Abstract: A new process enabling rapid and efficient desktop manufacturing of microfluidic devices fabricated from thermoplastic substrates utilizing the selective irreversible swelling of thermoplastic polymer when exposed to suitable solvent makes it possible to produce micro- or nano-fluidic devices with outstanding bonding and collapse free micro- or nano-structures.

Abstract: A 6T static random access memory cell, array, and memory thereof are provided, in which the memory cell includes a first inverter, a second inverter, a first access transistor, and a second access transistor. A first high supply voltage and a low supply voltage are coupled to the first inverter. A second high supply voltage and the low supply voltage are coupled to the second inverter. The first access transistor has a gate terminal coupled to a first word line. The first access transistor has a source terminal coupled to the first node. The second access transistor has a gate terminal coupled to a second word line, and the second access transistor has a source terminal coupled to the second node. The first word line provides ON signals to turn on the first access transistor, and the second high supply voltage provides a first differential voltage simultaneously.

Abstract: A new process enabling rapid and efficient desktop manufacturing of microfluidic devices fabricated from thermoplastic substrates utilizing the selective irreversible swelling of thermoplastic polymer when exposed to suitable solvent makes it possible to produce micro- or nano-fluidic devices with outstanding bonding and collapse free micro- or nano-structures.

Abstract: An image projector in a case, having a light engine, a circuit board, a heat sink assembly, and a fan assembly, has one or more heat sinks and heat pipes shaped to gather heat from all heat-generating components within the projector and a single air passage to receive the heated air combined from all components, allowing the employment of a single fan module in sucking cool air from the exterior and exhausting heated air through the single air passage.

Abstract: A 6T static random access memory cell, array, and memory thereof are provided, in which the memory cell includes a first inverter, a second inverter, a first access transistor, and a second access transistor. The first inverter and second inverter respectively include a first pull-up transistor, a first pull-down transistor, a second pull-up transistor and a second pull-down transistor. The first pull-down and pull-up transistors each have a drain terminal mutually coupled to form a first node. The second pull-down and pull-up transistors each have a drain terminal mutually coupled to form a second node. The first and second access transistors each have a gate terminal respectively coupled to a first word line and a second word line. When the first word line provides on signals to turn on the first access transistor, the second low voltage supply provides a first differential voltage simultaneously.

Abstract: A diamond-like carbon film for improving an efficiency of a field emitting element is disclosed in the present invention. The abovementioned diamond-like carbon film is deposited on a substrate and uses a mixture of graphite fiber and diamond powder as its nucleation layer. Furthermore, a method for fabricating the abovementioned diamond-like carbon film is also disclosed in the present invention and at least comprises the following steps. First, a substrate and a mixing solution composed of graphite fiber and diamond powder are provided. And then, a nucleation layer is formed on the substrate by utilizing the mixing solution. A diamond-like carbon film is finally deposited on the substrate by utilizing the nucleation layer.

Abstract: An image projector in a case, having a light engine, a circuit board, a heat sink assembly, and a fan assembly, has one or more heat sinks and heat pipes shaped to gather heat from all heat-generating components within the projector and a single air passage to receive the heated air combined from all components, allowing the employment of a single fan module in sucking cool air from the exterior and exhausting heated air through the single air passage.

Abstract: A single metal damascene structure including an insulating layer, a metal filling layer and a barrier layer is provided. The insulating layer has an opening therein, and the metal filling layer is positioned in the opening. The barrier layer is located between the filling metal layer and the insulating layer. The material of the barrier layer includes an alloy, and the ally includes a copper element and at least one another metal.

Abstract: A display device includes a front frame, a panel module, a main back cover, a sub-back cover, a circuit device and a stand set, wherein the main back cover includes a recess portion sinking from the main back cover toward the panel module. An inner space is formed between the recess portion and the sub-back cover. The circuit device is disposed in the inner space and connected to the recess portion. In different embodiments, the display device includes a reinforcing rib for grounding purpose. The reinforcing rib is disposed on the panel module and is located between the panel module and the main back cover. Furthermore, a through-hole is formed on the recess portion for the reinforcing rib to pass through and electrically couples with the circuit device.

Abstract: A method of operating a camera is disclosed. A shutter button is pressed to trigger capturing an image. Subsequently, a display-related signal is prevented from transferring to a display panel at least for a duration during which image data are being read out of an image sensor.

Abstract: A method for controlling fan speed is disclosed. Firstly, a number of temperature ranges are defined. Each temperature range is associated with a corresponding fan speed. Each two adjacent temperature ranges overlap. The temperature of an electronic system is measured and is compared with the defined temperature ranges to determine whether it enters into a new range. If the measured temperature exceeds any one of the limits of a temperature range associated with the current fan speed, it enters into a new temperature range. The fan speed is adjusted to which is associated with the new entered temperature range. The overlap of each two adjacent temperature ranges covers the fluctuation of the temperature of the electronic system caused solely by the adjustment of fan speed caused by the traversing of the measured temperature between the two adjacent temperature ranges.

