Abstract: A server system is described. The server system comprises first motherboard having first processor module coupled to first memory module, second motherboard having second processor module coupled to second memory module, first back plate having first PCIE switch chip coupled to second PCIE switch chip via PCIE transmission channel. The first processor module is coupled to the first PCIE switch chip and the second processor module is coupled to the second PCIE switch chip. The first processor module converts the memory data of the first memory module into PCIE packet data to be transmitted to the second processor module by first PCIE switch chip and second PCIE switch chip. The second processor module converts the received PCIE packet data into memory data of second memory module for synchronizing the memory data of first motherboard and the second motherboard.

Abstract: A virtualized fusion storage sub-system comprises a first server node; a second server node; and a common storage pool including a hard disk cluster. The first and the second server nodes simultaneously access the common storage pool. Said sub-system has an operation system installed thereon. A storage space unit is defined in the operation system. The first and the second server nodes access the hard disk cluster through the storage space unit so as to carry out synchronization of the first and the second server nodes, thereby assuring a storage redundancy configuration. The operation system has a file server and a virtual server arranged therein. The virtual server is correspondingly connected to the file server on a basis of stacking of application programs of the operation system so as to carry out rapidly match therebetween.

Abstract: A server includes a storage module, a first expander board, a second expander board, a first mother board, and a second mother board. The storage module includes a plurality of storage units. The second mother board includes at least one second central processing unit. The plurality of storage units are coupled with the first expander board and the second expander board. The first expander board and the second expander board are coupled with the first mother board and the second mother board. When at least one of the first and the second mother board operates normally and at least one of the first and the second expander board operates normally, the at least normally-operating one of the first and the second mother board accesses the storage module through the at least normally-operating one of the first and the second expander board.

Abstract: A server includes a storage module, a first expander board, a second expander board, a first mother board, and a second mother board. The storage module includes a plurality of storage units. The second mother board includes at least one second central processing unit. The plurality of storage units are coupled with the first expander board and the second expander board. The first expander board and the second expander board are coupled with the first mother board and the second mother board. When at least one of the first and the second mother board operates normally and at least one of the first and the second expander board operates normally, the at least normally-operating one of the first and the second mother board accesses the storage module through the at least normally-operating one of the first and the second expander board.

Abstract: A virtualized fusion storage sub-system comprises a first server node; a second server node; and a common storage pool including a hard disk cluster. The first and the second server nodes simultaneously access the common storage pool. Said sub-system has an operation system installed thereon. A storage space unit is defined in the operation system. The first and the second server nodes access the hard disk cluster through the storage space unit so as to carry out synchronization of the first and the second server nodes, thereby assuring a storage redundancy configuration. The operation system has a file server and a virtual server arranged therein. The virtual server is correspondingly connected to the file server on a basis of stacking of application programs of the operation system so as to carry out rapidly match therebetween.

Abstract: A server system is described. The server system comprises first motherboard having first processor module coupled to first memory module, second motherboard having second processor module coupled to second memory module, first back plate having first PCIE switch chip coupled to second PCIE switch chip via PCIE transmission channel. The first processor module is coupled to the first PCIE switch chip and the second processor module is coupled to the second PCIE switch chip. The first processor module converts the memory data of the first memory module into PCIE packet data to be transmitted to the second processor module by first PCIE switch chip and second PCIE switch chip. The second processor module converts the received PCIE packet data into memory data of second memory module for synchronizing the memory data of first motherboard and the second motherboard.

Abstract: A server system and cluster system using the same. The server system includes power supply module for providing first operation power, an energy-storing module for providing a stored power, power management module coupled to power supply module and energy-storing module for receiving first operation power and providing a second operation power, or for receiving the stored power and providing a third operation power, at least one motherboard having internal memory module for receiving second operation power or third operation power, and an external memory module coupled to the at least one motherboard. The present invention retains the data in the memory and the operating messages while a power failure occurs suddenly in the server so that server system is capable of restoring the data and the operating messages before the power failure to simplify the system and reduce the cost.

Abstract: The present invention provides a server system comprising a first group of mainboard modules and a second group of mainboard modules, each of the first and second groups of mainboard modules including a plurality of mainboard modules. Each mainboard module includes a mainboard and a daughter board electrically connected to the mainboard; a first adaptor and a second adaptor; a hard disk array including a hard disk backplane and a plurality of hard disks, wherein the hard disk backplane is electrically connected to the first adaptor and the second adaptor; a first power control board and a second power control board respectively connected to at least one power supply, wherein the first power control board and the second power control board are electrically connected to the hard disk array; and a management board electrically connected to the first adaptor and the second adaptor.

Abstract: A multi-motherboard server system, having a management board and a plurality of motherboards, is disclosed. The multi-motherboard server system is applicable to a sever system. The management board has a BMC, and the motherboards are respectively connected to the management board. The BMC can transmit data to a far-end control system through sideband communication.

Abstract: A BIOS architecture adapted in a computer system is provided. The BIOS architecture includes at least one BIOS, a programmable chip module, a baseboard management controller (BMC), a south bridge chip and a network interface controller (NIC). The NIC is connected to the south bridge chip and the BMC and is to receive a remote update data to determine the destination of the remote update data. When the destination of the remote update data is the south bridge chip, the south bridge chip updates the BIOS according to the remote update data. When the destination of the remote update data is the BMC, the NIC informs the BMC to receive the remote update data, such that the BMC controls the programmable chip module to update the BIOS according to the remote update data.

Abstract: The present invention provides a server system comprising a first group of mainboard modules and a second group of mainboard modules, each of the first and second groups of mainboard modules including a plurality of mainboard modules. Each mainboard module includes a mainboard and a daughter board electrically connected to the mainboard; a first adaptor and a second adaptor; a hard disk array including a hard disk backplane and a plurality of hard disks, wherein the hard disk backplane is electrically connected to the first adaptor and the second adaptor; a first power control board and a second power control board respectively connected to at least one power supply, wherein the first power control board and the second power control board are electrically connected to the hard disk array; and a management board electrically connected to the first adaptor and the second adaptor.

Abstract: A multi-motherboard server system, having a management board and a plurality of motherboards, is disclosed. The multi-motherboard server system is applicable to a sever system. The management board has a BMC, and the motherboards are respectively connected to the management board. The BMC can transmit data to a far-end control system through sideband communication.

Abstract: A BIOS architecture adapted in a computer system is provided. The BIOS architecture includes at least one BIOS, a programmable chip module, a baseboard management controller (BMC), a south bridge chip and a network interface controller (NIC). The NIC is connected to the south bridge chip and the BMC and is to receive a remote update data to determine the destination of the remote update data. When the destination of the remote update data is the south bridge chip, the south bridge chip updates the BIOS according to the remote update data. When the destination of the remote update data is the BMC, the NIC informs the BMC to receive the remote update data, such that the BMC controls the programmable chip module to update the BIOS according to the remote update data.