Abstract: The present invention discloses devices and methods for adaptive fast-charging of mobile devices. Methods include the steps of: firstly determining whether a first connected component is charged; upon firstly determining the first connected component isn't charged, secondly determining whether the first connected component is adapted for rapid charging; and upon secondly determining the first connected component is adapted for rapid charging, firstly charging the first connected component at a high charging rate via a charging device. Preferably, the charging device is selected from the group consisting of: a rapid charger and a slave battery. Preferably, the first connected component is selected from the group consisting of: a mobile device and a slave battery. Preferably, the high charging rate is selected from the group consisting of: greater than about 4 C, greater than about 5 C, greater than about 10 C, greater than about 20 C, greater than about 30 C, and greater than about 60 C.

Abstract: Chargers and methods are provided which increase the charging efficiency of the chargers by implementing voltage amplitude modulation (VAM) instead of voltage frequency modulation. The charging voltage amplitude is modulated using feedback from at least one energy storage device that is being charged by the charger, while maintaining a charging voltage frequency constant at a LLC resonance frequency of the charger. A buck/boost configuration may be used to reduce maximal voltage levels and further optimize the charger's design.

Abstract: Chargers and methods are provided which increase the charging efficiency of the chargers by implementing voltage amplitude modulation (VAM) instead of voltage frequency modulation. The charging voltage amplitude is modulated using feedback from at least one energy storage device that is being charged by the charger, while maintaining a charging voltage frequency constant at a LLC resonance frequency of the charger. A buck/boost configuration may be used to reduce maximal voltage levels and further optimize the charger's design.

Abstract: The present invention discloses devices and methods for adaptive fast-charging of mobile devices. Methods include the steps of: firstly determining whether a first connected component is charged; upon firstly determining the first connected component isn't charged, secondly determining whether the first connected component is adapted for rapid charging; and upon secondly determining the first connected component is adapted for rapid charging, firstly charging the first connected component at a high charging rate via a charging device. Preferably, the charging device is selected from the group consisting of: a rapid charger and a slave battery. Preferably, the first connected component is selected from the group consisting of: a mobile device and a slave battery. Preferably, the high charging rate is selected from the group consisting of: greater than about 4 C, greater than about 5 C, greater than about 10 C, greater than about 20 C, greater than about 30 C, and greater than about 60 C.

Abstract: The present invention discloses devices and methods for adaptive fast-charging of mobile devices. Methods include the steps of: firstly determining whether a first connected component is charged; upon firstly determining the first connected component isn't charged, secondly determining whether the first connected component is adapted for rapid charging; and upon secondly determining the first connected component is adapted for rapid charging, firstly charging the first connected component at a high charging rate via a charging device. Preferably, the charging device is selected from the group consisting of: a rapid charger and a slave battery. Preferably, the first connected component is selected from the group consisting of: a mobile device and a slave battery. Preferably, the high charging rate is selected from the group consisting of: greater than about 4 C, greater than about 5 C, greater than about 10 C, greater than about 20 C, greater than about 30 C, and greater than about 60 C.

Abstract: Chargers and methods are provided which increase the charging efficiency of the chargers by implementing voltage amplitude modulation (VAM) instead of voltage frequency modulation. The charging voltage amplitude is modulated using feedback from at least one energy storage device that is being charged by the charger, while maintaining a charging voltage frequency constant at a LLC resonance frequency of the charger. A buck/boost configuration may be used to reduce maximal voltage levels and further optimize the charger's design.

Abstract: The present invention discloses integrated power-management units in energy-storage devices for fast-charging of rechargeable devices. Energy-storage devices include: an energy-storage component for providing power to a rechargeable device; and an integral power-management unit (PMU), integrally connected to the energy-storage component, for transforming a high-power input, having an input voltage and a low input RMS current, into a high-power output, having an output voltage and a high output RMS current, wherein the high-power input is equal to the high-power output, and wherein the high-power output is configured to charge the energy-storage component.

