Book description
Analog circuit and system design today is more essential than ever before. With the growth of digital systems, wireless communications, complex industrial and automotive systems, designers are being challenged to develop sophisticated analog solutions. This comprehensive source book of circuit design solutions aids engineers with elegant and practical design techniques that focus on common analog challenges. The book’s in-depth application examples provide insight into circuit design and application solutions that you can apply in today’s demanding designs.
- This is the companion volume to the successful Analog Circuit Design: A Tutorial Guide to Applications and Solutions (October 2011), which has sold over 5000 copies in its the first 6 months of since publication. It extends the Linear Technology collection of application notes, which provides analog experts with a full collection of reference designs and problem solving insights to apply to their own engineering challenges
- Full support package including online resources (LTSpice)
- Contents include more application notes on power management, and data conversion and signal conditioning circuit solutions, plus an invaluable circuit collection of reference designs
Table of contents
- Cover image
- Title page
- Table of Contents
- Copyright
- Dedication 1
- Dedication 2
- Publisher’s Note
- Acknowledgments
- Introduction
- Foreword
-
PART 1: Power Management
-
Section 1: Power Management Tutorials
- Section 1. Power Management Tutorials
- Chapter 1. Performance enhancement techniques for three-terminal regulators
- Chapter 2. Load transient response testing for voltage regulators: Practical considerations for testing and evaluating results
- Chapter 3. A closed-loop, wideband, 100A active load: Brute force marries controlled speed
-
Section 2: Switching Regulator Design
- Section 2. Switching Regulator Design
-
Chapter 4. Some thoughts on DC/DC converters
- Introduction
- 5V to ±15V converter circuits
- Micropower quiescent current converters
- 200mA output 1.5V to 5V converter
- High efficiency converters
- Wide range input converters
- High voltage converters
- Switched-capacitor based converters
- Appendix A
- Appendix B
- Appendix C
- Appendix D
- Appendix E
- Appendix F
- Appendix G
- Appendix H
- References
-
Chapter 5. Theoritical considerations for buck mode switching regulators
- Introduction
- Absolute Maximum Ratings
- Package/order information
- Block Diagram Description
- Typical performance characteristics
- Pin Descriptions
- Ground Pin
- Feedback Pin
- Shutdown Pin
- Status Pin (Available Only On LT1176 Parts)
- ILIM PIN
- Error Amplifier
- Definition of Terms
- Positive Step-Down (Buck) Converter
- Tapped-Inductor Buck Converter
- Positive-To-Negative Converter
- Negative Boost Converter
- Inductor Selection
- Micropower Shutdown
- 5-Pin Current Limit
- Soft-Start
- Output Filters
- Input Filters
- Oscilloscope Techniques
- EMI Suppression
- Troubleshooting Hints
- Section 3: Linear Regulator Design
-
Section 4: High Voltage and High Current Applications
- Section 4. High Voltage and High Current Applications
-
Chapter 7. High voltage, low noise, DC/DC converters: A kilovolt with 100 microvolts of noise
- Introduction
- Resonant royer based converters
- Switched current source based resonant royer converters
- Low noise switching regulator driven resonant royer converters
- Controlled transition push-pull converters
- Flyback converters
- Summary of circuit characteristics
- Appendix A
- Appendix B
- Appendix C
- Appendix D
- Appendix E
- Appendix F
- Appendix G
- References
- Section 5: Powering Illumination Devices
- Section 6: Automotive and Industrial Power Design
-
Section 1: Power Management Tutorials
-
PART 2: Data Conversion, Signal Conditioning and High Frequency/RF
-
Section 1: Data Conversion
- Section 1. Data Conversion
- Chapter 11. Circuitry for single cell operation
