Abstract: A manufacturing method of an electronic package includes the following steps. A first interfacial dielectric layer is formed to cover sides of multiple first conductive vias and multiple second conductive vias. Multiple chips are directly bonded to the first and second conductive vias. A base dielectric layer is formed to fill a gap between the adjacent chips. A bridge element is directly bonded to the first conductive vias, such that the bridge element partially overlaps the adjacent chips respectively. A second interfacial dielectric layer and multiple third conductive vias are formed on the first interfacial dielectric layer and the bridge element. A redistribution circuit structure is formed on the second interfacial dielectric layer and the third conductive vias. Multiple conductive bumps are formed on the redistribution circuit structure. An electronic package is also provided.

Abstract: A pulmonary function identifying and treating method includes: obtaining a first image, having first image elements, and a second image, having second image elements, respectively corresponding to a first state and a second state of a lung; extracting first feature points of the first image and second feature points of the second image; registering the first image with the second image using a boundary point set registration method and an inner tissue registration method according to the first feature points and the second feature points, so that the first image elements correspond to the second image elements and tissue units of the lung; determining functional index values representative of the tissue units of the lung using a ventilation function quantification method according to the first image elements and the second image elements corresponding to the first image elements; and treating the lung according to the functional index values.

Abstract: The present disclosure relates to a multi-dimensional image sensor integrated chip (IC) structure. The multi-dimensional image sensor IC structure includes a plurality of image sensing elements disposed within a plurality of pixel regions arranged in a pixel array of a first integrated chip (IC) tier. The plurality of pixel regions include a plurality of active pixel regions and one or more dummy pixel regions. A plurality of pixel support devices are disposed on a second substrate within a second IC tier that is bonded to the first IC tier. A plurality of logic devices are disposed within a third IC tier that is bonded to the second IC tier. A through substrate via (TSV) extends vertically through the second substrate laterally outside of the plurality of pixel support devices and directly below the pixel array.

Abstract: Embodiments of the present invention provide computer-implemented methods, computer program product, and computer systems. One or more processors assign an identifier that specifies a number of resources and a category associated with a respective image layer of a plurality of image layers. One or more processors, in response to receiving a user request, identify image layers of the plurality of image layers that match the identifier based on dependencies between the plurality of image layers. One or more processors can retrieve matched layers based on the functionality of respective image layers and the dependencies of those respective image layers.

Abstract: A semiconductor device includes a substrate, an active structure, a first dielectric layer and a second dielectric layer. The active structure is formed on the substrate and includes an active channel sheet, wherein the active channel sheet has a first lateral surface. The first dielectric layer is formed above the active structure and has a recess, wherein the recess is recessed with respect to the first lateral surface of the active channel sheet. The second dielectric layer is formed within the recess and has a dielectric constant, wherein the dielectric constant is less than 3.9.

Abstract: A p-type doping region around an isolation structure provides additional electrical isolation between pixel sensors of a pixel array. As a result, current leakage from a floating node of one pixel sensor into another is reduced. Therefore, dark current is reduced, and performance of the pixel array is improved. Additionally, pixel noise caused by electrons trapped in the isolation structure may be reduced.

Abstract: A semiconductor package includes: a die having a conductive pad at a first side of the die; and a redistribution structure over the first side of the die and electrically coupled to the die. The redistribution structure includes: a first dielectric layer including a first dielectric material; a first via in the first dielectric layer, where the first via is electrically coupled to the conductive pad of the die; and a first dielectric structure embedded in the first dielectric layer, where the first dielectric structure includes a second dielectric material different from the first dielectric material, where the first dielectric structure laterally surrounds the first via and contacts sidewalls of the first via.

Abstract: A biocompatible magnetic material containing an iron oxide nanoparticle and one or more biocompatible polymers, each having formula (I) below, covalently bonded to the iron oxide nanoparticle: in which each of variables R, L, x, and y is defined herein, the biocompatible magnetic material contains 4-15% Fe(II) ions relative to the total iron ions. Also disclosed in a method of preparing the biocompatible magnetic material.

Abstract: A method for controlling a plurality of autonomous robots for performing environment maintenance operations includes: generating a setup command that indicates a selected location, a plurality of selected robots, an available time slot, and a distribution mode signal that indicates whether the selected robots are to be controlled based on the available time slot or an inputted priority section; and generating a plurality of sub-routes based on different parameters, depending on the distribution mode signal. The sub-routes are generated to be connected into an unbroken trail. Then, the sub-routes are transmitted to the selected robots, respectively, so as to control each of the selected robots to move along the respective one of the sub-routes.

Abstract: A method includes depositing a mask layer over a dielectric layer, patterning the mask layer to form a trench, applying a patterned photo resist having a portion over the mask layer, and etching the dielectric layer using the patterned photo resist as an etching mask to form a via opening, which is in a top portion of the dielectric layer. The method further includes removing the patterned photo resist, and etching the dielectric layer to form a trench and a via opening underlying and connected to the trench. The dielectric layer is etched using the mask layer as an additional etching mask. A polymer formed in at least one of the trench and the via opening is removed using nitrogen and argon as a process gas. The trench and the via opening are filled to form a metal line and a via, respectively.

