000			03478cam a2200289 a 4500
008			120711s2010 enka b 001 0 eng
010			_a2009047509
020			_a9780521857277
020			_a0521857279
035			_a(Sirsi) u8365
040			_aEG-CaNU _c EG-CaNU _d EG-CaNU
042			_ancode
082	0	0	_a621.381 _2 22
100	1		_aSarpeshkar, Rahul, _d 1968- _915432
245	1	0	_aUltra low power bioelectronics : _b fundamentals, biomedical applications, and bio-inspired systems / _c Rahul Sarpeshkar.
260			_aCambridge, UK ; _a New York : _b Cambridge University Press, _c 2010.
300			_axviii, 889 p. : _b ill. ; _c 26 cm.
520			_a"This book provides, for the first time, a broad and deep treatment of the fields of both ultra low power electronics and bioelectronics. It discusses fundamental principles and circuits for ultra low power electronic design and their applications in biomedical systems. It also discusses how ultra energy efficient cellular and neural systems in biology can inspire revolutionary low power architectures in mixed-signal and RF electronics. The book presents a unique, unifying view of ultra low power analog and digital electronics and emphasizes the use of the ultra energy efficient subthreshold regime of transistor operation in both. Chapters on batteries, energy harvesting, and the future of energy provide an understanding of fundamental relationships between energy use and energy generation at small scales and at large scales. A wealth of insights and examples from brain implants, cochlear implants, bio-molecular sensing, cardiac devices, and bio-inspired systems make the book useful and engaging for students and practising engineers"--Provided by publisher.
505	8		_aMachine generated contents note: 1. The big picture; 2. Feedback systems: fundamentals, benefits, and root-locus analysis; 3. MOS device physics: general treatment; 4. MOS device physics: practical treatment; 5. MOS device physics: small-signal operation; 6. Deep-sub-micron effects in MOS transistors; 7. Noise in devices; 8. Noise in electrical and non-electrical circuits; 9. Feedback systems: the Nyquist criterion, compensation techniques, positive feedback, and small-signal circuits; 10. Return-ratio analysis; 11. Low-power transimpedance amplifiers and photoreceptors; 12. Low-power transconductance amplifiers, first-order systems, and scaling laws for power in analog circuits; 13. Low-power filters and resonators; 14. Low-power current-mode circuits; 15. Ultra-low-power and neuron-inspired analog-to-digital conversion for biomedical systems; 16. Wireless inductive power links for medical implants; 17. Energy-harvesting RF antenna power links; 18. Low-power RF telemetry in biomedical implants; 19. Ultra-low-power implantable medical electronics; 20. Ultra-low-power non-invasive medical electronics; 21. Principles for ultra-low-power digital design; 22. Principles for ultra-low-power analog and mixed-signal design; 23. Neuromorphic electronics; 24. Cytomorphic electronics: cell-inspired electronics for large-scale systems and synthetic biology; 25. Batteries and electrochemistry; 26. Energy harvesting and the future of energy.
504			_aIncludes bibliographical references and index.
650		0	_aLow voltage systems. _92998
650		0	_aBiomimicry. _915433
650		0	_aBioelectronics. _913961
650		0	_aBionics. _915434
650		0	_aMedical electronics. _915435
596			_a1
999			_c7267 _d7267