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Energy Harvesting for Wearable Sensor Systems [electronic resource] : Inductive Architectures for the Swing Excitation of the Leg / by Klevis Ylli, Yiannos Manoli.

By: Ylli, Klevis [author.].
Contributor(s): Manoli, Yiannos [author.] | SpringerLink (Online service).
Material type: materialTypeLabelBookSeries: Springer Series in Advanced Microelectronics: 62Publisher: Singapore : Springer Nature Singapore : Imprint: Springer, 2021Edition: 1st ed. 2021.Description: XXIX, 143 p. 97 illus., 55 illus. in color. online resource.Content type: text Media type: computer Carrier type: online resourceISBN: 9789813344488.Subject(s): Energy harvesting | Electronics | Electrodynamics | Biomedical engineering | Electric power production | Energy Harvesting | Electronics and Microelectronics, Instrumentation | Classical Electrodynamics | Biomedical Engineering and Bioengineering | Electrical Power EngineeringAdditional physical formats: Printed edition:: No title; Printed edition:: No title; Printed edition:: No titleDDC classification: 621.31 Online resources: Click here to access online
Contents:
Abstract -- 1. Introduction -- 2. Theory and Modeling -- 3. Geometrical Parameter Optimization -- 4. Experimental Evaluation of Fabricated Architectures -- 5. Second Optimization Run -- 6. Second Generation HAC Experimental Results -- 7. Applications -- 8. Conclusion and Outlook -- A. Appendix -- B. List of Publications -- Bibliography -- Nomenclature.
In: Springer Nature eBookSummary: This book investigates several non-resonant inductive harvester architectures in order to find the magnet coil arrangement that generates the largest power output. The book is useful as a step-by-step guide for readers unfamiliar with this form of energy harvesting, but who want to build their own system models to calculate the magnet motion and, from that, the power generation available for body-worn sensor systems. The detailed description of system model development will greatly facilitate experimental work with the aim of fabricating the design with the highest predicted power output. Based on the simulated optimal geometry, fabricated devices achieve an average power output of up to 43 mW during walking, an amount of power that can supply modern low-power, body-worn systems. Experiments were also carried out in industrial applications with power outputs up to 15 mW. In sum, researchers and engineers will find a step-by-step introduction to inductive harvesting and its modeling aspects for achieving optimal harvester designs in an efficient manner. .
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Abstract -- 1. Introduction -- 2. Theory and Modeling -- 3. Geometrical Parameter Optimization -- 4. Experimental Evaluation of Fabricated Architectures -- 5. Second Optimization Run -- 6. Second Generation HAC Experimental Results -- 7. Applications -- 8. Conclusion and Outlook -- A. Appendix -- B. List of Publications -- Bibliography -- Nomenclature.

This book investigates several non-resonant inductive harvester architectures in order to find the magnet coil arrangement that generates the largest power output. The book is useful as a step-by-step guide for readers unfamiliar with this form of energy harvesting, but who want to build their own system models to calculate the magnet motion and, from that, the power generation available for body-worn sensor systems. The detailed description of system model development will greatly facilitate experimental work with the aim of fabricating the design with the highest predicted power output. Based on the simulated optimal geometry, fabricated devices achieve an average power output of up to 43 mW during walking, an amount of power that can supply modern low-power, body-worn systems. Experiments were also carried out in industrial applications with power outputs up to 15 mW. In sum, researchers and engineers will find a step-by-step introduction to inductive harvesting and its modeling aspects for achieving optimal harvester designs in an efficient manner. .

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