Internally, a Formattable object is a union of primitive types. michael@0: * As such, it can only store one flavor of data at a time. To michael@0: * determine what flavor of data it contains, use the getType method. michael@0: * michael@0: *
As of ICU 3.0, Formattable may also wrap a UObject pointer, michael@0: * which it owns. This allows an instance of any ICU class to be michael@0: * encapsulated in a Formattable. For legacy reasons and for michael@0: * efficiency, primitive numeric types are still stored directly michael@0: * within a Formattable. michael@0: * michael@0: *
The Formattable class is not suitable for subclassing. michael@0: * michael@0: *
See UFormattable for a C wrapper.
michael@0: */
michael@0: class U_I18N_API Formattable : public UObject {
michael@0: public:
michael@0: /**
michael@0: * This enum is only used to let callers distinguish between
michael@0: * the Formattable(UDate) constructor and the Formattable(double)
michael@0: * constructor; the compiler cannot distinguish the signatures,
michael@0: * since UDate is currently typedefed to be either double or long.
michael@0: * If UDate is changed later to be a bonafide class
michael@0: * or struct, then we no longer need this enum.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: enum ISDATE { kIsDate };
michael@0:
michael@0: /**
michael@0: * Default constructor
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: Formattable(); // Type kLong, value 0
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with a UDate instance.
michael@0: * @param d the UDate instance.
michael@0: * @param flag the flag to indicate this is a date. Always set it to kIsDate
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(UDate d, ISDATE flag);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with a double number.
michael@0: * @param d the double number.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(double d);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with a long number.
michael@0: * @param l the long number.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(int32_t l);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with an int64_t number
michael@0: * @param ll the int64_t number.
michael@0: * @stable ICU 2.8
michael@0: */
michael@0: Formattable(int64_t ll);
michael@0:
michael@0: #if !UCONFIG_NO_CONVERSION
michael@0: /**
michael@0: * Creates a Formattable object with a char string pointer.
michael@0: * Assumes that the char string is null terminated.
michael@0: * @param strToCopy the char string.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(const char* strToCopy);
michael@0: #endif
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object of an appropriate numeric type from a
michael@0: * a decimal number in string form. The Formattable will retain the
michael@0: * full precision of the input in decimal format, even when it exceeds
michael@0: * what can be represented by a double or int64_t.
michael@0: *
michael@0: * @param number the unformatted (not localized) string representation
michael@0: * of the Decimal number.
michael@0: * @param status the error code. Possible errors include U_INVALID_FORMAT_ERROR
michael@0: * if the format of the string does not conform to that of a
michael@0: * decimal number.
michael@0: * @stable ICU 4.4
michael@0: */
michael@0: Formattable(const StringPiece &number, UErrorCode &status);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with a UnicodeString object to copy from.
michael@0: * @param strToCopy the UnicodeString string.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(const UnicodeString& strToCopy);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with a UnicodeString object to adopt from.
michael@0: * @param strToAdopt the UnicodeString string.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(UnicodeString* strToAdopt);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object with an array of Formattable objects.
michael@0: * @param arrayToCopy the Formattable object array.
michael@0: * @param count the array count.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(const Formattable* arrayToCopy, int32_t count);
michael@0:
michael@0: /**
michael@0: * Creates a Formattable object that adopts the given UObject.
michael@0: * @param objectToAdopt the UObject to set this object to
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: Formattable(UObject* objectToAdopt);
michael@0:
michael@0: /**
michael@0: * Copy constructor.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable(const Formattable&);
michael@0:
michael@0: /**
michael@0: * Assignment operator.
michael@0: * @param rhs The Formattable object to copy into this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable& operator=(const Formattable &rhs);
michael@0:
michael@0: /**
michael@0: * Equality comparison.
michael@0: * @param other the object to be compared with.
michael@0: * @return TRUE if other are equal to this, FALSE otherwise.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: UBool operator==(const Formattable &other) const;
michael@0:
michael@0: /**
michael@0: * Equality operator.
