Abstract: A method comprising: dispersing carbon nanotubes in a solvent; and depositing the carbon nanotubes on a porous, conductive substrate; wherein the porous, conductive substrate is capable of functioning as a filter and a working electrode. The method of claim 1 further comprising: engaging the porous, conductive substrate with deposited carbon nanotubes in an electrochemical cell; and depositing at least one metallic structure on the surface of the carbon nanotubes from an electrolyte solution to form metallized carbon nanotubes. A composite comprising: metallized carbon nanotubes generated by the method of claim 2; wherein the at least one metallic structure comprises a conductive metal atom selected from the group consisting of platinum, gold nickel, copper, iron, chromium, zinc, and combinations thereof; and a matrix material selected from the group consisting of epoxies, thermosets, thermoplastics, elastomers, metals, metal matrix composites, ceramics and combinations thereof.

Abstract: A method comprising: dispersing carbon nanotubes in a solvent; and depositing the carbon nanotubes on a porous, conductive substrate; wherein the porous, conductive substrate is capable of functioning as a filter and a working electrode. The method of claim 1 further comprising: engaging the porous, conductive substrate with deposited carbon nanotubes in an electrochemical cell; and depositing at least one metallic structure on the surface of the carbon nanotubes from an electrolyte solution to form metallized carbon nanotubes. A composite comprising: metallized carbon nanotubes generated by the method of claim 2; wherein the at least one metallic structure comprises a conductive metal atom selected from the group consisting of platinum, gold nickel, copper, iron, chromium, zinc, and combinations thereof; and a matrix material selected from the group consisting of epoxies, thermosets, thermoplastics, elastomers, metals, metal matrix composites, ceramics and combinations thereof.

Abstract: Methods and systems for testing and diagnosis of weapon control systems are disclosed. In one embodiment, an apparatus for testing a weapon control system includes an interface unit and a simulator unit. The interface unit is adapted to be operatively coupled to the weapon control system, and the simulator unit is operatively coupled to the interface unit. The simulator unit receives and analyzes a control signal, and transmits at least one of a first type of responsive signal indicative of a properly functioning component, and a second type of responsive signal indicative of a malfunctioning component.

Abstract: An improved remote vehicle starting apparatus with timer which allows for the remote starting of a motor vehicle to allow for the preheating or pre-cooking of the passenger compartment of said motor vehicle under extreme temperature conditions is disclosed. The apparatus consists of a transmitting unit, located with the driver, and a receiver unit that is located in the driver's vehicle. The transmitting unit allows the user to set predetermined times at which to start the vehicle, before work for example, and includes an LCD display that indicates both the time of day and the time(s) at which the vehicle will be started. The transmitter also includes a manual switch, by which the user may start the vehicle, regardless of the time settings. The receiver installs in the vehicle and is wired into the vehicle ignition circuitry, allowing the engine to be started by key in a conventional manner, or by the remote transmitter.