-
Chapter 12. Component and measurement advances ensure 16-bit DAC settling time: The art of timely accuracy
- Introduction
- DAC settling time
- Considerations for measuring DAC settling time
- Practical DAC settling time measurement
- Detailed settling time circuitry
- Using the sampling-based settling time circuit
- Compensation capacitor effects
- Verifying results—alternate methods
- Alternate method I—bootstrapped clamp
- Alternate method II—sampling oscilloscope
- Alternate method III—differential amplifier
- Thermally induced settling errors
- Appendix A
- Appendix B
- Appendix C
- Appendix D
- Appendix E
- Appendix F
- Appendix G
- Appendix H
- References
- Chapter 13. Fidelity testing for A→D converters
-
Section 2: Signal Conditioning
-
Section 2. Signal Conditioning
- Applications for a new power buffer (14)
- Thermal techniques in measurement and control circuitry (15)
- Methods for measuring op amp settling time (16)
- High speed comparator techniques (17)
- Designs for high performance voltage- to-frequency converters (18)
- Unique IC buffer enhances op amp designs, tames fast amplifiers (19)
- Power gain stages for monolithic amplifiers (20)
- Composite amplifiers (21)
- A simple method of designing multiple order all pole bandpass filters by cascading 2nd order sections (22)
- FilterCAD user’s manual, version 1.10 (23)
- 30 nanosecond settling time measurement for a precision wideband amplifier (24)
- Application and optimization of a 2GHz differential amplifier/ADC driver (25)
- 2 nanosecond, 0.1% resolution settling time measurement for wideband amplifiers (26)
- An introduction to acoustic thermometry (27)
- Chapter 14. Applications for a new power buffer
- Chapter 15. Thermal techniques in measurement and control circuitry
- Chapter 16. Methods of measuring op amp settling time
- Chapter 17. High speed comparator techniques
-
Chapter 18. Designs for high performance voltage-to-frequency converters
- Ultra-high speed 1hz to 100mhz v→f converter
- Fast response 1hz to 2.5Mhz v→f converter
- High stability quartz stabilized v→f converter
- Ultra-linear v→f converter
- Single cell v→f converter
- Sine wave output v→f converter
- 1/X transfer function v→f converters
- Ex transfer function v→f converter
- →frequency converter
- References
-
Chapter 19. Unique IC buffer enhances op amp designs, tames fast amplifiers
- Introduction
- Design concept
- Basic design
- Follower boost
- Charge storage PNP
- Isolation-base transistor
- Complete circuit
- Buffer performance
- Bandwidth
- Phase delay
- Step response
- Output impedance
- Capacitive loading
- Slew response
- Input offset voltage
- Input bias current
- Voltage gain
- Output resistance
- Output noise voltage
- Saturation voltage
- Supply current
- Total harmonic distortion
- Maximum power
- Short circuit characteristics
- Isolating capacitive loads
- Integrators
- Impulse integrator
- Parallel operation
- Wideband amplifiers
- Track and hold
- Bidirectional current sources
- Voltage regulator
- Voltage/current regulator
- Supply splitter
- Overload clamping
- Conclusions
- Appendix
- Chapter 20. Power gain stages for monolithic amplifiers
- Chapter 21. Composite amplifiers
-
Chapter 22. A simple method of designing multiple order all pole bandpass filters by cascading 2nd order sections
- Introduction
- Designing bandpass filters
- Example 1—design
- Hardware implementation
- Designing bandpass filters—theory behind the design
- Cascading identical 2nd order bandpass sections
- Example 2—design
- Hardware implementation
- Mode 2 operation of ltc1060 family
- Cascading more than two identical 2nd order BP sections
- Using the tables
- Example 3—design
- Example 3—frequency response estimation
- Example 3—implementation
-
Chapter 23. FilterCAD user’s manual, version 1.10
- What is filtercad?
- License agreement/disclaimer
- Filtercad download
- Hardware requirements
- What is a filter?
