Abstract:
A capacitive touch panel unit includes a transparent substrate, a conductive layer and a protection layer. The transparent substrate has a first side and a second side opposite to the first side. The conductive layer is disposed on the second side. The protection layer is correspondingly attached to one side of the conductive layer, which side is opposite to the transparent substrate. By means of the design of the capacitive touch panel unit, the number of the conductive layer is reduced to lower the manufacturing cost and reduce the total thickness.
Abstract:
A method of manufacturing touch panel includes the steps of providing a backlight module having at least one extended wall portion formed therewith, so that a receiving space is enclosed in the extended wall portion; providing a liquid crystal display (LCD) layer and a capacitive sensing layer; providing a bonding layer to bond the LCD layer and the capacitive sensing layer to each other; and positioning the bonded LCD layer and capacitive sensing layer in the receiving space of the backlight module. Any extra amount of the bonding layer flowing out from between the bonded LCD layer and capacitive sensing layer forms an overflowed portion that is stopped by the extended wall portion from entering into the receiving space, so that time and labor costs for removing the overflowed portion in assembling the touch panel are saved and the production yield is increased.
Abstract:
A method for executing multiple operating systems (OSs) and an electronic apparatus are provided. Current hardware resources of the electronic apparatus are obtained after executing a boot process. The hardware resources are allocated to each of the OSs according to a resource allocation ratio, so as to load each of the OSs.
Abstract:
A filter for filtering noise generated by a differential signal having a specific wavelength transmitted by a first transmission line and a second transmission line is disclosed. The filter includes a multi-layer substrate, a first microstrip line and a second microstrip line. The first and the second transmission lines and the first and the second microstrip lines are disposed at the multi-layer substrate. In addition, one end of the first microstrip line and one end of the second microstrip line are electrically connected to the first and the second transmission lines, respectively, by passing through the vias, and the other end is in a floating state. The impedances of the first and the second microstrip lines match the impedances of the first and the second transmission lines, respectively. Thus, the first and the second microstrip lines may filter the noise generated by the differential signal having the specific wavelength.
Abstract:
A self-configured network system includes a server including a plurality of columns. Each column records therein correlation of a domain name to a corresponding network addressing information. An internet protocol device is built therein a preset domain name and acquires an updated network addressing information in the internet. The preset domain name is previously recorded in a specified column of the server. The internet protocol device transfers the preset domain name and the updated network addressing information to the server via the internet so as to locate the specified column and replace the corresponding network addressing information with the updated network addressing information. A user's node is capable of linking to the internet and accessible to the server to acquire the updated network addressing information of the internet protocol device via the internet in response to input of the preset domain name.
Abstract:
A filter for filtering noise generated by a differential signal having a specific wavelength transmitted by a first transmission line and a second transmission line is disclosed. The filter includes a multi-layer substrate, a first microstrip line and a second microstrip line. The first and the second transmission lines and the first and the second microstrip lines are disposed at the multi-layer substrate. In addition, one end of the first microstrip line and one end of the second microstrip line are electrically connected to the first and the second transmission lines, respectively, by passing through the vias, and the other end is in a floating state. The impedances of the first and the second microstrip lines match the impedances of the first and the second transmission lines, respectively. Thus, the first and the second microstrip lines may filter the noise generated by the differential signal having the specific wavelength.
Abstract:
Within a method for forming a sacrificial silicon oxide layer, there is first provided a silicon semiconductor substrate. There is then thermally oxidized the silicon semiconductor substrate at a first temperature within a first oxidizing atmosphere to form a silicon oxide layer upon a partially consumed silicon semiconductor substrate formed from the silicon semiconductor substrate. There is then thermally oxidizing the partially consumed silicon semiconductor substrate at a second temperature greater than the first temperature, and within a second oxidizing atmosphere, to form from the silicon oxide layer upon the partially consumed silicon semiconductor substrate a further oxidized silicon oxide layer upon a further consumed silicon semiconductor substrate. Finally, there is then stripped from the further consumed silicon semiconductor substrate the further oxidized silicon oxide layer. By employing the method, microelectronic devices may be fabricated with enhanced performance within the further consumed silicon semiconductor substrate.