"""
PySCeS - Python Simulator for Cellular Systems (http://pysces.sourceforge.net)

Copyright (C) 2004-2012 B.G. Olivier, J.M. Rohwer, J.-H.S Hofmeyr all rights reserved,

Brett G. Olivier (bgoli@users.sourceforge.net)
Triple-J Group for Molecular Cell Physiology
Stellenbosch University, South Africa.

Permission to use, modify, and distribute this software is given under the
terms of the PySceS (BSD style) license. See LICENSE.txt that came with
this distribution for specifics.

NO WARRANTY IS EXPRESSED OR IMPLIED.  USE AT YOUR OWN RISK.
Brett G. Olivier
"""

# begin header
import pysces
import numpy, scipy

from KrakenNET import os, time, socket
from KrakenNET import StatusServer, BasicServer
from KrakenNET import HOSTNAME, BLOCK_SIZE, STATUS_PORT, PYSCES_PORT, CFSERVE_PORT

print 'I AM:', HOSTNAME, 'using BLOCK_SIZE: %s' % BLOCK_SIZE

# end header

__psyco_active__ = 0
##  try:
    ##  import psyco
    ##  psyco.profile()
    ##  __psyco_active__ = 1
    ##  print 'PySCeS Module is now PsycoActive!'
##  except:
    ##  __psyco_active__ = 0
##  __psyco_active__ = 0

from pysces import TimerBox

class PyscesServer(BasicServer):
    COMMAND_LIST = ('P_INIT', 'P_LOAD', 'P_SET_STR', 'P_SET_FLOAT',\
    'P_STATE', 'P_SIM', 'P_ELAS', 'P_MCA', 'P_SCAN', 'P_CONTINUATION', 'P_CONTINUATION_WITH_EIGEN',\
    'P_SET_SETTINGS_STRING', 'P_SET_SETTINGS_FLOAT','P_CONTINUATION_WITH_EIGEN_USER',\
    'P_CONTINUATION2D_WITH_EIGEN_USER')
    model_name = None
    model = None

    def __init__(self, port, block_size, status_server=None, myname=None):
        BasicServer.__init__(self, port, block_size, status_server, myname)

    def P_INIT(self, *args):
        args = args[0]
        print 'Args', args
        self.RESULT = None
        self.setStatus('INITIALISING')
        client = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
        client.connect((self.client_address[0], CFSERVE_PORT))
        client.send('GET')
        GO = True
        model = ''
        while GO:
            data = client.recv(self.block_size)
            model += data
            if data == '':
                GO = False
        self.model_name = args[0]
        self.model = pysces.model(self.model_name, loader="string", fString=model)
        if self.debug: print 'P_INIT ... ok.'
        self.setStatus('DONE_INITIALISE')
        return True

    def P_LOAD(self, *args):
        print 'Loading:', self.model_name
        self.RESULT = None
        self.model.doLoad()
        self.model.SetQuiet()
        if self.debug: print 'P_LOAD ... ok.'
        self.setStatus('DONE_LOAD')
        return True

    def P_SET_SETTINGS_FLOAT(self, *args):
        args = args[0]
        print 'Setting:', args
        self.RESULT = None
        self.model.__settings__.update({args[0] : float(args[1])})
        ##  setattr(self.model, args[0], args[1])
        print self.model.__settings__[args[0]]
        return True

    def P_SET_SETTINGS_STRING(self, *args):
        args = args[0]
        print 'Setting:', args
        self.RESULT = None
        self.model.__settings__.update({args[0] : args[1]})
        ##  setattr(self.model, args[0], args[1])
        print self.model.__settings__[args[0]]
        return True

    def P_SET_STR(self, *args):
        args = args[0]
        print 'Setting:', args
        self.RESULT = None
        setattr(self.model, args[0], args[1])
        print getattr(self.model, args[0])
        return True

    def P_SET_FLOAT(self, *args):
        # note to self in future investigate numpy.float64 for this
        args = args[0]
        print 'Setting:', args
        self.RESULT = None
        setattr(self.model, args[0], float(args[1].strip()))
        print getattr(self.model, args[0])
        return True

    def P_STATE(self, *args):
        self.model.doState()
        self.RESULT = (self.model.state_species, self.model.state_flux)
        if self.debug: print 'P_STATE ... ok.'
        self.setStatus('DONE_STATE')
        return True

    def P_ELAS(self, *args):
        self.model.doElas()
        self.RESULT = (self.model.elas_var, self.model.elas_par)
        if self.debug: print 'P_ELAS ... ok.'
        self.setStatus('DONE_ELAS')
        return True

    def P_MCA(self, *args):
        self.model.doMca()
        self.RESULT = (self.model.mca_ci, self.model.mca_cjd, self.model.mca_csd)
        if self.debug: print 'P_MCA ... ok.'
        self.setStatus('DONE_MCA')
        return True

    def P_SIM(self, *args):
        """Args: (float(time_end), int(points))"""
        self.setStatus('SIMULATING')
        args = args[0]
        print 'Args', args
        self.model.doSim(float(args[0]), float(args[1]))
        self.RESULT = (self.model.sim_res)
        if self.debug: print 'P_STATE ... ok.'
        self.setStatus('DONE_SIM')
        return True

