Abstract: A leak detector structure includes a base, a valve cylinder assembly, a rotary latch and an expansion member, the base includes a valve body, an inlet joint and an outlet joint, a receiving channel is defined in the valve body. The valve cylinder assembly includes a valve cylinder, a rotatable handle and a torsion spring, the valve cylinder is inserted in the receiving channel and connected with the rotatable handle, a communicating channel is defined in the valve cylinder, the communicating channel is operably passable or blocked with respect to the inlet joint and the outlet joint, and the torsion spring is fixed to the rotatable handle for pre-twisting. The rotary latch is pivotally connected to the base, and the rotary latch includes a snapping portion for engagement with the corresponding rotatable handle and a passive arm extended from the snapping portion.

Abstract: A leak detector structure includes a base, a valve cylinder assembly, a rotary latch and an expansion member, the base includes a valve body, an inlet joint and an outlet joint, a receiving channel is defined in the valve body. The valve cylinder assembly includes a valve cylinder, a rotatable handle and a torsion spring, the valve cylinder is inserted in the receiving channel and connected with the rotatable handle, a communicating channel is defined in the valve cylinder, the communicating channel is operably passable or blocked with respect to the inlet joint and the outlet joint, and the torsion spring is fixed to the rotatable handle for pre-twisting. The rotary latch is pivotally connected to the base, and the rotary latch includes a snapping portion for engagement with the corresponding rotatable handle and a passive arm extended from the snapping portion.

Abstract: A heat-pressed activated carbon polypropylene composite filter device has a central filtering core, a composite filtering core, and two covers. The composite filtering core is mounted around the central filtering core and has a carbon-polypropylene filter layer and a polypropylene layer. The carbon-polypropylene filter layer is made of nonwoven polypropylene on which multiple activated carbon granules are heat-pressed. The polypropylene layer is made of polypropylene and is covered on the carbon-polypropylene filter layer by a meltblown process. The covers are mounted on the ends of the composite filtering core respectively.

Abstract: A manufacturing method of an activated-carbon filter element has the steps of preparing a non-woven cloth, spreading activated-carbon powders, combining the activated-carbon powders with the non-woven cloth, and winding. In the step of spreading the activated-carbon powders, the activated-carbon powders are scattered onto the non-woven cloth by a scattering device. In the step of combining the activated-carbon powders with the non-woven cloth, the non-woven cloth is hot pressed by a hot pressing cylinder, and is melted. The activated-carbon powders are securely combined with the non-woven cloth.

Abstract: A manufacturing apparatus for activated carbon filters has a non-woven cloth machine, a rolling module, a sprayer and a hot-pressing cylinder. The non-woven cloth machine is used to manufacture a body of non-woven cloth and has a processing segment. The rolling module is mounted at the processing segment to heat and melt the body of non-woven cloth. The sprayer is mounted above the rolling module to spray activated carbon powder on the body of non-woven cloth. The hot-pressing cylinder is mounted at the processing segment to heat and press the activated carbon powder with the body of non-woven cloth. The activated carbon powder can be securely attached to the body of non-woven cloth by the manufacturing apparatus to provide a preferred quality of the activated carbon filters and to reduce the cost of manufacturing the activated carbon filters.

Abstract: A heat-pressed activated carbon polypropylene composite filter device has a central filtering core, a composite filtering core, and two covers. The composite filtering core is mounted around the central filtering core and has a carbon-polypropylene filter layer and a polypropylene layer. The carbon-polypropylene filter layer is made of polypropylene nonwoven on which multiple activated carbon granules are heat-pressed. The polypropylene layer is made of polypropylene and is covered on the carbon-polypropylene filter layer by a meltblown process. The covers are mounted on the ends of the composite filtering core respectively.

