Abstract: A storage controller performs a storage write operation, and stores being unable to write due to memory cell deterioration in cases in which bit flips uncorrectable by an ECC have been detected a predetermined number of times or more for each predetermined volume written and also writing of a TBW or greater has been confirmed.

Abstract: A floating offshore wind power generation facility includes a floating body, a mooring cable, a tower, and a windmill installed at the top of the tower, the windmill including a nacelle and a plurality of blades. The rotation axis of the windmill has a predetermined upward angle to avoid contact between the blades and the tower, and the windmill is of a downwind type in which the blades are attached to the leeward side of the nacelle and installed with the back surfaces of the blades facing windward, and the mooring point of the mooring cable to the floating body is set at a position below the surface of the sea and higher than the center of gravity of the floating body.

Abstract: An analysis model creation assistance device comprises a mesh data registration unit for registering a mesh data which has been already divided into meshes for a simulation in a mesh database, a CAD data registration unit for registering a CAD data corresponding to the mesh data in a CAD database, and a usable mode extractor for registering a mesh data corresponding to a data on mesh members excluding a mesh member of a largest size in a usable model database as a usable mesh.

Abstract: An analytical mesh generation device includes a shape model input unit for inputting a shape model of an analytical subject, a mesh size input unit for inputting a size of a hexahedral mesh to be generated, a mesh generation region. extraction unit for extracting a mesh. generation region for generating the hexahedral mesh. from the shape model using the mesh size, and a hexahedral mesh generation unit for generating the hexahedral mesh for the extracted mesh generation region.

Abstract: A floating offshore wind power generation facility includes a floating body, a mooring cable, a tower, and a windmill installed at the top of the tower, one windmill including a nacelle and a plurality of blades. The rotation axis of the windmill has a predetermined upward angle to avoid contact between the blades and the tower, and the windmill is of a downwind type in which the blades are attached to the leeward side of the nacelle and installed with the back surfaces of the blades facing windward, and the mooring point of the mooring cable to the floating body is set at a position below the surface of the sea and higher than the center of gravity of the floating body.

Abstract: Progress management of analysis task is performed in CAE analysis. A system is provided in which a plurality of terminal apparatuses 10A, 10B and 10C storing an analysis procedure of CAE analysis as a program are connected to a management apparatus 20 managing a state of progress of CAE analysis via a communication network N. The management apparatus 20 generates progress management information in which an analysis task of CAE analysis is divided into a plurality of steps and transmits the progress management information to each of the terminal apparatuses 10A, 10B and 10C. Each of the terminal apparatuses 10A, 10B and 10C transmits to the management apparatus 20 progress state information of analysis task for one or a plurality of steps allocated to the terminal apparatus at a predetermined timing in accordance with the received progress management information.

Abstract: Progress management of analysis task is performed in CAE analysis. A system is provided in which a plurality of terminal apparatuses 10A, 10B and 10C storing an analysis procedure of CAE analysis as a program are connected to a management apparatus 20 managing a state of progress of CAE analysis via a communication network N. The management apparatus 20 generates progress management information in which an analysis task of CAE analysis is divided into a plurality of steps and transmits the progress management information to each of the terminal apparatuses 10A, 10B and 10C. Each of the terminal apparatuses 10A, 10B and 10C transmits to the management apparatus 20 progress state information of analysis task for one or a plurality of steps allocated to the terminal apparatus at a predetermined timing in accordance with the received progress management information.

Abstract: A rapid and reliable non-destructive method is proposed for the determination of stress in a steel material by determining the reversible magnetic permeability .mu. under a magnetic bias field H.sub.0 in the range of approach to the saturation magnetization, calculating the factor M in the equation .mu.=1+M/H.sub.0.sup.3 by using the value of .mu., and calculating .sigma..sub.1, .sigma..sub.2 and .theta. by solving the equation ##EQU1## in which .sigma..sub.1 is a principal stress, .sigma..sub.2 is the principal stress perpendicular to .sigma..sub.1, .theta. is the angle between .sigma..sub.1 and the direction of measurement of .mu., a is the value of .sqroot.M in a stress-free state and b is the stress sensitivity, a and b being determined separately.