* <p>The returned table will be serializable if the specified table is serializable.
   *
   * @param table the table to be wrapped in a synchronized view
   * @return a synchronized view of the specified table
   * @since 22.0
   */
  public static <R extends @Nullable Object, C extends @Nullable Object, V extends @Nullable Object>
      Table<R, C, V> synchronizedTable(Table<R, C, V> table) {
    return Synchronized.table(table, null);
  }

   * <p>The returned table will be serializable if the specified table is serializable.
   *
   * @param table the table to be wrapped in a synchronized view
   * @return a synchronized view of the specified table
   * @since 22.0
   */
  public static <R extends @Nullable Object, C extends @Nullable Object, V extends @Nullable Object>
      Table<R, C, V> synchronizedTable(Table<R, C, V> table) {
    return Synchronized.table(table, null);
  }

			`</Tables>`,
		tab: Tables{"hello", "world"},
	},
	{
		xml: `<Tables>` +
			`<table>bogus</table>` +
			`</Tables>`,
		tab: Tables{},
	},
	{
		xml: `<Tables>` +
			`<table>only</table>` +
			`</Tables>`,
		tab: Tables{HTable: "only"},
		ns:  "http://www.w3.org/TR/html4/",
	},
	{
		xml: `<Tables>` +
			`<table>only</table>` +
			`</Tables>`,
		tab: Tables{FTable: "only"},

    }

    abstract Table<String, Integer, Character> makeTable();

    @Override
    protected Map<String, Map<Integer, Character>> makePopulatedMap() {
      Table<String, Integer, Character> table = makeTable();
      populateTable(table);
      return table.rowMap();
    }

    void populateTable(Table<String, Integer, Character> table) {
      table.put("foo", 1, 'a');

  }

  /**
   * Returns an immutable copy of the provided table.
   *
   * <p>The {@link Table#cellSet()} iteration order of the provided table determines the iteration
   * ordering of all views in the returned table. Note that some views of the original table and the
   * copied table may have different iteration orders. For more control over the ordering, create a

		return fmt.Errorf("fakedb: create table of %q len(names) != len(types): %d vs %d",
			name, len(columnNames), len(columnTypes))
	}
	db.tables[name] = &table{colname: columnNames, coltype: columnTypes}
	return nil
}

// must be called with db.mu lock held
func (db *fakeDB) table(table string) (*table, bool) {
	if db.tables == nil {
		return nil, false
	}
	t, ok := db.tables[table]
	return t, ok
}

	modelValue := reflect.New(modelType)
	tableName := namer.TableName(modelType.Name())
	if tabler, ok := modelValue.Interface().(Tabler); ok {
		tableName = tabler.TableName()
	}
	if tabler, ok := modelValue.Interface().(TablerWithNamer); ok {
		tableName = tabler.TableName(namer)
	}
	if en, ok := namer.(embeddedNamer); ok {
		tableName = en.Table
	}
	if specialTableName != "" && specialTableName != tableName {

    TFE_MonitoringStringGauge1* gauge, const char* label1) {
  return static_cast<TFE_MonitoringStringGaugeCell*>(
      static_cast<void*>(gauge->gauge->GetCell(label1)));
}

TFE_MonitoringStringGauge2* TFE_MonitoringNewStringGauge2(
    const char* name, TF_Status* status, const char* description,
    const char* label1, const char* label2) {
  auto* result =

An ORM has tools to convert ("*map*") between *objects* in code and database tables ("*relations*").

With an ORM, you normally create a class that represents a table in a SQL database, each attribute of the class represents a column, with a name and a type.

For example a class `Pet` could represent a SQL table `pets`.

And each *instance* object of that class represents a row in the database.

    const char* name, TF_Status* status, const char* description,
    const char* label1);
TF_CAPI_EXPORT extern void TFE_MonitoringDeleteCounter1(
    TFE_MonitoringCounter1* counter);
TF_CAPI_EXPORT extern TFE_MonitoringCounterCell* TFE_MonitoringGetCellCounter1(
    TFE_MonitoringCounter1* counter, const char* label1);

// APIs for Counter with 2 labels.
typedef struct TFE_MonitoringCounter2 TFE_MonitoringCounter2;