Abstract: A fan frame electrical connection structure includes a frame body. The frame body has a wind incoming side and a wind outgoing side. A bearing cup seat is disposed at the wind outgoing side. Multiple static blades and an enclosure static blade are integrally formed between the bearing cup seat and the frame body. A lead pin set is integrally enclosed in the enclosure static blade. The enclosure static blade has a static blade front edge and a static blade rear edge. The static blade front edge is directed to the wind incoming side and has a front edge arc. The static blade rear edge is directed to the wind outgoing side and having a rear edge arc. Accordingly, the assembling and manufacturing process of the fan can be automated and speeded and the fan can keep having its original property.

Abstract: An axial fan frame with electrical connection structure includes a frame and a circuit board. The frame includes a shaft holder having a receiving recess located near an air outlet of the frame for receiving the circuit board therein, a plurality of stator blades connected to between the shaft holder and the frame, a groove formed on an outer surface of the frame for receiving an external cord assembly therein, and a communicating passage located between the receiving recess of the shaft holder and the groove of the frame to communicate them with each other. The circuit board has an outward extended arm, which has a metal contact end for connecting to an electrical connector provided at an end of the external cord assembly. Therefore, the external cord assembly can be quickly electrically connected to the circuit board in an automated manner without the need of welding manually.

Abstract: An image processing method and a computer system. The method may be applied to a cloud-side server in a cloud mobile phone. The server may be a virtualization server, a host operating system and a guest operating system are deployed on the server, a user mode graphics driver is deployed in the guest operating system, and a kernel mode graphics driver is deployed in the host operating system. The user mode graphics driver and the kernel mode graphics driver collaborate with each other to implement image rendering of the server. Then, the server may send a rendered image to the cloud mobile phone. Accordingly, an instruction translation process is reduced, to reduce overheads of a processor and improve image processing efficiency.

Abstract: Embodiments of the present application provide a testing equipment and a testing method. The testing equipment includes: a plurality of pad groups and a plurality of source measure units. Each of the pad groups has a stress pad. The stress pad is configured to connect an element under test. The source measure unit is configured to send an input signal to the element under test through the stress pad and measure an output signal of the element under test to acquire performance parameters of the element under test. The stress pads of at least two of the pad groups are connected to the corresponding source measure units at the same time. The embodiments of the present application help improve the testing efficiency.

Abstract: Embodiments of the present application provide an evaluation method for hot carrier effect degraded performance, which includes: providing at least one wordline and at least one wordline driver; performing an electrical test on the wordline; performing a characteristic test on a sample passing the electrical test, to obtain a first performance parameter; inputting an AC signal to an input end of the wordline driver, to control the wordline to be repeatedly on and off through the wordline driver; performing the electrical test on the wordline; and performing the characteristic test on the sample passing the electrical test, to obtain a second performance parameter, and evaluating the hot carrier effect degraded performance of the wordline driver according to the first performance parameter and the second performance parameter.

Abstract: Embodiments of the present application provide a testing equipment and a testing method. The testing equipment includes: a plurality of pad groups and a plurality of source measure units. Each of the pad groups has a stress pad. The stress pad is configured to connect an element under test. The source measure unit is configured to send an input signal to the element under test through the stress pad and measure an output signal of the element under test to acquire performance parameters of the element under test. The stress pads of at least two of the pad groups are connected to the corresponding source measure units at the same time. The embodiments of the present application help improve the testing efficiency.

Abstract: An image processing method and a computer system. The method may be applied to a cloud-side server in a cloud mobile phone. The server may be a virtualization server, a host operating system and a guest operating system are deployed on the server, a user mode graphics driver is deployed in the guest operating system, and a kernel mode graphics driver is deployed in the host operating system. The user mode graphics driver and the kernel mode graphics driver collaborate with each other to implement image rendering of the server. Then, the server may send a rendered image to the cloud mobile phone. Accordingly, an instruction translation process is reduced, to reduce overheads of a processor and improve image processing efficiency.

Abstract: A chassis includes a housing and at least one anti-slip pad mounted on the housing. The housing includes a mounting slot. The anti-slip pad includes a support member and an insert member coupled to the support member. The support member is configured to support the housing. The insert member is configured to latch in the mounting slot. A hardness of the insert member is greater than a hardness of the support member.

Abstract: A chassis includes a housing and at least one anti-slip pad mounted on the housing. The housing includes a mounting slot. The anti-slip pad includes a support member and an insert member coupled to the support member. The support member is configured to support the housing. The insert member is configured to latch in the mounting slot. A hardness of the insert member is greater than a hardness of the support member.

Abstract: A fan wire trimming module includes a lower moldboard, an upper moldboard and a base plate. One side of the lower moldboard is formed with a depression and multiple locating bosses. One side of the upper moldboard is formed with multiple locating holes. A periphery of the upper moldboard is formed with at least one fixing split. The locating bosses are fitted in the locating holes. A fixing member is assembled in the fixing split. The upper moldboard is formed with a stator receiving space and at least one hollow section. An inner circumference of the stator receiving space is formed with at least one rib. The hollow section is formed around the stator receiving space. A stator assembly is received in the stator receiving space. Multiple windings are wound on the stator assembly. One end of each winding is engaged in the fixing split.

Abstract: A fan wire trimming module includes a lower moldboard, an upper moldboard and a base plate. One side of the lower moldboard is formed with a depression and multiple locating bosses. One side of the upper moldboard is formed with multiple locating holes. A periphery of the upper moldboard is formed with at least one fixing split. The locating bosses are fitted in the locating holes. A fixing member is assembled in the fixing split. The upper moldboard is formed with a stator receiving space and at least one hollow section. An inner circumference of the stator receiving space is formed with at least one rib. The hollow section is formed around the stator receiving space. A stator assembly is received in the stator receiving space. Multiple windings are wound on the stator assembly. One end of each winding is engaged in the fixing split.

Abstract: A braking structure for fan includes a fan and a braking device connected to the fan. The braking device includes a first braking mechanism, a second braking mechanism and a support seat. The first braking mechanism is connected to a free end of a shaft of the fan, the second braking mechanism is fitted in the support seat, and the support seat is engaged with a bottom of a frame of the fan. When the fan is turned off, the braking device is no longer energized, bring the first and the second braking mechanism to engage with each other and accordingly produce a braking effect, so that the fan can more quickly stop rotating.

Abstract: A braking structure for fan includes a fan and a braking device connected to the fan. The braking device includes a first braking mechanism, a second braking mechanism and a support seat. The first braking mechanism is connected to a free end of a shaft of the fan, the second braking mechanism is fitted in the support seat, and the support seat is engaged with a bottom of a frame of the fan. When the fan is turned off, the braking device is no longer energized, bring the first and the second braking mechanism to engage with each other and accordingly produce a braking effect, so that the fan can more quickly stop rotating.

Abstract: A surface treatment process for aluminum alloy includes the steps of: providing an aluminum alloy substrate containing silicon element; evenly distributing the silicon element in the substrate by solution treating the substrate; removing the silicon element at/near the surface of the substrate by acid treating the substrate; forming a porous aluminum oxide film on the substrate by anodizing the substrate; and staining the aluminum oxide film. An aluminum alloy article treated by the process is also described.