Abstract: The electrical energy generating system of the present invention comprises a piece of alignment Buckypaper, an energy generator, a thin deposition and two contacts. The alignment Buckypaper is a thin sheet made from an aggregate of carbon nanotubes. The thin deposition is formed on at least one surface of the alignment Buckypaper by electrolysis to form a semimetal material. A contact is connected with the upper surface of the alignment Buckypaper and the other contact is connected with the lower surface of the alignment Buckypaper. In use, the energy generated by the generator is inputted to the alignment Buckypaper. The energy then ionizes the molecules contained in the alignment Buckypaper. The positive charges move to the upper contact and the negative charges move to the lower contact. Such electrical energy may then be fed to a load connected with the two contacts to do work on the load.

Abstract: A carbon nanotube plate is provided, having a first carbon nanotube layer composed of many first carbon nanotubes, and a second carbon nanotube layer disposed on the first carbon nanotube layer. The second carbon nanotube layer is composed of many second carbon nanotubes placed in an orderly manner on the first carbon nanotube layer. At least two second carbon nanotubes are located along a curve. The surface of the second carbon nanotube layer has a whirlpool pattern.

Abstract: A carbon nanotube plate is provided. The plate includes a first carbon nanotube layer composed of many first carbon nanotubes and a second carbon nanotube layer disposed on the first carbon nanotube layer. The second carbon nanotube layer is composed of many second carbon nanotubes placed in an orderly manner on the first carbon nanotube layer. At least two second carbon nanotubes are located along a curve. The surface of the second carbon nanotube layer has a whirlpool pattern.

Abstract: The electrical energy generating system of the present invention comprises a piece of alignment Buckypaper, an energy generator, a thin deposition and two contacts. The alignment Buckypaper is a thin sheet made from an aggregate of carbon nanotubes. The thin deposition is formed on at least one surface of the alignment Buckypaper by electrolysis to form a semimetal material. A contact is connected with the upper surface of the alignment Buckypaper and the other contact is connected with the lower surface of the alignment Buckypaper. In use, the energy generated by the generator is inputted to the alignment Buckypaper. The energy then ionizes the molecules contained in the alignment Buckypaper. The positive charges move to the upper contact and the negative charges move to the lower contact. Such electrical energy may then be fed to a load connected with the two contacts to do work on the load.

Abstract: A carbon nanotube plate is provided. The plate includes a first carbon nanotube layer composed of many first carbon nanotubes and a second carbon nanotube layer disposed on the first carbon nanotube layer. The second carbon nanotube layer is composed of many second carbon nanotubes placed in an orderly manner on the first carbon nanotube layer. At least two second carbon nanotubes are located along a curve. The surface of the second carbon nanotube layer has a whirlpool pattern.

Abstract: A carbon nanotube plate is provided, having a first carbon nanotube layer composed of many first carbon nanotubes, and a second carbon nanotube layer disposed on the first carbon nanotube layer. The second carbon nanotube layer is composed of many second carbon nanotubes placed in an orderly manner on the first carbon nanotube layer. At least two second carbon nanotubes are located along a curve. The surface of the second carbon nanotube layer has a whirlpool pattern.

Abstract: The present invention provides a method for making a sheet of a carbon nanotube (CNT) layer. First, a CNT solution is provided. A substrate is also provided. The substrate is then covered by the CNT solution, and a CNT layer is formed on the substrate through vacuum filtration. The CNT layer is cleaned with an organic chemical solution, and the CNT layer is cleaned with water. Finally, water is removed from the CNT layer. Additionally, in the step of vacuum filtration, a whirlpool is created in the CNT solution.

Abstract: An electro-machining apparatus using one or more carbon nanotubes as an electrode. The nanotubes can be the single-walled or multi-walled variety. The electrode can be used in numerous electro-machining processes, including electrical discharge machining (“EDM”), electron beam machining (“EBM”), and electro-chemical machining.

Abstract: A method of using copper alloy substrate for growing carbon nanotubes, wherein copper is used as the base for copper matrix, and catalysts (ferrum, cobalt, and nickel) are dissolved in the copper matrix to form an alloy substrate. During the course of production for the carbon nanotube, the alloy substrate is positioned on the sample holder of the chamber, and the mechanical pump is used to extract the air pressure of the chamber under 10-3 torrs, and then the reaction gas is introduced into the chamber, and the total pressure is maintained at about 3 torrs. The reaction temperature of the alloy substrate at 850˜950° C. is provided by a heat-resistant tungsten fuse, and then preliminary dissociation of the reaction gas before introduced into the chamber is provided by a microwave generator.

Abstract: A carbon nanotube apparatus for surface discharge polishing using a transistor discharge circuit includes a signal generator having a integrated circuit for generating square wave; a photo coupler for isolating a cathode of the apparatus and an anode for processing; a discharge machining area comprising the anode for placing a target and the cathode having more than one multi-wall carbon nanotubes (MWCNT) grown on it. The apparatus uses the signal generator to control a waveform of square wave for electrical discharge machining and to control a current value for nanotube tips for electrical discharge machining, thus to enable the cathode of MWCNT apparatus for nanometer-level micro machining.