def getElements(self, node_id, x, y, x_label=None, y_label=None):
e = NodeDecorator.getElements(self, node_id, x, y)
if x_label is None:
x_label = x
if y_label is None:
y_label = y
t = self.mTree.node(node_id).data.taxon
species = self.mExtractSpecies(t)
if species not in self.mMapSpecies2Colour:
self.mMapSpecies2Colour[species] = COLOURS[len(
self.mMapSpecies2Colour) % len(COLOURS)]
if species in self.mMapSpecies2Name:
tx = re.sub(species, "%s" % self.mMapSpecies2Name[species], t)
else:
tx = t
colour = self.getColour(node_id, x, y)
if self.mPlotLabel:
ee = SVGdraw.text(x_label,
y_label,
tx,
self.mFontSize,
self.mFont,
stroke="rgb(%i,%i,%i)" % colour,
text_anchor="left")
if self.mMapTaxon2URL is not None:
url = self.mMapTaxon2URL(t)
if url:
l = SVGdraw.link(url)
l.addElement(ee)
e.append(l)
else:
e.append(ee)
else:
e.append(ee)
return e
def getElements(self, node_id, x, y, x_label=None, y_label=None):
e = NodeDecorator.getElements(self, node_id, x, y)
if x_label is None:
x_label = x
if y_label is None:
y_label = y
t = self.mTree.node(node_id).data.taxon
species = self.mExtractSpecies(t)
if species not in self.mMapSpecies2Colour:
self.mMapSpecies2Colour[species] = COLOURS[
len(self.mMapSpecies2Colour) % len(COLOURS)]
if species in self.mMapSpecies2Name:
tx = re.sub(species, "%s" % self.mMapSpecies2Name[species], t)
else:
tx = t
colour = self.getColour(node_id, x, y)
if self.mPlotLabel:
ee = SVGdraw.text(x_label, y_label,
tx,
self.mFontSize,
self.mFont,
stroke="rgb(%i,%i,%i)" % colour,
text_anchor="left")
if self.mMapTaxon2URL is not None:
url = self.mMapTaxon2URL(t)
if url:
l = SVGdraw.link(url)
l.addElement(ee)
e.append(l)
else:
e.append(ee)
else:
e.append(ee)
return e
def addDuplication(self, entries, map_gene2pos, height,
url=None,
with_separator=True,
link_to_previous=False,
quality2symbol={},
quality2mask={}):
"""add a dot in row/col."""
mi, ma = None, 0
pos = bisect.bisect(self.mColourThresholds, height)
master_colour = self.mColours[pos]
chrs = {}
points = []
if not link_to_previous:
self.mPreviousPoints = {}
########################################################
########################################################
########################################################
# convert gene list to a set of points
########################################################
for species, transcript, gene, quality in entries:
chr, strand, first_res, last_res = map_gene2pos[gene]
chrs[chr] = 1
pos1 = self.getPosition(chr, strand, first_res)
pos2 = self.getPosition(chr, strand, last_res)
a = min(pos1, pos2)
b = max(pos1, pos2)
if mi is None:
mi = a
else:
mi = min(a, mi)
ma = max(b, ma)
points.append((pos1, pos2, gene, quality, chr))
########################################################
########################################################
########################################################
# decide whether we need to increment the radius
########################################################
cis = len(chrs) == 1
old_radius = self.mRadius
is_overlap = False
if cis:
if not self.mLastChr:
self.mLastChr = chr
if chr != self.mLastChr:
self.mRadius = self.mRadiusFallBack
self.mLastMax = ma
self.mPreviousMax = ma
self.mLastChr = chr
else:
if self.mPreviousMax + self.mMinDistance > mi:
# overlap due to close proximitiy
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
# true overlap
if self.mPreviousMax > mi:
is_overlap = True
elif self.mLastMax + self.mMinDistance > mi:
pass
else:
self.mRadius = self.mRadiusFallBack
self.mLastMax = max(self.mLastMax, ma)
else:
if self.mLastMax > mi:
