Abstract:
PROBLEM TO BE SOLVED: To provide a tool for subjecting an automotive body to electrodeposition coating, which can restrain a lid component from being deformed when the automotive body is subjected to the electrodeposition coating.SOLUTION: The tool 1 for subjecting the automotive body to electrodeposition coating is used, when the lid component 51-assembled automotive body 5 is subjected to the electrodeposition coating, and holds the lid component, which is turned to a closed position by self-weight in an unloaded state, at a predetermined position. The tool 1 for subjecting the automotive body to electrodeposition coating includes: a tool body part 11; fixed parts 12 which are arranged on both ends of the tool body part and each of which is fit in an automotive body-side opening 55 corresponding to the lid component; and support parts 13 each of which is arranged in the vicinity of each of the fixed parts of the tool body part and is contacted with the inside surface of a horizontal plane 511 of the lid component between a hinge 513 and a tip part 514 to support the lid component.
Abstract:
PROBLEM TO BE SOLVED: To provide a member for cell connection which has high durability, and can be used with stability over a long period of time, and to provide a cell for SOFC use.SOLUTION: A method for forming a protection film on a surface of a base material made of a Cr-containing alloy or oxide and used for a cell for solid oxide fuel battery use comprises a first electro-deposition step for forming a first electro-deposition coating film by use of an anion-type resin mixture solution including, in its solid content, 30 mass% or more of metal oxide fine particles, a water-rinse step for rinsing, by water, the first electro-deposition coating film formed in the first electro-deposition step, and a second electro-deposition step for forming a second electro-deposition coating film on a surface of the first electro-deposition coating film on which water rinse has been completed, provided the above steps are conducted in this order, and a calcination step for forming calcination films composed of the first and second electro-deposition coating films with resin components lost therein by calcining the electro-deposition coating films, and a sintering step for forming a protection film including a metal oxide by sintering the calcination films.
Abstract:
PROBLEM TO BE SOLVED: To predict dripping of a coating material adhered to an article to be coated such as a vehicle body. SOLUTION: Nodal points adjacent to each element are set eachry each element based on a numerical calculation model in which an article to be coated is divided into a plurality of elements (Step S3). The inclination angle α between adjacent nodal points is calculated based on the gravity direction (Step S8). The coating material flow-out amount V out and the coating material flow-in amount V in at each nodal point are calculated based on the inclination angle α between adjacent nodal points and the temperature applied to the vehicle body (Steps S9, 10). Subsequently, the adhesion amount V t+1 of the coating material at each nodal point after a predetermined time is calculated based on the initial adhesion amount V 0 , the coating material flow-out amount V out and the coating material flow-in amount V in (Step S11). Thereby, it becomes possible to predict the dripping of the coating material adhered to the vehicle body while taking account of viscosity change of the coating material associated with temperature change, by repeatedly performing the steps. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a masking material having superior heat resistance and capable of being repeatedly used, a method of manufacturing such a masking material, and a masking method using such a masking material.SOLUTION: A masking part 3 of a masking material 1 containing a magnetic component has a circular shape. The masking part 3 has a central part 4 that is more recessed than a circumferential part 5. In the masking material 1, a radius r (unit: mm) of a circle of the masking part 3, a maximum depth d (unit: mm) of the recess of the central part 4 relative to the circumferential part 5, a magnetic flux density B (unit: T) obtained by the measurement at a position separated by 1 cm in a direction parallel to a central axis of the circle of the masking part from a position giving the maximum depth in the masking part 3, and Shore D hardness Hs of the masking material 1 satisfy all of expressions of 0.045≤B...(1), 5.5≤B/(d/r)...(2), and 42≤Hs≤60...(3).