Abstract: A semiconductor device and a manufacturing method thereof are provided. The semiconductor device includes a redistribution layer (RDL) module, a first semiconductor module, an interconnection module, a second semiconductor module and a molding material. The first semiconductor module is disposed on the RDL module. The interconnection module is disposed on the RDL module. The second semiconductor module is disposed on the interconnection module. The molding material covers the RDL module and surrounds the first semiconductor module and the second semiconductor module. A top surface of the first semiconductor module and a top surface of the second semiconductor module are exposed by the molding material.

Abstract: A coated article includes a glass substrate and a film on at least one surface of the glass substrate. The film includes Al2O3, Cr2O3 and ZrO2. A method for making the coated article, and an electronic device using the coated article are also provided.

Abstract: A light filter includes a base and a light filter film. The light filter film covers the base. The light filter film includes high refractive index layers and low refractive index layers stacked alternately on the base. Transmissivity of the light filter at wavelengths from about 410 nm to 640 nm and from about 830 nm to 865 nm is greater than 90%, while the average tranmissivity of the light filter at other wavelengths is less than 10%.

Abstract: A coated article includes a glass substrate and a film on at least one surface of the glass substrate. The film includes Al2O3, Cr2O3 and ZrO2. A method for making the coated article, and an electronic device using the coated article are also provided.

Abstract: A coating auxiliary device, for coating hollow workpieces, includes a loading tray, masking stoppers, and an ejecting plate. The loading tray includes a loading surface, a matching surface opposite to the loading surface, and engaging portions extending up from the loading surface. Each workpiece is engaged with an engaging portion. The loading device defines guiding holes. Each guiding hole passes through an engaging portion and the matching surface and is in communication with the respective workpiece. Each masking stopper is configured to be inserted into a respective workpiece to mask an interior of the respective workpiece. The ejecting plate includes an assembling surface and ejecting rods extending up from the assembling surface. Each ejecting rod is configured to be guided into a respective guiding hole from the matching surface to eject out a respective masking stopper.

Abstract: An electronic device capable of auto-tracking a sound source includes a driving member including a rotor, a housing fixed to the rotor; a first sound sensor positioned on the housing for detecting sound from the sound source to generate a first sound signal. A second sound sensor positioned on the housing spaced from the first sound sensor for detecting sound from the sound source to generate a second sound signal. A third sound sensor positioned on a perpendicular bisector of the connection line of the first sound sensor and the second sound sensor for detecting sound from the sound source to generate a third sound signal. A microphone positioned on a perpendicular bisector of the connection line of the first sound sensor and the second sound sensor, and a processor positioned in the housing for analyzing intensities of the three sound signals, and controlling the driving member to rotate.

Abstract: An infrared absorbing filter includes a glass plate molded by melting a composition of raw materials and cooling the melted composition. The composition of raw materials includes 28-33 by percentage weight (wt %) of phosphorus pentoxide (P2O5), 14-33 wt % of A oxide (A2O), 0.15-4 wt % of B oxide (BO), 2.5-8 wt % of copper oxide (CuO), 1.4-1.65 wt % of aluminum oxide (Al2O3). Wherein A is one of alkali metals, A2O is one of oxidizing alkali metals, B is one of alkaline earth metals, BO is one of oxidizing alkaline earth metals.

Abstract: A coating auxiliary device, for coating hollow workpieces, includes a loading tray, masking stoppers, and an ejecting plate. The loading tray includes a loading surface, a matching surface opposite to the loading surface, and engaging portions extending up from the loading surface. Each workpiece is engaged with an engaging portion. The loading device defines guiding holes. Each guiding hole passes through an engaging portion and the matching surface and is in communication with the respective workpiece. Each masking stopper is configured to be inserted into a respective workpiece to mask an interior of the respective workpiece. The ejecting plate includes an assembling surface and ejecting rods extending up from the assembling surface. Each ejecting rod is configured to be guided into a respective guiding hole from the matching surface to eject out a respective masking stopper.

Abstract: An optical fiber assembly includes an optical fiber and a lens. The optical fiber defines a receiving groove in an end surface thereof. The lens is held in the receiving groove and includes a substrate and a Bragg grating. The Bragg grating includes a number of film layers stacked on the substrate.

Abstract: A coating device includes a rotatable base, a board for holding workpieces, a positioning shaft positioned on the rotatable base, two eccentric wheels, a rack, and two reciprocating shafts. The two eccentric wheels are fixed on the positioning shaft and extend from the positioning shaft along two opposite directions. The two eccentric wheels are parallel to and spaced from each other. The rack is rotatably connected to the rotatable base. The rack is capable of rotating around the positioning shaft. Each reciprocating shaft is positioned on the rack. Each reciprocating shaft includes a hinge portion rotatably connected to an end of the board and a sliding portion slidably connected to the edge of a corresponding eccentric wheel. The two eccentric wheels are capable of driving the two reciprocating shafts to move alternately toward and away from the positioning shaft along radial directions of the positioning shaft.