Abstract: A light-emitting device array includes a first light-emitting device, a second light-emitting device, and a third light-emitting device. A first beam shaping structure of the first light-emitting device is configured to convert light emitted by a first light-emitting structure of first light-emitting device into first structured light. A second beam shaping structure of the second light-emitting device is configured to convert light emitted by a second light-emitting structure of second light-emitting device into second structured light. Speckle patterns and spatial distributions of the first structured light and the second structured light on a projection plane are the same. A third beam shaping structure of the third light-emitting device is configured to convert light emitted by a third light-emitting structure of third light-emitting device into third structured light.

Abstract: A semiconductor device structure and methods of forming the same are described. The method includes forming a fin structure from a substrate, depositing a first semiconductor material on a first semiconductor layer of the fin structure, depositing a second semiconductor material on the first semiconductor material, depositing an interlayer dielectric layer over the second semiconductor material, forming an opening in the interlayer dielectric layer to expose the second semiconductor material, and performing a dopant implantation process to form a doped region. The doped region includes a first portion of the second semiconductor material. Then, the method further includes performing an amorphization process to form an amorphous region, and the amorphous region includes a second portion of the second semiconductor material. The method further includes performing an annealing process to recrystallize the amorphous region.

Abstract: An image sensor structure and methods of forming the same are provided. An image sensor structure according to the present disclosure includes a semiconductor substrate including a photodiode, a transfer gate transistor disposed over the semiconductor substrate and having a first channel area, a first dielectric layer disposed over the semiconductor substrate, a semiconductor layer disposed over the first dielectric layer, a source follower transistor disposed over the semiconductor layer and having a second channel area, a row select transistor disposed over the semiconductor layer and having a third channel area, and a reset transistor disposed over the semiconductor layer and having a fourth channel area. The second channel area is greater than the first channel area, the third channel area or the fourth channel area.

Abstract: A device includes: a substrate having a semiconductor fin; a stack of semiconductor channels on the substrate and positioned over the fin; a gate structure wrapping around the semiconductor channels; a source/drain abutting the semiconductor channels; an inner spacer positioned between the stack of semiconductor channels and the fin; an undoped semiconductor layer vertically adjacent the source/drain and laterally adjacent the fin; and an isolation structure that laterally surrounds the undoped semiconductor layer, the isolation structure being between the source/drain and the inner spacer.

Abstract: Semiconductor structures and methods of forming the same are provided. In an embodiment, an exemplary semiconductor structure includes a first transistor. The first transistor includes a first gate structure wrapping around a plurality of first nanostructures disposed over a substrate, a first source/drain feature electrically coupled to a topmost nanostructure of the plurality of first nanostructures and isolated from a bottommost nanostructure of the plurality of first nanostructures by a first dielectric layer, and a first semiconductor layer disposed between the substrate and the first source/drain feature, wherein the first source/drain feature is in direct contact with a top surface of the first semiconductor layer.

Abstract: A semiconductor structure includes an isolation structure in a substrate, a metal gate structure over the substrate and a portion of the isolation structure, a spacer at sidewalls of the metal gate structure, epitaxial source/drain structure at two sides of the metal gate structure, and a protection layer over the isolation structure. The protection layer and the spacer include a same material.

Abstract: Various embodiments of the present disclosure are directed towards a shared frontside pad/bridge layout for a three-dimensional (3D) integrated circuit (IC), as well as the 3D IC and a method for forming the 3D IC. A second IC die underlies the first IC die, and a third IC die underlies the second IC die. A first-die backside pad, a second-die backside pad, and a third die backside pad are in a row extending in a dimension and overlie the first, second, and third IC dies. Further, the first-die, second-die, and third-die backside pads are electrically coupled respectively to individual semiconductor devices of the first, second, and third IC dies. The second and third IC dies include individual pad/bridge structures at top metal (TM) layers of corresponding interconnect structures. The pad/bridge structures share the shared frontside pad/bridge layout and provide lateral routing in the dimension for the aforementioned electrical coupling.

Abstract: A heat dissipation assembly is disclosed and includes a fan, a vapor chamber and a heat dissipation fin set. The fan includes a fan frame, an impeller and a fan cover. The impeller is disposed on the fan frame and accommodated in an accommodation space. The impeller includes plural metal blades and a hub, and the plural metal blades are radially arranged on the periphery of the hub to form a dense-metal-blade impeller. The fan cover is assembled with the fan frame to form an outlet, and the fan cover includes an inlet. The vapor chamber includes an upper plate and a lower plate assembled with each other. The upper plate or the lower plate is connected to the fan cover, and the vapor chamber and the fan cover are coplanar. The heat dissipation fin set is connected to the lower plate and spatially corresponding to the outlet.

Abstract: An electronic device is provided. The electronic device includes a frame, a working panel, a case, and an adhesive material. The frame includes a side wall and a back plate. The working panel is disposed on the back plate. The case is disposed on the frame and adjacent to the working panel. The adhesive material is disposed on the case. The side wall has an outer surface facing away from the working panel. In a cross-section view of the electronic device, a portion of the adhesive material is in contact with the outer surface of the side wall of the frame, and a length of the adhesive material is greater than or equal to 50% of a length of the side wall of the frame along an extension direction.

Abstract: The present invention provides a polyimide-based copolymer and electronic component and field effect transistor comprising the same. The polyimide-based copolymer comprises a copolymer of dianhydride and heterocyclic diamine, wherein the heterocyclic diamine has two benzene rings, and there are two ether bonds, two thioether bonds, or one ether bond and one thioether bond between the two benzene rings. The novel polyimide-based copolymer of the invention has excellent thermal-mechanical stability, has potential application prospects, and can be used as a substrate for flexible electronics.