Abstract: The present disclosure provides a method and system architectures for carrying out the method of automated marine life object classification and identification utilising a core of a Deep Neural Network, DNN, to facilitate the operations of a post-processing module subnetwork such as instance segmentation, masking, labelling, and image overlay of an input image determined to contain one or more target marine life objects. Multiple instances of target objects from the same image data can be easily classified and labelled for post-processing through application of a masking layer over each respective object by a semantic segmentation network.

Abstract: The present application discloses a display panel and a preparation method thereof, and a display device. The display panel includes a base substrate, and has a display area, a peripheral area surrounding the display area, a hole area located at the display area, and an isolation area located between the hole area and the display area. The display area includes an electroluminescent device located on the base substrate, and a packaging structure for sealing the electroluminescent device, the packaging structure includes an inorganic packaging layer and an organic packaging layer alternately stacked, and the inorganic packaging layer extends to the hole area. The isolation area includes an organic layer located on the inorganic packaging layer.

Abstract: The present disclosure provides an integrated collection, filtration, and analysis system which is configured to automatically collect fluid samples from a surrounding open water environment, isolate floating particles of a target size range, and perform analysis on the collected particles in-situ. The particles may also be filtered by one or more parameters other than size, and also provided herein is a two-stage vortex filter specially adapted to isolate floating particles of a desired density range from a fluid.

Abstract: A flexible display device and an electronic device are provided. The flexible display device includes a display substrate, a polarizer and a first optical adhesive layer that are sequentially stacked, and is provided with a display area and a first corner area. In the first corner area, an outer contour of the polarizer and/or an outer contour of the first optical adhesive layer extend(s) beyond an outer contour of the display substrate. The display substrate includes an anti-crack base, an anti-crack retaining wall, and a plurality of anti-crack blocks that are at least located in the first corner area. The anti-crack retaining wall is formed on the anti-crack base and located outside of the display area, and the plurality of anti-crack blocks are formed on the anti-crack base and located on the side of the anti-crack retaining wall away from the display area.

Abstract: The present application discloses a display panel and a preparation method thereof, and a display device. The display panel includes a base substrate, and has a display area, a peripheral area surrounding the display area, a hole area located at the display area, and an isolation area located between the hole area and the display area. The display area includes an electroluminescent device located on the base substrate, and a packaging structure for sealing the electroluminescent device, the packaging structure includes an inorganic packaging layer and an organic packaging layer alternately stacked, and the inorganic packaging layer extends to the hole area. The isolation area includes an organic layer located on the inorganic packaging layer.

Abstract: Provided is a conduction inspection device member, wherein cracks and voids are less likely to form in conductive parts, conduction performance is less likely to be impaired even when a conduction test is repeated, and contact marks are less likely to remain in the portion of the member in contact with a member to be tested. Also provided is a conduction inspection device comprising the conduction inspection device member. The conduction inspection device member comprises a substrate 13, through holes 11, and conductive parts 12. The multiple through holes 11 are arranged in the substrate 13, the conductive parts 12 are housed inside the through holes 11, and the conductive parts 12 contain conductive particles 2. The conductive particles 2 each comprise a substrate particle 21 and a conductive layer 22 on the surface of the substrate particle 21. The conductive layer 22 has multiple protrusions 23 on the outer surface thereof.

Abstract: Provided is a conduction inspection device member, wherein cracks and voids are less likely to form in conductive parts, conduction performance is less likely to be impaired even when a conduction test is repeated, and contact marks are less likely to remain in the portion of the member in contact with a member to be tested. Also provided is a conduction inspection device comprising the conduction inspection device member. The conduction inspection device member comprises a substrate 13, through holes 11, and conductive parts 12. The multiple through holes 11 are arranged in the substrate 13, the conductive parts 12 are housed inside the through holes 11, and the conductive parts 12 contain conductive particles 2. The conductive particles 2 each comprise a substrate particle 21 and a conductive layer 22 on the surface of the substrate particle 21. The conductive layer 22 has multiple protrusions 23 on the outer surface thereof.