Abstract: A method of identifying a palm area for a touch panel has steps of: receiving sensing frame information having multiple touching sensing points from the touch panel; selecting one of the touching sensing points; outwardly extending a distance from an outline of the selected touching sensing point to define a searching range; checking whether other touching sensing points are within the searching range; marking the touching sensing points in the searching range and expanding the searching range based on the currently marked touching sensing points; sequentially selecting and checking each touching sensing point if it is within the present searching range; and finally merging all the outlines of the marked touching sensing points to form a final outline as a palm area. Other unmarked touching sensing points are defined as touching reference points.

Abstract: A method of identifying edge touch gesture has steps of scanning the touch device under a hover mode; scanning the touch device under a touch mode; determining if there is a touch object on the touch device according to a scanning result of the touch mode; and when there is a touch object on the touch device, identifying the gesture according to a scanning result of the hover mode and the scanning result of the touch mode. Accordingly, the method can perform valid touch on the edge area, rendering effective identification of edge touch gesture and an increased success rate of the identification.

Abstract: A method of identifying edge swipe gesture has steps of respectively reading sensing signals on an edge area under a hover mode and on a non-edge area under a touch mode; determining if a touch object has appeared on the edge area after determining that the object has appeared on the non-edge area, calculating a displacement of the object moving from the edge area to the non-edge area within a preset time and determining if the displacement exceeds a preset distance, and determining that the movement of the touch is identified as an edge swipe gesture if the displacement meets the condition. Accordingly, the present invention can perform valid touch on the edge area, rendering effective identification of edge swipe gesture and an increased success rate of the identification.

Abstract: A method of identifying a palm area for a touch panel has steps of: receiving sensing frame information having multiple touching sensing points from the touch panel; selecting one of the touching sensing points; outwardly extending a distance from an outline of the selected touching sensing point to define a searching range; checking whether other touching sensing points are within the searching range; marking the touching sensing points in the searching range and expanding the searching range based on the currently marked touching sensing points; sequentially selecting and checking each touching sensing point if it is within the present searching range; and finally merging all the outlines of the marked touching sensing points to form a final outline as a palm area. Other unmarked touching sensing points are defined as touching reference points.

Abstract: A capacitive touch device and a method identifying touch object on the touch device read sensing information of multiple traces of a touch panel corresponding to a touch object, in which the sensing information includes a sensing cluster corresponding to a portion on the touch panel touched by the touch object, identify a hover cluster of the sensing information corresponding to a portion adjacent to and surrounding the sensing cluster, determine if the hover cluster meets a first characteristic, and determine that the touch object is a specific touch object when the hover cluster meets the first characteristic. Given the foregoing device and method, a palm rejection operation can be more accurately performed and is also applicable to object detection at corners of the touch panel.

Abstract: A method of identifying a palm area for a touch panel has steps of: receiving sensing frame information having multiple touching sensing points from the touch panel; selecting one of the touching sensing points; outwardly extending a distance from an outline of the selected touching sensing point to define a searching range; checking whether other touching sensing points are within the searching range; marking the touching sensing points in the searching range and expanding the searching range based on the currently marked touching sensing points; sequentially selecting and checking each touching sensing point if it is within the present searching range; and finally merging all the outlines of the marked touching sensing points to form a final outline as a palm area. Other unmarked touching sensing points are defined as touching reference points.

Abstract: A waterproof structure of a casing has a case body and a cover pivotally mounted on the case body. The case body has a recess, a water collecting sump defined in the recess and two abutting protrusions respectively formed on two opposite inner sidewalls of the case body. The cover has an outer shell, and an inner stop and two side stops formed on an inner surface of the outer shell. When the cover pivots to cover the recess of the case body, the inner stop and the side stops prevent moisture and dust from entering the case body from a clearance formed between a pivot edge of the outer shell and the water collecting side surface of the case body.

Abstract: A method of identifying edge swipe gesture has steps of respectively reading sensing signals on an edge area under a hover mode and on a non-edge area under a touch mode; determining if a touch object has appeared on the edge area after determining that the object has appeared on the non-edge area, calculating a displacement of the object moving from the edge area to the non-edge area within a preset time and determining if the displacement exceeds a preset distance, and determining that the movement of the touch is identified as an edge swipe gesture if the displacement meets the condition. Accordingly, the present invention can perform valid touch on the edge area, rendering effective identification of edge swipe gesture and an increased success rate of the identification.

Abstract: A stacked heat dissipating module of an electronic device has a holding frame, and at least one first heat conducting medium layer, a heat dissipating medium layer, a first heat sink layer, at least one second heat conducting medium layer and at least one second heat sink layer stacked with each other. The at least one first heat conducting medium layer is mounted on at least one heating component of the electronic device to dissipate heat generated from the at least one heating component. Moreover, the holding frame, the heat conducting medium layers and the heat sink layers have corresponding housing holes for exposing an exposed component of the electronic device to bring the exposed component's function into full play.

Abstract: A stacked heat dissipating module of an electronic device has a holding frame, and at least one first heat conducting medium layer, a heat dissipating medium layer, a first heat sink layer, at least one second heat conducting medium layer and at least one second heat sink layer stacked with each other. The at least one first heat conducting medium layer is mounted on at least one heating component of the electronic device to dissipate heat generated from the at least one heating component. Moreover, the holding frame, the heat conducting medium layers and the heat sink layers have corresponding housing holes for exposing an exposed component of the electronic device to bring the exposed component's function into full play.

