Merge "Small native refactoring."
commit
f24eb69d3f
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@ -48,6 +48,8 @@ public:
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static bool hasChildrenInFlags(const uint8_t flags);
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static int getAttributeAddressAndForwardPointer(const uint8_t* const dict, const uint8_t flags,
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int *pos);
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static int getTerminalPosition(const uint8_t* const root, const uint16_t* const inWord,
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const int length);
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};
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inline int BinaryFormat::detectFormat(const uint8_t* const dict) {
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@ -217,6 +219,77 @@ inline int BinaryFormat::getAttributeAddressAndForwardPointer(const uint8_t* con
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}
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}
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// This function gets the byte position of the last chargroup of the exact matching word in the
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// dictionary. If no match is found, it returns NOT_VALID_WORD.
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inline int BinaryFormat::getTerminalPosition(const uint8_t* const root,
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const uint16_t* const inWord, const int length) {
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int pos = 0;
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int wordPos = 0;
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while (true) {
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// If we already traversed the tree further than the word is long, there means
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// there was no match (or we would have found it).
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if (wordPos > length) return NOT_VALID_WORD;
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int charGroupCount = BinaryFormat::getGroupCountAndForwardPointer(root, &pos);
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const uint16_t wChar = inWord[wordPos];
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while (true) {
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// If there are no more character groups in this node, it means we could not
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// find a matching character for this depth, therefore there is no match.
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if (0 >= charGroupCount) return NOT_VALID_WORD;
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const int charGroupPos = pos;
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const uint8_t flags = BinaryFormat::getFlagsAndForwardPointer(root, &pos);
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int32_t character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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if (character == wChar) {
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// This is the correct node. Only one character group may start with the same
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// char within a node, so either we found our match in this node, or there is
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// no match and we can return NOT_VALID_WORD. So we will check all the characters
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// in this character group indeed does match.
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if (UnigramDictionary::FLAG_HAS_MULTIPLE_CHARS & flags) {
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character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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while (NOT_A_CHARACTER != character) {
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++wordPos;
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// If we shoot the length of the word we search for, or if we find a single
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// character that does not match, as explained above, it means the word is
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// not in the dictionary (by virtue of this chargroup being the only one to
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// match the word on the first character, but not matching the whole word).
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if (wordPos > length) return NOT_VALID_WORD;
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if (inWord[wordPos] != character) return NOT_VALID_WORD;
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character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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}
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}
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// If we come here we know that so far, we do match. Either we are on a terminal
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// and we match the length, in which case we found it, or we traverse children.
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// If we don't match the length AND don't have children, then a word in the
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// dictionary fully matches a prefix of the searched word but not the full word.
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++wordPos;
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if (UnigramDictionary::FLAG_IS_TERMINAL & flags) {
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if (wordPos == length) {
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return charGroupPos;
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}
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pos = BinaryFormat::skipFrequency(UnigramDictionary::FLAG_IS_TERMINAL, pos);
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}
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if (UnigramDictionary::FLAG_GROUP_ADDRESS_TYPE_NOADDRESS
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== (UnigramDictionary::MASK_GROUP_ADDRESS_TYPE & flags)) {
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return NOT_VALID_WORD;
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}
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// We have children and we are still shorter than the word we are searching for, so
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// we need to traverse children. Put the pointer on the children position, and
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// break
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pos = BinaryFormat::readChildrenPosition(root, flags, pos);
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break;
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} else {
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// This chargroup does not match, so skip the remaining part and go to the next.
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if (UnigramDictionary::FLAG_HAS_MULTIPLE_CHARS & flags) {
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pos = BinaryFormat::skipOtherCharacters(root, pos);
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}
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pos = BinaryFormat::skipFrequency(flags, pos);
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pos = BinaryFormat::skipChildrenPosAndAttributes(root, flags, pos);
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}
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--charGroupCount;
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}
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}
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}
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} // namespace latinime
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#endif // LATINIME_BINARY_FORMAT_H
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@ -1055,86 +1055,8 @@ int UnigramDictionary::getMostFrequentWordLikeInner(const uint16_t * const inWor
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return maxFreq;
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}
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// This function gets the byte position of the last chargroup of the exact matching word in the
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// dictionary. If no match is found, it returns NOT_VALID_WORD.
