def set_params_for_side(self, model, side):
ics = []
for interval in side.intervals:
# if no interconnect then continue:
try:
interval.name['i']
except KeyError:
continue
equationNumber = interval.name['e']
equation = model.equations[equationNumber].copy()
icRegion = interval.name['i']()
blockNumber = icRegion.blockNumber
side_num = icRegion.side_num
funcName = ("Block" + str(blockNumber)
+ "Interconnect__Side" + str(side_num)
+ "_Eqn" + str(equationNumber))
# generate equation:
parsedValues = self.parse_equations(equation, model.dimension,
blockNumber, side_num,
icRegion.firstIndex,
icRegion.secondIndex)
# fill params:
ic = Params()
ic.name = "Connection"
# ic.firstIndex = icRegion.firstIndex
# ic.secondIndex = icRegion.secondIndex
ic.side_num = side_num
# ic.ranges = icRegion.ranges
# ic.equationNumber = equationNum
ic.equation = equation
ic.funcName = funcName
ic.boundName = determineNameOfBoundary(side_num)
ic.blockNumber = blockNumber
ic.parsedValues = parsedValues
ic.original = [e.sent for e in equation.eqs]
# for functionMaps:
interval.name['fm'] = ic
# for cpp:
# each block can connect to many other block
# let other block discribe interconnect in
# that case
ics.append(ic)
return(ics)
def _set_params_for_two_blocks(self, model, block, iconn, ics,
blockNumber, firstIndex):
'''Only for one block in pair.'''
# choice side:
if (iconn.block1 == blockNumber
and iconn.block2 != blockNumber):
# case differ 1
side_num = iconn.block1Side
elif (iconn.block2 == blockNumber
and iconn.block1 != blockNumber):
# case differ 2
side_num = iconn.block2Side
# len(ics for block)
# firstIndex = len(ics)
# FOR find equation for block
Range = (side_num == 1) * block.size.sizeX
coord = lambda region: ((side_num == 0) * region.xfrom
+ (side_num == 1) * region.xto)
side_test = lambda eRegion: coord(eRegion) == Range
equationNum = self.choice_equation_num(side_test, block)
equation = model.equations[equationNum].copy()
# END FOR
funcName = ("Block" + str(blockNumber)
+ "Interconnect__Side" + str(side_num)
+ "_Eqn" + str(equationNum))
# generate equation:
parsedValues = self.parse_equations(equation, model.dimension,
blockNumber, side_num,
firstIndex, 0)
# fill params:
ic = Params()
ic.name = "Connection"
ic.firstIndex = firstIndex
ic.secondIndex = '0'
ic.side_num = side_num
ic.ranges = []
ic.equationNumber = equationNum
ic.equation = equation
ic.funcName = funcName
ic.boundName = determineNameOfBoundary(side_num)
ic.blockNumber = blockNumber
ic.parsedValues = parsedValues
ic.original = [e.sent for e in equation.eqs]
# each block can connect to many other block
# let other block discribe interconnect in
# that case
return(ic)
def _collect_eq_from_region(self, model, eRegion, dim, blockNumber,
tFuncName):
# equation = copy(model.equations[eRegion.equationNumber])
eParam = Params()
eSystem = model.equations[eRegion.equationNumber].copy()
eParam.equation = eSystem
eParam.equationNumber = eRegion.equationNumber
eParam.eRegion = eRegion
eParam.dim = dim
eParam.blockNumber = blockNumber
eParam.funcName = tFuncName.substitute(
blockNumber=blockNumber, equationNumber=eRegion.equationNumber)
eParam.default = False
eParam.parsedValues = self._get_eq_cpp(eSystem, eParam)
eParam.original = [e.sent for e in eSystem.eqs]
logger.debug("parsedValues")
logger.debug(eParam.parsedValues)
logger.debug('blockNumber eqReg=%s' % str(blockNumber))
return (eParam)
def _collect_eq_default(self, model, block, dim, blockNumber, tFuncName):
