def test_case():
ob = FCodePrinter()
x, x_, x__, y, X, X_, Y = symbols('x,x_,x__,y,X,X_,Y')
assert fcode(exp(x_) + sin(x*y) + cos(X*Y)) == \
' exp(x_) + sin(x*y) + cos(X__*Y_)'
assert fcode(exp(x__) + 2*x*Y*X_**Rational(7, 2)) == \
' 2*X_**(7.0d0/2.0d0)*Y*x + exp(x__)'
assert fcode(exp(x_) + sin(x*y) + cos(X*Y), name_mangling=False) == \
' exp(x_) + sin(x*y) + cos(X*Y)'
assert fcode(x - cos(X), name_mangling=False) == ' x - cos(X)'
assert ob.doprint(X * sin(x) + x_,
assign_to='me') == ' me = X*sin(x_) + x__'
assert ob.doprint(X * sin(x), assign_to='mu') == ' mu = X*sin(x_)'
assert ob.doprint(x_, assign_to='ad') == ' ad = x__'
n, m = symbols('n,m', integer=True)
A = IndexedBase('A')
x = IndexedBase('x')
y = IndexedBase('y')
i = Idx('i', m)
I = Idx('I', n)
assert fcode(
A[i, I] * x[I], assign_to=y[i],
source_format='free') == ("do i = 1, m\n"
" y(i) = 0\n"
"end do\n"
"do i = 1, m\n"
" do I_ = 1, n\n"
" y(i) = A(i, I_)*x(I_) + y(i)\n"
" end do\n"
"end do")
def test_free_form_comment_line():
printer = FCodePrinter({ 'source_format': 'free'})
lines = [ "! This is a long comment on a single line that must be wrapped properly to produce nice output"]
expected = [
'! This is a long comment on a single line that must be wrapped properly',
'! to produce nice output']
assert printer._wrap_fortran(lines) == expected
def test_free_form_comment_line():
printer = FCodePrinter({'source_format': 'free'})
lines = [ "! This is a long comment on a single line that must be wrapped properly to produce nice output"]
expected = [
'! This is a long comment on a single line that must be wrapped properly',
'! to produce nice output']
assert printer._wrap_fortran(lines) == expected
def render_as_module(definitions, name, declarations=(), printer_settings=None):
""" Creates a ``Module`` instance and renders it as a string.
This generates Fortran source code for a module with the correct ``use`` statements.
Parameters
==========
definitions : iterable
Passed to :class:`sympy.codegen.fnodes.Module`.
name : str
Passed to :class:`sympy.codegen.fnodes.Module`.
declarations : iterable
Passed to :class:`sympy.codegen.fnodes.Module`. It will be extended with
use statements, 'implicit none' and public list generated from ``definitions``.
printer_settings : dict
Passed to ``FCodePrinter`` (default: ``{'standard': 2003, 'source_format': 'free'}``).
"""
printer_settings = printer_settings or {'standard': 2003, 'source_format': 'free'}
printer = FCodePrinter(printer_settings)
dummy = Dummy()
if isinstance(definitions, Module):
raise ValueError("This function expects to construct a module on its own.")