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
self.mPreviousMin = mi
self.mPreviousMax = ma
self.mPreviousCis = cis
self.mRadiusMax = max(self.mRadius, self.mRadiusMax)
########################################################
########################################################
########################################################
# draw points
########################################################
link_colour = master_colour
link_rad_width = self.mLinkRadStrokeWidth
link_arc_width = self.mLinkArcStrokeWidth
new_points = {}
for pos1, pos2, gene, quality, chr in points:
angle = self.getAngle((pos1 + pos2) / 2)
x, y = self.getPosOnArc(angle, self.mRadius)
try:
symbol = quality2symbol[quality]
except KeyError:
symbol = "rect"
if quality in quality2mask:
colour = self.mLinkColourSymbolMasked
link_colour = self.mLinkColourMasked
link_rad_width = self.mLinkStrokeWidthMasked
link_arc_width = self.mLinkStrokeWidthMasked
else:
colour = master_colour
if gene in self.mPreviousPoints:
continue
new_points[gene] = (x, y, angle, quality, chr)
if symbol == "circle":
ee = SVGdraw.circle(x, y, self.mLinkSymbolSize,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=self.mLinkStrokeWidthSymbol)
elif symbol == "rect":
ee = SVGdraw.rect(x - self.mLinkSymbolSize / 2, y - self.mLinkSymbolSize / 2,
self.mLinkSymbolSize, self.mLinkSymbolSize,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=self.mLinkStrokeWidthSymbol)
if url:
e = SVGdraw.link(url % gene)
e.addElement(ee)
else:
e = ee
self.addWheelElement(e)
########################################################
########################################################
########################################################
# write all arcs in between old points and new points
# cis: circular arc
# trans: radial arc
########################################################
angles = []
for x1, y1, angle1, quality1, chr1 in new_points.values():
# reduce clutter by not writing arc to the same angle
for x2, y2, angle2, quality2, chr2 in self.mPreviousPoints.values():
for a in angles:
if a - self.mAngleResolution < angle2 < a + self.mAngleResolution:
break
else:
angles.append(angle2)
d = SVGdraw.pathdata(x1, y1)
if chr1 == chr2:
d.relellarc(
self.mRadius, self.mRadius, 0, 0, 1, x2 - x1, y2 - y1)
link_width = link_rad_width
else:
d.relellarc(
self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2 - x1, y2 - y1)
link_width = link_arc_width
e = SVGdraw.path(d,
fill="none",
stroke="rgb(%i,%i,%i)" % link_colour,
stroke_width=link_width)
self.addWheelElement(e, self.mPlaneLinks)
# plot lines between new points
new_genes = new_points.keys()
for g1 in range(len(new_genes) - 1):
x1, y1, angle1, quality1, chr1 = new_points[new_genes[g1]]
for g2 in range(g1 + 1, len(new_genes)):
x2, y2, angle2, quality2, chr2 = new_points[new_genes[g2]]
for a in angles:
if a - self.mAngleResolution < angle2 < a + self.mAngleResolution:
break
else:
angles.append(angle2)
d = SVGdraw.pathdata(x1, y1)
if chr1 == chr2:
d.relellarc(
self.mRadius, self.mRadius, 0, 0, 1, x2 - x1, y2 - y1)
link_width = link_rad_width
else:
d.relellarc(
self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2 - x1, y2 - y1)
link_width = link_arc_width
e = SVGdraw.path(d,
fill="none",
stroke="rgb(%i,%i,%i)" % link_colour,
stroke_width=link_width)
self.addWheelElement(e, self.mPlaneLinks)
# add new points to old points
for k, v in new_points.items():
self.mPreviousPoints[k] = v
def addDuplication(self,
entries,
map_gene2pos,
height,
url=None,
with_separator=True,
link_to_previous=False,
quality2symbol={},
quality2mask={}):
"""add a dot in row/col."""
