Abstract: A display apparatus includes a display device, a first interface configured to be connected to an electronic apparatus, a second interface configured to be connected to another display apparatus, a switch device connected to the second interface, and a processor connected to the first interface and the switch device, and configured to obtain an image signal from the electronic apparatus through the first interface. The image signal includes at least a first image signal and a second image signal. The processor is further configured to, in response to the display apparatus being in a first display mode, control the first image signal to be output and displayed on the display device, and transmit the second image signal to the switch device, and in response to the display apparatus being in a second display mode, transmit the second image signal to the switch device.

Abstract: A display compensation method, including: acquiring brightness parameters of two or more target grayscales of a display panel, and determining, based on the brightness parameters, target grayscales with consistent brightness trends and target grayscales with inconsistent brightness trends; determining a brightness trend consistency interval of grayscales according to the target grayscales with consistent brightness trends and the target grayscales with inconsistent brightness trends; calculating, for target grayscales in all grayscales of the display panel, a Demura compensation coefficient by using a Demura compensation algorithm; calculating, for target grayscales of the display panel that are within the brightness trend consistency interval, a uniformity compensation coefficient by using a uniformity compensation algorithm; writing the Demura compensation coefficient and the uniformity compensation coefficient into a driving integrated circuit (IC), to cause the driving IC to perform compensation according

Abstract: A display control method includes obtaining an image signal from an electronic apparatus. The image signal includes at least a first image signal and a second image signal. The first image signal corresponds to first configuration information, the second image signal corresponds to second configuration information. The first configuration information and the second configuration information are used to enable the electronic apparatus to determine two different display areas. The display control method further includes determining a current display mode of a first display apparatus, when the current display mode is a first display mode, controlling the first image signal to be output and displayed on the first display apparatus corresponding to the first configuration information and controlling the second image signal to be output and displayed on a second display apparatus connected to the first display apparatus and corresponding to the second configuration information.

Abstract: A system having multiple devices that can host different versions of an artificial neural network (ANN) as well as different versions of a feature dictionary. In the system, encoded inputs for the ANN can be decoded by the feature dictionary, which allows for encoded input to be sent to a master version of the ANN over a network instead of an original version of the input which usually includes more data than the encoded input. Thus, by using the feature dictionary for training of a master ANN there can be reduction of data transmission.

Abstract: In at least some implementations, a vehicle includes a body having a front end, a front compartment and a hood received over at least part of the front compartment. A hood moving assembly is coupled to the hood to move the hood away from the front compartment and from a closed position. A thermal camera is carried by the body and has a field of view that includes an area in front of the front end. And a controller is coupled to the thermal camera and to the hood moving assembly. The thermal camera provides an output to the controller from which a determination can be made of the presence of an animate object in the field of view, and wherein the controller is responsive to the output of the thermal camera to selectively actuate the hood moving assembly to move the vehicle hood.

Abstract: A motor assembly comprising a mover assembly and a stator. The mover assembly comprising a plurality of mover assembly units, each unit comprising: a non-ferromagnetic core with a profile of an outer surface having at least two flat sections lying on intersecting planes; at least two ferromagnetic laminated structures arranged on the at least two flat sections of the non-ferromagnetic core, each ferromagnetic laminated structure includes a stack of ferromagnetic plates, each plate is covered with a non-conductive coating. Each ferromagnetic laminated structure is arranged on a corresponding flat section of the at least two flat sections of the non-ferromagnetic core such that side of each ferromagnetic plate is adjacent to the non-ferromagnetic core thereby making the ferromagnetic plates of the at least two ferromagnetic laminated structures lie on intersecting planes.

Abstract: A refrigerator includes a box body, inner container of which defines a storage compartment therein; and a water storage device arranged in the storage compartment and comprising a pot body and a pot lid; the port body being configured to store water; the pot lid being arranged at the top of the pot body and configured to open and close the pot body; wherein the pot lid and the inner container detachably connected with each other. According to the refrigerator, the water storage device only takes up a small space inside the refrigerator and has no impact on a door body of the refrigerator. Meanwhile, the pot lid is detachably connected with the inner container, such that the water storage device not in need can be wholly removed from the refrigerator, which enlarges the internal space of the refrigerator.

Abstract: Provided is a camera optical lens, including first lens having negative refractive power, second lens having positive refractive power, third lens having positive refractive power, and fourth lens having negative refractive power, focal length of the camera optical lens is f, focal length of the first lens is f1, combined focal length of the third and fourth lenses is f34, on-axis thickness of the first lens is d1, on-axis distance between the first and second lenses is d2, total optical length of the camera optical lens is TTL, abbe number of the first lens is v1, following relational expressions are satisfied: ?30.00?f1/d1??8.00; 2.00?TTL/f?3.00; ?2.30?f34/f<?1.30; 58.00?v1?82.00; 0.25?d2/TTL?0.45. The camera optical lens has good optical performance, and is particularly suitable for mobile phone camera lens assembly, vehicle-mounted lens and WEB camera lens.

Abstract: A computer system includes physical memory devices of different types that store randomly-accessible data in memory of the computer system. In one approach, access to memory in an address space is maintained by an operating system of the computer system. A virtual page is associated with a first memory type. A page table entry is generated to map a virtual address of the virtual page to a physical address in a first memory device of the first memory type. The page table entry is used by a memory management unit to store the virtual page at the physical address.