michael@0: * @param other the object to be compared with.
michael@0: * @return TRUE if other are unequal to this, FALSE otherwise.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: UBool operator!=(const Formattable& other) const
michael@0: { return !operator==(other); }
michael@0:
michael@0: /**
michael@0: * Destructor.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: virtual ~Formattable();
michael@0:
michael@0: /**
michael@0: * Clone this object.
michael@0: * Clones can be used concurrently in multiple threads.
michael@0: * If an error occurs, then NULL is returned.
michael@0: * The caller must delete the clone.
michael@0: *
michael@0: * @return a clone of this object
michael@0: *
michael@0: * @see getDynamicClassID
michael@0: * @stable ICU 2.8
michael@0: */
michael@0: Formattable *clone() const;
michael@0:
michael@0: /**
michael@0: * Selector for flavor of data type contained within a
michael@0: * Formattable object. Formattable is a union of several
michael@0: * different types, and at any time contains exactly one type.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: enum Type {
michael@0: /**
michael@0: * Selector indicating a UDate value. Use getDate to retrieve
michael@0: * the value.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: kDate,
michael@0:
michael@0: /**
michael@0: * Selector indicating a double value. Use getDouble to
michael@0: * retrieve the value.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: kDouble,
michael@0:
michael@0: /**
michael@0: * Selector indicating a 32-bit integer value. Use getLong to
michael@0: * retrieve the value.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: kLong,
michael@0:
michael@0: /**
michael@0: * Selector indicating a UnicodeString value. Use getString
michael@0: * to retrieve the value.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: kString,
michael@0:
michael@0: /**
michael@0: * Selector indicating an array of Formattables. Use getArray
michael@0: * to retrieve the value.
michael@0: * @stable ICU 2.4
michael@0: */
michael@0: kArray,
michael@0:
michael@0: /**
michael@0: * Selector indicating a 64-bit integer value. Use getInt64
michael@0: * to retrieve the value.
michael@0: * @stable ICU 2.8
michael@0: */
michael@0: kInt64,
michael@0:
michael@0: /**
michael@0: * Selector indicating a UObject value. Use getObject to
michael@0: * retrieve the value.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: kObject
michael@0: };
michael@0:
michael@0: /**
michael@0: * Gets the data type of this Formattable object.
michael@0: * @return the data type of this Formattable object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Type getType(void) const;
michael@0:
michael@0: /**
michael@0: * Returns TRUE if the data type of this Formattable object
michael@0: * is kDouble, kLong, or kInt64
michael@0: * @return TRUE if this is a pure numeric object
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: UBool isNumeric() const;
michael@0:
michael@0: /**
michael@0: * Gets the double value of this object. If this object is not of type
michael@0: * kDouble then the result is undefined.
michael@0: * @return the double value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: double getDouble(void) const { return fValue.fDouble; }
michael@0:
michael@0: /**
michael@0: * Gets the double value of this object. If this object is of type
michael@0: * long, int64 or Decimal Number then a conversion is peformed, with
michael@0: * possible loss of precision. If the type is kObject and the
michael@0: * object is a Measure, then the result of
michael@0: * getNumber().getDouble(status) is returned. If this object is
michael@0: * neither a numeric type nor a Measure, then 0 is returned and
michael@0: * the status is set to U_INVALID_FORMAT_ERROR.
michael@0: * @param status the error code
michael@0: * @return the double value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: double getDouble(UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets the long value of this object. If this object is not of type
michael@0: * kLong then the result is undefined.
