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A wide-ranging view of the state of the art in modern bioelectronics, with real-world examples, step-by-step design details, and insights from experts.
List of contents
1. What is bioelectronics?; Part I. Electronic Components: 2. Molecular components for electronics; 3. Nano-gaps based devices; 4. Organic thin-film transistors for biological applications; 5. Protein-based transistors; 6. Single molecule bioelectronics; 7. Biomemory device composed of recombinant protein variants; Part II. Biosensors: 8. Biosensors; 9. CNT and proteins for biosensors in personalized therapy; 10. CMOS nanowire biosensing systems; 11. Cell-array biosensors; 12. Pulse radar sensor for contactless respiratory rate monitoring; 13. MagCMOS; 14. Metamorphic neural interfaces with insects for remote controlled biobots; Part III. Fuel Cells: 15. Biological fuel cells; 16. Advances and applications of biofuel cells; 17. Switchable electrodes and biofuel cells logically controlled by chemical and biochemical signals; Part IV. Biomimetic Systems: 18. Biomimetic systems; 19. Epidermial electronics: flexible electronics for biomedical applications; 20. Bioelectronics brain using memristive polymer statistical systems; 21. Electronic design of synthetic genetic networks; Part V. Bionics: 22. Bionics; 23. Bio-electronics interfaces for artificially driven human movements; 24. The bionic eye: a review of multi-electrode arrays; 25. CMOS technologies for retinal prosthesis; 26. Restoration of sight with photovoltaic retinal prosthesis; Part VI. Brain Interfaces: 27. Brain-machine interfaces; 28. ECG technology for the brain-machine interface; 29. Reducing the implant footprint: low-area neural recording; 30. Electrical stimulation; 31. Miniaturized implantable UWB antennas optimized for wireless brain machine interfaces; 32. Intracranial epilepsy monitoring using a wireless neural recording system; 33. Low power building blocks for neural recording systems; 34. CMOS circuits for intracells brain-machine interfaces; Part VII. Lab-on-a-Chip: 35. Lab-on-a-chip; 36. CMOS spectrally-multiplexed FRET contact imaging microsystem for DNA analysis; 37. CMOS electrochemical biosensors: instrumentation and integration; 38. Digital microfluidic biochips: towards hardware/software co-design and cyberphysical system integration; 39. CMOS based biomolecular sensor system-on-chip; Part VIII. Future Perspectives: 40. Future perspective in bioelectronics; 41. Real-time activity energy expenditure estimation for embedded ambulatory systems; 42. Innovative electronic systems for health management; 43. Linking the cyber and the biological world: the ensemble is the function; 44. Conclusion: personal electronics and distributed theragnostics.
About the author
Sandro Carrara is a Lecturer and Senior Scientist at the EPFL in Lausanne, Switzerland. He is former Professor of Optical and Microelectronics Biosensors in the Department of Electrical Engineering and Biophysics at the University of Genoa, Italy. He is Founder and Editor-in-Chief of the journal BioNanoScience, Topical Editor of the IEEE Sensors Journal, and Associate Editor of IEEE Transactions on Biomedical Circuits and Systems.Krzysztof Iniewseki is R&D Manager at Redlen Technologies Inc., a start-up company in Vancouver, Canada. He is also an Executive Director of CMOS Emerging Technologies, Inc. In his career, he has held numerous faculty and management positions at the University of Toronto, the University of Alberta, Simon Fraser University, and PMC-Sierra Inc.
Summary
A wide-ranging view of the state of the art in modern bioelectronics, with real-world examples, step-by-step design details, and hints and tips from the pioneers themselves. All aspects of modern bioelectronics are covered, providing an authoritative summary of the field and a perfect foundation for future developments in distributed diagnostic devices.
