Exemplo n.º 1
0
    def process_output(self, recipe=None, diff=False):

        from dolo.compiler.function_compiler_matlab import compile_multiargument_function
        from dolo.compiler.function_compiler_matlab import compile_incidence_matrices
        recipe = self.recipe

        model = self.model
        parms = model.symbols_s['parameters']

        fun_text = ''
        incidence_matrices_text = ''

        try:
            [lb_sym, ub_sym] = model.get_complementarities()['arbitrage']

            states = model.symbols_s['states']
            parameters = model.symbols_s['parameters']
            txt_lb = compile_multiargument_function(lb_sym, [states], ['s'], parameters, fname = 'arbitrage_lb', diff=diff, default='-inf')
            txt_ub = compile_multiargument_function(ub_sym, [states], ['s'], parameters, fname = 'arbitrage_ub', diff=diff, default='inf')
            incidence_matrices_text += 'model.infos.incidence_matrices.arbitrage_lb = ' + compile_incidence_matrices(lb_sym, [states]) + '\n'
            incidence_matrices_text += 'model.infos.incidence_matrices.arbitrage_ub = ' + compile_incidence_matrices(ub_sym, [states]) + '\n'

            there_are_complementarities = True
        except Exception as e:
            there_are_complementarities = False
            print(e)

        for eqg in self.model.equations_groups:

            args = []

            is_a_definition = 'definition' in recipe['equation_type'][eqg]

            if is_a_definition:
                arg_specs = recipe['equation_type'][eqg]['rhs']
            else:
                arg_specs = recipe['equation_type'][eqg]


            arg_names = []
            for syms in arg_specs:
                [sgn,time] = syms
                args.append( [ s(time) for s in model.symbols_s[sgn] if sgn not in ('parameters',) ] )
                if time == 1:
                    stime = '_f'
                elif time == -1:
                    stime = '_p'
                else:
                    stime = ''
                arg_names.append( sgn + stime)

            equations = self.model.equations_groups[eqg]

            if is_a_definition:
                from dolo.compiler.common import solve_recursive_block
                equations = solve_recursive_block(equations)
                equations = [eq.rhs for eq in equations]
            else:
                equations = [eq.gap for eq in equations]

            txt = compile_multiargument_function(equations, args, arg_names, parms, fname = eqg, diff=diff)

            fun_text += txt

            txt = compile_incidence_matrices(equations, args)
            incidence_matrices_text += 'model.infos.incidence_matrices.' + eqg + ' = ' + txt + '\n'


        # the following part only makes sense for fga models

        calib = model.calibration
        cc = calib.copy()
        cc.pop('parameters')
        cc.pop('shocks')
        cc.pop('covariances')
        steady_state = cc
        parameters_values = calib['parameters']

        if 'covariances' in calib:
            sigma_calib = 'calibration.sigma = {};\n'.format( str(calib['covariances']).replace('\n',';') )
        else:
            sigma_calib = {}



        funs_text = "functions = struct;\n"
        for fun_name in recipe['equation_type']:
            funs_text += 'functions.{0} = @{0};\n'.format(fun_name)

        ss_text = "calibration = struct;\n"
        for k,v in steady_state.iteritems():
            ss_text += 'calibration.{0} = {1};\n'.format( k, str(v).replace('\n',' ')  )
        import numpy
        numpy.set_printoptions(threshold=1E6)
        ss_text += 'calibration.parameters = {0};\n'.format(str(parameters_values).replace('\n',' '))
        ss_text += sigma_calib


        var_text = "symbols = struct;\n"
        for vn, vg in model.symbols_s.iteritems():
            var_text += 'symbols.{0} = {{{1}}};\n'.format(vn, str.join(',', ["'{}'".format(e ) for e in vg]))

        if there_are_complementarities:
            funs_text += """
functions.arbitrage_lb = @arbitrage_lb;
functions.arbitrage_ub = @arbitrage_ub;
            """

            fun_text += txt_lb
            fun_text += txt_ub


        full_text = '''function model = {model_name}()