mi, ma = None, 0
pos = bisect.bisect(self.mColourThresholds, height)
master_colour = self.mColours[pos]
chrs = {}
points = []
for species, transcript, gene, quality in entries:
chr, strand, first_res, last_res = map_gene2pos[gene]
chrs[chr] = 1
pos1 = self.getPosition(chr, strand, first_res)
pos2 = self.getPosition(chr, strand, last_res)
a = min(pos1, pos2)
b = max(pos1, pos2)
if mi is None:
mi = a
else:
mi = min(a, mi)
ma = max(b, ma)
points.append((pos1, pos2, gene, quality))
# decide whether we need to increment the radius
cis = len(chrs) == 1
old_radius = self.mRadius
is_overlap = False
if cis:
if not self.mLastChr:
self.mLastChr = chr
if chr != self.mLastChr:
self.mRadius = self.mRadiusFallBack
self.mLastMax = ma
self.mPreviousMax = ma
self.mLastChr = chr
else:
if self.mPreviousMax + self.mMinDistance > mi:
# overlap due to close proximitiy
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
# true overlap
if self.mPreviousMax > mi:
is_overlap = True
elif self.mLastMax + self.mMinDistance > mi:
pass
else:
self.mRadius = self.mRadiusFallBack
self.mLastMax = max(self.mLastMax, ma)
else:
if self.mLastMax > mi:
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
if cis and self.mPreviousCis and (link_to_previous or is_overlap):
# print old_x1, old_y1, old_x2, old_y2, new_x1, new_y2, new_x2,
# new_y2
r1 = old_radius
r2 = self.mRadius
old_x1, old_y1 = self.getPosOnArcForRadius(self.mPreviousMin, r1)
old_x2, old_y2 = self.getPosOnArcForRadius(self.mPreviousMax, r1)
new_x1, new_y1 = self.getPosOnArcForRadius(mi, r2)
new_x2, new_y2 = self.getPosOnArcForRadius(ma, r2)
if link_to_previous:
# print cis, entries, chrs
d = SVGdraw.pathdata(old_x1, old_y1)
d.ellarc(r1, r1, 0, 0, 1, old_x2, old_y2)
d.line(new_x2, new_y2)
d.ellarc(r2, r2, 0, 0, 1, new_x1, new_y1)
d.line(old_x1, old_y1)
e = SVGdraw.path(d,
fill="rgb(%i,%i,%i)" % GREY,
stroke="rgb(%i,%i,%i)" % GREY,
stroke_width=1)
else:
# get points of center
old_x1, old_y1 = self.getPosOnArcForRadius(
(self.mPreviousMax + self.mPreviousMin) / 2, r1)
new_x1, new_y1 = self.getPosOnArcForRadius((ma + mi) / 2, r2)
# lines for interleaved spans: skip
if not ((self.mPreviousMin < mi and self.mPreviousMax > ma) or
(self.mPreviousMin > mi and self.mPreviousMax < ma)):
## d = SVGdraw.pathdata( old_x2, old_y2 )
## d.line( new_x2, new_y2 )
## d.move( new_x1, new_y1 )
## d.line( old_x1, old_y1 )
## d.move( old_x2, old_y2 )
# e = SVGdraw.path( d,
## fill = "none",
## stroke = "rgb(%i,%i,%i)" % BLACK,
# stroke_width = self.mMarkerWidth / 2 )
e = SVGdraw.line(old_x1,
old_y1,
new_x1,
new_y1,
fill="none",
stroke="rgb(%i,%i,%i)" % GREY,
stroke_width=self.mMarkerWidth / 2)
else:
# lines for covering spans, as these overlaps
e = None
# e = SVGdraw.line( old_x1, old_y1,
## new_x1, new_y1,
## fill = "none",
## stroke = "rgb(%i,%i,%i)" % GREY,
# stroke_width = self.mMarkerWidth / 2 )
if e:
self.addElement(e, self.mPlaneJoins)
self.mPreviousMin = mi
self.mPreviousMax = ma
self.mPreviousCis = cis
self.mRadiusMax = max(self.mRadius, self.mRadiusMax)
# draw points
link_colour = master_colour