- Step one, the basic design
- Step two, graphing filter response
- Implementing the filter
- Saving your filter design
- Loading a filter design file
- Printing a report
- Quitting filtercad
- A Butterworth lowpass example
- A Chebyshev bandpass example
- Two elliptic examples
- A custom example
- Editing cascade order
- More practical examples
- Notches…the final frontier
- Appendix 1
- Appendix 2
-
Chapter 24. 30 nanosecond settling time measurement for a precision wideband amplifier: Quantifying prompt certainty
- Introduction
- Settling time defined
- Considerations for measuring nanosecond region settling time
- Practical nanosecond settling time measurement
- Detailed settling time circuitry
- Using the sampling-based settling time circuit
- Compensation capacitor effects
- Verifying results—alternate method
- Summary and results
- Appendix A
- Appendix B
- Appendix C
- Appendix D
- Appendix E
- References
-
Chapter 25. Application and optimization of a 2GHz differential amplifier/ADC driver
- Introduction
- Low distortion
- Low noise
- Gain and power options
- Input considerations
- Dynamic range and output networks
- Stability
- Layout considerations
- Conclusion
- Appendix A Terms and definitions
- Appendix B Sample noise calculations
- Appendix COptimizing noise performance by calculation of voltage and current noise correlation
- References
-
Chapter 26. 2 nanosecond, 0.1% resolution settling time measurement for wideband amplifiers: Quantifying quick quiescence
- Introduction
- Settling time defined
- Considerations for measuring nanosecond region settling time
- Practical nanosecond settling time measurement
- Detailed settling time circuitry
- Using the sampling-based settling time circuit
- Verifying results—alternate method
- Summary of results and measurement limits
- Appendix A
- Appendix B
- Appendix C
- Appendix D
- Appendix E
- Appendix F
- Appendix G
- Appendix H
- References
- Chapter 27. An introduction to acoustic thermometry: An air filled olive jar teaches signal conditioning
-
Section 2. Signal Conditioning
-
Section 3: High Frequency/RF Design
- Section 3. High Frequency/RF Design
- Chapter 28. Low noise varactor biasing with switching regulators: Vanquishing villainous vitiators vis-à-vis vital varactors
- Chapter 29. Low cost coupling methods for RF power detectors replace directional couplers
- Chapter 30. Improving the output accuracy over temperature for RMS power detectors
-
Section 1: Data Conversion
-
PART 3: Circuit Collections
-
Part 3. Circuit Collections
- Circuit techniques for clock sources (31)
- Measurement and control circuit collection (32)
- Circuit collection, volume I (33)
- Video circuit collection (34)
- Practical circuitry for measurement and control problems (35)
- Circuit collection, volume III: data conversion, interface and signal processing (36)
- Part Three
- Circuit collection, volume V: data conversion, interface and signal conditioning products (38)
- Signal sources, conditioners and power circuitry (39)
- Current sense circuit collection (40)
- Power conversion, measurement and pulse circuits (41)
- Chapter 31. Circuit techniques for clock sources
-
Chapter 32. Measurement and control circuit collection: Diapers and designs on the night shift
- Introduction
- Low noise and drift chopped bipolar amplifier
- Low noise and drift-chopped FET amplifier
- Stabilized, wideband cable driving amplifier with low input capacitance
- Voltage programmable, ground referred current source
- 5V Powered, fully floating 4mA to 20mA current loop transmitter
- Transistor ΔVBE based thermometer
- Micropower, cold junction compensated thermocouple-to-frequency converter
- Relative humidity signal conditioner
- Inexpensive precision electronic barometer
- 1.5V Powered radiation detector
- 9ppm Distortion, quartz stabilized oscillator
- 1.5V Powered temperature compensated crystal oscillator
- 90μA Precision voltage-to-frequency converter
- Bipolar (AC) input V-F converter
- 1.5V Powered, 350ps rise time pulse generator