mod = Module(name, chain(declarations, [dummy]), definitions)
fstr = printer.doprint(mod)
module_use_str = ' %s\n' % ' \n'.join(['use %s, only: %s' % (k, ', '.join(v)) for
k, v in printer.module_uses.items()])
module_use_str += ' implicit none\n'
module_use_str += ' private\n'
module_use_str += ' public %s\n' % ', '.join([str(node.name) for node in definitions if getattr(node, 'name', None)])
return fstr.replace(printer.doprint(dummy), module_use_str)
return fstr
def test_case():
ob = FCodePrinter()
x,x_,x__,y,X,X_,Y = symbols('x,x_,x__,y,X,X_,Y')
assert fcode(exp(x_) + sin(x*y) + cos(X*Y)) == \
' exp(x_) + sin(x*y) + cos(X__*Y_)'
assert fcode(exp(x__) + 2*x*Y*X_**Rational(7, 2)) == \
' 2*X_**(7.0d0/2.0d0)*Y*x + exp(x__)'
assert fcode(exp(x_) + sin(x*y) + cos(X*Y), name_mangling=False) == \
' exp(x_) + sin(x*y) + cos(X*Y)'
assert fcode(x - cos(X), name_mangling=False) == ' x - cos(X)'
assert ob.doprint(X*sin(x) + x_, assign_to='me') == ' me = X*sin(x_) + x__'
assert ob.doprint(X*sin(x), assign_to='mu') == ' mu = X*sin(x_)'
assert ob.doprint(x_, assign_to='ad') == ' ad = x__'
n, m = symbols('n,m', integer=True)
A = IndexedBase('A')
x = IndexedBase('x')
y = IndexedBase('y')
i = Idx('i', m)
I = Idx('I', n)
assert fcode(A[i, I]*x[I], assign_to=y[i], source_format='free') == (
"do i = 1, m\n"
" y(i) = 0\n"
"end do\n"
"do i = 1, m\n"
" do I_ = 1, n\n"
" y(i) = A(i, I_)*x(I_) + y(i)\n"
" end do\n"
"end do" )
def test_case():
ob = FCodePrinter()
x, x_, x__, y, X, X_, Y = symbols("x,x_,x__,y,X,X_,Y")
assert (fcode(exp(x_) + sin(x * y) +
cos(X * Y)) == " exp(x_) + sin(x*y) + cos(X__*Y_)")
assert (fcode(exp(x__) + 2 * x * Y * X_**Rational(7, 2)) ==
" 2*X_**(7.0d0/2.0d0)*Y*x + exp(x__)")
assert (fcode(
exp(x_) + sin(x * y) + cos(X * Y),
name_mangling=False) == " exp(x_) + sin(x*y) + cos(X*Y)")
assert fcode(x - cos(X), name_mangling=False) == " x - cos(X)"
assert ob.doprint(X * sin(x) + x_,
assign_to="me") == " me = X*sin(x_) + x__"
assert ob.doprint(X * sin(x), assign_to="mu") == " mu = X*sin(x_)"
assert ob.doprint(x_, assign_to="ad") == " ad = x__"
n, m = symbols("n,m", integer=True)
A = IndexedBase("A")
x = IndexedBase("x")
y = IndexedBase("y")
i = Idx("i", m)
I = Idx("I", n)
assert fcode(
A[i, I] * x[I], assign_to=y[i],
source_format="free") == ("do i = 1, m\n"
" y(i) = 0\n"
"end do\n"
"do i = 1, m\n"
" do I_ = 1, n\n"
" y(i) = A(i, I_)*x(I_) + y(i)\n"
" end do\n"
"end do")
def test_loops():
from sympy import symbols
i,j,n,m = symbols('i j n m', integer=True)
A,x,y = symbols('A x y')
A = Indexed(A)(Idx(i, m), Idx(j, n))
x = Indexed(x)(Idx(j, n))
y = Indexed(y)(Idx(i, m))
# human = False
printer = FCodePrinter({ 'source_format': 'free', 'assign_to':y, 'human':0})
expected = ([], set([A, x, y, Idx(j, n), Idx(i, m)]), 'do i = 1, m\n do j = 1, n\n y(i) = A(i, j)*x(j)\n end do\nend do')
code = printer.doprint(A*x)
# assert expected == code
# human = True
printer = FCodePrinter({ 'source_format': 'free', 'assign_to':y, 'human':1})
expected = (
'! Not Fortran:\n'
'! A(i, j)\n'
'! i\n'
'! j\n'
'! x(j)\n'
'! y(i)\n'
'do i = 1, m\n'
' do j = 1, n\n'
' y(i) = A(i, j)*x(j)\n'
' end do\n'
'end do'
)
code = printer.doprint(A*x)
assert expected == code
def test_indent():
codelines = ("subroutine test(a)\n"
"integer :: a, i, j\n"
"\n"
"do\n"
"do \n"
"do j = 1, 5\n"
"if (a>b) then\n"
"if(b>0) then\n"
"a = 3\n"
"donot_indent_me = 2\n"
"do_not_indent_me_either = 2\n"
"ifIam_indented_something_went_wrong = 2\n"
