Abstract: A container data center (CDC) includes a server system and two cooling systems sandwiching the servers system. The server system includes a first container and a number of servers received in the first container. Each of the cooling systems includes a second container and a cooling device received in the second container. The cooling device generates cooling air which is directed to the servers for heat dissipation.

Abstract: A mounting apparatus having two latching members for fixing an expansion card to an expansion slot mounted on a motherboard. Two latching members are mounted to two ends of the expansion slot, for fixing the expansion card. Two latching members are pivotably sandwiched between the ends of the expansion slot and the motherboard, respectively. A latching block protrudes from each of the latching members, for abutting against a bottom of the corresponding locking member.

Abstract: A mounting apparatus fixing an expansion card includes an expansion slot, two locking members connected to opposite ends of the expansion slot, for clamping the expansion card, and two latching members pivotably mounted to opposite ends of the expansion card, respectively. A latching portion protrudes from each of the latching members, for latching the corresponding locking member.

Abstract: An exemplary data center includes two server systems arranged back to back. Each server system includes a server cabinet, a rail system, at least two servers and a fan module. The servers are accommodated in the server cabinet. The fan module is located at a rear side of the two servers and perpendicular to the servers to provide a horizontal airflow to cool the servers. The fan module is capable of rolling on the rail system between a rear side and a front side of the server cabinet to interchange between a vertical state and a horizontal state. Assembly or disassembly of the fan module is performed from the front side of the server cabinet where there is a greater amount of workspace.

Abstract: A mounting apparatus is provided to hold a number of data storage devices each including opposite sidewalls. The mounting apparatus includes a bracket, a number of fasteners, and a number of fixing members. The fasteners are fixed to the sidewalls of the data storage devices, respectively, and each fastener includes a head portion abutting the corresponding sidewall. Each fixing member includes a main body fixed to the bracket, and guiding rails fixed to opposite sides of the main body. Each guiding rail defines a sliding groove. A receiving space is formed between two adjacent fixing members to accommodate the data storage devices. Every sliding groove facing a receiving space is paired with an opposite sliding groove facing the same receiving. When the data storage devices are moved into the receiving spaces along the fixing members, respectively, the head portions are slid into the corresponding paired sliding grooves.

Abstract: A mounting apparatus receives a data storage device with a plurality of posts. The mounting apparatus includes a bracket, and a latching unit mounted to the bracket. The latching unit includes a fixing tray, a sliding member slidably mounted in the fixing tray, and a resisting member mounted to the sliding member and resisting the post. When the sliding member is slid in the fixing tray along a first direction to resist the resisting member, the resisting member is moved into the fixing tray along a second direction perpendicular to the first direction. When the sliding member is slid in the fixing tray along a third direction opposite to the first direction, the resisting member is moved outside the fixing tray along a fourth direction opposite to the second direction.

Abstract: A mounting apparatus includes a frame to receive a storage device and a cushion fixed to a rear end of the frame. A number of protrusions extend from an outer side of the cushion away from the frame, to protect the storage device and the frame from vibration.

Abstract: A data center includes a server, a trestle-floor, and a battery box. The server is positioned on the trestle-floor. The battery box is located under the trestle-floor and below the server. The trestle-floor includes a number of tiles. The battery box receives a number of battery units. When the battery units need to be replaced or repaired, one or more tiles of the trestle-floor are operable to be removed to expose the battery units.

Abstract: A container data center includes a first container installed with a plurality of servers, and at least one cold air inlet and at least one hot air outlet are defined on the first container. The container data center further includes a second container installed with a cooling system, and at least one hot air inlet and at least one cold air outlet are defined on the second container. Cold air flows from the second container to the first container through the cold air outlet and the cold air inlet, and hot air flows from the first container to the second container through the hot air outlet and the hot air inlet. The cold air is generated from the cooling system and becomes the hot air after flowing through the servers and removing heat generated from the servers. The cooling system removes heat of the hot air and generates the cold air.

Abstract: An apparatus includes an enclosure, a first interconnect card, a second interconnect card, and a connection circuit board. The enclosure receives a first data storage device and a second data storage device. The first interconnect card is connected to the first data storage device. The second interconnect card is connected to the second data storage device. The second interconnect card includes an external connector which is capable of connecting to a peripheral apparatus outside of the enclosure. The connection circuit board is connected to the first and the second interconnect cards. The first data storage device communicates with the external connector via the first interconnect card, the connection circuit board, and the second interconnect card. The second interconnect card communicates with the external connector via the second interconnect card.

Abstract: A cabinet for electronic devices includes a rack and engaging units. The rack includes a first supporting post, a second supporting post, a third supporting post and a fourth supporting post located at four corners of an imaginary rectangular parallelepiped. An opening is defined between the first supporting post and the second supporting post for the electronic devices inserted therein. Each of the third and fourth supporting posts defines a plurality of pairs of slots therein. The engaging units are mounted on the third and the fourth supporting posts, respectively. Each of the engaging units includes a pair of pins received in a corresponding pair of slots and a pressing element connected with the pins. The pressing element is horizontally moveable by the pins sliding along the corresponding pair of slots to thereby adjust an abutting force between the pressing element and a corresponding electronic device.

