Abstract: A method for displaying a basic input-output system (BIOS) message during a power-on self-test (POST) of a computer system includes: after the computer system is connected to a power source, performing, by a baseboard management controller (BMC), an initialization procedure on a display unit so as to control the display unit; executing, by a processor, a BIOS stored in a memory component so as to generate the BIOS message; transmitting, by the processor, the BIOS message to the BMC; and transmitting, by the BMC, the BIOS message to the display unit.

Abstract: A synchronization method, which is capable of data synchronization in both directions between a storage medium and a storage unit, includes steps of: determining whether first parameter data of the storage medium is identical to default parameter data stored in the storage medium; determining whether a value of a flag stored in the storage unit is equal to a first logical value; and performing data synchronization between the storage unit and the storage medium based on at least one of the two determinations.

Abstract: A computer device, a server device, and a method for controlling a hybrid memory unit thereof are provided. The control method includes: executing, by a processing unit, an operating system (OS) in a working mode of the computer device; triggering, by a soft off control signal or a soft reset control signal when the processing unit executes the OS, the processing unit to enter an interrupt processing mode; executing, by the processing unit, basic input/output system (BIOS) program code in the interrupt processing mode; and controlling, by the processing unit by using the BIOS program code, to store data from a volatile memory into a non-volatile memory corresponding to the volatile memory.

Abstract: A method for synchronization of system management data includes steps of generating a request for system management data in response to execution of a system booting program, transmitting the request to a baseboard management controller so as to enable the baseboard management controller to transmit the system management data stored in a second storage unit to a processor; receiving the system management data from the baseboard management controller, and determining whether the system management data is complete; and when it is determined that the system management data is complete, storing at least one of the sequential packets of the system management data in a first storage unit, and proceeding with execution of the system booting program.

Abstract: A synchronization method, which is capable of data synchronization in both directions between a storage medium and a storage unit, includes steps of: determining whether first parameter data of the storage medium is identical to default parameter data stored in the storage medium; determining whether a value of a flag stored in the storage unit is equal to a first logical value; and performing data synchronization between the storage unit and the storage medium based on at least one of the two determinations.

Abstract: A method for displaying a basic input-output system (BIOS) message during a power-on self-test (POST) of a computer system includes: after the computer system is connected to a power source, performing, by a baseboard management controller (BMC), an initialization procedure on a display unit so as to control the display unit; executing, by a processor, a BIOS stored in a memory component so as to generate the BIOS message; transmitting, by the processor, the BIOS message to the BMC; and transmitting, by the BMC, the BIOS message to the display unit.

Abstract: A computer device, a server device, and a method for controlling a hybrid memory unit thereof are provided. The control method includes: executing, by a processing unit, an operating system (OS) in a working mode of the computer device; triggering, by a soft off control signal or a soft reset control signal when the processing unit executes the OS, the processing unit to enter an interrupt processing mode; executing, by the processing unit, basic input/output system (BIOS) program code in the interrupt processing mode; and controlling, by the processing unit by using the BIOS program code, to store data from a volatile memory into a non-volatile memory corresponding to the volatile memory.

Abstract: A method for synchronization of system management data includes steps of generating a request for system management data in response to execution of a system booting program, transmitting the request to a baseboard management controller so as to enable the baseboard management controller to transmit the system management data stored in a second storage unit to a processor; receiving the system management data from the baseboard management controller, and determining whether the system management data is complete; and when it is determined that the system management data is complete, storing at least one of the sequential packets of the system management data in a first storage unit, and proceeding with execution of the system booting program.

Abstract: A system includes a programmable non-volatile memory, a switch, a control chipset, and a basic input/output (BIOS) module. The switch has a first terminal coupled to the programmable non-volatile memory, and a second terminal coupled to the control chipset. The control chipset is configured to store a SKU parameter set in the programmable non-volatile memory according to a predetermined memory allocation. The BIOS module is coupled to the control chipset, and is configured to load and update the SKU parameter set according to the predetermined memory configuration during a booting operation of the motherboard.

Abstract: A system includes a programmable non-volatile memory, a switch, a control chipset, and a basic input/output (BIOS) module. The switch has a first terminal coupled to the programmable non-volatile memory, and a second terminal coupled to the control chipset. The control chipset is configured to store a SKU parameter set in the programmable non-volatile memory according to a predetermined memory allocation. The BIOS module is coupled to the control chipset, and is configured to load and update the SKU parameter set according to the predetermined memory configuration during a booting operation of the motherboard.

Abstract: A system includes a programmable non-volatile memory, a switch, a control chipset, and a basic input/output (BIOS) module. The switch has a first terminal coupled to the programmable non-volatile memory, and a second terminal coupled to the control chipset. The control chipset is configured to store a SKU parameter set in the programmable non-volatile memory according to a predetermined memory allocation. The BIOS module is coupled to the control chipset, and is configured to load and update the SKU parameter set according to the predetermined memory configuration during a booting operation of the motherboard.

Abstract: A system includes a programmable non-volatile memory, a switch, a control chipset, and a basic input/output (BIOS) module. The switch has a first terminal coupled to the programmable non-volatile memory, and a second terminal coupled to the control chipset. The control chipset is configured to store a SKU parameter set in the programmable non-volatile memory according to a predetermined memory allocation. The BIOS module is coupled to the control chipset, and is configured to load and update the SKU parameter set according to the predetermined memory configuration during a booting operation of the motherboard.

Abstract: An anti-theft device for a portable device is disclosed, wherein the portable device includes an aperture. The anti-theft device includes a coupler, an engaging/disengaging device, and a localizer. The localizer couples the engaging/disengaging device with an immovable object. The coupler includes a bridge portion and a leg, wherein the bridge portion and the leg are disposed on two different sides of the portable device. The engaging/disengaging device engages with the aperture of the portable device and also couples with the coupler to clamp the portable device.

Abstract: The present invention relates to an anti-theft device for a portable device, wherein the portable device includes an aperture. The anti-theft device includes a coupler, an engaging/disengaging device, and a localizer. The localizer couples the engaging/disengaging device with an immovable object. The coupler includes a bridge portion and a leg, wherein the bridge portion and the leg are disposed on two different sides of the portable device. The engaging/disengaging device engages with the aperture of the portable device and also couples with the coupler to clamp the portable device.