def EuclideanDistanceConstraint(self, ATargetPoints, AProbePoints, Dist):
tres = 1 / self.FTargetResolution
pres = 1 / self.FProbeResolution
targetpoints = geomutils.Multiply(
geomutils.Add(self.FTargetTransVec, ATargetPoints), tres)
probepoints = geomutils.Add(
basetypes.TCoord(self.FDomainBlock.XOffset,
self.FDomainBlock.YOffset,
self.FDomainBlock.ZOffset),
geomutils.Multiply(
geomutils.Add(self.FProbeTransVec, AProbePoints), pres))
mit = basetypes.Min(targetpoints)
mat = basetypes.Max(targetpoints)
mip = basetypes.Min(probepoints)
map = basetypes.Max(probepoints)
griddist = Dist / self.FTargetResolution
distsquare = griddist**2
lx1 = round(mit[0] - map[0] - 0.5 - griddist)
lx2 = round(mat[0] - mip[0] + 0.5 + griddist)
linegrids.Intersect(self.FXDomain, lx1, lx2)
# Clear FYDomainAtX outside FXDomain
oldix = 0
for x in range(len(self.FXDomain)):
for xx in range(oldix, self.FXDomain[x][0]):
self.FYDomainAtX[xx] = []
oldix = self.FXDomain[x][1] + 1
for xx in range(oldix, len(self.FYDomainAtX)):
self.FYDomainAtX[xx] = []
# Set FYDomainAtX
for x in range(len(self.FXDomain)):
for xx in range(self.FXDomain[x][0], self.FXDomain[x][1] + 1):
ly1, ly2 = self.SetYLimits(xx, targetpoints, probepoints,
griddist, distsquare)
linegrids.Intersect(self.FYDomainAtX[xx], ly1, ly2)
# Clear FZDomainAtXY outside FYDomainAtX
oldix = 0
for y in range(len(self.FYDomainAtX[xx])):
for yy in range(oldix, self.FYDomainAtX[xx][y][0]):
self.FZDomainAtXY[xx][yy] = []
oldix = self.FYDomainAtX[xx][y][1] + 1
for yy in range(oldix, len(self.FZDomainAtXY[xx])):
self.FZDomainAtXY[xx][yy] = []
# Set FZDomainAtXY
for y in range(len(self.FYDomainAtX[xx])):
for yy in range(self.FYDomainAtX[xx][y][0],
self.FYDomainAtX[xx][y][1]):
lz1, lz2 = self.SetZLimits(xx, yy, targetpoints,
probepoints, griddist,
distsquare)
linegrids.Intersect(self.FZDomainAtXY[xx][yy], lz1,
lz2)
def LinearDistanceConstraint(self, ATargetPoints, AProbePoints, Dist):
targetpoints = geomutils.Add(self.FTargetTransVec, ATargetPoints)
probepoints = geomutils.Add(self.FProbeTransVec, AProbePoints)
tres = 1 / self.FTargetResolution
pres = 1 / self.FProbeResolution
mit = geomutils.Multiply(basetypes.Min(targetpoints), tres)
mat = geomutils.Multiply(basetypes.Max(targetpoints), tres)
mip = geomutils.Multiply(basetypes.Min(probepoints), tres)
map = geomutils.Multiply(basetypes.Max(probepoints), tres)
d = Dist / self.FTargetResolution
lx1 = round(mit[0] - map[0] - self.FDomainBlock.XOffset - 0.5 - d)
lx2 = round(mat[0] - mip[0] - self.FDomainBlock.XOffset + 0.5 + d)
ly1 = round(mit[1] - map[1] - self.FDomainBlock.YOffset - 0.5 - d)
ly2 = round(mat[1] - mip[1] - self.FDomainBlock.YOffset + 0.5 + d)
lz1 = round(mit[2] - map[2] - self.FDomainBlock.ZOffset - 0.5 - d)
lz2 = round(mat[2] - mip[2] - self.FDomainBlock.ZOffset + 0.5 + d)
linegrids.Intersect(self.FXDomain, lx1, lx2)
# Clear FYDomainAtX outside FXDomain
oldix = 0
for x in range(len(self.FXDomain)):
for xx in range(oldix, self.FXDomain[x][0]):
self.FYDomainAtX[xx] = []
oldix = self.FXDomain[x][1] + 1
for xx in range(oldix, len(self.FYDomainAtX)):