"if_I_am_indented_something_went_wrong = 2\n"
"end should not be unindented here\n"
"end if\n"
"endif\n"
"end do\n"
"end do\n"
"enddo\n"
"end subroutine\n"
"\n"
"subroutine test2(a)\n"
"integer :: a\n"
"do\n"
"a = a + 1\n"
"end do \n"
"end subroutine\n")
expected = ("subroutine test(a)\n"
"integer :: a, i, j\n"
"\n"
"do\n"
" do \n"
" do j = 1, 5\n"
" if (a>b) then\n"
" if(b>0) then\n"
" a = 3\n"
" donot_indent_me = 2\n"
" do_not_indent_me_either = 2\n"
" ifIam_indented_something_went_wrong = 2\n"
" if_I_am_indented_something_went_wrong = 2\n"
" end should not be unindented here\n"
" end if\n"
" endif\n"
" end do\n"
" end do\n"
"enddo\n"
"end subroutine\n"
"\n"
"subroutine test2(a)\n"
"integer :: a\n"
"do\n"
" a = a + 1\n"
"end do \n"
"end subroutine\n")
p = FCodePrinter({"source_format": "free"})
result = p.indent_code(codelines)
assert result == expected
def test_wrap_fortran():
# "########################################################################"
printer = FCodePrinter()
lines = [
"C This is a long comment on a single line that must be wrapped properly to produce nice output",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/must + be + wrapped + properly",
]
wrapped_lines = printer._wrap_fortran(lines)
expected_lines = [
"C This is a long comment on a single line that must be wrapped",
"C properly to produce nice output",
" this = is + a + long + and + nasty + fortran + statement + that *",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that *",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ *must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement +",
" @ that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ **must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ **must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement +",
" @ that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)",
" @ /must + be + wrapped + properly",
]
for line in wrapped_lines:
assert len(line) <= 72
for w, e in zip(wrapped_lines, expected_lines):
assert w == e
assert len(wrapped_lines) == len(expected_lines)
def test_indent():
codelines = ('subroutine test(a)\n'
'integer :: a, i, j\n'
'\n'
'do\n'
'do \n'
'do j = 1, 5\n'
'if (a>b) then\n'
'if(b>0) then\n'
'a = 3\n'
'donot_indent_me = 2\n'
'do_not_indent_me_either = 2\n'
'ifIam_indented_something_went_wrong = 2\n'
'if_I_am_indented_something_went_wrong = 2\n'
'end should not be unindented here\n'
'end if\n'
'endif\n'
'end do\n'
'end do\n'
'enddo\n'
'end subroutine\n'
'\n'
'subroutine test2(a)\n'
'integer :: a\n'
'do\n'
'a = a + 1\n'
'end do \n'
'end subroutine\n')
expected = ('subroutine test(a)\n'
'integer :: a, i, j\n'
'\n'
'do\n'
' do \n'
' do j = 1, 5\n'
' if (a>b) then\n'
' if(b>0) then\n'
' a = 3\n'
' donot_indent_me = 2\n'
' do_not_indent_me_either = 2\n'
' ifIam_indented_something_went_wrong = 2\n'
' if_I_am_indented_something_went_wrong = 2\n'
' end should not be unindented here\n'
' end if\n'
' endif\n'
' end do\n'
' end do\n'
'enddo\n'
'end subroutine\n'
'\n'
'subroutine test2(a)\n'
'integer :: a\n'
'do\n'
' a = a + 1\n'
'end do \n'
'end subroutine\n')
p = FCodePrinter({'source_format': 'free'})
result = p.indent_code(codelines)
assert result == expected
def test_wrap_fortran():
# "########################################################################"
printer = FCodePrinter()
lines = [
"C This is a long comment on a single line that must be wrapped properly to produce nice output",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/must + be + wrapped + properly",
