def LegalizeReal : Pat<(TF_RealOp $arg), (TFL_RealOp $arg)>;

def LegalizeImag : Pat<(TF_ImagOp $arg), (TFL_ImagOp $arg)>;

def LegalizeBucketize : Pat<
  (TF_BucketizeOp $input, F32ArrayAttr:$boundaries),
  (TFL_BucketizeOp $input, $boundaries)>;

def LegalizeRandomUniform : Pat<
  (TF_RandomUniformOp $shape, $seed, $seed2),
  (TFL_RandomUniformOp $shape, (convertIntAttrTo64Bit $seed),
   (convertIntAttrTo64Bit $seed2))>;

   * is unnecessary; for example, {@code copyOf(copyOf(anArrayList))} will copy the data only once.
   * This reduces the expense of habitually making defensive copies at API boundaries. However, the
   * precise conditions for skipping the copy operation are undefined.
   *
   * @throws NullPointerException if any of {@code elements} is null
   * @since 7.0 (source-compatible since 2.0)
   */

  /** Headers are compressed, then framed.  */
  @Test fun pushPromiseThenContinuation() {
    val expectedPromisedStreamId = 11
    val pushPromise = largeHeaders()

    // Decoding the first header will cross frame boundaries.
    val headerBlock = literalHeaders(pushPromise)

    // Write the first headers frame.
    writeMedium(frame, Http2.INITIAL_MAX_FRAME_SIZE)
    frame.writeByte(Http2.TYPE_PUSH_PROMISE)

		// and exclusive upper-bound (e.g. 48-byte size class is
		// [33, 49)). We can achieve this by shifting all bucket
		// boundaries up by 1.
		//
		// Also, a float64 can precisely represent integers with
		// value up to 2^53 and size classes are relatively small
		// (nowhere near 2^48 even) so this will give us exact
		// boundaries.
		sizeClassBuckets[i] = float64(class_to_size[i] + 1)
	}
	sizeClassBuckets = append(sizeClassBuckets, float64Inf())

func splitTrace(parsed *parsedTrace) ([]traceviewer.Range, error) {
	// TODO(mknyszek): Split traces by generation by doing a quick first pass over the
	// trace to identify all the generation boundaries.
	s, c := traceviewer.SplittingTraceConsumer(100 << 20) // 100 MiB
	if err := generateTrace(parsed, defaultGenOpts(), c); err != nil {
		return nil, err
	}
	return s.Ranges, nil
}

const DirectioAlignSize = 4096

// CopyAligned - copies from reader to writer using the aligned input
// buffer, it is expected that input buffer is page aligned to
// 4K page boundaries. Without passing aligned buffer may cause
// this function to return error.
//
// This code is similar in spirit to io.Copy but it is only to be
// used with DIRECT I/O based file descriptor and it is expected that

====

That's all.
If you run your application, by executing the `run` task or through a <<#sec:the_distribution,generated start script>>, it will run as module and respect module boundaries at runtime.
For example, reflective access to an internal package from another module can fail.

The configured _main class_ is also baked into the `module-info.class` file of your application Jar.

		return _EXCEPTION_CONTINUE_SEARCH_SEH
	}
	// The Windows SEH machinery will unwind the stack until it finds
	// a frame with a handler for the exception or until the frame is
	// outside the stack boundaries, in which case it will call the
	// UnhandledExceptionFilter. Unfortunately, it doesn't know about
	// the goroutine stack, so it will stop unwinding when it reaches the

   * is unnecessary; for example, {@code copyOf(copyOf(anArrayList))} will copy the data only once.
   * This reduces the expense of habitually making defensive copies at API boundaries. However, the
   * precise conditions for skipping the copy operation are undefined.
   *
   * @throws NullPointerException if any of {@code elements} is null
   * @since 7.0 (source-compatible since 2.0)
   */

Also consider that the more parts of your build logic rely on the dynamic aspects of Groovy, the harder they will be to use from the Kotlin DSL.
You'll find recipes on how to cross the dynamic boundaries from static Kotlin in the <<kotlin_dsl.adoc#sec:interoperability,interoperability section of the Gradle Kotlin DSL documentation>>, regardless of where the dynamic Groovy build logic resides.