Abstract: In an implanted medical device system, an external power transmitter and methods for adjusting a rate of search pulse transmission by an external power transmitter of an implanted medical device system are disclosed. According to one aspect, a method includes detecting a condition of the external power transmitter, and selecting among rates of transmission of search pulses based on the detected condition.

Abstract: A device includes a first transistor (M1) having a control terminal that is a first comparator input, a first terminal that can be coupled to a voltage source, and a second terminal that provides a first comparator output; a second transistor (M2) having a control terminal that is a second comparator input, a first terminal that can be coupled to the voltage source, and a second terminal that provides a second comparator output; a third transistor (M3) having a control terminal coupled to M1, and a first terminal coupled to ground; a fourth transistor (M4) having a control terminal coupled to M2, and a first terminal coupled to ground; first switches that couple M3 second terminal to M3 control terminal, and M4 second terminal to M4 control terminal; and second switches that couple M3 second terminal to the M2 second terminal, and M4 second terminal to the M1 second terminal.

Abstract: An active filter and an analog-to-digital converter (ADC) configured to suppress out-of-band peaking. An active filter may include an active device configured to provide a power gain to an input signal, a feedback network configured to connect an output of the active device to an input of the active device, and an input impedance network configured to couple the input signal to the input of the active device. A combination of the feedback network and the input impedance network is configured to provide frequency response properties of the active filter such that a frequency domain signal transfer function of the active filter has a constant in numerator.

Abstract: Aspects of the disclosure relate to wireless communication, and high-frequency filters with resonators configured to systematically modify phase characteristics of an antenna reflection coefficient. One aspect is a wireless communication apparatus comprising an acoustic resonator having a first resonator side and a second resonator side, the first resonator side coupled to a first signal connection port, a first capacitor including a first side coupled to the first resonator side and the first signal connection port, the first capacitor further including a second side coupled to a ground connection port, and a second capacitor including a first side coupled to the ground connection port, the second capacitor further including a second side, the second resonator side and the second side of the second capacitor coupled to an output port.

Abstract: A back-up power supply system (1) is configured to supply electric power from an electric storage device (5) to loads (3) when a power supply (2) is defective. The back-up power supply system (1) includes a first voltage conversion circuit (6) configured to convert an output voltage of the electric storage device (5). The loads (3) include a first load (31) and a second load (32). The back-up power supply system (1) is configured to supply power from the electric storage device (5) to the first load (31) not via the voltage conversion circuit (6), and to supply electric power from the electric storage device (5) to the second load (32) via the voltage conversion circuit (6).

Abstract: A power splitting device, including a main body, a power inlet disposed on the main body to connect the main body to a power outlet, a dryer outlet disposed on at least a portion of the main body to receive a connection from a dryer therein and provide power received from the power inlet to the dryer, an electric vehicle outlet disposed on the main body to receive a connection from an electric vehicle supply equipment (EVSE) therein and provide power received from the power inlet to the EVSE, such that the power output of the EV outlet is greater than the dryer outlet, a stepped battery disposed within the main body to send power to the EV outlet, and a control unit disposed within the main body to monitor power output from the dryer outlet or the EV outlet, and adjust the power output based on a setting.

Abstract: A power adapter configured to provide power to a load is described. The power adapter comprises a first plurality of contact elements comprising a first contact element configured to receive power and a second contact element configured to provide power to a load; a receiving element configured to receive a control attachment; a first interface comprising a second plurality of contact elements configured to provide one or more reference voltages to the control attachment, wherein the first interface comprises an electrical interface; and a second interface comprising a switch configured to control power applied to a load in response to an actuation of the control attachment. A method of controlling a power adapter is also described.

Abstract: A mobile-charging power system including a mobile transportation unit including a housing and an axle; a battery assembly positioned within the housing; a power electronics module electrically coupled to the battery assembly; and an electro-mechanical generator electrically coupled to the power electronics module. The electro-mechanical generator is driven by the axle. The system further includes a solar power generator coupled to the housing. The solar power generator is electrically coupled to the power electronics module. The system further includes a controller electrically coupled to the battery assembly and the power electronics module; and a control panel electrically coupled to the power electronics module and the controller. The control panel includes a first electrical plug and a second electrical plug.

Abstract: A wiring electrode on a piezoelectric substrate includes layers including an adhesive layer in contact with the piezoelectric substrate, an outermost layer indirectly above the adhesive layer, a low-resistance layer between the adhesive layer and the outermost layer, including first and second principal surfaces, and having a lowest electric resistance among the layers, and a barrier layer between the low-resistance layer and the outermost layer. An outer peripheral edge of the second principal surface of the low-resistance layer is inside an outer peripheral edge of the barrier layer, and an outer peripheral edge of the adhesive layer is outside an outer peripheral edge of the low-resistance layer, in plan view.

Abstract: The present invention discloses a comparator circuit having false-alarm preventing mechanism. An input pair circuit receives a first and a second input voltages from a first and a second input terminals in an the operation state. The input pair circuit and a latch circuit cooperate to perform comparison thereon in the operation state to generate a first and a second output voltages at a first and a second output terminals. A gate and a drain of a first latch transistor are electrically coupled to the first and the second output terminals respectively. A gate and a drain of a second latch transistor are electrically coupled to the second and the first output terminals respectively. A conduction adjusting circuit enhances the conduction of the latch circuit when being triggered. A voltage detection circuit triggers the conduction adjusting circuit when the first and the second output voltages are not within a predetermined range.

