Abstract: A method for analyzing a heat exchanger includes a structural model creation step (S1) of creating a structural model of a heat exchanger; a iron-linear model creation step (S4) of creating a iron-linear model in which a non-linear spring element in an out-of-plane direction, in which a load is generated only at me time of contact between a heat transfer tube and an anti-vibration member, is applied to an opposing portion between the heat transfer tube and the anti-vibration member in a structural model, and a load distribution acquisition step (S5) of performing analysis in which a load in the out-of-plane direction is applied to the non-linear model to acquire load distribution of the heat exchanger from a value of the load in each opposing portion.

Abstract: A method for analyzing a heat exchanger includes a structural model creation step (S1) of creating a structural model of a heat exchanger; a iron-linear model creation step (S4) of creating a iron-linear model in which a non-linear spring element in an out-of-plane direction, in which a load is generated only at me time of contact between a heat transfer tube and an anti-vibration member, is applied to an opposing portion between the heat transfer tube and the anti-vibration member in a structural model, and a load distribution acquisition step (S5) of performing analysis in which a load in the out-of-plane direction is applied to the non-linear model to acquire load distribution of the heat exchanger from a value of the load in each opposing portion.

Abstract: In a vibration suppression member for heat transfer tubes, a manufacturing method of the vibration suppression member for heat transfer tubes, a vibration suppression device and method for heat transfer tubes, and a steam generator, a second anti-vibration member (102) includes a first support member (111) provided with a first support surface (112) for supporting an outer surface of a heat transfer tube (66), and a second support member (121) provided with a second support surface (132, 135) and a third support surface (133, 136) for supporting the outer surface of the heat transfer tube (66) with predetermined tilt angles relative to the first support surface (112), the tilt angles being different from each other, the second support member (121) being fixed to a mounting surface (113) of the first support member (111). With this configuration, a vibration of the heat transfer tube (66) can appropriately be suppressed.

Abstract: A clearance increasing jig of a heat transfer tube, includes: a jig main body inserted into a clearance between adjacent heat transfer tubes; an inflow hole provided in the jig main body and configured to allow a fluid to flow into the jig main body; and an increasing unit provided in the jig main body and configured to increase the clearance as the fluid flows into the jig main body.

Abstract: The heat exchanger includes: a plurality of heat transfer tubes which is arranged and provided with predetermined gaps; and a plurality of second vibration suppression members 14B which is provided in the gaps and is provided on both sides sandwiching each of the heat transfer tubes 5, and one second vibration suppression member 14B and the other second vibration suppression member 14B of a plurality of second vibration suppression members 14B are provided at different positions in an axial direction of the heat transfer tubes 5 sandwiching the heat transfer tubes 5, the one second vibration suppression member 14B is provided pressing the heat transfer tubes 5; and the other second vibration suppression member 14B is provided pressing the heat transfer tubes 5 from an opposite side of the one second vibration suppression member 14B.

Abstract: A clearance increasing jig of a heat transfer tube, includes: a jig main body inserted into a clearance between adjacent heat transfer tubes; an inflow hole provided in the jig main body and configured to allow a fluid to flow into the jig main body; and an increasing unit provided in the jig main body and configured to increase the clearance as the fluid flows into the jig main body.

Abstract: A transparent conductive film which is an indium zinc oxide film comprising In2O3 crystals, and has an X-ray diffraction peak using a Cuk? ray that appears within at least one area selected from areas ranging from 2?=35.5° to 37.0°, 39.0° to 40.5° and 66.5° to 67.8°, wherein the peak intensities of peaks that appear within areas ranging from 2?=30.2° to 30.8° and 54.0° to 57.0° are 20% or less of the peak intensity of the main peak.

Abstract: A transparent conductive film which is an indium zinc oxide film comprising In2O3 crystals, and has an X-ray diffraction peak using a Cuk? ray that appears within at least one area selected from areas ranging from 2?=35.5° to 37.0°, 39.0° to 40.5° and 66.5° to 67.8°, wherein the peak intensities of peaks that appear within areas ranging from 2?=30.2° to 30.8° and 54.0° to 57.0° are 20% or less of the peak intensity of the main peak.

Abstract: Provided is an etching solution composition for selectively etching a metal film, which is composed of Al, Al alloy or the like and is arranged on an amorphous oxide film, from a laminated film including the metal film and an amorphous oxide film of various types. The etching solution composition is used for selectively etching the metal film from the laminated film which includes the amorphous oxide film and the metal film composed of Al, Al alloy, Cu, Cu alloy, Ag or Ag alloy, and is composed of an aqueous solution containing an alkali.