link_width = 10
for pos1, pos2, gene, quality in points:
angle = self.getAngle((pos1 + pos2) / 2)
x, y = self.getPosOnArc(angle, self.mRadius)
try:
symbol = quality2symbol[quality]
except KeyError:
symbol = "rect"
if quality in quality2mask:
colour = GREY
link_colour = GREY
link_width = 1
else:
colour = master_colour
if symbol == "circle":
ee = SVGdraw.circle(x,
y,
self.mMarkerWidth,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=1)
elif symbol == "rect":
ee = SVGdraw.rect(x - self.mMarkerWidth / 2,
y - self.mMarkerWidth / 2,
self.mMarkerWidth,
self.mMarkerWidth,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=1)
if url:
e = SVGdraw.link(url % gene)
e.addElement(ee)
else:
e = ee
self.addElement(e)
angle1 = self.getAngle(mi)
angle2 = self.getAngle(ma)
x1, y1 = self.getPosOnArc(angle1, self.mRadius)
x2, y2 = self.getPosOnArc(angle2, self.mRadius)
d = SVGdraw.pathdata(x1, y1)
if cis:
d.ellarc(self.mRadius, self.mRadius, 0, 0, 1, x2, y2)
else:
d.ellarc(self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2, y2)
e = SVGdraw.path(d,
fill="none",
stroke="rgb(%i,%i,%i)" % link_colour,
stroke_width=link_width)
self.addElement(e)
def plotGenes(self):
"""plot orthologs orthologwise."""
# sort all entries by coordinates
# and build coordinates
map_gene2coord = {}
y = self.mHeaderHeight
self.mMapGene2Coord = {}
reference_genes = None
for species in self.mSpeciesList:
genes = self.getGenes(species)
genes.sort(lambda x, y: cmp((x.contig, x.mFrom), (y.contig, y.mFrom)))
if reference_genes:
genes = self.getSortedGenes(genes, reference_genes)
else:
genes = self.getSortedGenesByBlockSize(genes)
x = self.getRowWidth(genes)
x = self.mHeaderWidth + (self.mDataWidth - x) / 2
last_contig, last_end = None, 0
# build list of genes to skip (note: this can be improved
# by working in blocks from the start.)
blocks = self.getBlocks(genes)
for block in blocks:
nlinks = 0
for gene in block:
nlinks += len(self.mMapGroup2Genes[gene.mOrthologId])
if nlinks == len(block):
continue
x = self.addGroupStart(x, y, gene.contig, gene.mFrom)
# count number of links to be made
for gene in block:
self.mMapGene2Coord[gene] = (x, y)
ee = self.plotGene(x, y, gene)
if self.mGeneUrl:
e = SVGdraw.link(self.mGeneUrl % gene)
e.addElement(ee)
else:
e = ee
self.addElement(e)
x += self.mBlockSize + self.mVerticalSeparator
last_contig, last_end = gene.contig, gene.mTo
y += self.mBlockSize + self.mHorizontalSeparator
# set orientation
if self.mOrientation == "local":
reference_genes = genes
elif self.mOrientation == "first":
if not reference_genes:
reference_genes = genes
def plotGenes(self):
"""plot orthologs orthologwise."""
## sort all entries by coordinates
## and build coordinates
map_gene2coord = {}
y = self.mHeaderHeight
self.mMapGene2Coord = {}
reference_genes = None
for species in self.mSpeciesList:
genes = self.getGenes(species)
genes.sort(lambda x, y: cmp((x.contig, x.mFrom),
(y.contig, y.mFrom)))
if reference_genes:
genes = self.getSortedGenes(genes, reference_genes)
else:
genes = self.getSortedGenesByBlockSize(genes)
x = self.getRowWidth(genes)
