Abstract: The disclosure provides a transmissive light based tremor identification method and a system thereof. The method includes: projecting, with a transmissive light, a first optical pattern to a part to be measured, wherein the transmissive light penetrates a surface of the part to be measured and correspondingly forms a second optical pattern on an internal structure of the part to be measured, and the second optical pattern is synthesized to include at least one intersection; capturing a plurality of images of the second optical pattern on the internal structure of the part to be measured and acquiring a motion feature of each intersection based on the images; and identifying a tremor pattern of the internal structure of the part to be measured based on the motion feature of each intersection.

Abstract: A head-up display device used in augmented reality is provided. The head-up display device includes a set of reflectors, a first optical module and a reflector adjustment mechanism. The set of reflectors includes at least one moveable reflector. The first optical module is configured to project a first image to at least one moveable reflector and to further project the first image to a target position through the set of reflectors. The reflector adjustment mechanism is configured to adjust the position of at least one moveable reflector to change the height of the target position.

Abstract: A head-up display device used in augmented reality is provided. The head-up display device includes a set of reflectors, a first optical module and a reflector adjustment mechanism. The set of reflectors includes at least one moveable reflector. The first optical module is configured to project a first image to at least one moveable reflector and to further project the first image to a target position through the set of reflectors. The reflector adjustment mechanism is configured to adjust the position of at least one moveable reflector to change the height of the target position.

Abstract: The disclosure provides a tremor identification method and a system thereof. The method includes: projecting a first optical pattern to a part to be measured, so as to correspondingly form a second optical pattern on the part to be measured, wherein the second optical pattern is synthesized to include at least one intersection; capturing a plurality of images of the second optical pattern on the part to be measured and acquiring a motion feature of each intersection based on the images; and identifying a tremor pattern of the part to be measured based on the motion feature of each intersection.

Abstract: The disclosure provides a transmissive light based tremor identification method and a system thereof. The method includes: projecting, with a transmissive light, a first optical pattern to a part to be measured, wherein the transmissive light penetrates a surface of the part to be measured and correspondingly forms a second optical pattern on an internal structure of the part to be measured, and the second optical pattern is synthesized to include at least one intersection; capturing a plurality of images of the second optical pattern on the internal structure of the part to be measured and acquiring a motion feature of each intersection based on the images; and identifying a tremor pattern of the internal structure of the part to be measured based on the motion feature of each intersection.

Abstract: A method for fabricating a solid-state lighting body, which differs from a conventional solid-state lighting body doping lighting powder in a filling material during a high-temperature calcining process, and mixes lighting powder with either organic powder or inorganic powder to form liquid mixture, thereby fabricating the solid-state lighting body in pour molding. The method is performed at a lower temperature without the high energy consumption and high equipment cost. The solid-state lighting body is easily molded at a low temperature without damaging the structure properties of the lighting powder and decreasing the lighting efficiency. As a result, the solid-state lighting body of the present invention has very good heat-resistant abilities and efficiently prevents lighting elements from high-temperature cracking resulted from long-term illumination, so as to increase use life and reliability.

Abstract: The present invention proposes substrate material favoring via hole electroplating to overcome the conventional problem that the polymer-based printed circuit board is hard to conduct electricity and likely to have poor electroplating quality. The present invention adds a conductive material to a polymeric material and controls the proportions and structure thereof to form a substrate material so as to improve the affinity of the substrate material to the metal electroplated inside the via hole with the resistance of the substrate material remaining in an allowable range. Thereby is increased yield and efficiency and saved time and cost in fabricating printed circuit boards. Further, the present invention reduces the proportion of the polymeric material with the mechanical strength remaining in an allowable range so as to decrease the overall expansion rate and obtain a fire-proof effect. Therefore, the substrate material can be used to fabricate precision products.

Abstract: A linear solar energy concentrator includes a fastening rack, a concentrating lens, and a line-shaped solar panel. The concentrating lens is fastened on the fastening rack. When sunlight irradiates on and penetrates through the concentrating lens, the light is concentrated onto a focal line parallel to a direction of the linear geometric structure of the concentrating lens. The solar panel is installed under the concentrating lens and located at the focal line, wherein when an incident angle of sunlight constantly changes, the light irradiating on and penetrating through the concentrating lens still is able to be concentrated onto a same location or onto locations slightly shifted each other along the focal line on the solar panel, so as to perform an energy conversion from solar energy to electricity at a substantially same amount of light without being affected by the incident angle of sunlight.