]
wrapped_lines = printer._wrap_fortran(lines)
expected_lines = [
"C This is a long comment on a single line that must be wrapped",
"C properly to produce nice output",
" this = is + a + long + and + nasty + fortran + statement + that *",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that *",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ * must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that*",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ *must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement +",
" @ that*must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that**",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ **must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement + that",
" @ **must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement +",
" @ that**must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)/",
" @ must + be + wrapped + properly",
" this = is + a + long + and + nasty + fortran + statement(that)",
" @ /must + be + wrapped + properly",
]
for line in wrapped_lines:
assert len(line) <= 72
for w, e in zip(wrapped_lines, expected_lines):
assert w == e
assert len(wrapped_lines) == len(expected_lines)
def test_fcode_NumberSymbol():
p = FCodePrinter()
assert fcode(
Catalan
) == ' parameter (Catalan = 0.915965594177219d0)\n Catalan'
assert fcode(
EulerGamma
) == ' parameter (EulerGamma = 0.577215664901533d0)\n EulerGamma'
assert fcode(E) == ' parameter (E = 2.71828182845905d0)\n E'
assert fcode(
GoldenRatio
) == ' parameter (GoldenRatio = 1.61803398874989d0)\n GoldenRatio'
assert fcode(pi) == ' parameter (pi = 3.14159265358979d0)\n pi'
assert fcode(pi,
precision=5) == ' parameter (pi = 3.1416d0)\n pi'
assert fcode(Catalan, human=False) == (set([
(Catalan, p._print(Catalan.evalf(15)))
]), set([]), ' Catalan')
assert fcode(EulerGamma, human=False) == (set([
(EulerGamma, p._print(EulerGamma.evalf(15)))
]), set([]), ' EulerGamma')
assert fcode(E, human=False) == (set([(E, p._print(E.evalf(15)))]),
set([]), ' E')
assert fcode(GoldenRatio, human=False) == (set([
(GoldenRatio, p._print(GoldenRatio.evalf(15)))
]), set([]), ' GoldenRatio')
assert fcode(pi, human=False) == (set([(pi, p._print(pi.evalf(15)))]),
set([]), ' pi')
assert fcode(pi, precision=5, human=False) == (set([
(pi, p._print(pi.evalf(5)))
]), set([]), ' pi')
def __init__(self, openmp=True, **kwargs):
"""Initialize a Fortran code printer.
The printer class, the name of the template, and the line continuation
symbol will be set automatically.
"""
if openmp:
add_templ = {
'tensor_prelude': _FORTRAN_OMP_PARALLEL_PRELUDE,
'tensor_finale': _FORTRAN_OMP_PARALLEL_FINALE,
'init_prelude': _FORTRAN_OMP_INIT_PRELUDE,
'init_finale': _FORTRAN_OMP_INIT_FINALE,
'term_prelude': _FORTRAN_OMP_TERM_PRELUDE,
'term_finale': _FORTRAN_OMP_TERM_FINALE,
}
else:
add_templ = None
super().__init__(FCodePrinter(settings={'source_format': 'free'}),
lambda base, indices: base +
('' if len(indices) == 0 else '({})'.format(', '.join(
i.index for i in indices))),
line_cont='&',
add_filters={
'form_loop_beg': self._form_fortran_loop_beg,
'form_loop_end': self._form_fortran_loop_end,
},
add_globals={'zero_literal': '0.0'},
add_templ=add_templ,
**kwargs)
def test_fcode_NumberSymbol():
prec = 17
p = FCodePrinter()
assert fcode(
Catalan
) == " parameter (Catalan = %sd0)\n Catalan" % Catalan.evalf(
prec)