self.FYDomainAtX[xx] = []
# Set FYDomainAtX
for x in range(len(self.FXDomain)):
for xx in range(self.FXDomain[x][0], self.FXDomain[x][1] + 1):
linegrids.Intersect(self.FYDomainAtX[xx], ly1, ly2)
# Clear FZDomainAtXY outside FYDomainAtX
oldix = 0
for y in range(len(self.FYDomainAtX[xx])):
for yy in range(oldix, self.FYDomainAtX[xx][y][0]):
self.FZDomainAtXY[xx][yy] = []
oldix = self.FYDomainAtX[xx][y][1] + 1
for yy in range(oldix, len(self.FYDomainAtX[xx])):
self.FZDomainAtXY[xx][yy] = []
# Set FZDomainAtXY
for y in range(len(self.FYDomainAtX[xx])):
for yy in range(self.FYDomainAtX[xx][y][0],
self.FYDomainAtX[xx][y][1] + 1):
linegrids.Intersect(self.FZDomainAtXY[xx][yy], lz1,
lz2)
def InPlaceIntersect(self, Line1, Line2, Displace):
self.FIntersectHigh = -1
if (Line1 is not None) and (len(Line1) != 0) and (
Line2 is not None) and (len(Line2) != 0):
ll1 = len(Line1) + len(Line2)
if len(self.FIntersect) < ll1:
for f in range(len(self.FIntersect), ll1):
if f >= len(self.FIntersect):
self.FIntersect.append(linegrids.TLineSegment())
i1 = 0
i2 = 0
ll1 = len(Line1)
ll2 = len(Line2)
while (i1 < ll1) and (i2 < ll2):
top = basetypes.Min(Line1[i1][1] + Displace, Line2[i2][1])
bot = basetypes.Max(Line1[i1][0] + Displace, Line2[i2][0])
if top >= bot:
self.FIntersectHigh = self.FIntersectHigh + 1
self.FIntersect[self.FIntersectHigh][0] = bot
self.FIntersect[self.FIntersectHigh][1] = top
if Line1[i1][1] + Displace >= Line2[i2][1]:
ni2 = i2 + 1
else:
ni2 = i2
if Line1[i1][1] + Displace <= Line2[i2][1]:
ni1 = i1 + 1
else:
ni1 = i1
i1 = ni1
i2 = ni2
def BuildBaseGrid(self):
# Adjust coordinates
maxrad = basetypes.Max(basetypes.Max(self.FRads), self.FResolution)
# Translate and size guaranteeing one layer of empty grid cells
self.FTransVec = basetypes.Min(self.FCoords)
self.FTransVec = geomutils.Add(geomutils.Simmetric(self.FTransVec),
maxrad + self.FResolution)
self.FCoords = geomutils.Add(self.FTransVec, self.FCoords)
top = geomutils.Add(basetypes.Max(self.FCoords),
maxrad + 1.5 * self.FResolution)
self.FBase.Grid = []
for f in range(round(top[0] / self.FResolution)):
self.FBase.Grid.append([])
for g in range(round(top[1] / self.FResolution)):
self.FBase.Grid[f].append([])
zline = []
for f in range(round(top[2] / self.FResolution)):
zline.append(0)
self.FBase.ZMax = len(zline) - 1
hash = geomhash.TGeomHasher(self.FCoords, maxrad, self.FRads)
halfres = 0.5 * self.FResolution
xyzpoint = basetypes.TCoord()
for x in range(len(self.FBase.Grid)):
xyzpoint[0] = x * self.FResolution + halfres
for y in range(len(self.FBase.Grid[x])):
xyzpoint[1] = y * self.FResolution + halfres
for z in range(len(zline)):
xyzpoint[2] = z * self.FResolution + halfres
if hash.IsInnerPoint(xyzpoint):
zline[z] = 1
else:
zline[z] = 0
self.FBase.Grid[x][y] = IntegersToLine(zline)
def ScoreSequencePair(Seq1,
Seq2,
SubMat,
SubGapMarker=DefaultSubstitutionGapMarker):
Result = 0
if isinstance(Seq1[0], sequence.TOCCompressedSequenceRec):
assert Seq1[len(Seq1) - 1].Last is Seq2[len(Seq2) - 1].Last, 'Error in scoring sequence pair: sequences must' \
'have equal lengths'
ix1 = 0