Abstract: A method of forming a biochip in which a micro-carrier having a bar code or a number code thereon is provided. A surface-modifying step is performed for modifying a surface of the micro-carrier to an aminated surface. A solid-phase peptide synthesis step is then conducted to synthesize a peptide having a specific amino acid sequence on the aminated surface of the micro-carrier or immobilizing an antibody or an antigen on the aminated surface of the micro-carrier. The micro-carrier can be applied on a biological activity analysis or an antibody-antigen interaction analysis, and the results can be read out directly from the bar code or the number code on the micro-carrier.

Abstract: The invention provides a method for producing a microcarrier, which includes patterning pluralities of bar code on a mask; exposing the bar code to a substrate coated with photoresist; etching and removing residual photoresist and electroforming to a nickel plate; placing a bead coated with biotin or poly-L-lysine between two-nickel plates, and compressing the bar code on the surface of the bead to form a microcake-like particle with bar code; and combining the is particle with the corresponding bio-molecule thereof to produce a micro-carrier with a label. The invention also provides a test method for identifying a bio-molecule, which includes mixing several micro-carriers with the labeled unknown bio-molecules; and identifying the bar code on the micro-carrier via image recognition system, wherein the numbers and types of the known micro-carrier can be flexibly adjusted.

Abstract: The invention provides a method for producing a micro-carrier, which includes patterning pluralities of bar code on a mask; exposing the bar code to a substrate coated with photoresist; etching and removing residual photoresist and electroforming to a nickel plate; placing a bead coated with biotin or poly-L-lysine between two-nickel plates, and compressing the bar code on the surface of the bead to form a microcake-like particle with bar code; and combining the particle with the corresponding bio-molecule thereof to produce a micro-carrier with a label. The invention also provides a test method for identifying a bio-molecule, which includes mixing several micro-carriers with the labeled unknown bio-molecules; and identifying the bar code on the micro-carrier via image recognition system, wherein the numbers and types of the known micro-carrier can be flexibly adjusted.

Abstract: The invention provides a method for producing a micro-carrier, which includes patterning pluralities of bar code on a mask; exposing the bar code to a substrate coated with photoresist; etching and removing residual photoresist and electroforming to a nickel plate; placing a bead coated with biotin or poly-L-lysine between two-nickel plates, and compressing the bar code on the surface of the bead to form a microcake-like particle with bar code; and combining the particle with the corresponding bio-molecule thereof to produce a micro-carrier with a label. The invention also provides a test method for identifying a bio-molecule, which includes mixing several micro-carriers with the labeled unknown bio-molecules; and identifying the bar code on the micro-carrier via image recognition system, wherein the numbers and types of the known micro-carrier can be flexibly adjusted.

Abstract: The invention provides a method for producing a microcarrier, which includes patterning pluralities of bar code on a mask; exposing the bar code to a substrate coated with photoresist; etching and removing residual photoresist and electroforming to a nickel plate; placing a bead coated with biotin or poly-L-lysine between two-nickel plates, and compressing the bar code on the surface of the bead to form a microcake-like particle with bar code; and combining the is particle with the corresponding bio-molecule thereof to produce a micro-carrier with a label. The invention also provides a test method for identifying a bio-molecule, which includes mixing several micro-carriers with the labeled unknown bio-molecules; and identifying the bar code on the micro-carrier via image recognition system, wherein the numbers and types of the known micro-carrier can be flexibly adjusted.

Abstract: A zoom lens set with a fixed distance between lenses comprises at least one gradually changed curvature lens. The surface with a gradually changed curvature surfaces is locally limited by a suitable size pupil along an optical axis. In assembling, gradually changed curvature lenses are installed within a system so that the two lenses are retained within a fixed distance. Thereby, the or more gradually changed curvature lenses are adjusted and chosen by a local pupil to have a desired local curvature pairs or sets by relative transverse movement or rotation of the two or more lenses. Therefore, the focus of the system is changed to achieve the zooming purposed. By a simple design, the system can be completely matched with the zoom lens set with a fixed distance between the lenses so that the manufacturing cost of the system can be reduced effectively.