Abstract: An air flow generating device, a graphene dispersion, and a preparation method thereof are provided. The graphene dispersion is formed by a graphene powder and a processing solvent, wherein the graphene in the graphene dispersion has an average diameter of 0.5 ?m to 1 ?m, 3 to 5 layers, a solid content of 5% to 50%, and a residue oxygen content less than 1 wt %, and after being left to stand for 12 hours, the graphene dispersion has a distribution concentration increasing from the top section to the bottom section of the storage container, a viscosity of 5000 cps to 8000 cps, and a graphene concentration of 20 wt %.

Abstract: Described herein are techniques and systems for controlling a broadcast mode and a timer mode to update data stored in respective caches of multiple cache servers. When a cache server is operating in the broadcast mode, the cache server receives a data update or a notification of a data update from a broadcast server. When a cache server is operating in the timer mode, the cache server updates its cache without the use of, or reliance upon, the broadcast server. A cache server is configured to operate in the broadcast mode based on a determination that the broadcast server is capable of broadcasting (e.g., sending) messages and/or data updates to the cache servers. In contrast, a cache server is configured to operate in the timer mode based on a determination that the broadcast server is incapable of broadcasting messages and/or data updates to the cache servers.

Abstract: A wound care dressing is provided, including a hydrophobic base fabric, a plurality of electrode pairs, a plurality of hydrogel layers, and a waterproof thin film. The hydrophobic base fabric has a first surface and a second surface opposite to each other. The electrode pairs are arranged in an array and disposed on the first surface of the hydrophobic base fabric. The hydrogel layers are not in contact with one other, and each hydrogel layer covers a top surface and side walls of each electrode in the electrode pairs. After the hydrogel layers are in contact with a wound and absorb tissue fluid from the wound, the hydrogel layers form a restrictive electronic cycling channel with the electrode pairs to establish a plurality of bioelectric fields promoting wound healing on a surface of the wound. The waterproof thin film is disposed on the second surface of the hydrophobic base fabric.

Abstract: A touch panel including a touch area and a peripheral area adjacent to the touch area is provided. The touch panel includes a plurality of first electrodes, a plurality of second electrodes, a plurality of third electrodes, a plurality of pads and a plurality of wirings. The first electrodes, the second electrodes and the third electrodes are located in the touch area and electrically insulated to each other, wherein the third electrodes expose at least a part of the first electrodes and at least a part of the second electrodes. The pads are located in the peripheral area. The first electrodes, the second electrodes and the third electrodes are electrically connected to the pads through the wirings respectively.

Abstract: A touch-sensitive display device includes a substrate, an OLED structure and a cover plate. The OLED structure is disposed on the substrate and includes a first electrode layer, a light-emitting layer and a second electrode layer. The first electrode layer is disposed on the substrate, the light-emitting layer is disposed on the first electrode layer, and the second electrode layer is disposed on the light-emitting layer and patterned to form a plurality of touch-sensing electrodes. The cover plate is disposed opposite the substrate and spaced at an interval from the substrate, and the OLED structure is sealed between the substrate and the cover plate.

Abstract: A wound care dressing is provided, including a hydrophobic base fabric, a plurality of electrode pairs, a plurality of hydrogel layers, and a waterproof thin film. The hydrophobic base fabric has a first surface and a second surface opposite to each other. The electrode pairs are arranged in an array and disposed on the first surface of the hydrophobic base fabric. The hydrogel layers are not in contact with one other, and each hydrogel layer covers a top surface and side walls of each electrode in the electrode pairs. After the hydrogel layers are in contact with a wound and absorb tissue fluid from the wound, the hydrogel layers form a restrictive electronic cycling channel with the electrode pairs to establish a plurality of bioelectric fields promoting wound healing on a surface of the wound. The waterproof thin film is disposed on the second surface of the hydrophobic base fabric.

Abstract: A touch panel includes a cover glass, a flexible substrate, and a touch-sensing electrode structure. The flexible substrate is connected to the cover glass via a bonding layer, and the touch-sensing electrode structure is formed on the flexible substrate. The cover glass, the bonding layer, the flexible substrate and the touch-sensing electrode structure are arranged in order, with the flexible substrate being located between the touch-sensing electrode structure and the bonding layer.

Abstract: A touch control device includes a touch area, a border area, a inductive coil, a proximity sensing unit, a near field communication unit, and a switch module. The touch area is for sensing touch input. The border area is located at periphery of the touch area. The inductive coil is located on the border area. The proximity sensing unit is for transmitting a driving signal to the inductive coil when being coupled to a first end of the inductive coil, and determining whether the inductive coil is close to an object according to a sensing signal generated by the inductive coil. The near field communication unit is for performing near field communication when being coupled to the first end and a second end of the inductive coil. The switch module is for controlling coupling statuses of the proximity sensing unit and the near field communication unit to the inductive coil.

Abstract: A tool cabinet includes a cabinet body, a drawer received by the cabinet body, and an opening and closing device engaged with the cabinet body and the drawer. The opening and closing device includes a first and second holder, a displacing member, a flipping member, and a biasing member. The displacing member is restrained by the first and second holders and is adapted to be inserted into a recessed structure defined by the cabinet body. The displacing member is biased by the biasing member. The flipping member is restrained by the first holder and is pivotal relative thereto. The displacing and flipping members include a first and second slant surface in contact with each other. Upon pivoting the flipping member, the displacing member is adapted to be moved. The drawer is prevented from being opened when the displacing member is inserted into the recessed structure.