ix2 = 0
while ix1 < len(Seq1):
st = basetypes.Max(Seq1[ix1].First, Seq2[ix2].First)
en = basetypes.Min(Seq1[ix1].Last, Seq2[ix2].Last) + 1
tmp = GetSubScore(SubMat, Seq1[ix1].Symbol, Seq2[ix2].Symbol,
SubGapMarker) * (en - st)
Result = Result + tmp
if en > Seq1[ix1].Last:
ix1 = ix1 + 1
if en > Seq2[ix2].Last:
ix2 = ix2 + 1
else:
assert len(Seq1) == len(
Seq2
), 'Error in scoring sequence pair: sequences must have equal lengths'
for f in range(len(Seq1)):
Result = Result + GetSubScore(SubMat, Seq1[f], Seq2[f],
SubGapMarker)
# Return TFloat
return Result
def CountCellsBetween(Line, MinZ, MaxZ):
Result = 0
for z in range(len(Line)):
if (Line[z][0] <= MaxZ) and (Line[z][1] >= MinZ):
Result = Result + basetypes.Min(MaxZ, Line[z][1]) - basetypes.Max(
Line[z][0], MinZ) + 1
# Return Integer
return Result
def Intersect(Line, NewMin, NewMax=None):
if isinstance(NewMin, list):
# First function
Line1 = Line
Line2 = NewMin
Result = []
i1 = 0
i2 = 0
ll1 = len(Line1)
ll2 = len(Line2)
while (i1 < ll1) and (i2 < ll2):
top = basetypes.Min(Line1[i1][1], Line2[i2][1])
bot = basetypes.Max(Line1[i1][0], Line2[i2][0])
if top >= bot:
Result.append(TLineSegment(bot, top))
if Line1[i1][1] >= Line2[i2][1]:
ni2 = i2 + 1
else:
ni2 = i2
if Line[i1][1] <= Line2[i2][1]:
ni1 = i1 + 1
else:
ni1 = i1
i1 = ni1
i2 = ni2
# Return TGridLine
return Result
else:
# Second function
lastvalid = -1
for f in range(len(Line)):
# Line segment is inside new interval
if (Line[f][1] > NewMin) and (Line[f][0] <= NewMax):
Line[f][0] = basetypes.Max(NewMin, Line[f][0])
Line[f][1] = basetypes.Min(NewMax, Line[f][1])
lastvalid = lastvalid + 1
if lastvalid < f:
Line[lastvalid] = Line[f]
for f in range(len(Line) - 1, lastvalid, -1):
del Line[f]
def AxisDistance(self, Axis1, Axis2):
if Axis1 is Axis2:
#Return TFloat
return 0.0
else:
x, y = geomutils.OrthogonalCoords(self.FAxes[Axis1],
self.FAxes[Axis2])
dist = 0
for g in range(len(self.FPoints)):
a1x = self.FParaMatrix[Axis1][g]
a1y = self.FOrtoMatrix[Axis2][g]
# Points are parallel*(x,y)+- ortho*(y,-x)
tmpa = self.FParaMatrix[Axis2][g] * x
tmpb = self.FOrtoMatrix[Axis2][g] * y
p1x = tmpa + tmpb
p2x = tmpa - tmpb
tmpa = self.FParaMatrix[Axis2][g] * y
tmpb = -self.FOrtoMatrix[Axis2][g] * x
p1y = tmpa + tmpb
p2y = tmpa - tmpb
sp1x = (p1x - a1x)**2
sp2x = (p2x - a1x)**2
dist1 = basetypes.Min(sp1x + (p1y - a1y)**2,
sp2x + (p2y - a1y)**2)
dist2 = basetypes.Min(sp1x + (p1y + a1y)**2,
sp2x + (p2y + a1y)**2)
dist = basetypes.Max(dist, basetypes.Max(dist1, dist2))
dist1 = basetypes.Min(sp1x + (p1y - a1y)**2,
sp1x + (p1y + a1y)**2)
dist2 = basetypes.Min(sp2x + (p2y - a1y)**2,
sp2x + (p2y + a1y)**2)
dist = basetypes.Max(dist, basetypes.Max(dist1, dist2))
# Return TFloat
return math.sqrt(dist)
def SetYLimits(self, XCoord, targetpoints, probepoints, griddist,
distsquare):
ly1 = self.FDomainBlock.DomainEndY
ly2 = 0
for f in range(len(targetpoints)):
for g in range(len(probepoints)):
dif = abs(probepoints[g][0] + XCoord - targetpoints[f][0])
if dif <= griddist:
dy = math.sqrt(distsquare - (dif**2))
dif = targetpoints[f][1] - probepoints[g][1]
