ISO 2360:2017规定了使用振幅敏感涡流仪器对非磁性导电基底金属上非导电涂层厚度进行无损测量的方法。 在ISO 2360:2017中，术语“涂层”用于油漆和清漆、电镀涂层、搪瓷涂层、塑料涂层、覆层和粉末涂层等材料。该方法特别适用于测量大多数阳极氧化产生的氧化物涂层的厚度，但不适用于所有转化膜，其中一些转化膜太薄，无法用该方法测量（见第6条）。 该方法也可用于测量非导电基材上的非磁性金属涂层。然而，ISO 21968中规定的相敏涡流法特别适用于该应用，并可提供更高精度的厚度结果（见附录a）。 此方法不适用于测量非均匀性- 导电贱金属上的磁性金属涂层。ISO 21968中规定的相敏涡流法特别适用于这种应用。然而，在导电性非常小的极薄涂层的特殊情况下，振幅敏感涡流法也可用于该应用（见附录a）。 尽管该方法可用于测量磁性基底金属涂层的厚度，但不建议将其用于该应用。在这种情况下，可以使用ISO 2178中规定的磁性方法。只有在厚度超过约1mm的情况下，振幅敏感涡流法也可用于该应用（见附录A）。

ISO 2360:2017 specifies a method for non-destructive measurements of the thickness of non-conductive coatings on non-magnetic electrically conductive base metals, using amplitude-sensitive eddy-current instruments. In ISO 2360:2017, the term "coating" is used for materials such as, for example, paints and varnishes, electroplated coatings, enamel coatings, plastic coatings, claddings and powder coatings. This method is particularly applicable to measurements of the thickness of most oxide coatings produced by anodizing, but is not applicable to all conversion coatings, some of which are too thin to be measured by this method (see Clause 6). This method can also be used to measure non-magnetic metallic coatings on non-conductive base materials. However, the phase-sensitive eddy-current method specified in ISO 21968 is particularly usable to this application and can provide thickness results with a higher accuracy (see Annex A). This method is not applicable to measure non-magnetic metallic coatings on conductive base metals. The phase-sensitive eddy-current method specified in ISO 21968 is particularly useful for this application. However, in the special case of very thin coatings with a very small conductivity, the amplitude-sensitive eddy-current method can also be used for this application (see Annex A). Although the method can be used for measurements of the thickness of coatings on magnetic base metals, its use for this application is not recommended. In such cases, the magnetic method specified in ISO 2178 can be used. Only in case of very thick coatings above approximately 1 mm, the amplitude-sensitive eddy-current method can also be used for this application (see Annex A).