Abstract: A touch electronic device includes a touch panel and a tactile identifying film including a plurality of tactile identifying patterns. At least an opening is formed in each of the tactile identifying patterns for exposing a portion of a touch surface of the touch panel. A user touches the touch surface through the opening. Moreover, another touch electronic device includes a touch panel and a tactile identifying film is also provided. Tactile identifying patterns of the tactile identifying film are made of piezoelectric material or conductive material, so that the touch panel is capable of sensing a pressing action when the tactile identifying pattern is pressed.

Abstract: A motorcycle dashboard system adapted to be used with a motorcycle is disclosed. The motorcycle dashboard system includes a wireless communication unit, a micro processor and a display unit. The wireless communication unit is configured to receive an external information by way of wireless transmission. The micro processor, electrically connected to the wireless communication unit, is configured to receive and process the external information and accordingly output a first display information. The display unit, electrically connected to the micro processor, is configured to display the first display information.

Abstract: A computer-implemented method for locating an indoor object includes: a) receiving an RF coordinate signal and a detecting signal; b) providing information of a located region with reference to the RF coordinate and the detecting signal; c) obtaining a motion sensor coordinate according to the information of the located region; d) providing weights for the RF coordinate and the motion sensor coordinate; e) applying the weights to the RF coordinate and the motion sensor coordinate; and f) combining the weighted RF coordinate and the weighted motion sensor coordinate to generate a fused coordinate corresponding to the position of the indoor object. A system for locating an indoor object is also disclosed.

Abstract: A fire detecting system includes a plurality of detectors, and a computing unit coupled to the detectors. The detectors are configured for generating a plurality of detecting values, respectively. For each of the detectors, the detecting value is equal to a first predetermined value when a fire state is detected thereby, and is equal to a second predetermined value when otherwise. The computing unit sets a weight value for each of the detectors and a threshold value, and is configured to perform a weight correcting method for correcting the weight value of each of the detectors based on accuracy of operation of the detectors.

Abstract: A human-machine interface apparatus and a navigation method provide navigation information to users according to data provided by a location system. The human-machine interface apparatus comprises a pointing module and a microcontroller unit. The pointing module comprises a pointer. The microcontroller unit receives a first directing point, a second directing point and a third directing point obtained by the location system performing a vision-navigation operation, and deflects the pointer to a first angle, a second angle and a third angle when a vehicle location data reaches to the first, second and third directing points respectively. The third angle is larger than the second angle, and the second angle is larger than the first angle.

Abstract: An exemplary electronic blind-navigation device suitable for being arranged on a carrier includes an information receiving interface, a guiding interface, a direction detecting device and a processing circuit. The direction detecting device is configured for detecting a direction pointed by the carrier to obtain a pointing direction information. The processing circuit is configured for receiving the pointing direction information and a navigation information supplied from a navigation device. The navigation information includes a traveling direction information. The processing circuit is further configured for determining whether two directions supplied by the pointing direction information and the traveling direction information are the same. When the two directions thereof are the same, the processing circuit controls the guiding interface to send out at least one of a touch guiding signal and a voice guiding signal. Furthermore, an electronic blind-navigation cane having the same is also provided.

Abstract: A computer-implemented method for locating an indoor object includes: a) receiving an RF coordinate signal and a detecting signal; b) providing information of a located region with reference to the RF coordinate and the detecting signal; c) obtaining a motion sensor coordinate according to the information of the located region; d) providing weights for the RF coordinate and the motion sensor coordinate; e) applying the weights to the RF coordinate and the motion sensor coordinate; and f) combining the weighted RF coordinate and the weighted motion sensor coordinate to generate a fused coordinate corresponding to the position of the indoor object. A system for locating an indoor object is also disclosed.

Abstract: A human-machine interface apparatus configured for providing navigation information to users according to data from a positioning system, is provided. The human-machine interface apparatus comprises a pointing module and a microcontroller unit. The pointing module has a pointer. The microcontroller unit is electrically connected with the pointing module, and is configured for receiving information of a destination generated from the positioning system and controlling the pointing module according to the information of the destination, to keep the pointer pointing to an actual position of the destination after navigation is ended.

Abstract: An electricity detecting system includes a detector module operable to generate a plurality of source electricity values of a target electricity value, and a computing unit coupled to the detector module and receiving the source electricity values therefrom. The detector module includes a plurality of detectors, and each of the source electricity values is obtained using a respective one of the detectors. The computing unit is configured to determine weight values corresponding to the source electricity values while taking into account accuracy of the latter, and to determine a verified electricity value corresponding to the target electricity value from the source electricity values and their weight values. The computing unit is further configured to exclude the source electricity values corresponding to the detectors that have experienced breakdown from determination of the verified electricity value.

Abstract: A fire detecting system includes a plurality of detectors, and a computing unit coupled to the detectors. The detectors are configured for generating a plurality of detecting values, respectively. For each of the detectors, the detecting value is equal to a first predetermined value when a fire state is detected thereby, and is equal to a second predetermined value when otherwise. The computing unit sets a weight value for each of the detectors and a threshold value, and is configured to perform a weight correcting method for correcting the weight value of each of the detectors based on accuracy of operation of the detectors.