}

	// Parameter "obj" is a table from server; print it.
	// display tables following the rules of options
	if table, ok := obj.(*metav1.Table); ok {
		// Do not print headers if this table has no column definitions, or they are the same as the last ones we printed
		localOptions := h.options
		if h.printedHeaders && (len(table.ColumnDefinitions) == 0 || reflect.DeepEqual(table.ColumnDefinitions, h.lastColumns)) {

)

// Namer namer interface
type Namer interface {
	TableName(table string) string
	SchemaName(table string) string
	ColumnName(table, column string) string
	JoinTableName(joinTable string) string
	RelationshipFKName(Relationship) string
	CheckerName(table, column string) string
	IndexName(table, column string) string
	UniqueName(table, column string) string
}

// Replacer replacer interface like strings.Replacer

		}

		// Check file table.
		if !ignore {
			if !compareFiles(files[0], lr.Files()) {
				t.Log("File tables do not match. Got:")
				dumpFiles(t, lr.Files())
				t.Log("Want:")
				dumpFiles(t, files[0])
				t.Fail()
			}
			files = files[1:]
		}
	}

	// Compare line tables.
	if !compareLines(t, got, want) {
		t.Log("Line tables do not match. Got:")
		dumpLines(t, got)

// between drivers. The ValueConverters have several uses:
//
//   - converting from the [Value] types as provided by the sql package
//     into a database table's specific column type and making sure it
//     fits, such as making sure a particular int64 fits in a
//     table's uint16 column.
//
//   - converting a value as given from the database into one of the
//     driver [Value] types.
//

    return row(rowKey).put(columnKey, value);
  }

  @Override
  public void putAll(Table<? extends R, ? extends C, ? extends V> table) {
    for (Table.Cell<? extends R, ? extends C, ? extends V> cell : table.cellSet()) {
      put(cell.getRowKey(), cell.getColumnKey(), cell.getValue());
    }
  }

	return fmt.Sprintf(":%s - [0:0]", chain)
}

// GetChainsFromTable parses iptables-save data to find the chains that are defined. It
// assumes that save contains a single table's data, and returns a set with keys for every
// chain defined in that table.
func GetChainsFromTable(save []byte) sets.Set[Chain] {
	chainsSet := sets.New[Chain]()

	for {
		i := bytes.Index(save, []byte("\n:"))
		if i == -1 {
			break
		}

		if tables := strings.Split(stmt.Schema.Table, "."); len(tables) == 2 {
			stmt.TableExpr = &clause.Expr{SQL: stmt.Quote(stmt.Schema.Table)}
			stmt.Table = tables[1]
			return
		}

		stmt.Table = stmt.Schema.Table
	}
	return err
}

func (stmt *Statement) clone() *Statement {
	newStmt := &Statement{

labels.menu_system	=	Système
labels.menu_wizard	=	Assistant
labels.menu_crawl_config	=	Général
labels.menu_scheduler_config	=	Planificateur
labels.menu_dashboard_config	=	Tableau de bord
labels.menu_design	=	Conception de pages
labels.menu_dict	=	Dictionnaire
labels.menu_data	=	Restauration de sauvegarde
labels.menu_crawl	=	Crawler
labels.menu_web	=	Web

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.

//	sparse files      |     no |       yes |       yes
//
// The table's upper portion shows the [Header] fields, where each format reports
// the maximum number of bytes allowed for each string field and
// the integer type used to store each numeric field
// (where timestamps are stored as the number of seconds since the Unix epoch).
//
// The table's lower portion shows specialized features of each format,