Abstract: A flat tube included in a heat exchanger has a first end and a second end spaced apart in a length direction of the flat tube, and a first side surface and a second side surface spaced apart in a width direction of the flat tube. The first side surface and the second side surface of the first end are provided with a first concave part and a second concave part, respectively. The first concave part and the second concave part have a first length and a second length that extend from an end surface of the first end in the length direction of the flat tube, and have a first depth and a second depth that extend in the width direction of the flat tube. The first length is not equal to the second length.

Abstract: A patterned substrate for light emitting diode includes a plurality of nodes and links protruding from a base plane of the substrate and base areas on the substrate, each pair of adjacent nodes is connected by a corresponding link, respectively. The nodes and links also can be concave nodes and concave links cutting into a surface of the substrate, each pair of adjacent concave nodes is connected by a corresponding concave link, respectively.

Abstract: A light emitting device with on-chip optical power readout includes a light emitting mesa and a light detecting mesa formed adjacent to each other on the same substrate of a chip, and a portion of the light emitted from the light emitting mesa is transmitted to the light detecting mesa at least through the substrate. The light emitting mesa and the light detecting mesa have exactly the same epitaxial structure and can be electrically isolated from each other by an insulation layer, or an airgap formed therebetween, or by ion implantation. The light emitting mesa and the light detecting mesa can also share an n-type structure and a common n-electrode while having their own p-electrode, respectively.

Abstract: The present disclosure provides a measurement method and system based on image electroencephalogram sensitivity data for a built environment dominant color, and relates to the field of urban quality measurement. The measurement method based on image electroencephalogram sensitivity data for a built environment dominant color includes acquiring electroencephalogram data corresponding to a built environment image sample; calculating an environment dominant color sensitivity on the basis of the electroencephalogram data; extracting a dominant color feature parameter according to the built environment image sample; constructing a built environment dominant color measurement model, and training same by taking sensitivity data and a dominant color feature as an input; and inputting an environment image to be analyzed into a trained model, so as to obtain a predicted dominant color sensitivity result.

Abstract: The present disclosure provides an electronic device input method and an electronic device. The method includes receiving a first type of input signal in an input area of the electronic device, and determining a first input area and a second input area based on the input area according to the first type of input signal. The first input area is used to receive a first type of input signal, and the second input area is used to receive a second type of input signal. The first type of input signal is different from the second type of input signal.

Abstract: Provided are a bitstream processing method and apparatus, a terminal device and a storage medium. The method includes: determining an image quality assessment region; determining quality assessment data of the image quality assessment region; determining image quality information, where the image quality information includes the quality assessment data; and adding the image quality information to a bitstream to obtain a processed bitstream.

Abstract: A storage system has a first memory, and a second memory that includes storage memory. The storage system has a processing device. The processing device is to select whether to write data to the first memory and write the data from the first memory to the second memory, or to write the data to the second memory bypassing the first memory. The processing device is to write portions of data for storage according to such selection.

Abstract: A signal transmission apparatus includes a carrier and a signal reception and transmission assembly. The carrier includes a first thickness area and a second thickness area connected to the first thickness area. A thickness of the first thickness area is greater than a thickness of the second thickness area. A distance between a first surface of the first thickness area and a second surface of the second thickness area along a thickness direction of the carrier is greater than the thickness of the second thickness area. The first surface of the first thickness area and the second surface of the second thickness area are located on two surfaces of the carrier opposite to each other. The signal reception and transmission assembly include a reception and transmission module and a connection module. The reception and transmission module is communicatively connected to the connection module.

Abstract: A storage system has a first memory, a second memory that include solid-state storage memory, and a processing device. The processing device is to select a mode for each portion of data to be written. Selection of the mode is based at least on size of the portion of data. Selection of the mode is from among modes that include a first mode of writing the portion of data in mirrored RAID form to the first memory for later transfer from the first memory to the second memory, a second mode of writing the portion of data in parity-based RAID form to the first memory for later transfer from the first memory to the second memory, and a third mode of writing the portion of data to the second memory, bypassing the first memory. The processing device is to handle portions of data to be written according to such selection.

Abstract: Embodiments of the present disclosure provides an electronic apparatus and a data processing method. The electronic apparatus includes a first sensor (101), configured to collect a distance sensing parameter, and a second sensor (102), configured to collect a touch control sensing parameter. A touch control area of the second sensor (102) covers a specific area of a first surface of the electronic apparatus. The first sensor collects the distance sensing parameter in a space above the touch control sensing area. The distance sensing parameter may be collected in the space above the touch control sensing area by arranged a distance sensor. Thus, the electronic apparatus may realize a touch control input and an input through the distance, which enriches input manners of the electronic apparatus and improves the user experience.

