Abstract: A system for medicine dosage compliance may comprise a dispensing component that provides for medicine to be dispensed based at least upon authorized identification of a user and a secondary authorizer. The dispensing component may comprise an identity authentication component that automatically authenticates an identity of the user and the secondary authorizer at the time of a dispensing event. The system may further comprise a communication component providing one or more notifications to one or more third parties. The communication component may comprise a wireless personal area networking component that sets up a local networking connection between the dispensing component and a local device to share data between the dispensing component and a local device. The local device may communicatively be coupled to a remote network component. A notification component may generate notification information of the dispensing event for one or more third parties.

Abstract: A system for medicine dosage compliance may comprise a dispensing component that provides for medicine to be dispensed based at least upon authorized identification of a user and a secondary authorizer. The dispensing component may comprise an identity authentication component that automatically authenticates an identity of the user and the secondary authorizer at the time of a dispensing event. The system may further comprise a communication component providing one or more notifications to one or more third parties. The communication component may comprise a wireless personal area networking component that sets up a local networking connection between the dispensing component and a local device to share data between the dispensing component and a local device. The local device may communicatively be coupled to a remote network component. A notification component may generate notification information of the dispensing event for one or more third parties.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.

Abstract: A system for medicine dosage compliance may comprise a dispensing component that provides for medicine to be dispensed based at least upon authorized identification of a user and a secondary authorizer. The dispensing component may comprise an identity authentication component that automatically authenticates an identity of the user and the secondary authorizer at the time of a dispensing event. The system may further comprise a communication component providing one or more notifications to one or more third parties. The communication component may comprise a wireless personal area networking component that sets up a local networking connection between the dispensing component and a local device to share data between the dispensing component and a local device. The local device may communicatively be coupled to a remote network component. A notification component may generate notification information of the dispensing event for one or more third parties.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.

Abstract: An inductive power supply that maintains resonance and adjusts duty cycle based on feedback from a secondary circuit. A controller, driver circuit and switching circuit cooperate to generate an AC signal at a selected operating frequency and duty cycle. The AC signal is applied to the tank circuit to create an inductive field for powering the secondary. The secondary communicates feedback about the received power back to the primary controller. The power transfer efficiency may be optimized by maintaining the operating frequency substantially at resonance, and the amount of power transferred may be controlled by adjusting the duty cycle.