Esempio n. 1
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    def __init__(self, configFile):
        self.config = configparser.ConfigParser()
        self.config.read(configFile)
        self.fileType = self.config['Parser']['FileType']
        self.inputFile = self.config['Parser']['InputFile']  # input file path
        self.parseMode = self.config['Parser']['ParseMode']
        self.stream = None
        self.status = None
        self.bpAttrib = None
        self.bpNumAttrib = None
        self.numFun = 0
        self.funMap = None
        self.eventType = None

        if self.fileType == "bp":
            ad.read_init(
                "DATASPACES",
                parameters="verbose=3")  # initialize adios streaming mode
            if self.parseMode == "stream":
                self.stream = ad.file(self.inputFile,
                                      "DATASPACES",
                                      is_stream=True,
                                      timeout_sec=-1.0)
                self.bpAttrib = self.stream.attr
                self.bpNumAttrib = self.stream.nattrs
                with open('funMap.pickle', 'rb') as handle:
                    self.funMap = pickle.load(handle)
                    handle.close()
                with open('eventType.pickle', 'rb') as handle:
                    self.eventType = pickle.load(handle)
                    handle.close()

                #MGY
                #for iter in self.bpAttrib: # extract funciton names and ids
                #    if iter.startswith('timer'):
                #        self.numFun = self.numFun + 1
                #        self.funMap[int(iter.split()[1])] = str(self.bpAttrib[iter].value.decode("utf-8")) # if iter is a string "timer 123" separate timer and 123 and assign 123 as integer key to function map and the function name which is stored in self.bpAttrib[iter].value as a value
                #    if iter.startswith('event_type'):
                #        self.eventType[int(iter.split()[1])] = str(self.bpAttrib[iter].value.decode("utf-8"))
                #MGY

                print("\nAdios stream ready... \n\n")
                # Debug
                #===================================================================
                # print("Num attributes: ", self.bpNumAttrib, "\n")
                # print("Attribute names: \n", self.bpAttrib, "\n\n\n")
                # print("Num functions: ", self.numFun, "\n")
                # print("Function map: \n", self.funMap, "\n\n\n" )
                #===================================================================
        else:
            raise Exception("\nInput file format not supported...\n")
Esempio n. 2
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groupsize =  4 + 4 + 4 + 8 * 1 * NX
t = np.array(range(NX), dtype=np.float64) + rank*NX
ad.set_group_size(fd, groupsize)
ad.write_int(fd, "NX", NX)
ad.write_int(fd, "rank", rank)
ad.write_int(fd, "size", size)
ad.write(fd, "temperature", t)
ad.close(fd)

ad.finalize()

## Reading
if rank == 0:
    print "\n>>> Reading ...\n"

    f = ad.file("adios_test_mpi.bp", comm=MPI.COMM_SELF)
    f.printself()

    v = f.var['temperature']
    v.printself()

    val = v.read()
    print val
    assert (int(sum(sum(val))) == (size*NX-1)*(size*NX)/2)
    f.close()

print "\n>>> Done.\n"

## Testing
if rank == 0:
    print "\n>>> Test utility functions ...\n"
Esempio n. 3
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gdim = (size, NX)
offset = (rank, 0)

print "\n>>> Writing ... (rank = %d)\n" % rank
ad.init_noxml()
ad.allocate_buffer(ad.BUFFER_ALLOC_WHEN.NOW, 10)

fw = ad.writer(fname, comm=comm)
fw.declare_group('group', method='MPI')
fw.define_var('temperature', ldim=(1, NX), gdim=gdim, offset=offset)

fw['NX'] = NX
fw['size'] = size
fw['temperature'] = t
fw.attrs[
    '/temperature/description'] = "Global array written from 'size' processes"
fw.close()

## Reading
if rank == 0:
    print "\n>>> Reading ...\n"

    f = ad.file(fname, comm=MPI.COMM_SELF)
    for key, val in f.vars.iteritems():
        print key, '=', val.read()

    for key, val in f.attrs.iteritems():
        print key, '=', val.value

    print "\n>>> Done.\n"
Esempio n. 4
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gdim = (size, NX)
offset = (rank, 0)

print "\n>>> Writing ... (rank = %d)\n" % rank
ad.init_noxml()
ad.allocate_buffer (ad.BUFFER_ALLOC_WHEN.NOW, 10);

fw = ad.writer(fname, comm=comm)
fw.declare_group('group', method='MPI')
fw.define_var('temperature', ldim=(1,NX), gdim=gdim, offset=offset)

fw['NX'] = NX
fw['size'] = size
fw['temperature'] = t
fw.attr['/temperature/description'] = "Global array written from 'size' processes"
fw.close()