michael@0: * @return the long value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: int32_t getLong(void) const { return (int32_t)fValue.fInt64; }
michael@0:
michael@0: /**
michael@0: * Gets the long value of this object. If the magnitude is too
michael@0: * large to fit in a long, then the maximum or minimum long value,
michael@0: * as appropriate, is returned and the status is set to
michael@0: * U_INVALID_FORMAT_ERROR. If this object is of type kInt64 and
michael@0: * it fits within a long, then no precision is lost. If it is of
michael@0: * type kDouble, then a conversion is peformed, with
michael@0: * truncation of any fractional part. If the type is kObject and
michael@0: * the object is a Measure, then the result of
michael@0: * getNumber().getLong(status) is returned. If this object is
michael@0: * neither a numeric type nor a Measure, then 0 is returned and
michael@0: * the status is set to U_INVALID_FORMAT_ERROR.
michael@0: * @param status the error code
michael@0: * @return the long value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: int32_t getLong(UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets the int64 value of this object. If this object is not of type
michael@0: * kInt64 then the result is undefined.
michael@0: * @return the int64 value of this object.
michael@0: * @stable ICU 2.8
michael@0: */
michael@0: int64_t getInt64(void) const { return fValue.fInt64; }
michael@0:
michael@0: /**
michael@0: * Gets the int64 value of this object. If this object is of a numeric
michael@0: * type and the magnitude is too large to fit in an int64, then
michael@0: * the maximum or minimum int64 value, as appropriate, is returned
michael@0: * and the status is set to U_INVALID_FORMAT_ERROR. If the
michael@0: * magnitude fits in an int64, then a casting conversion is
michael@0: * peformed, with truncation of any fractional part. If the type
michael@0: * is kObject and the object is a Measure, then the result of
michael@0: * getNumber().getDouble(status) is returned. If this object is
michael@0: * neither a numeric type nor a Measure, then 0 is returned and
michael@0: * the status is set to U_INVALID_FORMAT_ERROR.
michael@0: * @param status the error code
michael@0: * @return the int64 value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: int64_t getInt64(UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets the Date value of this object. If this object is not of type
michael@0: * kDate then the result is undefined.
michael@0: * @return the Date value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: UDate getDate() const { return fValue.fDate; }
michael@0:
michael@0: /**
michael@0: * Gets the Date value of this object. If the type is not a date,
michael@0: * status is set to U_INVALID_FORMAT_ERROR and the return value is
michael@0: * undefined.
michael@0: * @param status the error code.
michael@0: * @return the Date value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: UDate getDate(UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets the string value of this object. If this object is not of type
michael@0: * kString then the result is undefined.
michael@0: * @param result Output param to receive the Date value of this object.
michael@0: * @return A reference to 'result'.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: UnicodeString& getString(UnicodeString& result) const
michael@0: { result=*fValue.fString; return result; }
michael@0:
michael@0: /**
michael@0: * Gets the string value of this object. If the type is not a
michael@0: * string, status is set to U_INVALID_FORMAT_ERROR and a bogus
michael@0: * string is returned.
michael@0: * @param result Output param to receive the Date value of this object.
michael@0: * @param status the error code.
michael@0: * @return A reference to 'result'.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: UnicodeString& getString(UnicodeString& result, UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets a const reference to the string value of this object. If
michael@0: * this object is not of type kString then the result is
michael@0: * undefined.
michael@0: * @return a const reference to the string value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: inline const UnicodeString& getString(void) const;
michael@0:
michael@0: /**
michael@0: * Gets a const reference to the string value of this object. If
michael@0: * the type is not a string, status is set to
michael@0: * U_INVALID_FORMAT_ERROR and the result is a bogus string.
michael@0: * @param status the error code.
michael@0: * @return a const reference to the string value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: const UnicodeString& getString(UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Gets a reference to the string value of this object. If this
michael@0: * object is not of type kString then the result is undefined.
michael@0: * @return a reference to the string value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: inline UnicodeString& getString(void);
michael@0:
michael@0: /**
michael@0: * Gets a reference to the string value of this object. If the
michael@0: * type is not a string, status is set to U_INVALID_FORMAT_ERROR
michael@0: * and the result is a bogus string.
michael@0: * @param status the error code.
