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 _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_region(self, mainBlockSide, mainBlock, secondBlock,
region_num, firstIndex):
'''Make some data for each block in ic.
First it's find side and intervals, in which
ic to be used. For interval it used ``Interval``
object with bound and equation numbers set to
``None`` (i.e. ``name={'b': None, 'e': None}``).
Change ``side.intervals`` to add ic intervals
to it (i.e. first split ic interval at bouds/eq
regions, then split all ``side.intervals`` at
that ic_interval).
Also It create ranges that is rectangle
``[xfrom, xto, yfrom, yto]`` where all in cell sizes.
interval, xfrom, xto, yfrom, yto, lenOfConnection,
beforeStartLen, ranges is all inteconnect data,
relative to mainBlock.
It also add first index of current inteconnect
for created region and increase it global value
(stored in ``model._ics_firstIndex``)
It create ``secondIndex`` which is index to be
used by ``mainBlock`` in order to get according
``ics`` data for according side coordinate.
(ex (what ``secondIndex`` used for):
secondIndex: ic[firstIndex][secondIndex] for mainBlock
where ic is inteconnects array,
firstIndex is index of ic mainBlock and secondBlock
secondIndex according mainBlock side (see ex below))
(ex (how ``secondIndex`` created for side 2 or 3):
secondIndex = idxX - to_cell(lenBSBSSC)
where lenBSBSSC is len between start of block side
and start of connection)
Tests:
>>> from envs.hs.model.model_main import ModelNet as Model
>>> m = Model()
>>> m.io.loadFromFile('problems/2dTests/tests_2d_two_blocks0')
>>> ic = m.interconnects[0]
>>> icr = ic.regions[1]
>>> icr.ranges
[0, 301, 0, 1]
>>> icr = ic.regions[2]
>>> icr.ranges
[150, 451, 700, 701]
'''
grid = self.net.model.grid
den = mainBlock.defaultEquation
if mainBlockSide == 0:
xfrom = 0 # mainBlock.size.offsetX
xto = 0 # mainBlock.size.offsetX
yfrom = (max([secondBlock.size.offsetY, mainBlock.size.offsetY])
- mainBlock.size.offsetY)
yto = (min([mainBlock.size.offsetY + mainBlock.size.sizeY,
secondBlock.size.offsetY + secondBlock.size.sizeY])
- mainBlock.size.offsetY)
interval = Interval([yfrom, yto])
beforeStartLen = yfrom
lenOfConnection = yto - yfrom
sideIndex = 'idxY'
stepAlongSide = grid.gridStepY
elif mainBlockSide == 1:
xfrom = mainBlock.size.sizeX # + mainBlock.size.offsetX
xto = mainBlock.size.sizeX # + mainBlock.size.offsetX
yfrom = (max([secondBlock.size.offsetY, mainBlock.size.offsetY])
- mainBlock.size.offsetY)
yto = (min([mainBlock.size.offsetY + mainBlock.size.sizeY,
secondBlock.size.offsetY + secondBlock.size.sizeY])
- mainBlock.size.offsetY)
interval = Interval([yfrom, yto])
beforeStartLen = yfrom
lenOfConnection = yto - yfrom
sideIndex = 'idxY'
stepAlongSide = grid.gridStepY
elif mainBlockSide == 2:
xfrom = (max([mainBlock.size.offsetX, secondBlock.size.offsetX])
- mainBlock.size.offsetX)
xto = (min([mainBlock.size.offsetX + mainBlock.size.sizeX,
secondBlock.size.offsetX + secondBlock.size.sizeX])
- mainBlock.size.offsetX)
yfrom = 0 # mainBlock.size.offsetY
yto = 0 # mainBlock.size.offsetY
interval = Interval([xfrom, xto])
beforeStartLen = xfrom
lenOfConnection = xto - xfrom
sideIndex = 'idxX'
stepAlongSide = grid.gridStepX
else:
xfrom = (max([mainBlock.size.offsetX, secondBlock.size.offsetX])
- mainBlock.size.offsetX)
xto = (min([mainBlock.size.offsetX + mainBlock.size.sizeX,
secondBlock.size.offsetX + secondBlock.size.sizeX])
- mainBlock.size.offsetX)
yfrom = mainBlock.size.sizeY # + mainBlock.size.offsetY
yto = mainBlock.size.sizeY # + mainBlock.size.offsetY
interval = Interval([xfrom, xto])
beforeStartLen = xfrom
lenOfConnection = xto - xfrom
sideIndex = 'idxX'
stepAlongSide = grid.gridStepX
# FOR collect data:
out = Params()
out.firstIndex = firstIndex
# out.firstIndex = self.net.model._ics_firstIndex
# self.net.model._ics_firstIndex += 1
out.side_num = mainBlockSide
# out.stepAlongSide = stepAlongSide
# out.beforeStartLen = beforeStartLen
# map: block side index -> second index of ic
# (ex: idxX -> secondIndex where secondIndex: ic[][secondIndex]):
startCellIndex = determineCISC2D(beforeStartLen, stepAlongSide)
out.secondIndex = ('(' + sideIndex + ' - ' + str(startCellIndex)
+ ') * Block' + str(mainBlock.blockNumber)
+ 'CELLSIZE')
out.icLen = lenOfConnection
side = mainBlock.sides[mainBlockSide]
logger.debug("side.intervals:")
logger.debug(side.intervals)
logger.debug("icr.intervals:")
logger.debug(interval)
# add default name:
interval.name = {'b': None, 'e': den,
'i': (lambda _self=self, _region_num=region_num:
_self[_region_num])}
# region_num - is global name
# while _region_num is local name in lambda
# that used because otherwise all regions
# would have same region_num.
# split at equation and bounds regions:
out.intervals = interval.split_all([copy(interval)
for interval in side.intervals],
[])
# add ic info into block.side:
side.intervals = sum([i.split_all(out.intervals, [])
for i in side.intervals], [])
# reset vertexs:
mainBlock.editor.set_vertexs()
out.xfrom = xfrom
out.xto = xto
out.yfrom = yfrom
out.yto = yto
'''
ranges = getRangesInClosedInterval([xfrom, xto, grid.gridStepX],
[yfrom, yto, grid.gridStepY])
out.ranges = ranges
'''
out.blockNumber = mainBlock.blockNumber
out.ic = self.net
out.ic_regions = self
# END FOR
return(out)
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_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)