fi
  kube::log::status "Deleting conformance image ${conformance_tag}"
  "${DOCKER[@]}" rmi "${conformance_tag}" &>/dev/null || true
}

# This builds all the release docker images (One docker image per binary)
# Args:
#  $1 - binary_dir, the directory to save the tared images to.
#  $2 - arch, architecture for which we are building docker images.
function kube::release::create_docker_images_for_server() {

If your PR includes any changes to the Gradle Public API, it will cause the binary compatibility check to fail.
The binary compatibility check runs as a part of the broader sanity check.
The latter runs on every PR and is a prerequisite for merging.

If you run the sanity check locally with the `./gradlew sanityCheck`, you can see the binary compatibility error in the output.
It looks like the following:

```

    hdrs = ["benchmark.h"],
    visibility = ["//visibility:public"],
    deps = [
        # The purpose of the benchmark library is to support building an aot
        # binary with minimal dependencies, to demonstrate small binary sizes.
        #
        # KEEP THE DEPENDENCIES MINIMAL.
        "//tensorflow/core:framework_lite",
    ],
)

cc_library(
    name = "benchmark_extra_android",

        ).distinct()

        val sharedBinaryRoots = StandaloneProjectFactory.getVirtualFilesForLibraryRoots(
            sharedBinaryDependencies.flatMap { binary -> binary.getBinaryRoots() },
            testServices.environmentManager.getProjectEnvironment()
        ).distinct()

        project.apply {

        ":target_aware_conversion",
        "//tensorflow/compiler/mlir:tf_mlir_opt_main",
    ],
    alwayslink = 1,
)

# Binary with no hardwares linked.
tf_cc_binary(
    name = "tac-opt",
    testonly = True,
    deps = [
        ":tac-opt_lib",
    ],
)

# Binary with all backends linked.
tf_cc_binary(
    name = "tac-opt-all-backends",
    testonly = True,
    deps = [

	// GOPATH points at our bootstrap workspace,
	// GOBIN is empty, so that binaries are installed to GOPATH/bin,
	// and GOOS, GOHOSTOS, GOARCH, and GOHOSTOS are empty,
	// so that Go bootstrap toolchain builds whatever kind of binary it knows how to build.
	// Restore GOROOT, GOPATH, and GOBIN when done.
	// Don't bother with GOOS, GOHOSTOS, GOARCH, and GOHOSTARCH,
	// because setup will take care of those when bootstrapBuildTools returns.

    }

    def "does not provide a default tool chain"() {
        expect:
        realizeModelElement("toolChains", NativeToolChainRegistry).isEmpty()
    }

    def "adds default flavor to every binary"() {
        when:
        project.model {
            components {
                exe(NativeExecutableSpec)
                lib(NativeLibrarySpec)
            }
        }

        then:

		return
	}
	// Windows does not allow deletion of a binary file while it is executing.
	if runtime.GOOS == "windows" {
		// Remove lingering ~ file from last attempt.
		if _, err2 := os.Stat(f + "~"); err2 == nil {
			os.Remove(f + "~")
		}
		// Try to move it out of the way. If the move fails,
		// which is likely, we'll try again the
		// next time we do an install of this binary.
		if err2 := os.Rename(f, f+"~"); err2 == nil {

		if len(versions) > 0 {
			diskVersionsCount[binary.BigEndian.Uint64(versions)]++
		}
	}

	var commonVersions uint64
	max := 0
	for versions, count := range diskVersionsCount {
		if max < count {
			max = count
			commonVersions = versions
		}
	}

	if max >= writeQuorum {
		for _, versions := range diskVersions {
			if binary.BigEndian.Uint64(versions) == commonVersions {
				return versions

final executable. External linking avoids the dynamic library
requirement but introduces a requirement that the host linker be
present to create such a binary.

Most builds both compile source code and invoke the linker to create a
binary. When cgo is involved, the compile step already requires gcc, so
it is not problematic for the link step to require gcc too.