Abstract: Disclosed is a sensing structure including a sensing unit, a periphery circuit, and a connecting circuit. The connecting circuit connecting the sensing unit and the periphery circuit includes a connecting pattern. In an embodiment, the connecting pattern has at least two line widths. The line width of a part of the connecting pattern connecting the periphery circuit is greater than the line width of a part of the connecting pattern connecting the sensing unit. In an embodiment, the connecting pattern includes a mesh pattern having at least two mesh densities. The mesh density of a part of the mesh pattern connecting the periphery circuit is greater than the mesh density of a part of the mesh pattern connecting the sensing unit. In an embodiment, the connecting circuit includes lines between and connecting a single sensing series of the sensing unit and a periphery wire of the periphery circuit.

Abstract: The present invention relates to a method for enhancing root growth of a plant by introducing a polynucleotide encoding late embryogenesis abundant protein, group 3 (LEA3) into the plant. Plant root architecture is essential for its functions in water and nutrient uptake, anchorage and interactions with microbes in the soil.

Abstract: A touch panel structure includes a transparent substrate having a touch area and a frame wire area, X conductive electrodes, Y conductive electrodes, X conductive connecting sections connecting the X conductive electrodes along a first direction, frame wires, insulated layers and Y conductive connecting bridges on the insulated layers. The X and Y conductive electrodes are respectively arranged in an array in the touch area and interlaced with each other. The X and Y conductive electrodes are electrically connected to an external circuit via the frame wires. The insulated layers each cover one of the X conductive electrodes and two of the Y conductive electrodes. The Y conductive electrodes are electrically connected to each other via the Y conductive connecting bridges along a second direction. A conducting material is performed by one-time printing to pattern the X and Y conductive electrodes, X conductive connecting sections and frame wires.

Abstract: A heat pipe includes a sealed casing, a sealed vesicle received in the sealed casing, and a working fluid contained in the sealed vesicle. The sealed casing includes an evaporating section, a condensing section, and a connecting section connecting the evaporating section and the condensing section. The sealed vesicle is made of soft metal. The sealed vesicle comprising a heat absorbing portion attached to the evaporating section, a heat dissipating portion attached to the condensing section, and an uneven portion connecting the heat absorbing portion and the condensing section.

Abstract: An electronic device, adapted for interacting with a stylus, wherein the stylus transmits a control signal to the electronic device, is provided. The electronic device includes a touch screen, a communicating unit and a processing unit. The touch screen receives a touch action made by the stylus. The communicating unit receives the control signal transmitted by the stylus. The processing unit is coupled to the touch screen and the communicating unit, receives the touch action and the control signal. The processing unit determines a touch gesture corresponding to a touch action according to the touch action, and determines an operating state of the stylus according to the control signal. Also, the processing unit executes a corresponding action according to the touch gesture, the operating state and/or an application program which is currently executed by the electronic device.

Abstract: A measuring device linked to a conveyor for transporting a flexible glass is provided. The measuring device includes a base, a first roller, and at least one second roller. The first roller disposed on the base moves back and forth along a first axis. The second roller disposed on the base moves back and forth along a second axis. The flexible glass enters the conveyor passing through the second roller and the first roller. An operation method of the measuring device is also provided.

Abstract: The present invention relates to a power management method for portable computers with a wireless device and detects the electric power source of a portable computer through a power source detection circuit during the operation of portable computer. In addition, any one of the following is dynamically changed: the supporting rate of the connection interface between a wireless device and the portable computer, the data rate between the AP (Access Point) and the wireless device. Moreover, the invention provides a plurality of input methods for triggering the power saving modes of the portable computer to achieve the object of reducing power consumption.

Abstract: A enclosure assembly includes a plurality of trays. Each of the plurality of trays includes a first sidewall and a second sidewall opposite to the first sidewall. A plurality of engaging posts are located on the first sidewall, and a plurality of engaging holes is defined in the second sidewall. Each of the four engaging posts in one of the trays is engaged in each of the plurality of engaging holes in another one of the trays, so that two adjacent trays can be engaged to each other without screws or bolts, and it is very convenient for an end user to expand the capacity of the enclosure assembly.

Abstract: An electronic device assembly includes a fan module, a frame, and a bottom plate of an electronic device enclosure. The fan module includes a cover, a fan secured to the cover. The frame is secured to the bottom plate. The cover is secured to the frame. The frame, the cover, and the bottom plate define a receiving space receiving the fan.

Abstract: A measuring device linked to a conveyor for transporting a flexible glass is provided. The measuring device includes a base, a first roller, and at least one second roller. The first roller disposed on the base moves back and forth along a first axis. The second roller disposed on the base moves back and forth along a second axis. The flexible glass enters the conveyor passing through the second roller and the first roller. An operation method of the measuring device is also provided.

Abstract: A screw assembly includes a screw, a spring, and a mounting panel. The screw comprises a head portion and a shaft portion extending from the head portion. The spring comprises a spring body and a securing end extending from the spring body. The spring body defines a surrounding opening. The mounting panel defines a through hole corresponding to the surrounding opening. The mounting panel comprises a positioning portion. The shaft portion is located in the surrounding opening and the through hole. The spring is located between the head portion and the mounting panel. The positioning portion is configured to resist the securing end to prevent the spring from rotating.

