Abstract: A function card fixing structure is provided, comprising a main body including a first portion and a second portion, wherein the first portion is perpendicular to the second portion, and the first portion comprises a plurality of trenches extending along a direction of a long axis of the main body. A sliding component is disposed at a side of the second portion, wherein the sliding component comprises a plate body and a locking portion, and one side of the plate body comprises a plurality of openings and stopping portions. A releasing component comprising a locking portion is at one side, wherein the locking portion of the releasing component is locked with the locking portion of the sliding component.

Abstract: A chain including chain-link units pivotally connected with each other. Each chain-link unit includes two lateral plates, a first link plate and a second link plate. Two ends of the lateral plates are defined as a first end and a second end. Two first pin-joint parts are configured near the first ends of the lateral plates respectively, and two second pin-joint parts are configured near the second ends of the lateral plates respectively. The chain-link units are pivotally connected with each other via the first pin-joint part and the second pin-joint part. Thus, the chain-link units are common, and each can be the starting chain-link unit, the middle chain-link unit or the ending chain-link unit. They can be easily assembled without screws, which further reduce the time consumption. Moreover, the noise made as the chain works can be reduced, and a buffering function can also be provided.

Abstract: A chain including chain-link units pivotally connected with each other. Each chain-link unit includes two lateral plates, a first link plate and a second link plate. Two ends of the lateral plates are defined as a first end and a second end. Two first pin-joint parts are configured near the first ends of the lateral plates respectively, and two second pin-joint parts are configured near the second ends of the lateral plates respectively. The chain-link units are pivotally connected with each other via the first pin-joint part and the second pin-joint part. Thus, the chain-link units are common, and each can be the starting chain-link unit, the middle chain-link unit or the ending chain-link unit. They can be easily assembled without screws, which further reduce the time consumption. Moreover, the noise made as the chain works can be reduced, and a buffering function can also be provided.

Abstract: A fixing structure of a removable electronic device adapted for fixing an electronic device to a bay includes a handle body, a backplane, a screw member, and an elastic member. The handle body has front and rear faces, the front face is formed with an opening, and the opening is formed with a stopping mechanism. The backplane is disposed at the rear face of the handle body, the backplane is formed with a perforation, and the perforation corresponds to the opening. The screw member is disposed inside of the handle body, the screw member is stopped by the stopping mechanism, and the screw member extends passing through the backplane via the perforation. The elastic member is disposed between the screw member and the backplane. The backplane is fixed at the electronic device, the screw member is connected to the bay, and the electronic device is fixed to the bay.

Abstract: A function card fixing structure is provided, comprising a main body including a first portion and a second portion, wherein the first portion is perpendicular to the second portion, and the first portion comprises a plurality of trenches extending along a direction of a long axis of the main body. A sliding component is disposed at a side of the second portion, wherein the sliding component comprises a plate body and a locking portion, and one side of the plate body comprises a plurality of openings and stopping portions. A releasing component comprising a locking portion is at one side, wherein the locking portion of the releasing component is locked with the locking portion of the sliding component.

Abstract: Scheduling methods for a multi-core processor system including multiple processors are provided. First, a process to be executed is chosen from a ready queue and analyzed to obtain a power consumption value of the process to be executed. Next, an idle processor is chosen from the processors and a total power consumption value of system through which the process to be executed is being executed in the idle processor is estimated to obtain a first prediction result based on the obtained power consumption value. It is then determined whether to execute the process to be executed in the idle processor according to the first predicted value and a predetermined upper limit value. In some embodiments, the scheduling method may further provide preemption scheduling such that the process with high priority can be preferentially executed and process can flexible switch among different processor core clusters.

Abstract: For testing a high density BGA package, a central pressure block is designed to press against the chip of the package during test in a test socket. High density socket probe causes high pressure against the package, especially the area under the chip. With the central pressure block of the present invention, the high density BGA package is prevented from deformation because the central pressure block pressing downward against the chip, which balances the pressure coming upward from the high density socket probes under the circuit board in the area under the chip.

Abstract: A computer housing is adapted for mounting an interface card, and includes a housing body and a positioning device. The housing body includes a mounting portion and a first fixing portion disposed adjacent to the mounting portion. The positioning device includes a positioning component having a second fixing portion. The positioning component is pivotable relative to the housing body between a card retaining position, where the second fixing portion engages the first fixing portion and the positioning component is disposed to be capable of blocking removal of the interface card from the mounting portion, and a card releasing position, where the second fixing portion is disengaged from the first fixing portion and the positioning component is disposed to permit removal of the interface card from the mounting portion.

Abstract: A computer housing is adapted for mounting an interface card, and includes a housing body and a positioning device. The housing body includes a mounting portion and a first fixing portion disposed adjacent to the mounting portion. The positioning device includes a positioning component having a second fixing portion. The positioning component is pivotable relative to the housing body between a card retaining position, where the second fixing portion engages the first fixing portion and the positioning component is disposed to be capable of blocking removal of the interface card from the mounting portion, and a card releasing position, where the second fixing portion is disengaged from the first fixing portion and the positioning component is disposed to permit removal of the interface card from the mounting portion.