Abstract: Camera set with connecting structure includes a main camera and a detachable camera. The main camera includes a main housing with a main camera module mounted therein. A docking structure and a main connector are mounted on a side of the main housing. The main camera module includes a main lens mounted on a front side of the main housing. The detachable camera includes an expanded housing with a detachable camera module mounted therein. A join structure and a first expanded connector are mounted on a side of the expanded housing. The detachable camera module includes an expanded lens mounted on a front side of the expanded housing. A second expanded connector is mounted on the other side of the expanded housing. The main camera can be used individually or can expand functions by being assembled to another camera by the docking structure and join the structures.

Abstract: Camera set with connecting structure comprises a main camera and a detachable camera. The main camera comprises a main housing with a main camera module being mounted therein. A docking structure and a main connector are mounted on a side of the main housing. The main camera module comprises a main lens being mounted on a front side of the main housing. The detachable camera comprises an expanded housing with a detachable camera being mounted therein. A join structure and a first expanded connector are mounted on a side of the expanded housing. The detachable camera module comprises an expanded lens being mounted on a front side of the expanded housing. A second expanded connector is mounted on the other side of the expanded housing. The main camera can be used individually or can expand functions by assembled to other camera by the docking structure and join structures.

Abstract: An image editing method for editing an original image is provided. The original image has a distinct figure and an indistinct figure, which correspond to an in-focus object and an out-of-focus object, respectively. The image editing method includes: obtaining an out-of-focus object distance from the out-of-focus object to a lens; performing an inverse blurring process on the indistinct figure according to the out-of-focus object distance and an optical parameter to obtain a processed figure; and forming a processed image according to the processed figure and the distinct figure.

Abstract: An image transform apparatus for displaying image characteristics of a second display on a first display includes a first transform unit, for transforming a first image signal of the first display to a first output signal according to a second gamma value associated with the second display; a second transform unit, for transforming the first output signal to a second output signal according to a transform gain function associated with the first display and the second display; and a third transform unit, for transforming the second output signal to a second image signal according to a first gamma value associated with the first display.

Abstract: An image editing method for editing an original image is provided. The original image has a distinct figure and an indistinct figure, which correspond to an in-focus object and an out-of-focus object, respectively. The image editing method includes: obtaining an out-of-focus object distance from the out-of-focus object to a lens; performing an inverse blurring process on the indistinct figure according to the out-of-focus object distance and an optical parameter to obtain a processed figure; and forming a processed image according to the processed figure and the distinct figure.

Abstract: An image transform apparatus for displaying image characteristics of a second display on a first display includes a first transform unit, for transforming a first image signal of the first display to a first output signal according to a second gamma value associated with the second display; a second transform unit, for transforming the first output signal to a second output signal according to a transform gain function associated with the first display and the second display; and a third transform unit, for transforming the second output signal to a second image signal according to a first gamma value associated with the first display.

Abstract: Disclosed is a digital signal processing architecture for a flat panel display having non-uniform regions, which is not by means of materials, optical films or fabrication processes. Therefore, the manufacturing cost and complexity of the flat panel display are not negatively affected. In the digital signal processing architecture, a test is performed on the panel for identifying all pixel locations in non-uniform regions and non-uniform types. Then, input video signals are compared with data about the relative non-uniform regions for determining whether the video signal falls in a normal-region pixel or a non-uniform region pixel. Then the non-uniform compensation on the video signal falling in the non-uniform region pixel is based on the non-uniform type, so that the video signals displayed on the panel are not negatively affected.

Abstract: A notebook computer with force feedback for gaming is provided. A vibrating plate is disposed on a host, and a vibration generating device is disposed at the bottom of the vibrating plate to generate vibration when a computer game is executed. Thus, a user playing the computer game may feel the force feedback. Additionally, to prevent vibration from affecting the normal operation of the host, a damper is disposed between the host and the vibrating plate to prevent vibration from being transmitted to the host.

Abstract: A portable computer including a host and an input device is provided. The host has a accommodating space and a first wireless transmission unit. The input device is detachably disposed in the accommodating space and has a touch pad, a plurality of control buttons and a second wireless transmission unit. The touch pad and the control buttons are electrically connected to the second wireless transmission unit. The second wireless transmission unit is used for performing wireless transmission with the first wireless transmission unit.

