David P. Morgan received a Ph.D. degree in Electrical Engineering from London University, for work on radar pulse compression using Surface Acoustic Waves. Since then he has been involved in research and development in a wide variety of topics, mostly in SAW, working at Nippon Electric Company (Kawasaki) 1970-71, University of Edinburgh 1971-77 and Plessey Research Caswell (Northampton, UK) 1977-86, where he was Group Leader for Surface Acoustic Waves. He is now a Consultant in this area. Dr. Morgan is author of the well-known text ‘Surface Wave Devices for Signal Processing’, and has also published over 100 technical papers. His knowledge of the SAW area has led to his being invited to lecture on the subject in the U.S., Russia, Finland, Japan, China and Korea. He is a Life Senior Member of the IEEE.

• 1. Basic Survey2. Acoustic waves in elastic solids 3. Electrical excitation at a plane surface 4. Propagation effects and materials 5. Non-reflective transducers 6. Bandpass filtering using non-reflective transducers 7. Correlators for pulse compression radar and communications 8. Reflective gratings and transducers 9. Unidirectional transducers and their application to bandpass filtering 10. Waveguides and transversely-coupled resonator (TCR) filters 11. Resonators and resonator filters AppendixA. Fourier transforms and linear filters B. Reciprocity C. Elemental charge density for regular electrodes D. P-matrix relations E. Electrical loading in an array of regular electrodes

David P. Morgan received a Ph.D. degree in Electrical Engineering from London University, for work on radar pulse compression using Surface Acoustic Waves. Since then he has been involved in research and development in a wide variety of topics, mostly in SAW, working at Nippon Electric Company (Kawasaki) 1970-71, University of Edinburgh 1971-77 and Plessey Research Caswell (Northampton, UK) 1977-86, where he was Group Leader for Surface Acoustic Waves. He is now a Consultant in this area. Dr. Morgan is author of the well-known text ‘Surface Wave Devices for Signal Processing’, and has also published over 100 technical papers. His knowledge of the SAW area has led to his being invited to lecture on the subject in the U.S., Russia, Finland, Japan, China and Korea. He is a Life Senior Member of the IEEE.

• 1. Basic Survey2. Acoustic waves in elastic solids 3. Electrical excitation at a plane surface 4. Propagation effects and materials 5. Non-reflective transducers 6. Bandpass filtering using non-reflective transducers 7. Correlators for pulse compression radar and communications 8. Reflective gratings and transducers 9. Unidirectional transducers and their application to bandpass filtering 10. Waveguides and transversely-coupled resonator (TCR) filters 11. Resonators and resonator filters AppendixA. Fourier transforms and linear filters B. Reciprocity C. Elemental charge density for regular electrodes D. P-matrix relations E. Electrical loading in an array of regular electrodes

David P. Morgan received a Ph.D. degree in Electrical Engineering from London University, for work on radar pulse compression using Surface Acoustic Waves. Since then he has been involved in research and development in a wide variety of topics, mostly in SAW, working at Nippon Electric Company (Kawasaki) 1970-71, University of Edinburgh 1971-77 and Plessey Research Caswell (Northampton, UK) 1977-86, where he was Group Leader for Surface Acoustic Waves. He is now a Consultant in this area. Dr. Morgan is author of the well-known text ‘Surface Wave Devices for Signal Processing’, and has also published over 100 technical papers. His knowledge of the SAW area has led to his being invited to lecture on the subject in the U.S., Russia, Finland, Japan, China and Korea. He is a Life Senior Member of the IEEE.

• 1. Basic Survey2. Acoustic waves in elastic solids 3. Electrical excitation at a plane surface 4. Propagation effects and materials 5. Non-reflective transducers 6. Bandpass filtering using non-reflective transducers 7. Correlators for pulse compression radar and communications 8. Reflective gratings and transducers 9. Unidirectional transducers and their application to bandpass filtering 10. Waveguides and transversely-coupled resonator (TCR) filters 11. Resonators and resonator filters AppendixA. Fourier transforms and linear filters B. Reciprocity C. Elemental charge density for regular electrodes D. P-matrix relations E. Electrical loading in an array of regular electrodes