Abstract:
A power supply device including a working power supply module with a plurality of power supply units; a plurality of monitoring units outputting a power failure signal when the corresponding power supply unit is in a power failure; a plurality of latching units respectively corresponding to the plurality of monitoring units one to one, receiving the power failure signal and a disabling signal, and outputting a latching signal when the power failure signal is received but the disabling signal is not received; and a positioning module used for receiving the latching signal and outputting a disabling signal when the positioning module receives a first latching signal output by one latching unit to disable other latching units, so as to enable the positioning module to position the latching unit which firstly outputs the latching signal to position the corresponding power supply unit which is firstly in a power failure.
Abstract:
A memory module includes an emergency power supply block, a volatile memory, a nonvolatile memory, and a control block configured to control data of the volatile memory to be backed up in the nonvolatile memory, by using a power supplied from the emergency power supply block, upon a power failure, and control the data of the volatile memory to be recovered, by using data backed up in the nonvolatile memory, upon a power recovery, wherein the control block controls the data of the volatile memory not to be backed up while controlling the data of the volatile memory to be recovered, even upon the power failure.
Abstract:
A rack server system is provided. When a power source supplied to the rack server system is normal, a part of the power source is supplied to a management module in the rack server system and the other part of the power source charges the energy storage component. When the power source supplied to the rack server system is abnormal, the power source will be blocked and not be supplied to the management module, thereby preventing the rack server system from operating abnormally. In stead of the power source, the electricity stored in the energy storage component is supplied to the management module. Herein, the management module also records this situation as the state information about the rack server system whereby the rack server system can be managed according to the state information.
Abstract:
A data processing system includes a plurality of power supply modules each having a comparing unit for comparing an output-current value supplied to a computer with a threshold value, the plurality of power supply modules continue the comparison when the output-current value is equal to or less than the threshold value and outputs an output-current excess signal to a plurality of server blades when the output-current value is equal to or greater than the threshold value, and the plurality of server blades control respectively power consumptions of the server blades to make a power consumption value of the server blades to an equal to or less than a predetermined value on a power source non-redundancy.
Abstract:
An information processing system includes a first information processing apparatus including a first processor, a first detector configured to detect vibration, a first communication device, and a second processor coupled to the first detector and configured to cause the first processor to stop first data processing executed by the first processor when the vibration is detected by the first detector, and a second information processing apparatus including a third processor, a second communication device configured to communicate with the first communication device, and a fourth processor configured to cause the third processor to stop second data processing executed by the third processor when the fourth processor receives, from the second processor through the first communication device and the second communication device, a first notification that indicates that the vibration has been detected.
Abstract:
A system and method may monitor a mission critical processor power supply and recover from an intermittent power interruption. A subsystem of one or more processors may be tasked with a power monitoring function enabling processor self-monitoring and recovery. The subsystem monitors the power state of the processors and should a power interruption be sensed, the subsystem may be directed by a memory source external to the primary memory source for normal system operation. The subsystem directs each processing function within each processor to disable and remain disabled until the power interruption ceases. Once the power interruption is complete, the subsystem directs each processing function to refresh and restore to a previous state of full functionality.
Abstract:
Methods and apparatus to fault tolerant Automatic DIMM (Dual In-line Memory Module) Refresh or ADR are described. In an embodiment, a processor includes non-volatile memory to store data from one or more volatile buffers of the processor. The data from the one or more volatile buffers of the processor are stored into the non-volatile memory in response to occurrence of an event that is to lead to a system reset or shut down. Other embodiments are also disclosed and claimed.
Abstract:
A switch failure recovery system includes a network and a backup device that is coupled to the network. A first switch that includes a first switch memory system is also coupled to the network. The first switch stores a first switch configuration in the first switch memory system. The first switch then detects a failure issue associated with an imminent failure of the first switch and, in response, retrieves the first switch configuration from the first switch memory system, The first switch then sends the first switch configuration over the network to the backup device prior to an inability to communicate over the network due to the failure issue. The backup device may then provide the first switch configuration for application to the first switch (upon recovery) or a second switch that is coupled to the network.
Abstract:
A rack server system and a control method thereof are provided. The rack server system establishes a communication link for communicating with a battery backup unit. The battery backup unit is connected to a power input port of the rack server system, and includes a number of battery modules connected with each other in parallel. The rack server system controls the battery backup unit to perform validity test on a first battery module during a first period and to perform validity test on a second battery module during a second period, wherein the first period and the second period are not overlapped with each other.
Abstract:
A power supply failover system/method providing uninterruptable power to protected load devices (PLD) is disclosed. The system includes a failover switch controller (FSC) with inputs from an AC I/V monitor (AIV), AC cycle counter (ACC), failover switch timer (FST), and overcurrent protection timer (OPT). The FSC utilizes these inputs to control failsafe switching of a bypass phase switch (BPS) and AC phase switch (ACS) to the PLD when power from the APS is determined to be good by the AIV. When power from the APS is determined to be compromised by the AIV, the FPS disables the ACS/BPS and enables a DC switch (DCS) and battery isolation switch (BIS) to connect a DC source to the PLD after a time period determined by the FST. APS/DCS overcurrent protection is limited by OPT intervals allowing a smooth transition between the APS to DCS during power failover/failback.