# model.equations is a list of equation systems
# equation = copy(model.equations[block.defaultEquation])
eSystem = model.equations[block.defaultEquation].copy()
eParam = Params()
eParam.equation = eSystem
eParam.equationNumber = block.defaultEquation
eParam.eRegion = None
eParam.dim = dim
eParam.blockNumber = blockNumber
eParam.funcName = tFuncName.substitute(
blockNumber=blockNumber, equationNumber=block.defaultEquation)
eParam.default = True
eParam.parsedValues = self._get_eq_cpp(eSystem, eParam)
eParam.original = [e.sent for e in eSystem.eqs]
logger.debug("parsedValues")
logger.debug(eParam.parsedValues)
logger.debug('blockNumber revSp=%s' % str(blockNumber))
return (eParam)
def _set_params_for_closed_block(self, model, block, iconn,
blockNumber, srcFirstIndex,
distFirstIndex):
'''srcFirstIndex and distFirstIndex is first indexes of
two interconects of same block'''
# FOR finding equations:
# choice left or right side of block
# i.e. 0.0 or block.sizeX
Range1 = (iconn.block1Side == 1) * block.size.sizeX
Range2 = (iconn.block2Side == 1) * block.size.sizeX
# return either xfrom or xto for block
coord1 = lambda region: ((iconn.block1Side == 0)
* region.xfrom
+ (iconn.block1Side == 1)
* region.xto)
coord2 = lambda region: ((iconn.block2Side == 0)
* region.xfrom
+ (iconn.block2Side == 1)
* region.xto)
# find equation
# for first block (one side of closed block)
side_test = lambda eRegion: coord1(eRegion) == Range1
equationNum1 = self.choice_equation_num(side_test, block)
# find equation
# for second block (other side of closed block)
side_test = lambda eRegion: coord2(eRegion) == Range2
equationNum2 = self.choice_equation_num(side_test, block)
equation1 = model.equations[equationNum1].copy()
equation2 = model.equations[equationNum2].copy()
# END FOR
funcName1 = ("Block" + str(blockNumber)
+ "Interconnect__Side"
+ str(iconn.block1Side)
+ "_Eqn" + str(equationNum1))
funcName2 = ("Block" + str(blockNumber)
+ "Interconnect__Side"
+ str(iconn.block2Side)
+ "_Eqn" + str(equationNum2))
# FOR equatioin cpp:
# first equation:
parsedValues_1 = self.parse_equations(equation1, model.dimension,
blockNumber, iconn.block1Side,
1, 0)
# second equation:
parsedValues_2 = self.parse_equations(equation2, model.dimension,
blockNumber, iconn.block2Side,
0, 0)
# END FOR
# fill params:
ic1 = Params()
ic1.name = "Connection"
ic1.firstIndex = srcFirstIndex
ic1.secondIndex = '0'
ic1.side_num = iconn.block1Side
ic1.ranges = []
ic1.equationNumber = equationNum1
ic1.equation = equation1
ic1.funcName = funcName1
ic1.parsedValues = parsedValues_1
ic1.original = [e.sent for e in equation1.eqs]
ic1.boundName = determineNameOfBoundary(iconn.block1Side)
ic1.blockNumber = blockNumber
ic2 = Params()
ic2.name = "Connection"
ic2.firstIndex = distFirstIndex
ic2.secondIndex = '0'
ic2.side_num = iconn.block2Side
ic2.ranges = []
ic2.equationNumber = equationNum2
ic2.equation = equation2
ic2.funcName = funcName2
ic2.parsedValues = parsedValues_2
ic2.original = [e.sent for e in equation2.eqs]
ic2.boundName = determineNameOfBoundary(iconn.block2Side)
ic2.blockNumber = blockNumber
return((ic1, ic2))
def make_bound_param(self, model, vertex):
'''Fill this parameters for block bound border
(vertex in case of 1d)::
Collect this parameters for template:
- ``bParams.dim``
- ``bParams.values`` -- border_values
- ``bParams.btype``
- ``bParams.side_num``
- ``bParams.boundNumber``
- ``bParams.equationNumber``
- ``bParams.equation`` -- system of equations
- ``bParams.funcName``
- ``bParams.block``
- ``bParams.blockNumber``
- ``bParams.boundName`` -- for comment
