Abstract: A data processing system includes a first storage system configured with a virtual logical volume that includes a dynamically expandable volume, a second storage system coupled to the first storage system through a data copy network, a host computer configured to input data to the virtual logical volume, and a management server coupled to the host computer, configured to manage the virtual logical volume.

Abstract: To provide a storage management technique for creating and managing, with single operation by a user, a large quantity of writable snapshots, which satisfy a requirement desired by the user, while controlling a use form of a storage apparatus not to exceed limits of the performance and the capacity of the storage apparatus. Therefore, a management computer manages configuration information and performance information of plural storage apparatuses and an operation state of a writable snapshot. When a writable snapshot is created, the management computer controls, concerning an original snapshot, a use form of the storage apparatuses not to exceed a disk performance limit and a controller performance limit and a capacity limit of a storage on the basis of the number of writable snapshots to be created and a performance requirement (IOPS) and a capacity requirement of the writable snapshot.

Abstract: A car battery array is provided with battery blocks (2) having a plurality of connected batteries (1), a first load-bearing plate (3) on top of which the battery blocks are mounted, a second load-bearing plate (4) attached on both sides to the first load-bearing plate and covering the tops of the battery blocks, and a reinforcing rod (5) that connects with the second load-bearing plate and the battery blocks to attach the second load-bearing plate to the battery blocks. The battery blocks are disposed in a battery compartment (6) established inside the first and second load-bearing plates, which are joined together on both sides. The battery blocks are mounted on top of the first load-bearing plate and connected to the second load-bearing plate via the reinforcing rod to support the battery block load with the first load-bearing plate and the second load-bearing plate.

Abstract: Even if no port of the attribute communicable with communication ports which the other storage control apparatuses comprise exists among the communication ports which the storage control apparatus comprises, connecting the respective storage control apparatuses as communicable. Among communication ports, the migration source communication port and the migration destination communication port are selected. The path connected to the migration source communication port is migrated to the migration destination communication port, and the migration source communication port is made a free communication port. The attribute of the free communication port is changed to a specified attribute, and the communication port of the other storage control apparatus is connected to the communication port.

Abstract: This invention enables resources included in a storage system to be effectively used. In a storage system 1 including a host computer 3, a first storage apparatus 10 that receives a data I/O request from the host computer 3, the second storage apparatus 10, and including a function of external attachment processing for managing the entity of a first logical volume of the first storage apparatus 10 in a second logical volume of the second storage apparatus 10, when a problem occurs in performance of the first storage apparatus 10, the external attachment processing is released, while external attachment release processing is performed in which path for accessing from the host computer 3 the second logical volume is switched to allow direct access from the host computer 3 to the second logical volume. When the problem in performance of the first storage apparatus 10 is solved, path switching is performed again to resume the external attachment processing.

Abstract: The present invention provides a conductive connecting material having a multi-layered structure comprising a resin composition and a metal foil selected from a solder foil or a tin foil, wherein the minimum ion viscosity value of the resin composition is 4-9 when measured in accordance with ASTM standard E2039 by applying a frequency of 10000 Hz at the melting point of the metal foil. The present invention further provides a method for connecting terminals and a method for producing a connection terminal using the conductive connecting material. By using the conductive connecting material of the present invention, good electric connection between connection tell finals as well as highly-reliable insulation between adjacent terminals can be achieved.

Abstract: The power source apparatus of the present invention is provided with battery blocks 2 that have a plurality of battery cells 1 connected together, an outer case 3 that houses the battery blocks 2 and/or electrical components 10 connected to the battery blocks 2, a socket 4 connected in series with the battery blocks 2 and disposed on the outer case 3, and a service plug 5 that connects with the socket 4 in a removable manner. The service plug 5 connects with the socket 4 to connect the service plug 5 in series with the batteries via the socket 4. The outer case 3 is provided with a socket 4 and service plug 5 thermal isolation region 8 sectioned-off by a heat-shielding plate 7, and the socket 4 and service plug 5 are disposed in the thermal isolation region 8.

Abstract: A battery pack device includes a plurality of battery cells 1, a bind bar 4, and a regulation member 31. The plurality of battery cells 1 has a rectangular box exterior shape. The bind bar 4 couples the plurality of battery cells 1 to each other with the battery cells 1 being arranged side by side. When the battery pack 10 is secured onto a horizontal surface, the regulation member 31 regulates upward deviation of at least one of the battery cells 1, which is located in a central part of the battery pack in the side-by-side arrangement direction of the battery cells 1.

Abstract: A storage cluster including a first storage apparatus and a second storage apparatus is defined. Communication between the first storage apparatus and the second storage apparatus uses a first network and an access request from a host computer uses a second network. Each of the first and second storage apparatuses defines internal LUs by using storage devices included in that storage apparatus. The first storage apparatus defines other internal LUs by using internal LUs of the second storage apparatus and the second storage apparatus defines other internal LUs by using internal LUs of the first storage apparatus.

Abstract: This storage system modifies the migration plan in accordance with the state of the migration destination when a plurality of volumes are migrated all at once. Migration-source volumes are migrated collectively to volumes inside the migration-destination storage apparatus. The user can make settings related to migration-source volumes and migration-destination volumes in a migration plan, and can establish a mid-process control plan for modifying the migration plan in the middle of processing. If a failure occurs in the migration-destination storage apparatus subsequent to the commencement of data migration processing, a processing method controller either cancels or temporarily halts the data migration processing, or changes the migration destination, on the basis of the mid-process control plan. When changing the migration destination, a previously selected alternate storage apparatus is selected as the new migration-destination storage apparatus.

