}

  public void testContainsColumn() {
    assertTrue(testTable.containsColumn(1));
    assertFalse(testTable.containsColumn(2));
  }

  public void testContainsRow() {
    assertTrue(testTable.containsRow('a'));
    assertFalse(testTable.containsRow('A'));
  }

  public void testContainsValue() {
    assertTrue(testTable.containsValue("blah"));

	{"id": 2,"title": "Second Record","desc": "another text","numbers": [2, 3.0, 4]}
	{"id": 3,"title": "Second Record","desc": "another text","nested": [[2, 3.0, 4], [7, 8.5, 9]]}`

	testTable := []struct {
		name       string
		query      string
		requestXML []byte // override request XML
		wantResult string
		withJSON   string // Override JSON input
	}{
		{
			name:       "select-in-array-full",

    }

    private static final long serialVersionUID = 0;
  }

  @Override
  protected Table<String, Integer, Character> create(@Nullable Object... data) {
    TestTable<String, Integer, Character> table = new TestTable<>();
    Table<String, Integer, Character> synced = Synchronized.table(table, table.mutex);
    populate(synced, data);
    return synced;
  }

    }

    private static final long serialVersionUID = 0;
  }

  @Override
  protected Table<String, Integer, Character> create(@Nullable Object... data) {
    TestTable<String, Integer, Character> table = new TestTable<>();
    Table<String, Integer, Character> synced = Synchronized.table(table, table.mutex);
    populate(synced, data);
    return synced;
  }

	"gorm.io/gorm/utils/tests"
	. "gorm.io/gorm/utils/tests"
)

type UserWithTable struct {
	gorm.Model
	Name string
}

func (UserWithTable) TableName() string {
	return "gorm.user"
}

func TestTable(t *testing.T) {
	dryDB := DB.Session(&gorm.Session{DryRun: true})

	r := dryDB.Table("`user`").Find(&User{}).Statement
	if !regexp.MustCompile("SELECT \\* FROM `user`").MatchString(r.Statement.SQL.String()) {

    assertNotInstantiable(new TypeToken<BiMap<EmptyEnum, String>>() {});
  }

  public void testHashBiMap() {
    assertFreshInstance(new TypeToken<HashBiMap<String, ?>>() {});
  }

  public void testTable() {
    assertFreshInstance(new TypeToken<Table<String, ?, ?>>() {});
    assertNotInstantiable(new TypeToken<Table<EmptyEnum, String, Integer>>() {});
  }

  public void testHashBasedTable() {

    assertNotInstantiable(new TypeToken<BiMap<EmptyEnum, String>>() {});
  }

  public void testHashBiMap() {
    assertFreshInstance(new TypeToken<HashBiMap<String, ?>>() {});
  }

  public void testTable() {
    assertFreshInstance(new TypeToken<Table<String, ?, ?>>() {});
    assertNotInstantiable(new TypeToken<Table<EmptyEnum, String, Integer>>() {});
  }

  public void testHashBasedTable() {

              }
            })
        .start();

    Uninterruptibles.awaitUninterruptibly(latch);

    // See Dispatcher.LegacyAsyncDispatcher for an explanation of why there aren't really any
    // useful testable guarantees about the behavior of that dispatcher in a multithreaded
    // environment. Here we simply test that all the expected dispatches happened in some order.

              }
            })
        .start();

    Uninterruptibles.awaitUninterruptibly(latch);

    // See Dispatcher.LegacyAsyncDispatcher for an explanation of why there aren't really any
    // useful testable guarantees about the behavior of that dispatcher in a multithreaded
    // environment. Here we simply test that all the expected dispatches happened in some order.

				InitExitCode:       126,
				InitTerminationMsg: "Died for some reason",
				LabelKey:           "testlabel",
				LabelValue:         "true",
			},
			wantLabels: map[string]string{workingPod.Name: "", workingPodDiedPreviously.Name: "", brokenPodTerminating.Name: "testlabel=true"},
			wantCount:  1,
			wantTags:   map[string]string{"result": resultSkip, "type": labelType},
		},
	}