}, {
		SQL:          "name1 = @name1 AND name2 = @name2 AND name3 = @name1",
		Vars:         []interface{}{sql.Named("name1", "jinzhu"), sql.Named("name2", "jinzhu2")},
		Result:       "name1 = ? AND name2 = ? AND name3 = ?",
		ExpectedVars: []interface{}{"jinzhu", "jinzhu2", "jinzhu"},
	}, {
		SQL:          "name1 = @name1 AND name2 = @name2 AND name3 = @name1",
		Vars:         []interface{}{map[string]interface{}{"name1": "jinzhu", "name2": "jinzhu2"}},

        String name = searcher.getName();
        assertNotNull(name);
        assertTrue(name.equals("my_custom") || name.equals("mycustom"));
    }

    /**
     * Test getName() is cached (lazily initialized).
     */
    @Test
    public void test_getNameCached() {
        final TestSearcher searcher = new TestSearcher();
        final String name1 = searcher.getName();

  goreposum computes a checksum of all the named state in the remote repo.
  It hashes together all the branch names and hashes
  and then all the bookmark names and hashes.
  Tags are stored in .hgtags files in any of the branches,
  so the branch metadata includes the tags as well.
  """
  h = hashlib.sha256()
  peer = hg.peer(ui, {}, url)
  for name, revs in peer.branchmap().items():
    h.update(name)
    for r in revs:
      h.update(b' ')

  // Attempts to look up the tensor named "name" and stores the found result in
  // "out_tensor".
  void GetTensor(const std::string& name,
                 std::unique_ptr<tensorflow::Tensor>* out_tensor,
                 TF_Status* out_status) const;

 private:
  // Uses "v2_reader_" to build "var name -> shape" and "var name -> data type"
  // maps; both owned by caller.

        assertEquals(engine2, retrievedByClass);

        // But original names should still work
        assertEquals(engine1, scriptEngineFactory.getScriptEngine("name1"));
        assertEquals(engine2, scriptEngineFactory.getScriptEngine("name2"));
    }

    // Test with engine that has very long class name
    @Test
    public void test_add_longClassName() {

environment variables work in a similar way for C++ code.

# Go references to C

Within the Go file, C's struct field names that are keywords in Go
can be accessed by prefixing them with an underscore: if x points at a C
struct with a field named "type", x._type accesses the field.
C struct fields that cannot be expressed in Go, such as bit fields
or misaligned data, are omitted in the Go struct, replaced by

                // Multi-module project: artifactId may match any declared module name
                message = String.format(
                        "Cannot attach artifact to project: groupId and version must match the project, "
                                + "and artifactId must match either the project or a declared module name.%n"
                                + "  Project coordinates:  %s:%s:%s%n"

  dependencies { osgiApi(kotlinOsgi) }

  tasks.named<GradleJar>("jvmJar").configure {
    val bundleExtension =
      extensions.create(
        BundleTaskExtension.NAME,
        BundleTaskExtension::class.java,
        this,
      )
    val osgiApiArtifacts = osgiApi.artifacts
    val jvmMainClasses = tasks.named("jvmMainClasses").map { it.outputs.files }
    bundleExtension.apply {

        assertEquals("name1", map1.get("name"));

        Map<String, Object> map2 = resultList.get(1);
        assertEquals("name2", map2.get("name"));
    }

    @Test
    public void test_register_entitySet() {
        RenderData data = new RenderData();

        BsUser entity1 = new BsUser();
        entity1.setName("name1");

        BsUser entity2 = new BsUser();

is the name <code>foo</code> as an address in memory.
This form is used to name global functions and data.
Adding <code>&lt;&gt;</code> to the name, as in <span style="white-space: nowrap"><code>foo&lt;&gt;(SB)</code></span>, makes the name
visible only in the current source file, like a top-level <code>static</code> declaration in a C file.
Adding an offset to the name refers to that offset from the symbol's address, so