Abstract: A signal receiving method of a receiver includes the following steps. A time-domain received signal is transformed into a frequency-domain received signal, which includes multiple pilot symbols and multiple data symbols. Multiple channel impulse responses corresponding to the pilot symbols are estimated. Multiple inter-carrier interference and inter-block interference (ICIIBI) values corresponding to the pilot symbols are estimated based on the pilot symbols and the corresponding channel impulse responses. Multiple ICIIBI values corresponding to the data symbols are obtained via an interpolation operation according to the ICIIBI values corresponding to the pilot symbols. The estimated corresponding ICIIBI values are cancelled from the data symbols. The interference-cancelled data symbols are demapped to obtain soft-decision or hard-decision bits.

Abstract: A method of constructing a non-imaging beam transformer includes reducing a tailored illumination function from a predetermined light source to a source point response illumination function; calculating a plurality of transformation pairs for the predetermined light source, the transformation pairs identifying the radii of illumination of the light source at given source output angles; determining a desired lighting profile for light output at a region of interest to be illuminated by the beam transformer; determining a surface profile of a surface of the beam transformer such that for given output angles of the light source, the transformation pairs at those output angles are satisfied to correspond to the desired lighting profile; and constructing the beam transformer having the surface profile determined based on the transformation pairs. The method can include characterizing a specific angular output distribution of a light source to calculate the transformation pairs.

Abstract: An exemplary heat dissipation device includes a heat pipe and a fin unit. The heat pipe includes an evaporation section and a condensing section formed at opposite ends thereof, respectively. The fin unit includes plural stacked parallel fins. Each of the fins defines a through hole therein for receiving the condensing section of the heat pipe. A flange extends from a periphery of the through hole. The flange defines two slits to divide the flange into two separate portions. The slits communicate with the through hole. A compressible structure is formed in each fin at opposite sides of the through hole. The compressible structure is aligned with the slits such that when the fin is compressed along a direction transverse to the alignment, the compressible structure is compressed and the separate portions of the flange move toward each other and closely contact the condensing section of the heat pipe.

Abstract: An exemplary heat dissipation device includes a heat pipe and a fin unit. The heat pipe includes an evaporation section and a condensing section formed at opposite ends thereof, respectively. The fin unit includes plural stacked parallel fins. Each of the fins defines a through hole therein for receiving the condensing section of the heat pipe. A flange extends from a periphery of the through hole. The flange defines two slits to divide the flange into two separate portions. The slits communicate with the through hole. A compressible structure is formed in each fin at opposite sides of the through hole. The compressible structure is aligned with the slits such that when the fin is compressed along a direction transverse to the alignment, the compressible structure is compressed and the separate portions of the flange move toward each other and closely contact the condensing section of the heat pipe.

Abstract: A radiation-sensitive material comprising a support and a radiation sensitive composition on the support is disclosed, wherein the radiation sensitive composition includes a dispersion containing nanoparticles of a sensitizer.

Abstract: An exemplary heat dissipation device includes a heat pipe and a fin unit. The heat pipe includes an evaporation section and a condensing section formed at opposite ends thereof, respectively. The fin unit includes plural stacked parallel fins. Each of the fins defines a through hole therein for receiving the condensing section of the heat pipe. A flange extends from a periphery of the through hole. The flange defines two slits to divide the flange into two separate portions. The slits communicate with the through hole. A compressible structure is formed in each fin at opposite sides of the through hole. The compressible structure is aligned with the slits such that when the fin is compressed along a direction transverse to the alignment, the compressible structure is compressed and the separate portions of the flange move toward each other and closely contact the condensing section of the heat pipe.

Abstract: A screw assembly includes a screw, a spring, and a mounting panel. The screw comprises a head portion and a shaft portion extending from the head portion. The spring comprises a spring body and a securing end extending from the spring body. The spring body defines a surrounding opening. The mounting panel defines a through hole corresponding to the surrounding opening. The mounting panel comprises a positioning portion. The shaft portion is located in the surrounding opening and the through hole. The spring is located between the head portion and the mounting panel. The positioning portion is configured to resist the securing end to prevent the spring from rotating.

Abstract: A heat pipe includes a sealed casing, a sealed vesicle received in the sealed casing, and a working fluid contained in the sealed vesicle. The sealed casing includes an evaporating section, a condensing section, and a connecting section connecting the evaporating section and the condensing section. The sealed vesicle is made of soft metal. The sealed vesicle comprising a heat absorbing portion attached to the evaporating section, a heat dissipating portion attached to the condensing section, and an uneven portion connecting the heat absorbing portion and the condensing section.

Abstract: A heat dissipation device includes a centrifugal fan and a fin assembly aside the centrifugal fan. The centrifugal fan includes a casing and an impeller received in the casing, the casing defines an air outlet at one side thereof. The fin assembly is located at the air outlet of the centrifugal fan. The fin assembly includes a plurality of fins parallel to and spaced from each other. Each of the fins includes a main body and an extending portion extending form the main body toward the air outlet of the centrifugal fan. Each extending portion includes a side edge facing the air outlet of the centrifugal fan, the side edge is arc shaped and inwardly concaved toward the main body.