Abstract: An infrared absorbing filter includes a glass plate molded by melting a composition of raw materials and cooling the melted composition. The composition of raw materials includes 28-33 by percentage weight (wt %) of phosphorus pentoxide (P2O5), 14-33 wt % of A oxide (A2O), 0.15-4 wt % of B oxide (BO), 2.5-8 wt % of copper oxide (CuO), 1.4-1.65 wt % of aluminum oxide (Al2O3). Wherein A is one of alkali metals, A2O is one of oxidizing alkali metals, B is one of alkaline earth metals, BO is one of oxidizing alkaline earth metals.

Abstract: An electronic device with anti-shock function includes a shell, a sensor, and a controller received in the shell and electrically coupled to the sensor. The sensor includes at least one pressure sensor to generate a position signal and at least one touch sensor to generate a touch signal. The controller defines the electronic device to be in a freefall state and enters into a protection mode when the controller does not receive the position signal and the touch signal.

Abstract: An emergency exit indicating device includes an exit sign and a smoke dispelling system. The exit sign is configured for displaying where an emergency exit is located. The smoke dispelling system is configured for dispelling smoke from around the exit sign in the event of fire.

Abstract: A standby mode switch system includes a mode selection module, a control module, and a position detection module. The mode selection module has a vibration mode. The control module is in communication with the mode selection module and the position detection module. The control module turns on the vibration mode when the mode selection module selects the vibration mode and an incoming call. The control module turns off the vibration mode when the position detection module detects a distance from the position detection module to an adjacent object element is greater than a predetermined value.

Abstract: A display angle adjustment system includes a display rotation module, an image capture module, a data processing module, and a control module. The display rotation module is configured for driving the display to move. The image capture module is rotatably positioned on the display. The data processing module is electrically connected to the image capture module, for receiving a signal including image information from the image capture module, and calculating an eigenvector using a plurality of feature points according to the signal. The control module is electrically connected to the display rotation module, the image capture module, and the data processing module, respectively, for controlling the display rotation module and the image capture module to rotate according to the eigenvector calculated by the data processing module.

Abstract: A coating device includes a rotatable base, a board for holding workpieces, a positioning shaft positioned on the rotatable base, two eccentric wheels, a rack, and two reciprocating shafts. The two eccentric wheels are fixed on the positioning shaft and extend from the positioning shaft along two opposite directions. The two eccentric wheels are parallel to and spaced from each other. The rack is rotatably connected to the rotatable base. The rack is capable of rotating around the positioning shaft. Each reciprocating shaft is positioned on the rack. Each reciprocating shaft includes a hinge portion rotatably connected to an end of the board and a sliding portion slidably connected to the edge of a corresponding eccentric wheel. The two eccentric wheels are capable of driving the two reciprocating shafts to move alternately toward and away from the positioning shaft along radial directions of the positioning shaft.

Abstract: A method of coating a pure white film includes a first step of providing a metal shell, a second step of forming a bonding layer on a surface of the metal shell by a first magnetron sputtering process, and a third step of forming a pure white layer on a surface of the bonding layer by a second magnetron sputtering process. The bonding layer includes chromium nitride. In the second process, aluminum and chromium corporately serves as targets. Oxygen serves as a reactive gas. A ratio of a bombarding power of the aluminum to that of the chromium is about 12:1. A bias voltage ranges from 180 volts to 220 volts. The second magnetron sputtering process lasts for about 58 to 62 minutes and goes on under a temperature ranged from 180° C. to 220° C. And the pure white layer includes aluminum oxide and chromium oxide.

Abstract: A brightness adjusting system for an image of an object captured by a camera includes a plurality of light sources configured for emitting light to the object, a driving device driving the light sources to emit the light, and an adjustment device electrically connected to the camera and the driving device. The adjustment device pre-stores a plurality of standard brightness value ranges, analyzes a brightness distribution of the image, compares the brightness distribution of the image with the standard brightness value ranges, determines required adjustment of the brightness distribution of the image according to the comparison, and directs the driving device to drive the light sources to emit the light with a required intensity according to the required adjustment of the brightness distribution of the image.

Abstract: An exemplary light emitting diode street lamp includes a light emitting diode array, a brightness sensor, a humidity sensor, and a controlling system. The brightness sensor senses the brightness of the environment. The humidity sensor senses the humidity of the environment. The controlling system is electrically connected to the light emitting diode array, the humidity sensor and the brightness sensor. Three ranges of humidity and three ranges of brightness are predefined in the controlling system. The controlling system controls the light emitting diode array to emit an amount of light according to a relationship between the sensed humidity value and the humidity ranges, and according to a relationship between the sensed brightness value and the brightness ranges.

Abstract: A golden enclosure for a mobile phone includes a shell, a color layer, and a bonding layer. The color layer is formed over an outer surface of the shell. The color layer is comprised of titanium, chromium, and oxygen. The color layer has coordinates (L, a, b) in the CIE Lab color space. The “L” coordinate is in a range from bout 46.72 to bout 61.45. The coordinate is in a range from about 4.91 to about 16.1. The “b” coordinate is in a range from about 39.49 to about 55.18. The bonding layer is sandwiched between the shell and the color layer.