1. Reviewing Intel® Quartus® Prime Software Settings 3.2. Reviewing Device Pin-Out Information in the Fitter Report 3.3. Reviewing Compilation Error and Warning Messages 3.4. Using Additional Intel® Quartus® Prime Software Features 3.5. Using Additional Intel® Quartus® Prime Software Tools 3.6. Reviewing Printed Circuit Board Schematics with the Intel® Quartus® Prime Software Revision History
3.1. Reviewing Intel® Quartus® Prime Software Settings x
3.1.1. Device and Pins Options Dialog Box Settings
3.1.1. Device and Pins Options Dialog Box Settings x
3.1.1.1. Configuration Settings 3.1.1.2. Unused Pin Settings 3.1.1.3. Dual-Purpose Pins Settings 3.1.1.4. Voltage Settings 3.1.1.5. Error Detection CRC Settings
3.5. Using Additional Intel® Quartus® Prime Software Tools x
3.5.1. Pin Planner
4. Siemens EDA PCB Design Tools Support x
4.1. Integrating with DxDesigner 4.2. Siemens EDA PCB Design Tools Support Revision History
4.1. Integrating with DxDesigner x
4.1.1. DxDesigner Project Settings 4.1.2. Creating Schematic Symbols in DxDesigner
5. Cadence Board Design Tools Support x
5.1. Cadence PCB Design Tools Support 5.2. Product Comparison 5.3. FPGA-to-PCB Design Flow 5.4. Setting Up the Intel® Quartus® Prime Software 5.5. FPGA-to-Board Integration with the Cadence Allegro Design Entry HDL Software 5.6. FPGA-to-Board Integration with Cadence Allegro Design Entry CIS Software 5.7. Cadence Board Design Tools Support Revision History
5.3. FPGA-to-PCB Design Flow x
5.3.1. Integrating Intel FPGA Designs
5.4. Setting Up the Intel® Quartus® Prime Software x
5.4.1. Generating a .pin File
5.5. FPGA-to-Board Integration with the Cadence Allegro Design Entry HDL Software x
5.5.1. Creating Symbols 5.5.2. Instantiating the Symbol in the Cadence Allegro Design Entry HDL Software
5.5.1. Creating Symbols x
5.5.1.1. Cadence Allegro PCB Librarian Part Developer Tool
5.5.1.1. Cadence Allegro PCB Librarian Part Developer Tool x
5.5.1.1.1. Cadence Allegro PCB Librarian Part Developer Tool in the Design Flow 5.5.1.1.2. Import and Export Wizard 5.5.1.1.3. Editing and Fracturing Symbol 5.5.1.1.4. Updating FPGA Symbols
5.6. FPGA-to-Board Integration with Cadence Allegro Design Entry CIS Software x
5.6.1. Creating a Cadence Allegro Design Entry CIS Project 5.6.2. Generating a Part 5.6.3. Generating Schematic Symbol 5.6.4. Splitting a Part 5.6.5. Instantiating a Symbol in a Design Entry CIS Schematic 5.6.6. Intel Libraries for the Cadence Allegro Design Entry CIS Software
5.6.6. Intel Libraries for the Cadence Allegro Design Entry CIS Software x
5.6.6.1. Using the Intel-provided Libraries with your Cadence Allegro Design Entry CIS Project
1. Answers to Top FAQs
2. Signal Integrity Analysis with Third-Party Tools
3. Reviewing Printed Circuit Board Schematics with the Intel® Quartus® Prime Software
4. Siemens EDA PCB Design Tools Support
5. Cadence Board Design Tools Support
6. Intel Quartus Prime Pro Edition User Guide: PCB Design Tools Document Archives
A. Intel® Quartus® Prime Pro Edition User Guides

2.5.12.11. Simulation Analysis

The simulation analysis block is set up to measure double-counting corrected delays. This is accomplished by measuring the uncompensated delay of the I/O buffer when connected to the user load, and when subtracting the simulated amount of double-counting from the test load I/O buffer.

Simulation Analysis Block

* Simulation Analysis Setup
*Print out the voltage waveform at both the pin and far end load
.print tran v(pin) v(load)
.tran 0.020ns 17ns
* Measure the propagation delay to the load pin. This value
* includes some double counting with Intel Quartus Prime’s Tco
.measure TRAN tpd_uncomp_rise TRIG v(din) val=’vc*0.5’ rise=1+ TARG v(load)
val=’vcn*0.5’ rise=1
.measure TRAN tpd_uncomp_fall TRIG v(din) val=’vc*0.5’ fall=1
+ TARG v(load) val=’vcn*0.5’ fall=1
* The test load buffer can calculate the amount of double counting
.measure TRAN t_dblcnt_rise TRIG v(din) val=’vc*0.5’ rise=1
+ TARG v(pin_tl) val=’vcn_tl*0.5’ rise=1
.measure TRAN t_dblcnt_fall TRIG v(din) val=’vc*0.5’ fall=1
+ TARG v(pin_tl) val=’vcn_tl*0.5’ fall=1
* Calculate the true propagation delay by subtraction
.measure TRAN tpd_rise PARAM=’tpd_uncomp_rise-t_dblcnt_rise’
.measure TRAN tpd_fall PARAM=’tpd_uncomp_fall-t_dblcnt_fall’
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