}
			a.Reg = arm64.REG_UXTX + Rnum
		case "SXTB":
			if a.Type == obj.TYPE_MEM {
				return errors.New("invalid shift for the register offset addressing mode")
			}
			a.Reg = arm64.REG_SXTB + Rnum
		case "SXTH":
			if a.Type == obj.TYPE_MEM {
				return errors.New("invalid shift for the register offset addressing mode")
			}
			a.Reg = arm64.REG_SXTH + Rnum

<code>cmd/internal/obj/x86/a.out.go</code>.
</p>

<p>
The architectures share syntax for common addressing modes such as
<code>(R1)</code> (register indirect),
<code>4(R1)</code> (register indirect with offset), and
<code>$foo(SB)</code> (absolute address).
The assembler also supports some (not necessarily all) addressing modes
specific to each architecture.
The sections below list these.
</p>

<p>

				// The Loong64 RDTIME family of instructions is a bit special,
				// in that both its register operands are outputs
				prog.To = a[0]
				if a[1].Type != obj.TYPE_REG {
					p.errorf("invalid addressing modes for 2nd operand to %s instruction, must be register", op)
					return
				}
				prog.RegTo2 = a[1].Reg
				break
			}

			if arch.IsLoong64PRELD(op) {
				prog.From = a[0]

  @SuppressWarnings("unchecked")
  static final ImmutableMap<Object, Object> EMPTY =
      new RegularImmutableMap<>((Entry<Object, Object>[]) ImmutableMap.EMPTY_ENTRY_ARRAY, null, 0);

  /**
   * Closed addressing tends to perform well even with high load factors. Being conservative here
   * ensures that the table is still likely to be relatively sparse (hence it misses fast) while
   * saving space.
   */

		a.Sym = p.ctxt.LookupABI(name, abi)
	}
	if p.peek() == scanner.EOF {
		if prefix == 0 && p.isJump {
			// Symbols without prefix or suffix are jump labels.
			return
		}
		p.errorf("illegal or missing addressing mode for symbol %s", name)
		return
	}
	// Expect (SB), (FP), (PC), or (SP)
	p.get('(')
	reg := p.get(scanner.Ident).String()
	p.get(')')
	p.setPseudoRegister(a, reg, isStatic, prefix)
}

  private static final int CUTOFF = (int) (MAX_TABLE_SIZE * DESIRED_LOAD_FACTOR);

  /**
   * Returns an array size suitable for the backing array of a hash table that uses open addressing
   * with linear probing in its implementation. The returned size is the smallest power of two that
   * can hold setSize elements with the desired load factor. Always returns at least setSize + 2.
   */

            assertNotNull(resource.getContext(), "Should have CIFS context for SMB operations");
            assertNotNull(resource.getLocator(), "Should have resource locator for SMB addressing");

            // Verify interface provides SMB-specific functionality
            assertTrue(SmbResource.class.isInterface(), "Should be an interface");

				VisitingAddress: EmbeddedAddress{
					ID:        org.VisitingAddress.ID,
					Name:      org.VisitingAddress.Name,
					CountryID: org.VisitingAddress.CountryID,
					Country:   nil,
				},
				AddressID: org.AddressID,
				Address:   org.Address,
				NestedAddress: NestedAddress{EmbeddedAddress{
					ID:        org.NestedAddress.ID,
					Name:      org.NestedAddress.Name,
					CountryID: org.NestedAddress.CountryID,

	address2 := Address{Name: "address 2"}
	DB.Save(&address1).Save(&address2)

	DB.Create(&PersonAddress{PersonID: person1.ID, AddressID: int(address1.ID)})
	DB.Create(&PersonAddress{PersonID: person1.ID, AddressID: int(address2.ID)})
	DB.Create(&PersonAddress{PersonID: person2.ID, AddressID: int(address1.ID)})

	var personAddressInfoList []*PersonAddressInfo
	if err := DB.Select("people.*, addresses.*").
		Table("people").

	}
	type Org struct {
		ID              int
		PostalAddress   Address `gorm:"embedded;embeddedPrefix:postal_address_"`
		VisitingAddress Address `gorm:"embedded;embeddedPrefix:visiting_address_"`
		AddressID       int
		Address         struct {
			ID int
			Address
		}
		NestedAddress *NestedAddress `gorm:"embedded;embeddedPrefix:nested_address_"`
		CountryMixin
	}