assert fcode(
EulerGamma
) == " parameter (EulerGamma = %sd0)\n EulerGamma" % EulerGamma.evalf(
prec)
assert fcode(E) == " parameter (E = %sd0)\n E" % E.evalf(prec)
assert fcode(
GoldenRatio
) == " parameter (GoldenRatio = %sd0)\n GoldenRatio" % GoldenRatio.evalf(
prec)
assert fcode(
pi) == " parameter (pi = %sd0)\n pi" % pi.evalf(prec)
assert fcode(
pi,
precision=5) == " parameter (pi = %sd0)\n pi" % pi.evalf(5)
assert fcode(Catalan, human=False) == (
set([(Catalan, p._print(Catalan.evalf(prec)))]),
set([]),
" Catalan",
)
assert fcode(EulerGamma, human=False) == (
set([(EulerGamma, p._print(EulerGamma.evalf(prec)))]),
set([]),
" EulerGamma",
)
assert fcode(E, human=False) == (
set([(E, p._print(E.evalf(prec)))]),
set([]),
" E",
)
assert fcode(GoldenRatio, human=False) == (
set([(GoldenRatio, p._print(GoldenRatio.evalf(prec)))]),
set([]),
" GoldenRatio",
)
assert fcode(pi, human=False) == (
set([(pi, p._print(pi.evalf(prec)))]),
set([]),
" pi",
)
assert fcode(pi, precision=5, human=False) == (
set([(pi, p._print(pi.evalf(5)))]),
set([]),
" pi",
)
def test_wrap_fortran_keep_d0():
printer = FCodePrinter()
lines = [
' this_variable_is_very_long_because_we_try_to_test_line_break=1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 10.0d0'
]
expected = [
' this_variable_is_very_long_because_we_try_to_test_line_break=1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 10.0d0'
]
assert printer._wrap_fortran(lines) == expected
def test_wrap_fortran_keep_d0():
printer = FCodePrinter()
lines = [
' this_variable_is_very_long_because_we_try_to_test_line_break=1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break = 10.0d0'
]
expected = [
' this_variable_is_very_long_because_we_try_to_test_line_break=1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 1.0d0',
' this_variable_is_very_long_because_we_try_to_test_line_break =',
' @ 10.0d0'
]
assert printer._wrap_fortran(lines) == expected
def test_fcode_NumberSymbol():
p = FCodePrinter()
assert fcode(Catalan) == ' parameter (Catalan = 0.915965594177219d0)\n Catalan'
assert fcode(EulerGamma) == ' parameter (EulerGamma = 0.577215664901533d0)\n EulerGamma'
assert fcode(E) == ' parameter (E = 2.71828182845905d0)\n E'
assert fcode(GoldenRatio) == ' parameter (GoldenRatio = 1.61803398874989d0)\n GoldenRatio'
assert fcode(pi) == ' parameter (pi = 3.14159265358979d0)\n pi'
assert fcode(pi,precision=5) == ' parameter (pi = 3.1416d0)\n pi'
assert fcode(Catalan,human=False) == (set([(Catalan, p._print(Catalan.evalf(15)))]), set([]), ' Catalan')
assert fcode(EulerGamma,human=False) == (set([(EulerGamma, p._print(EulerGamma.evalf(15)))]), set([]), ' EulerGamma')
assert fcode(E,human=False) == (set([(E, p._print(E.evalf(15)))]), set([]), ' E')
assert fcode(GoldenRatio,human=False) == (set([(GoldenRatio, p._print(GoldenRatio.evalf(15)))]), set([]), ' GoldenRatio')
assert fcode(pi,human=False) == (set([(pi, p._print(pi.evalf(15)))]), set([]), ' pi')
assert fcode(pi,precision=5,human=False) == (set([(pi, p._print(pi.evalf(5)))]), set([]), ' pi')
def test_fcode_NumberSymbol():
prec = 17
p = FCodePrinter()
assert fcode(Catalan) == ' parameter (Catalan = %sd0)\n Catalan' % Catalan.evalf(prec)
assert fcode(EulerGamma) == ' parameter (EulerGamma = %sd0)\n EulerGamma' % EulerGamma.evalf(prec)
assert fcode(E) == ' parameter (E = %sd0)\n E' % E.evalf(prec)
assert fcode(GoldenRatio) == ' parameter (GoldenRatio = %sd0)\n GoldenRatio' % GoldenRatio.evalf(prec)
