Abstract: The present invention relates to a carbon nanotube composite electrode material, a method for manufacturing the same and an electrode including the carbon nanotube composite material. The carbon nanotube electrode material includes carbon fibers and carbon nanotubes. The carbon fibers constitute a network structure. The carbon nanotubes are wrapped around and adhering to the carbon fibers. Because a diameter of the carbon fibers is about 100 times larger than that of the carbon nanotubes, gaps between the carbon fibers are also larger than that between the carbon nanotubes such that electrolytes can easily penetrate into the carbon fibers and come into contact with all or nearly all of the available surface area of the carbon nanotubes. In other words, an effective surface area of the carbon nanotubes is improved, and capacity of electrode material is also improved.

Abstract: A thermal interface material includes an array of carbon nanotubes with interspaces defined therebetween; and a low melting point metallic material filled in the interspaces. A method for fabricating a thermal interface material, the method includes (a) providing an array of carbon nanotubes with interspaces defined therebetween; and (b) depositing a low melting point metallic material on the carbon nanotubes in the interspaces therebetween to form a metallic layer with the array of carbon nanotubes embedded therein, and thereby, achieving the thermal interface material.

Abstract: A detection system for monitoring an engineered structure includes an array of sensors disposable in a predetermined pattern on the engineered structure and disposable between a surface of the engineered structure and a protective coating substantially covering the surface. The detection system also includes a controller in communication with the array of sensors for retrieving data from the sensors. The controller communicates with the sensor array via an optical fiber backbone. The array of sensors can remotely provide data corresponding to at least one of a degree of cure of the protective coating, a health of the cured protective coating, and a corrosion rate of the engineered structure at each of the sensors.

Abstract: A mobile communication peripheral device includes a main body, a circuit board, an earphone and a microphone. An identification card is disposed on a surface of the main body. The circuit board is disposed within the main body, and includes a transceiver for receiving and emitting a wireless communication signal and a signal processing device electrically to the transceiver for processing the wireless communication signal. The wireless communication signal includes a first audio signal. The earphone is coupled to the main body via a connecting wire for receiving and sending out the first audio signal. The microphone is coupled to the main body via the connecting wire for receiving a second audio signal.

Abstract: A mould includes a base having a first surface and a second surface opposite to the first surface; and a plurality of nano-scaled holes defined through the base. Each nano-scaled hole extends from the first surface to the second surface of the base and is parallel to each other and oriented substantially perpendicular to the first and second surface.

Abstract: A reconfigurable peripheral device for use with a wireless apparatus is employed for receiving a signal from the wireless apparatus and transmitting a signal to the wireless apparatus. The reconfigurable peripheral device includes a first member, a second member and a third member. The first member includes a badge. The second member is detachably coupled to the first member, and includes a wireless signal processing circuit for receiving the signal from the wireless apparatus and transmitting the signal to the wireless apparatus. The third member is coupled to the second member, and includes an output device for outputting the signal received by the second member to the user.

Abstract: A reconfigurable peripheral device for use with a wireless apparatus is employed for receiving a signal from the wireless apparatus and transmitting a signal to the wireless apparatus. The reconfigurable peripheral device includes a first member, a second member and a third member. The first member includes a badge. The second member is detachably coupled to the first member, and includes a wireless signal processing circuit for receiving the signal from the wireless apparatus and transmitting the signal to the wireless apparatus. The third member is coupled to the second member, and includes an output device for outputting the signal received by the second member to the user.

Abstract: A mobile communication peripheral device includes a main body, a circuit board, an earphone and a microphone. An identification card is disposed on a surface of the main body. The circuit board is disposed within the main body, and includes a transceiver for receiving and emitting a wireless communication signal and a signal processing device electrically to the transceiver for processing the wireless communication signal. The wireless communication signal includes a first audio signal. The earphone is coupled to the main body via a connecting wire for receiving and sending out the first audio signal. The microphone is coupled to the main body via the connecting wire for receiving a second audio signal.

Abstract: A pointing device is electrically connect to a computer. The pointing device is used to control movements of a cursor on a display device of the computer. The pointing device has a housing, a pointing unit installed inside the housing to generate pointing signals to control the movements of the cursor, a rollable device for generating rolling signals, a light source for illuminating the rollable device, and a control unit for controlling the pointing device. When the computer transmits a state signal to the pointing device, the control unit controls the light source to determine an illumination mode of the rollable device according to the state signal.

Abstract: A radiation tuned optical fiber comprises an optical fiber that includes a substantially circular core and a cladding containing an asymmetric stress zone. The substantially circular core has an initial birefringence. A length of the optical fiber has at least one radiation-tuned portion wherein the substantially circular core has a tuned birefringence to provide the radiation tuned optical fiber in which the tuned birefringence differs from the initial birefringence.

