Abstract: A job processing method based on a cloud service includes: receiving a job request and obtaining an identification string of the job according to the job request by a job scheduler, sending the identification string to a memory cache and generating a worker by the job scheduler, obtains the identification string from the memory cache and obtaining data from a database according to the identification string by the worker, and executing the job based on the data and sending a result of the job to the database by the worker.

Abstract: A hierarchical file parsing method includes: obtaining a reference string; obtaining a plurality of first strings from a plurality of files, wherein each file includes a table with a plurality of text fields and a plurality of numerical fields, and each first string is associated with the plurality of text fields; calculating a first similarity between the reference string and each first string, filtering out a plurality of candidate files from the plurality of files, obtaining a plurality of second strings from the plurality of candidate files, wherein the plurality of second strings is associated with the plurality of text fields, calculating a second similarity between the reference string and each second string, and outputting one of the plurality of numerical fields according to each second string when the second similarity is greater than a second threshold.

Abstract: A cooling assembly is configured for at least one electronic module. The cooling assembly includes at least one thermally conductive plate and at least one cooling pipe. The thermally conductive plate is configured to be attached on one surface of the electronic module. The cooling pipe is configured to be in thermal contact with one side of the thermally conductive plate located farther away from the electronic module. The cooling pipe comprises a pipe wall, and the pipe wall surrounds and forms a fluid channel. The pipe wall of the at least one cooling pipe has a thermally conductive characteristic, and the pipe wall of the at least one cooling pipe is elastically deformable in response to a pressure variation in the fluid channel.

Abstract: A tire-size identification method includes the following steps. An object-detection model frames a tire image in an image to generate a framed tire image. The framed tire image is input into an image-segmentation model. The image-segmentation model outputs the tire inner diameter of the tire. Moreover, the tire inner diameter is input into a classification model. The classification model outputs the tire size.

Abstract: A prediction-model-building method includes: generating a plurality of pieces of augmented training data after a piece of training data with a missing item is determined; constituting a training dataset comprising pieces of training data without any missing item and the plurality of pieces of augmented training data; and building a prediction model based on the training dataset by a machine-learning algorithm. Similarly, a state prediction method includes: generating a plurality of pieces of estimation augmented data after a piece of source data with a missing item is determined; inputting the said plurality of pieces of estimation augmented data into a prediction model; and outputting a predicted state based on the output of the prediction model. Devices for performing the above methods are also disclosed.

Abstract: A casing assembly includes a casing, a cover and a bezel. The casing is configured to support a display panel and configured to be connected to a pivot component. The casing has a bottom surface, a side surface, a first mount structure and a second mount structure, the bottom surface is connected to the side surface, and the first mount structure and the second mount structure are respectively located at the bottom surface and the side surface. The cover includes a covering portion, a first mount portion and a second mount portion. The first mount portion and the second mount portion are connected to the covering portion, the first mount portion and the second mount portion are respectively connected to the first mount structure and the second mount structure of the casing. The bezel is removably connected to the cover and the casing.

Abstract: An electronic apparatus includes a casing assembly and an electronic assembly. The casing assembly includes a casing and a heat dissipation unit. The heat dissipation unit is disposed in the casing and includes a heat dissipation main body. The heat dissipation main body is provided with a first inclined surface. The electronic assembly is slidably mounted in the casing and includes an electronic unit and a thermal interface material. The electronic unit includes an electronic main body, the electronic main body is provided with a second inclined surface. The thermal interface material is disposed on the second inclined surface of the electronic unit, and the thermal interface material is in contact with the first inclined surface of the heat dissipation unit so as to thermally couple the electronic assembly with the heat dissipation unit.

Abstract: An electronic device includes a device casing, a display panel module disposed on the device casing and having a panel rear side, and a function module disposed between the device casing and the display panel module and comprising a function unit and a fixed bracket, the fixed bracket has a panel attaching surface and an installation surface, the fixed bracket is attached to the panel rear side via the panel attaching surface, the function unit is slidably disposed on the installation surface of the fixed bracket, and the installation surface and the panel attaching surface respectively face different directions.

Abstract: A temperature controlling structure and a filter assembly including the same are provided, where the temperature controlling structure includes a bottom portion and a surrounding portion connected to the bottom portion, the bottom portion is configured for a filter cup detachably disposed thereon so that the filter cup is surrounded by an accommodation space defined by the surrounding portion and the bottom portion.