assert fcode(pi) == ' parameter (pi = %sd0)\n pi' % pi.evalf(prec)
assert fcode(
pi, precision=5) == ' parameter (pi = %sd0)\n pi' % pi.evalf(5)
assert fcode(Catalan, human=False) == (set(
[(Catalan, p._print(Catalan.evalf(prec)))]), set([]), ' Catalan')
assert fcode(EulerGamma, human=False) == (set([(EulerGamma, p._print(
EulerGamma.evalf(prec)))]), set([]), ' EulerGamma')
assert fcode(E, human=False) == (
set([(E, p._print(E.evalf(prec)))]), set([]), ' E')
assert fcode(GoldenRatio, human=False) == (set([(GoldenRatio, p._print(
GoldenRatio.evalf(prec)))]), set([]), ' GoldenRatio')
assert fcode(pi, human=False) == (
set([(pi, p._print(pi.evalf(prec)))]), set([]), ' pi')
assert fcode(pi, precision=5, human=False) == (
set([(pi, p._print(pi.evalf(5)))]), set([]), ' pi')
def test_fcode_NumberSymbol():
prec = 17
p = FCodePrinter()
assert fcode(Catalan) == ' parameter (Catalan = %sd0)\n Catalan' % Catalan.evalf(prec)
assert fcode(EulerGamma) == ' parameter (EulerGamma = %sd0)\n EulerGamma' % EulerGamma.evalf(prec)
assert fcode(E) == ' parameter (E = %sd0)\n E' % E.evalf(prec)
assert fcode(GoldenRatio) == ' parameter (GoldenRatio = %sd0)\n GoldenRatio' % GoldenRatio.evalf(prec)
assert fcode(pi) == ' parameter (pi = %sd0)\n pi' % pi.evalf(prec)
assert fcode(
pi, precision=5) == ' parameter (pi = %sd0)\n pi' % pi.evalf(5)
assert fcode(Catalan, human=False) == (set(
[(Catalan, p._print(Catalan.evalf(prec)))]), set([]), ' Catalan')
assert fcode(EulerGamma, human=False) == (set([(EulerGamma, p._print(
EulerGamma.evalf(prec)))]), set([]), ' EulerGamma')
assert fcode(E, human=False) == (
set([(E, p._print(E.evalf(prec)))]), set([]), ' E')
assert fcode(GoldenRatio, human=False) == (set([(GoldenRatio, p._print(
GoldenRatio.evalf(prec)))]), set([]), ' GoldenRatio')
assert fcode(pi, human=False) == (
set([(pi, p._print(pi.evalf(prec)))]), set([]), ' pi')
assert fcode(pi, precision=5, human=False) == (
set([(pi, p._print(pi.evalf(5)))]), set([]), ' pi')
def _indent_code(self, codelines):
p = FCodePrinter({'source_format': 'free', 'human': False})
return p.indent_code(codelines)
def test_indent():
codelines = (
'subroutine test(a)\n'
'integer :: a, i, j\n'
'\n'
'do\n'
'do \n'
'do j = 1, 5\n'
'if (a>b) then\n'
'if(b>0) then\n'
'a = 3\n'
'donot_indent_me = 2\n'
'do_not_indent_me_either = 2\n'
'ifIam_indented_something_went_wrong = 2\n'
'if_I_am_indented_something_went_wrong = 2\n'
'end should not be unindented here\n'
'end if\n'
'endif\n'
'end do\n'
'end do\n'
'enddo\n'
'end subroutine\n'
'\n'
'subroutine test2(a)\n'
'integer :: a\n'
'do\n'
'a = a + 1\n'
'end do \n'
'end subroutine\n'
)
expected = (
'subroutine test(a)\n'
'integer :: a, i, j\n'
'\n'
'do\n'
' do \n'
' do j = 1, 5\n'
' if (a>b) then\n'
' if(b>0) then\n'
' a = 3\n'
' donot_indent_me = 2\n'
' do_not_indent_me_either = 2\n'
' ifIam_indented_something_went_wrong = 2\n'
' if_I_am_indented_something_went_wrong = 2\n'
' end should not be unindented here\n'
' end if\n'
' endif\n'
' end do\n'
' end do\n'
'enddo\n'
'end subroutine\n'
'\n'
'subroutine test2(a)\n'
'integer :: a\n'
'do\n'
' a = a + 1\n'
'end do \n'
'end subroutine\n'
)
p = FCodePrinter({'source_format': 'free'})
result = p.indent_code(codelines)
assert result == expected
def _indent_code(self, codelines):
p = FCodePrinter({'source_format': 'free', 'human': False})
return p.indent_code(codelines)
def _print_Indexed(self, expr):
return FCodePrinter._print_Indexed(self, expr)