Abstract: To provide stable processing performance and perform an appropriate failure processing in a storage device. A storage device includes a plurality of controllers; a plurality of storage drives; and a switch device including a plurality of controller-side ports respectively connected to the plurality of controllers and a plurality of drive-side ports respectively connected to the plurality of storage drives. The switch device performs address translations between the plurality of controller-side ports and the plurality of drive-side ports.

Abstract: A storage control system acquires, for each of a plurality of power control groups in which a plurality of storage devices which form the basis of a plurality of redundancy configuration groups are classified, an I/O (Input/Output) amount of the power control group. For each of the plurality of power control groups, the storage control system controls power consumption of each of the storage devices belonging to the power control group in power control group units, based on the acquired I/O amount relating to the power control group. None of the plurality of redundancy configuration groups spans two or more power control groups among the plurality of power control groups, all being contained in any of the plurality of power control groups.

Abstract: To provide stable processing performance and perform an appropriate failure processing in a storage device. A storage device includes a plurality of controllers; a plurality of storage drives; and a switch device including a plurality of controller-side ports respectively connected to the plurality of controllers and a plurality of drive-side ports respectively connected to the plurality of storage drives. The switch device performs address translations between the plurality of controller-side ports and the plurality of drive-side ports.

Abstract: A storage control system to provide file-level storage and block-level storage services. The storage control system has a computer system including a second I/O unit configured to receive block-level storage related requests, a processor unit, a first memory unit, and a storage unit; and a programmable logic device including a first I/O unit configured to receive file-level storage related requests, an interface unit configured to communicate with the computer system, one or more programmable hardware-implemented processing units and for processing of file-level storage related requests, and a second memory unit.

Abstract: To provide stable processing performance and perform an appropriate failure processing in a storage device. A storage device includes a plurality of controllers; a plurality of storage drives; and a switch device including a plurality of controller-side ports respectively connected to the plurality of controllers and a plurality of drive-side ports respectively connected to the plurality of storage drives. The switch device performs address translations between the plurality of controller-side ports and the plurality of drive-side ports.

Abstract: To provide stable processing performance and perform an appropriate failure processing in a storage device. A storage device includes a plurality of controllers; a plurality of storage drives; and a switch device including a plurality of controller-side ports respectively connected to the plurality of controllers and a plurality of drive-side ports respectively connected to the plurality of storage drives. The switch device performs address translations between the plurality of controller-side ports and the plurality of drive-side ports.

Abstract: A storage control system acquires, for each of a plurality of power control groups in which a plurality of storage devices which form the basis of a plurality of redundancy configuration groups are classified, an I/O (Input/Output) amount of the power control group. For each of the plurality of power control groups, the storage control system controls power consumption of each of the storage devices belonging to the power control group in power control group units, based on the acquired I/O amount relating to the power control group. None of the plurality of redundancy configuration groups spans two or more power control groups among the plurality of power control groups, all being contained in any of the plurality of power control groups.

Abstract: The present invention provides: a furoxan compound having a fluorine atom as a substituent group on the ring structure thereof; and a novel nitric oxide donor including the compound. The present invention relates to a fluorofuroxan compound represented by general formula (1) or (2). The compound of formula (1) can be manufactured by reacting a fluoride salt with a nitrofuroxan compound to substitute the nitro group with a fluoro group. The compound of formula (2) can be manufactured by subjecting the compounds of formula (1) to isomerization by irradiation with light.

Abstract: A storage control system to provide file-level storage and block-level storage services. The storage control system has a computer system including a second 1/0 unit configured to receive block-level storage related requests, a processor unit, a first memory unit, and a storage unit; and a programmable logic device including a first 1/0 unit configured to receive file-level storage related requests, an interface unit configured to communicate with the computer system, one or more programmable hardware-implemented processing units and for processing of file-level storage related requests, and a second memory unit.

Abstract: The present invention provides: a furoxan compound having a fluorine atom as a substituent group on the ring structure thereof; and a novel nitric oxide donor including the compound. The present invention relates to a fluorofuroxan compound represented by general formula (1) or (2). The compound of formula (1) can be manufactured by reacting a fluoride salt with a nitrofuroxan compound to substitute the nitro group with a fluoro group. The compound of formula (2) can be manufactured by subjecting the compounds of formula (1) to isomerization by irradiation with light.

Abstract: A storage apparatus has a redundant configuration equipped with a plurality of components and includes a first controller and second controller, wherein the first controller is provided with a first processor and a third processor for monitoring the first controller; wherein the second controller is provided with a second processor and a fourth processor for monitoring the second controller; wherein the first processor and the second processor are connected via a first path and the third processor and the fourth processor are connected via a second path; and wherein if a failure occurs at the first controller, the second processor blocks the first path, acquires failure information including a failure location of the first controller via the third processor, the fourth processor, and the second path, executes first failure location identifying processing, and notifies a management terminal of the failure location.

