Abstract: An artificial leather is provided in some embodiments of the present disclosure, including: an artificial bio-nutritional fiber layer and a mycelium layer. The artificial bio-nutritional fiber layer includes a first surface, a second surface opposite to the first surface and a plurality of holes, in which the plurality of holes extends from the first surface to the second surface. The mycelium layer encapsulates the first surface and the second surface of the artificial bio-nutritional fiber layer, and extends from the first surface to the second surface through the plurality of holes. A manufacture method of an artificial leather is further provided in some embodiments of the present disclosure.

Abstract: A manufacturing method of a modified polymer layer modified by hydroxyapatite is provided in the present disclosure, including following steps: (a) providing a polymer layer; (b) plasma-activating acrylic acid using an atmospheric cold plasma device to modify a surface of the polymer layer to obtain an acrylic-modified polymer layer; (c) immersing the acrylic-modified polymer layer in a first solution containing a calcium ion to obtain a calcium-containing modified layer; and (d) immersing the calcium-containing modified layer in a second solution containing phosphate salt to obtain a modified polymer layer modified by hydroxyapatite.

Abstract: A lamp with light guide lens for lateral includes a body, a light-emitting element, a light guide lens and a movable housing which are disposed on the body. When the movable housing moves until the light guide lens is located within the hole of a reflection cup of the movable housing, the lateral light from the light guide lens will be reflected by the reflection cup and emitted out of the front light-passing portion, when the movable housing moves until the light guide lens is not within the hole, and the lateral light-passing portion extends out of the body, the lateral light from the light guide lens will be emitted out of the lateral light-passing portion.

Abstract: A lamp with lateral capability is provided with a body and a movable housing movably disposed on the body. A light emitting element disposed in the body cooperates with a light guide lens to emit lateral light. Light is allowed to be collectively emitted from the front light-passing portion of the movable housing in a forward emission manner by moving the movable housing to a position where the light guide lens is located within the movable housing, or the light can be emitted from the lateral light-passing portion in lateral emission manner by moving the movable housing to a position where the light guide lens is not located within the movable housing.

Abstract: A lighting device includes a main body having a bottom portion, two lateral portions extending upwardly and respectively from two opposite ends of the bottom portion toward each other, and a connecting tube formed on the bottom portion and located between the lateral portions. The connecting tube has one end that faces a rear end of the main body and that is open for communicating the connecting tube with the outside of the main body and for insertion of a lamp post therein. A light emitting module is disposed on the main body and includes a plurality of light emitting elements. An electrical box is fixed to a front end of the main body and housing a circuit module that is electrically connected to the light emitting elements.

Abstract: An LED lighting device at least comprises a base made of metal materials; a substrate which is disposed on a surface of the base and has one electrode and at least one LED chip; and an insulation sheet which is disposed between the base and the substrate. The insulation sheet and the substrate satisfy the correlations L2+2×T?L1+2×Cr, W2+2×T?W1+2×Cr and Cr?1.6 mm. By controlling the dimension of the insulation sheet, a creepage distance between the electrode and the base can be increased, so as to solve the safety problem of lighting devices without increasing manufacturing costs.

Abstract: A method and a container for production of a biomembrane are disclosed in the present invention. The biomembrane produced in the method and in the container of the present invention can be processed into a mask, wherein processes for changing the shape of the biomembrane are unnecessary. The mask produced from the biomembrane can be efficient to maintain the skin, and to supply the moisture thereto.

Abstract: An LED lamp includes a heat dissipating base and a plurality of light strips. The heat dissipating base is formed by aluminum extrusion and has a length direction defined by the aluminum extrusion direction. The heat dissipating base has a main body and a plurality of heat dissipating fins. The bottom side of the main body has a flat connecting surface. The heat dissipating fins extend outward from the main body. Each light strip has a circuit board and at least one LED module provided on the circuit board. The circuit board of each light strip is provided on the connecting surface of the heat dissipating base. The width (W1) of the connecting surface of the heat dissipating base is greater than three times the width (W2) of each light strip, i.e., W1>3W2.

Abstract: An LED lighting device at least comprises a base made of metal materials; a substrate which is disposed on a surface of the base and has one electrode and at least one LED chip; and an insulation sheet which is disposed between the base and the substrate. The insulation sheet and the substrate satisfy the correlations L2+2×T?L1+2×Cr, W2+2×T?W1+2×Cr and Cr?1.6 mm. By controlling the dimension of the insulation sheet, a creepage distance between the electrode and the base can be increased, so as to solve the safety problem of lighting devices without increasing manufacturing costs.

Abstract: An LED lamp includes a heat dissipating base and a plurality of light strips. The heat dissipating base is formed by aluminum extrusion and has a length direction defined by the aluminum extrusion direction. The heat dissipating base has a main body and a plurality of heat dissipating fins. The bottom side of the main body has a flat connecting surface. The heat dissipating fins extend outward from the main body. Each light strip has a circuit board and at least one LED module provided on the circuit board. The circuit board of each light strip is provided on the connecting surface of the heat dissipating base. The width (W1) of the connecting surface of the heat dissipating base is greater than three times the width (W2) of each light strip, i.e., W1>3W2.

