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Magnetoelectric Composites: Materials, Devices and Applications gives the reader a summary of the theory behind magnetoelectric phenomena, later introducing magnetoelectric materials and structures and the techniques used to fabricate and characterize them. Part two of the book looks at magnetoelectric devices. Applications include magnetoelectric sensors, magnetoelectric antennas, transducers for energy harvesting, microwave and millimeter wave devices, miniature magnetoelectric systems for biomedical applications. The final chapter discusses progress towards magnetoelectric memory.

This second edition is updated on the first edition published in 2015, with a timely and significant update and expansion on the contents from the first edition. This new edition starts with the phenomenon and theory of magnetoelectrics, materials in bulk laminates, thin film heterostructures, and nanocomposites. On the magnetoelectric devices side, the contents have been significantly expanded to include n energy harvesting, sensing, etc. In particular, there are new chapters on magnetoelectric antennas for VLF (very low frequencies), and magnetoelectric antennas for RF.

This book is suitable for those who have been working on magnetoelectrics in the subject areas of materials science and engineering in academia and R&D.

  • Summarizes the theory behind magnetoelectric phenomena
  • Reviews fabrication and characterization techniques for magnetoelectric composites
  • Emphasizes ultracompact magnetoelectric antennas and reviews other applications of magnetoelectric composites

1. 1.1 Introduction - p. 1 2. 1.2 Direct low-frequency ME effect in composites - p. 3 3. 1.3 Inverse low frequency ME effect - p. 23 4. 1.4 Microwave ME effect - p. 26 5. 1.5 Conclusions - p. 42 6. Chapter 2. Magnetic, piezoelectric, and magnetoelectric materials and phenomena - p. 49 7. 2.1 Introduction - p. 49 8. 2.2 Piezoelectric/electrostrictive/ferroelectric material for magnetoelectric coupling - p. 51 9. 2.3 Magnetostrictive thin film materials for magnetoelectrics - p. 53 10. 2.4 Magnetostrictive multilayers for magnetoelectrics—Exchange bias for zero field operation - p. 59 11. Chapter 3. Magnetoelectric characterization techniques - p. 89 12. Chapter 4. Layered multiferroic laminates∗ - p. 109 13. Chapter 5. Recent advances in ferroic, multiferroic, and magnetoelectrics materials and phenomena - p. 153 14. 5.1 Introduction - p. 153 15. 5.2 Lead-free piezoelectrics-ferrite composites and similar systems - p. 162 16. 5.3 Self-biased textured cofired laminate systems - p. 178 17. 5.4 Textured microstructures—piezoelectric layer in composites - p. 186 18. 5.5 Magnetoelectric nanoparticles and their properties - p. 196 19. 5.6 Polymer-based magnetoelectric materials - p. 204 20. 5.7 Future outlook and summary of magnetoelectric materials and phenomena - p. 209 21. Chapter 6. Multiferroic nanostructures - p. 227 22. Chapter 7. Magnetoelectric energy harvesting from kHz to GHz - p. 271 23. Chapter 8. Magnetoelectric current/magnetic field sensor - p. 307 24. Chapter 9. Magnetoelectric sensors based on magnetoelectric MEMS - p. 353 25. 9.1 The MEMS approach to magnetoelectric cantilever sensors - p. 353 26. 9.2 Converse magnetoelectric sensors - p. 360 27. 9.3 Magnetoelastic surface acoustic wave sensors - p. 368 28. Chapter 10. Magnetoelectric NEMS sensors - p. 389 29. Chapter 11. Magnetoelectric antennas for VLF - p. 409 30. Chapter 12. Magnetoelectric antennas for RF applications - p. 427 31. Chapter 13. Power, RF, microwave, and millimeter-wave magnetoelectric devices (tunable inductors, filters, and phase shifters) - p. 441 32. Chapter 14. Magnetoelectric composites for biomedical applications - p. 481 33. Chapter 15. Beyond magnetoelectrics—An outlook on emerging directions in magnetoelectrics research - p. 525 34. Index - p. 539

Descripcion
Descripción

Magnetoelectric Composites: Materials, Devices and Applications gives the reader a summary of the theory behind magnetoelectric phenomena, later introducing magnetoelectric materials and structures and the techniques used to fabricate and characterize them. Part two of the book looks at magnetoelectric devices. Applications include magnetoelectric sensors, magnetoelectric antennas, transducers for energy harvesting, microwave and millimeter wave devices, miniature magnetoelectric systems for biomedical applications. The final chapter discusses progress towards magnetoelectric memory.