Abstract: A storage system is provided. The storage system includes a primary storage node comprising a primary processing device and a first set of non-volatile memory modules. The storage system also includes a secondary storage node comprising a secondary processing device a second set of non-volatile memory modules, the second storage node communicatively coupled to the primary storage node, the secondary storage node performs storage operations based on instructions received from the primary storage node. The primary processing device is to receive a request to access one or more of the first set of non-volatile memory modules and the second set of non-volatile memory modules and transmit instructions to perform a set of storage operations to the secondary storage node based on the request.

Abstract: A storage system has a first storage and a second storage. The first storage has a first plurality of blades with first computing resources, first RAM resources and first solid-state storage resources. The second storage has second plurality of blades with second computing resources, second RAM resources and second solid-state storage resources. The first computing resources and the second computing resources cooperate to determine on which blades of the first and second pluralities of blades, and in which storage of the first and second storage, to perform compute processes and memory controller processes, using which of the first and second computing resources.

Abstract: A data processing method and apparatus, an electronic device, and a storage medium are disclosed. The method may include determining a prediction table corresponding to attribute information of a point cloud; determining, a residual according to the prediction table; and encoding the residual and the index of the predicted value to form a code stream for transmission or storage.

Abstract: A storage system has NVRAM (nonvolatile random-access memory), storage memory that includes SLC (single level cell) flash memory and QLC (quad level cell) flash memory, and a processor. The processor performs a method that includes selecting one of a plurality of write paths for incoming data, and writing the incoming data via the selected write path. A first write path includes writing to NVRAM, writing from NVRAM to SLC flash memory and writing from SLC flash memory to QLC flash memory. A second write path includes writing to NVRAM and writing from NVRAM to QLC flash memory, bypassing SLC flash memory. A third write path includes writing to SLC flash memory, bypassing NVRAM, and writing from SLC flash memory to QLC flash memory.

Abstract: A storage system has a first memory, and a second memory that includes storage memory. The storage system has a processing device. The processing device is to select whether to write data to the first memory and write the data from the first memory to the second memory, or to write the data to the second memory bypassing the first memory. The processing device is to write portions of data for storage according to such selection.

Abstract: Disclosed are differential-drive electro-optic modulator structures for linear electro-optic (Pockels) platforms such as thin-film LiNbO3 (TFLN), directly compatible with traditional differential-output analog drivers, such as a linear electro-optic modulator, including: a first signal trace; a second signal trace, wherein the first signal trace and the second signal trace are driven by a differential signal; a first optical arm; and a second optical arm, wherein a geometry of the first signal trace and the second signal trace causes the differential signal to modulate optical signals in the first optical arm and the second optical arm, such that when the optical signals are combined to create a resultant optical signal, the geometry mitigates chirp in the resultant optical signal. Other embodiments are disclosed.

Abstract: Provided are methods and apparatuses for processing a bitstream, a terminal device and a storage medium The method for processing a bitstream includes acquiring an encoded bitstream, where the encoded bitstream includes encoding indication information, where the encoding indication information is used for indicating a bitstream type of the encoded bitstream; acquiring the encoding indication information; and decoding the encoded bitstream according to the encoding indication information.

Abstract: A storage system has NVRAM (non-volatile random-access memory), solid-state storage memory, and a processor to perform a method. The method includes allocating virtual units of NVRAM with mapping of the virtual units to physical memory. The method includes writing data having various sizes into allocated first virtual units of memory and into allocated second virtual units of memory. The first virtual units of memory each include a first contiguous physical addressed amount of NVRAM having a first size. The second virtual units of memory each include an amount of NVRAM having a second size. The method includes relocating at least some of the data such that a portion of the allocated second virtual units of memory become available for the allocating.

Abstract: A processing method for a heat exchanger includes: operation S100, preparing a heat exchange module, wherein the heat exchange module includes a plurality of flat tubes; operation S200, placing at least part of the heat exchange module on a first platform; operation S300, limiting the heat exchange module in a width direction of the first platform; operation S400, limiting the heat exchange module in a length direction of the first platform; operation S500, preparing a fin module; operation S600 or operation S700, using a pushing piece to push the heat exchange module to move the plurality of flat tubes by a preset distance along the width or length direction of the first platform; and operation S800, repeating operations S500 and S600, or repeating operations S500 and S700, until installation of N fin modules and one heat exchange module is completed, wherein N is greater than or equal to 2.