{var_text}
{calib_text}
{funs_text}
model = struct;
model.symbols = symbols;
model.functions = functions;
model.calibration = calibration;
{incidence_matrices_text}
end
{function_definitions}'''.format(
            model_name = model.name,
            function_definitions = fun_text,
            funs_text = funs_text,
            incidence_matrices_text = incidence_matrices_text,

            calib_text = ss_text,
            var_text = var_text,
        )

        return full_text
Exemplo n.º 2
0
    def process_output(self, recipe=None, diff=False):

        from dolo.compiler.function_compiler_matlab import compile_multiargument_function
        from dolo.compiler.function_compiler_matlab import compile_incidence_matrices
        recipe = self.recipe

        model = self.model
        parms = model.symbols_s['parameters']

        fun_text = ''
        incidence_matrices_text = ''

        try:
            [lb_sym, ub_sym] = model.get_complementarities()['arbitrage']

            states = model.symbols_s['states']
            parameters = model.symbols_s['parameters']
            txt_lb = compile_multiargument_function(lb_sym, [states], ['s'],
                                                    parameters,
                                                    fname='arbitrage_lb',
                                                    diff=diff,
                                                    default='-inf')
            txt_ub = compile_multiargument_function(ub_sym, [states], ['s'],
                                                    parameters,
                                                    fname='arbitrage_ub',
                                                    diff=diff,
                                                    default='inf')
            incidence_matrices_text += 'model.infos.incidence_matrices.arbitrage_lb = ' + compile_incidence_matrices(
                lb_sym, [states]) + '\n'
            incidence_matrices_text += 'model.infos.incidence_matrices.arbitrage_ub = ' + compile_incidence_matrices(
                ub_sym, [states]) + '\n'

            there_are_complementarities = True
        except Exception as e:
            there_are_complementarities = False
            print(e)

        for eqg in self.model.equations_groups:

            args = []

            is_a_definition = 'definition' in recipe['equation_type'][eqg]

            if is_a_definition:
                arg_specs = recipe['equation_type'][eqg]['rhs']
            else:
                arg_specs = recipe['equation_type'][eqg]

            arg_names = []
            for syms in arg_specs:
                [sgn, time] = syms
                args.append([
                    s(time) for s in model.symbols_s[sgn]
                    if sgn not in ('parameters', )
                ])
                if time == 1:
                    stime = '_f'
                elif time == -1:
                    stime = '_p'
                else:
                    stime = ''
                arg_names.append(sgn + stime)

            equations = self.model.equations_groups[eqg]

            if is_a_definition:
                from dolo.compiler.common import solve_recursive_block
                equations = solve_recursive_block(equations)
                equations = [eq.rhs for eq in equations]
            else:
                equations = [eq.gap for eq in equations]

            txt = compile_multiargument_function(equations,
                                                 args,
                                                 arg_names,
                                                 parms,
                                                 fname=eqg,
                                                 diff=diff)

            fun_text += txt

            txt = compile_incidence_matrices(equations, args)
            incidence_matrices_text += 'model.infos.incidence_matrices.' + eqg + ' = ' + txt + '\n'

        # the following part only makes sense for fga models

        calib = model.calibration
        cc = calib.copy()
        cc.pop('parameters')
        cc.pop('shocks')
        cc.pop('covariances')
        steady_state = cc
        parameters_values = calib['parameters']

        if 'covariances' in calib:
            sigma_calib = 'calibration.sigma = {};\n'.format(
                str(calib['covariances']).replace('\n', ';'))
        else:
            sigma_calib = {}

        funs_text = "functions = struct;\n"
        for fun_name in recipe['equation_type']:
            funs_text += 'functions.{0} = @{0};\n'.format(fun_name)

        ss_text = "calibration = struct;\n"
        for k, v in steady_state.iteritems():
            ss_text += 'calibration.{0} = {1};\n'.format(
                k,
                str(v).replace('\n', ' '))
        import numpy
        numpy.set_printoptions(threshold=1E6)
        ss_text += 'calibration.parameters = {0};\n'.format(
            str(parameters_values).replace('\n', ' '))
        ss_text += sigma_calib

        var_text = "symbols = struct;\n"
        for vn, vg in model.symbols_s.iteritems():
            var_text += 'symbols.{0} = {{{1}}};\n'.format(
                vn, str.join(',', ["'{}'".format(e) for e in vg]))

        if there_are_complementarities:
            funs_text += """
functions.arbitrage_lb = @arbitrage_lb;
functions.arbitrage_ub = @arbitrage_ub;
            """

            fun_text += txt_lb
            fun_text += txt_ub

        full_text = '''function model = {model_name}()

