# START MACOS CROSS-COMPILE CONFIGS
build:cross_compile_macos_x86 --config=cross_compile_base
build:cross_compile_macos_x86 --config=nonccl
# Target Catalina (10.15) as the minimum supported OS
build:cross_compile_macos_x86 --action_env  MACOSX_DEPLOYMENT_TARGET=10.15

# Set the target CPU to Darwin x86
build:cross_compile_macos_x86 --platforms=//tensorflow/tools/toolchains/cross_compile/config:darwin_x86_64

			switch p.To.Type {
			case obj.TYPE_BRANCH:
				p.To.Type, p.To.Offset = obj.TYPE_CONST, p.To.Target().Pc-p.Pc
			case obj.TYPE_MEM:
				panic("unhandled type")
			}

		case AJAL:
			// Linker will handle the intersymbol case and trampolines.
			if p.To.Target() != nil {
				p.To.Type, p.To.Offset = obj.TYPE_CONST, p.To.Target().Pc-p.Pc
			}

		case AAUIPC:
			if p.From.Type == obj.TYPE_BRANCH {

        public DependencyMetadata withTarget(ComponentSelector target) {
            return makeNonTransitive(dependencyMetadata.withTarget(target));
        }

        @Override
        public DependencyMetadata withTargetAndArtifacts(ComponentSelector target, List<IvyArtifactName> artifacts) {
            return makeNonTransitive(dependencyMetadata.withTargetAndArtifacts(target, artifacts));
        }

        @Override

        assertEquals(
                new File(pom.getBasedir(), "target"),
                new File(pom.getValue("properties/buildOut").toString()));
        assertEquals(
                new File(pom.getBasedir(), "target/classes"),
                new File(pom.getValue("properties/buildMainOut").toString()));
        assertEquals(
                new File(pom.getBasedir(), "target/test-classes"),

			// BEQ	R0, R0, sbra
			if p.To.Target() == nil {
				v = int32(-4) >> 2
			} else {
				v = int32(p.To.Target().Pc-p.Pc-4) >> 2
			}
			if (v<<16)>>16 == v {
				o1 = OP_IRR(c.opirr(ABEQ), uint32(v), REGZERO, REGZERO)
				break
			}
		}
		if p.To.Target() == nil {
			v = int32(p.Pc) >> 2
		} else {
			v = int32(p.To.Target().Pc) >> 2
		}

// identified through fuzzing.
//
// The function passed to (*F).Fuzz within the fuzz test is considered the fuzz
// target. A fuzz target must accept a *T parameter, followed by one or more
// parameters for random inputs. The types of arguments passed to (*F).Add must
// be identical to the types of these parameters. The fuzz target may signal
// that it's found a problem the same way tests do: by calling T.Fail (or any

			// generate extra passes putting branches around jmps to fix. this is rare.
			if o.type_ == 6 && p.To.Target() != nil {
				otxt := p.To.Target().Pc - pc

				// On loong64, the immediate value field of the conditional branch instructions
				// BFPT and BFPT is 21 bits, and the others are 16 bits. The jump target address
				// is to logically shift the immediate value in the instruction code to the left

		*funcref = legacyMount
	}
	return (*funcref)(source, target, fstype, flags, data)
}

func legacyMount(source string, target string, fstype string, flags uintptr, data string) (err error) {
	if needspace := 8 - len(fstype); needspace <= 0 {
		fstype = fstype[0:8]
	} else {
		fstype += "        "[0:needspace]
	}
	return mount_LE(target, source, fstype, uint32(flags), int32(len(data)), data)
}

        "cpu": "mips64",
    },
    visibility = ["//visibility:public"],
)

# TODO(jakeharmon8): Remove in favor of TSL version
config_setting(
    name = "windows",
    # Internal builds query the target OS.
    constraint_values = if_google(
        ["//third_party/bazel_platforms/os:windows"],
        [],
    ),
    # OSS builds query the CPU type.
    values = if_oss(
        {"cpu": "x64_windows"},

			return errors.New("file " + path + " contents differ")
		}

		var target string
		switch fileName := filepath.Base(path); fileName {
		case "file.abs.out.link", "file.rel.out.link":
			target = outsideFile
		case "file.rel.in.link":
			target = insideFile
		}
		if len(target) > 0 {
			targetData, err := ReadFile(target)
			if err != nil {
				return err
			}