ly1 = basetypes.Min(ly1, round(dif - 0.5 - dy))
ly2 = basetypes.Max(ly2, round(dif + 0.5 + dy))
# In Python return Integer, Integer
return ly1, ly2
def GetLineLimits(self, Point, Direction):
if self.FMaxs is not None:
LMin = 1e-30
LMax = -1e-30
for f in range(len(self.FMaxs)):
if abs(Direction[f]) > 1e-30:
LMin = basetypes.Min(LMin, (self.FMins[f] - Point[f]) /
Direction[f])
LMax = basetypes.Max(LMax, (self.FMaxs[f] - Point[f]) /
Direction[f])
# In Python return TFloat, TFloat
return LMin, LMax
# In Python return TFloat, TFloat
return 0, 0
def CalcCenterHull(Atoms, Dist):
if Atoms is None:
# Return TCuboid
return basetypes.TCuboid()
else:
c1 = Atoms[0].Coords
c2 = c1
for f in range(1, len(Atoms)):
c1 = basetypes.Min(c1, Atoms[f].Coords)
c2 = basetypes.Max(c2, Atoms[f].Coords)
c1 = geomutils.Subtract(c1, Dist)
c2 = geomutils.Add(c2, Dist)
# Return TCuboid
return basetypes.TCuboid(c1, c2)
def CalcHull(Atoms, Rad):
if Atoms is None:
# Return TCuboid
return basetypes.TCuboid()
else:
c1 = Atoms[0].Coords
c2 = c1
for f in range(1, len(Atoms)):
c1 = basetypes.Min(c1, geomutils.Add(Atoms[f].Coords, -Atoms[f].Radius))
c2 = basetypes.Max(c2, geomutils.Add(Atoms[f].Coords, Atoms[f].Radius))
for f in range(3):
c1[f] = c1[f] - Rad
c2[f] = c2[f] + Rad
# Return TCuboid
return basetypes.TCuboid(c1, c2)
def SetZLimits(self, XCoord, YCoord, targetpoints, probepoints, griddist,
distsquare):
lz1 = self.FDomainBlock.DomainEndZ
lz2 = 0
for f in range(len(targetpoints)):
for g in range(len(probepoints)):
dif = abs(probepoints[g][0] + XCoord - targetpoints[f][0])
if dif <= griddist:
dif = (dif**2) - (probepoints[g][1] + YCoord -
targetpoints[f][1])**2
if dif <= distsquare:
dz = math.sqrt(distsquare - dif)
dif = targetpoints[f][2] - probepoints[g][2]
lz1 = basetypes.Min(lz1, round(dif - 0.5 - dz))
lz2 = basetypes.Max(lz2, round(dif + 0.5 + dz))
# In Python return Integer, Integer
return lz1, lz2
def __init__(self, NumModels, MinOverlap, DockModels):
self.FModels = []
for f in range(NumModels):
if f < len(DockModels):
self.FModels.append(DockModels[f])
else:
self.FModels.append(
docktasks.TDockModel(basetypes.TCoord(),
geomutils.IdentityQuaternion, -1))
self.FLastModel = len(DockModels) - 1
if self.FLastModel >= 0:
self.FMinOverlap = basetypes.Min(
self.FModels[self.FLastModel].OverlapScore, MinOverlap)
else:
self.FMinOverlap = MinOverlap
self.CurrentRotation = geomutils.TQuaternion()
self.GridScale = 0.0
self.ProbeGridTransVec = basetypes.TCoord()
def MinTest():
fa = [4.3, 9.1, 5]
tf = basetypes.Min(fa)
print(str(tf))
print('')
ia = [4, 9, 5]
f = basetypes.Min(ia)
print(str(f))
print('')
ca = []
c = basetypes.TCoord(3, 7, 4)
ca.append(c)
c = basetypes.TCoord(5, 1, 6)
ca.append(c)
c = basetypes.TCoord(2, 2, 9)
ca.append(c)
c = basetypes.Min(ca)
print(str(c[0]) + ' ' + str(c[1]) + ' ' + str(c[2]))
print('')
m = [[5, 2, 7], [4, 1, 9], [3, 7, 3]]
tf = basetypes.Min(m)
print(str(tf))
print('')
f = 4
i = 5
f = basetypes.Min(f, i)
print(str(f))
print('')
tf = 4.5
tf2 = 5.1
tf = basetypes.Min(tf, tf2)
print(str(tf))
print('')
c = basetypes.TCoord(4, 5, 9)
