10 results about "Anode voltage" patented technology

The present application relates to methods and apparatus for optimizing fast battery charging. In the described example of a method and apparatus for fast charging a battery with optimized charging, a system (400) includes a battery charger (420) for applying a voltage to a rechargeable battery (430), and a controller (422) coupled to the battery charger (420) and monitoring at least one of a battery voltage, a battery temperature, and a current flowing into the battery (430). The system (400) is configured to apply a charging current from the battery charger (420) by calculating an open circuit cell anode voltage and anode resistance of the battery (430) and determining a charging current. In an additional arrangement, lithium ion plating is prevented by the charging current.

Systems, methods, and devices for unloading an access device into a storage device are provided. An exemplary structure includes a storage device with a local read line, a bleeder device coupled to the local read line, and a bleeder supply. The storage device may also include a read-line multiplexer coupled to the local read line and a global read line, as well as a read amplifier coupled to the global read line. The read amplifier may be configured to read and statically store (latch) a voltage from the global read line in response to the storage device receiving a command.The storage device may further include a plurality of access devices coupled to the local read line, a plurality of capacitors coupled to the plurality of access devices, and an anode voltage supply separate from the bleeder supply and coupled to the plurality of capacitors.

This X-ray generation apparatus comprises: an emitter device generating an electron beam, and having an upper surface, a lower surface and a side surface; an anode terminal which is formed on the upper surface of the emitter device, and which accelerates the electron beam by means of an anode voltage so as to generate X-rays; and an electron generator module including a cathode terminal formed on the lower surface of the emitter device. The electron generator module includes: an insulating film disposed on one side and the other side of the cathode terminal; protection terminals arranged on the upper end of the insulating film; a protection resistor having one end connected to the protection terminals; and a protection grid connected to the other end of the protection resistor.

This application provides a display device and a display method. The display device includes a display panel and a driver chip. The display panel is divided into at least two display zones along the longitudinal direction. Each display zone corresponds to a preset anode voltage parameter. The driver chip is electrically connected to the display panel and outputs a matching target anode voltage to the anode of the light-emitting element according to the anode voltage parameter of each display zone. This invention improves display uniformity and image quality by independently configuring the anode voltage for each longitudinal zone, thereby simultaneously improving light leakage in black screens and uneven color and brightness in low-brightness grayscale.

This application discloses an anode voltage drop testing device for an aluminum electrolytic cell, comprising an electromagnetic shielding box, a millivoltmeter, a positive test rod, and a negative test rod. The millivoltmeter is placed inside the electromagnetic shielding box. One end of the positive test rod is connected to the millivoltmeter via a wire, and the other end is connected to the anode steel claw. One end of the negative test rod is connected to the millivoltmeter via a wire, and the other end is connected to a reinforcing bar on the anode carbon block. The electromagnetic shielding box includes a box body and an observation window. The box body has an observation opening, and the observation window is located at the observation opening. The observation window includes a first glass layer and a metal mesh, with the metal mesh embedded within the first glass layer. The first glass layer includes glass and a conductive film, with the conductive film formed on the surface of the glass facing the outside of the box body. This voltage drop testing device places the millivoltmeter inside the electromagnetic shielding box, and the observation window is equipped with a first glass layer and a metal mesh embedded within it. A conductive film is also provided on the surface of the first glass layer, achieving full-band electromagnetic protection and avoiding inaccurate readings caused by magnetization.

This invention belongs to the field of power semiconductor technology and relates to SOI LIGBTs with integrated NMOS and multiple floating field plates. This invention introduces a double-layer floating field plate above the drift region of the SOI LIGBT, utilizing the floating metal field plate to achieve adaptive switching of the auxiliary NMOS integrated on the cathode side. During forward conduction, the lower anode voltage keeps the second NMOS in a high-resistance state, causing the node voltage across the parasitic diode to exceed its built-in potential and turn it on, providing an additional electron injection source for the drift region and reducing the on-state voltage drop. During turn-off, the high anode voltage increases the gate voltage of the second NMOS through capacitive coupling of the floating field plate, enabling it to conduct adaptively, providing a low-resistance path for excess holes in the drift region and reducing turn-off losses. In the saturation state, the second NMOS under the high anode voltage enters a strong inversion state, causing the parasitic diode to exit the forward bias state, cutting off the additional electron injection source, and strictly clamping the saturated anode current at a low level, improving the device's short-circuit withstand capability.

In a display device, each of an address-scan period and a self-scan period includes a data initialization period and an anode initialization period, and a voltage of an anode electrode is initialized in the data initialization period and the anode initialization period. That is, the voltage of the anode electrode may be initialized multiple times.