x = self.mHeaderWidth + (self.mDataWidth - x) / 2
last_contig, last_end = None, 0
# build list of genes to skip (note: this can be improved
# by working in blocks from the start.)
blocks = self.getBlocks(genes)
for block in blocks:
nlinks = 0
for gene in block:
nlinks += len(self.mMapGroup2Genes[gene.mOrthologId])
if nlinks == len(block): continue
x = self.addGroupStart(x, y, gene.contig, gene.mFrom)
# count number of links to be made
for gene in block:
self.mMapGene2Coord[gene] = (x, y)
ee = self.plotGene(x, y, gene)
if self.mGeneUrl:
e = SVGdraw.link(self.mGeneUrl % gene)
e.addElement(ee)
else:
e = ee
self.addElement(e)
x += self.mBlockSize + self.mVerticalSeparator
last_contig, last_end = gene.contig, gene.mTo
y += self.mBlockSize + self.mHorizontalSeparator
## set orientation
if self.mOrientation == "local":
reference_genes = genes
elif self.mOrientation == "first":
if not reference_genes:
reference_genes = genes
def addDuplication( self, entries, map_gene2pos, height,
url = None,
with_separator=True,
link_to_previous = False,
quality2symbol = {},
quality2mask = {}):
"""add a dot in row/col."""
mi, ma = None, 0
pos = bisect.bisect( self.mColourThresholds, height )
master_colour = self.mColours[pos]
chrs = {}
points = []
for species, transcript, gene, quality in entries:
chr, strand, first_res, last_res = map_gene2pos[gene]
chrs[chr] = 1
pos1 = self.getPosition( chr, strand, first_res )
pos2 = self.getPosition( chr, strand, last_res )
a = min( pos1, pos2 )
b = max( pos1, pos2 )
if mi == None:
mi = a
else:
mi = min(a, mi)
ma = max(b, ma)
points.append( (pos1, pos2, gene, quality) )
## decide whether we need to increment the radius
cis = len(chrs) == 1
old_radius = self.mRadius
is_overlap = False
if cis:
if not self.mLastChr:
self.mLastChr = chr
if chr != self.mLastChr:
self.mRadius = self.mRadiusFallBack
self.mLastMax = ma
self.mPreviousMax = ma
self.mLastChr = chr
else:
if self.mPreviousMax + self.mMinDistance > mi:
## overlap due to close proximitiy
self.mRadius += self.mRadiusIncrement
if with_separator: self.addSeparator()
## true overlap
if self.mPreviousMax > mi:
is_overlap = True
elif self.mLastMax + self.mMinDistance > mi:
pass
else:
self.mRadius = self.mRadiusFallBack
self.mLastMax = max(self.mLastMax, ma)
else:
if self.mLastMax > mi:
self.mRadius += self.mRadiusIncrement
if with_separator: self.addSeparator()
if cis and self.mPreviousCis and (link_to_previous or is_overlap):
# print old_x1, old_y1, old_x2, old_y2, new_x1, new_y2, new_x2, new_y2
r1 = old_radius
r2 = self.mRadius
old_x1, old_y1 = self.getPosOnArcForRadius( self.mPreviousMin, r1 )
old_x2, old_y2 = self.getPosOnArcForRadius( self.mPreviousMax, r1 )
new_x1, new_y1 = self.getPosOnArcForRadius( mi, r2 )
new_x2, new_y2 = self.getPosOnArcForRadius( ma, r2 )
if link_to_previous:
# print cis, entries, chrs
d = SVGdraw.pathdata( old_x1, old_y1 )
d.ellarc( r1, r1, 0, 0, 1, old_x2, old_y2 )
d.line( new_x2, new_y2 )
d.ellarc( r2, r2, 0, 0, 1, new_x1, new_y1 )
d.line( old_x1, old_y1 )
e = SVGdraw.path( d,
fill = "rgb(%i,%i,%i)" % GREY,
stroke = "rgb(%i,%i,%i)" % GREY,
stroke_width = 1 )
else:
# get points of center
old_x1, old_y1 = self.getPosOnArcForRadius( (self.mPreviousMax + self.mPreviousMin) / 2, r1 )
new_x1, new_y1 = self.getPosOnArcForRadius( (ma + mi) / 2, r2 )
# lines for interleaved spans: skip
if not ((self.mPreviousMin < mi and self.mPreviousMax > ma) or \
(self.mPreviousMin > mi and self.mPreviousMax < ma)) :