    def P_SCAN(self, *args):
        """Args: (par, out, par*[str(p),float(start),float(end),int(points),
                 log=(int(0/1)),slave=(int(0/1))], [out*str(o)])
        """
        self.setStatus('SCANNING')
        args = args[0]
        print 'Args', args
        commands = []
        cpoint = 1
        shift = 0
        for set in range(int(args[0])):
            ctmp = []
            for t in range(2, 8):
                cpoint += 1
                ctmp.append(args[t+shift].strip())
            commands.append(ctmp)
            shift += 6
        output = []
        for out in range(int(args[1])):
            cpoint += 1
            output.append(args[cpoint].strip())

        print '\n', commands
        print output, '\n'

        scan = pysces.Scanner(self.model)
        scan.quietRun = True
        for gen in commands:
            print gen
            print gen[0], float(gen[1]), float(gen[2]), int(gen[3]), bool(int(gen[4])), bool(int(gen[5]))

            scan.addGenerator(gen[0], float(gen[1]), float(gen[2]), int(gen[3]),\
                                log=bool(int(gen[4])), slave=bool(int(gen[5])))
        scan.addUserOutput(*output)
        scan.Run()
        self.RESULT = scan.UserOutputResults
        self.setStatus('DONE_SCAN')
        del scan
        return True

    def P_CONTINUATION(self, *args):
        """
        [str(p), float(min), float(max), int(points), *float(y-value)]
        """
        self.setStatus('CONTINUING')
        args = args[0]
        print 'Args', args

        self.model.pitcon_par_space = scipy.logspace(\
            scipy.log10(float(args[1].strip())), scipy.log10(float(args[2].strip())), int(args[3].strip()))

        if len(args) == 4:
            self.RESULT = self.model.PITCON(args[0].strip())
        elif len(args) == 5:
            self.RESULT = self.model.PITCON(args[0].strip(), float(args[4].strip()))
        return True

    def P_CONTINUATION_WITH_EIGEN(self, *args):
        """
        [str(p), float(min), float(max), int(points), *float(y-value)]
        """
        self.setStatus('CONTINUING')
        args = args[0]
        print 'Args', args

        pscan = pysces.PITCONScanUtils(self.model)
        if len(args) == 4:
            pscan.runContinuation(args[0].strip(),float(args[1].strip()), float(args[2].strip()), int(args[3].strip()))
        elif len(args) == 5:
            pscan.runContinuation(args[0].strip(), float(args[1].strip()), float(args[2].strip()), int(args[3].strip()), float(args[4].strip()))
        pscan.analyseData(analysis='eigen')
        self.RESULT = (pscan.res_idx, pscan.res_metab, pscan.res_flux, pscan.getArrayListAsArray(pscan.res_eigen))
        del pscan
        return True

    def P_CONTINUATION_WITH_EIGEN_USER(self, *args):
        """
        [str(p), float(min), float(max), int(points), float(y-value)]
        """
        self.setStatus('CONTINUING')
        args = args[0]
        print 'Args', args

        pscan = pysces.PITCONScanUtils(self.model)
        #TODO HARD CODED FOR NOW BUT NEEDS GENERALISATION
        pscan.setUserOuput('ecR1_A','ecR2_A')
        if len(args) == 4:
            pscan.runContinuation(args[0].strip(),float(args[1].strip()), float(args[2].strip()), int(args[3].strip()))
        elif len(args) == 5:
            pscan.runContinuation(args[0].strip(), float(args[1].strip()), float(args[2].strip()), int(args[3].strip()), float(args[4].strip()))
        pscan.analyseData(analysis='eigen')
        self.RESULT = (pscan.res_idx, pscan.res_metab, pscan.res_flux, pscan.getArrayListAsArray(pscan.res_eigen), pscan.res_user)
        del pscan
        return True

    def P_CONTINUATION2D_WITH_EIGEN_USER(self, *args):
        """
        [str(p), float(min), float(max), int(points), float(y-value), str(userNx)]
        """
        self.setStatus('CONTINUING')
        args = args[0]
        print 'Args', args
        userout = []
        for a in range(len(args)):
            args[a] = args[a].strip()
            if a > 4:
                userout.append(args[a])

        pscan = pysces.PITCONScanUtils(self.model)
        if len(userout) > 0:
            pscan.setUserOuput(*userout)
        pscan.runContinuation(args[0], float(args[1]), float(args[2]), int(args[3]), float(args[4]))
        pscan.analyseData(analysis='all')
        self.RESULT = (pscan.res_idx, pscan.res_metab, pscan.res_flux, pscan.getArrayListAsArray(pscan.res_eigen), pscan.res_user)
        del pscan
        return True


def StartPysCeSKrakenServer(STATUS_PORT=STATUS_PORT, PYSCES_PORT=PYSCES_PORT, BLOCK_SIZE=BLOCK_SIZE):
    STATUSserve = StatusServer(STATUS_PORT, BLOCK_SIZE, 'KrakenStatus')
    STATUSserve.start()
    PYSCESserve = PyscesServer(PYSCES_PORT, BLOCK_SIZE, STATUSserve, 'KrakenPySCeS')
    PYSCESserve.start()
    PYSCESserve.join()


if __name__ == '__main__':
    ##  mod = pysces.model('isola_thesis')
    ##  mod.doLoad()
    ##  pscan = pysces.PITCONScanUtils(mod)
    ##  pscan.do2Dcontinuation('P',0.01,3000,5,par3d=0.1)
    ##  pscan.doEigenAnalysis()
    ##  print 'PITCON', pscan.pitcon_res[0]
    ##  print 'FLUX',   pscan.flux_res[0]
    ##  print 'EIGEN',  pscan.eigen_res[0]
    StartPysCeSKrakenServer()
    print '\nAll threads terminated ... exiting now.\n'


