} else {
// multiple cells
cur.recordUndoInset();
- col_type startcol = col(cur.idx());
+ col_type startcol = col(cur.idx());
row_type startrow = cur.row();
col_type oldncols = ncols();
col_type numcols =
min(grid.nrows(), nrows() - cur.row());
for (row_type r = 0; r < numrows; ++r) {
for (col_type c = 0; c < numcols; ++c) {
- idx_type i = index(r + cur.row(), c + col(cur.idx()));
+ idx_type i = index(r + startrow, c + startcol);
cell(i).insert(c == 0 ? cur.pos() : 0,
grid.cell(grid.index(r, c)));
}
rowinfo_[r].lines += grid.rowinfo_[r].lines;
else {
for (unsigned int l = 0; l < grid.rowinfo_[r].lines; ++l) {
- idx_type i = index(r + cur.row(), 0);
+ idx_type i = index(r + startrow, 0);
cell(i).insert(0,
MathAtom(new InsetMathUnknown(from_ascii("\\hline"))));
}
}
// append columns for the left over horizontal cells
for (InsetMath::col_type c = numcols; c < grid.ncols(); ++c) {
- addCol(c + 1);
- idx_type i = index(r + cur.row(), c + 1);
+ addCol(c + startcol);
+ idx_type i = index(r + startrow, min(c + startcol, ncols() - 1));
cell(i).append(grid.cell(grid.index(r, c)));
++numcols;
}
row_type crow = startrow + r;
addRow(crow - 1);
for (col_type c = 0; c < grid.ncols(); ++c)
- cell(index(crow, c + startcol)).append(grid.cell(grid.index(r, c)));
+ cell(index(min(crow, nrows() - 1), min(c + startcol, ncols() - 1))).append(grid.cell(grid.index(r, c)));
if (hline_enabled)
rowinfo_[crow].lines += grid.rowinfo_[r].lines;
else {