This second edition is updated on the first edition published in 2015, with a timely and significant update and expansion on the contents from the first edition. This new edition starts with the phenomenon and theory of magnetoelectrics, materials in bulk laminates, thin film heterostructures, and nanocomposites. On the magnetoelectric devices side, the contents have been significantly expanded to include n energy harvesting, sensing, etc. In particular, there are new chapters on magnetoelectric antennas for VLF (very low frequencies), and magnetoelectric antennas for RF.

This book is suitable for those who have been working on magnetoelectrics in the subject areas of materials science and engineering in academia and R&D.

  • Summarizes the theory behind magnetoelectric phenomena
  • Reviews fabrication and characterization techniques for magnetoelectric composites
  • Emphasizes ultracompact magnetoelectric antennas and reviews other applications of magnetoelectric composites

1. 1.1 Introduction - p. 1 2. 1.2 Direct low-frequency ME effect in composites - p. 3 3. 1.3 Inverse low frequency ME effect - p. 23 4. 1.4 Microwave ME effect - p. 26 5. 1.5 Conclusions - p. 42 6. Chapter 2. Magnetic, piezoelectric, and magnetoelectric materials and phenomena - p. 49 7. 2.1 Introduction - p. 49 8. 2.2 Piezoelectric/electrostrictive/ferroelectric material for magnetoelectric coupling - p. 51 9. 2.3 Magnetostrictive thin film materials for magnetoelectrics - p. 53 10. 2.4 Magnetostrictive multilayers for magnetoelectrics—Exchange bias for zero field operation - p. 59 11. Chapter 3. Magnetoelectric characterization techniques - p. 89 12. Chapter 4. Layered multiferroic laminates∗ - p. 109 13. Chapter 5. Recent advances in ferroic, multiferroic, and magnetoelectrics materials and phenomena - p. 153 14. 5.1 Introduction - p. 153 15. 5.2 Lead-free piezoelectrics-ferrite composites and similar systems - p. 162 16. 5.3 Self-biased textured cofired laminate systems - p. 178 17. 5.4 Textured microstructures—piezoelectric layer in composites - p. 186 18. 5.5 Magnetoelectric nanoparticles and their properties - p. 196 19. 5.6 Polymer-based magnetoelectric materials - p. 204 20. 5.7 Future outlook and summary of magnetoelectric materials and phenomena - p. 209 21. Chapter 6. Multiferroic nanostructures - p. 227 22. Chapter 7. Magnetoelectric energy harvesting from kHz to GHz - p. 271 23. Chapter 8. Magnetoelectric current/magnetic field sensor - p. 307 24. Chapter 9. Magnetoelectric sensors based on magnetoelectric MEMS - p. 353 25. 9.1 The MEMS approach to magnetoelectric cantilever sensors - p. 353 26. 9.2 Converse magnetoelectric sensors - p. 360 27. 9.3 Magnetoelastic surface acoustic wave sensors - p. 368 28. Chapter 10. Magnetoelectric NEMS sensors - p. 389 29. Chapter 11. Magnetoelectric antennas for VLF - p. 409 30. Chapter 12. Magnetoelectric antennas for RF applications - p. 427 31. Chapter 13. Power, RF, microwave, and millimeter-wave magnetoelectric devices (tunable inductors, filters, and phase shifters) - p. 441 32. Chapter 14. Magnetoelectric composites for biomedical applications - p. 481 33. Chapter 15. Beyond magnetoelectrics—An outlook on emerging directions in magnetoelectrics research - p. 525 34. Index - p. 539

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