Microwave Passive Direction Finding unifies direction finding (DF) theory and brings together into a single source wide-ranging information on the technology of measuring the direction-of-arrival of microwave signals.
Throughout the material, there is authoritative information useful to preparing a detailed technical proposal for new business that has been compiled from many years of defense industry presentations, reports, and systems development.
Diagrams and photographs of state-of-the-art equipment depict the methods discussed, and equations and charts facilitate a “hands-on” approach to calculating system performance.
Microwave Passive Direction Finding also presents rarely published systems concepts, such as digital preprocessing, supercommutation, and wide RF bandwidth signal detection methods.
Specific sections cover evolution and use of monopulse passive DF receiver theory, design of antenna elements for conformal DF coverage, receiver configurations, DF antenna arrays, interferometer DF techniques, computation methods for signal detection, probability of detection, accuracy of DF systems, and signal processing and display methods.
More than any book on this technology, Microwave Passive Direction Finding anticipates the questions that arise in the DF design process.
The chapters are organized to stand alone, making Microwave Passive Direction Finding useful as a text/reference for the practicing engineer.
Key Features:
- The only book that thoroughly covers passive direction finding theory and its applications
- Diagrams and photographs of state-of-the-art equipment depict the methods discussed
- Equations and charts facilitate a “hands-on” approach to calculating system performance
Contents:
- Evolution and Uses of Passive Direction Finding
- Evolution
- HF DF Origins
- Radar DF Origins
- Uses of Passive DF
- DF Receiver Theory
- Evolution of Rotating DF Systems
- Concept of Monopulse
- Monopulse Angle Determination
- Birth of Passive Direction Finding Techniques
- Antenna Elements for Microwave Passive Direction Finding
- Terminology and Conventions
- Spiral Antennas
- Horn Antennas
- Multimode DF Horn Antennas
- Rotating Reflector Antennas
- DF Receiver Configuration
- DF Radar Warning Receivers
- Phase and Sum and Difference Monopulse DF Receivers
- Subcommutation Methods
- Supercommutation
- Monochannel Monopulse
- Parallel DF Channelization
- Multibeam DF Arrays
- DF Antenna Arrays
- Passive Detection Arrays
- Parallel Beam Formed Arrays
- Planar Butler Array
- Circular Butler-Fed Array
- Lens-Fed Arrays
- Parallel Beam Septum Antenna
- Switched-Beam Arrays
- Interferometer DF Techniques
- Mathematics of Interferometry
- Solution of the Interferometer Equations
- Multiple Aperture Systems
- Linear and Circular Interferometer Arrays
- Circular Interferometer Arrays
- Circular Interferometer Systems
- Methods for Signal Detection
- Crystal Video Receiver
- Superheterodyne Receiver
- Downconverter Receiver
- Probability of Detection
- False Alarm Probability
- Probability of Signal Detection in Noise
- Intercept Probability
- Window Function Probability Concept
- Accuracy of DF Systems
- Antenna Accuracy for Multibeam Systems
- Noise Accuracy of Amplitude Comparison DF Systems
- Noise Accuracy in Phase Measurement DF Systems
- Accuracy as a Function of Installation
- Signal Processing and Display Methods
- Logarithmic Amplifiers
- Phase Correlator for Wideband Applications
- DF Processing
- DF Displays
- Future Trends
Index