* A `run` task of type link:{groovyDslPath}/org.gradle.nativeplatform.test.tasks.RunTestExecutable.html[RunTestExecutable] that runs the test executable

The test plugins configure the required pieces of information appropriately.
In addition, they attach the `run` task to the `check` lifecycle task.
It also create the `testImplementation` dependency configuration.

// not at a normalization boundary, the bytes will be buffered for the next
// write. The remaining bytes will be written on close.
func (w *normWriter) Write(data []byte) (n int, err error) {
	// Process data in pieces to keep w.buf size bounded.
	const chunk = 4000

	for len(data) > 0 {
		// Normalize into w.buf.
		m := len(data)
		if m > chunk {
			m = chunk
		}
		w.rb.src = inputBytes(data[:m])
		w.rb.nsrc = m

====

The standalone project applies `jacoco-report-aggregation`, but requires additional configuration if the `jvm-test-suite` plugin is not also present.

In this scenario, two additional pieces of setup are necessary:

<1> Declare dependencies using the `jacocoAggregation` configuration
<2> Define a report of type `JacocoCoverageReport` which collects coverage data from unit test suites

The standalone project applies `test-report-aggregation`, but requires additional configuration if the `jvm-test-suite` plugin is not also present (it will be automatically applied by the `java` plugin).

In this scenario, two additional pieces of setup are necessary:

<1> Declare dependencies using the `testReportAggregation` configuration
<2> Define a report of type `AggregateTestReport` which collects test data from unit test suites

// not at a normalization boundary, the bytes will be buffered for the next
// write. The remaining bytes will be written on close.
func (w *normWriter) Write(data []byte) (n int, err error) {
	// Process data in pieces to keep w.buf size bounded.
	const chunk = 4000

	for len(data) > 0 {
		// Normalize into w.buf.
		m := len(data)
		if m > chunk {
			m = chunk
		}
		w.rb.src = inputBytes(data[:m])
		w.rb.nsrc = m

    public void merge(ArtifactMetadata metadata) {
        ProjectArtifactMetadata m = (ProjectArtifactMetadata) metadata;
        if (!m.file.equals(file)) {
            throw new IllegalStateException("Cannot add two different pieces of metadata for: " + getKey());
        }
    }

    public void merge(org.apache.maven.repository.legacy.metadata.ArtifactMetadata metadata) {
        this.merge((ArtifactMetadata) metadata);
    }

      if (env_->FileExists(file_path).ok()) {
        TF_CHECK_OK(api_def_map_->LoadFile(env_, file_path)) << file_path;
      } else {
        // API defs are currently used for only optional pieces.
      }
    }
  }

  // Doc strings (summary, description) typically come from the API def.
  api_def_map_->UpdateDocs();
}

void Controller::BuildModel() {

	// trying to give memory back to the operating system, which happens on a time
	// scale of minutes. It doesn't have to be terribly fast. Instead of extra bookkeeping
	// on all our VirtualAlloc calls, try freeing successively smaller pieces until
	// we manage to free something, and then repeat. This ends up being O(n log n)
	// in the worst case, but that's fast enough.
	for n > 0 {
		small := n

  /**
   * Returns a splitter that divides strings into pieces of the given length. For example, {@code
   * Splitter.fixedLength(2).split("abcde")} returns an iterable containing {@code ["ab", "cd",
   * "e"]}. The last piece can be smaller than {@code length} but will never be empty.
   *
   * <p><b>Note:</b> if {@link #fixedLength} is used in conjunction with {@link #limit}, the final

## Développement

Au moment où j'ai commencé à créer **FastAPI** lui-même, la plupart des pièces étaient déjà en place, la conception était définie, les exigences et les outils étaient prêts, et la connaissance des normes et des spécifications était claire et fraîche.

## Futur