parse 'dependency-notations'

        then:
        hasDependency('simple') {
            withGAV('foo', 'bar', '1.0')
        }
        hasDependency('simple-with-rich1') {
            withGroup 'foo'
            withName 'bar'
            withVersion {
                prefer '1.0'
            }
        }
        hasDependency('simple-with-rich2') {
            withGroup 'foo'
            withName 'bar'

		},
	}, func() (generated []test) {
		// Generate test cases for all simple values (0 to 255) because the number of possible simple values is fixed and small.
		for i := 0; i <= 255; i++ {
			each := test{
				name: fmt.Sprintf("simple value %d", i),
			}
			if i <= 23 {
				each.in = []byte{byte(0xe0) | byte(i)}
			} else {
				// larger simple values encode to two bytes
				each.in = []byte{byte(0xe0) | byte(24), byte(i)}

			want:    nil,
		},
		{
			name:    "SIMPLE TLS and nil metadata",
			tlsMode: networking.ClientTLSSettings_SIMPLE,
			meta:    nil,
			want:    alpnOverrideFalse,
		},
		{
			name:    "MUTUAL TLS and nil metadata",
			tlsMode: networking.ClientTLSSettings_SIMPLE,
			meta:    nil,
			want:    alpnOverrideFalse,
		},
		{
			name:    "SIMPLE TLS and empty metadata",

// program unit for which we want to gather coverage info. Coverable
// units are either "simple" or "intraline"; a "simple" coverable unit
// corresponds to a basic block (region of straight-line code with no
// jumps or control transfers). An "intraline" unit corresponds to a
// logical clause nested within some other simple unit. A simple unit
// will have a zero Parent value; for an intraline unit NxStmts will

import java.util.function.Supplier;
import java.util.regex.Pattern;

class DefaultRepositoryContentDescriptor implements RepositoryContentDescriptorInternal {
    private enum MatcherKind {
        SIMPLE,
        REGEX,
        SUB_GROUP,
    }

    private Set<String> includedConfigurations;
    private Set<String> excludedConfigurations;
    private Set<ContentSpec> includeSpecs;

    }

    protected TypeOf() {
        this.type = captureTypeArgument();
    }

    /**
     * Queries whether this object represents a simple (non-composite) type, not an array and not a generic type.
     *
     * @return true if this object represents a simple type.
     */
    public boolean isSimple() {
        return type.isClass()
            && !rawClass().isArray();
    }

    /**

 * <p>
 * If a child's simple name already contains the name of its parent, the two prefixes are collapsed to keep names short.
 * For example, an elements with the name segments <code>root:impl:impl-simple</code> would initially get the name
 * <code>root-impl-impl-simple</code> and would then be shortened to <code>root-impl-simple</code>

* Share database connections.
* Enforce security, authentication, role requirements, etc.
* And many other things...

All these, while minimizing code repetition.

## First Steps

Let's see a very simple example. It will be so simple that it is not very useful, for now.

But this way we can focus on how the **Dependency Injection** system works.

### Create a dependency, or "dependable"

Let's first focus on the dependency.

        macroFunctionListSerializer.write(encoder, value.getAllMacroFunctions());
    }

    private static class ExpressionSerializer implements Serializer<Expression> {
        private static final byte SIMPLE = (byte) 1;
        private static final byte COMPLEX_ONE_ARG = (byte) 2;
        private static final byte COMPLEX_MULTIPLE_ARGS = (byte) 3;
        private static final byte EMPTY_TOKENS = (byte) 4;

	},
	{
		name: "destinationrule with no cacert, simple at portlevel",
		inputFiles: []string{
			"testdata/destinationrule-simple-port.yaml",
		},
		analyzer: &destinationrule.CaCertificateAnalyzer{},
		expected: []message{
			{msg.NoServerCertificateVerificationPortLevel, "DestinationRule db-tls"},
		},
	},
	{
		name: "destinationrule with credentialname, simple at destinationlevel, no workloadSelector",