c2 = basetypes.TCoord(5, 7, 6)
c = basetypes.Min(c, c2)
print(str(c[0]) + ' ' + str(c[1]) + ' ' + str(c[2]))
def Setup(self, Points, GridStep, Rads):
maxc = basetypes.Max(Points)
minc = basetypes.Min(Points)
self.FShiftToGrid = geomutils.Simmetric(minc)
self.FHighX = math.trunc((maxc[0] - minc[0]) / GridStep)
self.FHighY = math.trunc((maxc[1] - minc[1]) / GridStep)
self.FHighZ = math.trunc((maxc[2] - minc[2]) / GridStep)
if Rads is None:
# Geomhasher used only for indexing regions
self.FPoints = []
self.FRads = []
else:
# Used to detect collisions, inner points, etc
assert len(Points) == len(
Rads), 'Different number of radii and points'
self.FPoints = []
self.FRads = []
for f in range(len(Points)):
self.FPoints.append(Points[f])
self.FRads.append(Rads[f])
def AddResidueContacts(self, ContactFile, MaxContacts = 0):
sl = []
with open(ContactFile) as f:
sl = f.read().splitlines()
if MaxContacts == 0:
MaxContacts = len(sl)
else:
MaxContacts = basetypes.Min(MaxContacts, len(sl))
for f in range(MaxContacts):
contact = stringutils.SplitString(sl[f], ' ')
cset = TConstraintSet()
cset.NumModels = int(contact[5])
cset.MinOverlap = int(contact[6])
cset.Name = sl[f]
cdef = TConstraintDef()
cdef.Name = 'Euclidean ' + contact[0] + contact[1] + ':' + contact[2] + contact[3]
cdef.TargetPoints = molutils.ListCoords(self.FTarget.GetGroup(contact[0]).GetGroupById(int(contact[1])))
cdef.ProbePoints = molutils.ListCoords(self.FProbe.GetGroup(contact[2]).GetGroupById(int(contact[3])))
cdef.Distance = float(contact[4])
cdef.ConstraintType = CEuclideanDistance
cset.Constraints.append(cdef)
self.FDockRuns[self.FCurrentDock].ConstraintSets.append(cset)
def SetDomainYLines(self):
for f in range(self.FDomainGrid.Block.DomainEndX + 1):
self.FDomainGrid.Shape.NonEmpty.append([])
self.FCoreContacts.append([])
xdomain = self.FConstraintManager.FXDomain
for xx in range(len(xdomain)):
for x in range(xdomain[xx][0], xdomain[xx][1]):
self.CountX = self.CountX + 1
limit1, limit2 = linegrids.GetLineExtremes(
self.FConstraintManager.YDomainAtX(x))
if limit1 > limit2:
self.FDomainGrid.Shape.NonEmpty[x] = []
self.FCoreContacts[x] = []
else:
pix1, pix2, tix1, tix2 = GetIndexes(
self.FDomainGrid.Block.ProbeEndX,
self.FDomainGrid.Block.TargetEndX,
self.FDomainGrid.Block.XOffset, x)
tmpmin = limit2 + 1
tmpmax = -1
coremin = limit2 + 1
coremax = -1
while tix1 <= tix2:
# Surface overlap Y range
if (self.FProbe.FSurf.NonEmpty[pix1] is not None) and (len(self.FProbe.FSurf.NonEmpty[pix1]) != 0) \
and (self.FTarget.FSurf.NonEmpty[tix1] is not None) and \
(len(self.FTarget.FSurf.NonEmpty[tix1]) != 0):
p1, p2 = linegrids.GetLineExtremes(
self.FProbe.FSurf.NonEmpty[pix1])
t1, t2 = linegrids.GetLineExtremes(
self.FTarget.FSurf.NonEmpty[tix1])
mi, ma = OverlapRegion(
p1, p2, t1, t2, self.FDomainGrid.Block.YOffset,
limit2)
tmpmin = basetypes.Min(mi, tmpmin)
tmpmax = basetypes.Max(ma, tmpmax)
# Core overlap Y range
if (self.FProbe.FCore.NonEmpty[pix1] is not None) and (len(self.FProbe.FCore.NonEmpty[pix1]) != 0) \
and (self.FTarget.FCore.NonEmpty[tix1] is not None) and \
