optional string operation = 2;

  // APIVersion defines the version of this resource that this field set
  // applies to. The format is "group/version" just like the top-level
  // APIVersion field. It is necessary to track the version of a field
  // set because it cannot be automatically converted.
  optional string apiVersion = 3;

  // Time is the timestamp of when the ManagedFields entry was added. The

  optional string operation = 2;

  // APIVersion defines the version of this resource that this field set
  // applies to. The format is "group/version" just like the top-level
  // APIVersion field. It is necessary to track the version of a field
  // set because it cannot be automatically converted.
  optional string apiVersion = 3;

  // Time is the timestamp of when the ManagedFields entry was added. The

  }

 private:
  mutex mu_;
  absl::flat_hash_map<uint64, int64> sequence_numbers_;
};

// Get a monotonic sequence numbers for a graph identified by its `fingerprint`.
// The sequence number is necessary to disambiguate clusters extracted from the
// same graph and when duplicate graphs exist within the same process.
int64_t GetNextClusterSequenceNumber(uint64 fingerprint) {

		if frame.fn.deferreturn != 0 {
			frame.continpc = frame.fn.entry() + uintptr(frame.fn.deferreturn) + 1
			// Note: this may perhaps keep return variables alive longer than
			// strictly necessary, as we are using "function has a defer statement"
			// as a proxy for "function actually deferred something". It seems
			// to be a minor drawback. (We used to actually look through the

	hostname := "*"
	if l.Hostname != nil {
		hostname = string(*l.Hostname)
	}

	resp := []string{}
	for _, ns := range namespacesFromSelector(localNamespace, r, l.AllowedRoutes) {
		// This check is necessary to prevent adding a hostname with an invalid empty namespace
		if len(ns) > 0 {
			resp = append(resp, fmt.Sprintf("%s/%s", ns, hostname))
		}
	}

// Example usage:
//
//	buf := make([]byte, 2, 514)
//	b := NewBuilder(buf, Header{...})
//	b.EnableCompression()
//	// Optionally start a section and add things to that section.
//	// Repeat adding sections as necessary.
//	buf, err := b.Finish()
//	// If err is nil, buf[2:] will contain the built bytes.
type Builder struct {
	// msg is the storage for the message being built.
	msg []byte

		}
	}

	// TODO(golang.org/issue/33284): attribute changes to command line arguments.
	// For modules matched by command line arguments, this probably isn't
	// necessary, but it would be useful for unmatched direct dependencies of
	// the main module.
}

// resolve records that module m must be at its indicated version (which may be

		}
		n += copy(out, buf[addr%SizeofPtr:])
		out = out[n:]
	}

	// Remainder.
	for len(out) > 0 {
		// We use an internal buffer to guarantee alignment.
		// It's not documented if this is necessary, but we're paranoid.
		err = ptracePtr(req, pid, addr+uintptr(n), unsafe.Pointer(&buf[0]))
		if err != nil {
			return n, err
		}
		copied := copy(out, buf[0:])
		n += copied
		out = out[copied:]

		// a field declaration cannot start with a '(' but we accept
		// it here for more robust parsing and better error messages
		// (parseFieldDecl will check and complain if necessary)
		list = append(list, p.parseFieldDecl())
	}
	rbrace := p.expect(token.RBRACE)

	return &ast.StructType{
		Struct: pos,
		Fields: &ast.FieldList{
			Opening: lbrace,
			List:    list,

This allows us to model the JaCoCo Java agent, thus declaring the necessary JVM arguments and providing the inputs and outputs to Gradle:

====
[source,java]
.JacocoAgent.java
----
class JacocoAgent implements CommandLineArgumentProvider {
    private final JacocoTaskExtension jacoco;