Abstract: A system may include a first pixel array arranged in a first direction and a second direction, and a first shift register coupled to the first pixel array. An output signal of the first shift register may be configured to activate one or more pixels of the first pixel array. The activated pixels may form a first macro reading block, wherein the first shift register may be configured to receive a clock signal to move the first macro reading block in the first direction or the second direction.

Abstract: A computing system is provided, including a processor configured to receive a training data set. Based at least in part on the training data set, the processor is further configured to train a transformer network that includes a plurality of layers. The plurality of layers each respectively include a plurality of sub-layers including an attention sub-layer, a feed-forward sub-layer, and a plurality of normalization sub-layers. The plurality of normalization sub-layers are downstream from corresponding sub-layers of the plurality of sub-layers. Each of the plurality of normalization sub-layers is configured to apply layer normalization to a sum of: a first scaling parameter multiplied by an input vector of the sub-layer; and an output vector of the sub-layer.

Abstract: An output circuit for a single-photon avalanche diode. In some embodiments, a system includes: a first sensing element; a bus line; a first pull-down circuit; a first pull-up element; and a second pull-up element, the first pull-up element, the second pull-up element, and the first pull-down circuit being connected to the bus line, the first pull-down circuit being connected to the first sensing element and configured to be activated based on a signal from the first sensing element, the first pull-up element having a lower drive strength than the first pull-down circuit.

Abstract: A computer system includes physical memory devices of different types that store randomly-accessible data in memory of the computer system. In one approach, access to memory in an address space is maintained by an operating system of the computer system. A virtual page is associated with a first memory type. A page table entry is generated to map a virtual address of the virtual page to a physical address in a first memory device of the first memory type. The page table entry is used by a memory management unit to store the virtual page at the physical address.

Abstract: A computer system includes physical memory devices of different types that store randomly-accessible data in a main memory of the computer system. In one approach, an operating system allocates memory from a namespace for use by an application. The namespace is a logical reference to physical memory devices in which physical addresses are defined. The namespace is bound to a memory type. In response to binding the namespace to the memory type, the operating system adjusts a page table to map a logical memory address in the namespace to a memory device of the memory type.

Abstract: A method, apparatus, device, and medium for compensating brightness. The method includes: arranging a plurality of first anchor points and at least one fixed anchor point in a display area of a display panel; dividing the display area of the display panel into a plurality of adjustment areas each including at least one of the first anchor points, and determining a first compensation gain for each of the adjustment areas under a grey scale image to be compensated; determining a second compensation gain corresponding to the first anchor point according to a brightness value corresponding to the first anchor point, a brightness value corresponding to the fixed anchor point, and the first compensation gain of the adjustment area to which the first anchor point belongs; and performing brightness compensation on a pixel corresponding to the first anchor point according to the second compensation gain.

Abstract: Provided are a display panel including multiple scan lines located in the display region and gate drive unit groups located in a non-display region. The gate drive unit groups include at least one first gate drive unit group and at least one second gate drive unit group. The first gate drive unit group includes multiple cascaded first gate drive units. The second gate drive unit group includes multiple cascaded second gate drive units. The first gate drive units and the second gate drive units are connected to different scan lines. A first period during which a first gate drive unit at the first stage transmits an effective level signal to a scan line and a second period during which a second gate drive unit at the first stage transmits an effective level signal to a scan line overlap, overlap duration is t, and t>0.

Abstract: A computer system includes physical memory devices of different types that store randomly-accessible data in a main memory of the computer system. In one approach, data is stored in memory at one or more logical addresses allocated to an application by an operating system. The data is physically stored in a first memory device of a first memory type (e.g., NVRAM). The operating system determines an access pattern for the stored data. In response to determining the access pattern, the data is moved from the first memory device to a second memory device of a different memory type (e.g., DRAM).

Abstract: An electronic device includes a first interface, a first network unit, a second interface, a second network unit, a transmission unit, a first switch unit, and a third interface. The first interface is connected to a first external device and configured to transmit first data. The first network unit is connected to the first interface and configured to convert a first portion of the first data and network data. The second interface is connected to a second external device and configured to transmit second data. The second network unit is connected to the second interface and configured to convert a first portion of the second data and the network data. The transmission unit transmits the network data with the first network unit and the second network unit. The first switch unit transmits the network data with the transmission unit and the first network unit.

Abstract: A computer system includes physical memory devices of different types that store randomly-accessible data in a main memory of the computer system. In one approach, an operating system allocates memory from a namespace for use by an application. The namespace is a logical reference to physical memory devices in which physical addresses are defined. The namespace is bound to a memory type. In response to binding the namespace to the memory type, the operating system adjusts a page table to map a logical memory address in the namespace to a memory device of the memory type.

Abstract: A method for detecting the content of active ingredients of a compound Sophorae flavescentis radix injection and the fingerprint spectrum thereof. The method comprises using high performance liquid chromatography to perform detection, wherein the high performance liquid chromatography is operated under the condition of a C18 chromatographic column, and active ingredients comprise matrine, oxymatrine, macrozamin, sophocarpine, oxysophocarpine, sophoridine, or/and piscidic acid. The present method is an improved method for performing detection on a compound Sophorae flavescentis radix injection, by means of same, seven ingredients in the compound Sophorae flavescentis radix injection can be simultaneously determined, and a chromatographic fingerprint spectrum can be constructed, thereby providing a technical method for quality control of a compound Sophorae flavescentis radix injection.