getTo() >> to
            getTransformStep() >> Stub(TransformStep)
        }
    }

    private ResolvedVariant variant(Map<String, Object> attributes) {
        return variant(AttributeTestUtil.attributes(attributes))
    }

    private ResolvedVariant variant(AttributeContainerInternal attributes) {
        return Mock(ResolvedVariant) {
            getAttributes() >> attributes
        }
    }

        then:
        javaLibrary.parsedModuleMetadata.variant("apiElements") {
            noMoreDependencies()
        }
        javaLibrary.parsedModuleMetadata.variant("runtimeElements") {
            noMoreDependencies()
        }
        javaLibrary.parsedModuleMetadata.variant("featureApiElements") {
            noMoreDependencies()
        }
        javaLibrary.parsedModuleMetadata.variant("featureRuntimeElements") {

    }

    @Override
    String getIdeBuildTaskName(String variant) {
        return "install${variant.capitalize()}"
    }

    @Override
    List<String> getTasksToBuildFromIde(String variant) {
        return [":compile${variant.capitalize()}Cpp", ":link${variant.capitalize()}", ":install${variant.capitalize()}"]
    }

    @Override
    String getVisualStudioProjectName() {

                }
            }
        }

        where:
        notation << [
            'platform(module("org:lib:1.0"))',
            'variant(platform(module("org:lib:1.0"))) { }',
            'variant(module("org:lib:1.0")) { platform() }',
            'variant(module("org:lib:1.0")) { attributes { attribute(Category.CATEGORY_ATTRIBUTE, objects.named(Category, Category.REGULAR_PLATFORM)) } }',
        ]

    }

     * can match this classified dependency to a proper variant.
     */
    def "reasonable behavior when a Maven library uses a classifier to select a Gradle variant"() {
        def gradleLibrary = mavenHttpRepo.module("org", "lib", "1.0")
                .adhocVariants()
                .variant("apiElements", ['org.gradle.usage': Usage.JAVA_API, 'groovy.runtime': 'classic'])

        def differentFrom = factory.createResolvedDependency(selector('requested'), newModule('xxx'), selectedModule, variant, false)
        def differentSelected = factory.createResolvedDependency(selector('requested'), fromModule, newModule('xxx'), variant, false)
        def differentConstraint = factory.createResolvedDependency(selector('requested'), fromModule, selectedModule, variant, true)

        then:
        dep.is(same)

    /**
     * Constructs a complete cacheable variant chain given a root transformed variant and the chain of variants
     * to apply to that root variant.
     *
     * @param stateChain The transform chain from the search state to apply to the root transformed variant.
     * @param root The root variant to apply the chain to.
     *
     * @return A variant chain representing the final transformed variant.
     */

    return VariantBinaryAddFunc(
        cc_ctx, cc_a.scalar<Variant>()(), cc_b.scalar<Variant>()(),
        cc_out->scalar<Variant>().data(), binary_add_func);
  } else {
    binary_add_func(ctx, a, b, out);
    return cc_ctx->status();
  }
}

static Status VariantBinaryAddFunc(
    ::tensorflow::OpKernelContext* cc_ctx, const Variant& a, const Variant& b,
    Variant* out,

		pc := &meshconfig.ProxyConfig{}
		if err := protomarshal.ApplyYAML(v, pc); err == nil {
			if pc.GetImage().GetImageType() != "" {
				variant = pc.GetImage().GetImageType()
			}
		}
	}
	if variant == "default" {
		variant = ""
	}
	return variant
}

func NewEffectiveProxyConfigResolver(c analysis.Context) *EffectiveProxyConfigResolver {
	mc := &meshconfig.MeshConfig{}
	rootNamespace := ""

           metadata = ""} : (tensor<*x!tf_type.variant>) -> tensor<!tf_type.variant>
  %5 = "tf.BatchDatasetV2"(%4, %0, %1) {device = "",
           output_shapes = [#tf_type.shape<>],
           output_types = [i32],
           parallel_copy = false,
           metadata = ""} : (tensor<!tf_type.variant>, tensor<i64>, tensor<i1>) -> tensor<!tf_type.variant>
  func.return %5 : tensor<!tf_type.variant>
}