## d = SVGdraw.pathdata( old_x2, old_y2 )
## d.line( new_x2, new_y2 )
## d.move( new_x1, new_y1 )
## d.line( old_x1, old_y1 )
## d.move( old_x2, old_y2 )
## e = SVGdraw.path( d,
## fill = "none",
## stroke = "rgb(%i,%i,%i)" % BLACK,
## stroke_width = self.mMarkerWidth / 2 )
e = SVGdraw.line( old_x1, old_y1,
new_x1, new_y1,
fill = "none",
stroke = "rgb(%i,%i,%i)" % GREY,
stroke_width = self.mMarkerWidth / 2 )
else:
# lines for covering spans, as these overlaps
e = None
## e = SVGdraw.line( old_x1, old_y1,
## new_x1, new_y1,
## fill = "none",
## stroke = "rgb(%i,%i,%i)" % GREY,
## stroke_width = self.mMarkerWidth / 2 )
if e:
self.addElement( e, self.mPlaneJoins )
self.mPreviousMin = mi
self.mPreviousMax = ma
self.mPreviousCis = cis
self.mRadiusMax = max(self.mRadius, self.mRadiusMax)
## draw points
link_colour = master_colour
link_width = 10
for pos1, pos2, gene, quality in points:
angle = self.getAngle( (pos1 + pos2) / 2 )
x,y = self.getPosOnArc( angle, self.mRadius )
try:
symbol = quality2symbol[quality]
except KeyError:
symbol = "rect"
if quality in quality2mask:
colour = GREY
link_colour = GREY
link_width = 1
else:
colour = master_colour
if symbol == "circle":
ee = SVGdraw.circle( x, y, self.mMarkerWidth,
fill = "rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width= 1)
elif symbol == "rect":
ee = SVGdraw.rect( x-self.mMarkerWidth/2, y-self.mMarkerWidth/2,
self.mMarkerWidth, self.mMarkerWidth,
fill = "rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width= 1)
if url:
e = SVGdraw.link( url % gene )
e.addElement( ee )
else:
e = ee
self.addElement( e )
angle1 = self.getAngle( mi )
angle2 = self.getAngle( ma )
x1,y1 = self.getPosOnArc( angle1, self.mRadius )
x2,y2 = self.getPosOnArc( angle2, self.mRadius )
d = SVGdraw.pathdata( x1, y1 )
if cis:
d.ellarc( self.mRadius, self.mRadius, 0, 0, 1, x2, y2 )
else:
d.ellarc( self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2, y2 )
e = SVGdraw.path( d,
fill = "none",
stroke = "rgb(%i,%i,%i)" % link_colour,
stroke_width = link_width )
self.addElement(e)
def addDuplication(self, entries, map_gene2pos, height,
url=None,
with_separator=True,
link_to_previous=False,
quality2symbol={},
quality2mask={}):
"""add a dot in row/col."""
mi, ma = None, 0
pos = bisect.bisect(self.mColourThresholds, height)
master_colour = self.mColours[pos]
chrs = {}
points = []
if not link_to_previous:
self.mPreviousPoints = {}
########################################################
########################################################
########################################################
# convert gene list to a set of points
########################################################
for species, transcript, gene, quality in entries:
chr, strand, first_res, last_res = map_gene2pos[gene]
chrs[chr] = 1
pos1 = self.getPosition(chr, strand, first_res)
pos2 = self.getPosition(chr, strand, last_res)
a = min(pos1, pos2)
b = max(pos1, pos2)
if mi is None:
mi = a
else:
mi = min(a, mi)
ma = max(b, ma)
points.append((pos1, pos2, gene, quality, chr))
########################################################
########################################################
########################################################
# decide whether we need to increment the radius
########################################################
cis = len(chrs) == 1
old_radius = self.mRadius
is_overlap = False
if cis:
if not self.mLastChr:
self.mLastChr = chr
if chr != self.mLastChr:
self.mRadius = self.mRadiusFallBack
self.mLastMax = ma
self.mPreviousMax = ma
self.mLastChr = chr
else:
if self.mPreviousMax + self.mMinDistance > mi:
# overlap due to close proximitiy
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
# true overlap
if self.mPreviousMax > mi:
is_overlap = True
