Abstract: Chip moving device is provided. The chip moving device includes a base, including a mounting portion that includes an end surface and an assembly cavity extending in a horizontal direction and penetrating through the end surface, the end surface being arranged with a limiting component; an adsorption part, extending in a vertical direction and confined by the limiting component; and a clamping component, arranged in the assembly cavity and including an end extending out of the end surface of the mounting portion, the clamping component being configured to be telescopic in the horizontal direction, and provide the adsorption part with a clamping force in the horizontal direction when the clamping component is extended or contracted.

Abstract: The present disclosure includes a die inspection sorting system and a formation method. The die inspection sorting system includes a turntable and a plurality of die picking assemblies installed at an equal interval along a circumferential direction at an edge of the turntable. The die picking assembly includes a vertical support frame, a base installed on a front side of the vertical support frame, a suction rod installed vertically on a side of the base away from the vertical support frame, and a clamping strip. The limiting groove is disposed on a front end surface of the base; an installation groove is disposed on the front end surface of the base; a movable block is inserted in the installation groove; and a spring in a compressed state is connected between a rear end of the movable block and a bottom surface of the installation groove.

Abstract: The present disclosure includes an adaptive die test socket and a formation method. The die test socket includes an upper test socket and a lower test socket disposed directly below the upper test socket. The upper test socket is connected to a support frame; a strip-shaped through hole is formed on an upper surface of the support frame; a first protruding strip is at each of lower portions of two opposite inner walls of the strip-shaped through hole; a corresponding second protruding strip is at each of upper portions of two opposite side surfaces of the installation plate; and a side of a strip-shaped block is fixedly connected to the upper surface of the support frame, and another side of the strip-shaped block extends to directly above the second protruding strip and is connected to the second protruding strip through at least two springs.

Abstract: The present disclosure includes a die test pressing-down apparatus and a formation method. The die test pressing-down apparatus includes a support frame capable of moving along a vertical direction; and a pressing-down block installed on the support frame. A part to-be-pressed is disposed directly below the pressing-down block. The pressing-down block is connected to the support frame through an installation plate; a strip-shaped through hole is formed at an upper surface of the support frame; a first protruding strip is at each lower portion of two opposite inner walls of the strip-shaped through hole; a corresponding second protruding strip is at each upper portion of two opposite side surfaces of the installation plate; and a side of a strip-shaped block is fixedly connected to the upper surface of the support frame, and another side of the strip-shaped block is connected to the second protruding strip through at least two springs.

Abstract: The present disclosure provides an adaptive die testing apparatus and a formation method. The adaptive die testing apparatus includes a support frame capable of moving along a vertical direction; a movable panel capable of moving along a horizontal direction; an upper test socket installed on the support frame; and a lower test socket installed on the movable panel and capable of moving with the movable plate to directly below the upper test socket. A groove is formed on a lower surface of the upper test socket and/or an upper surface of the lower test socket. When the adaptive die testing apparatus is at a testing state, the lower surface of the upper test socket is in a close contact with the upper surface of the lower test socket, and a sealed chamber for placing a die to-be-tested is formed at a region of the groove.

Abstract: The present disclosure includes a die test pressing-down apparatus and a formation method. The die test pressing-down apparatus includes a support frame capable of moving along a vertical direction; and a pressing-down block installed on the support frame. A part to-be-pressed is disposed directly below the pressing-down block. The pressing-down block is connected to the support frame through an installation plate; a strip-shaped through hole is formed at an upper surface of the support frame; a first protruding strip is at each lower portion of two opposite inner walls of the strip-shaped through hole; a corresponding second protruding strip is at each upper portion of two opposite side surfaces of the installation plate; and a side of a strip-shaped block is fixedly connected to the upper surface of the support frame, and another side of the strip-shaped block is connected to the second protruding strip through at least two springs.

Abstract: The present disclosure includes an adaptive die test socket and a formation method. The die test socket includes an upper test socket and a lower test socket disposed directly below the upper test socket. The upper test socket is connected to a support frame; a strip-shaped through hole is formed on an upper surface of the support frame; a first protruding strip is at each of lower portions of two opposite inner walls of the strip-shaped through hole; a corresponding second protruding strip is at each of upper portions of two opposite side surfaces of the installation plate; and a side of a strip-shaped block is fixedly connected to the upper surface of the support frame, and another side of the strip-shaped block extends to directly above the second protruding strip and is connected to the second protruding strip through at least two springs.

Abstract: The present disclosure provides an automatic die pick-and-place apparatus and a formation method. The apparatus includes a main body; a suction nozzle rod installed on the main body; a clamping strip disposed above the main body, where a front end of the clamping strip extends outward from the main body; and a guiding assembly disposed on a front end surface of the main body and on two sides of the suction nozzle rod. The first spring is vertically disposed and connected between the clamping strip and a lower portion of the main body; an installation groove is formed on the front end surface of the main body; a magnetic block is inserted in the installation groove; a magnetic installation block is sleeved on the suction nozzle rod and attracted to be connected to the magnetic block; and a limiting block is installed on a front portion of the main body.

Abstract: A probe mounting structure and a wafer-level reliability test system are provided. The probe mounting structure includes a probe mounting plate. The probe mounting plate is provided with mounting holes penetrating through a thickness direction of the probe mounting plate. A volume of each mounting hole is smaller than a preset value and is used to install a corresponding probe. Two ends of each probe are respectively connected to a corresponding first pad on a circuit board and a corresponding die of a wafer under test. Two sides of the probe mounting plate are in contact with the test circuit board and the wafer under test respectively, such that each of the mounting holes forms a sealed chamber. The mounting holes are filled with high-pressure gas to ensure that the wafer under test does not spark during high-voltage testing.

