Abstract: A 3D semiconductor structure includes a buffer layer, a n-type high electron mobility transistor (HEMT) disposed on a first surface of the buffer layer, and a p-type high hole mobility transistor (HHMT) disposed on a second surface of the buffer layer opposite to the first surface.

Abstract: Disclosed herein is a portable ventilator and a method for providing an oscillatory flow to a subject in need thereof. The method comprises: (a) forming a gas mixture comprising pure oxygen and air; (b) converting the gas mixture into the oscillatory flow by applying thereto a predetermined oscillatory frequency and a predetermined ventilatory duration; (c) outputting the oscillatory flow of the step (b) at a first jet pressure, in which the outputted oscillatory flow has a first flow rate; and (d) modulating the outputted oscillatory flow of the step (c) by, (i) varying the respective amounts of the pure oxygen and the air in the gas mixture; or (ii) varying the predetermined ventilatory duration of the step (b), in which if the fist jet pressure is smaller than the predetermined jet pressure, then decreases the predetermined ventilatory duration; or if the first jet pressure is greater than the predetermined jet pressure, then increases the predetermined ventilatory duration.

Abstract: A high electron mobility transistor (HEMT) includes a carrier transit layer, a carrier supply layer, a main gate, a control gate, a source electrode and a drain electrode. The carrier transit layer is on a substrate. The carrier supply layer is on the carrier transit layer. The main gate and the control gate are on the carrier supply layer. The source electrode and the drain electrode are at two opposite sides of the main gate and the control gate, wherein the source electrode is electrically connected to the control gate by a metal interconnect. The present invention also provides a method of forming a high electron mobility transistor (HEMT).

Abstract: A flexible temple structure includes a lens surface, a frame and two temples. The structure further includes two first connecting portions respectively provided on each of two corresponding ends of the frame, and two second connecting portions individually provided at one end of each of the temple. Each of the first connecting portion includes a main body, a projecting block, and a shaft post. Each second connecting portion includes an embedded mouth, an accommodating space, and a guide slot. The guide slot includes a fastening section, and a securing section connected with the fastening section. The projecting block/the shaft post are allowed to enter the accommodating space/the guide slot through the embedded mouth, and an appropriate resistance force is provided by the fastening section to allow the shaft post being operably retained into the securing section and the shaft post being pivoted in the securing section.

Abstract: A screwless eyeglasses frame includes a lens, a rim and two temples. The screwless eyeglasses frame further includes two first connecting portions respectively disposed at two ends of the rim, and two second connecting portions individually disposed at one end of each of the temples. Each of the first connecting portions includes a first body, an accommodating slot, a pivotal rotation channel, a sliding channel, and a positioning groove. Each of the second connecting portions includes a second body, a protruding block, a pivotal rotation axis and a sliding block. The pivotal rotation axis is able to sequentially enter the sliding channel, the pivotal rotation channel and the positioning groove. When the pivotal rotation axis is abutted against a lower end of the positioning groove, the second connecting portion is able to pivotally rotate correspondingly to the first connecting portion.

Abstract: A screwless eyeglasses frame includes a lens, a rim and two temples. The screwless eyeglasses frame further includes two first connecting portions respectively disposed at two ends of the rim, and two second connecting portions individually disposed at one end of each of the temples. Each of the first connecting portions includes a first body, an accommodating slot, a pivotal rotation channel, a sliding channel, and a positioning groove. Each of the second connecting portions includes a second body, a protruding block, a pivotal rotation axis and a sliding block. The pivotal rotation axis is able to sequentially enter the sliding channel, the pivotal rotation channel and the positioning groove. When the pivotal rotation axis is abutted against a lower end of the positioning groove, the second connecting portion is able to pivotally rotate correspondingly to the first connecting portion.

Abstract: A flexible temple structure includes a lens surface, a frame and two temples. The structure further includes two first connecting portions respectively provided on each of two corresponding ends of the frame, and two second connecting portions individually provided at one end of each of the temple. Each of the first connecting portion includes a main body, a projecting block, and a shaft post. Each second connecting portion includes an embedded mouth, an accommodating space, and a guide slot. The guide slot includes a fastening section, and a securing section connected with the fastening section. The projecting block/the shaft post are allowed to enter the accommodating space/the guide slot through the embedded mouth, and an appropriate resistance force is provided by the fastening section to allow the shaft post being operably retained into the securing section and the shaft post being pivoted in the securing section.

Abstract: A method for driving a reflective LCD panel is provided. The driving method includes following steps: the reflective LCD panel is driven by a driving signal with alternate positive and negative polarities, wherein the driving signal has positive polarity for a first driving duration and the driving signal has negative polarity for a second driving duration; a color beam is provided to irradiate the reflective LCD panel during a partial time period of the first driving duration; and the color beam is provided to irradiate the reflective LCD panel during a partial time period of the second driving duration.

Abstract: After a file is stored in a storage device, the file is segmented into a first segment and a second segment, the latter of which is relocated to a removable security device only when the removable security device is connected to the storage device. After the removable security device is removed from the storage device, as long as the removable security device is kept by the owner of the file, the file cannot be accessible for someone other than the owner even if said someone takes the storage device. Security of the file is thus assured.

