Abstract:
Voltage dividing circuitry is provided for use in a voltage converter for converting at least one input Direct Current, DC voltage to a plurality of output DC voltages. The voltage dividing circuitry including a voltage input port to receive an input DC voltage and an inductor having an input-side switch node and an output-side switch node. The output side switch node is connectable to one of a plurality of voltage output ports to supply a converted value of the input DC voltage as an output DC voltage. The flying capacitor interface has a plurality of switching elements and at least one flying capacitor, to divide the input DC voltage to provide a predetermined fixed ratio of the input DC voltage at the input-side switch node of the inductor. A voltage converter and a power management integrated circuit having the voltage dividing circuitry are also provided.
Abstract:
An electronic device may include a harvester device to receive an alternative power from an alternative power source. An electronic device may also include a cold-start device to provide an additional power derived from the alternative power source. The harvester device may receive the additional power from the cold-start device, and combine the alternative power and the additional power to at least a specific level.
Abstract:
In embodiments, apparatuses, methods and systems associated with battery charging are disclosed herein. In various embodiments, a reference current selector may receive a battery voltage sense input and output a reference current level signal, a power point check detector may receive a power supply sense input and output a power point check signal, and a controller coupled to the reference current selector and the power point check detector may receive a battery current sense input and switch a control output based at least in part on the reference current level signal, the battery current sense input, and the power point check signal. Other embodiments may be described and/or claimed.
Abstract:
Embodiments disclosed herein include a coupled inductor. In an embodiment, the coupled inductor comprises a first inductor and a second inductor. In an embodiment, the first inductor can be coupled to the first inductor. In an embodiment, the coupled inductor further comprises a first switch coupled to the first inductor, where the first switch comprises gallium and nitrogen, and a second switch coupled to the second inductor, where the second switch comprises gallium and nitrogen.
Abstract:
An electronic device may include a battery charger and a controller. The battery charger may receive a voltage from an energy source, and may provide an output power. The controller may receive a voltage value of the energy source, may receive a current value from the battery charger or the energy source, may determine a power value based on the received voltage value and the received current value, and may provide at least one control signal to the battery charger to change the output power of the charger.
Abstract:
Described is an apparatus which comprises: an interconnect to provide current; a bridge having a high-side switch and a low-side switch, wherein the high-side switch and the low-side switch are coupled to an inductor, and wherein the inductor is coupled to the interconnect; a plurality of switching load stages coupled to the interconnect, wherein each of the switching load stages of the plurality to provide a voltage supply to a load; a first controller to control duty cycle of an input to the bridge to regulate the current provided to the interconnect; and a second controller to control duty cycle of a plurality of inputs, each input to be received by a corresponding switching load stage of the plurality of switching load stages.