// 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.
//

		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.

			if err := DB.Migrator().DropTable(table); err != nil {
				t.Fatalf("failed to drop table, got error: %v", err)
			}
			if err := DB.Table(table).AutoMigrate(test.from); err != nil {
				t.Fatalf("failed to migrate table, got error: %v", err)
			}
			if err := DB.Table(table).AutoMigrate(test.to); err != nil {
				t.Fatalf("failed to migrate table, got error: %v", err)
			}
			test.checkFunc(t)
		})

// license that can be found in the LICENSE file.

//go:generate go run gen.go gen_index.go -output tables.go
//go:generate go run gen_parents.go

package compact

// TODO: Remove above NOTE after:
// - verifying that tables are dropped correctly (most notably matcher tables).

import (
	"strings"

	"golang.org/x/text/internal/language"
)

    eraseAll();
  }

  private ArrayTable(Table<R, C, ? extends @Nullable V> table) {
    this(table.rowKeySet(), table.columnKeySet());
    putAll(table);
  }

  private ArrayTable(ArrayTable<R, C, V> table) {
    rowList = table.rowList;
    columnList = table.columnList;
    rowKeyToIndex = table.rowKeyToIndex;
    columnKeyToIndex = table.columnKeyToIndex;
    @SuppressWarnings("unchecked")

For context, there are 3 basic iptables binaries we use.

- iptables
- iptables-save
- iptables-restore

But with the kernel legacy/nft split, there are parallel binaries for each of those, and again for ipv6 tables, so the actual potential binary set on any given linux machine can be some combination of:

- iptables-legacy
- iptables-nft
- ip6tables
- iptables-legacy-save
- iptables-nft-save
- iptables-legacy-restore

## Create the tables

In this case, we are creating the tables in the same Python file, but in production, you would probably want to create them with Alembic, integrated with migrations, etc.

Here, this section would run directly, right before starting your **FastAPI** application.

* Create an `engine`.
* Create all the tables from the `metadata` object.

```Python hl_lines="25-28"

	}

	writeSecSize(ctxt, sizeOffset)
}

// writeElementSec writes the section that initializes the tables declared by the "table" section.
// The table for CallIndirect gets initialized in a very simple way so that each table index (PC_F value)
// maps linearly to the function index (numImports + PC_F).
func writeElementSec(ctxt *ld.Link, numImports, numFns uint64) {