expectedPatchSets: []*patchSet{
				{
					targetName: "etcd",
					patchType:  types.StrategicMergePatchType,
					patches:    []string{patchData},
				},
				{
					targetName: "kube-apiserver",
					patchType:  types.JSONPatchType,
					patches:    []string{patchData},
				},
				{
					targetName: "kube-scheduler",
					patchType:  types.MergePatchType,
					patches:    []string{patchData},
				},

			outputFormat:   "name",
			operation:      "patched",
			expectedOutput: "pod/foo",
		},
		{
			name:          "operation and no valid \"name\" output does not match a printer",
			operation:     "patched",
			outputFormat:  "invalid",
			dryRun:        true,
			expectNoMatch: true,
		},
		{
			name:           "operation and empty output still matches name printer",
			expectedOutput: "pod/foo patched",

! go get -u=patch example.../b@upgrade
stderr '^go: no modules to query for example\.\.\./b@upgrade because first path element contains a wildcard$'


# Patching . causes a patch to example.net/a, which introduces a new match
# for example.net/b/..., which is itself patched and causes another upgrade to
# example.net/a, which is then patched again.

go get -u=patch . example.../b@upgrade
go list -m all

		}
	}

	return ret.String(), errs.ToError()
}

// applyPatches applies the given patches against the given object. It returns the resulting patched YAML if successful,
// or a list of errors otherwise.
func applyPatches(base *object.K8sObject, patches []*v1alpha1.K8SObjectOverlay_PathValue) (outYAML string, errs util.Errors) {
	bo := make(map[any]any)
	by, err := base.YAML()
	if err != nil {

		for _, patch := range patchSet.patches {
			patchBytes := []byte(patch)

			// Patch based on the patch type.
			switch patchSet.patchType {

			// JSON patch.
			case types.JSONPatchType:
				var patchObj jsonpatch.Patch
				patchObj, err = jsonpatch.DecodePatch(patchBytes)
				if err == nil {
					patchedData, err = patchObj.Apply(patchedData)
				}

			// Merge patch.

# MinIO FIPS Builds

MinIO creates FIPS builds using a patched version of the Go compiler (that uses BoringCrypto, from BoringSSL, which is [FIPS 140-2 validated](https://csrc.nist.gov/csrc/media/projects/cryptographic-module-validation-program/documents/security-policies/140sp2964.pdf)) published by the Golang Team [here](https://github.com/golang/go/tree/dev.boringcrypto/misc/boring).

			if patched := cp.patch(nil, defaultCluster.build()); patched != nil {
				resources = append(resources, patched)
				if features.EnableCDSCaching {
					cb.cache.Add(&clusterKey, cb.req, patched)
				}
			}
			for _, ss := range subsetClusters {
				if patched := cp.patch(nil, ss); patched != nil {
					resources = append(resources, patched)
					if features.EnableCDSCaching {

class SamplesJavaPatchModuleIntegrationTest extends AbstractIntegrationSpec {

    @Rule Sample sample = new Sample(temporaryFolder, 'testing/patch-module')

    def setup() {
        executer.withRepositoryMirrors()
    }

    def "can compile and run patched module whitebox tests with #dsl dsl"() {
        when:
        executer.inDirectory(sample.dir.file(dsl))
        succeeds('build')

        then:

}

func (mc *meshConfig) PatchMeshConfig(t resource.Context, patch string) error {
	return mc.UpdateMeshConfig(t, func(mc *meshconfig.MeshConfig) error {
		return protomarshal.ApplyYAML(patch, mc)
	}, cleanup.Always)
}

func (mc *meshConfig) PatchMeshConfigOrFail(ctx resource.Context, t test.Failer, patch string) {
	t.Helper()
	if err := mc.PatchMeshConfig(ctx, patch); err != nil {
		t.Fatal(err)
	}
}

Go 1.23 is the last release that requires Linux kernel version 2.6.32 or later. Go 1.24 will require Linux kernel version 3.17 or later, with an exception that systems running 3.10 or later will continue to be supported if the kernel has been patched to support the getrandom system call.

### OpenBSD {#openbsd}

<!-- go.dev/issue/55999, CL 518629, CL 518630 -->
Go 1.23 adds experimental support for OpenBSD on 64-bit RISC-V (`GOOS=openbsd`, `GOARCH=riscv64`).