Abstract: The method for producing a three-dimensional artificial tissue is a method in which a three-dimensional artificial tissue extending in a predetermined direction is produced. The method includes: preparing a device including a culture tank having a culturing space surrounded by sidewalls, and a flow channel-forming member that penetrates through the sidewalls that face each other and is suspended in the culturing space along a predetermined direction; culturing cells in the culturing space and thereby forming a three-dimensional artificial tissue through which the flow channel-forming member penetrates; and removing the flow channel-forming member from the three-dimensional artificial tissue and thereby forming a perfusion flow channel that penetrates through the three-dimensional artificial tissue.

Abstract: A fuel cell vehicle includes tanks configured to store a fuel gas to be supplied to the fuel cell, the tanks being respectively disposed in front of and behind the motor drive unit such that a longitudinal direction of each of the tanks corresponds to a width direction of the fuel cell vehicle. The tanks are disposed such that respective end portions of the tanks on a side on which the high-voltage wiring portion is positioned are outside the high-voltage wiring portion in the width direction of the fuel cell vehicle and the respective end portions of tanks overlap a tire-wheel assembly in a front-rear direction of the fuel cell vehicle.

Abstract: A vehicle includes an electrical device in which a high-voltage part is disposed within a case, and a fuel tank. The high-voltage part is disposed near a first side end of the case in a vehicle width direction. The fuel tank has a first end portion in the vehicle width direction and a second end portion opposite to the first end portion. When a collision load equal to or greater than a predetermined value is applied to the fuel tank from the outside in a vehicle front-rear direction, the fuel tank is configured to be horizontally rotated about the first end portion of the fuel tank, and the second end portion of the fuel tank is configured to contact the second side end of the electrical device.

Abstract: An electric vehicle includes a driving device including an electric motor and a mechanism transmitting a driving force from the electric motor to a rear wheel axle, which are accommodated in a case, a first oil cooler configured to cool oil in the case, the first oil cooler being disposed behind the rear wheel axle, and a second oil cooler configured to cool the oil in the case, the second oil cooler being disposed behind the rear wheel axle. The driving device is disposed in a rear portion of the vehicle such that the driving device crosses the rear wheel axle. The second oil cooler is disposed at a position misaligned in a vehicle front-rear direction with respect to the first oil cooler.

Abstract: A vehicle includes an electrical device in which a high-voltage part is disposed within a case, and a fuel tank. The high-voltage part is disposed near a first side end of the case in a vehicle width direction. The fuel tank has a first end portion in the vehicle width direction and a second end portion opposite to the first end portion. When a collision load equal to or greater than a predetermined value is applied to the fuel tank from the outside in a vehicle front-rear direction, the fuel tank is configured to horizontally rotated about the first end portion of the fuel tank, and the second end portion of the fuel tank is configured to contact the second side end of the electrical device.

Abstract: A fuel cell vehicle includes tanks configured to store a fuel gas to be supplied to the fuel cell, the tanks being respectively disposed in front of and behind the motor drive unit such that a longitudinal direction of each of the tanks corresponds to a width direction of the fuel cell vehicle. The tanks are disposed such that respective end portions of the tanks on a side on which the high-voltage wiring portion is positioned are outside the high-voltage wiring portion in the width direction of the fuel cell vehicle and the respective end portions of tanks overlap a tire-wheel assembly in a front-rear direction of the fuel cell vehicle.

Abstract: A storage system has a management computer and a storage device, where the storage device is connected to an external storage device and includes a first processor, a storage medium on which a plurality of logical storage devices is based, and a plurality of ports. The management computer includes a memory and a second processor, the memory storing port information, path information between host and storage device indicating the association between a host computer and the plurality of logical storage devices and ports, and path information between storage devices indicating the association between the external storage device and the plurality of logical storage devices and ports. The second processor executes band accommodation processing on either a path between host and storage device or a path between storage devices on the basis of the port information, the path information between host and storage device, and the path information between storage devices.

Abstract: An electric vehicle includes a driving device including an electric motor and a mechanism transmitting a driving force from the electric motor to a rear wheel axle, which are accommodated in a case, a first oil cooler configured to cool oil in the case, the first oil cooler being disposed behind the rear wheel axle, and a second oil cooler configured to cool the oil in the case, the second oil cooler being disposed behind the rear wheel axle. The driving device is disposed in a rear portion of the vehicle such that the driving device crosses the rear wheel axle. The second oil cooler is disposed at a position misaligned in a vehicle front-rear direction with respect to the first oil cooler.

Abstract: The method for producing a three-dimensional artificial tissue is a method in which a three-dimensional artificial tissue extending in a predetermined direction is produced. The method includes: preparing a device including a culture tank having a culturing space surrounded by sidewalls, and a flow channel-forming member that penetrates through the sidewalls that face each other and is suspended in the culturing space along a predetermined direction; culturing cells in the culturing space and thereby forming a three-dimensional artificial tissue through which the flow channel-forming member penetrates; and removing the flow channel-forming member from the three-dimensional artificial tissue and thereby forming a perfusion flow channel that penetrates through the three-dimensional artificial tissue.

Abstract: In a vertical through hole of a rotational shaft, a first protrusion portion and a second protrusion portion protruding from an inner peripheral surface of the vertical through hole are provided in an axial direction of the through hole to form a storage area for storing oil, and discharge holes for directly discharging oil flowing over the first protrusion portion into the transaxle casing are provided in parallel with cooling holes.