- ``bParams.parsedValues``
- ``bParams.original`` -- for comment
This parameters also collected for dom:
- ``bound.side``
- ``bound.blockNumber``
- ``bParams.funcName``
'''
block = vertex.block
blockNumber = vertex.block.blockNumber
# for 1d there is only one side:
side_num = vertex.sides_nums[0]
# find equation number for side or use default
equationNum = vertex.equationNumber
'''
regsEqNums = [eqReg.equationNumber
for eqReg in block.equationRegions
if self.test(block, eqReg, side_num)]
equationNum = (regsEqNums[0] if len(regsEqNums) > 0
else block.defaultEquation)
'''
eSystem = model.equations[equationNum].copy()
# find bound region for side or use default
boundNumber = vertex.boundNumber
'''
regionsForSide = [bRegion
for k in block.boundRegions
for bRegion in block.boundRegions[k]
if bRegion.side_num == side_num]
'''
# if exist special region for that side
# if len(regionsForSide) > 0:
if boundNumber is not None:
# region = block.boundsRegions[boundNumber]
# region = regionsForSide[0]
# boundNumber = region.boundNumber
bound = model.bounds[boundNumber]
args = (model, blockNumber, side_num, boundNumber, equationNum)
# for Dirichlet bound
if bound.btype == 0:
func = self.get_func_for_dirichlet(*args)
# for Neumann bound
elif bound.btype == 1:
func = self.get_func_for_neumann(*args)
funcName = func[0]
border_values = list(func[1])
btype = bound.btype
else:
# if not, use default
args = (eSystem, blockNumber, side_num, equationNum)
func = self.get_func_default(*args)
funcName = func[0]
border_values = func[1]
btype = 1
boundNumber = -1
args = (eSystem, model, blockNumber, btype, side_num, border_values)
parsed = self.parse_equations(*args)
# print("bound bug debug:")
# print(parsed)
# FOR collect template data:
bParams = Params()
bParams.dim = model.dimension
bParams.values = border_values
bParams.btype = btype
bParams.side_num = side_num
bParams.boundNumber = boundNumber
bParams.equationNumber = equationNum
bParams.equation = eSystem
bParams.funcName = funcName
bParams.block = block
bParams.blockNumber = blockNumber
logger.debug("bParams.funcName")
logger.debug(bParams.funcName)
logger.debug("bParams.side_num")
logger.debug(bParams.side_num)
# in comment
bParams.boundName = determineNameOfBoundary(side_num)
bParams.parsedValues = parsed[0]
bParams.border_values_parsed = parsed[1]
bParams.original = [e.sent for e in eSystem.eqs]
# END FOR
vertex.fm = bParams
return (bParams)
def make_bounds_for_vertex(self, vertex, params_edges):
'''
DESCRIPTION:
If vertex left edge closest region has ic value
(i.e. this region donot exist in params_edges)
then
if right edge closest region has no ic value,
use this region
else
use ic data (todo).
Collect this parameters for template:
- ``vParams.name``
- ``vParams.sides_nums``
- ``vParams.blockNumber``
- ``vParams.boundNumber``
- ``vParams.equationNumber``
- ``vParams.funcName``
- ``vParams.bound_side``
- ``vParams.btype``
- ``vParams.equation`` -- equation from left
edge.
- ``vParams.parsedValues``
- ``vParams.original``
This parameters also collected for dom:
- ``bParams.blockNumber``
- ``bParams.side_num``
- ``bParams.funcName`` -- for defining func index in
namesAndNumbers dict.
- ``bParams.interval``
Inputs:
- ``vertex`` -- is ``Vertex`` object::
vertex:
- ``boundNumber`` -- of left edge (side)
- ``equationNumber`` -- of left edge (side)
- ``sides_nums`` -- like [0, 2]
- ``interval`` -- of left edge (side)
- ``params_edges`` -- out of make_bounds_for_edges.
Used for side data for vertex.
