Abstract: Systems, devices and methods of manufacturing a system on silicon wafer (SoSW) device and package are described herein. A plurality of functional dies is formed in a silicon wafer. Different sets of masks are used to form different types of the functional dies in the silicon wafer. A first redistribution structure is formed over the silicon wafer and provides local interconnects between adjacent dies of the same type and/or of different types. A second redistribution structure may be formed over the first redistribution layer and provides semi-global and/or global interconnects between non-adjacent dies of the same type and/or of different types. An optional backside redistribution structure may be formed over a second side of the silicon wafer opposite the first redistribution layer. The optional backside redistribution structure may provide backside interconnects between functional dies of different types.

Abstract: A touch sensing structure is provided. The touch sensing structure includes a substrate, a plurality of first conductive traces and a second conductive trace. The plurality of first conductive traces is formed on the substrate. Each of the first conductive trace includes a trunk and at least one branch. The trunks of the first conductive traces are disposed to be parallel with each other. The branch of each first conductive trace is extended from one side of the trunk toward the adjacent first conductive trace. The branches between the two adjacent first conductive traces are disposed to be opposite and alternative. A path is composed of the two adjacent trunks and the branches disposed to be opposite and alternative. The second conductive trace is formed on the substrate, disposed between the two adjacent first conductive traces and extended along the path.

Abstract: A touch sensing structure is provided. The touch sensing structure includes a substrate, a plurality of first conductive traces and a second conductive trace. The plurality of first conductive traces is formed on the substrate. Each of the first conductive trace includes a trunk and at least one branch. The trunks of the first conductive traces are disposed to be parallel with each other. The branch of each first conductive trace is extended from one side of the trunk toward the adjacent first conductive trace. The branches between the two adjacent first conductive traces are disposed to be opposite and alternative. A path is composed of the two adjacent trunks and the branches disposed to be opposite and alternative. The second conductive trace is formed on the substrate, disposed between the two adjacent first conductive traces and extended along the path.

Abstract: The present invention discloses a unique user interface of an electronic device. The user interface comprises a first interface and a second interface. The said first interface has a displaying mode and an operating mode. The displaying mode is capable of automatically and continuously displaying a first polyhedron icon by rotating thereto in a certain sequence. The operating mode is capable of rotating the polyhedron icon in accordance with the order of the user. The second interface is capable of displaying the polyhedron by unfolding it so as to display the displaying surfaces thereof. Furthermore, the present invention has an output mode. in the output mode, a plurality of reserved intervals are added on the periphery of the development drawing of polyhedron icon so as to provide a non-digital, physical 3D polyhedron by cutting, adhering and folding the reserved intervals.

Abstract: A capacitance sensor structure includes a first sensor in a first direction and a second sensor in a second direction for sensing a variation in the mutual capacitance between the first sensor and the second sensor by applying an excitation signal to the first sensor and detecting a response signal from the second sensor. The sensing area of the second sensor is intentionally reduced to be much smaller than the sensing area of the first sensor for noise performance improvement of the mutual capacitance sensing.

Abstract: A method for recognizing and tracing a gesture fetches a gesture image by an image sensor. The gesture image is processed for recognizing and tracing, and a corresponding action is performed according to the processed result. The gesture image is pre-processed and then a moved image is detected. The moved image is analyzed to obtain a gesture feature. When the gesture feature is corresponding to a moved gesture, a center coordinate of the moved gesture is detected and outputted to control a cursor. When the gesture feature is corresponding to a command gesture, a relevant action command is outputted. Therefore, the method provides cursor movement and command input by user gesture.

Abstract: A method for controlling a gesture-based remote control system (100) is provided to control a controlled electronic appliance by detecting an image of a user's gesture. A movement area in the image of the user's gesture detected. The user's gesture is judged as an adjusted gesture when the movement of the motion region is continual. The controlled electronic appliance is controlled by a key controlling command based on the adjusted gesture and sent by a wireless transmitter.

Abstract: A gesture-based remote control system includes a camera module (300), an image recognition module (100), a wireless transmitter (400), and a main-controlling electronic appliance (200). The image recognition module (100) is electrically connected to the camera module (300). The wireless transmitter (400) is electrically connected to the image recognition module (100). The main-controlling electronic appliance (200) is detachably connected to the image recognition module (100). The main-controlling electronic appliance (200) includes a monitor (202). A motion controlling command is obtained by recognizing an image of a user in the camera module (300) with the image recognition module (100). A key controlling command is obtained from the motion controlling command and a key code information by the image recognition module (100). The key controlling command is sent by the image recognition module (100) to the wireless transmitter (400).

