Abstract: The present invention aims to provide a urethane resin and a heat dissipation component each having excellent thermal conductivity and excellent flexibility.

Abstract: The present invention provides a viscous adhesive capable of retaining the shape of an electrode and allowing for production of an electrode for a lithium-ion battery having a structure in which the energy density of the electrode does not decrease. The present invention relates to a viscous adhesive for a lithium-ion electrode which allows active materials to adhere to each other in a lithium-ion electrode, the viscous adhesive having a glass transition temperature of 60° C. or lower, a solubility parameter of 8 to 13 (cal/cm3)1/2, and a storage shear modulus and a loss shear modulus of 2.0×103 to 5.0×107 Pa as measured in a frequency range of 10?1 to 101 Hz at 20° C.

Abstract: The present invention provides a viscous adhesive capable of retaining the shape of an electrode and allowing for production of an electrode for a lithium-ion battery having a structure in which the energy density of the electrode does not decrease. The present invention relates to a viscous adhesive for a lithium-ion electrode which allows active materials to adhere to each other in a lithium-ion electrode, the viscous adhesive having a glass transition temperature of 60° C. or lower, a solubility parameter of 8 to 13 (cal/cm3)1/2, and a storage shear modulus and a loss shear modulus of 2.0×103 to 5.0×107 Pa as measured in a frequency range of 10?1 to 101 Hz at 20° C.

Abstract: The present invention aims to provide a composition that gives, as a reaction product, a urethane resin having excellent heat dissipation ability and excellent flexibility. The composition of the present invention contains a polyol (A), a polyisocyanate (B), and an inorganic filler (C), wherein the polyol (A) contains a polyol (A1) having at least three hydroxy groups in one molecule, an isocyanate index of the polyisocyanate (B) based on the polyol (A) is 0.20 to 0.77, the isocyanate index being a ratio of a total mole number of isocyanate groups of the polyisocyanate (B) in the composition to a total mole number of hydroxy groups of the polyol (A) in the composition, and a weight percent of the inorganic filler (C) is 70 to 97 wt % based on the weight of the composition.

Abstract: Volume deployment is optimized while adopting layering corresponding to IO density is adopted. A storage management apparatus calculates remaining IO density based on an amount of remaining IOPS and an amount of a remaining capacity in IOPS and a capacity that are providable by a node, the remaining IOPS and the remaining capacity being not allocated to any volume, controls the layers of the node based on the remaining IO density, selects a node on which a volume is to be deployed based on the difference between the IO density of a deployment target volume and the remaining IO density of the node, and determines a node having the smallest difference between the IO density of the deployment target volume and the remaining IO density of the node in the selection of the node as a deployment destination of the volume.

Abstract: A computer manages memory by dividing the memory into at least a first storage area which stores generated data, and a closable region made of at least one second storage area and at least one third storage area. The second storage area constitutes a destination to which the data stored in the first storage area is to be moved. Data is moved from the first storage area to the second storage area; and the second storage area to which the data has been moved is changed to the third storage area. An update to the data stored in the third storage area is detected and the data of which the update has been detected is moved to a closable region other than the third storage area.

Abstract: Disclosed is a computer system for reliably running a plurality of programs performing garbage collection with less physical memory than in the past. For this purpose, there is disclosed a memory management method that releases unneeded areas in a plurality of memory areas that have been used by each of a plurality of programs stored in memory and executed on a processing unit, the processing unit acquires an index for determining the start of releasing a memory area, compares the index with a predetermined threshold, and when the index exceeds the threshold, selects one of the plurality of programs, collects unneeded areas of the memory areas used by the selected program, and releases the collected areas.

Abstract: A server management apparatus for lowering migration costs during scale-in/scale-out and workload consolidation of a cluster system(s) to thereby reduce power consumption is disclosed. The apparatus manages a physical server group which renders operative a virtual server group thereon and, when putting into practice a cluster system including a plurality of virtual servers placed in the physical server group, manages the layout state of virtual servers pursuant to the load state of the virtual server group. When executing scale-in, a virtual server operating on a physical server with the minimum number of operative virtual servers is specified as a shutdown target. When executing scale-out, a workload variation is predicted to control a scale-out destination of cluster system so that load variation-resembled cluster systems gather on the same physical server. The scale-in execution timing is delayed if the predicted load variation tends to rise and accelerated if it falls.

Abstract: A memory management method, which is used in a computer including a CPU and a memory to unload an area no longer necessary out of a memory area used by a program stored in the memory and executed by the CPU, comprising: generating a first processing system for executing the program in the memory; generating a second processing system in the memory when a first opportunity occurs; copying a content of a memory area of the first processing system to a memory area of the second processing system; determining an unnecessary area out of the copied memory area of the second processing system; transmitting a determination result regarding the unnecessary area to the program of the first processing system when a second opportunity occurs receiving the determination result; unloading the unnecessary area in the memory area of the first processing system.

Abstract: [Object] To increase the speed of copy processing from an online computer 101 to a standby computer 102. [Solution] When copying copy target information from the online computer 101 to the standby computer 102, a status copy processing unit 110: recognizes, as a synchronous point, a point in time when execution of a first application (AP #1), from among applications 108, is completed; extracts only information stored in a use area 401 of an OS 106 and a use area 403 of a second application (AP #2) from a storage area 400 of a memory at this synchronous point; and transfers the extracted information, as the copy target information necessary to continue the processing, from the online computer 101 to the standby computer 102. [Selected Drawing] FIG.

Abstract: A server management apparatus for lowering migration costs during scale-in/scale-out and workload consolidation of a cluster system(s) to thereby reduce power consumption is disclosed. The apparatus manages a physical server group which renders operative a virtual server group thereon and, when putting into practice a cluster system including a plurality of virtual servers placed in the physical server group, manages the layout state of virtual servers pursuant to the load state of the virtual server group. When executing scale-in, a virtual server operating on a physical server with the minimum number of operative virtual servers is specified as a shutdown target. When executing scale-out, a workload variation is predicted to control a scale-out destination of cluster system so that load variation-resembled cluster systems gather on the same physical server. The scale-in execution timing is delayed if the predicted load variation tends to rise and accelerated if it falls.

Abstract: In a virtual machine system built from a plurality of virtual machines, the utilization efficiency of utilized physical memory is raised. A memory management method in which a virtual machine environment, constituted by having one or several virtual machines and a hypervisor part for operating the same virtual machines, is built on a physical machine and in which: a virtual machine operates an allocation processing part and an application part, application part making a physical memory processing part allocate unallocated physical memory to a memory area and allocation processing part transmitting, when unallocated physical memory is scarce, an instruction for the release, from memory areas utilized by each application part, of memory pages for which physical memory is assigned but not used.