Esempio n. 1
0
 def __init__(self, funcfile, radius, params,
              inputfile, outputfile=None, **extra_args):
     funcname = basename_sans(funcfile)
     self.funcname = funcname
     self.radius = radius
     # map args to file system names
     inputname = basename_sans(inputfile)
     if outputfile is None:
         outputfile = ('output_{inputname}_{radius}.mat'.format(**locals()))
     # default execution params
     extra_args.setdefault('requested_cores',        1)
     extra_args.setdefault('requested_memory',       3*GB)
     extra_args.setdefault('requested_architecture', Run.Arch.X86_64)
     extra_args.setdefault('requested_walltime',     30*days)
     # actual app initialization
     Application.__init__(
         self,
         arguments=[
             'matlab', '-nodisplay', '-nojvm', #'-singleCompThread',
             '-r', (self.matlab_cmd.format(**locals()))
         ],
         inputs = [funcfile, inputfile],
         outputs = [outputfile],
         stdout = 'matlab.log',
         join=True,
         **extra_args)
Esempio n. 2
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 def __init__(self,
              funcfile,
              radius,
              params,
              inputfile,
              outputfile=None,
              **extra_args):
     funcname = basename_sans(funcfile)
     self.funcname = funcname
     self.radius = radius
     # map args to file system names
     inputname = basename_sans(inputfile)
     if outputfile is None:
         outputfile = ('output_{inputname}_{radius}.mat'.format(**locals()))
     # default execution params
     extra_args.setdefault('requested_cores', 1)
     extra_args.setdefault('requested_memory', 3 * GB)
     extra_args.setdefault('requested_architecture', Run.Arch.X86_64)
     extra_args.setdefault('requested_walltime', 30 * days)
     # actual app initialization
     Application.__init__(
         self,
         arguments=[
             'matlab',
             '-nodisplay',
             '-nojvm',  #'-singleCompThread',
             '-r',
             (self.matlab_cmd.format(**locals()))
         ],
         inputs=[funcfile, inputfile],
         outputs=[outputfile],
         stdout='matlab.log',
         join=True,
         **extra_args)
Esempio n. 3
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 def new_tasks1(self, funcname, values, inputfiles, **extra):
     """
     Iterate over tasks with a common processing function.
     """
     # find MATLAB function to run
     funcname, funcfile = self.get_function_name_and_file(funcname)
     ranges = []
     for spec in values.split(','):
         # get range for neighborhood radius
         low, high, step = parse_range(spec)
         ranges.append(irange(low, high+1, step))
     for radius in itertools.chain(*ranges):
         for inputfile in inputfiles:
             kwargs = extra.copy()
             base_output_dir = kwargs.pop('output_dir', self.params.output)
             inputfile = realpath(inputfile)
             inputname = basename_sans(inputfile)
             jobname = ('{funcname}_{inputname}_{radius}'.format(**locals()))
             outputfile = ('output_{inputname}_{radius}.mat'.format(**locals()))
             output_dir = join(base_output_dir, jobname)
             yield MatlabRetryOnOutOfMemory(
                 FunctionalDiversityApplication(
                     funcfile,
                     radius,
                     self.params.parameters,
                     inputfile,
                     jobname=jobname,
                     outputfile=outputfile,
                     output_dir=output_dir,
                     **kwargs),
                 increment=4*GB,
                 jobname=jobname,
             )
Esempio n. 4
0
 def new_tasks1(self, funcname, values, inputfiles, **extra):
     """
     Iterate over tasks with a common processing function.
     """
     # find MATLAB function to run
     funcname, funcfile = self.get_function_name_and_file(funcname)
     ranges = []
     for spec in values.split(','):
         # get range for neighborhood radius
         low, high, step = parse_range(spec)
         ranges.append(irange(low, high + 1, step))
     for radius in itertools.chain(*ranges):
         for inputfile in inputfiles:
             kwargs = extra.copy()
             base_output_dir = kwargs.pop('output_dir', self.params.output)
             inputfile = realpath(inputfile)
             inputname = basename_sans(inputfile)
             jobname = ('{funcname}_{inputname}_{radius}'.format(
                 **locals()))
             outputfile = ('output_{inputname}_{radius}.mat'.format(
                 **locals()))
             output_dir = join(base_output_dir, jobname)
             yield MatlabRetryOnOutOfMemory(
                 FunctionalDiversityApplication(funcfile,
                                                radius,
                                                self.params.parameters,
                                                inputfile,
                                                jobname=jobname,
                                                outputfile=outputfile,
                                                output_dir=output_dir,
                                                **kwargs),
                 increment=4 * GB,
                 jobname=jobname,
             )