Abstract: A memory pool operation method includes that a client provides a first interface, where the first interface includes one or more application programming interfaces (APIs) corresponding to algorithmic logic, and the algorithmic logic is used to convert an operation request sent by an application server into an operation on a memory pool. The client calls the first interface to generate a first operation request, and sends the first operation request to the memory pool, to perform one or more of the following operations on the memory pool based on the first operation request: a remote direct memory access (RDMA) operation, a memory allocation or release operation, and an offloading operation.

Abstract: A computing system is disclosed that includes a processor and memory. The memory stores instructions that, when executed by the processor, cause the processor to perform several acts. The acts comprise receiving conversational data indicative of an interaction between a client computing device and a generative model. The conversational data is provided as input into an intent classification module and the intent classification module produces an output indicative of a user intent based upon the conversational data. An anchor generation module generates anchor text indicative of portions of the conversational data correlated with the user intent. A content query based upon the anchor text is generated and content responsive to the content query is obtained and presented at the client computing device.

Abstract: A display panel, including a substrate, and a first electrode, at least two emission functional layers and a second electrode sequentially stacked on a side of the substrate, where for any two adjacent emission functional layers, one close to the substrate includes a first hole transport layer, a first emission layer, a first electron transport layer, and an N-type charge generation layer sequentially stacked away from the substrate, and the other away from the substrate includes a P-type charge generation layer, a second hole transport layer, a second emission layer, and a second electron transport layer sequentially stacked away from the N-type charge generation layer; the first electron transport layer has a thickness ranging from 3 nm to 10 nm; the first electron transport layer includes first, second and third subportions; and the first subportion has a thickness smaller than those of the second and third subportions.

Abstract: An endoscope imaging system, and a control method for a light source of an endoscope imaging system, are disclosed. After a function key is triggered, the image processing unit controls the light source unit to perform a first function, and controls the endoscope imaging system to perform a second function which corresponds to the function key. Alternatively, the image processing unit controls the light source unit to perform a first function, after the function key is triggered; and controls the endoscope imaging system to perform a second function which corresponds to the function key, after the function key is re-triggered. This disclosure provides another completely different way to control the light source unit to perform the first function, so as to achieve functional linkage of various units in the endoscope imaging system, simplify operation steps, and improve surgical efficiency.

Abstract: The present disclosure provides a pixel structure, a displaying substrate, a displaying device and a displaying method, wherein the pixel structure includes first sub-pixels, second sub-pixels and third sub-pixels that are located within a first virtual tetragon; the first sub-pixels are located individually adjacent to midpoints of four side edges of the first virtual tetragon; the second sub-pixels are located individually at four interior angles of the first virtual tetragon; and two center lines of the first virtual tetragon delimit the first virtual tetragon into four second virtual tetragons, and the third sub-pixels are located individually at first interior angles within the four second virtual tetragons.

Abstract: An integrated surgical system includes a voltage conversion unit, a first and a second power amplifier unit, an isolation conversion unit, an operation and driving unit, output ports for an electrosurgical knife and an ultrasonic knife. The first power amplifier unit converts a DC voltage into an AC voltage and amplifies the AC voltage; the isolation conversion unit isolates and converts the AC voltage outputted by the first power amplifier unit, and provides the AC voltage to the output port for the electrosurgical knife; the second power amplifier unit receives power from the voltage conversion unit, and amplifies a third signal; the isolation conversion unit isolates and converts an output of the second power amplifier unit, and provides the output to the output port for the ultrasonic knife. The integrated surgical system integrates an electrosurgical knife function and an ultrasonic knife function in a device system.

Abstract: The present disclosure provides a pixel structure, a displaying substrate, a displaying device and a displaying method, wherein the pixel structure includes first sub-pixels, second sub-pixels and third sub-pixels that are located within a first virtual tetragon; the first sub-pixels are located individually adjacent to midpoints of four side edges of the first virtual tetragon; the second sub-pixels are located individually at four interior angles of the first virtual tetragon; and two center lines of the first virtual tetragon delimit the first virtual tetragon into four second virtual tetragons, and the third sub-pixels are located individually at first interior angles within the four second virtual tetragons.

