Abstract: The present disclosure is related to a processing carrier module comprising a carrier layer and a container. The carrier layer comprises a carrier surface, a first lateral surface, and a second lateral surface. The first lateral surface is connected to carrier surface and has at least one first protruding structure. The second lateral surface is connected to carrier surface and has at least one second protruding structure. The first lateral surface is opposite to the second lateral surface. The container comprises at least one first fastening structure and at least one second fastening structure. The first fastening structure and the second fastening structure are respectively disposed on opposite sides of the container. The first fastening structure engages with the first protruding structure, and the second fastening structure engages with the second protruding structure.

Abstract: A display panel being bendable around a bending axis to form a bendable portion, includes a support film, a display module disposed on a side of the support film. An outer edge of the display module is distant from an outer edge along the first direction of the support film, to form a step portion between the outer edge of the display module and the outer edge of the support film. A polarizing layer and a touch layer are disposed on the other side, facing away the support film, of the display module. An outer edge of the polarizing layer and an outer edge of the touch layer are distant from the outer edge of the display module to form a step portion between the outer edge of the polarizing layer, the outer edge of the touch layer and the outer edge of the display module.

Abstract: The present disclosure is related to a processing carrier module comprising a carrier layer and a container. The carrier layer comprises a carrier surface, a first lateral surface, and a second lateral surface. The first lateral surface is connected to carrier surface and has at least one first protruding structure. The second lateral surface is connected to carrier surface and has at least one second protruding structure. The first lateral surface is opposite to the second lateral surface. The container comprises at least one first fastening structure and at least one second fastening structure. The first fastening structure and the second fastening structure are respectively disposed on opposite sides of the container. The first fastening structure engages with the first protruding structure, and the second fastening structure engages with the second protruding structure.

Abstract: A display panel being bendable around a bending axis to form a bendable portion, includes a support film, a display module disposed on a side of the support film. An outer edge of the display module is distant from an outer edge along the first direction of the support film, to form a step portion between the outer edge of the display module and the outer edge of the support film. A polarizing layer and a touch layer are disposed on the other side, facing away the support film, of the display module. An outer edge of the polarizing layer and an outer edge of the touch layer are distant from the outer edge of the display module to form a step portion between the outer edge of the polarizing layer, the outer edge of the touch layer and the outer edge of the display module.

Abstract: A cathodal material for lithium cells comprises a porous lithium oxide microparticle is provided. The porous lithium oxide microparticle comprises a plurality of porous lithium oxide nanoparticles formed with a first conductive layer therein, a pore defined by connecting the lithium oxide nanoparticles, a second conductive layer covering at least a surface of one of the lithium oxide nanoparticles contacting the first conductive layer and forming a three-dimensional conductive network between the lithium oxide nanoparticles, and a conductive fiber connecting with the second conductive layer.

Abstract: A cathodal material for lithium cells comprises a porous lithium oxide microparticle is provided. The porous lithium oxide microparticle comprises a plurality of porous lithium oxide nanoparticles formed with a first conductive layer therein, a pore defined by connecting the lithium oxide nanoparticles, a second conductive layer covering at least a surface of one of the lithium oxide nanoparticles contacting the first conductive layer and forming a three-dimensional conductive network between the lithium oxide nanoparticles, and a conductive fiber connecting with the second conductive layer.

Abstract: A solid-phase nano extraction device includes an extraction tube whose inner surface has a nanostructure for a large contact area with object to be detected. The nanostructure can adsorb objects in an extremely short reaction time. A driving structure is designed for the solid-phase micro extraction device. The extraction tube is connected to the driving structure for the objects to enter the fiber under the force of concentration gradient, pressure difference, or capillary force, thereby being adsorbed onto the nanostructure.

Abstract: A fluorescent light source includes at least one tube surrounding an interior region. The tube has a plurality of tubular portions, each one of which is disposed adjacent to at least one other tubular portion. The fluorescent light source has a support member, and each one of the tubular portions is configured to extend vertically from the support member and to curve outwardly away from the interior region.

Abstract: An ultra-short Chayote-like compact electronic energy-saving fluorescent lamp comprising, in one embodiment, a base, an upper cover, a lower cover, a luminous tube of the Chayote-like lamp and an electronic ballast. The luminous tube of the Chayote-like lamp is formed by bending several U-shaped unit luminous tubes at certain curvature into finger-shaped luminous tubes, and by connecting and assembling the finger-shaped unit luminous tubes according to the shape of a Chayote using the method of bridge connection. The Chayote-like lamp has the advantages of ultra-short structure, higher luminous efficiency, higher reliability and other benefits. The Chayote-like lamp of the present invention can be used for general illumination, although it is preferably used in combination with the lamps and lanterns having covers.

Abstract: A solid-phase nano extraction device includes an extraction tube whose inner surface has a nanostructure for a large contact area with object to be detected. The nanostructure can adsorb objects in an extremely short reaction time. A driving structure is designed for the solid-phase micro extraction device. The extraction tube is connected to the driving structure for the objects to enter the fiber under the force of concentration gradient, pressure difference, or capillary force, thereby being adsorbed onto the nanostructure.

Abstract: An ultra-short Chayote-like compact electronic energy-saving fluorescent lamp comprising, in one embodiment, a base, an upper cover, a lower cover, a luminous tube of the Chayote-like lamp and an electronic ballast. The luminous tube of the Chayote-like lamp is formed by bending several U-shaped unit luminous tubes at certain curvature into finger-shaped luminous tubes, and by connecting and assembling the finger-shaped unit luminous tubes according to the shape of a Chayote using the method of bridge connection. The Chayote-like lamp has the advantages of ultra-short structure, higher luminous efficiency, higher reliability and other benefits. The Chayote-like lamp of the present invention can be used for general illumination, although it is preferably used in combination with the lamps and lanterns having covers.

Abstract: This invention is directed to an article, such as a medical device, for local delivery of genes. The article comprises a substrate coated with a cross-linked protein. The invention is also directed to a method for coating an article with cross-linked protein. An additive may be optionally incorporated into the coating. The crosslinked protein coating can strongly absorb genes. Thus, the coated article can be used to locally deliver genes to a target site. The coating of the invention exhibits excellent biocompatibility and biodegradability, and does not cause toxicity or side-effects.