Abstract: This disclosure describes methods of preparing a decellularized Descemet's membrane and an isolated Descemet's membrane, methods of using an isolated Descemet's membrane, and tissues prepared using an isolated Descemet's membrane. This disclosure further describes a composition that includes an isolated Descemet's membrane. In some embodiments, the tissues and methods described herein may be used to treat a limbal stem cell deficiency or as an ocular surface bandage.

Abstract: An airflow impedance blank may be configured to populate a slot of an information handling system and may include a housing, which may include a plurality of venting holes, and a removable airflow impedance element configured to mechanically couple to the housing and further configured to be readily exchanged for another removable airflow impedance element to adjust a venting ratio of the airflow impedance blank.

Abstract: A system may include a housing comprising a plurality of slots. Each slot may comprise a first set of adapter alignment features and a second set of adapter alignment features. The first set of adapter alignment features and the second set of adapter alignment features may each be configured to mechanically couple to a form factor adapter. The form factor adapter may be configured to receive one or more information handling resources.

Abstract: An information handling system may include a processor coupled to a motherboard, a connector mounted to the motherboard, and a drive backplane assembly comprising a drive backplane tray and a module configured to be mechanically coupled to the drive backplane tray in a tool-less manner, the module housing a backplane configured to receive and couple to a plurality of storage drives, and the backplane comprising a cable having a fixed connection to the backplane wherein the cable is configured to couple to the connector.

Abstract: A method for vehicle noise reduction obtains driving environment information of a vehicle and determines a target shelter is presented on at least one side of a driving road of the vehicle based on the driving environment information. First noise waves are collected when the target shelter is presented on the at least one side of the driving road. The first noise waves are driving noise reflected by the target shelter. first noise reduction sound waves are determined based on the first noise waves. The first noise reduction sound waves are a reverse sound waves of the first noise waves. The first noise waves are emitted to an inside of the vehicle. A system for vehicle noise reduction and a vehicle is also provided.

Abstract: A handheld electronic device is provided. The handheld electronic device includes a screen, a back cover, a frame, a main board, and a heat conduction structure. The frame is arranged between the screen and the back cover. The frame and the back cover define a space. The main board is arranged in the space, and includes a front surface and a back surface. The front surface faces the screen and includes a heat source. The heat conduction structure extends from the front surface to the back surface, and includes a first end and a second end opposite to each other. The first end is arranged at the heat source, and the second end extends to the back cover.

Abstract: A radio frequency receiving device with automatic gain control includes a filtering module, a radio frequency processing module, a controlling unit and a displaying unit. The filtering module is configured to filter a radio frequency signal to generate a filtered signal. The radio frequency processing module includes an amplifier, a detecting circuit and an automatic gain control circuit. The amplifier amplifies the filtered signal to generate a radio frequency output signal. The detecting circuit detects the filter signal to generate a detected signal. The controlling unit generates at least one intensity signal according to the detected signal, and judges the detected signal to generate an automatic gain control signal. The automatic gain control circuit controls the radio frequency output signal according to the automatic gain control signal. The displaying unit turns on or off a plurality of light emitters according to the at least one intensity signal.

Abstract: A multiply accumulate circuit receives m one-bit neuron values from a first layer of a neural network system. The multiply accumulate circuit includes m non-volatile memory cells and m current sources. In addition, m current paths are defined by the m non-volatile memory cells and the m current sources collaboratively. A first current path is defined by a first non-volatile memory cell and a first current source. A first terminal of the first current source receives a first supply voltage. A second terminal of the first current source is connected with a first terminal of the first non-volatile memory cell. A second terminal of the first non-volatile memory cell is connected with an output terminal of the multiply accumulate circuit. A control terminal of the first current source receives a first one-bit neuron value.

Abstract: An electronic device includes a casing, an exterior button, a sliding assembly and an internal button. The casing includes an outer surface and an opening at the outer surface. The exterior button has a first side and a second side opposite to each other, the first side is pivotally connected to the casing so that the exterior button is rotatably disposed at the casing. The sliding assembly is movably disposed on the casing, and includes a sliding body, a toggle and a pusher, the sliding body is located in the casing, the toggle is fixed to the sliding body and exposed to the casing, and the pusher is linked with the sliding body in a first direction, and is movably disposed at the sliding body in a second direction. The inner button is located in the casing, and the sliding assembly is located between the outer button and the inner button.

Abstract: The present invention relates to a light-emitting diode (LED) which comprises multiple point-like transparent conductive electrodes, a dielectric layer, and an epitaxial composite layer. The dielectric layer is disposed around each point-like transparent conductive electrode. The epitaxial composite layer comprises a carbon-doped gallium arsenide epitaxial layer. The carbon-doped gallium arsenide epitaxial layer is disposed both on each point-like transparent conductive electrode and the dielectric layer and electrically connected to each point-like transparent conductive electrode.

Abstract: The present invention relates to a light emitting diode (LED) which comprises multiple point-like conductive electrodes, a dielectric layer, and an epitaxial composite layer. The dielectric layer is disposed around each point-like conductive electrode, and the epitaxial composite layer is disposed both on the point-like conductive electrodes and the dielectric layer. Each point-like conductive electrode includes an ohmic-contact metal layer and a carbon-doped gallium arsenide epitaxial layer. The carbon-doped gallium arsenide epitaxial layer is disposed on the ohmic-contact metal layer and electrically connected to the epitaxial composite layer.

Abstract: A two-dimensional electronic component includes a substrate; an artificial two-dimensional (2D) material disposed on the substrate; and a first metallic electrode disposed on the artificial 2D material. The artificial 2D material includes a layered atomic structure including a middle atomic layer, a lower atomic layer disposed on a lower surface of the middle atomic layer, and an upper atomic layer disposed on an upper surface of the middle atomic layer respectively. The upper atomic layer and the first metallic electrode are attracted together at a junction therebetween by metallic bonding.

Abstract: The present invention relates to a light-emitting diode (LED) which includes an epitaxial composite layer, a dielectric layer, a transparent conductive layer, and a metal layer. Specifically, the epitaxial composite layer is disposed on the dielectric layer, the dielectric layer is disposed on the transparent conductive layer, and the transparent conductive layer is disposed on the metal layer. Moreover, an outer edge of the transparent conductive layer is covered by the metal layer.