Abstract: The present disclosure provides a scalable power distribution system including a power distribution device, the power distribution includes a plurality of input modules and a plurality of output modules. The input module includes a connector for receiving the input power. The output module has a plurality of output ports. The output module receives the input power of the connector of the corresponding input module, or receives the input power of the connector of the input module neighboring to the corresponding input module. The input module receives the plural types of input power, and the power distribution system selectively receives one or more times of the input power through one or more of the plurality of input modules to provide one or more times of the output power to one or more of the plurality of output ports.

Abstract: A testing device includes a testing socket and a reflector. The testing socket defines an accommodating space. The reflector is disposed in the accommodating space and has a plurality of reflection surfaces non-parallel with each other. The reflection surfaces define a transmission space.

Abstract: An antenna testing module includes a box, a platform within the box, and a detection module at least partially within the box. The box is configured to accommodate a device under test (DUT). The platform is configured to hold the DUT. The detection module is configured to receive an electromagnetic radiation emitted from the DUT and to locate an antenna phase center of the DUT.

Abstract: A movable display device includes a carrying module, a lifting module, a frame module and a display module. The carrying module includes a carrier unit, a base unit disposed on the carrier unit, and a plurality of positioning units disposed on the carrier unit. The lifting module is disposed on the base unit. The frame module includes a primary frame unit movably connected to the positioning units and a plurality of secondary frame units movably connected to the primary frame unit. The primary frame unit has a connecting portion connected to the lifting module. The secondary frame units are respectively located at two sides of the primary frame unit. The display module includes a primary display unit disposed on the primary frame unit and a plurality of secondary display units respectively disposed on the secondary frame units.

Abstract: A testing device includes a testing socket, a first transmission medium and a second transmission medium. The testing socket defines a radiation space. The first transmission medium is disposed in the radiation space of the testing socket. The first transmission medium is configured for supporting a device under test (DUT). The second transmission medium is disposed in the radiation space of the testing socket.

Abstract: An antenna testing module includes a box, a platform within the box, and a detection module at least partially within the box. The box is configured to accommodate a device under test (DUT). The platform is configured to hold the DUT. The detection module is configured to receive an electromagnetic radiation emitted from the DUT and to locate an antenna phase center of the DUT.

Abstract: A movable display device includes a carrying module, a lifting module, a frame module and a display module. The carrying module includes a carrier unit, a base unit disposed on the carrier unit, and a plurality of positioning units disposed on the carrier unit. The lifting module is disposed on the base unit. The frame module includes a primary frame unit movably connected to the positioning units and a plurality of secondary frame units movably connected to the primary frame unit. The primary frame unit has a connecting portion connected to the lifting module. The secondary frame units are respectively located at two sides of the primary frame unit. The display module includes a primary display unit disposed on the primary frame unit and a plurality of secondary display units respectively disposed on the secondary frame units.

Abstract: A testing device includes a testing socket, a first transmission medium and a second transmission medium. The testing socket defines a radiation space. The first transmission medium is disposed in the radiation space of the testing socket. The first transmission medium is configured for supporting a device under test (DUT). The second transmission medium is disposed in the radiation space of the testing socket.

Abstract: A testing device includes a testing socket and a reflector. The testing socket defines an accommodating space. The reflector is disposed in the accommodating space and has a plurality of reflection surfaces non-parallel with each other. The reflection surfaces define a transmission space.

Abstract: The instant disclosure relates to a raised access floor having electromagnetic shielding capability. The access floor is made of a metallic material. The access floor includes a load-bearing member and a shielding member interconnected to each other. The access floor of the instant disclosure can further include a load-bearing member made of a material having electromagnetic shielding and load-bearing capabilities.

Abstract: An electronic apparatus includes a mainframe with a keyboard embedded therein, a mounting frame pivotally connected with the mainframe, a display screen mounted in the mounting frame, a lighting source disposed on the mounting frame, and an optical element cooperating with the lighting source and slideably mounted on the mounting frame. Light from the lighting source is projected to different predetermined areas by adjusting positions of the optical element relative to the lighting source. In each of the positions of the optical element, the light from the lighting source is modulated by a corresponding portion of the optical element to be projected to a corresponding predetermined area.

Abstract: An electronic apparatus includes a mainframe with a keyboard embedded therein, a mounting frame pivotally connected with the mainframe, a display screen mounted in the mounting frame, a lighting source disposed on the mounting frame, and an optical element cooperating with the lighting source and slideably mounted on the mounting frame. Light from the lighting source is projected to different predetermined areas by adjusting positions of the optical element relative to the lighting source. In each of the positions of the optical element, the light from the lighting source is modulated by a corresponding portion of the optical element to be projected to a corresponding predetermined area.

