CaMeLbUmP all function names, private or not.

git-svn-id: svn://svn.lyx.org/lyx/lyx-devel/trunk@32957 a592a061-630c-0410-9148-cb99ea01b6c8
This commit is contained in:
Vincent van Ravesteijn 2010-01-10 21:55:11 +00:00
parent ddfb49a4f0
commit ce6aa0d8d3

View File

@ -237,7 +237,7 @@ public:
private:
/// Finds the middle snake and returns the length of the
/// shortest edit script.
int find_middle_snake(DocRangePair const & rp, DocPair & middle_snake);
int findMiddleSnake(DocRangePair const & rp, DocPair & middle_snake);
enum SnakeResult {
NoSnake,
@ -247,13 +247,13 @@ private:
/// Retrieve the middle snake when there is overlap between
/// the forward and backward path.
SnakeResult retrieve_middle_snake(int k, int D, Direction direction,
SnakeResult retrieveMiddleSnake(int k, int D, Direction direction,
DocPair & middle_snake);
/// Find the the furthest reaching D-path (number of horizontal
/// and vertical steps; differences between the old and new
/// document) in the k-diagonal (vertical minus horizontal steps).
void furthest_Dpath_kdiagonal(int D, int k,
void furthestDpathKdiagonal(int D, int k,
DocRangePair const & rp, Direction direction);
/// Is there overlap between the forward and backward path
@ -266,15 +266,15 @@ private:
/// Processes the splitted chunks. It either adds them as deleted,
/// as added, or call diff_i for further processing.
void diff_part(DocRangePair const & rp);
void diffPart(DocRangePair const & rp);
/// Runs the algorithm for the inset located at /c it and /c it_n
/// and adds the result to /c pars.
void diff_inset(Inset * inset, DocPair const & p);
void diffInset(Inset * inset, DocPair const & p);
/// Adds the snake to the destination buffer. The algorithm will
/// recursively be applied to any InsetTexts that are within the snake.
void process_snake(DocRangePair const & rp);
void processSnake(DocRangePair const & rp);
/// Writes the range to the destination buffer
void writeToDestBuffer(DocRange const & range,
@ -371,7 +371,7 @@ void Compare::abort()
}
static void get_paragraph_list(DocRange const & range,
static void getParagraphList(DocRange const & range,
ParagraphList & pars)
{
// Clone the paragraphs within the selection.
@ -448,7 +448,7 @@ static bool equal(DocIterator & o, DocIterator & n) {
/// position in the old and new file and they are synchronously
/// moved along the snake. The function returns true if a snake
/// was found.
static bool traverse_snake(DocPair & p, DocRangePair const & range,
static bool traverseSnake(DocPair & p, DocRangePair const & range,
Direction direction)
{
bool ret = false;
@ -478,7 +478,7 @@ static bool traverse_snake(DocPair & p, DocRangePair const & range,
/////////////////////////////////////////////////////////////////////
void Compare::Impl::furthest_Dpath_kdiagonal(int D, int k,
void Compare::Impl::furthestDpathKdiagonal(int D, int k,
DocRangePair const & rp, Direction direction)
{
compl_vector<DocIterator> & op = direction == Forward ? ofp : orp;
@ -511,7 +511,7 @@ void Compare::Impl::furthest_Dpath_kdiagonal(int D, int k,
}
// Traverse snake
if (traverse_snake(p, rp, direction)) {
if (traverseSnake(p, rp, direction)) {
// Record last snake
os[k] = p.o;
ns[k] = p.n;
@ -544,7 +544,7 @@ bool Compare::Impl::overlap(int k, int D)
}
Compare::Impl::SnakeResult Compare::Impl::retrieve_middle_snake(
Compare::Impl::SnakeResult Compare::Impl::retrieveMiddleSnake(
int k, int D, Direction direction, DocPair & middle_snake)
{
compl_vector<DocIterator> & os = direction == Forward ? ofs : ors;
@ -577,7 +577,7 @@ Compare::Impl::SnakeResult Compare::Impl::retrieve_middle_snake(
}
int Compare::Impl::find_middle_snake(DocRangePair const & rp,
int Compare::Impl::findMiddleSnake(DocRangePair const & rp,
