Abstract: A scanner redirection method for a remote desktop computer system, wherein the remote desktop computer system includes a client computer and a remote computer, includes the steps of: transmitting at least one request to the client computer to acquire one or more first images from an image capturing device connected to the client computer; upon receiving a compressed video file that was created by the client computer in response to the at least one request and that was then transmitted by the client computer, applying a video decoding algorithm to expand the compressed video file into a decompressed video file having one or more second images; and providing each of the one or more second images to an application running in the remote computer.

Abstract: A scanner redirection method for a remote desktop computer system that includes a client computer, a first virtual machine (VM), and a second VM, wherein the client computer communicates with the first VM via a first remote desktop session, and the first VM communicates with the second VM via a second remote desktop session, includes the steps of: receiving by the first VM from the second VM, a request for an image and an identifier (ID) of an image capturing device connected to the client computer; forwarding by the first VM to the client computer, the request for the image and the ID of the image capturing device; and upon receiving the image from the client computer, transmitting by the first VM to the second VM, the image received from the client computer.

Abstract: A video decoding method is applied to a decoder device to decode an encoded stream stored in memory. The decoder device includes a video decoder, a memory controller and a processor. The video decoding method includes: setting, by the memory controller, a decoded picture buffer in the memory according to a maximum number X of reference frames in the encoded stream, wherein the decoded picture buffer includes X+1 picture buffer areas, each picture buffer area is configured to store a decoded image, and X is a positive integer; determining an idle picture buffer area in the decoded picture according to status information of the decoded picture buffer; and controlling the video decoder to decode a current frame in the encoded stream to obtain a decoded image of the current frame and storing the decoded image of the current frame to the idle picture buffer area.

Abstract: A scanner redirection method for a remote desktop system includes the steps of: transmitting to a client computer, a request to acquire a first image from an image capturing device connected to the client computer; in response to receiving image data from the client computer of a first chunk of the first image and an identifier (ID) of the first chunk, storing the image data of the first chunk and the ID of the first chunk in association with each other; in response to receiving an ID from the client computer of a second chunk of the first image without any associated image data, retrieving image data that is stored in association with the ID of the second chunk; and creating the first image using the image data of the first chunk and the retrieved image data that is stored in association with the ID of the second chunk.

Abstract: A scanner redirection method for a remote desktop computer system, wherein the remote desktop computer system includes a plurality of client computers and a remote computer, and wherein the remote computer concurrently has a first remote desktop session with a first client computer and a second remote desktop session with a second client computer, the scanner redirection method comprising: creating a first list of image capturing devices that are connected to the first client computer; creating a second list of image capturing devices that are connected to the second client computer; in response to receiving from the first client computer a selection of a first image capturing device from the first list, transmitting to the first client computer, an identifier (ID) of the first image capturing device; and after transmitting the ID, receiving from the first client computer, an image created by the first image capturing device.

Abstract: A scanner redirection method for a remote desktop computer system that includes a client computer and a remote virtual machine (VM), includes the steps of: setting a virtual data source of the remote VM to use one of a plurality of transfer modes selected by a user of an application executing on the remote VM, wherein each of the transfer modes specifies how images are to be provided to the application; transmitting a request to the client computer to acquire an image, wherein the client computer acquires the image from an image capturing device connected to the client computer and then transmits the image to the remote VM; and upon receiving the image from the client computer, providing, by the virtual data source to the application, the image according to the selected transfer mode setting of the virtual data source.

Abstract: An ultrasonic imaging method and device and a computer-readable storage medium are provided. The ultrasonic imaging method includes: ultrasonic waves are transmitted to a uterine region of an object to be detected; ultrasonic echoes are received based on the ultrasonic waves reflected from the uterine region of said object, and ultrasonic echo signals are acquired on the basis of the ultrasonic echoes; the ultrasonic echo signals are processed to obtain three-dimensional data of the uterine region of said object; the endometrium is identified from the three-dimensional data of the uterine region according to endometrium image characteristics of the uterine region to obtain position information of the identified endometrium; according to the position information of the identified endometrium, the cross section of the identified endometrium is imaged on the basis of the three-dimensional data to obtain an cross-sectional endometrium image; and the cross-sectional endometrium image is displayed.

Abstract: A scanner redirection method for a remote desktop computer system that includes a client computer, a first virtual machine (VM), and a second VM, includes the steps of: receiving by the first VM from the second VM, a first request for an image, wherein the first request for the image is directed to virtual image capturing software in the first VM; in response to the first request for the image being directed to the virtual image capturing software, transmitting by the first VM to the client computer, a second request for the image, wherein the second request for the image is directed to an image capturing device connected to the client computer; and upon receiving the image from the client computer, transmitting by the first VM to the second VM, the image received from the client computer.

Abstract: A scanner redirection method for a remote desktop computer system that includes a client computer and a remote computer, includes the steps of: receiving a request from an application installed on the remote computer to acquire an image from an image capturing device using a driver selected for communicating with the image capturing device; selecting a scanner redirection process based on a selection of the driver and loading the scanner redirection process, which is to be used in communicating with the selected driver, wherein said selecting includes selecting an m-bit scanner redirection process in response to the selected driver being an m-bit driver or selecting an n-bit scanner redirection process in response to the selected driver being an n-bit driver, where m is not equal to n; and upon acquiring the image using the selected scanner redirection process and the selected driver, transmitting the image to the application.