Abstract: The present invention discloses devices and methods for adaptive fast-charging of mobile devices. Methods include the steps of: firstly determining whether a first connected component is charged; upon firstly determining the first connected component isn't charged, secondly determining whether the first connected component is adapted for rapid charging; and upon secondly determining the first connected component is adapted for rapid charging, firstly charging the first connected component at a high charging rate via a charging device. Preferably, the charging device is selected from the group consisting of: a rapid charger and a slave battery. Preferably, the first connected component is selected from the group consisting of: a mobile device and a slave battery. Preferably, the high charging rate is selected from the group consisting of: greater than about 4 C, greater than about 5 C, greater than about 10 C, greater than about 20 C, greater than about 30 C, and greater than about 60 C.

Abstract: The present invention discloses charging devices for charging energy-storage devices. Charging devices include: an Electro-Magnetic Interference/Radio-Frequency Interference (EMI/RFI) filter for passively suppressing conducted interference present on an alternating-current (AC) power source; optionally, a transformer for transforming power from the AC power source without changing frequency; a rectifier for converting an AC input to a direct-current (DC) output; and a voltage-controlled charger for providing a high-power output having an output voltage and an output current from the AC power source, wherein the output voltage and the output current from the voltage-controlled charger are pulsating DC signals. Preferably, the high-power output has a power-factor value of: greater than about 0.70, greater than about 0.80, greater than about 0.90, greater than about 0.95, or greater than about 0.97.

Abstract: The present invention discloses devices, for adaptive fast-charging of mobile devices, including: a charge-delivering device for providing electrical power to a charge-receiving device; and at least one electrical-contact pin for enabling electrical current to be transmitted at an amperage greater than about 5 A to the charge-receiving device. Preferably, the charge-receiving device is selected from the group consisting of: an integral power-source component of a mobile device and a slave battery. Preferably, at least one electrical-contact pin is further configured to transmit the electrical current at an amperage selected from the group consisting of: greater than about 10 A, greater than about 20 A, greater than about 30 A, and greater than about 60 A. Preferably, at least one electrical-contact pin is spring-loaded. Preferably, at least one electrical-contact pin includes protection circuitry for protecting against thermal overloads and short circuits.

Abstract: A series resonant converter (SRC) power supply with a wide input range and high efficiency is achieved by using both frequency control of the SRC and phase control of phase differences between a voltage signal inside the SRC and a voltage signal inside a synchronous/asynchronous rectifier coupled to the SRC. Preferably, the phase control is applied, alone or in combination with additional frequency control, after the phase difference reaches approximately 90 degrees and up to a phase difference of 180 degrees.

Abstract: A series resonant converter (SRC) power supply with a wide input range and high efficiency includes at least one SRC connected to a respective at least one synchronous/asynchronous rectifier operative to receive phase control. Efficient power conversion in a wide input voltage range of about 1:11 is achieved by using both frequency control of the SRC and phase control of phase differences between a voltage signal inside the SRC and a voltage signal inside the respective at least one synchronous/asynchronous rectifier coupled to the SRC. Preferably, the phase control is applied, alone or in combination with additional frequency control, after the phase difference reaches 90 degrees and up to a phase difference of 180 degrees.

Abstract: An alternating current (AC) to direct current (DC) high efficiency conversion architecture comprises an AC-to-DC conversion input stage operative to receive an instantaneous AC input, a DC output stage connected to the input stage through an AC link and operative to output a DC power to at least one customer, and an energy storage device used as an energy balancer between the changing power availability at the instantaneous AC input and the constant power requirements of the at least one customer, the energy storage device coupled to both input and output stages stage through the AC link.

Abstract: A high efficiency, low voltage, high current, half-bridge, series resonant, multiphase, DC-DC power supply includes a combination of a boost type pre-regulator and a “base-sub” half-bridge, series resonant converter unit. The base-sub converter unit includes two half-bridge converters, connected in parallel to the boost type pre-regulator, and having outputs that are combined to produce the required output power. The DC-DC power supply has inherently a Zero Voltage and a Zero Current switching mode feature. The output voltage is the sum of the input voltage and of an additional (“Delta”) voltage, whose amplitude varies in order to insure that the output voltage is fixed and stable. In operation, the boost type pre-regulator converts only the additional “Delta” voltage, leading to a significant increase in efficiency of the boost type pre-regulator, and of the entire power supply.