Abstract: A method for manufacturing a side-folded type elevated floor includes the steps of: providing a steel plate and defining positions of shearing lines and bending lines of the steel plate; shearing the steel plate along the shearing lines; stamping the steel plate along the bending lines to form a steel panel with a plurality of steel folds that are bendingly connected around the steel panel; and welding the adjacent steel folds to form an accommodating region; thereby a side-folded type elevated floor is formed. In this way, the amount of energy consumed in manufacturing the elevated floor can be reduced greatly, thereby conforming to the requirement for saving energy. A side-folded type elevated floor system is further provided.

Abstract: An extractable electronic apparatus with a handle latching structure to be installed in a system equipment having an indentation is disclosed. The extractable electronic apparatus comprises a main body having a first side, a handle unit disposed on the main body and being rotatable relative to the first side, the handle unit having an extending portion, and a latch unit disposed on the first side of the main body and being movable between a first position and a second position of the first side, wherein the handle unit is disengaged from the latch unit while the latch unit is moved to the first position, and the handle unit and the extending portion of the handle unit are engaged with the latch unit and the indentation of the system equipment respectively while the latch unit is moved to the second position for fixing the extractable electronic apparatus in the system equipment.

Abstract: A multi-function wireless detecting device is described. The multi-function wireless detecting device includes a monitoring pen and a wireless detector module to be carried conveniently and controlled easily. The wireless detector module includes at least one environmental parameter detector, and the monitoring pen utilizes wireless technology to control the wireless detector module and displays the data measured by the wireless detector module. The environmental parameter detector preferably includes a temperature detector and a gas concentration detector disposed on both sides of a baseboard of the wireless detector module. The gas concentration detector further includes an alcohol concentration detector, a CO concentration detector, a CO2 concentration detector, a fuel gas concentration detector, or a combination thereof. The environmental parameter detector may further include a humidity detector.

Abstract: An air purification system for treating pollutants in a gas stream. The air purification system includes a housing with a plurality of nozzles, an acidic water supply device and an alkaline water supply device. The housing introduces the gas stream. The acidic water supply device supplies acidic water for first nozzles to spray acidic mist. The alkaline water supply device supplies alkaline water for second nozzles to spray alkaline mist. The acidic mist and alkaline mist neutralize acidic gas and alkaline gas contained in the gas stream.

Abstract: An air purification system for treating pollutants in a gas stream. The air purification system includes a housing with a plurality of nozzles, an acidic water supply device and an alkaline water supply device. The housing introduces the gas stream. The acidic water supply device supplies acidic water for first nozzles to spray acidic mist. The alkaline water supply device supplies alkaline water for second nozzles to spray alkaline mist. The acidic mist and alkaline mist neutralize acidic gas and alkaline gas contained in the gas stream.

Abstract: An air purification system which is well-suited to removing particles from outside air as the air flows into a cleanroom used in the fabrication of semiconductor integrated circuits. A housing provides at least one spray nozzle for spraying fine mist water droplets. In use, the water droplets capture the airborne particles in the air flowing through the housing and adhere to the water droplet target. The water droplets coalesce and form larger droplets which adhere to the surface of the water droplet target and ultimately collect in a drain pan. The low-density water droplet target prevents large pressure differentials from forming in the housing, which pressure differentials may otherwise cause re-vaporization of the water droplets from the target and re-flow of the particles in the flowing air.

Abstract: A raised floor panel fabrication method for making raised floor panels of high quality and low cost is disclosed to include the step of using carton steel or stainless steel to make a face panel and a grille having a rectangular open frame formed of four steel bars and intersected ribs welded to the four steel bars of the rectangular open frame, and the step of welding the face panel to the grille.

Abstract: An air purification system which is well-suited to removing particles from outside air as the air flows into a cleanroom used in the fabrication of semiconductor integrated circuits. A housing provides at least one spray nozzle for spraying fine mist water droplets. In use, the water droplets capture the airborne particles in the air flowing through the housing and adhere to the water droplet target. The water droplets coalesce and form larger droplets which adhere to the surface of the water droplet target and ultimately collect in a drain pan. The low-density water droplet target prevents large pressure differentials from forming in the housing, which pressure differentials may otherwise cause re-vaporization of the water droplets from the target and re-flow of the particles in the flowing air.