Abstract: An aerosol delivery device includes an electrical power source, an induction receiver configured to receive a substrate including an aerosol precursor composition such that the induction receiver is in proximity to the substrate, and a wireless power transmitter including an induction transmitter. The induction transmitter is configured to removably receive the induction receiver such that the induction transmitter surrounds the induction receiver. The induction transmitter receive electrical current from the electrical power source that causes the induction transmitter to generate an oscillating magnetic field, and the induction receiver generates heat via eddy currents induced at the induction receiver when exposed to the oscillating magnetic field and thereby heats the aerosol precursor composition to produce an aerosol. Related methods are also provided.

Abstract: This application provides a communication method and related apparatus. In the communication method, a network device determines a first normalized power at a start moment of an nth period in N periods, and determines a total normalized power expected to be used by a plurality of cells in the nth period. When the total normalized power is greater than the first normalized power, the network device allocates power to each cell based on a preset normalized power of each cell and the first normalized power. This resolves a problem that when a cell power quota at each frequency for a multi-frequency cell is limited, the coverage and network performance of each cell is affected.

Abstract: A method for chemical exchange saturation transfer (CEST) MRI using an average saturation efficiency filter (ASEF)/adjustment of rotation and saturation effects (AROSE) includes: applying a first RF pulse train including a high duty cycle, the first RF pulse causing magnetization of exchangeable protons based on saturation and/or rotation effects, transferred to a water pool of a target structure; discontinuing application of the first RF pulse train; acquiring a first water MR signal; applying a second RF pulse train including a low duty cycle, the second RF pulse train causing magnetization of the target molecules based at least in part on saturation transfer and either minimizing rotation transfer with bipolar pulses or adjusting rotation transfer with selected flip angles; discontinuing application of the second RF pulse train; acquiring a second water MR signal; and generating ASEF/AROSE signal representing a difference between the first and second water MR signals.

Abstract: The present disclosure relates to an aerosol delivery device configured to wirelessly heat an atomizer. The aerosol delivery device may include a control body and a cartridge. The control body may include an induction transmitter. The cartridge may include an induction receiver and an aerosol precursor composition. When electrical current is directed to the induction transmitter, the induction receiver may be inductively heated. The heat produced by the induction receiver may form an aerosol from the aerosol precursor composition at the substrate. Related methods are also provided.

Abstract: The technology described herein relates to an SRS transmission method, an access network device, and a terminal device. The method includes sending channel sounding reference signal (SRS) time domain resource indication information to a terminal device, where the SRS time domain resource indication information indicates an SRS time domain resource, and the SRS time domain resource includes at least one of a first symbol to an eighth symbol in a first slot. The method further includes receiving an SRS from the terminal device on the SRS time domain resource.

Abstract: In some examples, a system causes execution, in each respective storage node of a cluster of storage nodes, of a respective frontend service that provides a frontend to a client over a network for access by the client of a storage volume accessible by the cluster of storage nodes. The system obtains node-specific configuration data portions from a configuration data repository, the node-specific configuration data portions being for respective storage nodes of the cluster of storage nodes, and sends the node-specific configuration data portions to the respective frontend services for configuring the frontend services.

Abstract: Disclosed herein is a method for preparing a 2-arylmalonic acid derivative. In this method, a cyclohexadiene compound is used as a raw material, and sequentially undergoes an isomerization reaction, a halogenation reaction in the presence of a halogenating agent and a dehydrohalogenation-aromatization reaction to obtain a 2-arylmalonic acid derivative (3). An intermediate for preparing the 2-arylmalonic acid derivative (3) and use of the intermediate are also disclosed.

Abstract: A semiconductor package for a multi-phase motor driving circuit comprises a driving unit, a switching unit, a first bonding wire, and a second bonding wire. The driving unit comprises a first driving IC, a second driving IC and a third driving IC, configured to couple with a controller. The switching unit comprises a first pair of power switches, a second pair of power switches and a third pair of power switches, configured to couple with the first driving IC, the second driving IC and the third driving IC, respectively. The first bonding wire is coupled between a sensing pin of the first driving circuit and a connection between the driving unit and a motor driven by the driving. The second bonding wire is coupled between a fault out pin of the first driving IC, the second driving IC and the third driving IC.

Abstract: An information sharing method includes that a first redundancy device generates a first supervision frame that includes device information of the first redundancy device, where the first supervision frame detects whether a second redundancy device on a transmission link on which the first redundancy device is located in the redundancy network is in a working state, where the first redundancy device is any redundancy device in the redundancy network; and where the first redundancy device sends the first supervision frame to the second redundancy device in a multicast manner. The device information of the redundancy device is carried in the supervision frame.

Abstract: The present disclosure provides a synthesis method of a g-C3N4/C composite material based on a hollyhock stalk, including the following steps: (1) pretreatment of hollyhock stalks; and (2) fabrication of the g-C3N4/C composite material. In this method, with the hollyhock stalk as a carbon skeleton, g-C3N4 is spread on a template surface to form a laminated layer, and a composite system with a special structure is constructed. Compared with pure phase g-C3N4, the composite material substantially increases specific surface area and has a clear interface; the carbon skeleton not only functions as a rigid support, but also increases the electron transfer efficiency of the composite material, thereby improving the separation efficiency of photogenerated carriers and the utilization rate of visible light.