Abstract: Transmitter or receiver resonant circuit for carrying out contactless power transmission via resonant inductive coupling to a receiver or transmitter resonant circuit, comprising a first capacitance and a first winding, the first winding comprising an inductance and a first resistance, the transmitter resonant circuit comprising a second capacitance of value C2? and a second winding, the second winding comprising a second inductance of value L2? and a second resistance of value R2?, the transmitter resonant circuit having a natural angular frequency u>2 such that w2=1/V(L2?×C2?) and a natural frequency f2 such that f2=w2/(2?), characterized in that the value of the second inductance varies in a predetermined manner.

Abstract: A method of energy distribution from a plurality of energy sources to a plurality of loads wherein a set of selection options for a load are determined. Values are established for the selection options for each loads. The loads are then ordered into a load order according to a load ordering parameter. The energy sources are ordered in a plurality of sequences, where each sequence corresponds to a possible set of values for the selection options and wherein at least one energy source appears in more than one of the plurality of sequences. The loads are then matched with the energy sources according to the load order, with the sources in the sequence corresponding to the set of values for the selection options established for that load. A computing system designed to perform this method, and an electrical grid incorporating such a computing system are also described.

Abstract: A control device configured for use in a load control system to control an electrical load external to the control device may comprise an actuation member having a front surface defining a capacitive touch surface configured to detect a touch actuation along at least a portion of the front surface. The control device includes a main printed circuit board (PCB) comprising a control circuit, a tactile switch, a controllably conductive device, and a drive circuit operatively coupled to a control input of the controllably conductive device for rendering the controllably conductive device conductive or non-conductive to control the amount of power delivered to the electrical load. The control device also includes a capacitive touch PCB that comprises a touch sensitive circuit comprising one or more receiving capacitive touch pads located on the capacitive touch PCB and arranged in a linear array adjacent to the capacitive touch surface.

Abstract: An example device includes a power regulator to provide electrical power to a wireless charger over a power line and a controller connected to the power regulator. The controller is to generate a signal that encodes an allowable power draw of the wireless charger and communicate the signal to the power regulator. The power regulator communicates the signal with the electrical power transmitted over the power line to the wireless charger.

Abstract: An excavator comprising: an electric motor having a commercial power supply and a battery as the drive power sources therefor; and a hydraulic actuator having a hydraulic pump driven by the electric motor, as the hydraulic source therefor. The excavator has: a first power supply mode in which the electric motor is driven while the battery is being charged by the commercial power supply; and a second power supply mode in which the electric motor is driven only by the battery. A power supply cable for supplying power from the commercial power supply is connected to a power supply port and, if the electric motor has stopped operating, the excavator moves from the second power supply mode to the first power supply mode.

Abstract: A peak detector comprises multiple small-size amplitude detection circuits coupled in parallel to signal inputs at which a signal is received from a VCO. Each amplitude detection circuit generates a voltage on an output, indicating a voltage peak or amplitude of a first signal input and a second signal input (specifically, differential output of VCO). At a given time, only one small-size amplitude detection circuit is activated to load VCO, reducing the impact on LC resonant frequency. The plurality of small-size detection circuits work sequentially, and an automatic averaging of their outputs can significantly improve the peak detector fluctuation (caused by process variation and device mismatch) compared to each single small-size amplitude detection circuit.

Abstract: A semiconductor device includes first and second electrodes, a semiconductor part therebetween, first to third control electrodes inside the semiconductor part, and first to third interconnects. The first and second control electrodes are arranged along a front surface of the semiconductor part. The third control electrodes are provided between the first electrode and the first and second electrodes, respectively. The first and second interconnect are electrically connected to the first and second control electrodes, respectively. The third interconnect is electrically connected to the third control electrodes. The semiconductor layer includes first and third layers of a first conductivity type and a second layer of a second conductivity type. The second layer is provided between the first layer and the second electrode. The third layer is provided between the second layer and the second electrode. The second layer faces the first and second control electrodes via insulating portions.

Abstract: A power plant comprising: a plurality of photovoltaic (PV) modules arranged in a first and a second region of the power plant, wherein the PV modules in the same region are electrically connected with each other and wherein the PV modules of the first region are electrically connected to a local grid of the power plant via a first converter, and the PV modules of the second region are electrically connected to the local grid via a second converter; and a wind turbine generator (WTG) which is arranged such that the WTG is able to cast a shadow over at least one of the PV modules; wherein the first region and the second region extend in a substantially radial direction away from the WTG such that at most one of the two regions is at least partially covered by the shadow of the WTG at any time.

Abstract: A system includes control circuitry configured to control an output signal. The control circuitry and/or various other sources of undesirable signal components may corrupt the control signal used by the control circuitry to correct the output signal. Conditioning circuitry may effect current-domain repair on the control circuitry by providing feedback-based conditioning actuation, including comparator overdrive, to the control circuitry.

Abstract: Controlling charging of connected devices is provided. Presence of a target connected device is detected using a wireless transceiver of a vehicle. Settings indicative of how to charge the target connected device via a power connector of the vehicle are received a user interface presented to an HMI of the vehicle. Data packets from the target connected device indicative of a current state of charge of the target connected device are received using the wireless transceiver. The target connected device is charged from the power connector in accordance with the settings and the current state of charge.