Abstract: The present disclosure discloses a quick detachable hard disk bracket. When the cross beam hinging rod and the enclosure frame driving rod rotate upwards or downwards, the enclosure frame is driven to transversely move opposite to the cross beam. The locking hook is slidably assembled at the cross beam in a transverse direction. The locking hook is hinged with a hook driving rod. When the cross beam hinging rod and the enclosure frame driving rod rotate upwards or downwards, the locking hook is driven to transversely move opposite to the cross beam. When the cross beam hinging rod and the enclosure frame driving rod rotate downwards, the locking hook and the enclosure frame move in opposite directions respectively, and the locking hook and the enclosure frame move out of the two ends of the cross beam respectively.

Abstract: The present application discloses a multi-node safe locking device. A guiding rail is disposed on a chassis, to enable a locking rod to translate perpendicularly to the moving direction of node modules. A guiding plate is assembled on the node modules, guiding grooves are disposed on the guiding plate, and the guiding grooves match with a plurality of limiting columns that protrude out of the locking rod. When the node modules moves, the limiting columns move relatively to the guiding grooves in a guiding path, to cause the locking rod to translate. When one of the node modules is pulled out, the guiding groove causes the locking rod to translate to the locking position, to block the other node module from being pulled out, the limiting column is separated from the notch of the guiding groove, and the guiding plate moves out along with the node module.

Abstract: The present disclosure discloses a node safe locking device and a server. An outer rail is disposed between two adjacent node modules. A middle rail is slidably assembled at the outer rail. Each middle rail is driven by one node module to translate in a same direction. When the middle rail moves, the linking and interlocking rod may be driven to reach different positions. When the middle rail moves outwards from the initial position together with one of the node modules, the locking guiding lean edge drives the linking and interlocking rod to move to the locking position. At this time, the blocking locking edge of the middle rail corresponding to the other node module is blocked by the linking and interlocking rod located at the locking position, and the node module may not move outwards to realize locking.

Abstract: The present disclosure discloses a node safe locking device and a server. An outer rail is disposed between two adjacent node modules. A middle rail is slidably assembled at the outer rail. Each middle rail is driven by one node module to translate in a same direction. When the middle rail moves, the linking and interlocking rod may be driven to reach different positions. When the middle rail moves outwards from the initial position together with one of the node modules, the locking guiding lean edge drives the linking and interlocking rod to move to the locking position. At this time, the blocking locking edge of the middle rail corresponding to the other node module is blocked by the linking and interlocking rod located at the locking position, and the node module may not move outwards to realize locking.