michael@0: * @return a reference to the string value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: UnicodeString& getString(UErrorCode& status);
michael@0:
michael@0: /**
michael@0: * Gets the array value and count of this object. If this object
michael@0: * is not of type kArray then the result is undefined.
michael@0: * @param count fill-in with the count of this object.
michael@0: * @return the array value of this object.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: const Formattable* getArray(int32_t& count) const
michael@0: { count=fValue.fArrayAndCount.fCount; return fValue.fArrayAndCount.fArray; }
michael@0:
michael@0: /**
michael@0: * Gets the array value and count of this object. If the type is
michael@0: * not an array, status is set to U_INVALID_FORMAT_ERROR, count is
michael@0: * set to 0, and the result is NULL.
michael@0: * @param count fill-in with the count of this object.
michael@0: * @param status the error code.
michael@0: * @return the array value of this object.
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: const Formattable* getArray(int32_t& count, UErrorCode& status) const;
michael@0:
michael@0: /**
michael@0: * Accesses the specified element in the array value of this
michael@0: * Formattable object. If this object is not of type kArray then
michael@0: * the result is undefined.
michael@0: * @param index the specified index.
michael@0: * @return the accessed element in the array.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: Formattable& operator[](int32_t index) { return fValue.fArrayAndCount.fArray[index]; }
michael@0:
michael@0: /**
michael@0: * Returns a pointer to the UObject contained within this
michael@0: * formattable, or NULL if this object does not contain a UObject.
michael@0: * @return a UObject pointer, or NULL
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: const UObject* getObject() const;
michael@0:
michael@0: /**
michael@0: * Returns a numeric string representation of the number contained within this
michael@0: * formattable, or NULL if this object does not contain numeric type.
michael@0: * For values obtained by parsing, the returned decimal number retains
michael@0: * the full precision and range of the original input, unconstrained by
michael@0: * the limits of a double floating point or a 64 bit int.
michael@0: *
michael@0: * This function is not thread safe, and therfore is not declared const,
michael@0: * even though it is logically const.
michael@0: *
michael@0: * Possible errors include U_MEMORY_ALLOCATION_ERROR, and
michael@0: * U_INVALID_STATE if the formattable object has not been set to
michael@0: * a numeric type.
michael@0: *
michael@0: * @param status the error code.
michael@0: * @return the unformatted string representation of a number.
michael@0: * @stable ICU 4.4
michael@0: */
michael@0: StringPiece getDecimalNumber(UErrorCode &status);
michael@0:
michael@0: /**
michael@0: * Sets the double value of this object and changes the type to
michael@0: * kDouble.
michael@0: * @param d the new double value to be set.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void setDouble(double d);
michael@0:
michael@0: /**
michael@0: * Sets the long value of this object and changes the type to
michael@0: * kLong.
michael@0: * @param l the new long value to be set.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void setLong(int32_t l);
michael@0:
michael@0: /**
michael@0: * Sets the int64 value of this object and changes the type to
michael@0: * kInt64.
michael@0: * @param ll the new int64 value to be set.
michael@0: * @stable ICU 2.8
michael@0: */
michael@0: void setInt64(int64_t ll);
michael@0:
michael@0: /**
michael@0: * Sets the Date value of this object and changes the type to
michael@0: * kDate.
michael@0: * @param d the new Date value to be set.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void setDate(UDate d);
michael@0:
michael@0: /**
michael@0: * Sets the string value of this object and changes the type to
michael@0: * kString.
michael@0: * @param stringToCopy the new string value to be set.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void setString(const UnicodeString& stringToCopy);
michael@0:
michael@0: /**
michael@0: * Sets the array value and count of this object and changes the
michael@0: * type to kArray.
michael@0: * @param array the array value.
michael@0: * @param count the number of array elements to be copied.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void setArray(const Formattable* array, int32_t count);
michael@0:
michael@0: /**
michael@0: * Sets and adopts the string value and count of this object and
michael@0: * changes the type to kArray.