Abstract: A method for manufacturing thin film solar cells, includes forming a light permeable first electrode layer in the back light surface of a glass substrate, and formed in the first electrode layer a plurality of first openings for exposing a part of the back light surface therefrom; forming a photoelectric conversion layer on the first electrode layer and the exposed back light surface, and forming a plurality of second openings in the photoelectric conversion layer for exposing a part of the first electrode layer therefrom; and forming a glistening second electrode layer having a plurality of third openings formed therein, wherein the second electrode layer comprises a conductive colloid comprised of non-diffractive fillings and polymeric base material.

Abstract: After a file is stored in a storage device, the file is segmented into a first segment and a second segment, the latter of which is relocated to a removable security device only when the removable security device is connected to the storage device. After the removable security device is removed from the storage device, as long as the removable security device is kept by the owner of the file, the file cannot be accessible for someone other than the owner even if said someone takes the storage device. Security of the file is thus assured.

Abstract: A display device including an active device array substrate having an active surface, an opposite substrate, a first alignment unit, a second alignment unit, a liquid crystal layer and a sealant is provided. The opposite substrate disposed above the active device array substrate has a light transmissive surface, wherein the active surface and the light transmissive surface face each other. The first alignment unit is disposed on the active device array substrate and located on the active surface. The second alignment unit is disposed on the opposite substrate and located on the light transmissive surface, wherein the first alignment unit aligns with the second alignment unit. The liquid crystal layer is disposed between the first and the second alignment units. The sealant directly connects the active surface and the light transmissive surface, and surrounds peripherals of the liquid crystal layer, the first alignment unit, and the second alignment unit.

Abstract: A method for manufacturing thin film solar cells, includes forming a light permeable first electrode layer in the back light surface of a glass substrate, and formed in the first electrode layer a plurality of first openings for exposing a part of the back light surface therefrom; forming a photoelectric conversion layer on the first electrode layer and the exposed back light surface, and forming a plurality of second openings in the photoelectric conversion layer for exposing a part of the first electrode layer therefrom; and forming a glistening second electrode layer having a plurality of third openings formed therein, wherein the second electrode layer comprises a conductive colloid comprised of non-diffractive fillings and polymeric base material.

Abstract: A conductive paste is provided. The conductive paste includes a polymer matrix and a filler blended in the polymer matrix, wherein the filler is non-spherical and at least one dimension of the filler has a length greater than or equal to ?/2n, wherein ? is a wavelength of light reflected by the conductive paste and n is a refractive index of the filler, and the polymer matrix and the filler have a weight ratio of 3:7 to 7:3.

Abstract: A structure of a reflective display panel including a silicon substrate, a liquid crystal layer and a stacked compensation film layer is provided. The liquid crystal layer disposed on the silicon substrate has a first phase retardation which is within a first retardation range. The stacked compensation film layer disposed on the liquid crystal layer has a second phase retardation which is within a second retardation range. The stacked compensation film layer is selected according to an optical characteristic of the liquid crystal layer so as to increase a contrast of the reflective display panel.

Abstract: A method for driving a reflective LCD panel is provided. The driving method includes following steps: the reflective LCD panel is driven by a driving signal with alternate positive and negative polarities, wherein the driving signal has positive polarity for a first driving duration and the driving signal has negative polarity for a second driving duration; a color beam is provided to irradiate the reflective LCD panel during a partial time period of the first driving duration; and the color beam is provided to irradiate the reflective LCD panel during a partial time period of the second driving duration.

Abstract: A solar cell and a method for fabricating the same are provided. The solar cell includes a first electrode, a second electrode, a photoelectric conversion layer and a non-conductive reflector. The first electrode including a nano-metal transparent conductive layer is disposed on a transparent substrate. The nano-metal transparent conductive layer substantially contacts with the photoelectric conversion layer. The second electrode is disposed between the photoelectric conversion layer and the transparent substrate. The photoelectric conversion layer is disposed between the first and the second electrodes. The non-conductive reflector is disposed on the first electrode.

Abstract: A manufacturing method of a display device is provided. Firstly, an active device array substrate having an active surface is provided. Next, a first patterned photoresist layer is formed on the active surface. Then, a first alignment layer is obliquely vapor-deposited on the active surface and the first patterned photoresist layer, wherein the active surface comprises at least a first undeposited area located beside an edge of the first patterned photoresist layer. A first alignment unit is formed by removing the first patterned photoresist layer and a portion of the first alignment layer located thereon. A sealant is directly formed on the active surface of the active device array substrate and surrounds the first alignment unit. An opposite substrate having a light transmissive surface is provided. After that, the active device array substrate and the opposite substrate are assembled. A display device is also provided.

Abstract: A color sequential display and a display method using the same are provided. The color sequential display displays a frame in a frame period. The frame includes a plurality of sub-frames. The frame period includes a plurality of sub-frame periods corresponding to the sub-frames. In the display method, a first color light source is turned on according to a first duty cycle within a first sub-frame period for displaying a first sub-frame. Next, a second color light source is turned on according to a second duty cycle within a second sub-frame period for displaying a second sub-frame. Finally, the first color light source and the second color light source are respectively turned on according to a first modified duty cycle and a second modified duty cycle. The first modified duty cycle and the second modified duty cycle are proportioned to the first and the second duty cycles.

Abstract: A fabricating method and apparatus of an zinc phosphate coating for a varistor has a insulation formed on a surface of a body which does not include two opposite ends of the body formed two outer terminals. The insulation has anti-etch feature for the electrolyte, so that the exposed surface of the body prevents to be etched and to be electroplated a metal material on it. Therefore the varistor has a great fabricating yield and the great shape after electroplating the two outer terminals step.