Abstract: A monitor includes a casing assembly, a light-emitting module and a display panel. The casing assembly includes a casing and a support frame. The support frame is disposed in the casing. The support frame includes an accommodation portion and at least one support portion, the accommodation portion is connected to the casing, the support portion is connected to the accommodation portion and protrudes from the accommodation portion. The light-emitting module is disposed in the accommodation portion. The display panel is supported by the at least one support portion.

Abstract: A base mechanism is adapted for a function module and an device main part and includes a mount and a connecting component, the mount is partially disposed in the device main part, the connecting component is connected to the function module and movably disposed on the mount, and the function module is movable with respect to the mount via the connecting component.

Abstract: A filter container includes a main part and a filter piece, the main part includes a surrounding portion, an opening, and a coupling portion, the opening and the coupling portion are respectively located at two opposite sides of the surrounding portion, the filter piece is arranged at the coupling portion.

Abstract: A quick releasing mechanism includes an engagement component and a releasing component. The engagement component includes an arm structure. The arm structure has an engagement part. The releasing component is movably disposed on the engagement component. The releasing component includes a pressing protrusion for selectively pressing against the arm structure. When the releasing component is moved relative to the engagement component, the pressing protrusion of the releasing component presses against the arm structure to force the engagement part to rotate relative to the releasing component.

Abstract: A connector assembly includes a connector and a baffle, the connector includes a base part, two latches, and a first engagement structure, the two latches are respectively disposed at two opposite ends of the base part, and the first engagement structure extends outwardly from the base part, the baffle includes a main portion and a second engagement structure connected to the main portion, the first engagement structure is selectively connected to the second engagement structure for the baffle to be fixed on the connector.

Abstract: A temperature compensation method for a weighing device, wherein the scale is provided with a temperature sensor, the method is performed by a processor, and includes, when the scale is powered on: receiving a first ambient temperature from the temperature sensor at a first time point; receiving a second ambient temperature from the temperature sensor at a second time point; obtaining a first compensation value associated to a default temperature threshold and a relationship between the first ambient temperature and the second ambient temperature, and obtaining a cumulative compensation value updated by the default temperature threshold; and obtaining a calibrated target temperature that is a target temperature of a subject sensed by the temperature sensor being calibrated by the cumulative compensation value, wherein the first time point is earlier than the second time point. The present disclosure also provides a weighing device with temperature sensing function.

Abstract: A filter container includes a main part and a filter piece, the main part includes a surrounding portion, an opening, and a coupling portion, the opening and the coupling portion are respectively located at two opposite sides of the surrounding portion, the filter piece is arranged at the coupling portion.

Abstract: A method for accessing a service is applicable between a host and a device. Service data associated with the service are searched. The service code is sought to determine if it is available or not based on the service data. The service code and the user interface are accessed through a first port number included in the service data if the service code is available. The service code is executed to access the service if the service code is accessed. The status of the device is obtained through the service. The status of the device is displayed on the user interface. The method separates the plug-in program from the main program, which can achieve more flexible development and reduce integration time. When the method puts the user interface on the device side, it can achieve the goal of cross-platform integration and reduce the development time for different platforms.

Abstract: A detection system adapted for a liquid-cooling system includes a pressurizing device and at least one pressure sensor, the pressurizing device is configured to connect to and to pressure the liquid-cooling system, the pressure sensor is configured to measure a transient pressure response in response to detecting residual air bubbles in the liquid-cooling system.

Abstract: A baffle shroud assembly includes a baffle shroud, a holding component, and a sheet component, where the baffle shroud has a channel portion and an opening formed and in communication with a side of the channel portion, the holding component is movably disposed on the baffle shroud and located at the opening, the sheet component is swingably disposed on the baffle shroud and in contact with the holding component, and the holding component and the sheet component together cover the opening.

Abstract: An electronic device is provided, and the electronic device includes a base, a cover plate, and a bezel. The base has a sidewall where an opening portion is formed. An airflow selectively passes through the opening portion. The cover plate is pivotally connected to the base. The bezel is movably connected to the cover plate, wherein the bezel is rotated facing the opening portion selectively. The arrangement of the bezel may reduce the gap between the bezel and the down edge of the opening portion of the base, reducing the airflow flowing downward back to the heat-dissipation mechanism in the base. Therefore, the heat-dissipation efficiency of the electronic device is enhanced.