Abstract: A cabinet with lockable drawer structure includes a cabinet body and a drawer. The cabinet body has an interior space. Two slidable grooves and two baffling portions opposite thereto are respectively assembled in the interior space. The baffling portions are respectively located above the slidable grooves. Two rails are respectively secured at two lateral sides of the drawer. The drawer is slidably connected with the slidable grooves with the rails, so that the drawer is movable toward the interior space to a lock position. A plate body is pivoted on a rear side of the drawer and distant from the cabinet body. Two engaging portions are respectively, integrally and laterally extending from two lateral sides of the plate body. Accordingly, when the drawer is located at the lock position, the engaging portions are respectively engaged with the baffling portions so as to secure the drawer at the lock position.

Abstract: A touch panel, including a substrate, first electrodes, second electrodes, first connecting lines, first pads, second connecting lines, and second pads, is provided. The first electrodes are arranged in an array to define a plurality of columns each parallel to a first direction and a plurality of rows each parallel to a second direction intersecting the first direction. Each of the second electrodes is extended in the first direction. The second electrodes are sequentially arranged in the second direction so that one column of the first electrodes is disposed between two adjacent second electrodes. The first connecting lines connect the first electrodes in the same row into a series connected to one first pad. The second electrodes are connected to the second pads through the second connecting lines. The first electrodes, the second electrodes, the first connecting lines, and the second connecting lines do not intersect one another.

Abstract: A touch panel including a substrate, a touch-sensing element, transmission lines, a ground electrode, a first electrode layer, an insulation layer and a second electrode layer is provided. The transmission lines are electrically connected to the touch-sensing element. The ground electrode surrounds the touch-sensing element and the transmission lines. The first electrode layer is located around and electrically connected to the ground electrode. The insulation layer is at least disposed on the first electrode layer. The second electrode layer is disposed on the insulation layer to form at least one capacitance storage unit, so that the electro static discharge can be conducted to the ground electrode through the capacitance storage unit.

Abstract: A power distribution device includes a number (N, N?2) of power input terminals, a number (M, M?2) of power output terminals, and a number (M) of power distribution circuits, each electrically coupled to a corresponding one of the power output terminals and electrically coupled to a number (P, P?2) of the power input terminals. Each of the power distribution circuits includes a number (P) of diodes each electrically coupled between a respective one of the power input terminals and the corresponding one of the power output terminals, a switch element connected in parallel to one of the diodes, and a controller controlling the switch element to operate in a conducting state when the controller determines that power received at the power input terminal connected to the switch is normal, and controlling the switch element to operate in a non-conducting state when the power is abnormal.

Abstract: A slanted guide drawer opening and closing device separately installed to both sides of a front panel of a drawer includes a displacing member installed and passing transversally into a holder, and the displacing member has a first slant surface, and a flipping member with a second slant surface, and the flipping member and the displacing member abut each other through the first and second slant surfaces. The flipping member is flipped to produce a displacement, so that the displacing member produces a transverse displacement. An end of the displacing member is pushed by the flipping member to extend out from the holder and blocked by a stop portion disposed in a drawer cabinet, so that the drawer is situated in a closed status and cannot be pulled out.

Abstract: A cabinet with display structure showing lock-control state thereof contains a cabinet body having a receiving space, a plurality of drawers slidably assembled in the receiving space, a lock-control unit and a display unit. The lock-control unit contains a driving member, a linking-up member and a lock-control member. The driving member drives the linking-up member to actuate, so that the linking-up member drives the lock-control member to control the drawers in unlocked or locked states. The display unit contains a slidable member and at least one display member. The slidable member moves laterally along with the actuation of the linking-up member and controls the at least one display member displaying the drawers in unlocked or locked states.

Abstract: A touch panel including a substrate, a touch-sensing element, transmission lines, a ground electrode, a first electrode layer, an insulation layer and a second electrode layer is provided. The transmission lines are electrically connected to the touch-sensing element. The ground electrode surrounds the touch-sensing element and the transmission lines. The first electrode layer is located around and electrically connected to the ground electrode. The insulation layer is at least disposed on the first electrode layer. The second electrode layer is disposed on the insulation layer to form at least one capacitance storage unit, so that the electro static discharge can be conducted to the ground electrode through the capacitance storage unit.

Abstract: A touch panel including a touch area and a peripheral area adjacent to the touch area is provided. The touch panel includes a plurality of first electrodes, a plurality of second electrodes, a plurality of third electrodes, a plurality of pads and a plurality of wirings. The first electrodes, the second electrodes and the third electrodes are located in the touch area and electrically insulated to each other, wherein the third electrodes expose at least a part of the first electrodes and at least a part of the second electrodes. The pads are located in the peripheral area. The first electrodes, the second electrodes and the third electrodes are electrically connected to the pads through the wirings respectively.

Abstract: A method for producing amino acids includes collecting feather waste into a container, with the feather waste having a pH value between 8 to 9.5; mixing from 5 weight percent to 8 weight percent of an alkaline solution having a pH value between 10 to 12 with from 30 weight percent to 40 weight percent of the feather waste and from 52 weight percent to 65 weight percent of water at room temperature for 12 to 48 hours to produce a preproduct; electrolyzing the preproduct to produce a product mixture; adding from 3 weight percent to 5 weight percent of an acid solution having a pH value between 3 to 6 into from 95 weight percent to 97 weight percent of first mixture to produce a second product via neutralization reaction.

Abstract: A cabinet structure includes a base member having four corner portions; two post members respectively assembled at two corner portions which are located at one side of the base member; and a support member assembled at an opposite side of the base member, the support member having a support plate and two support laterals, the two support laterals respectively formed at two vertical sides of the support plate, the support plate and the two support laterals formed as one piece, the support plate and the two support laterals defining an extending direction parallel to the base member, the extending direction being bent, the two support laterals assembled at the other two corner portions.