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Analog Design and Simulation using OrCAD Capture and PSpice provides step-by-step instructions on how to use the Cadence/OrCAD family of Electronic Design Automation software… Read more
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Analog Design and Simulation using OrCAD Capture and PSpice provides step-by-step instructions on how to use the Cadence/OrCAD family of Electronic Design Automation software for analog design and simulation. Organized into 22 chapters, each with exercises at the end, it explains how to start Capture and set up the project type and libraries for PSpice simulation. It also covers the use of AC analysis to calculate the frequency and phase response of a circuit and DC analysis to calculate the circuits bias point over a range of values.
The book describes a parametric sweep, which involves sweeping a parameter through a range of values, along with the use of Stimulus Editor to define transient analog and digital sources. It also examines the failure of simulations due to circuit errors and missing or incorrect parameters, and discusses the use of Monte Carlo analysis to estimate the response of a circuit when device model parameters are randomly varied between specified tolerance limits according to a specified statistical distribution. Other chapters focus on the use of worst-case analysis to identify the most critical components that will affect circuit performance, how to add and create PSpice models, and how the frequency-related signal and dispersion losses of transmission lines affect the signal integrity of high-speed signals via the transmission lines.
Practitioners, researchers, and those interested in using the Cadence/OrCAD professional simulation software to design and analyze electronic circuits will find the information, methods, compounds, and experiments described in this book extremely useful.
Professional electronics design engineers, advanced amateur electronics designers, electronic engineering students and professors looking for a book with a real-world design outlook
Preface
Instructions
Chapter 1. Getting Started
1.1. Starting Capture
1.2. Creating a PSpice Project
1.3. Symbols and Parts
1.4. Design Templates
1.5. Summary
1.6. Exercises
1.7. Extra Library Work
Chapter 2. DC Bias Point Analysis
2.1. Netlist Generation
2.2. Displaying Bias Points
2.3. Save Bias Point
2.4. Load Bias Point
2.5. Exercises
Chapter 3. DC Analysis
3.1. DC Voltage Sweep
3.2. Markers
3.3. Exercises
Chapter 4. AC Analysis
4.1. Simulation Parameters
4.2. AC Markers
4.3. Exercises
Chapter 5. Parametric Sweep
5.1. Property Editor
5.2. Exercises
Chapter 6. Stimulus Editor
6.1. Stimulus Editor Transient Sources
6.2. User-generated Time–Voltage Waveforms
6.3. Simulation Profiles
6.4. Exercise
Chapter 7. Transient Analysis
7.1. Simulation Settings
7.2. Scheduling
7.3. Check Points
7.4. Defining a Time–Voltage Stimulus using Text Files
7.5. Exercises
Chapter 8. Convergence Problems and Error Messages
8.1. Common Error Messages
8.2. Establishing a Bias Point
8.3. Convergence Issues
8.4. Simulation Settings Options
8.5. Exercises
Chapter 9. Transformers
9.1. Linear Transformer
9.2. Non-linear Transformer
9.3. Predefined Transformers
9.4. Exercises
Chapter 10. Monte Carlo Analysis
10.1. Simulation Settings
10.2. Adding Tolerance Values
10.3. Exercises
Chapter 11. Worst Case Analysis
11.1. Sensitivity Analysis
11.2. Worst Case Analysis
11.3. Adding Tolerances
11.4. Collating Functions
11.5. Exercise
Chapter 12. Performance Analysis
12.1. Measurement Functions
12.2. Measurement Definitions
12.3. Exercises
Chapter 13. Analog Behavioral Models
13.1. ABM Devices
13.2. Exercises
Chapter 14. Noise Analysis
14.1. Noise Types
14.2. Total Noise Contributions
14.3. Running a Noise Analysis
14.4. Noise Definitions
14.5. Exercise
Chapter 15. Temperature Analysis
15.1. Temperature Coefficients
15.2. Running a Temperature Analysis
15.3. Exercises
Chapter 16. Adding and Creating PSpice Models
16.1. Capture Properties for a PSpice Part
16.2. PSpice Model Definition
16.3. Subcircuits
16.4. Model Editor
16.5. Exercises
Chapter 17. Transmission Lines
17.1. Ideal Transmission Lines
17.2. Lossy Transmission Lines
17.3. Exercises
Chapter 18. Digital Simulation
18.1. Digital Device Models
18.2. Digital Circuits
18.3. Digital Simulation Profile
18.4. Displaying Digital Signals
18.5. Exercises
Chapter 19. Mixed Simulation
19.1. Exercises
Chapter 20. Creating Hierarchical Designs
20.1. Hierarchical Ports and Off-page Connectors
20.2. Hierarchical Blocks and Symbols
20.3. Passing Parameters
20.4. Hierarchical Netlist
20.5. Exercises
Chapter 21. Magnetic Parts Editor
21.1. Design Cycle
21.2. Exercises
Chapter 22. Test Benches
22.1. Selection of Test Bench Parts
22.2. Unconnected Floating Nets
22.3. Comparing and Updating Differences between the Master Design and Test Bench Designs
22.4. Exercises
Appendix. PSpice Measurement Definitions
Index
DF
Dr Fitzpatrick is a Chartered engineer and lecturer at the University of East Anglia teaching electrical and electronic engineering with a research interest in Biomedical Engineering. His primary research interest is in the use of Functional Electrical Simulation (FES) for the restoration of bladder function and restoration of gait in stroke and spinal cord injured patients. His research focuses on the design and development of custom designed implantable electrodes. His recent book, Analogue Design and Simulation using OrCAD Capture and PSpice, published by Elsevier, has sold worldwide to highly acclaimed reviews in numerous prestigious electronic engineering journals including EDN and Electronic Times, the book being officially endorsed by Cadence Design Systems.
Dr Fitzpatrick has published other books in the field of Biomedical Engineering and is the Series editor for the Developments in Biomedical Engineering and Bioelectronics book series by Elsevier.