Abstract: A physiology sensing apparatus with navigation capability is disclosed, which integrates therein a GPS module, a magnetic sensor, an inertial sensing module, and a bio sensing module so as to acquire signals relating to a user's coordinate position, physical condition, body movement, and so on, and then the acquired signals can be purified by filter devices so as to reduce the interference of noise, thereafter, processes the filtered signal by a signal processor and an alarming device so as to simultaneously obtain the information of user's location, physical condition, and whether the user is in danger or having an accident.

Abstract: A method for modifying navigation information is provided in the present invention. The method comprises steps of detecting a status information with respect to a moving carrier guiding by a navigating route; comparing the status information with a characteristic information corresponding to a characteristic point on the navigating route; and finally, determining whether the moving carrier is passing the characteristic point according to the comparing result and modifying the coordinate position of the carrier. In another embodiment, the present invention further provides a navigating apparatus comprising a sensing module for detecting the status of the moving carrier, a signal processing unit, and a storage unit for storing a map information. The signal processing unit comparing the status information to the characteristic information with respect to the characteristic point on the navigating route, and modifying the deviation of the moving carrier to the modify location according to the comparing result.

Abstract: A method for modifying navigation information for guiding the driver is provided in the present invention, in which attitude angle of a carrier at a specific location is detected and compared with an identifying information for judging whether the carrier is on a correct route or not. In another embodiment, the present invention further provides a navigation apparatus according the foregoing method, which comprises an inertia navigation unit, a satellite signal receiving unit, a database, and signal processing unit. The signal processing unit generates a navigation route in accordance with the start and destination and determines whether the attitude angle is conformed to the identifying information with respect to the specific location on the navigation route. If the attitude angle is not conformed to the identifying information, the signal processing unit remodifies the navigation route for the carrier.

Abstract: A positioning apparatus is disclosed, which comprises: a position detection module, including an inertial sensor, a magnetometer, and a global positioning device, being used for detection a movement of an object and thus generating a positioning signal accordingly; wherein the positioning signal is transmitted to a control unit and then to a signal processing device where it is being processed and converted into an angular/displacement signal to be transmitted to a monitoring device by way of a signal transmission device for enabling the monitoring device to track the movement of the object. In a preferred embodiment, both of the monitoring device and the signal transmission device are respectively being configured with a displaying unit for displaying the movement of the object. In addition, the positioning apparatus further comprises an identity module, for providing a unique identification code to the object to be used for identifying the same.

Abstract: A position detecting system and a method of the same are disclosed according to the present invention as follows: an inertia sensing module and an obstacle sensing module are adapted to detect a displacement signal of a cleansing apparatus and a distance signal of a distance between the cleansing apparatus and an obstacle respectively; and then a signal processing module is adapted to convert the displacement signal and the distance signal into an actual displacement path and an obstacle distance respectively, and then compare the actual displacement path and the obstacle distance with a preset path respectively to determine if the cleansing apparatus is traveling at the same place over again, or if the cleansing apparatus is going to hit the obstacle, and then the signal processing module will adjust a traveling path based on comparison results; and a control module is adapted to control traveling of the cleansing apparatus based on the adjusted traveling path.

Abstract: A method for determining properties or a thin film includes the steps of: providing a piezoelectric substrate; providing a slanted finger interdigital transducer unit that includes a transmitter port and a receiver port on the piezoelectric substrate; forming the thin film on the piezoelectric substrate between the transmitter port and the receiver port; applying an input signal to the transmitter port; and measuring a phase difference, which corresponds to the input signal, from the receiver port. Accordingly, properties of the thin film are determined based on the measured phase difference. An apparatus for realizing the method is also disclosed.

Abstract: An interactive system with movement sensing capability, comprising: an inertial sensing unit disposed on a movable object so as to sense a movement of the movable object and generate a corresponding signal; a control unit connected to the inertial sensing unit so as to transmit the signal; and a multi-media unit receiving the signal so as to display a corresponding first image and a second image interacted with the first image.

Abstract: A method for determining properties or a thin film includes the steps of: providing a piezoelectric substrate; providing a slanted finger interdigital transducer unit that includes a transmitter port and a receiver port on the piezoelectric substrate; forming the thin film on the piezoelectric substrate between the transmitter port and the receiver port; applying an input signal to the transmitter port; and measuring a phase difference, which corresponds to the input signal, from the receiver port. Accordingly, properties of the thin film are determined based on the measured phase difference. An apparatus for realizing the method is also disclosed.

Abstract: The present invention relates to a method for forming an ultra thin oxide layer by using an ozonated water, which comprises the steps of dissolving an ozone-containing gas in deionized water to form an ozonated water, and immersing a silicon wafer in the ozonated water to from an ultra thin oxide layer on the wafer. The method according to the present invention can substitute for the conventional high temperature process for growing an ultra thin oxide layer and form an ultra thin oxide layer in high density and high uniformity by taking the advantages of time-saving, energy-saving but without conducting at an elevated temperature.