'''
# find bound for left edge:
left_edges = [
bParams for bParams in params_edges
if bParams.side_num == vertex.sides_nums[0]
and bParams.blockNumber == vertex.block.blockNumber
and bParams.interval == vertex.left_interval
]
# if interconnect exist for left edges
# (so there is no region in params_edges)
# use right:
try:
vertex_edge = left_edges[0]
except IndexError:
right_edges = [
bParams for bParams in params_edges
if bParams.side_num == vertex.sides_nums[1]
and bParams.blockNumber == vertex.block.blockNumber
and bParams.interval == vertex.right_interval
]
# if interconnect exist for left and right
# (so there is no region in params_edges)
try:
vertex_edge = right_edges[0]
except IndexError:
# TODO: add ic to vertex
raise (BaseException("Case when vertex has ic regions" +
" from both sides is not" +
" implemented yet"))
return (None)
# END FOR
vParams = Params()
vParams.name = 'vertex bound'
vParams.sides_nums = vertex.sides_nums
vParams.blockNumber = vertex.block.blockNumber
# data of left side (with index 0)
vParams.boundNumber = vertex.boundNumber
vParams.equationNumber = vertex.equationNumber
# for make funcName for defaults
funcName = self.get_vertex_funcName(vertex)
vParams.funcName = funcName
vParams.bound_side = vertex_edge
vParams.btype = vertex_edge.btype
eSystem = vertex_edge.equation.copy()
parsedValues, bv_parsed = self.parse_equations_vertex(
vertex, vertex_edge, eSystem)
vParams.parsedValues = parsedValues
vParams.border_values_parsed = bv_parsed
# vParams.parsedValues = vertex_edge.parsedValues
vParams.equation = eSystem
logger.debug("parsedValues:")
logger.debug(vParams.parsedValues)
vParams.original = vertex_edge.original
return (vParams)
def make_bounds_for_edges(self, model, side):
'''
DESCRIPTION:
Collect this parameters for template:
- ``bParams.name``
- ``bParams.side_num``
- ``bParams.blockNumber``
- ``bParams.boundNumber``
- ``bParams.equationNumber``
- ``bParams.funcName`` -- func name in cpp
- ``bParams.btype`` -- Dirichlet 0, Neumann 1
- ``bParams.equation`` -- system of equations
SysNet object
- ``bParams.parsedValues``
- ``bParams.original`` -- original for comment
- ``bParams.boundName`` -- bound name for comment
This parameters also collected for dom:
- ``bParams.blockNumber``
- ``bParams.side_num``
- ``bParams.funcName`` -- for defining func index in
namesAndNumbers dict.
- ``bParams.region``
Inputs:
- ``side`` -- is ``Side`` object::
side:
- ``side_num``,
- ``block.blockNumber``,
- ``interval`` -- of type oIntervals
where oIntervals =
[Interval([x, y], name={'b': bval, 'e', eval})]
'''
bounds = []
for interval in side.intervals:
# if interconnect then continue:
try:
interval.name['i']
continue
except KeyError:
pass
bParams = Params()
bParams.name = 'sides bound'
bParams.side_num = side.side_num
bParams.blockNumber = side.block.blockNumber
bParams.boundNumber = interval.name['b']
bParams.equationNumber = interval.name['e']
bParams.interval = interval
eSystem = model.equations[bParams.equationNumber].copy()
if bParams.boundNumber is not None:
# FOR set up funcName and border values:
args = (model, bParams.blockNumber, bParams.side_num,
bParams.boundNumber, bParams.equationNumber)
btype = model.bounds[bParams.boundNumber].btype
# for Dirichlet bound
if btype == 0:
func = self.get_func_for_dirichlet(*args)
# for Neumann bound
elif btype == 1:
func = self.get_func_for_neumann(*args)
funcName = func[0]
border_values = list(func[1])
else:
btype = 0
args = (eSystem, bParams.blockNumber, bParams.side_num,
bParams.equationNumber)
func = self.get_func_default(*args)
funcName = func[0]
border_values = func[1]
args = (eSystem, model, bParams.blockNumber, btype,
bParams.side_num, border_values)
parsed, bv_parsed = self.parse_equations(*args)
bParams.funcName = funcName
bParams.btype = btype
bParams.equation = eSystem
bParams.parsedValues = parsed
bParams.border_values_parsed = bv_parsed
bParams.original = [e.sent for e in eSystem.eqs]
# for comment
bParams.boundName = determineNameOfBoundary(bParams.side_num)
# collect for functionMaps:
interval.name['fm'] = bParams
bounds.append(bParams)
return (bounds)