Abstract: The invention discloses a portable electronic device comprising a casing, a first support and a second support. The casing comprises a bottom and a recess formed on the bottom. The recess comprises a first side-portion and a second side-portion opposite to the first side-portion. The first support thereon has a first end and a second end, and the second support thereon has a third end and a fourth end. The first end of the first support is slidably connected between the first and second side-portions. The third end of the second support is pivotally connected to the second end of the first support. The fourth end of the second support is pivotally connected between the first and second side-portions. When the first end of the first support slides along the first and second side-portions, the first support will drive the second support to rotate with respect to the casing.

Abstract: A method suitable for calibrating the deviation of opto-electronic conversion functions (OECFs) in an imaging apparatus is provided. The method of calibrating the deviation of OECFs comprises the following steps. First, the imaging apparatus captures a first image. Next, the imaging apparatus performs an image calibration process with respect to the first image to capture a second image and simultaneously obtain an OECF set. The OECF set includes at least an optical characteristic value of the second image and at least an electrical characteristic value of the imaging apparatus. Finally, the aforementioned steps are repeated to obtain a number of images and their corresponding OECF sets.

Abstract: The present invention discloses a compensation hardware device for non-uniform regions in a flat panel display. The hardware device processes the flat panel display having non-uniform regions through digital signal processing, instead of by using materials, optical films or fabrication processes. Therefore, the manufacturing cost and complexity of the flat panel display are not negatively affected. In the digital signal processing architecture, a non-uniform-region compensation unit is used to process a video signal falling in a non-uniform region pixel, such that the non-uniform regions may not negatively affect the video signal displayed on the panel.

Abstract: Disclosed is a digital signal processing architecture for a flat panel display having non-uniform regions, which is not by means of materials, optical films or fabrication processes. Therefore, the manufacturing cost and complexity of the flat panel display are not negatively affected. In the digital signal processing architecture, a test is performed on the panel for identifying all pixel locations in non-uniform regions and non-uniform types. Then, input video signals are compared with data about the relative non-uniform regions for determining whether the video signal falls in a normal-region pixel or a non-uniform region pixel. Then the non-uniform compensation on the video signal falling in the non-uniform region pixel is based on the non-uniform type, so that the video signals displayed on the panel are not negatively affected.

Abstract: An active device array substrate comprising a substrate, a plurality of scan lines, a plurality of data lines and a plurality of active devices is provided. The scan lines, the data lines, and the active devices are disposed on the substrate. Each of the active devices is connected to one of the scan lines and one of the data lines and the surfaces of the active devices are not parallel to the surface of the substrate. Because surfaces of the active devices incline to the surface of the substrate, the projection areas of non-transparency of the active devices on the surface of the substrate could be reduced. Moreover, this active device array substrate could be applied to a liquid crystal display panel and other active matrix flat panel display to obtain a better pixel aperture.

Abstract: A method for calibrating a flat panel display comprising the following steps is provided. First, initialize a flat panel display and an optical meter. Provide a predetermined period of delay. Use the flat panel display to display a test pattern. Provide another predetermined period of delay. Use the optical meter to get measured data from the test pattern repeatedly until enough data for analysis is gathered. Repeat the step of displaying the test patterns until all test patterns have been displayed. Finally, analyze all the measured data to calculate the correct parameters for the control circuit of the flat panel display and set the parameters of the control circuit to the correct values.

Abstract: A method suitable for calibrating the deviation of opto-electronic conversion functions (OECFs) in an imaging apparatus is provided. The method of calibrating the deviation of OECFs comprises the following steps. First, the imaging apparatus captures a first image. Next, the imaging apparatus performs an image calibration process with respect to the first image to capture a second image and simultaneously obtain an OECF set. The OECF set includes at least an optical characteristic value of the second image and at least an electrical characteristic value of the imaging apparatus. Finally, the aforementioned steps are repeated to obtain a number of images and their corresponding OECF sets.

Abstract: Disclosed is a digital signal processing architecture for a flat panel display having non-uniform regions, which is not by means of materials, optical films or fabrication processes. Therefore, the manufacturing cost and complexity of the flat panel display are not negatively affected. In the digital signal processing architecture, a test is performed on the panel for identifying all pixel locations in non-uniform regions and non-uniform types. Then, input video signals are compared with data about the relative non-uniform regions for determining whether the video signal falls in a normal-region pixel or a non-uniform region pixel. Then the non-uniform compensation on the video signal falling in the non-uniform region pixel is based on the non-uniform type, so that the video signals displayed on the panel are not negatively affected.