Abstract: A biological sensing apparatus includes an optical waveguide substrate, a surface plasmon resonance (SPR) layer, and a lossy mode resonance (LMR) layer. The optical waveguide substrate includes a light input end and a light output end opposite to each other, and a biological sensing area is formed on one surface of the optical waveguide substrate between the light input end and the light output end. The SPR layer includes a metal layer and a plurality of biological probes. The metal layer is arranged on part of the biological sensing area, and the plurality of biological probes are evenly arranged on the metal layer. The LMR layer is arranged on part of the biological sensing area, and the LMR layer and the SPR layer are not overlapped. The present disclosure further includes a biological sensing system and a method of using the same.

Abstract: A self-heating biosensor based on lossy mode resonance (LMR) includes a waveguide unit and a lossy mode resonance layer. The waveguide unit is a flat plate, including two planes and at least two sets of opposite sides. One set of the opposite sides of the waveguide unit has a light input end and a light output end. The lossy mode resonance layer is disposed on one of the planes of the waveguide unit. Two heating electrodes are formed at two positions of the lossy mode resonance layer, and the two positions are relevant to one set of the opposite sides of the waveguide unit. A biomaterial sensing region having bioprobes are formed between the two heating electrodes. The present disclosure further includes a using method relevant to the self-heating biosensor based on lossy mode resonance.

Abstract: An electrical polarity adjustable biosensor based on lossy mode resonance includes a first polarity module, a second polarity module, and a plurality of spacers disposed between the first polarity module and the second polarity module. A biomaterial sensing region for injecting an object to be tested is formed between a bioprobe layer of the first polarity module and a second electrode layer of the second polarity module. An electric field is formed between a lossy mode resonance layer of the first polarity module and the second electrode layer, and the electric field acts on a plurality of bioprobes of the bioprobe layer and the object to be tested. The present disclosure further includes a method of using the electrical polarity adjustable biosensor based on lossy mode resonance.

Abstract: An augmented reality edugaming interaction method includes the steps of: creating at least one database in a processing device and at least one target value in the database and linking the target value with different data values; defining plural interactive object images and at least one controllable object image by the processing device; setting plural interaction statuses for the interactive object image and at least one interactive instruction for the controllable object image, and selecting one of the target values, so that its data value depends on the interactive object image; setting at least one color recognition value for the processing device; defining the image with the range of the color block as a characteristic area, if the image captured by the image capturing device has a color block corresponding to the color recognition value, and letting the controllable object image depend on and be controlled in the characteristic area.

Abstract: A speed display device includes a wearing unit to which a display unit is connected. The display unit has a lighting module. A satellite positioning unit is connected to the wearing unit and the display unit. The satellite positioning unit has a processing module which is wirelessly connected with a global satellite system and receives at least one position-time signal of the wearing unit from the global satellite system. The processing module calculates a movement speed of the wearing unit according to the at least one position-time signal, and the movement speed is displayed by the lighting module. The drivers behind the wearer are acknowledged the clear and precise speed information to avoid from making a wrong judgment.

Abstract: A visual object tracking method includes the steps of: setting an object window having a target in a video image; defining a search window greater than the object window; analyzing an image pixel of the object window to generate a color histogram for defining a color filter which includes a dominant color characteristic of the target; using the color filter to generate an object template and a dominant color map in the object window and the search window respectively, the object template including a shape characteristic of the target, the dominant color map including at least one candidate block; comparing the similarity between the object template and the candidate block to obtain a probability distribution map, and using the probability distribution map to compute the mass center of the target. The method generates the probability map by the color and shape characteristics to compute the mass center.

Abstract: Disclosed are virtual glasses try-on method and apparatus, and the apparatus includes an image capturing unit for capturing a user's image and a processing device for detecting a face image from the user's image, storing a glasses model, defining a first feature point of a lens of the glasses model and a second feature point at the center of a frame, and obtaining vertical vectors of the first and second feature points to find a third feature point. Two eye images are searched and binarized into a binarized picture that is divided into an eye area and a non-eye area. A center point between first and second extreme values is found, and vertical vectors of the first extreme value and the center point are obtained to find an example point. An affine transformation of the feature points is performed and attached to the face image to form a try-on image.

Abstract: The present invention provides a method for document classification, especially an adaptive learning method for document classification. The document includes a plurality of feature words. The method includes steps of calculating a plurality of similarities between the document and a categorical basic knowledge; calculating a first ratio of a first largest similarity to a second largest similarity of the plurality of similarities; storing the feature words of the document as an extensive categorical knowledge when the first ratio is larger than a first threshold value; and updating the categorical basic knowledge by using the extensive categorical knowledge.