Abstract: A waterproof structure of a casing has a case body and a cover pivotally mounted on the case body. The case body has a recess, a water collecting sump defined in the recess and two abutting protrusions respectively formed on two opposite inner sidewalls of the case body. The cover has an outer shell, and an inner stop and two side stops formed on an inner surface of the outer shell. When the cover pivots to cover the recess of the case body, the inner stop and the side stops prevent moisture and dust from entering the case body from a clearance formed between a pivot edge of the outer shell and the water collecting side surface of the case body.

Abstract: An electronic device including a circuit board, a frame, at least one shielding cover, a shielding case and a plurality of electronic components is provided. The frame is disposed on the circuit board for forming a plurality of first containing spaces on the circuit board. The shielding cover is disposed on the frame and covers at least a part of the first containing spaces. The shielding cover comprises a plurality of folded portions. The folded portions are disposed in a part of the first containing spaces for dividing the first containing spaces into a plurality of second containing spaces. The shielding case is disposed on the circuit board and covers the shielding cover and the frame. The electronic components are disposed on the circuit board and located in at least one of the first containing spaces and the second containing spaces.

Abstract: A method of identifying a palm area for a touch panel has steps of: receiving sensing frame information having multiple touching sensing points from the touch panel; selecting one of the touching sensing points; outwardly extending a distance from an outline of the selected touching sensing point to define a searching range; checking whether other touching sensing points are within the searching range; marking the touching sensing points in the searching range and expanding the searching range based on the currently marked touching sensing points; sequentially selecting and checking each touching sensing point if it is within the present searching range; and finally merging all the outlines of the marked touching sensing points to form a final outline as a palm area. Other unmarked touching sensing points are defined as touching reference points.

Abstract: A touch sensing unit includes an external conductive part and at least one internal conductive part. Each internal conductive part has at least two ends respectively connected to the external conductive part. A sensing pattern constituted by the at least one internal conductive part and the external conductive part includes a plurality of hollow areas.

Abstract: A method of controlling a cursor on a screen by using a touch device includes changing a display coordinate set of the cursor on the screen representative of an object according to a relative coordinate set with respect to movement of the object on the touch device, hiding the cursor from the screen when the object leaves the touch device for a duration in excess of a predetermined time, and when the cursor is not displayed on the screen and an object touches the touch device, computing an initial display coordinate set of the cursor on the screen according to an absolute coordinate set of the object on the touch device and a resolution ratio between the touch device and the screen. With this method, the cursor on the screen can be intuitively operated by using the touch device.

Abstract: A method for operation to a multi-touch environment screen by using a touchpad defines a movable control window on the screen, calculates an inter-window coordinate set of the object mapped from the touchpad to the control window according to an absolute coordinate set of the object on the touchpad and a resolution ratio between the touchpad and the control window when the touchpad is detected being touched, defines a cursor on the screen representative of the object according to the inter-window coordinate set, and changes a coordinate set of the cursor on the screen representative of the object according to a number of the object on the touchpad and movement thereof. This method allows a user to intuitively operate the screen by using the touchpad.

Abstract: A touch device for multi-touch environment generates a sensing signal in response to an object touch thereon, generates an event signal according to the sensing signal and a control signal, generates a cursor signal according to coordinate information of each touch point contained in the sensing signal and the event signal, and transmits the cursor signal and the event signal to the multi-touch environment. The cursor signal is used to control a cursor application to show a cursor at a screen for each touch point and changes appearances of the cursors. The cursors clearly inform a user of locations where his/her fingers correspond on the screen. By conducting touch events in the multi-touch environment through the cursors instead of actual fingers, the user can operate the touch device other than a touch screen in a multi-touch manner as operating a multi-touch screen.

Abstract: The present invention provides a liquid crystal display module including housing, a flexible printed circuit board and a plurality of electric devices. The housing has at least a receiving notch. The flexible printed circuit board has a flexible substrate and at least an extension substrate projected from the flexible substrate to mount electric devices thereon. The extension substrate may be bent and received in the receiving notch of the housing to achieve the purpose of mounting more electric device on the flexible printed circuit board without having to increase the size of module.

Abstract: An operative method of a manufacturing system for processing a substrate is provided. The manufacturing system includes at least a handling system, two deposition apparatus groups, an etching apparatus group, a photolithography apparatus group and two photoresist-striping apparatus groups. The handling system has a plurality of handling paths comprising at least two connected ring paths, which are connected in a common path. These deposition apparatus groups and the photoresist-striping apparatus groups are located on the two ring paths respectively. The etching apparatus group is located on the common path. The photolithography apparatus group is located on the two ring paths between the two deposition apparatus groups. The manufacturing system of the present invention thus combines the advantages of the group-type manufacturing system and the continuous-type manufacturing system.

Abstract: The present invention provides a liquid crystal display module including housing, a flexible printed circuit board and a plurality of electric devices. The housing has at least a receiving notch. The flexible printed circuit board has a flexible substrate and at least an extension substrate projected from the flexible substrate to mount electric devices thereon. The extension substrate may be bent and received in the receiving notch of the housing to achieve the purpose of mounting more electric device on the flexible printed circuit board without having to increase the size of module.