Abstract: A drug carrier and a method of using the same are provided, wherein the drug carrier includes a base made of a carbon fiber which is magnetic and has a first polarity, a positioning member connected to the base, and is adapted to be positioned and move to a target location by guiding of at least an energy field, and a connector connected to the positioning member and a drug with two ends respectively, wherein the connector has a second polarity opposite to the first polarity, and is recognized by an organism and digested in the organism. The method includes the steps of: injecting the drug carrier into an organism; positioning the drug carrier to a target location within the organism by an equipment; and releasing the drug from the drug carrier by an external energy.

Abstract: A carbon fiber washer is provided and includes a carbon fiber fabric made of a plurality of fiber bundles being woven, in which each of the plurality of fiber bundles is made of discontinuous fibers; the advantage of the carbon fiber washer of the present invention includes high temperature and fatigue resisting, and weather proofing. The structure of the carbon fiber washer is stable due to the use of discontinuous fibers; breakages of discontinuous fibers do not affect other unbroken discontinuous fibers, so that the structure of the carbon fiber washer would not be loosened or delaminated and the service life can be prolonged accordingly.

Abstract: A method of using a carbonized material to inhibit bacterial growth is provided, wherein the method includes the steps below. First, prove the carbonized material which includes an electrically conductive carbon-containing body, wherein the carbon-containing body is selected from the group consisting of carbon fiber fabric, graphene, and graphene oxide. Next, expose the carbonized material to a wet environment. Finally, provide a direct current to the carbon-containing body. Whereby, after the carbon-containing body is electrically energized by the direct current, hydrogen peroxide is synthesized form oxygen in the wet environment to inhibit bacterial growth.

Abstract: A drug carrier and a method of using the same are provided, wherein the drug carrier includes a base made of a carbon fiber which is magnetic and has a first polarity, a positioning member connected to the base, and is adapted to be positioned and move to a target location by guiding of at least an energy field, and a connector connected to the positioning member and a drug with two ends respectively, wherein the connector has a second polarity opposite to the first polarity, and is recognized by an organism and digested in the organism. The method includes the steps of: injecting the drug carrier into an organism; positioning the drug carrier to a target location within the organism by an equipment; and releasing the drug from the drug carrier by an external energy.

Abstract: A method for preparing porous fabrics is disclosed. The method includes transporting PAN-based oxidized fabrics to a thermal treatment chamber, which provides multi-pipe to introduce oxygenated gas and oxygenated fluid respectively, by using a plurality set of rollers to carry out an activation-carbonization process. The activation-carbonization process is preformed within a temperature range of 1010° C. to 1500° C., and produced the porous activated carbon fabrics that provide uniform nano-pore with BET surface area about 800˜1500 m2/g.

Abstract: A method for preparing porous fabrics is disclosed. The method includes transporting PAN-based oxidized fabrics to a thermal treatment chamber, which provides multi-pipe to introduce oxygenated gas and oxygenated fluid respectively, by using a plurality set of rollers to carry out an activation-carbonization process. The activation-carbonization process is preformed within a temperature range of 1010° C. to 1500° C., and produced the porous activated carbon fabrics that provide uniform nano-pore with BET surface area about 800˜1500 m2/g.

Abstract: A method of making a flexible sheet heater includes the steps of (i) bonding an electrically conductive fabric and an support member formed of a PET film and a layer of acrylic together, ii) stamp-cutting the electrically conductive fabric to form a heating element having a predetermined loop, iii) attaching two electrical terminals to two distal ends of the heating element respectively, iv) bonding a first flexible protective sheet member to one side of the heating element opposite to the PET film, v) removing the PET film from the heating element; and vi) bonding a second flexible protective sheet member to the other side of the heating element opposite to the first flexible protective sheet member so that the heating element is sandwiched between the first and second flexible protective sheet members.