elif self.mLastMax + self.mMinDistance > mi:
pass
else:
self.mRadius = self.mRadiusFallBack
self.mLastMax = max(self.mLastMax, ma)
else:
if self.mLastMax > mi:
self.mRadius += self.mRadiusIncrement
if with_separator:
self.addSeparator()
self.mPreviousMin = mi
self.mPreviousMax = ma
self.mPreviousCis = cis
self.mRadiusMax = max(self.mRadius, self.mRadiusMax)
########################################################
########################################################
########################################################
# draw points
########################################################
link_colour = master_colour
link_rad_width = self.mLinkRadStrokeWidth
link_arc_width = self.mLinkArcStrokeWidth
new_points = {}
for pos1, pos2, gene, quality, chr in points:
angle = self.getAngle((pos1 + pos2) / 2)
x, y = self.getPosOnArc(angle, self.mRadius)
try:
symbol = quality2symbol[quality]
except KeyError:
symbol = "rect"
if quality in quality2mask:
colour = self.mLinkColourSymbolMasked
link_colour = self.mLinkColourMasked
link_rad_width = self.mLinkStrokeWidthMasked
link_arc_width = self.mLinkStrokeWidthMasked
else:
colour = master_colour
if gene in self.mPreviousPoints:
continue
new_points[gene] = (x, y, angle, quality, chr)
if symbol == "circle":
ee = SVGdraw.circle(x, y, self.mLinkSymbolSize,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=self.mLinkStrokeWidthSymbol)
elif symbol == "rect":
ee = SVGdraw.rect(x - self.mLinkSymbolSize / 2, y - self.mLinkSymbolSize / 2,
self.mLinkSymbolSize, self.mLinkSymbolSize,
fill="rgb(%i,%i,%i)" % colour,
stroke="black",
stroke_width=self.mLinkStrokeWidthSymbol)
if url:
e = SVGdraw.link(url % gene)
e.addElement(ee)
else:
e = ee
self.addWheelElement(e)
########################################################
########################################################
########################################################
# write all arcs in between old points and new points
# cis: circular arc
# trans: radial arc
########################################################
angles = []
for x1, y1, angle1, quality1, chr1 in new_points.values():
# reduce clutter by not writing arc to the same angle
for x2, y2, angle2, quality2, chr2 in self.mPreviousPoints.values():
for a in angles:
if a - self.mAngleResolution < angle2 < a + self.mAngleResolution:
break
else:
angles.append(angle2)
d = SVGdraw.pathdata(x1, y1)
if chr1 == chr2:
d.relellarc(
self.mRadius, self.mRadius, 0, 0, 1, x2 - x1, y2 - y1)
link_width = link_rad_width
else:
d.relellarc(
self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2 - x1, y2 - y1)
link_width = link_arc_width
e = SVGdraw.path(d,
fill="none",
stroke="rgb(%i,%i,%i)" % link_colour,
stroke_width=link_width)
self.addWheelElement(e, self.mPlaneLinks)
# plot lines between new points
new_genes = new_points.keys()
for g1 in range(len(new_genes) - 1):
x1, y1, angle1, quality1, chr1 = new_points[new_genes[g1]]
for g2 in range(g1 + 1, len(new_genes)):
x2, y2, angle2, quality2, chr2 = new_points[new_genes[g2]]
for a in angles:
if a - self.mAngleResolution < angle2 < a + self.mAngleResolution:
break
else:
angles.append(angle2)
d = SVGdraw.pathdata(x1, y1)
if chr1 == chr2:
d.relellarc(
self.mRadius, self.mRadius, 0, 0, 1, x2 - x1, y2 - y1)
link_width = link_rad_width
else:
d.relellarc(
self.mRadius * 2, self.mRadius * 2, 0, 0, 0, x2 - x1, y2 - y1)
link_width = link_arc_width
e = SVGdraw.path(d,
fill="none",
stroke="rgb(%i,%i,%i)" % link_colour,
stroke_width=link_width)
self.addWheelElement(e, self.mPlaneLinks)
# add new points to old points
for k, v in new_points.items():
self.mPreviousPoints[k] = v
