Abstract: A liquid-stabilizing apparatus for a liquid cargo tank includes a guide structure. The guide structure is provided with a positioning floating body. The positioning floating body is provided with anti-sloshing members. The anti-sloshing members are provided with discontinuous baffles at a fixed angle. By using the liquid-stabilizing apparatus, the liquid cargo tank is no longer required to have a bevel surface structure, thereby increasing load capacity of the liquid cargo tank and preventing the liquid cargo tank in various loading states from being impacted by liquid cargos.

Abstract: A liquid-stabilizing apparatus for a liquid cargo tank includes a guide structure. The guide structure is provided with a positioning floating body. The positioning floating body is provided with anti-sloshing members. The anti-sloshing members are provided with discontinuous baffles at a fixed angle. By using the liquid-stabilizing apparatus, the liquid cargo tank is no longer required to have a bevel surface structure, thereby increasing load capacity of the liquid cargo tank and preventing the liquid cargo tank in various loading states from being impacted by liquid cargos.

Abstract: Methods and devices are provided for identifying a terminal. In the method, the device receives a request for accessing a target webpage sent by the terminal. The device sends preset drawing information to the terminal, where the preset drawing information may instruct the terminal to draw a corresponding object according to the preset drawing information. The device acquires object information for characterizing the object drawn by the terminal and generates identification information for identifying the terminal according to the object information.

Abstract: A computer reads data from a database in an external recording device to generate an analysis model which represents the surface profile of a member with a mesh. Next, the computer initializes the meshes of the analysis model by setting thereto a gas attribute corresponding to a non-leakage site and thereafter sets to any mesh a liquid attribute corresponding to a leakage site, and changes the attribute of meshes adjacent to the meshes having the liquid attribute from the gas attribute to the liquid attribute. Then, the computer connects meshes of which attribute has been set to the liquid attribute to generate a leakage path and outputs information relating to the leakage path on a display device.

Abstract: A method simulating an occurrence of an air pocket in an object to be coated is provided with steps of: setting an initial boundary element; setting an element having a common nodal point with the initial boundary element as a flanking element; analyzing the flanking element; setting the analyzed flanking element as a secondary boundary element; setting an element having a common nodal point with the secondary boundary element as a flanking element; analyzing the flanking element; and determining whether there is a remaining flanking element. When there is a remaining flanking element, a secondary boundary setting step and a second analysis step are repeatedly performed, until no remaining flanking element is determined.

Abstract: A method of simulating an occurrence of an air pocket in an object to be coated is provided with steps of: dividing an object and a periphery of the object into regions; dividing the object into elements; determining whether an element is filled with air or liquid coating material; determining whether the element to be filled with air is filled with air or liquid coating material, by referring to a database. The database is structured by collecting data relating an angle of incline of the object, a surface tension caused between the object and the liquid coating material, a flow velocity of the liquid coating material in the coating material tank, and a direction of flow of the liquid coating material in the tank, when an air bubble adhering to the object is removed therefrom.

Abstract: A computer generates an analysis model in which an object is represented by meshes. When attributes of the meshes corresponding to space which possibly becomes a cause of residual fluid are set to a first substance causing the residual fluid, the attribute of the mesh corresponding to the boundary between the object and outside of the object and corresponding to the space is set from the first substance to a second substance of which specific gravity differs from that of the first substance. Then, the attribute is changed from the first substance to the second substance according to attribute of the mesh exists in the periphery, assuming the meshes of which attribute is set to the first substance as a processing subject. Accordingly, the presence or absence of residual fluid is determined according to the presence or absence of the meshes of which attribute is set to the first substance.

Abstract: A computer reads data from a database in an external recording device to generate an analysis model which represents the surface profile of a member with a mesh. Next, the computer initializes the meshes of the analysis model by setting thereto a gas attribute corresponding to a non-leakage site and thereafter sets to any mesh a liquid attribute corresponding to a leakage site, and changes the attribute of meshes adjacent to the meshes having the liquid attribute from the gas attribute to the liquid attribute. Then, the computer connects meshes of which attribute has been set to the liquid attribute to generate a leakage path and outputs information relating to the leakage path on a display device.

Abstract: A method of simulating an occurrence of an air pocket in an object to be coated is provided with steps of: dividing an object and a periphery of the object into regions; dividing the object into elements; determining whether an element is filled with air or liquid coating material; determining whether the element to be filled with air is filled with air or liquid coating material, by referring to a database. The database is structured by collecting data relating an angle of incline of the object, a surface tension caused between the object and the liquid coating material, a flow velocity of the liquid coating material in the coating material tank, and a direction of flow of the liquid coating material in the tank, when an air bubble adhering to the object is removed therefrom.

Abstract: A method simulating an occurrence of an air pocket in an object to be coated is provided with steps of: setting an initial boundary element; setting an element having a common nodal point with the initial boundary element as a flanking element; analyzing the flanking element; setting the analyzed flanking element as a secondary boundary element; setting an element having a common nodal point with the secondary boundary element as a flanking element; analyzing the flanking element; and determining whether there is a remaining flanking element. When there is a remaining flanking element, a secondary boundary setting step and a second analysis step are repeatedly performed, until no remaining flanking element is determined.

Abstract: Temperature data representing transition of a temperature distribution of a coating target with time lapse is calculated Subsequently, the integrated value of the amount of heat applied to the coating is calculated on the basis of the temperature data. The dry state of the coating is estimated on the basis of the integrated value of the heat amount. In order to estimate the dry state of the coating, the integrated value of the amount of heat applied to the coating and the threshold values for the dry judgment of the coating are compared with each other.

Abstract: A computer generates an analysis model in which an object is represented by meshes. When attributes of the meshes corresponding to space which possibly becomes a cause of residual fluid are set to a first substance causing the residual fluid, the attribute of the mesh corresponding to the boundary between the object and outside of the object and corresponding to the space is set from the first substance to a second substance of which specific gravity differs from that of the first substance. Then, the attribute is changed from the first substance to the second substance according to attribute of the mesh exists in the periphery, assuming the meshes of which attribute is set to the first substance as a processing subject. Accordingly, the presence or absence of residual fluid is determined according to the presence or absence of the meshes of which attribute is set to the first substance.

Abstract: Temperature data representing transition of a temperature distribution of a coating target with time lapse is calculated Subsequently, the integrated value of the amount of heat applied to the coating is calculated on the basis of the temperature data. The dry state of the coating is estimated on the basis of the integrated value of the heat amount. In order to estimate the dry state of the coating, the integrated value of the amount of heat applied to the coating and the threshold values for the dry judgment of the coating are compared with each other.