Abstract: Provided is a computer system capable of reliably eliminating duplicated data regardless of the size of the data write unit from the host computer to the storage subsystem or the management unit size in the elimination of duplicated data. This computer system executes the relocation of duplicated data to the storage resource so that the writing of duplicated data is started from the start location of the management unit based on the detection of data redundancy and recognition of the management unit size in the elimination of duplicated data.

Abstract: The present invention provides a backup method that makes it possible to specify the recovery-enabled time of an application even in a case where a backup has been performed without staticizing the application. In response to a first instruction from a management computer, a storage system backs up a first volume to a second volume at a first time while a first host computer continues to process an application. In response to a second instruction from the management computer, a second host computer reads out the data of the second volume and acquires a second time that is the time at which the application is recovery-enabled. The management computer stores the relationship between the backup and the second time in backup catalog information.

Abstract: A data processing system includes a first storage system configured with a virtual logical volume that includes a dynamically expandable volume, a second storage system coupled to the first storage system through a data copy network, a host computer configured to input data to the virtual logical volume, and a management server coupled to the host computer, configured to manage the virtual logical volume.

Abstract: The data backup processing time is shortened by improving the efficiency of data duplicate removal in the storage apparatus. A management server comprises a backup capacity calculation unit for calculating, on the basis of duplicate information on data stored in storage apparatuses, the backup capacity of the data if the duplicate data is removed, a migration source data determination unit for determining, on the basis of the data backup capacity calculated by the backup capacity calculation unit, data which is a target for migration to another storage apparatus among data stored in one storage apparatus, and a migration destination storage apparatus determination unit for determining, on the basis of data duplicate information on the migration target data and data of the other storage apparatus which is a migration destination for the data, the migration destination storage apparatus for the data.

Abstract: A battery system has a battery block with a plurality of battery cells that are rectangular batteries stacked with intervening insulating separators, and that battery block is held by fastening components. The fastening components are provided with a pair of endplates disposed at the ends of the stacked battery cells, and metal bands on both sides of the battery block connected at both ends to the endplates. An insulating separator has an insulating plate section, which intervenes between adjacent battery cells, and insulating walls, which cover both battery cell side-walls, formed from plastic as a single-piece. In this battery system, insulating plate sections are sandwiched between battery cells, and the insulating walls are disposed between battery cell outer side-walls and metal bands to insulate the battery cells from the metal bands.

Abstract: This storage system modifies the migration plan in accordance with the state of the migration destination when a plurality of volumes are migrated all at once. Migration-source volumes are migrated collectively to volumes inside the migration-destination storage apparatus. The user can make settings related to migration-source volumes and migration-destination volumes in a migration plan, and can establish a mid-process control plan for modifying the migration plan in the middle of processing. If a failure occurs in the migration-destination storage apparatus subsequent to the commencement of data migration processing, a processing method controller either cancels or temporarily halts the data migration processing, or changes the migration destination, on the basis of the mid-process control plan. When changing the migration destination, a previously selected alternate storage apparatus is selected as the new migration-destination storage apparatus.

Abstract: When migrating data stored in a storage region assigned to a volume to another storage region, the connection status of the host computer and volume is confirmed. When the host computer and volume are connected, the maximum capacity of the volume requested by the host computer is reserved so that it is exclusively secured in another storage region to which data is to be migrated, and when the host computer and volume are not connected, the current capacity of the volume is reserved so that it is exclusively secured in another storage region.

Abstract: A battery pack includes plural battery cells (1), and insulating separators (10) disposed between adjacent battery cells (1), where the plurality of battery cells are disposed in a stacked configuration with a prescribed gap between the adjacent battery cells. A separator (10) has plural gas channels that enable the flow of cooling gas. The gas channels have cooling gas entranceways and exit ways, which open at the sides of the battery block formed by the stacked battery cells. The separator 10 has cut sections formed to position the entranceways and exit ways of the gas channels inward from the sides of the battery block. This allows cooling gas near entranceways and exit ways to be smoothly introduced to, and exhausted from the gas channels, and reduces cooling gas pressure losses in those regions.

Abstract: Provided is a computer system, comprising a storage system and a management computer. The management computer manages differential copy start times, differential data amounts of first pairs, and a data amount that can be copied in differential copy per unit time; identifies one of the first pairs for which the differential copy is to be started and a start time of the differential copy; subtracts the data amount of differential copy per unit time that is allocated to the identified one of the first pairs from a differential data amount of the identified first pairs; add the unit time to the identified start time; judges that the differential copy has been finished at a time when the subtracted differential data amount reaches zero or less; and calculates time zones in which the first pairs execute differential copy based on the time at which differential copy has been finished.

Abstract: The present invention provides a conductive connecting material for electrically connecting terminals of electronic members, which has a layered structure comprising: a curable resin composition containing a resin component and a compound having a flux function; and a metal foil selected from a solder foil and a tin foil. Further, the present invention provides a method for connecting terminals comprising: a placement step in which the conductive connecting material is placed between opposed terminals; a heating step in which the conductive connecting material is heated at a temperature, which is equal to or higher than the melting point of the metal foil, and at which the resin composition is not completely cured or the resin composition is softened; and a curing step/solidifying step in which the resin composition is cured or solidified.