Abstract:
An image pickup device for detecting a moving speed of a shot object and a method thereof are described. First, a coordinate of the image pickup device and a coordinate of the shot object are obtained at a first time point. Next, a coordinate of the image pickup device and a coordinate of the shot object are obtained at a second time point. Then, a moving distance of the shot object is calculated according to the coordinates of the shot object at the first and second time points. A moving speed of the shot object is calculated according to a time difference and the moving distance. Afterward, the obtained moving speed is displayed on the image pickup device, such that the user knows about the moving speed of the shot object.
Abstract:
A method of scanning a touch panel is provided. The present method includes following steps. First, a scan area is defined according to the coordinates of a detected touch signal. Next, the scan area is scanned during a predetermined period to detect a next touch panel. After the predetermined period, a sensing range of the touch panel is scanned to re-define the scan area. Because the scan area is smaller than the sensing range of the touch panel, the time and power consumed by the scanning operation can be both reduced by detecting the touch signals within the scan area.
Abstract:
A method of positioning a coordinate suitable for a touch panel includes following steps. When a touch event occurs, the touch panel generates a corresponding detection coordinate periodically until the touch event ends. When the touch event occurs, the detection coordinate generated by the touch panel is sequentially stored. The touch event is ignored until the number of coordinates generated by the touch panel is greater than or equal to N, and N is a positive integer. When the number of coordinates generated by the touch panel is greater than or equal to N, a touch coordinate corresponding to the touch event is generated according to the last generated N detection coordinates. The above-mentioned step of generating the touch coordinate is repeated according to a cycle of generating the detection coordinate by the touch panel so as to renew the touch coordinate until the touch event ends.
Abstract:
A conductive device for electrically connecting to a conductive element of at least one cold cathode fluorescent lamp (CCFL) includes at least one coupling terminal and at least one extended conductive segment. The coupling terminal is in the form of an elongated column structure and provided with an insertion bore for receiving the conductive element of the CCFL therein. The extended conductive segment is provided along outer and inner longitudinal edges with a plurality of spaced pairs of upward projected conductive clips. The conductive clips in each pair can hold one coupling terminal therein while the conductive element of the CCFL is received in the insertion bore of the coupling terminal, so that the CCFL conductive device is associated with the CCFL. When a high voltage is applied to the CCFL via the conductive device, discharge occurs in the CCFL to emit light.
Abstract:
An image pickup device for detecting a moving speed of a shot object and a method thereof are described. First, a coordinate of the image pickup device and a coordinate of the shot object are obtained at a first time point. Next, a coordinate of the image pickup device and a coordinate of the shot object are obtained at a second time point. Then, a moving distance of the shot object is calculated according to the coordinates of the shot object at the first and second time points. A moving speed of the shot object is calculated according to a time difference and the moving distance. Afterward, the obtained moving speed is displayed on the image pickup device, such that the user knows about the moving speed of the shot object.
Abstract:
A micro contact element made by photolithography technology includes a suspension arm having a first long side and a second long side opposite to the first long side, a point connected to an end of the first long side of the suspension arm and extending perpendicularly from the suspension arm, and an insertion portion perpendicularly extending from the second long side of the suspension arm. The insertion portion is to be inserted a hole of a base member having circuitry thereon. The insertion portion may be formed by layers of deposited material or may be a springy member. The suspension member may include an intermediate deformable portion to adjust stiffness.
Abstract:
A micro contact element made by photolithography technology includes a suspension arm having a first long side and a second long side opposite to the first long side, a point connected to an end of the first long side of the suspension arm and extending perpendicularly from the suspension arm, and an insertion portion perpendicularly extending from the second long side of the suspension arm.
Abstract:
Disclosed is a retro-reflective type optical signal processing device and method, particularly to a device includes a set of optical mirror planes with retro-reflective type layout and configuration, and a set of micro-shutters controlled by microelectromechanical actuators, whereas the optical signals in propagation can be blocked or partially blocked in terms of the position of said a set of micro-shutters corresponding to the optical signal transmission path, thereby the method of said approach to determine the range of attenuated optical signal is a variable optical attenuation function demonstrated by present invention. Such a retro-reflective type optical signal processing device and method further comprises a set of three reflective mirrors and micro-shutters with reflective mirrors. Thereby this device has the capability to switch 2 sets of retro-reflected optical light transmission paths, the method of said approach is a demonstration of 2×2 optical switching function.