Abstract: Chip moving device is provided. The chip moving device includes a base, including a mounting portion that includes an end surface and an assembly cavity extending in a horizontal direction and penetrating through the end surface, the end surface being arranged with a limiting component; an adsorption part, extending in a vertical direction and confined by the limiting component; and a clamping component, arranged in the assembly cavity and including an end extending out of the end surface of the mounting portion, the clamping component being configured to be telescopic in the horizontal direction, and provide the adsorption part with a clamping force in the horizontal direction when the clamping component is extended or contracted.

Abstract: Chip testing device and package testing machine are provided. The chip testing device includes an upper base and a lower base, the upper base being above the lower base and being pressed against the lower base, and a top of the lower base featuring a first mounting part for mounting a test chip and a second mounting part beneath the first mounting part; a first test probe, penetrating the upper base and contacts the test chip to obtain an electrical signal of the test chip; a heat sink base, at the second mounting part and contacting the test chip to transfer a received heat to the test chip; and a first temperature sensor in the heat sink base to measure an actual temperature of the test chip.

Abstract: The present disclosure relates to editing an object that includes playing a posted object on a current play page. The current play page includes a re-editing component, and the posted object includes an original object and object configuration information. In response to detecting an edit instruction triggered by the re-editing component, an edit page is jumped to. The edit page includes an updating component. In response to detecting an update instruction triggered by the updating component, the object configuration information is updated and the updated object configuration information is displayed on the edit page. The updated object configuration information includes configuration information associated with content of the original object. In response to detecting an upload instruction, the updated object configuration information is updated and when a user terminal plays an updated posted object, the played content includes the original object and the updated object configuration information.

Abstract: A computer-implemented method includes positioning a sliding window over a string of data and calculating a hash value using a rolling hash function for data encompassed by the sliding window. The method includes determining whether the calculated hash value for the data encompassed by the sliding window matches the value of an element in a cut point candidate (CPC) array by comparing the calculated hash value to the value of a first element in the CPC array. In response to the calculated hash value being equal to the value of the first element in the CPC array, the method includes defining an index of the sliding window as the cutting point for a data block.

Abstract: A fatigue detecting method includes: obtaining an eye image of a driver (S101); inputting the eye image into a target convolutional neural network, to obtain eye-state data contained in the eye image, wherein the eye-state data represents a degree of opening of an eye of the driver, and the target convolutional neural network is obtained by training a convolutional neural network by using eye-image samples that are collected in advance (S102); and in a condition that respective eye-state data of a plurality of frames of eye images are obtained, according to the respective eye-state data of the plurality of frames of eye images, determining whether the driver is in a fatigue state (S103). Therefore, the method can more easily determine whether the driver is in the fatigue state, and, by using the target convolutional neural network, can realize real-time detection on whether the driver is in the fatigue state.

Abstract: A computer-implemented method, according to one embodiment, includes: sending one or more instructions to a web crawler to identify presentation videos on the internet and capture video data therefrom. In response, video data which corresponds to various presentation videos on the internet is received from the web crawler. The video data is used to define influence factors, such that different combinations of the influence factors represent different conditions of a presenter in the presentation videos. The video data is also used to define labels, where different combinations of the labels represent different conditions of one or more audience members in the presentation videos. Furthermore, structured data is generated by correlating certain presenter conditions with certain audience conditions, and the structured data is stored in memory.

Abstract: A computer-implemented method includes positioning a sliding window over a string of data and calculating a hash value using a rolling hash function for data encompassed by the sliding window. The method includes determining whether the calculated hash value for the data encompassed by the sliding window matches the value of an element in a cut point candidate (CPC) array by comparing the calculated hash value to the value of a first element in the CPC array. In response to the calculated hash value being equal to the value of the first element in the CPC array, the method includes defining an index of the sliding window as the cutting point for a data block.

Abstract: A computer-implemented method, according to one embodiment, includes: sending one or more instructions to a web crawler to identify presentation videos on the internet and capture video data therefrom. In response, video data which corresponds to various presentation videos on the internet is received from the web crawler. The video data is used to define influence factors, such that different combinations of the influence factors represent different conditions of a presenter in the presentation videos. The video data is also used to define labels, where different combinations of the labels represent different conditions of one or more audience members in the presentation videos. Furthermore, structured data is generated by correlating certain presenter conditions with certain audience conditions, and the structured data is stored in memory.

Abstract: The ATCA backplane of the present invention comprises a front backplane and a rear backplane. The front backplane and the rear backplane are interconnected through a connector; each backplane at least comprises slots of a node board, and each rear backplane at least comprises slots of a node board. Furthermore, slots of a switch board could be arranged on at least one backplane of the ATCA backplane. Therefore, it is guaranteed by the ATCA backplane of the present invention that node boards could be inserted into both the front backplane and the rear backplane included in the ATCA backplane. Therefore, the number of slots of node boards is increased, slot resources are extended and system processing capability is improved.

Abstract: The ATCA backplane of the present invention comprises a front backplane and a rear backplane. The front backplane and the rear backplane are interconnected through a connector; each backplane at least comprises slots of a node board, and each rear backplane at least comprises slots of a node board. Furthermore, slots of a switch board could be arranged on at least one backplane of the ATCA backplane. Therefore, it is guaranteed by the ATCA backplane of the present invention that node boards could be inserted into both the front backplane and the rear backplane included in the ATCA backplane. Therefore, the number of slots of node boards is increased, slot resources are extended and system processing capability is improved.

Abstract: An oral airway includes a curved body having a front wall which includes a concave portion of the body, and a rear wall which includes a convex portion of the body. The front wall is configured to translate relative to the rear wall, while remaining engaged with the rear wall. In addition, the rear wall is formed of a first material, and at least a portion of the front wall is formed of a second material, the second material being relatively flexible as compared to the first material.