Abstract: A method for switching an electronic map includes: in the case that a terminal navigates outside a target building, when it is detected that the terminal enters a transition region outside the target building, determining that the terminal needs to enter a room from the outside, then obtaining second electronic map data, and displaying a second electronic map according to the second electronic map data, to implement switching from an outdoor first electronic map to the indoor second electronic map; and in the case that the terminal navigates inside the target building, when it is detected that the terminal enters the transition region of the outside from the inside, determining that the terminal needs to exit the room to the outside, and then displaying the first electronic map according to first electronic map data, to implement switching from the indoor second electronic map to the outdoor first electronic map.

Abstract: An organic light emitting diode, a manufacturing method thereof, a display substrate and a display apparatus are disclosed. The organic light emitting diode includes: a first electrode and a second electrode opposite to each other and a first hole transport layer, a first electron blocking layer, a blue emission layer, at least one first hole blocking layer, and a first electron transport layer, which are between the first electrode and the second electrode and sequentially arranged in a direction approaching the second electrode, wherein a total thickness of all the at least one first hole blocking layer is greater than a thickness of the first electron blocking layer.

Abstract: A method for analyzing arrhythmia in real time and an electrocardiogram monitoring device is disclosed. The method for analyzing arrhythmia in real time includes: acquiring a QRS template set currently used for arrhythmia analysis; determining whether each QRS template in the QRS template set is reliable; displaying information of a QRS template when the QRS template set contains an unreliable QRS template; determining the QRS template set according to an operation performed by a user on the information of the QRS template; and acquiring real-time electrocardiogram data, performing arrhythmia analysis on the real-time electrocardiogram data by using a determined QRS template set, and outputting an arrhythmia analysis result of the real-time electrocardiogram data in real time. The method for analyzing arrhythmia in real time may achieve the correction of a template of a special waveform by means of editing a currently created QRS template.

Abstract: The present disclosure provides a pixel structure, a displaying substrate, a displaying device and a displaying method, wherein the pixel structure includes first sub-pixels, second sub-pixels and third sub-pixels that are located within a first virtual tetragon; the first sub-pixels are located individually adjacent to midpoints of four side edges of the first virtual tetragon; the second sub-pixels are located individually at four interior angles of the first virtual tetragon; and two center lines of the first virtual tetragon delimit the first virtual tetragon into four second virtual tetragons, and the third sub-pixels are located individually at first interior angles within the four second virtual tetragons.

Abstract: A method for analyzing arrhythmia in real time and an electrocardiogram monitoring device is disclosed. The method for analyzing arrhythmia in real time includes: acquiring a QRS template set currently used for arrhythmia analysis; determining whether each QRS template in the QRS template set is reliable; displaying information of a QRS template when the QRS template set contains an unreliable QRS template; determining the QRS template set according to an operation performed by a user on the information of the QRS template; and acquiring real-time electrocardiogram data, performing arrhythmia analysis on the real-time electrocardiogram data by using a determined QRS template set, and outputting an arrhythmia analysis result of the real-time electrocardiogram data in real time. The method for analyzing arrhythmia in real time may achieve the correction of a template of a special waveform by means of editing a currently created QRS template.

Abstract: A method and a device for temperature prediction or measurement are disclosed. The method comprises: acquiring temperature data outputted from a thermometer probe; selecting some temperature data within a valid time period from the acquired data; determining a first specific time point according to the slope change rate of the temperature curve within the valid time period and an initial temperature within the valid time period; determining a second specific time point according to the slope at or before the first specific time point; calculating a value of temperature y according to an hyperbolic formula; determining a final temperature of the object according to the maximum slope of the temperature curve in the valid time period, the initial temperature of the temperature curve in the valid time period, and the value of temperature y.

Abstract: A method and a device for temperature prediction or measurement are disclosed. The method comprises: acquiring temperature data outputted from a thermometer probe; selecting some temperature data within a valid time period from the acquired data; determining a first specific time point according to the slope change rate of the temperature curve within the valid time period and an initial temperature within the valid time period; determining a second specific time point according to the slope at or before the first specific time point; calculating a value of temperature y according to an hyperbolic formula; determining a final temperature of the object according to the maximum slope of the temperature curve in the valid time period, the initial temperature of the temperature curve in the valid time period, and the value of temperature y.