Abstract: A storage system creates an HA configuration in a virtual storage composed of resources of first and second storage subsystems. A user of the virtual storage selects a replication destination volume (second logical volume) of a first logical volume of the first storage subsystem that the user wishes to duplicate from the second storage. At this time, only a logical volume not recognized from a host is selectable as the second logical volume. When data duplication between the first logical volume and the second logical volume is started, the second storage subsystem sets an identification number of the second logical volume to be the same as the identification number of the first logical volume. Thereafter, at the point of time when duplication is completed, the second storage changes the setting of the second logical volume so that the second logical volume can be recognized from the host.

Abstract: A storage system according to the present invention includes multiple real storage subsystems, and defines a virtual storage subsystem composed of resources included in one or multiple real storage subsystems. Upon defining a virtual storage subsystem, a virtual logical partition corresponding to a real storage subsystem is provided in the virtual storage subsystem, and a logical partition correlation information which is attribute (limitation) information showing whether various resource management operations extending over virtual logical partitions can be executed or not to each pair within the multiple virtual logical partitions is created and managed.

Abstract: An example of the present invention is a storage system comprising a first real storage apparatus including a plurality of real resources. The first real storage apparatus includes: real resource groups allocated to a plurality of virtual storage apparatuses; first management information for associating virtual resource identifiers individually assigned to real resources in a namespace independently defined for each of the plurality of virtual storage apparatuses with real resource identifiers individually assigned to the real resources in a namespace defined for the first real storage apparatus; and a controller for receiving a command including a designation with a virtual resource identifier, converting the virtual resource identifier in the command into a real resource identifier with reference to the first management information, and processing the command with the converted real resource identifier.

Abstract: A storage system has a management computer and a storage device, where the storage device is connected to an external storage device and includes a first processor, a storage medium on which a plurality of logical storage devices is based, and a plurality of ports. The management computer includes a memory and a second processor, the memory storing port information, path information between host and storage device indicating the association between a host computer and the plurality of logical storage devices and ports, and path information between storage devices indicating the association between the external storage device and the plurality of logical storage devices and ports. The second processor executes band accommodation processing on either a path between host and storage device or a path between storage devices on the basis of the port information, the path information between host and storage device, and the path information between storage devices.

Abstract: A storage system according to the present invention includes multiple real storage subsystems, and defines a virtual storage subsystem composed of resources included in one or multiple real storage subsystems. Upon defining a virtual storage subsystem, a virtual logical partition corresponding to a real storage subsystem is provided in the virtual storage subsystem, and a logical partition correlation information which is attribute (limitation) information showing whether various resource management operations extending over virtual logical partitions can be executed or not to each pair within the multiple virtual logical partitions is created and managed.

Abstract: An example is a method of controlling a storage system for providing a virtual storage apparatus that includes virtual storage resources associated with real storage resources of real storage apparatus. It includes receiving a virtual storage resource control command of a predetermined type specifying a first virtual storage resource in the virtual storage apparatus and a second virtual storage resource associated with the first virtual storage resource; referring to management information for managing association relations between the virtual storage resources and the real storage resources, to identify a first real storage resource associated with the first virtual storage resource and a first real storage apparatus including the first real storage resource; and selecting a second real storage resource associated with the second virtual storage resource from real storage resources within the first real storage apparatus, or creating the second real storage resource within the first real storage apparatus.

Abstract: Technique for decision criterion for determining a transfer destination layer in rearrangement processing. A computer configures rearrangement reference information showing whether an access characteristic related to a task executed on a plurality of host computing devices is considered as a decision criterion for transfer destination determination in rearrangement processing of transferring data between actual storage areas of physical storage devices of different response performance. Storage subsystem refers to the rearrangement reference information and, based on an access characteristic of the plurality of computing devices with respect to the actual storage areas assigned to the plurality of computing devices, executes rearrangement processing of transferring data stored in the actual storage areas to different actual storage areas in the physical storage devices of different response performance.

Abstract: Technique for decision criterion for determining a transfer destination layer in rearrangement processing. A computer configures rearrangement reference information showing whether an access characteristic related to a task executed on a plurality of host computing devices is considered as a decision criterion for transfer destination determination in rearrangement processing of transferring data between actual storage areas of physical storage devices of different response performance. Storage subsystem refers to the rearrangement reference information and, based on an access characteristic of the plurality of computing devices with respect to the actual storage areas assigned to the plurality of computing devices, executes rearrangement processing of transferring data stored in the actual storage areas to different actual storage areas in the physical storage devices of different response performance.

Abstract: Technique for decision criterion for determining a transfer destination layer in rearrangement processing. A computer configures rearrangement reference information showing whether an access characteristic related to a task executed on a plurality of host computing devices is considered as a decision criterion for transfer destination determination in rearrangement processing of transferring data between actual storage areas of physical storage devices of different response performance. Storage subsystem refers to the rearrangement reference information and, based on an access characteristic of the plurality of computing devices with respect to the actual storage areas assigned to the plurality of computing devices, executes rearrangement processing of transferring data stored in the actual storage areas to different actual storage areas in the physical storage devices of different response performance.

Abstract: An example is a method of controlling a storage system for providing a virtual storage apparatus that includes virtual storage resources associated with real storage resources of real storage apparatus. It includes receiving a virtual storage resource control command of a predetermined type specifying a first virtual storage resource in the virtual storage apparatus and a second virtual storage resource associated with the first virtual storage resource; referring to management information for managing association relations between the virtual storage resources and the real storage resources, to identify a first real storage resource associated with the first virtual storage resource and a first real storage apparatus including the first real storage resource; and selecting a second real storage resource associated with the second virtual storage resource from real storage resources within the first real storage apparatus, or creating the second real storage resource within the first real storage apparatus.