Abstract: A wavelength tunable optical device comprises a polarization maintaining (PM) optical fiber having a length, a first end, a second end, and an initial birefringence. The PM optical fiber receives polarized light from a first polarizer adjacent to the first end of the PM optical fiber. A second polarizer receives a light output from the second end of the PM optical fiber. A wavelength tunable optical device provides a plurality of spectral peaks leaving the second polarizer with a periodicity determined by the length of the PM optical fiber. Each of the plurality of spectral peaks has a wavelength dependent upon the length and the initial birefringence of the PM optical fiber. The PM optical fiber is a radiation tunable optical fiber adaptable to a tuned birefringence such that the periodicity and each of the wavelengths change to a selectively tuned wavelength and a tuned periodicity.

Abstract: An information exchanging device is disclosed. The information exchanging device includes two separate but engagable housings which are mounted thereon two connectors for electrically connecting to two handy personal information processing devices such as PDAs or cellular phones, respectively. The two connectors are electrically connected to each other via an information exchanging circuit after the two housings engages with each other. The information exchanging circuit can be further connected to a personal computer. The information exchanging operation between the two handy personal information processing devices is performed in response to a triggering signal generated by pressing an actuating button or manipulating the personal computer.

Abstract: An image-capturing system includes an image-capturing module and a remote control. The image-capturing module has a digital camera for capturing images and a driving device for adjusting an image capturing angle of the digital camera. The remote control has a display panel for displaying images captured by the digital camera and a control panel for controlling the driving device. A user can utilize the control panel to control the driving device so as to change the image capturing angle of the digital camera, and can preview an image captured by the digital camera using the display panel of the remote control.

Abstract: An audio system has a playing circuit for generating an audio signal, at least a speaker electrically connected to the playing circuit for playing sound according to the audio signal, a detector for detecting a communication signal of mobile phones or automobile phones and generating a corresponding mute signal, and a mute circuit electrically connected to the detector and the playing circuit for receiving the mute signal. The mute circuit stops the speaker from playing sound after the mute circuit receives the mute signal.

Abstract: An optical wavelength router separates even and odd optical channels from an input WDM signal. The input beam is first converted into a pair of orthogonally-polarized beams. One of the beams is reflected by a mirror, while the other is reflected by a Fabry-Perot resonator (or etalon). The group delay of the reflected beams is strongly dependent on wavelength. The beams reflected from the resonator and mirror are combined and interfere in a birefringent element (e.g., a beam displacer or polarized beamsplitter) to produce a beam having mixed polarization as a function of wavelength. The polarized components of this beam are separated by a polarization-dependent routing element to produce two output beams containing complementary subsets of the input optical spectrum (e.g., even optical channels are routed to output port A and odd optical channels are routed to output port B).

Abstract: The present invention provides a voice control module for controlling a game controller comprising: a microphone for inputting voice signals, a first voice recognition device of command mode for converting the voice signals inputted from the microphone within a time period into a corresponding game command, and a second voice recognition device of continuous mode for converting the voice signals continuously inputted from the microphone into a corresponding switch command. Wherein after the switch command is converted, the second voice recognition device initiates the first voice recognition device to convert the voice signals inputted from the microphone within the time period into a corresponding game command to control the game controller.

Abstract: The present invention provides a voice control module for controlling a game controller comprising: a microphone for inputting voice signals, a first voice recognition device of command mode for converting the voice signals inputted from the microphone within a time period into a corresponding game command, and a second voice recognition device of continuous mode for converting the voice signals continuously inputted from the microphone into a corresponding switch command. Wherein after the switch command is converted, the second voice recognition device initiates the first voice recognition device to convert the voice signals inputted from the microphone within the time period into a corresponding game command to control the game controller.

Abstract: A power plug device has a power plug, at least one switched power socket at least one socket switch, a embedded controller and a telephone jack. The embedded controller can send and receive network signals across a telephone line through the telephone jack, or across a power line through the power plug of the power plug device. The power plug device may switch on or off its power sockets depending on networking signals that come from the power or telephone lines. The power plug device can also send networking signals out along the telephone or power line. The power plug device also has a networking communications port. Two such power plug devices enable two or more computers to communicate with each other using the existing power and telephone lines within a building.

Abstract: An information exchanging device is disclosed. The information exchanging device includes two separate but engagable housings which are mounted thereon two connectors for electrically connecting to two handy personal information processing devices such as PDAs or cellular phones, respectively. The two connectors are electrically connected to each other via an information exchanging circuit after the two housings engages with each other. The information exchanging circuit can be further connected to a personal computer. The information exchanging operation between the two handy personal information processing devices is performed in response to a triggering signal generated by pressing an actuating button or manipulating the personal computer.