Abstract: A bonding method of package components and a bonding apparatus are provided. The method includes: providing at least one first package component and a second package component, wherein the at least one first package component has first electrical connectors and a first dielectric layer at a bonding surface of the at least one first package component, and the second package component has second electrical connectors and a second dielectric layer at a bonding surface of the second package component; bringing the at least one first package component and the second package component in contact, such that the first electrical connectors approximate or contact the second electrical connectors; and selectively heating the first electrical connectors and the second electrical connectors by electromagnetic induction, in order to bond the first electrical connectors with the second electrical connectors.

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 cabinet for server includes a frame, and a plurality of guiding rails. Each guiding rail includes a connection portion and an inclined portion. An acute angle is defined between the inclined portion and the connection portion.

Abstract: A data center includes a housing and a number of server units arranged in the housing. Each server unit includes a server module and a cable management member. The first ends of a number of cables are connected to the back panel of the server module. The cable management member includes a bottom plate, a front plate, and two side plates. A number of connectors are set on the front plate. The second ends of the cables are connected to the connectors. The cable management member is fixed to one side of the server module. The cables are received in a space formed between the bottom plate of the cable management member and the server module.

Abstract: A container data center includes a rack and a cabinet. The rack includes a base and two spaced posts perpendicularly extending up from the base. A shockproof device is mounted to each post. The shockproof device includes an installing member embracing the post, a number of first shockproof members sandwiched between the installing member and the post, and a second shockproof member sandwiched between a bottom of the installing member and the base. The cabinet is mounted to the installing members.

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 data center includes a housing and a number of server units arranged in the housing. Each server unit includes a server module and a cable management member. The first ends of a number of cables are connected to the back panel of the server module. The cable management member includes a bottom plate, a front plate, and two side plates. A number of connectors are set on the front plate. The second ends of the cables are connected to the connectors. The cable management member is fixed to one side of the server module. The cables are received in a space formed between the bottom plate and the server module. The cable management member includes a first clipping portion and a second clipping portion formed at opposite sides. The housing includes a number of rails, which can slide between the first and second clipping portions.

Abstract: An exemplary server cabinet includes two brackets defining a space therebetween for receiving servers, and two guiding fixtures respectively engaged with the two brackets. Each bracket defines a latching hole. Each guiding fixture includes a supporting member and a latching member. The supporting member includes a main plate and a supporting arm extending from the main plate towards the space. The latching member includes a resisting plate attached to the main plate and a pivot extending from the resisting plate. A plurality of protrusions extends outwards from an end of the pivot. The latching member is rotated to engage the protrusions with the corresponding bracket at a periphery of the latching hole after the end of the pivot extends through the supporting member and the latching hole of the bracket such that the main plate is sandwiched between the resisting plate and the bracket and attached to the bracket.

Abstract: A container data center includes a container, at least one power supplying assembly, at least one cooling assembly, and at least one server assembly. The power supplying assembly, the cooling assembly, and the server assembly are received in the container. The cooling assembly is positioned between the power supplying assembly and the server assembly. The power supplying assembly includes a first frame and a plurality of power boxes supported in the first frame, and is for supplying power to the cooling assembly and the server assembly. The cooling assembly includes a second frame and a plurality of cooling devices supported in the second frame, and is for cooling the power supplying assembly and the server assembly. The server assembly includes a third frame and a plurality of servers supported in the third frame.

Abstract: A container data center includes a rack and a cabinet. The rack includes a base and two spaced posts perpendicularly extending up from the base. A shockproof device is mounted to each post. The shockproof device includes an installing member embracing the post, a number of first shockproof members sandwiched between the installing member and the post, and a second shockproof member sandwiched between a bottom of the installing member and the base. The cabinet is mounted to the installing members.

Abstract: A data center includes a housing and a number of server units arranged in the housing. Each server unit includes a server module and a cable management member. The first ends of a number of cables are connected to the back panel of the server module. The cable management member includes a bottom plate, a front plate, and two side plates. A number of connectors are set on the front plate. The second ends of the cables are connected to the connectors. The cable management member is fixed to one side of the server module. The cables are received in a space formed between the bottom plate and the server module. The cable management member includes a first clipping portion and a second clipping portion formed at opposite sides. The housing includes a number of rails, which can slide between the first and second clipping portions.

Abstract: A data center includes a housing and a number of server units arranged in the housing. Each server unit includes a server module and a cable management member. The first ends of a number of cables are connected to the back panel of the server module. The cable management member includes a bottom plate, a front plate, and two side plates. A number of connectors are set on the front plate. The second ends of the cables are connected to the connectors. The cable management member is fixed to one side of the server module. The cables are received in a space formed between the bottom plate of the cable management member and the server module.

Abstract: An exemplary switching cabinet includes a rack. The rack includes four vertical braces. Each of the vertical braces includes a main body having an open inner lateral side. The main body includes a main plate and two extending plates extending from two opposite lateral sides of the main plate in a same direction. A first flange and a second flange extend oppositely and outwardly from free sides of the extending plates.

Abstract: A container data center includes a container, at least one power supplying assembly, at least one cooling assembly, and at least one server assembly. The power supplying assembly, the cooling assembly, and the server assembly are received in the container. The cooling assembly is positioned between the power supplying assembly and the server assembly. The power supplying assembly includes a first frame and a plurality of power boxes supported in the first frame, and is for supplying power to the cooling assembly and the server assembly. The cooling assembly includes a second frame and a plurality of cooling devices supported in the second frame, and is for cooling the power supplying assembly and the server assembly. The server assembly includes a third frame and a plurality of servers supported in the third frame.

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 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: 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 container, a number of servers, and a network hub. The servers are stacked in the container. Each server includes a network connector. The network hub is received in the container, and arranged to one side of the servers. The network hub includes a number of network interfaces. Each network interface aligns with the network connector of the corresponding server.

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 system includes a mounting rack and an electronic device. The mounting rack includes a frame and a plurality of supports located at the back of the frame. A plurality of cable securing components is located in the frame. The electronic device is inserted in the mounting rack from front to back and includes a front wall. The front wall is adjacent to the frame and defines a port for receiving a cable. The cable is arranged in the cable securing components.