Abstract: An intelligent surveillance system and method for the same uses an image sensor (10) to fetch an original image and adjust the original image to obtain an adjusted image. An adjusted motion image is detected in the adjusted image. According to the location information of the adjusted motion image, an original motion image portion is fetched in the original image. Finally the original motion image portion is displayed or stored. The present invention uses a single image sensor to fetch and preserve a high-resolution panorama image. A low-resolution panorama image is obtained from the high-resolution panorama image to detect and locate moving objects. Location areas of the moving objects in the high-resolution panorama image are re-located. High-resolution images of the moving objects are obtained without digital magnifying.

Abstract: A method for controlling a gesture-based remote control system (100) is provided to control a controlled electronic appliance by detecting an image of a user's gesture. A movement area in the image of the user's gesture detected. The user's gesture is judged as an adjusted gesture when the movement of the motion region is continual. The controlled electronic appliance is controlled by a key controlling command based on the adjusted gesture and sent by a wireless transmitter.

Abstract: A non-contact mouse method uses an image sensor (10) to fetch an original image and adjust the original image to obtain an adjusted image. A motion image is detected in the adjusted image. A mouse block (56) is defined in the motion image. At least one moving-speed block in the mouse block is defined. A peak position of the motion image is detected. Finally, an operation associated with the moving-speed block pointed by the peak position is executed.

Abstract: A non-contact touchpad method uses an image sensor (10) to fetch an original image and adjust the original image to obtain an adjusted image. A motion image is detected in the adjusted image. The motion image is corresponded to a database (36) and divided into a plurality of division sections. At least one function block is defined in the database (36) and including at least one of the division sections. The database (36) defines the corresponding computer input action for the function blocks. The division section is determined to be a motion section or not according to a movement threshold. Finally, the computer input action is executed with reference to input functions associated with the motion section and defined in the database (36).

Abstract: A method for recognizing and tracing a gesture fetches a gesture image by an image sensor. The gesture image is processed for recognizing and tracing, and a corresponding action is performed according to the processed result. The gesture image is pre-processed and then a moved image is detected. The moved image is analyzed to obtain a gesture feature. When the gesture feature is corresponding to a moved gesture, a center coordinate of the moved gesture is detected and outputted to control a cursor. When the gesture feature is corresponding to a command gesture, a relevant action command is outputted. Therefore, the method provides cursor movement and command input by user gesture.

Abstract: A system allowing a portable display apparatus to share an image from a host computer is disclosed. The image sharing system is composed of a portable display apparatus, a transmitter and a computer. An image of the computer is acquired by software to send to the transmitter connected to the computer. The transmitter wirelessly sends the image to the portable display apparatus for displaying. A user who holds the portable display apparatus can see the image of the computer without seeing the computer.

Abstract: A method for judging directionality of a housing having two parallel panels by a gravity sensor is disclosed. The method is used for a handheld apparatus to judge which of the panels is upward. The method first obtains a set of component quantity of gravity on three coordinate axes from a three dimensional gravity sensor. When ?0.5 g>gz??1 g and 1 g?gz>0.5 g, a first direction status and a second direction status is acquired, respectively. When 0.5 g?gz??0.5 g, the method further reposes on two parameters, polarity of gz and magnitude of the component quantity on y-axis (gy), to judge. When gz>0 and ?0.5 g>gy??1 g or when gz<0 and 1 g?gy>0.5 g, the judging result is the first direction status. When gz<0 and ?0.5 g>gy?1 g or when gz>0 and 1 g?gy>0.5 g, it is the second one. The rest will be judged to be “don't care”.

Abstract: A switch device disposed in a handheld apparatus having double-sided keypad arrangement is capable of automatically switching to enable a keypad on an upward side and disable the downward keypad by means of sensing directionality of the apparatus. The handheld apparatus has a cuboidal housing, whose two opposite sides equip a keypad, respectively. The switch device in the apparatus has a gravity sensor for detecting a distribution of gravity of the apparatus along three coordinate axes. The senor sends a gravity signal to a controller, which judges a direction of the apparatus being disposed. The controller sends a switching signal to a relay connected to the two keypads. The relay controls either of the keypads to be available.

Abstract: A method for judging directionality of a housing having two parallel panels by a gravity sensor is disclosed. The method is used for a handheld apparatus to judge which of the panels is upward. The method first obtains a set of component quantity of gravity on three coordinate axes from a three dimensional gravity sensor. When ?0.5 g>gz??1 g and 1 g?gz>0.5 g, a first direction status and a second direction status is acquired, respectively. When 0.5 g?gz??0.5 g, the method further reposes on two parameters, polarity of gz and magnitude of the component quantity on y-axis (gy), to judge. When gz>0 and ?0.5 g>gy??1 g or when gz<0 and 1 g?gy>0.5 g, the judging result is the first direction status. When gz<0 and ?0.5 g>gy?1 g or when gz>0 and 1 g?gy>0.5 g, it is the second one. The rest will be judged to be “don't care”.