}

    def "transform is re-executed when input file content changes between builds"() {
        given:
        buildFile << declareAttributes() << multiProjectWithJarSizeTransform(incremental: true) << withClassesSizeTransform() << withFileLibDependency()

        file("lib/dir1.classes").file("child").createFile()

        when:
        succeeds ":util:resolve", ":app:resolve"

        then:

			fieldPath:       ".a['bbb.c']",
			pathOfFieldPath: path,
			schema:          &sts,
			validFieldPath:  path.Child("a").Child("bbb.c"),
		},
		{
			name:            "Valid map key",
			fieldPath:       ".foo.subAdd",
			pathOfFieldPath: path,
			schema:          &sts,
			validFieldPath:  path.Child("foo").Key("subAdd"),
		},
		{
			name:            "Valid map key",
			fieldPath:       ".foo['subAdd']",

		expectedChains []string
		expectedErr    string
	}{
		{
			// Build the following graph from RFC 4158, figure 7 (note that in this graph edges represent
			// certificates where the parent is the issuer and the child is the subject.) For the certificate
			// C->B, use an unsupported ExtKeyUsage (in this case ExtKeyUsageCodeSigning) which invalidates
			// the path Trust Anchor -> C -> B -> EE. The remaining valid paths should be:

		assert.Equal(t, span.Parent.SpanID(), rootSpan.SpanContext.SpanID(), fmt.Sprintf("image service span %s %s should be child of root span", span.Name, span.Parent.SpanID()))
	}

	for _, span := range runtimeServiceSpans {
		assert.Equal(t, span.Parent.SpanID(), rootSpan.SpanContext.SpanID(), fmt.Sprintf("runtime service span %s %s should be child of root span", span.Name, span.Parent.SpanID()))
	}

	msigrestore(gp.m.sigmask)

	gp.m.locks--
}

// inForkedChild is true while manipulating signals in the child process.
// This is used to avoid calling libc functions in case we are using vfork.
var inForkedChild bool

// Called from syscall package after fork in child.
// It resets non-sigignored signals to the default handler, and
// restores the signal mask in preparation for the exec.
//

	}()

	// Wait for the server in the child process to respond and tell us
	// its listening address, once it's started listening:
	bs := bufio.NewScanner(stdout)
	if !bs.Scan() {
		b.Fatalf("failed to read listening URL from child: %v", bs.Err())
	}
	url := "http://" + strings.TrimSpace(bs.Text()) + "/"
	if _, err := getNoBody(url); err != nil {
		b.Fatalf("initial probe of child process failed: %v", err)
	}

		extractedNames.Insert(name)
		return true
	}, AllContainers)

	// excludedSecretPaths holds struct paths to fields with "secret" in the name that are not actually references to secret API objects
	excludedSecretPaths := sets.New[string](
		"Spec.Volumes[*].VolumeSource.CephFS.SecretFile",
	)
	// expectedSecretPaths holds struct paths to fields with "secret" in the name that are references to secret API objects.

	// cgo
	// TODO: CGO_FLAGS?
	gofiles := []string{objdir + "_cgo_gotypes.go"}
	cfiles := []string{"_cgo_export.c"}
	for _, fn := range cgofiles {
		f := strings.TrimSuffix(filepath.Base(fn), ".go")
		gofiles = append(gofiles, objdir+f+".cgo1.go")
		cfiles = append(cfiles, f+".cgo2.c")
	}

	// TODO: make cgo not depend on $GOARCH?

	cgoflags := []string{}

		// That test doesn't make much sense, and I'm not sure it ever works.
		// Just generate trampoline for now (which will turn a direct call to
		// an indirect call, which at least builds).
		limit = 1
	}

	// First pass: assign addresses assuming the program is small and will
	// not require trampoline generation.
	big := false
	for _, s := range ctxt.Textp {

  let summary = "Converts a sparse representation into a dense tensor.";

  let description = [{
Builds an array `dense` with shape `output_shape` such that

```
# If sparse_indices is scalar
dense[i] = (i == sparse_indices ? sparse_values : default_value)

# If sparse_indices is a vector, then for each i