## Reading
if rank == 0:
    print "\n>>> Reading ...\n"

    f = ad.file(fname, comm=MPI.COMM_SELF)
    for key, val in f.var.iteritems():
        print key, '=', val.read()

    for key, val in f.attr.iteritems():
        print key, '=', val.value

    print "\n>>> Done.\n"

Esempio n. 5
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groupsize =  4 + 4 + 4 + 8 * 1 * NX
t = np.array(range(NX), dtype=np.float64) + rank*NX
ad.set_group_size(fd, groupsize)
ad.write_int(fd, "NX", NX)
ad.write_int(fd, "rank", rank)
ad.write_int(fd, "size", size)
ad.write(fd, "temperature", t)
ad.close(fd)

ad.finalize()

## Reading
if rank == 0:
    print "\n>>> Reading ...\n"

    f = ad.file("adios_test_mpi.bp", comm=MPI.COMM_SELF)
    f.printself()

    v = f.vars['temperature']
    v.printself()

    val = v.read()
    print val
    assert (int(np.sum(val)) == (size*NX-1)*(size*NX)/2)
    f.close()

print "\n>>> Done.\n"

## Testing
if rank == 0:
    print "\n>>> Test utility functions ...\n"
Esempio n. 6
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    fname = sys.argv[3]
    varnames = sys.argv[4:]

assert (size <= N*M)

rank_x = rank % N
rank_y = rank / N

""" 
Read step by step
"""
if rank == 0:
    print ""
    print ">>> Read step by step"

f = ad.file(fname, comm=MPI.COMM_WORLD)

for i in range(f.current_step, f.last_step):
    if rank == 0: print ">>> step: %d" % (i)

    for vname in varnames:
        v = f.var[vname]
        if rank == 0: print ">>> name: %s,  global dims: %s" % (vname, v.dims)
        if len(v.dims) != 2:
            if rank == 0: print ">>> Not a 2D array"
            continue

        count = np.array(v.dims)/np.array((N, M))
        offset = count * np.array((rank_x, rank_y))
        if rank_x == N-1:
            count[0] = v.dims[0] - count[0]*(N-1)
Esempio n. 7
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    def __init__(self, configFile):
      """This is the constructor for the Parser class.
      The parser has two main modes one is the BP, which is equivalent to offline/batch processing and non-BP, which
      allows streaming via one of the Adios streaming methods such as DATASPACES or FLEXPATH.
      
      Args:
          configFile (string): The configuration files's name.
          
      Returns:
          No return value.
      """
      
      # Initialize configparser
      self.config = configparser.ConfigParser(interpolation=None)
      self.config.read(configFile)
      
      # Initialize logger
      self.logFile = self.config['Debug']['LogFile']
      self.logFormat = self.config['Debug']['Format']
      self.logLevel = self.config['Debug']['LogLevel']
       
      logging.basicConfig(level=self.logLevel, format=self.logFormat, filename=self.logFile)
      self.log = logging.getLogger('PARSER')
      
      # Initialize parser mode
      self.parseMode = self.config['Parser']['ParseMode']
      
      # Initialize Adios variables
      self.Method = self.config['Adios']['Method']
      self.Parameters = self.config['Adios']['Parameters']
      self.inputFile = self.config['Adios']['InputFile']
      self.stream = None
      self.status = None
      self.bpAttrib = None
      self.bpNumAttrib = None
      self.numFun = 0
      self.funMap = defaultdict(int)
      self.eventType = defaultdict(int)
      
      if self.parseMode == "Adios":
        ad.read_init(self.Method, parameters=self.Parameters)
        self.stream = ad.file(self.inputFile, self.Method, is_stream=True, timeout_sec=-1.0)
 