Abstract: A method of fabricating visible light absorbed TiO2/CNT photocatalysts and photocatalytic filters is disclosed, in which the method of fabricating the photocatalysts comprises steps: (a) providing a substrate; (b) forming a plurality of carbon nanotubes on the substrate; (c) providing a titanium source and an oxygen source; and (d) forming at least one titanium dioxide layer on the carbon nanotubes. The filter of the present invention comprises: a substrate, a plurality of carbon nanotubes, and a titanium dioxide layer. The plurality of carbon nanotubes form on the surface of the substrate, one end of each carbon nanotube connects to the substrate, and the titanium dioxide layer covers the surface of the carbon nanotubes. The filter of the present invention is a visible light absorbed filtering net, the titanium dioxide layer formed on the CNTs has high uniformity and therefore the photodegradation efficiency of the filter is an improvement.

Abstract: A stabilization apparatus for stabling load voltage of vehicle is applied to a vehicle battery unit, a vehicle computer unit and a vehicle load unit. The stabilization apparatus for stabling load voltage of vehicle includes a voltage boost unit and a microcontroller unit. The voltage boost unit is electrically connected to the vehicle battery unit and the vehicle load unit. The microcontroller unit is electrically connected to the voltage boost unit and the vehicle computer unit. When the voltage of the vehicle battery unit is going to drop, a voltage-drop signal is sent from the vehicle computer unit to the microcontroller unit. The voltage boost unit is controlled by the microcontroller unit to supply a boosted voltage to the vehicle load unit.

Abstract: An electronic device module includes an electronic device, a rack accommodating the electronic device, and a shield adjusting assembly. The rack defines a number of ventilation holes, and the shield adjusting assembly defines a number of through holes. The electronic device is placed in the rack to drive the shield adjusting assembly to a first position in which the through holes align with the ventilation holes. When the electronic device is detached from the rack, the shield adjusting assembly is restored by a resilient element to a second position in which the through holes offset the ventilation holes such that the ventilation holes are shielded.

Abstract: An electronic apparatus includes a cabinet and a number of electronic devices mounted in the cabinet. The cabinet includes a bottom plate and a top plate. A top of each electronic device forms two flanges, and a bottom of each electronic device forms a number of first electromagnetic radiation shielding units. The top and bottom plates includes a number of second electromagnetic radiation shielding units for respectively resisting against the first shielding units and the flanges of the electronic elements adjacent to the top plate and bottom plate of the cabinet. The first electromagnetic radiation shielding units and the flanges of two neighboring electronic devices resist against each other.

Abstract: An electronic device includes a case and a power supply arranged in the case. The power supply includes a first power port to connect to a power line for supplying power to the electronic device. The electronic device further includes an extension cord to connect to the first power port through a plug; the extension cord includes a second power port to connect to the power line. When the plug is connected with the first power port, the power line is connected to the second power port to supply power to the electronic device through the second power port, the extension cord, the first power port, and the power supply; when the plug is disconnected from the first power port, the power line is connected to the first power port to supply power to the electronic device through the first power port and the power supply.

Abstract: A mounting apparatus includes a frame, a resilient grounding piece and a fastener both made of conducting material. The frame includes an end arm, a first fixing arm connected to the end arm, and a second fixing arm pivotably connected to the end arm. Two pins protrude from an inner side of each of the first and second fixing arms, for correspondingly engaging in fixing holes of a storage device. The resilient arm is fixed to an outer side of the second fixing arm and includes a resilient arm bending away from the second fixing arm. The fastener is fixed to an inside surface of the resilient grounding piece and is pressed by the resilient grounding piece to extend through the second fixing arm and insert into the threaded hole of the storage device, to connects the storage device to ground cooperating with the resilient grounding piece.

Abstract: An exemplary server assembly includes a computer server system and a fixing frame. The computer server system includes a server cabinet accommodating one or more servers therein. The fixing frame is adaptable to operate under a fixed state for fixing the computer server system onto a surface area, or under a transferable guiding state to obliquely interconnect two surfaces of two different levels, along which the computer server system can be moved between the two surfaces.

Abstract: A mounting apparatus for a data storage device includes a bracket, a support member slidably mounted to the bracket, two first and second locking members, and two clamping members. Each first locking member includes a first hook detachably locked to the support member, and a fixing pole to clamp the corresponding clamping member. Each second locking member includes a second hook fixed to the support member, and a fixing portion to fix the corresponding clamping member. When the first hooks of the first locking members disengage from the support member, and the first locking members are rotated to drive the corresponding clamping members away from the support member. When the data storage device is sandwiched between the support member and the clamping members, the first locking members are rotated to make the first hooks lock to the support member.

Abstract: A server enclosure includes a top plate and a bottom plate. The top plate defines a guiding channel extending along a first direction. The bottom plate parallels to the top plate. The bottom plate protrudes a guiding member. The guiding channel and the guiding member are aligned long a direction perpendicular to the top plate, and the guiding channel is boarder than the guiding member.