Python distutils.util.split_quoted() Examples

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def get_f77flags(src):
    """
    Search the first 20 lines of fortran 77 code for line pattern
      `CF77FLAGS(<fcompiler type>)=<f77 flags>`
    Return a dictionary {<fcompiler type>:<f77 flags>}.
    """
    flags = {}
    f = open_latin1(src, 'r')
    i = 0
    for line in f:
        i += 1
        if i>20: break
        m = _f77flags_re.match(line)
        if not m: continue
        fcname = m.group('fcname').strip()
        fflags = m.group('fflags').strip()
        flags[fcname] = split_quoted(fflags)
    f.close()
    return flags

# TODO: implement get_f90flags and use it in _compile similarly to get_f77flags 

def set_executable(self, key, value):
        if isinstance(value, str):
            setattr(self, key, split_quoted(value))
        else:
            setattr(self, key, value) 

def set_executable(self, key, value):
        if isinstance(value, str):
            setattr(self, key, split_quoted(value))
        else:
            setattr(self, key, value) 

def flaglist(s):
    if is_string(s):
        return split_quoted(s)
    else:
        return s 

def set_executables(self, **args):
        """Define the executables (and options for them) that will be run
        to perform the various stages of compilation.  The exact set of
        executables that may be specified here depends on the compiler
        class (via the 'executables' class attribute), but most will have:
          compiler      the C/C++ compiler
          linker_so     linker used to create shared objects and libraries
          linker_exe    linker used to create binary executables
          archiver      static library creator

        On platforms with a command-line (Unix, DOS/Windows), each of these
        is a string that will be split into executable name and (optional)
        list of arguments.  (Splitting the string is done similarly to how
        Unix shells operate: words are delimited by spaces, but quotes and
        backslashes can override this.  See
        'distutils.util.split_quoted()'.)
        """

        # Note that some CCompiler implementation classes will define class
        # attributes 'cpp', 'cc', etc. with hard-coded executable names;
        # this is appropriate when a compiler class is for exactly one
        # compiler/OS combination (eg. MSVCCompiler).  Other compiler
        # classes (UnixCCompiler, in particular) are driven by information
        # discovered at run-time, since there are many different ways to do
        # basically the same things with Unix C compilers.

        for key in args.keys():
            if key not in self.executables:
                raise ValueError, \
                      "unknown executable '%s' for class %s" % \
                      (key, self.__class__.__name__)
            self.set_executable(key, args[key]) 

def flaglist(s):
    if is_string(s):
        return split_quoted(s)
    else:
        return s 

def set_executables(self, **kwargs):
        """Define the executables (and options for them) that will be run
        to perform the various stages of compilation.  The exact set of
        executables that may be specified here depends on the compiler
        class (via the 'executables' class attribute), but most will have:
          compiler      the C/C++ compiler
          linker_so     linker used to create shared objects and libraries
          linker_exe    linker used to create binary executables
          archiver      static library creator

        On platforms with a command-line (Unix, DOS/Windows), each of these
        is a string that will be split into executable name and (optional)
        list of arguments.  (Splitting the string is done similarly to how
        Unix shells operate: words are delimited by spaces, but quotes and
        backslashes can override this.  See
        'distutils.util.split_quoted()'.)
        """

        # Note that some CCompiler implementation classes will define class
        # attributes 'cpp', 'cc', etc. with hard-coded executable names;
        # this is appropriate when a compiler class is for exactly one
        # compiler/OS combination (eg. MSVCCompiler).  Other compiler
        # classes (UnixCCompiler, in particular) are driven by information
        # discovered at run-time, since there are many different ways to do
        # basically the same things with Unix C compilers.

        for key in kwargs:
            if key not in self.executables:
                raise ValueError("unknown executable '%s' for class %s" %
                      (key, self.__class__.__name__))
            self.set_executable(key, kwargs[key]) 

def set_executables(self, **kwargs):
        """Define the executables (and options for them) that will be run
        to perform the various stages of compilation.  The exact set of
        executables that may be specified here depends on the compiler
        class (via the 'executables' class attribute), but most will have:
          compiler      the C/C++ compiler
          linker_so     linker used to create shared objects and libraries
          linker_exe    linker used to create binary executables
          archiver      static library creator