michael@0: * @param stringToAdopt the new string value to be adopted.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void adoptString(UnicodeString* stringToAdopt);
michael@0:
michael@0: /**
michael@0: * Sets and adopts the array value and count of this object and
michael@0: * changes the type to kArray.
michael@0: * @stable ICU 2.0
michael@0: */
michael@0: void adoptArray(Formattable* array, int32_t count);
michael@0:
michael@0: /**
michael@0: * Sets and adopts the UObject value of this object and changes
michael@0: * the type to kObject. After this call, the caller must not
michael@0: * delete the given object.
michael@0: * @param objectToAdopt the UObject value to be adopted
michael@0: * @stable ICU 3.0
michael@0: */
michael@0: void adoptObject(UObject* objectToAdopt);
michael@0:
michael@0: /**
michael@0: * Sets the the numeric value from a decimal number string, and changes
michael@0: * the type to to a numeric type appropriate for the number.
michael@0: * The syntax of the number is a "numeric string"
michael@0: * as defined in the Decimal Arithmetic Specification, available at
michael@0: * http://speleotrove.com/decimal
michael@0: * The full precision and range of the input number will be retained,
michael@0: * even when it exceeds what can be represented by a double or an int64.
michael@0: *
michael@0: * @param numberString a string representation of the unformatted decimal number.
michael@0: * @param status the error code. Set to U_INVALID_FORMAT_ERROR if the
michael@0: * incoming string is not a valid decimal number.
michael@0: * @stable ICU 4.4
michael@0: */
michael@0: void setDecimalNumber(const StringPiece &numberString,
michael@0: UErrorCode &status);
michael@0:
michael@0: /**
michael@0: * ICU "poor man's RTTI", returns a UClassID for the actual class.
michael@0: *
michael@0: * @stable ICU 2.2
michael@0: */
michael@0: virtual UClassID getDynamicClassID() const;
michael@0:
michael@0: /**
michael@0: * ICU "poor man's RTTI", returns a UClassID for this class.
michael@0: *
michael@0: * @stable ICU 2.2
michael@0: */
michael@0: static UClassID U_EXPORT2 getStaticClassID();
michael@0:
michael@0: #ifndef U_HIDE_DRAFT_API
michael@0: /**
michael@0: * Convert the UFormattable to a Formattable. Internally, this is a reinterpret_cast.
michael@0: * @param fmt a valid UFormattable
michael@0: * @return the UFormattable as a Formattable object pointer. This is an alias to the original
michael@0: * UFormattable, and so is only valid while the original argument remains in scope.
michael@0: * @draft ICU 52
michael@0: */
michael@0: static inline Formattable *fromUFormattable(UFormattable *fmt);
michael@0:
michael@0: /**
michael@0: * Convert the const UFormattable to a const Formattable. Internally, this is a reinterpret_cast.
michael@0: * @param fmt a valid UFormattable
michael@0: * @return the UFormattable as a Formattable object pointer. This is an alias to the original
michael@0: * UFormattable, and so is only valid while the original argument remains in scope.
michael@0: * @draft ICU 52
michael@0: */
michael@0: static inline const Formattable *fromUFormattable(const UFormattable *fmt);
michael@0:
michael@0: /**
michael@0: * Convert this object pointer to a UFormattable.
michael@0: * @return this object as a UFormattable pointer. This is an alias to this object,
michael@0: * and so is only valid while this object remains in scope.
michael@0: * @draft ICU 52
michael@0: */
michael@0: inline UFormattable *toUFormattable();
michael@0:
michael@0: /**
michael@0: * Convert this object pointer to a UFormattable.
michael@0: * @return this object as a UFormattable pointer. This is an alias to this object,
michael@0: * and so is only valid while this object remains in scope.
michael@0: * @draft ICU 52
michael@0: */
michael@0: inline const UFormattable *toUFormattable() const;
michael@0: #endif /* U_HIDE_DRAFT_API */
michael@0:
michael@0: #ifndef U_HIDE_DEPRECATED_API
michael@0: /**
michael@0: * Deprecated variant of getLong(UErrorCode&).