{var_text}
{calib_text}
{funs_text}
model = struct;
model.symbols = symbols;
model.functions = functions;
model.calibration = calibration;
{incidence_matrices_text}
end
{function_definitions}'''.format(
            model_name=model.name,
            function_definitions=fun_text,
            funs_text=funs_text,
            incidence_matrices_text=incidence_matrices_text,
            calib_text=ss_text,
            var_text=var_text,
        )

        return full_text
Exemplo n.º 3
0
    def process_output(self, recipe=None, diff=False):

        recipe = self.recipe

        model = self.model
        parms = model['parameters_ordering']


        fun_text = ''

        for eqg in self.model['equations_groups']:

            args = []

            is_a_definition = 'definition' in recipe['equation_type'][eqg]

            if is_a_definition:
                arg_specs = recipe['equation_type'][eqg]['rhs']
            else:
                arg_specs = recipe['equation_type'][eqg]


            arg_names = []
            for syms in arg_specs:
                [sgn,time] = syms
                if syms[0] == 'shocks':
                    args.append( [ s(time) for s in model['shocks_ordering'] ] )
                else:
                    args.append( [ s(time) for s in model['variables_groups'][sgn] ] )
                if time == 1:
                    stime = '_f'
                elif time == -1:
                    stime = '_p'
                else:
                    stime = ''
                arg_names.append( sgn + stime)

            equations = self.model['equations_groups'][eqg]

            if is_a_definition:
                from dolo.compiler.common import solve_recursive_block
                equations = solve_recursive_block(equations)
                equations = [eq.rhs for eq in equations]
            else:
                equations = [eq.gap for eq in equations]

            from dolo.compiler.function_compiler_matlab import compile_multiargument_function
            txt = compile_multiargument_function(equations, args, arg_names, parms, fname = eqg, diff=diff)

            fun_text += txt


        # the following part only makes sense for fga models

        calib = model.calibration

        steady_state = calib['steady_state']
        parameters_values = calib['parameters']

        if 'sigma' in calib:
            sigma_calib = 'calibration.sigma = {};\n'.format( str(calib['sigma']).replace('\n',';') )
        else:
            sigma_calib = {}



        funs_text = "functions = struct;\n"
        for fun_name in recipe['equation_type']:
            funs_text += 'functions.{0} = @{0};\n'.format(fun_name)

        ss_text = "steady_state = struct;\n"
        for k,v in steady_state.iteritems():
            ss_text += 'steady_state.{0} = {1};\n'.format( k, str(v) )

        var_text = "symbols = struct;\n"
        for vn, vg in model['variables_groups'].iteritems():
            var_text += 'symbols.{0} = {{{1}}};\n'.format(vn, str.join(',', ["'{}'".format(e ) for e in vg]))

        var_text += 'symbols.parameters = {{{}}};\n'.format(str.join(',', ["'{}'".format(e ) for e in model['parameters_ordering']]))
        var_text += 'symbols.shocks = {{{}}};\n'.format(str.join(',', ["'{}'".format(e ) for e in model['shocks_ordering']]))


        full_text = '''

function [model] = get_model()

{ss_text}

{var_text}

calibration = struct;
calibration.steady_state = steady_state;
calibration.parameters = {params};
{sigma_calib}

{funs_text}

model = struct;
model.symbols = symbols;
model.functions = functions;
model.calibration = calibration;

end





{function_definitions}

'''.format(
            function_definitions = fun_text,
            funs_text = funs_text,
            ss_text = ss_text,
            sigma_calib = sigma_calib,
            var_text = var_text,
            params = str(parameters_values)

        )

        return full_text