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static inline int getTerminalPosition(const uint8_t* const root, const uint16_t* const inWord,
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const int length) {
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int pos = 0;
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int wordPos = 0;
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while (true) {
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// If we already traversed the tree further than the word is long, there means
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// there was no match (or we would have found it).
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if (wordPos > length) return NOT_VALID_WORD;
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int charGroupCount = BinaryFormat::getGroupCountAndForwardPointer(root, &pos);
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const uint16_t wChar = inWord[wordPos];
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while (true) {
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// If there are no more character groups in this node, it means we could not
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// find a matching character for this depth, therefore there is no match.
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if (0 >= charGroupCount) return NOT_VALID_WORD;
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const int charGroupPos = pos;
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const uint8_t flags = BinaryFormat::getFlagsAndForwardPointer(root, &pos);
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int32_t character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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if (character == wChar) {
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// This is the correct node. Only one character group may start with the same
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// char within a node, so either we found our match in this node, or there is
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// no match and we can return NOT_VALID_WORD. So we will check all the characters
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// in this character group indeed does match.
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if (UnigramDictionary::FLAG_HAS_MULTIPLE_CHARS & flags) {
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character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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while (NOT_A_CHARACTER != character) {
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++wordPos;
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// If we shoot the length of the word we search for, or if we find a single
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// character that does not match, as explained above, it means the word is
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// not in the dictionary (by virtue of this chargroup being the only one to
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// match the word on the first character, but not matching the whole word).
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if (wordPos > length) return NOT_VALID_WORD;
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if (inWord[wordPos] != character) return NOT_VALID_WORD;
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character = BinaryFormat::getCharCodeAndForwardPointer(root, &pos);
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}
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}
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// If we come here we know that so far, we do match. Either we are on a terminal
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// and we match the length, in which case we found it, or we traverse children.
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// If we don't match the length AND don't have children, then a word in the
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// dictionary fully matches a prefix of the searched word but not the full word.
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++wordPos;
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if (UnigramDictionary::FLAG_IS_TERMINAL & flags) {
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if (wordPos == length) {
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return charGroupPos;
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}
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pos = BinaryFormat::skipFrequency(UnigramDictionary::FLAG_IS_TERMINAL, pos);
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}
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if (UnigramDictionary::FLAG_GROUP_ADDRESS_TYPE_NOADDRESS
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== (UnigramDictionary::MASK_GROUP_ADDRESS_TYPE & flags)) {
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return NOT_VALID_WORD;
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}
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// We have children and we are still shorter than the word we are searching for, so
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// we need to traverse children. Put the pointer on the children position, and
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// break
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pos = BinaryFormat::readChildrenPosition(root, flags, pos);
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break;
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} else {
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// This chargroup does not match, so skip the remaining part and go to the next.
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if (UnigramDictionary::FLAG_HAS_MULTIPLE_CHARS & flags) {
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pos = BinaryFormat::skipOtherCharacters(root, pos);
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}
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pos = BinaryFormat::skipFrequency(flags, pos);
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pos = BinaryFormat::skipChildrenPosAndAttributes(root, flags, pos);
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}
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--charGroupCount;
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}
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}
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}
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bool UnigramDictionary::isValidWord(const uint16_t* const inWord, const int length) const {
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return NOT_VALID_WORD != getTerminalPosition(DICT_ROOT, inWord, length);
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}
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int UnigramDictionary::getBigrams(unsigned short *word, int length, int *codes, int codesSize,
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unsigned short *outWords, int *frequencies, int maxWordLength, int maxBigrams,
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int maxAlternatives) {
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// TODO: add implementation.
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return 0;
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return NOT_VALID_WORD != BinaryFormat::getTerminalPosition(DICT_ROOT, inWord, length);
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}
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// TODO: remove this function.
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@ -71,9 +71,6 @@ public:
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bool isValidWord(unsigned short *word, int length);
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#else // NEW_DICTIONARY_FORMAT
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bool isValidWord(const uint16_t* const inWord, const int length) const;
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int getBigrams(unsigned short *word, int length, int *codes, int codesSize,
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unsigned short *outWords, int *frequencies, int maxWordLength, int maxBigrams,
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int maxAlternatives);
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#endif // NEW_DICTIONARY_FORMAT
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int getBigramPosition(int pos, unsigned short *word, int offset, int length) const;
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int getSuggestions(ProximityInfo *proximityInfo, const int *xcoordinates,
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