AWORD

	// Pseudo-instructions.  These get translated by the assembler into other
	// instructions, based on their operands.
	ABEQZ
	ABGEZ
	ABGT
	ABGTU
	ABGTZ
	ABLE
	ABLEU
	ABLEZ
	ABLTZ
	ABNEZ
	AFABSD
	AFABSS
	AFNEGD
	AFNEGS
	AFNED
	AFNES
	AMOV
	AMOVB
	AMOVBU
	AMOVF
	AMOVD
	AMOVH
	AMOVHU
	AMOVW
	AMOVWU
	ANEG
	ANEGW

	ProtocolIPv6 Protocol = "IPv6"
)

// Table represents different iptable like filter,nat, mangle and raw
type Table string

const (
	// TableNAT represents the built-in nat table
	TableNAT Table = "nat"
	// TableFilter represents the built-in filter table
	TableFilter Table = "filter"
	// TableMangle represents the built-in mangle table
	TableMangle Table = "mangle"
)

    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")

  }

  /**
   * 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

				next:   t.next,
			}
			t.prefix = t.prefix[:n]
			t.next = next
			next.add(key[n:], val, priority, r)
		}
	} else if t.table != nil {
		// Insert into existing table.
		m := r.mapping[key[0]]
		if t.table[m] == nil {
			t.table[m] = new(trieNode)
		}
		t.table[m].add(key[1:], val, priority, r)
	} else {
		t.prefix = key
		t.next = new(trieNode)
		t.next.add("", val, priority, r)
	}
}

## 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"

    func.return
  }
}

// -----

module attributes {tf_saved_model.semantics} {

  "tf_saved_model.asset"() {filename = "assets/table.txt", sym_name = "v"} : () -> ()
  "tf_saved_model.asset"() {filename = "assets/table2.txt", sym_name = "w"} : () -> ()

  // CHECK: func @f()

	}

	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) {

	// FuncFlagSPWrite indicates a function that writes an arbitrary value to SP
	// (any write other than adding or subtracting a constant amount).
	// The traceback routines cannot encode such changes into the
	// pcsp tables, so the function traceback cannot safely unwind past
	// SPWrite functions. Stopping at an SPWrite function is considered
	// to be an incomplete unwinding of the stack. In certain contexts

//   - the marker length "\x00\x0c",
//   - the number of components "\x03",
//   - component 1 uses DC table 0 and AC table 0 "\x01\x00",
//   - component 2 uses DC table 1 and AC table 1 "\x02\x11",
//   - component 3 uses DC table 1 and AC table 1 "\x03\x11",
//   - the bytes "\x00\x3f\x00". Section B.2.3 of the spec says that for