michael@0: * @param status the error code
michael@0: * @return the long value of this object.
michael@0: * @deprecated ICU 3.0 use getLong(UErrorCode&) instead
michael@0: */
michael@0: inline int32_t getLong(UErrorCode* status) const;
michael@0: #endif /* U_HIDE_DEPRECATED_API */
michael@0:
michael@0: #ifndef U_HIDE_INTERNAL_API
michael@0: /**
michael@0: * Internal function, do not use.
michael@0: * TODO: figure out how to make this be non-public.
michael@0: * NumberFormat::format(Formattable, ...
michael@0: * needs to get at the DigitList, if it exists, for
michael@0: * big decimal formatting.
michael@0: * @internal
michael@0: */
michael@0: DigitList *getDigitList() const { return fDecimalNum;}
michael@0:
michael@0: /**
michael@0: * @internal
michael@0: */
michael@0: DigitList *getInternalDigitList();
michael@0:
michael@0: /**
michael@0: * Adopt, and set value from, a DigitList
michael@0: * Internal Function, do not use.
michael@0: * @param dl the Digit List to be adopted
michael@0: * @internal
michael@0: */
michael@0: void adoptDigitList(DigitList *dl);
michael@0:
michael@0: /**
michael@0: * Internal function to return the CharString pointer.
michael@0: * @param status error code
michael@0: * @return pointer to the CharString - may become invalid if the object is modified
michael@0: * @internal
michael@0: */
michael@0: CharString *internalGetCharString(UErrorCode &status);
michael@0:
michael@0: #endif /* U_HIDE_INTERNAL_API */
michael@0:
michael@0: private:
michael@0: /**
michael@0: * Cleans up the memory for unwanted values. For example, the adopted
michael@0: * string or array objects.
michael@0: */
michael@0: void dispose(void);
michael@0:
michael@0: /**
michael@0: * Common initialization, for use by constructors.
michael@0: */
michael@0: void init();
michael@0:
michael@0: UnicodeString* getBogus() const;
michael@0:
michael@0: union {
michael@0: UObject* fObject;
michael@0: UnicodeString* fString;
michael@0: double fDouble;
michael@0: int64_t fInt64;
michael@0: UDate fDate;
michael@0: struct {
michael@0: Formattable* fArray;
michael@0: int32_t fCount;
michael@0: } fArrayAndCount;
michael@0: } fValue;
michael@0:
michael@0: CharString *fDecimalStr;
michael@0:
michael@0: DigitList *fDecimalNum;
michael@0:
michael@0: char fStackData[UNUM_INTERNAL_STACKARRAY_SIZE]; // must be big enough for DigitList
michael@0:
michael@0: Type fType;
michael@0: UnicodeString fBogus; // Bogus string when it's needed.
michael@0: };
michael@0:
michael@0: inline UDate Formattable::getDate(UErrorCode& status) const {
michael@0: if (fType != kDate) {
michael@0: if (U_SUCCESS(status)) {
michael@0: status = U_INVALID_FORMAT_ERROR;
michael@0: }
michael@0: return 0;
michael@0: }
michael@0: return fValue.fDate;
michael@0: }
michael@0:
michael@0: inline const UnicodeString& Formattable::getString(void) const {
michael@0: return *fValue.fString;
michael@0: }
michael@0:
michael@0: inline UnicodeString& Formattable::getString(void) {
michael@0: return *fValue.fString;
michael@0: }
michael@0:
michael@0: #ifndef U_HIDE_DEPRECATED_API
michael@0: inline int32_t Formattable::getLong(UErrorCode* status) const {
michael@0: return getLong(*status);
michael@0: }
michael@0: #endif /* U_HIDE_DEPRECATED_API */
michael@0:
michael@0: #ifndef U_HIDE_DRAFT_API
michael@0: inline UFormattable* Formattable::toUFormattable() {
michael@0: return reinterpret_cast