Abstract: A storage apparatus has a redundant configuration equipped with a plurality of components and includes a first controller and second controller, wherein the first controller is provided with a first processor and a third processor for monitoring the first controller; wherein the second controller is provided with a second processor and a fourth processor for monitoring the second controller; wherein the first processor and the second processor are connected via a first path and the third processor and the fourth processor are connected via a second path; and wherein if a failure occurs at the first controller, the second processor blocks the first path, acquires failure information including a failure location of the first controller via the third processor, the fourth processor, and the second path, executes first failure location identifying processing, and notifies a management terminal of the failure location.

Abstract: A storage system which is connected to a host computer, includes a storage device; a first controller which controls data transfers between the storage device and the host computer; a second controller connected to the first controller and controls data transfers between the storage device and the host computer; a non-volatile memory; and a battery device. The first controller includes a first volatile memory and the second controller comprising a second volatile memory. Upon a power outage, the battery device starts supplying electric power to the first controller and the second controller, and wherein the second controller copies data which is stored in the first volatile memory to the second volatile memory and, after copying is complete, stops operation of the first controller, stops the power supply from the battery device to the first controller, and copies data.

Abstract: A storage system which is connected to a host computer, includes a storage device; a first controller which controls data transfers between the storage device and the host computer; a second controller connected to the first controller and controls data transfers between the storage device and the host computer; a non-volatile memory; and a battery device. The first controller includes a first volatile memory and the second controller comprising a second volatile memory. Upon a power outage, the battery device starts supplying electric power to the first controller and the second controller, and wherein the second controller copies data which is stored in the first volatile memory to the second volatile memory and, after copying is complete, stops operation of the first controller, stops the power supply from the battery device to the first controller, and copies data.

Abstract: At the time of a fan failure of a plurality of fans for cooling redundant controllers, data loss can be avoided even if a power source of each controller is controlled. A storage system includes: a first controller for controlling a first power source; a plurality of first fans for cooling the first controller; a second controller for controlling a second power source; a plurality of second fans for cooling the second controller; and a storage device including a plurality of storage units; wherein if a fan failure of the first fans occurs, the first controller controls the first power source in a standby state on condition that the second controller is in a normal state; and if the second power source is in the standby state, the first controller executes destaging processing and then controls the first power source in the standby state.

Abstract: At the time of a fan failure of a plurality of fans for cooling redundant controllers, data loss can be avoided even if a power source of each controller is controlled. A storage system includes: a first controller for controlling a first power source; a plurality of first fans for cooling the first controller; a second controller for controlling a second power source; a plurality of second fans for cooling the second controller; and a storage device including a plurality of storage units; wherein if a fan failure of the first fans occurs, the first controller controls the first power source in a standby state on condition that the second controller is in a normal state; and if the second power source is in the standby state, the first controller executes destaging processing and then controls the first power source in the standby state.

Abstract: The method for producing a carbonyl compound according to the invention comprises a step of obtaining a carbonyl compound by oxidation of a secondary alcohol in the presence of a catalyst, wherein the catalyst comprises a carrier obtained by the use of a styrene-based polymer with side chains containing crosslinkable functional groups, wherein the crosslinkable functional groups in the carrier are crosslinked, gold-platinum nanosize clusters supported on the carrier and carbon black supported on the carrier. The production method allows production of a carbonyl compound by oxidation of a secondary alcohol, with high selectivity and a high conversion rate.

Abstract: Disclosed is a storage device 10 in which CPUs 132 are redundantly configured, and which is thus capable of performing dual-writing of data into cache memories 134 respectively coupled to the CPUs 132. In the storage device 10, general-purpose processors each including an NTB_Port 72, PCI_Ports 73 and a Memory_I/F 74 are used as CPUs 132 of the CPUs 132. In the storage device 10, when a first PCIe_Port 73 determines not to perform the dual-writing, a first NTB_Port 1322 writes data into only one of the cache memories 134, and when the first PCIe_Port 73 determines to perform the dual-writing, the first NTB_Port 1322 writes data into one of the cache memories 134 while writing the data into the other one of the cache memories 134 via the other one of the CPUs 132.

Abstract: By writing a command for transferring data from a first cluster to a second cluster and the second cluster writing data that was requested from the first cluster based on the command into the first cluster, data can be transferred in real time from the second cluster to the first cluster without having to issue a read request from the first cluster to the second cluster.

Abstract: Provided is an information processing apparatus including a local memory for storing a control program, a flash memory for storing a boot program, a processor for controlling the overall controller, a chipset for relaying the transfer of data among the respective components, and a logical control circuit arranged between the chipset and the flash memory. The logical control circuit performs information conversion processing to accommodate the logical configuration of the chipset and the flash memory when sending and receiving information between the chipset and the flash memory. This information conversion processing includes the steps of translating a serial address signal output from the chipset into a parallel address signal, translating a serial data signal output from the chipset into a parallel data signal, and translating a parallel data signal output from the flash memory into a serial data signal.