Abstract: An electronic package is provided and includes a substrate structure, an electronic element disposed on the substrate structure and an encapsulation layer encapsulating the electronic element, where at least one functional circuit is formed on a surface of a substrate body of the substrate structure, and a wire having a smaller width is arranged on a boundary line at a junction between an encapsulation area and a peripheral area, so that when a mold for forming the encapsulation layer is formed to cover the substrate structure, the mold will create a gap around the wire to serve as an exhaust passage. Therefore, when the encapsulation layer is formed, the exhaust passage can be used to exhaust air, so as to avoid problems such as the occurrence of voids or overflows of the encapsulation layer.

Abstract: The present invention relates to a composite membrane. The composite membrane includes: an elastic polymer substrate having a first surface processed by a surface modification; and a thermosensitive conductive layer formed on the first surface by performing a co-polymerization process, allowing an electrical current to pass through, and altering a hydrophilicity of a membrane surface in response to a change of a temperature.

Abstract: An electronic package is provided and includes a substrate structure and an electronic element disposed on the substrate structure. The substrate structure is provided with a plurality of circuits and a reinforcing portion that is free from being electrically connected to the plurality of circuits on a surface of a substrate body of the substrate structure, such that the electronic element is electrically connected to the plurality of circuits and is free from being electrically connected to the reinforcing portion, and the reinforcing portion includes a dummy pad and a trace line connected to the dummy pad to increase a layout area of the reinforcing portion on the substrate body. Therefore, the adhesion of the reinforcing portion can be improved, and the electronic element can be prevented from cracking.

Abstract: The present invention relates to a composite membrane. The composite membrane includes: an elastic polymer substrate having a first surface processed by a surface modification; and a thermosensitive conductive layer formed on the first surface by performing a co-polymerization process, allowing an electrical current to pass through, and altering a hydrophilicity of a membrane surface in response to a change of a temperature.

Abstract: The present invention relates to a bioreactor. The bioreactor includes a fluidic channel layer including a set of channels configured to generate a suction caused by a negative pressure or a retrieval force caused by a positive pressure; an elastic conductive layer configured with a pair of electrodes, configured on the fluidic channel layer, driven by the suction or the retrieval force to have a deformation toward a deformation direction, and receiving a voltage difference by the pair of the electrodes to form an electrical field along an electrical field direction; and a culture layer configured on the elastic conductive layer and providing for a biological tissue to culture in vitro on the elastic conductive layer.

Abstract: A casing includes a cover and a frame coupled to the cover. The frame includes a base body and a plurality of non-conductive portions. The base body defines a plurality of gaps spaced from each other. The non-conductive portions are correspondingly inserted into the gaps to insulate opposite sides of each gap. A manufacturing method and an electronic device of the casing are also provided.

Abstract: A casing includes a cover and a frame coupled to the cover. The frame includes a base body and a plurality of non-conductive portions. The base body defines a plurality of gaps spaced from each other. The non-conductive portions are correspondingly inserted into the gaps to insulate opposite sides of each gap. A manufacturing method and an electronic device of the casing are also provided.

Abstract: A cut piece includes a first surface, and a second surface opposite to the first surface. The first surface has at least two grooves, forming at least one support plate located between each two adjacent grooves. The second surface has a plurality of gaps. Each groove is connected with at least one gap.

Abstract: A device for applying a magnetic field to a container comprises an adjustable magnetic field generator. The adjustable magnetic field generator is adjacent to the container and has a magnet having one magnetic pole adjacent a wall of the container and another magnetic pole away from the wall of the container. The adjustable magnetic field generator comprises a magnet. The intensity of magnetic field applied to the container gradually decreases from the container wall adjacent the magnetic pole of the magnet to the opposite container wall. Method for coloring anode coatings using the coloring device is also provided.

Abstract: A device for applying a magnetic field to a container comprises an adjustable magnetic field generator. The adjustable magnetic field generator is adjacent to the container and has a magnet having one magnetic pole adjacent a wall of the container and another magnetic pole away from the wall of the container. The adjustable magnetic field generator comprises a magnet. The intensity of magnetic field applied to the container gradually decreases from the container wall adjacent the magnetic pole of the magnet to the opposite container wall. Method for coloring anode coatings using the coloring device is also provided.

Abstract: A device for applying a magnetic field to a container comprises an adjustable magnetic field generator. The adjustable magnetic field generator is adjacent to the container and has a magnet having one magnetic pole adjacent a wall of the container and another magnetic pole away from the wall of the container. The adjustable magnetic field generator comprises a magnet. The intensity of magnetic field applied to the container gradually decreases from the container wall adjacent the magnetic pole of the magnet to the opposite container wall. Method for coloring anode coatings using the device is also provided.

Abstract: A method for making a glass-and-plastic composite includes the following steps: providing a glass article; forming an activation solution containing hydrolyzed silane coupling agent; coating the activation solution on the surface of the glass article and drying the activation solution to form a silane coupling agent layer; coating a fluid glue on the silane coupling agent layer and drying the fluid glue to form a glue layer; and forming a plastic article on the glue layer by injection molding. The plastic article firmly bonds with the glass article.

Abstract: A device for applying a magnetic field to a container comprises an adjustable magnetic field generator. The adjustable magnetic field generator is adjacent to the container and has a magnet having one magnetic pole adjacent a wall of the container and another magnetic pole away from the wall of the container. The adjustable magnetic field generator comprises a magnet. The intensity of magnetic field applied to the container gradually decreases from the container wall adjacent the magnetic pole of the magnet to the opposite container wall. Method for coloring anode coatings using the device is also provided.

Abstract: A housing includes a substrate, a wood-grain material layer, and a protective layer. The wood-grain material layer is formed on the substrate and includes a wood-grain surface. The protective layer is formed on the wood-grain surface. The protective layer is made of transparent resin.

Abstract: The present invention relates to a method for bonding two surfaces to one another. The invention particularly pertains to the use of such method in which one of the surfaces is a polymeric plastic (and more preferably a polymeric thermoplastic (especially poly-(methyl methacrylate) (“PMMA”) or cyclic olefin copolymer (“COC”)). More particularly, the invention relates to treating at least one of the contacting surfaces with UV in the presence of oxygen to thereby generate ozone (O3) and atomic oxygen under conditions of temperature below that of the glass transition temperature of the polymeric plastic. The UV/O3-mediated bonding results in high bond strength and zero-deformation method. This bonding method can be applied to micro/nano-scale polymer devices, and particularly to microfluidic devices, for a low cost, high throughput, high yield advantage.

Abstract: A nano/micro-structure and a fabrication method thereof are provided. The method combines electroless plating and metal-assist etching to fabricate nano/micro-structure on a silicon substrate.

Abstract: The present invention relates to a method for bonding two surfaces to one another. The invention particularly pertains to the use of such method in which one of the surfaces is a polymeric plastic (and more preferably a polymeric thermoplastic (especially poly-(methyl methacrylate) (“PMMA”) or cyclic olefin copolymer (“COC”)). More particularly, the invention relates to treating at least one of the contacting surfaces with UV in the presence of oxygen to thereby generate ozone (O3) and atomic oxygen under conditions of temperature below that of the glass transition temperature of the polymeric plastic. The UV/O3-mediated bonding results in high bond strength and zero-deformation method. This bonding method can be applied to micro/nano-scale polymer devices, and particularly to microfluidic devices, for a low cost, high throughput, high yield advantage.