def check_solve_f_chain(id_dp, dp):
with primitive_dp_test(id_dp, dp):
from mcdp_posets.utils import poset_check_chain
F = dp.get_fun_space()
f_chain = F.get_test_chain(n=8)
poset_check_chain(F, f_chain)
try:
trchain = map(dp.solve, f_chain)
except NotSolvableNeedsApprox:
return try_with_approximations(id_dp, dp, check_solve_f_chain)
R = dp.get_res_space()
UR = UpperSets(R)
try:
poset_check_chain(UR, trchain)
except ValueError as e:
msg = 'The map solve() for %r is not monotone.' % id_dp
raise_wrapped(Exception,
e,
msg,
f_chain=f_chain,
trchain=trchain,
compact=True)
def check_solve_r_chain(id_dp, dp):
with primitive_dp_test(id_dp, dp):
from mcdp_posets.utils import poset_check_chain
R = dp.get_res_space()
F = dp.get_fun_space()
LF = LowerSets(F)
r_chain = R.get_test_chain(n=8)
poset_check_chain(R, r_chain)
try:
lfchain = map(dp.solve_r, r_chain)
except NotSolvableNeedsApprox:
return try_with_approximations(id_dp, dp, check_solve_r_chain)
try:
# now, notice that we need to reverse this
lfchain_reversed = list(reversed(lfchain))
poset_check_chain(LF, lfchain_reversed)
except ValueError as e:
msg = 'The map solve_r() for %r is not monotone.' % id_dp
raise_wrapped(Exception,
e,
msg,
r_chain=r_chain,
lfchain=lfchain,
lfchain_reversed=lfchain_reversed,
compact=True)
def check_solve_r_chain(id_dp, dp):
with primitive_dp_test(id_dp, dp):
from mcdp_posets.utils import poset_check_chain
R = dp.get_res_space()
F = dp.get_fun_space()
LF = LowerSets(F)
r_chain = R.get_test_chain(n=8)
poset_check_chain(R, r_chain)
try:
lfchain = map(dp.solve_r, r_chain)
except NotSolvableNeedsApprox:
return try_with_approximations(id_dp, dp, check_solve_r_chain)
try:
# now, notice that we need to reverse this
lfchain_reversed = list(reversed(lfchain))
poset_check_chain(LF, lfchain_reversed)
except ValueError as e:
msg = 'The map solve_r() for %r is not monotone.' % id_dp
raise_wrapped(Exception, e, msg, r_chain=r_chain, lfchain=lfchain,
lfchain_reversed=lfchain_reversed, compact=True)
def check_solve_f_chain(id_dp, dp):
with primitive_dp_test(id_dp, dp):
from mcdp_posets.utils import poset_check_chain
F = dp.get_fun_space()
f_chain = F.get_test_chain(n=8)
poset_check_chain(F, f_chain)
try:
trchain = map(dp.solve, f_chain)
except NotSolvableNeedsApprox:
return try_with_approximations(id_dp, dp, check_solve_f_chain)
R = dp.get_res_space()
UR = UpperSets(R)
try:
poset_check_chain(UR, trchain)
except ValueError as e:
msg = 'The map solve() for %r is not monotone.' % id_dp
raise_wrapped(Exception, e, msg, f_chain=f_chain,
trchain=trchain, compact=True)
def dual01_chain(id_dp, dp):
try:
with primitive_dp_test(id_dp, dp):
print('Starting testing with %r' % id_dp)
# get a chain of resources
F = dp.get_fun_space()
R = dp.get_res_space()
# try to solve
try:
dp.solve(F.witness())
dp.solve_r(R.witness())
except NotSolvableNeedsApprox:
print('NotSolvableNeedsApprox - doing lower bound ')
n = 5
dpL, dpU = get_dp_bounds(dp, nl=n, nu=n)
dual01_chain(id_dp+'_L%s'%n, dpL)
dual01_chain(id_dp+'_U%s'%n, dpU)
return
LF = LowerSets(F)
UR = UpperSets(R)
rchain = R.get_test_chain(n=8)
poset_check_chain(R, rchain)
try:
lfchain = list(map(dp.solve_r, rchain))
for lf in lfchain:
LF.belongs(lf)
except NotSolvableNeedsApprox as e:
print('skipping because %s' % e)
return
try:
poset_check_chain(LF, list(reversed(lfchain)))
except ValueError as e:
msg = 'The results of solve_r() are not a chain.'
raise_wrapped(Exception, e, msg, chain=rchain, lfchain=lfchain)
# now, for each functionality f,
# we know that the corresponding resource should be feasible
for lf, r in zip(lfchain, rchain):
print('')
print('r: %s' % R.format(r))
print('lf = h*(r) = %s' % LF.format(lf))
for f in lf.maximals:
print(' f = %s' % F.format(f))
f_ur = dp.solve(f)
print(' f_ur = h(f) = %s' % UR.format(f_ur))
try:
f_ur.belongs(r)
except NotBelongs as e:
try:
Rcomp.tolerate_numerical_errors = True
f_ur.belongs(r)
logger.info('In this case, there was a numerical error')
logger.info('Rcomp.tolerate_numerical_errors = True solved the problem')
except:
msg = ''
raise_wrapped(AssertionError, e, msg,
lf=lf, r=r, f_ur=f_ur,
r_repr=r.__repr__(),
f_ur_minimals=f_ur.minimals.__repr__())
finally:
Rcomp.tolerate_numerical_errors = False
def dual01_chain(id_dp, dp):
try:
with primitive_dp_test(id_dp, dp):
print('Starting testing with %r' % id_dp)
# get a chain of resources
F = dp.get_fun_space()
R = dp.get_res_space()
# try to solve
try:
dp.solve(F.witness())
dp.solve_r(R.witness())
except NotSolvableNeedsApprox:
print('NotSolvableNeedsApprox - doing lower bound ')
n = 5
dpL, dpU = get_dp_bounds(dp, nl=n, nu=n)
dual01_chain(id_dp+'_L%s'%n, dpL)
dual01_chain(id_dp+'_U%s'%n, dpU)
return
LF = LowerSets(F)
UR = UpperSets(R)
rchain = R.get_test_chain(n=8)
poset_check_chain(R, rchain)
try:
lfchain = list(map(dp.solve_r, rchain))
for lf in lfchain:
LF.belongs(lf)
except NotSolvableNeedsApprox as e:
print('skipping because %s' % e)
return
try:
poset_check_chain(LF, list(reversed(lfchain)))
except ValueError as e:
msg = 'The results of solve_r() are not a chain.'
raise_wrapped(Exception, e, msg, chain=rchain, lfchain=lfchain)
# now, for each functionality f,
# we know that the corresponding resource should be feasible
for lf, r in zip(lfchain, rchain):
print('')
print('r: %s' % R.format(r))
print('lf = h*(r) = %s' % LF.format(lf))
for f in lf.maximals:
print(' f = %s' % F.format(f))
f_ur = dp.solve(f)
print(' f_ur = h(f) = %s' % UR.format(f_ur))
try:
f_ur.belongs(r)
except NotBelongs as e:
try:
Rcomp.tolerate_numerical_errors = True
f_ur.belongs(r)
logger.info('In this case, there was a numerical error')
logger.info('Rcomp.tolerate_numerical_errors = True solved the problem')
except:
msg = ''
raise_wrapped(AssertionError, e, msg,
lf=lf, r=r, f_ur=f_ur,
r_repr=r.__repr__(),
f_ur_minimals=f_ur.minimals.__repr__())
finally:
Rcomp.tolerate_numerical_errors = False
