This paper presents a mixed mode rectifier circuit operating at 13.56 MHz for wireless power transmission system to rectify the AC signal and power up the implantable medical device. The proposed design includes both voltage and current mode operation that covers a wide range of coupling ratios between the coils. The circuit is designed in 180 nm CMOS technology. Extracted simulations show that the mixed mode design charges the load with the maximum efficiency 72.4% for the voltage mode, and 38.6% for the current mode at the operating frequency 13.56 MHz for both modes. The voltage and current modes are beneficial for high and low coupling ratios, respectively. Operation under different modes extends the usable coupling range in power trans...
Miniaturization is important to make implants clinic friendly. Wireless power transfer is an essenti...
In this work, a general theory of coupled resonators is proposed. On one hand, it provides a design-...
Wireless power transfer (WPT) has been widely adopted in various applications, such as biomedical im...
In this work, a wide input/output range triple mode rectifier circuit operating at 13.56 MHz is impl...
In this work, a wide input/output range triple mode rectifier circuit operating at 13.56 MHz is impl...
A full-wave active rectifier switching at 13.56 MHz with compensated bias current for a wide input r...
A closed-loop controlled wireless power transmission circuit block for implantable biomedical applic...
peer reviewedBiomedical implants require an electronic power conditioning circuitry to provide a sta...
A 13.56MHz wireless power transfer system with a 1X/2X reconfigurable resonant regulating (R3) recti...
In this article, we propose a strategy for the design of a wireless power transfer system consisting...
Implantable Medical Devices (IMDs) have been developing in ways to be lighter and lower-power system...
Abstract—This paper describes the design and implementation of fully integrated rectifiers in BiCMOS...
Abstract—This paper describes the design and implementation of an integrated full-wave standard CMOS...
In this letter, a 6.78-MHz single-stage regulating voltage-doubling rectifier is presented for biome...
Wireless power transfer is an essential technology to increase implants' longevity. A pair of induct...
Miniaturization is important to make implants clinic friendly. Wireless power transfer is an essenti...
In this work, a general theory of coupled resonators is proposed. On one hand, it provides a design-...
Wireless power transfer (WPT) has been widely adopted in various applications, such as biomedical im...
In this work, a wide input/output range triple mode rectifier circuit operating at 13.56 MHz is impl...
In this work, a wide input/output range triple mode rectifier circuit operating at 13.56 MHz is impl...
A full-wave active rectifier switching at 13.56 MHz with compensated bias current for a wide input r...
A closed-loop controlled wireless power transmission circuit block for implantable biomedical applic...
peer reviewedBiomedical implants require an electronic power conditioning circuitry to provide a sta...
A 13.56MHz wireless power transfer system with a 1X/2X reconfigurable resonant regulating (R3) recti...
In this article, we propose a strategy for the design of a wireless power transfer system consisting...
Implantable Medical Devices (IMDs) have been developing in ways to be lighter and lower-power system...
Abstract—This paper describes the design and implementation of fully integrated rectifiers in BiCMOS...
Abstract—This paper describes the design and implementation of an integrated full-wave standard CMOS...
In this letter, a 6.78-MHz single-stage regulating voltage-doubling rectifier is presented for biome...
Wireless power transfer is an essential technology to increase implants' longevity. A pair of induct...
Miniaturization is important to make implants clinic friendly. Wireless power transfer is an essenti...
In this work, a general theory of coupled resonators is proposed. On one hand, it provides a design-...
Wireless power transfer (WPT) has been widely adopted in various applications, such as biomedical im...