Abstract: A manufacturing apparatus for activated carbon filters has a non-woven cloth machine, a rolling module, a sprayer and a hot-pressing cylinder. The non-woven cloth machine is used to manufacture a body of non-woven cloth and has a processing segment. The rolling module is mounted at the processing segment to heat and melt the body of non-woven cloth. The sprayer is mounted above the rolling module to spray activated carbon powder on the body of non-woven cloth. The hot-pressing cylinder is mounted at the processing segment to heat and press the activated carbon powder with the body of non-woven cloth. The activated carbon powder can be securely attached to the body of non-woven cloth by the manufacturing apparatus to provide a preferred quality of the activated carbon filters and to reduce the cost of manufacturing the activated carbon filters.

Abstract: A manufacturing method of an activated-carbon filter element has steps of: preparing a non-woven cloth, spreading activated-carbon powders, combining the activated-carbon powders with the non-woven cloth, and winding. In the step of spreading activated-carbon powders, the activated-carbon powers are scattered onto the non-woven cloth by a scattering device. In the step of combining the activated-carbon powders with the non-woven cloth, the non-woven cloth is hot pressed by a hot pressing cylinder, and is melted. The activated-carbon powders are securely combined with the non-woven cloth.

Abstract: The present invention relates to an information storage protector that comprises: a memory device with a memory interface mounted at its front end; wherein, the memory device is mounted a data storage block and a hidden block,a reader linked to a host computer; wherein, the reader is mounted a fingerprint sensor and characteristic authentication processing unit while the interior of hidden block in the memory device is stored the characteristic data of fingerprint from a plurality of users that allows the user to proceed the reading/writing data from/in the memory device provided that the user is recognized by the fingerprint sensor and the characteristic authentication processing unit; and a read & write control software installed in the interior of the abovementioned host computer; wherein, to store the data in the memory device can be proceeded only through the read & write control software.

Abstract: A filtering assembly includes a container and a filtering cap which is connected to a connection end of the container. A flange extends spirally from an outside of the connection end and includes a positioning portion which is the longest section of the flange. The filtering cap includes an inner skirt and an outer skirt, wherein the inner skirt has a groove defined in an inside thereof the flange can be engaged with the groove. The groove has a positioning port which is the deepest portion of the whole groove. A plurality of bosses extend from an inside of the outer skirt. The positioning portion is engaged with the positioning port and the bosses are engaged with the wave-shaped ring when the filtering cap is located onto the container.

Abstract: A spike mold structure includes a first male mold base having a plurality of male molds and at least one firing pin, and a female mold base having a first fixing board, a second fixing board, a plurality of outer female molds and inner female mold. The second fixing board has at least one sliding rod, and the sliding rod has an actuating block. One surface of the first fixing board has a plurality of convex blocks. A plurality of concave slots are located at the surface of the sliding rod. The thimbles push the actuating block to make the sliding rod slidingly move so that the first fixing board and second fixing board are closely embedded or have a gap. Therefore, there is a displacement between the outer and the inner female mold. The spike mold structure is used to mold a bi-colored spike having increased strength.

Abstract: A mold structure of a spike comprises a male mold base and a female mold base, and the female mold base is corresponded to the male mold base. The female mold base comprises a first female mold, a second female mold, a third female mold and a thimble. The first female mold is fixed on the female mold base, and the first female mold is formed a through hole therein; the second female mold is penetrated into the through hole of the first female mold, and the second female mold is formed a through hole therein; the third female mold is penetrated into the through hole of the second female mold, and the third female mold is formed a through hole therein. And the thimble is disposed on a thimble base, and correspondingly penetrated into the through hole of the third female mold.

Abstract: A spike mold structure includes a first male mold base having a plurality of male molds and at least one firing pin, and a female mold base having a first fixing board, a second fixing board, a plurality of outer female molds and inner female mold. The second fixing board has at least one sliding rod, and the sliding rod has an actuating block. One surface of the first fixing board has a plurality of convex blocks. A plurality of concave slots are located at the surface of the sliding rod. The thimbles push the actuating block to make the sliding rod slidingly move so that the first fixing board and second fixing board are closely embedded or have a gap. Therefore, there is a displacement between the outer and the inner female mold. The spike mold structure is used to mold a bi-colored spike having increased strength.