- A simple ultralow dropout regulator
- Cold cathode fluorescent lamp power supply
- References
- Chapter 33. Circuit collection, volume I
- Chapter 34. Video circuit collection
- Chapter 35. Practical circuitry for measurement and control problems: Circuits designed for a cruel and unyielding world
- Chapter 36. Circuit collection, volume III: Data conversion, interface and signal processing
-
Chapter 37. Circuitry for signal conditioning and power conversion: Designs from a once lazy sabbatical
- Introduction
- Micropower voltage-to-frequency converters
- Micropower a/d converters
- 10-bit, micropower a/d converter
- Differential input, 10mhz rms/dc converter
- Nanosecond coincidence detector
- 15 nanosecond waveform sampler
- 5.5μA powered, 0.05μv/°c chopped amplifier
- Pilot light flame detector with low-battery lockout
- Tip-acceleration detector for shipping containers
- 32.768khz “watch crystal” oscillator
- Complementary output, 50% duty cycle crystal oscillator
- Nonoverlapping, complementary output crystal oscillator
- High power ccfl backlight inverter for desktop displays
- Ultralow noise power converters
- Low noise boost regulator
- Low noise bipolar supply
- Ultralow noise off-line power supply
- Appendix A
- Appendix B
- References
- Chapter 38. Circuit collection, volume V: Data conversion, interface and signal conditioning products
-
Chapter 39. Signal sources, conditioners and power circuitry
- Introduction
- Voltage controlled current source—ground referred input and output
- Stabilized oscillator for network telephone identification
- Micro-mirror display pulse generator
- Simple rise time and frequency reference
- 850 picosecond rise time pulse generator with <1% pulse top aberrations
- 20 picosecond rise time pulse generator
- Nanosecond pulse width generator
- Single rail powered amplifier with true zero volt output swing
- Milliohmmeter
- 0.02% accurate instrumentation amplifier with 125vcm and 120db cmrr
- Wideband, low feedthrough, low level switch
- 5V powered, 0.0015% linearity, quartz-stabilized v→f converter
- Basic flashlamp illumination circuit for cellular telephones/cameras
- 0V to 300v output dc/dc converter
- Low ripple and noise 0v to 300v output dc/dc converter
- 5V to 200v converter for apd bias
- Wide range, high power, high voltage regulator
- 5V to 3.3V, 15a paralleled linear regulator
- Appendix A
- Appendix B
- References
-
Chapter 40. Current sense circuit collection: Making sense of current
- Introduction
- Current sense basics
- Low side current sensing (Figure 40.1)
- High side current sensing (Figure 40.2)
- Full-range (high and low side) current sensing (Figure 40.3)
- High side
- Low side
- Negative voltage
- Monitor current in positive or negative supply lines (Figure 40.40)
- Unidirectional
- Bidirectional
- AC
- DC
- Level shifting
- High voltage
- Low voltage
- High current (100mA to Amps)
- Low current (picoamps to milliamps)
- Motors and inductive loads
- Batteries
- High speed
- Fast compact −48V current sense (Figure 40.149)
- Fault sensing
- Digitizing
- Current control
- Precision
- Wide range
-
Chapter 41. Power conversion, measurement and pulse circuits: Tales from the laboratory notebook
- Introduction
- JFET-based dc/dc converter powered from 300mv supply
- Bipolar transistor-based 550mv input dc/dc converter
- 5V to 200v converter for apd bias
- Battery internal resistance meter
- Floating output, variable potential battery simulator
- 40nvp-p noise, 0.05μv/°c drift, chopped fet amplifier
- Wideband, chopper stabilized fet amplifier
- Submicroampere rms current measurement for quartz crystals
- Direct reading quartz crystal-based remote thermometer
- 1Hz–100mhz v→f converter
- Delayed pulse generator with variable time phase, low jitter trigger output
- References
-
Part 3. Circuit Collections
- Index
Product information
- Title: Analog Circuit Design Volume 2
- Author(s):
- Release date: December 2012
- Publisher(s): Newnes
- ISBN: 9780123979025
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