Abstract: An exemplary method for determining a position of a touch event on a touch panel includes at least the following steps: scanning the touch panel by utilizing a first touch event detection threshold, and accordingly obtaining touch signal information corresponding to the touch event on the touch panel; determining if the touch panel is in a specific touch mode according to the touch signal information; and when it is determined that the touch panel is in the specific touch mode, setting a second touch event detection threshold that is different from the first touch event detection threshold, and scanning the touch panel by utilizing the second touch event detection threshold to obtain the position of the touch event.

Abstract: A touch screen structure for receiving and processing touch signal is disclosed, in which the touch screen structure includes a substrate, a plurality of conductive patterns, a plurality of first routing traces, and a plurality of second routing traces. The conductive patterns are disposed on the substrate, in which each of the conductive patterns has a first side and a second side disposed opposite to the first side. The first routing traces are disposed on the substrate, in which the first routing traces are electrically connected to the first sides of the conductive patterns. The second routing traces are disposed on the substrate, in which the second routing traces are electrically connected to the second sides of the conductive patterns.

Abstract: An exemplary method for determining a position of a touch event on a touch panel includes at least the following steps: scanning the touch panel by utilizing a first touch event detection threshold, and accordingly obtaining touch signal information corresponding to the touch event on the touch panel; determining if the touch panel is in a specific touch mode according to the touch signal information; and when it is determined that the touch panel is in the specific touch mode, setting a second touch event detection threshold that is different from the first touch event detection threshold, and scanning the touch panel by utilizing the second touch event detection threshold to obtain the position of the touch event.

Abstract: A touch-sensing device with a proximity detection function includes a capacitive touch panel and a control circuit. The capacitive touch panel is arranged for generating a plurality of self-sensing signals via a plurality of traces, respectively. The control circuit is coupled to the capacitive touch panel, and arranged for receiving the plurality of self-sensing signals from the capacitive touch panel, and determining whether there is an object approaching the capacitive touch panel according to the plurality of self-sensing signals.

Abstract: A touch cell applied to a capacitive touch panel includes a first electrode and a second electrode, where the first electrode is connected to a scan signal transmitting circuit of the capacitive touch panel, and is utilized for receiving a scan signal, and the second electrode is connected to a detecting circuit of the capacitive touch panel. In addition, the second electrode is not connected to the first electrode, the second electrode has a fish-bone pattern, and a width of a tail of branches of the fish-bone pattern is greater than a width of a head of the branches of the fish-bone pattern.

Abstract: A universal serial bus (USB) driving device electrically coupled to a data receiver is configured for driving a USB to forward data requests from the data receiver to a data transmitter for processing the data requests. The USB driving device may preset a maximum active transaction number, initialize an active transaction number, and determine if the active transaction number is less than the maximum active transaction number. The USB driving device may drive the USB to forward a data request from the data receiver to the data transmitter if the active transaction number is less than the maximum active transaction number and increase the active transaction number after the USB driving device forwards a data request to the data transmitter. A USB driving method is also provided.

Abstract: A universal serial bus (USB) driving device electrically coupled to a data receiver is configured for driving a USB to forward data requests from the data receiver to a data transmitter for processing the data requests. The USB driving device may preset a maximum active transaction number, initialize an active transaction number, and determine if the active transaction number is less than the maximum active transaction number. The USB driving device may drive the USB to forward a data request from the data receiver to the data transmitter if the active transaction number is less than the maximum active transaction number and increase the active transaction number after the USB driving device forwards a data request to the data transmitter. A USB driving method is also provided.

Abstract: A projection apparatus including a projection module, a control unit, a housing, a wireless-receiving unit and a control panel is provided. The control unit is electrically connected to the projection module for controlling the projection module. The housing is suitable for accommodating the projection module and the control unit and has a concavity exposed outside. The wireless-receiving unit is disposed inside the housing and is electrically connected to the control unit. The control panel is detachably installed in the concavity. When the control panel is installed in the concavity, the control panel is electrically connected to the control unit such that the control panel is suitable for providing an electric signal to the control unit for controlling the projection module. When the control panel is detached from the concavity, the control panel is suitable for providing a wireless signal to the wireless-receiving unit for controlling the projection module.