if association.Relationship.Field.FieldType.Kind() == reflect.Struct {
						assignBacks = append(assignBacks, assignBack{Source: source, Dest: rv.Index(0)})
					}
				}
			case reflect.Struct:
				if !rv.CanAddr() {
					association.Error = ErrInvalidValue
					return
				}
				association.Error = association.Relationship.Field.Set(association.DB.Statement.Context, source, rv.Addr().Interface())

	for idx, field := range fields {
		if field != nil {
			values[idx] = field.NewValuePool.Get()
		} else if len(fields) == 1 {
			if reflectValue.CanAddr() {
				values[idx] = reflectValue.Addr().Interface()
			} else {
				values[idx] = reflectValue.Interface()
			}
		}
	}

	db.RowsAffected++
	db.AddError(rows.Scan(values...))

			"FullRuneInString",
			"RuneLen",
			"AppendRune",
			"ValidRune",
		},
		"unicode/utf16": {
			"Decode",
		},
		"reflect": {
			"Value.Bool",
			"Value.Bytes",
			"Value.CanAddr",
			"Value.CanComplex",
			"Value.CanFloat",
			"Value.CanInt",
			"Value.CanInterface",
			"Value.CanSet",
			"Value.CanUint",
			"Value.Cap",
			"Value.Complex",
			"Value.Float",

	}

	// Unless it's an interface, need to get to a value of type *T to guarantee
	// we see all methods of T and *T.
	ptr := receiver
	if ptr.Kind() != reflect.Interface && ptr.Kind() != reflect.Pointer && ptr.CanAddr() {
		ptr = ptr.Addr()
	}
	if method := ptr.MethodByName(fieldName); method.IsValid() {
		return s.evalCall(dot, method, false, node, fieldName, args, final)
	}
	hasArgs := len(args) > 1 || !isMissing(final)

	canAddrEnc, elseEnc encoderFunc
}

func (ce condAddrEncoder) encode(e *encodeState, v reflect.Value, opts encOpts) {
	if v.CanAddr() {
		ce.canAddrEnc(e, v, opts)
	} else {
		ce.elseEnc(e, v, opts)
	}
}

// newCondAddrEncoder returns an encoder that checks whether its value
// CanAddr and delegates to canAddrEnc if so, else to elseEnc.
func newCondAddrEncoder(canAddrEnc, elseEnc encoderFunc) encoderFunc {

	//	- flagStickyRO: obtained via unexported not embedded field, so read-only
	//	- flagEmbedRO: obtained via unexported embedded field, so read-only
	//	- flagIndir: val holds a pointer to the data
	//	- flagAddr: v.CanAddr is true (implies flagIndir)
	// Value cannot represent method values.
	// The next five bits give the Kind of the value.
	// This repeats typ.Kind() except for method values.

	return *(*[]rune)(v.ptr)
}

// CanAddr reports whether the value's address can be obtained with [Value.Addr].
// Such values are called addressable. A value is addressable if it is
// an element of a slice, an element of an addressable array,
// a field of an addressable struct, or the result of dereferencing a pointer.
// If CanAddr returns false, calling [Value.Addr] will panic.
func (v Value) CanAddr() bool {
	return v.flag&flagAddr != 0

			rt = rt.Elem()
		}
	}
	var op encOp
	op = func(i *encInstr, state *encoderState, v reflect.Value) {
		if ut.encIndir == -1 {
			// Need to climb up one level to turn value into pointer.
			if !v.CanAddr() {
				errorf("unaddressable value of type %s", rt)
			}
			v = v.Addr()
		}
		if !state.sendZero && v.IsZero() {
			return
		}
		state.update(i)
		state.enc.encodeGobEncoder(state.b, ut, v)
	}

			}
			// reflection requires that the value be addressable in order to call set,
			// so we must ensure the value we created is available on the heap (not a problem
			// for normal usage)
			if !tt.args.v.CanAddr() {
				x := reflect.New(tt.args.v.Type())
				x.Elem().Set(tt.args.v)
				tt.args.v = x.Elem()
			}
			growSlice(tt.args.v, tt.args.maxCapacity, tt.args.sizes...)
			if tt.cap != tt.args.v.Cap() {

		case 's', 'q', 'x', 'X':
			// Handle byte and uint8 slices and arrays special for the above verbs.
			t := f.Type()
			if t.Elem().Kind() == reflect.Uint8 {
				var bytes []byte
				if f.Kind() == reflect.Slice || f.CanAddr() {
					bytes = f.Bytes()
				} else {
					// We have an array, but we cannot Bytes() a non-addressable array,
					// so we build a slice by hand. This is a rare case but it would be nice