        On platforms with a command-line (Unix, DOS/Windows), each of these
        is a string that will be split into executable name and (optional)
        list of arguments.  (Splitting the string is done similarly to how
        Unix shells operate: words are delimited by spaces, but quotes and
        backslashes can override this.  See
        'distutils.util.split_quoted()'.)
        """

        # Note that some CCompiler implementation classes will define class
        # attributes 'cpp', 'cc', etc. with hard-coded executable names;
        # this is appropriate when a compiler class is for exactly one
        # compiler/OS combination (eg. MSVCCompiler).  Other compiler
        # classes (UnixCCompiler, in particular) are driven by information
        # discovered at run-time, since there are many different ways to do
        # basically the same things with Unix C compilers.

        for key in kwargs:
            if key not in self.executables:
                raise ValueError("unknown executable '%s' for class %s" %
                      (key, self.__class__.__name__))
            self.set_executable(key, kwargs[key]) 

def set_executable(self, key, value):
        if isinstance(value, str):
            setattr(self, key, split_quoted(value))
        else:
            setattr(self, key, value) 

def set_executables(self, **args):
        """Define the executables (and options for them) that will be run
        to perform the various stages of compilation.  The exact set of
        executables that may be specified here depends on the compiler
        class (via the 'executables' class attribute), but most will have:
          compiler      the C/C++ compiler
          linker_so     linker used to create shared objects and libraries
          linker_exe    linker used to create binary executables
          archiver      static library creator

        On platforms with a command-line (Unix, DOS/Windows), each of these
        is a string that will be split into executable name and (optional)
        list of arguments.  (Splitting the string is done similarly to how
        Unix shells operate: words are delimited by spaces, but quotes and
        backslashes can override this.  See
        'distutils.util.split_quoted()'.)
        """

        # Note that some CCompiler implementation classes will define class
        # attributes 'cpp', 'cc', etc. with hard-coded executable names;
        # this is appropriate when a compiler class is for exactly one
        # compiler/OS combination (eg. MSVCCompiler).  Other compiler
        # classes (UnixCCompiler, in particular) are driven by information
        # discovered at run-time, since there are many different ways to do
        # basically the same things with Unix C compilers.

        for key in args.keys():
            if key not in self.executables:
                raise ValueError, \
                      "unknown executable '%s' for class %s" % \
                      (key, self.__class__.__name__)
            self.set_executable(key, args[key]) 

def set_command(self, key, value):
        if not key in self._executable_keys:
            raise ValueError(
                "unknown executable '%s' for class %s" %
                (key, self.__class__.__name__))
        if is_string(value):
            value = split_quoted(value)
        assert value is None or is_sequence_of_strings(value[1:]), (key, value)
        self.executables[key] = value

    ######################################################################
    ## Methods that subclasses may redefine. But don't call these methods!
    ## They are private to FCompiler class and may return unexpected
    ## results if used elsewhere. So, you have been warned.. 

def flaglist(s):
    if is_string(s):
        return split_quoted(s)
    else:
        return s 

def set_command(self, key, value):
        if not key in self._executable_keys:
            raise ValueError(
                "unknown executable '%s' for class %s" %
                (key, self.__class__.__name__))
        if is_string(value):
            value = split_quoted(value)
        assert value is None or is_sequence_of_strings(value[1:]), (key, value)
        self.executables[key] = value

    ######################################################################
    ## Methods that subclasses may redefine. But don't call these methods!
    ## They are private to FCompiler class and may return unexpected
    ## results if used elsewhere. So, you have been warned.. 

def flaglist(s):
    if is_string(s):
        return split_quoted(s)
    else:
        return s 

def set_executable(self, key, value):
        if isinstance(value, str):
            setattr(self, key, split_quoted(value))
        else:
            setattr(self, key, value) 

def set_executable(self, key, value):
        if isinstance(value, str):
            setattr(self, key, split_quoted(value))
        else:
            setattr(self, key, value)