(len(self.FTarget.FCore.NonEmpty[tix1]) != 0):
p1, p2 = linegrids.GetLineExtremes(
self.FProbe.FCore.NonEmpty[pix1])
t1, t2 = linegrids.GetLineExtremes(
self.FTarget.FCore.NonEmpty[tix1])
mi, ma = OverlapRegion(
p1, p2, t1, t2, self.FDomainGrid.Block.YOffset,
limit2)
coremin = basetypes.Min(mi, coremin)
coremax = basetypes.Max(ma, coremax)
tix1 = tix1 + 1
pix1 = pix1 + 1
tmpmin = basetypes.Max(limit1, tmpmin)
tmpmax = basetypes.Min(limit2, tmpmax)
coremin = basetypes.Max(limit1, coremin)
coremax = basetypes.Min(limit2, coremax)
if tmpmax < tmpmin:
self.FDomainGrid.Shape.NonEmpty[x] = []
else:
self.FDomainGrid.Shape.NonEmpty[x] = linegrids.NewLine(
tmpmin, tmpmax)
if coremax < coremin:
self.FCoreContacts[x] = None
else:
self.FCoreContacts[x] = linegrids.NewLine(
coremin, coremax)
def SetZExtremes(self, DomainX, DomainY):
self.CountXY = self.CountXY + 1
for z in range(len(self.FOverlapIxs)):
self.FOverlapIxs[z] = 0
limit1, limit2 = linegrids.GetLineExtremes(
self.FConstraintManager.ZDomainAtXY(DomainX, DomainY))
pix1, pix2, tix1, tix2 = GetIndexes(self.FDomainGrid.Block.ProbeEndX,
self.FDomainGrid.Block.TargetEndX,
self.FDomainGrid.Block.XOffset,
DomainX)
displace = DomainY + self.FDomainGrid.Block.YOffset
overlap = 0
while tix1 <= tix2:
self.InPlaceIntersect(self.FProbe.FSurf.NonEmpty[pix1],
self.FTarget.FSurf.NonEmpty[tix1], displace)
for y in range(self.FIntersectHigh + 1):
for yy in range(self.FIntersect[y][0],
self.FIntersect[y][1] + 1):
overlap = overlap + basetypes.Min(
self.FProbe.FSurf.CellCounts[pix1][yy - displace],
self.FTarget.FSurf.CellCounts[tix1][yy])
p1, p2 = linegrids.GetLineExtremes(
self.FProbe.FSurf.Grid[pix1][yy - displace])
t1, t2 = linegrids.GetLineExtremes(
self.FTarget.FSurf.Grid[tix1][yy])
p1 = p1 - self.FDomainGrid.Block.ProbeEndZ
p2 = p2 - self.FDomainGrid.Block.ProbeEndZ
st = t1 - p2
en = t2 - p1
wid1 = p2 - p1
wid2 = t2 - t1
if wid1 > wid2:
z = wid1
wid1 = wid2
wid2 = z
wid1 = st + wid1
wid2 = st + wid2
self.FOverlapIxs[st] = self.FOverlapIxs[st] + 1
self.FOverlapIxs[wid1 + 1] = self.FOverlapIxs[wid1 + 1] - 1
self.FOverlapIxs[wid2 + 1] = self.FOverlapIxs[wid2 + 1] - 1
self.FOverlapIxs[en + 1] = self.FOverlapIxs[en + 1] + 1
tix1 = tix1 + 1
pix1 = pix1 + 1
if overlap < self.MinimumOverlap:
self.FDomainGrid.Shape.Grid[DomainX][DomainY] = []
else:
acc = 0
dif = 0
z = -1
while (z < len(self.FOverlapIxs) - 1) and (acc <=
self.MinimumOverlap):
z = z + 1
dif = dif + self.FOverlapIxs[z]
acc = acc + dif
tmpmin = z
z = len(self.FOverlapIxs)
dif = 0
acc = 0
while (z > 0) and (acc <= self.MinimumOverlap) and (z > tmpmin):
z = z - 1
dif = dif + self.FOverlapIxs[z]
acc = acc + dif
tmpmax = z
# Convert from grid to domain
tmpmin = tmpmin + self.FDomainGrid.Block.ProbeEndZ + self.FDomainGrid.Block.ZOffset
tmpmax = tmpmax + self.FDomainGrid.Block.ProbeEndZ + self.FDomainGrid.Block.ZOffset
tmpmin = basetypes.Max(tmpmin, limit1)
tmpmax = basetypes.Min(tmpmax, limit2)
if tmpmin <= tmpmax:
self.FDomainGrid.Shape.Grid[DomainX][
DomainY] = linegrids.NewLine(tmpmin, tmpmax)
else:
self.FDomainGrid.Shape.Grid[DomainX][DomainY] = []