DocPair & middle_snake)
{
// The lengths of the old and new chunks.
@ -613,7 +613,7 @@ int Compare::Impl::find_middle_snake(DocRangePair const & rp,
// Diagonals between -D and D can be reached by a D-path
for (int k = -D; k <= D; k += 2) {
// Find the furthest reaching D-path on this diagonal
furthest_Dpath_kdiagonal(D, k, rp, direction);
furthestDpathKdiagonal(D, k, rp, direction);
// Only check for overlap for forward paths if the offset is odd
// and only for reverse paths if the offset is even.
@ -621,7 +621,7 @@ int Compare::Impl::find_middle_snake(DocRangePair const & rp,
// Do the forward and backward paths overlap ?
if (overlap(k, D - odd_offset_)) {
retrieve_middle_snake(k, D, direction, middle_snake);
retrieveMiddleSnake(k, D, direction, middle_snake);
return 2 * D - odd_offset_;
}
}
@ -651,9 +651,9 @@ bool Compare::Impl::diff(Buffer const * new_buf, Buffer const * old_buf,
DocRangePair rp(old_buf_, new_buf_);
DocPair from = rp.from();
traverse_snake(from, rp, Forward);
traverseSnake(from, rp, Forward);
DocRangePair const snake(rp.from(), from);
process_snake(snake);
processSnake(snake);
// Start the recursive algorithm
diff_i(rp);
@ -674,7 +674,7 @@ void Compare::Impl::diff_i(DocRangePair const & rp)
// Divides the problem into two smaller problems, split around
// the snake in the middle.
int const L_ses = find_middle_snake(rp, middle_snake);
int const L_ses = findMiddleSnake(rp, middle_snake);
// Set maximum of progress bar
if (++recursion_level_ == 1)
@ -696,29 +696,29 @@ void Compare::Impl::diff_i(DocRangePair const & rp)
} else {
// Retrieve the complete snake
DocPair first_part_end = middle_snake;
traverse_snake(first_part_end, rp, Backward);
traverseSnake(first_part_end, rp, Backward);
DocRangePair first_part(rp.from(), first_part_end);
DocPair second_part_begin = middle_snake;
traverse_snake(second_part_begin, rp, Forward);
traverseSnake(second_part_begin, rp, Forward);
DocRangePair second_part(second_part_begin, rp.to());
// Split the string in three parts:
// 1. in front of the snake
diff_part(first_part);
diffPart(first_part);
// 2. the snake itself, and
DocRangePair const snake(first_part.to(), second_part.from());
process_snake(snake);
processSnake(snake);
// 3. behind the snake.
diff_part(second_part);
diffPart(second_part);
}
--recursion_level_;
}
void Compare::Impl::diff_part(DocRangePair const & rp)
void Compare::Impl::diffPart(DocRangePair const & rp)
{
// Is there a finite length string in both buffers, if not there
// is an empty string and we write the other one to the buffer.
@ -733,7 +733,7 @@ void Compare::Impl::diff_part(DocRangePair const & rp)
}
void Compare::Impl::diff_inset(Inset * inset, DocPair const & p)
void Compare::Impl::diffInset(Inset * inset, DocPair const & p)
{
// Find the dociterators for the beginning and the
// end of the inset, for the old and new document.
@ -753,10 +753,10 @@ void Compare::Impl::diff_inset(Inset * inset, DocPair const & p)
}
void Compare::Impl::process_snake(DocRangePair const & rp)
void Compare::Impl::processSnake(DocRangePair const & rp)
{
ParagraphList pars;
get_paragraph_list(rp.o, pars);
getParagraphList(rp.o, pars);
// Find insets in this paragaph list
DocPair it = rp.from();
@ -770,7 +770,7 @@ void Compare::Impl::process_snake(DocRangePair const & rp)
pos_type const pos = pit ? it.o.pos() : it.o.pos() - rp.o.from.pos();
inset = pars[pit].getInset(pos);
LASSERT(inset, /**/);
diff_inset(inset, it);
diffInset(inset, it);
}
}
writeToDestBuffer(pars);
@ -781,7 +781,7 @@ void Compare::Impl::writeToDestBuffer(DocRange const & range,
Change::Type type)
{
ParagraphList pars;
get_paragraph_list(range, pars);
getParagraphList(range, pars);
pos_type size = 0;