Abstract: In an atomizing nozzle with enhanced structural strength, a body is connected to a cover, and a rotor is disposed in the body. Furthermore, the cover has a first surface and a second surface, and a depressed structure extends from the first surface of the cover toward the second surface, and has an opening on the first surface and a bottom disposed opposite the opening. A water jetting hole penetrates through the bottom of the depressed structure. Because the water jetting hole is disposed in the depressed structure, the peripheral structure of the water jetting hole has the greater thickness and the higher structural strength. Even if an external force is exerted, the water jetting hole and its periphery cannot deform.

Abstract: The present invention relates to a fixing structure for printed circuit board of backlight module. It includes a protective cover having at least one first supporting portion and the first supporting portion having a first protrusion; a printed circuit board having at least one pierce hole; and a back plate having at least one second supporting portion and the second supporting portion having a second protrusion, wherein the first supporting portion and the second supporting portion oppositely support the printed circuit board, the first protrusion and the second protrusion oppositely wedge in the pierce hole, and two copper areas respectively surround two ends of the pierce hole and electrically connect with the first supporting portion and the second supporting portion. The present invention economizes the cost of using screws and eliminates the static electricity from the printed circuit board of the backlight module.

Abstract: An optical touch-controlled module including a frame, a plurality of optical transceivers, and three reflective sticks is provided. The frame can be combined with a display module and includes a plurality of bars. The bars are connected with each other and surround a frame opening. The optical transceivers are disposed on the frame and located separately on the two opposite ends of one of the bars. Each of the reflective strips is disposed on one of the bars, and one of the reflective strips is located between the other two reflective strips. The reflective strips surround the frame opening and reflect the light emitted from each of the optical transceivers. Moreover, an optical touch-controlled display device including the optical touch-controlled module is also provided.

Abstract: A system for displaying images includes a liquid crystal display panel including an array substrate. A color filter substrate is oppositely disposed to the array substrate and has a display region, a seal region surrounding the display region, and an edge region surrounding the seal region. A first transparent conductive pattern layer covers the display region of the color filter substrate to expose the seal region and the edge region, and faces the array substrate. A seal material layer is interposed between the array substrate and the color filter substrate and corresponds to the seal region, such that the seal material layer contacts at least a portion of the color filter substrate in the exposed seal region.

Abstract: A backlight module includes a back plate structure, a light source disposed in the back plate structure, at least one wire connected to the light source, and at least one wire fixing frame fixed on the back plate structure. Each wire fixing frame includes a main part, a first fixing part disposed on a side of the main part, a second fixing part disposed on a side of the main part and opposite to the first fixing part, and an extending part extending in a direction from the second fixing part to the first fixing part. A wire outlet is defined between the extending part and the first fixed part, and a wire inlet is opposite to the wire outlet. A wire hold space is defined among the main part, the first fixing part, the second fixing part, and the back plate structure.

Abstract: A backlight module includes a back plate structure, a light source disposed in the back plate structure, at least one wire connected to the light source, and at least one wire fixing frame fixed on the back plate structure. Each wire fixing frame includes a main part, a first fixing part disposed on a side of the main part, a second fixing part disposed on a side of the main part and opposite to the first fixing part, and an extending part extending in a direction from the second fixing part to the first fixing part. A wire outlet is defined between the extending part and the first fixed part, and a wire inlet is opposite to the wire outlet. A wire hold space is defined among the main part, the first fixing part, the second fixing part, and the back plate structure.

Abstract: A lightweight light guide plate and a backlight module thereof are provided. The backlight module includes a light guide plate whose thickness gradually reduces from four edges to a center point of a light guide plate body to form a concave, an optical film group disposed on a plane of the light guide plate body, net points disposed on the concave, in which a unit area density of the net points gradually increases from the four edges to the center point of the light guide plate body respectively, LEDs respectively disposed at the four edges of the light guide plate body, a reflector corresponding to the concave of the light guide plate body, and a back frame having the reflector disposed thereon. The weight of the light guide plate body and backlight module thereof can be reduced, and the cost of materials for the light guide plate can be reduced.

Abstract: The present invention relates to an element fixing structure. The element fixing structure includes a first fixing element, a second fixing element, a plurality of locking elements and at least two third fixing elements. The second fixing element has a locking structure, which has an inner thread. The locking element includes a screw. The third fixing element has at least one second passing slots. The first fixing element has at least two protrusion structures, wherein the protrusion structure has a first passing slot. The first fixing element, the second fixing element and at least two third fixing elements are locked with the locking structure by the locking element. Hence, the element fixing structure is used to reduce the numbers of the locking elements.

Abstract: A wire fixing frame for fixing at least one wire on a substrate is described. The wire fixing frame includes a main part, a first fixing part, a second fixing part, and an extending part. A wire outlet is defined between the extending part and the first fixed part, and a wire inlet is opposite to the wire outlet. A wire hold space is defined among the main part, the first fixing part, the second fixing part, and the substrate. The wire passes from the wire inlet to the wire outlet through the wire hold space, and the wire is fixed at a position by a round corner of the first fixing part and the extending part.