Abstract: A cooling device for projector includes a shell, a circuit board, a light machine, a first fins, a fan assembly and a heat dissipation module. The light machine is mounted on the circuit board, and includes a light source having a red LED, a green LED facing the red LED, and a blue LED positioned between both of them. The first fins are mounted on the light source adjacent to the blue LED. The fan assembly includes a fan having a fan shell with an inlet and an outlet, and a second fins connected to the light source to aligned with the red LED. The heat dissipation module includes a third fins mounted on the light source to align to the green LED, a fourth fins mounted on the fan shell to align to the outlet of the fan, and a heat pipe interconnecting the third and fourth fins.

Abstract: A light source module includes a first light source, a second light source, a third light source, and a first heat sink. The first heat sink includes a first base and a number of first fins. A bottom surface of the first base is attached to the first light source and the second light source. The first fins perpendicularly extend from a top surface of the first base away from the first light source and the second light source. Each first fin includes a first fin portion adjacent to the first light source and a second fin portion adjacent to the second light source, and defines a first slot for increasing the thermal resistance between the first fin portion and the second fin portion.

Abstract: A method of operating a camera is disclosed. A shutter button is pressed to trigger capturing an image. Subsequently, a display-related signal is prevented from transferring to a display panel at least for a duration during which image data are being read out of an image sensor.

Abstract: A projector includes a casing, an optical engine, and a heat dissipating module. The casing includes a first sidewall, a front wall defining a hole, a second sidewall, and a rear wall connected in sequence. The optical engine includes a lens module substantially aligned with the hole defined by the front wall, a DMD, and an illuminator module. The illuminator module is arranged at a side of the lens module away from the second sidewall, and includes a housing having a side surface away from the lens module and at least one light source installed on the side surface. The heat dissipating module includes a first heat sink attached to the at least one light source, a blower, and an exhaust fan. The blower is for blowing air towards the first heat sink from an air inlet.

Abstract: A lens module includes a seat, a lens holder and a thermal dissipation structure. The seat includes a base plate and two sidewalls perpendicularly formed on a surface of the base plate. The lens holder is mounted on the seat between the two sidewalls. The thermal dissipation structure is mounted on the seat and thermally conducts with the lens holder for cooling the lens holder.

Abstract: An electronic device includes a heat dissipation system and an operating system. The heat dissipation system includes a housing, a first heat dissipation module received in the housing, heat pipes extending from the first heat dissipation module through the housing. The operating system includes a dust-proof housing, a heat source and a heat dissipation device. The heat source is received in the dust-proof housing and generates heat. The cooling module is adhered to an outer surface of the dust-proof housing to be cooled and attaches the heat pipes to the first heat dissipation module. The outer surface of the dust-proof housing is adjacent to the housing. The heat pipes transfer heat from the operating system into the first heat dissipation module.

Abstract: A heat-dissipating structure of a housing is disclosed. The housing defines an opening that is embedded with the heat-dissipating structure. The heat-dissipating structure includes a number of metal slats, a number of connection members, and a supporting frame. The metal slats are spaced and angled to form air channels and fixed to each other via the connection members. The combination of the metal slats and connection members are supported by the supporting frame.

Abstract: A projector includes a housing, a projection lens, a receiving member, an optical engine, a light source module, a heat sink, and a fan. The housing includes a bottom wall and four sidewalls, the bottom wall and the four sidewalls together define a receiving space. One of the sidewalls a number of first vents, the other three sidewalls define a number of second vents. The projection lens is located at an intersecting corner of the sidewalls. The receiving member includes a first receiving portion and a second receiving portion. The optical engine is received in the second receiving portion. The light source module is received in the first receiving portion. The heat sink is located at an intersecting corner of the sidewalls. The fan is located at an intersecting corner of the sidewalls.

Abstract: A cooling device for projector includes a shell, a circuit board, a light machine, a first fins, a fan assembly and a heat dissipation module. The light machine is mounted on the circuit board, and includes a light source having a red LED, a green LED facing the red LED, and a blue LED positioned between both of them. The first fins are mounted on the light source adjacent to the blue LED. The fan assembly includes a fan having a fan shell with an inlet and an outlet, and a second fins connected to the light source to aligned with the red LED. The heat dissipation module includes a third fins mounted on the light source to align to the green LED, a fourth fins mounted on the fan shell to align to the outlet of the fan, and a heat pipe interconnecting the third and fourth fins.