This reverts commit ae6fc555a7.
Use the more-natural make_pair algorithm. The compiler motivating
the need for this is not supported as a host anymore.
Pre-C++98 compilers required that the template argument be
used in the function parameters. Those compilers are no longer
supported as hosts, so drop the workaround.
Teach cmLocalVisualStudio7Generator to set 'OutputDirectory' using the
same method as is used to set the 'OutputFile' in the generated project
file. Also, OutputDirectory only needs to be set for targets that run the
linker or librarian. These two changes make the VS 7 OutputDirectory
consistent with what cmVisualStudio10TargetGenerator generates for OutDir.
Without this, since the VS Intel Fortran plugin for VS >= 10 still uses
the VS 7 .vfproj file format, when executing test VSGNUFortran using
Intel Fortran Compiler 15.xx, the following warning is issued just
before compilation:
TargetPath(...) does not match the Linker's OutputFile property value (...).
This may cause your project to build incorrectly.
To correct this, please make sure that $(OutDir), $(TargetName) and $(TargetExt)
property values match the value specified in %(Link.OutputFile).
Subsequently, an error is reported during linking.
Inspired-by: Vincent Newsum <vynewsum@gmail.com>
This will allow us to use a value other than just the config name
for the project OutputDirectory setting used for $(OutDir).
Also use $(ConfigurationName) instead of $(OutDir) for the link
directory configuration suffix since that is a hard-coded instance of
a use case for CMAKE_CFG_INTDIR.
The entire vector will be destroyed at once at the end of the scope,
and the remove algorithms already give us the end of the range of
interesting values, so just use those sentinals.
Start by creating a vector to hold a unique values of the input range. We
expect that in most cases, there will be relatively few duplicates, so
reserving enough memory for a complete copy is worthwhile. Unlike a solution
involving a std::set, this algorithm allocates all the memory it needs
in one go and in one place, so it is more cache friendly.
Populate the unique copy with a lower_bound insert algorithm and record the
indices of duplicates. This is the same complexity as the std::set insert
algorithm, but without the need to allocate memory on the heap and other
disadvantages of std::set.
Remove the duplicates with the cmRemoveIndices algorithm.
Implement ContainerAlgorithms::RemoveN to remove N elements to the
end of a container by rotating. The rotate is implemented in terms
of the efficient swap algorithm, optimized even more in the standard
library implementation when the compiler supports the rvalue-references
feature to move elements. Implement cmRemoveN with a Range API
for completeness.
std::rotate in C++11 is specified to return an iterator, but
c++98 specifies it to return void. libstdc++ 5.0 will be the first
version to have the correct return type. Implement
ContainerAlgorithms::Rotate in terms of std::rotate and return the
correct iterator from it. While std::rotate requires forward iterators,
this workaround means cmRotate requires bidirectional iterators. As
most of CMake uses random access iterators anyway, this should not
be a problem.
Implement cmRemoveIndices in terms of the RemoveN algorithm, such
that each element which is not removed is rotated only once. This
can not use the cmRemoveN range-API algorithm because that would
require creating a new range, but the range must be taken by reference
and so it can't be a temporary.
These remove algorithms are not part of the STL and I couldn't find them
anywhere else either.
Use a ostringstream to account for the input being a variable of type
size_t as a result of using std::distance. There is no single
format string which portably accepts a size_t.
Several tests use slight variations of the same logic to enable CPack
RPM tests. Consolidate this logic into one check before any tests are
added. Look for 'rpmbuild' only on Linux and only when the test build
tree does not have spaces in the path. In particular, this will make
the result available in time for the RunCMake.CPackRPM test to be
activated even if CMake is configured exactly once.
b5f98e50 cmMacroCommand: Manipulate target string directly.
83414d5a cmMacroCommand: Move computation of ARGV%n names out of double loop.
9a1f8f35 cmMacroCommand: Move ARGV replacement out of condition.
4aa7bd2a cmMacroCommand: Remove condition around ARGN replacement.
6774c92b cmMacroCommand: Declare tmps in the scope that it's used.
2c4a7298 cmMacroCommand: Declare arg in the scope that it is used.
a551851a cmMacroCommand: Inline variable computation.
f79c0f76 cmMacroCommand: Compute variables outside of two loops.
8e0827b6 cmMacroCommand: Remove intermediate arg variables.
f2c49f59 cmMacroCommand: Remove condition around ARGN computation.
3250a7e5 cmMacroCommand: Remove conditional append of semicolon.
081a13f7 cmMacroCommand: Declare arg variables where used and initialized.
17b5ebd3 cmMacroCommand: Join the args strings outside of the loops.
7c3f6376 Convert loop into two algorithms.
8a399c8c Convert loop to the common pattern.
abfca975 Move loop inside of condition.
0b61b86d Handle last element outside of the loop.
e21f7829 cmTarget: Use a sorted vector in place of a set.
559dc155 cmSet: Replace loop with cmJoin.
0ea71932 cmFindBase: Replace loop with cmJoin on range.
9380e85f Convert loops to cmJoin algorithm with cmRange.
bb10012f cmStringCommand: Accumulate with cmJoin and range adaptors.
0c12f1ea cmAlgorithms: Add a range adaptor and API for adjusting a range.
27c6f017 Use cmJoin to accumulate string ranges.
4e78ebbd cmAlgorithms: Add a Range container and adaptor method.
89102249 Replace common loop pattern with cmJoin
7b8725bf Convert loops populating maybe-empty content into the common pattern.
7ee56f03 Convert loops into the commonly used pattern.
0a4e5674 cmMacroCommand: Remove counting variable.
...