Abstract: The present disclosure provides a display panel and a display device, the display panel includes: an array substrate and an opposite substrate disposed oppositely, the array substrate having a ground terminal, the opposite substrate including a black matrix and a transparent conductive layer, the black matrix including a first part, a second part and an isolation trench which are sequentially disposed, and the isolation trench isolating the first part from the second part; a conductive adhesive connecting the ground terminal with the transparent conductive layer, a part of the conductive adhesive being between the array substrate and the opposite substrate, and orthographic projections of the part of the conductive adhesive and the first part on the array substrate being not overlapped; and a blocking structure in contact with the part of the conductive adhesive and configured for preventing the conductive adhesive from overflowing to the first part.

Abstract: A method for implementing multimedia interaction includes displaying a first user interface that includes a virtual building representing an entrance to a multimedia interaction room and a virtual object that are located in a virtual scene, in response to a movement control operation on the virtual object, displaying that the virtual object moves from a first position to a second position in the virtual scene, and, in response to that the virtual object satisfies an entry condition of the virtual building, displaying a second user interface that includes the virtual building, the virtual object, and an interaction control. The entry condition at least includes the second position being within an effective response range of the virtual building.

Abstract: The present disclosure provides a display panel and a display device, the display panel includes: an array substrate and an opposite substrate disposed oppositely, the array substrate having a ground terminal, the opposite substrate including a black matrix and a transparent conductive layer, the black matrix including a first part, a second part and an isolation trench which are sequentially disposed, and the isolation trench isolating the first part from the second part; a conductive adhesive connecting the ground terminal with the transparent conductive layer, a part of the conductive adhesive being between the array substrate and the opposite substrate, and orthographic projections of the part of the conductive adhesive and the first part on the array substrate being not overlapped; and a blocking structure in contact with the part of the conductive adhesive and configured for preventing the conductive adhesive from overflowing to the first part.

Abstract: A method includes receiving a clinical data table for a patient. The clinical data table stores clinical data associated with the patient in tabular form. The method also includes extracting, from the clinical data table, one or more categorical features and one or more continuous features, and determining, using a clinical prediction model, one or more predicted clinical outcomes for the patient based on the one or more categorical features and the one or more continuous features extracted from the clinical data table. The method also includes providing, for output from a client device associated with a user, the one or more predicted clinical outcomes for the patient.

Abstract: A method includes obtaining a first training data set including unannotated multi-dimensional medical images and executing a self-supervised masked image modeling (MIM) training process to pre-train an image encoder on the first training data set. The method also includes obtaining a second training data set that includes annotated multi-dimensional medical images. Here, each annotated multi-dimensional medical image includes a plurality of image voxels each paired with a corresponding ground-truth label indicating a class the corresponding image voxel belongs to. The method also includes executing a supervised training process to train an image analysis model on the second training data set to teach the image analysis model to learn how to predict the corresponding ground-truth labels for the plurality of image voxels of each annotated multi-dimensional medical image. The image analysis model incorporates the pre-trained image encoder.

Abstract: The present disclosure relates to the technical field of a multi-chip system, and provides a master chip, a salve chip, and an inter-chip DMA transmission system. The master chip is connected to the slave chip through at least one first transmission channel (17) and a second transmission channel (18). The master chip includes a DMA controller (2) and an MCU (3). For each of the first transmission channels, when it is detected that any first transmission channel (17) is in an idle state, the MCU (3) configures one of a plurality of first peripherals (12) of the slave chip into a DMA mode. The DMA controller (2) is configured to receive, through the first transmission channel (17), a DMA request (req_s_0-req_s_N) generated by the first peripheral (12) in the DMA mode, and obtain a DMA data of the first peripheral (12) through the second transmission channel (18).

Abstract: The present disclosure relates to the field of a multi-chip system, and provides an interrupt processing method, a master chip, a slave chip, and a multi-chip system. An interrupt processing method is applied to a master chip and includes: when an interrupt transport request sent by a slave chip through an interrupt line is detected, obtaining all current interrupt requests (irq_s_1-irq_s_N) of the slave chip, the interrupt request (irq_s_1_-irq_s_N) is generated by a first peripheral (4) of the slave chip; obtaining an interrupt subroutine corresponding to each of the interrupt requests (irq_s_1-irq_s_N), and processing the corresponding interrupt request (irq_s_1-irq_s_N) by using the interrupt subroutine. In the embodiments of the present disclosure, all the interrupt requests (irq_s_1-irq_s_N) of the slave chip are mapped to the master chip, so that the interrupt processing flow of the peripheral on the slave chip is simplified.

Abstract: The present disclosure relates to the field of a multi-chip system, and provides an interrupt processing method, a master chip, a slave chip, and a multi-chip system. An interrupt processing method is applied to a master chip and includes: when an interrupt transport request sent by a slave chip through an interrupt line is detected, obtaining all current interrupt requests (irq_s_1-irq_s N) of the slave chip, the interrupt request (irq_s_1_-irq_s_N) is generated by a first peripheral (4) of the slave chip; obtaining an interrupt subroutine corresponding to each of the interrupt requests (irq_s_1-irq_s N), and processing the corresponding interrupt request (irq_s_1-irq_s N) by using the interrupt subroutine. In the embodiments of the present disclosure, all the interrupt requests (irq_s_1-irq_s_N) of the slave chip are mapped to the master chip, so that the interrupt processing flow of the peripheral on the slave chip is simplified.

Abstract: The present disclosure relates to the technical field of a multi-chip system, and provides a master chip, a salve chip, and an inter-chip DMA transmission system. The master chip is connected to the slave chip through at least one first transmission channel (17) and a second transmission channel (18). The master chip includes a DMA controller (2) and an MCU (3). For each of the first transmission channels, when it is detected that any first transmission channel (17) is in an idle state, the MCU (3) configures one of a plurality of first peripherals (12) of the slave chip into a DMA mode. The DMA controller (2) is configured to receive, through the first transmission channel (17), a DMA request (req_s_0-req_s_N) generated by the first peripheral (12) in the DMA mode, and obtain a DMA data of the first peripheral (12) through the second transmission channel (18).