Print Email Facebook Twitter A 3-Mode Wide Operational Range Reconfigurable Regulating Rectifier for Wireless Power Transfer Title A 3-Mode Wide Operational Range Reconfigurable Regulating Rectifier for Wireless Power Transfer Author Liu, Shurui (TU Delft Electrical Engineering, Mathematics and Computer Science) Contributor Du, S. (mentor) Makinwa, K.A.A. (graduation committee) Muratore, D.G. (graduation committee) Degree granting institution Delft University of Technology Corporate name Delft University of Technology Programme Electrical Engineering Date 2022-08-31 Abstract This article presents a novel wide operational range reconfigurable regulating rectifier for wireless power transfer. The proposed 1X/2X/3X rectifier achieves wide range voltage regulation without global loop control to minimize the area occupation. Compared with previous work, more working modes and greater magnification allow the proposed rectifier to regulate smaller signal, which extends voltage regulation range. A novel local loop control system is proposed for voltage rectification with three modes. The local loop adaptively senses the duty cycle of mode signal to determine which two working modes the rectifier should work with and configure the rectifier in these two modes. Then the rectifier are switching between two working modes according to the comparison result with reference voltage. Also, the change of which two working modes are also triggered by a window comparator to make sure the change happens when the output voltage is far away from reference voltage. The system is designed and simulated in a 0.18um BCD technology. The measurement results show that the proposed system can rectify wide-range input AC power to a regulated output. The achieved voltage conversion ratio (VCR) is 0.95-2.68 with a peak power conversion efficiency (PCE) of 87.4%. Subject Reconfigurable rectifierImplantable biomedical devicesWireless Power Transfer To reference this document use: http://resolver.tudelft.nl/uuid:2d288f2b-682a-4320-b445-53377db31e8d Embargo date 2023-06-30 Part of collection Student theses Document type master thesis Rights © 2022 Shurui Liu Files PDF Master_Thesis_shuruiliu.pdf 10.24 MB Close viewer /islandora/object/uuid:2d288f2b-682a-4320-b445-53377db31e8d/datastream/OBJ/view