public:
  explicit QuantizationSummary(ModuleOp module)
      : module_(module), symbol_table_(module) {}

  void Print() {
    llvm::StringMap<OpCountItem> func_count_map;
    int32_t total_quantized_func_count = 0, float_output_func_count = 0,
            quantize_func_count = 0, dequantize_func_count = 0,
            weight_only_count = 0;

    module_.walk([&](Operation* op) {

This pass collects StableHLO functions referenced from `tf.XlaCallModule`'s
`_entry_function` attribute into a module, serializes the module into MLIR
bytecode, and embed the bytecode to `tf.XlaCallModule`'s `module` attribute.

After serialization, this pass removes the `_entry_function` attribute from
`tf.XlaCallModule`, and removes all the serialized stablehlo functions

	// requirements of those root modules, and the transitive requirements of only
	// the root modules that do not support pruning.
	//
	// If workspace, the graph includes only the workspace modules, the explicit
	// requirements of the workspace modules, and the transitive requirements of
	// the workspace modules that do not support pruning.
	pruning modPruning

	// rootModules is the set of root modules of the graph, sorted and capped to

	// slash. For most modules, pathPrefix is just version.Path, but the
	// standard-library module "std" has an empty prefix.
	pathPrefix map[module.Version]string

	// inGorootSrc caches whether modRoot is within GOROOT/src.
	// The "std" module is special within GOROOT/src, but not otherwise.
	inGorootSrc map[module.Version]bool

	modFiles map[module.Version]*modfile.File

	modContainingCWD module.Version

[[sec:java_testing_modular_patching]]
=== Whitebox test execution with module patching

Another approach for whitebox testing is to stay in the module world by _patching_ the tests into the module under test.
This way, module boundaries stay in place, but the tests themselves become part of the module under test and can then access the module's internals.

	}
}

// preloadRootModules loads the module requirements needed to identify the
// selected version of each module providing a package in rootPkgs,
// adding new root modules to the module graph if needed.
func (ld *loader) preloadRootModules(ctx context.Context, rootPkgs []string) (changedBuildList bool) {
	needc := make(chan map[module.Version]bool, 1)
	needc <- map[module.Version]bool{}
	for _, path := range rootPkgs {

        given:
        repository {
            def modules = ['direct', 'transitive', 'leaf']
            modules.eachWithIndex { module, idx ->
                ['A', 'B'].each { appendix ->
                    "org:${module}${appendix}:1.0" {
                        if (idx < modules.size() - 1) {
                            dependsOn("org:${modules[idx + 1]}${appendix}:1.0")
                        }

        when:
        expectAlignment {
            module('xml') alignsTo('1.0') byVirtualPlatform()
            module('core') alignsTo('1.0')
            module('json') tries('1.1')
            module('foo') group('org2') alignsTo('1.0')
            module('bar') group('org3') alignsTo('1.0')
            module('a') group('org4') tries('1.0') alignsTo('1.1')
            module('b') group('org4') alignsTo('1.1')
        }

        and:
        parseContext.getMetaDataArtifact({ it.selector.module == 'parent' }, _, MAVEN_POM) >> asResource(parent)
        parseContext.getMetaDataArtifact({ it.selector.module == 'grandparent' }, _, MAVEN_POM) >> asResource(grandParent)

        when:
        parsePom()

        then:
        def dep = single(metadata.dependencies)
        dep.selector == moduleId('group-two', 'artifact-two', 'version-two')

        assertEquals("module-2", pom.getValue("modules[1]"));
        assertEquals("module-1", pom.getValue("modules[2]"));
        assertEquals("module-3", pom.getValue("modules[3]"));
        assertEquals("module-4", pom.getValue("modules[4]"));
    }

    /**
     * Will throw an exception if it doesn't find parent(s) in build
     *
     * @throws Exception in case of issue