case "arm":
		binary.LittleEndian.PutUint32(ill[0:4], 0xe3a00000) // MOVW $0, R0
		binary.LittleEndian.PutUint32(ill[4:8], 0xe5800000) // MOVW R0, (R0)
	case "arm64":
		binary.LittleEndian.PutUint32(ill, 0xf90003ff) // MOVD ZR, (ZR)
	case "ppc64":
		binary.BigEndian.PutUint32(ill, 0xf8000000) // MOVD R0, (R0)
	case "ppc64le":
		binary.LittleEndian.PutUint32(ill, 0xf8000000) // MOVD R0, (R0)

                binaries.add(new DefaultCppExecutableModel(binary.getName(), cppBinary.getIdentity().getName(), binary.getBaseName().get(), compilationDetails, linkageDetails));
            } else if (binary instanceof CppSharedLibrary) {
                CppSharedLibrary sharedLibrary = (CppSharedLibrary) binary;
                LinkSharedLibrary linkTask = sharedLibrary.getLinkTask().get();

    }

    def "binary has name and sensible display name"() {
        def binary = create(SampleBinary, MySampleBinary, "sampleBinary")

        expect:
        binary instanceof SampleBinary
        binary.name == "sampleBinary"
        binary.projectScopedName == "sampleBinary"
        binary.displayName == "SampleBinary 'sampleBinary'"
        binary.namingScheme.description == "sample binary 'sampleBinary'"

        binary.targetPlatform == targetPlatform
        binary.toolChain == toolChain
        binary.platformToolProvider == platformToolProvider

        app.binaries.realizeNow()
        app.binaries.get() == [binary] as Set
    }

    def "throws exception when development binary is not available"() {
        given:
        app.binaries.realizeNow()

        when:
        app.developmentBinary.get()

        then:

ISTIO_ENVOY_LINUX_RELEASE_PATH="${ISTIO_ENVOY_LINUX_RELEASE_PATH:-${ISTIO_ENVOY_LINUX_RELEASE_DIR}/${ISTIO_ENVOY_LINUX_RELEASE_NAME}}"

# There is no longer an Istio built Envoy binary available for the Mac. Copy the Linux binary as the Mac binary was
# very old and likely no one was really using it (at least temporarily).

# Download Envoy debug and release binaries for Linux x86_64. They will be included in the

		if cidr.IP.To4() != nil {
			ipInt := binary.BigEndian.Uint32(cidr.IP) | (^binary.BigEndian.Uint32(cidr.Mask))
			binary.BigEndian.PutUint32(ip, ipInt)
		} else {
			// ipIntLeft          |         ipIntRight
			// 2001:0DB8:1234:0000:0000:0000:0000:0000
			ipIntLeft := binary.BigEndian.Uint64(cidr.IP[:net.IPv6len/2]) | (^binary.BigEndian.Uint64(cidr.Mask[:net.IPv6len/2]))

        def binary = new File("any")
        when:
        def metadata = metadataProvider(compiler).getCompilerMetaData([]) { it.executable(binary) }

        then:
        interaction compilerShouldBeExecuted

        when:
        def newMetadata = metadataProvider(compiler).getCompilerMetaData([]) { it.executable(binary) }

        then:
        0 * _

    }
    tasks {
        verify(Task) {
            doLast {
                def comp = $.components.mylib
                def binary = comp.binaries.main
                assert comp.sources.size() == 1
                assert binary.sources.size() == 1
                assert binary.inputs == comp.sources + binary.sources as Set
            }
        }
    }
}
'''

        expect:
        succeeds "verify"
    }

//
// Basic selection logic is as follows:
// 1. see if we have `nft` binary set in our $PATH
// 2. see if we have existing rules in `nft` in our netns
// 3. If so, use `nft` binary set
// 4. Otherwise, see if we have `legacy` binary set, and use that.
// 5. Otherwise, see if we have `iptables` binary set, and use that (detecting whether it's nft or legacy).

exec $WORK/lib/goroot/bin/go list -f '{{.ImportPath}}: {{.Dir}}' encoding/binary
stdout '^encoding/binary: '$WORK${/}lib${/}goroot${/}src${/}encoding${/}binary'$'

exec $WORK/lib/goroot/bin/go list -f '{{.ImportPath}}: {{.Dir}}' std
stdout '^encoding/binary: '$WORK${/}lib${/}goroot${/}src${/}encoding${/}binary'$'

# Most path lookups in GOROOT are not sensitive to symlinks. However, patterns