        # Info
        msg = "Adios handle initialized with method: " + self.Method
        self.log.info(msg)
        
        if self.Method == "BP":
            # This part is needed because the visualization code requires function map and event type before any actual trace data is sent.
            self.bpAttrib = self.stream.attr
            self.bpNumAttrib = self.stream.nattrs
            for iter in self.bpAttrib: # extract function names and ids
                if iter.startswith('timer'):
                    self.numFun = self.numFun + 1
                    self.funMap[int(iter.split()[1])] = str(self.bpAttrib[iter].value.decode("utf-8")) # if iter is a string "timer 123" separate timer and 123 and assign 123 as integer key to function map and the function name which is stored in self.bpAttrib[iter].value as a value  
                if iter.startswith('event_type'):
                    self.eventType[int(iter.split()[1])] = str(self.bpAttrib[iter].value.decode("utf-8"))  
            # Info
            msg = "Adios using BP method..."
            self.log.info(msg)              
            # Debug
            msg = "Number of attributes: " + str(self.bpNumAttrib)
            self.log.debug(msg)
            msg = "Attribute names: \n" + str(self.bpAttrib)
            self.log.debug(msg)
            msg = "Number of functions: " + str(self.numFun)
            self.log.debug(msg)
            msg = "Function map: \n" + str(self.funMap)
            self.log.debug(msg)   
        else:
            # Info 
            msg = "Adios using non BP method..."
            self.log.info(msg)   
      else:
          msg = "Parse mode not supported..."
          self.log.error(msg)
          raise Exception(msg)
Esempio n. 8
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    M = int(sys.argv[2])
    fname = sys.argv[3]
    varnames = sys.argv[4:]

assert (size <= N * M)

rank_x = rank % N
rank_y = rank / N
""" 
Read step by step
"""
if rank == 0:
    print ""
    print ">>> Read step by step"

f = ad.file(fname, comm=MPI.COMM_WORLD)

for i in range(f.current_step, f.last_step):
    if rank == 0: print ">>> step: %d" % (i)

    for vname in varnames:
        v = f.var[vname]
        if rank == 0: print ">>> name: %s,  global dims: %s" % (vname, v.dims)
        if len(v.dims) != 2:
            if rank == 0: print ">>> Not a 2D array"
            continue

        count = np.array(v.dims) / np.array((N, M))
        offset = count * np.array((rank_x, rank_y))
        if rank_x == N - 1:
            count[0] = v.dims[0] - count[0] * (N - 1)
Esempio n. 9
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init = "verbose=3;"

if len(sys.argv) > 1:
    method = sys.argv[1]

if len(sys.argv) > 2:
    init = sys.argv[2]

print(">>> Method:", method, init)
if method in ["DIMES", "DATASPACES", "FLEXPATH"]:
    is_stream = True
else:
    is_stream = False
ad.read_init(method, parameters=init)

f = ad.file("temp.bp", method, is_stream=is_stream, timeout_sec=10.0)
print(f)

i = 0
while True:
    print(">>> step:", i)
    v = f.var['temperature']
    print(v)

    #val = v.read(nsteps=1)
    #val = v[1:2, 1:5]
    print(v[...])

    if method in ["DIMES", "DATASPACES", "FLEXPATH"]:
        print("Advance ...")
        if (f.advance() < 0):
Esempio n. 10
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import getopt, sys
import os

method = "BP"
init = "verbose=3;"

if len(sys.argv) > 1:
    method = sys.argv[1]

if len(sys.argv) > 2:
    init = sys.argv[2]

print ">>> Method:", method, init
ad.read_init(method, parameters=init)

f = ad.file("temp.bp", method, is_stream=True, timeout_sec = 10.0)
f.printself()

i = 0
while True:
    print ">>> step:", i
    v = f.var['temperature']
    v.printself()

    val = v.read(nsteps=1)
    print val

    if (f.advance() < 0):
        break
    i += 1
Esempio n. 11
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        self.total_samples = self.total_samples + 1
        self.bq[self.bq_index] = dataframe_t
        self.bq_index = self.bq_index + 1
        if self.bq_index == (self.batch_size):
            self.adaptive_sampling_update()
            self.bq_index = 0


np.set_printoptions(threshold=np.inf)

comm = MPI.COMM_WORLD
rank = comm.Get_rank()
size = comm.Get_size()

ad.read_init("BP", comm, "verbose=3;")
f = ad.file("nwchem_xyz.bp", "BP", comm, timeout_sec=20.0)
num_steps = f.last_step - f.current_step + 1

vx = f.vars['LX']
vy = f.vars['LY']
vz = f.vars['LZ']
natoms = vx.dims[0]

localatoms = math.ceil(natoms / size)
if rank == (size - 1):
    localatoms = natoms - localatoms * (size - 1)
offset = math.ceil(natoms / size) * rank

if rank == 0:
    mds2 = MDTrSampler(natoms,
                       2,