def Update(dsviewer):
image = dsviewer.image
if "events" in dir(image) and len(image.events) > 0:
st = image.mdh.getEntry("StartTime")
if "EndTime" in image.mdh.getEntryNames():
et = image.mdh.getEntry("EndTime")
else:
et = piecewiseMapping.framesToTime(image.data.getNumSlices(), image.events, image.mdh)
dsviewer.elv.SetRange([0, et - st])
def Update(dsviewer):
image = dsviewer.image
if 'events' in dir(image) and len(image.events) > 0:
st = image.mdh.getEntry('StartTime')
if 'EndTime' in image.mdh.getEntryNames():
et = image.mdh.getEntry('EndTime')
else:
et = piecewiseMapping.framesToTime(image.data.getNumSlices(),
image.events, image.mdh)
dsviewer.elv.SetRange([0, et - st])
def Plug(dsviewer):
image = dsviewer.image
if 'events' in dir(image) and len(image.events) > 0:
st = image.mdh.getEntry('StartTime')
if 'EndTime' in image.mdh.getEntryNames():
et = image.mdh.getEntry('EndTime')
else:
et = piecewiseMapping.framesToTime(image.data.getNumSlices(),
image.events, image.mdh)
dsviewer.elv = eventLogViewer.eventLogTPanel(dsviewer, image.events,
image.mdh, [0, et - st])
dsviewer.AddPage(dsviewer.elv, False, 'Events')
charts = []
if 'ProtocolFocus' in dsviewer.elv.evKeyNames:
dsviewer.zm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh,
image.mdh.getEntry('StartTime'),
image.mdh.getEntry('Protocol.PiezoStartPos'))
charts.append(('Focus [um]', dsviewer.zm, 'ProtocolFocus'))
if 'ScannerXPos' in dsviewer.elv.evKeyNames:
x0 = 0
if 'Positioning.Stage_X' in image.mdh.getEntryNames():
x0 = image.mdh.getEntry('Positioning.Stage_X')
dsviewer.xm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh,
image.mdh.getEntry('StartTime'), x0, 'ScannerXPos', 0)
charts.append(('XPos [um]', dsviewer.xm, 'ScannerXPos'))
if 'ScannerYPos' in dsviewer.elv.evKeyNames:
y0 = 0
if 'Positioning.Stage_Y' in image.mdh.getEntryNames():
y0 = image.mdh.getEntry('Positioning.Stage_Y')
dsviewer.ym = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh,
image.mdh.getEntry('StartTime'), y0, 'ScannerYPos', 0)
charts.append(('YPos [um]', dsviewer.ym, 'ScannerYPos'))
if 'ScannerZPos' in dsviewer.elv.evKeyNames:
z0 = 0
if 'Positioning.PIFoc' in image.mdh.getEntryNames():
z0 = image.mdh.getEntry('Positioning.PIFoc')
dsviewer.zm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh,
image.mdh.getEntry('StartTime'), z0, 'ScannerZPos', 0)
charts.append(('ZPos [um]', dsviewer.zm, 'ScannerZPos'))
dsviewer.elv.SetCharts(charts)
dsviewer.updateHooks.append(Update)
def Plug(dsviewer):
image = dsviewer.image
if "events" in dir(image) and len(image.events) > 0:
st = image.mdh.getEntry("StartTime")
if "EndTime" in image.mdh.getEntryNames():
et = image.mdh.getEntry("EndTime")
else:
et = piecewiseMapping.framesToTime(image.data.getNumSlices(), image.events, image.mdh)
dsviewer.elv = eventLogViewer.eventLogTPanel(dsviewer, image.events, image.mdh, [0, et - st])
dsviewer.AddPage(dsviewer.elv, False, "Events")
charts = []
if "ProtocolFocus" in dsviewer.elv.evKeyNames:
dsviewer.zm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource,
image.mdh,
image.mdh.getEntry("StartTime"),
image.mdh.getEntry("Protocol.PiezoStartPos"),
)
charts.append(("Focus [um]", dsviewer.zm, "ProtocolFocus"))
if "ScannerXPos" in dsviewer.elv.evKeyNames:
x0 = 0
if "Positioning.Stage_X" in image.mdh.getEntryNames():
x0 = image.mdh.getEntry("Positioning.Stage_X")
dsviewer.xm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh, image.mdh.getEntry("StartTime"), x0, "ScannerXPos", 0
)
charts.append(("XPos [um]", dsviewer.xm, "ScannerXPos"))
if "ScannerYPos" in dsviewer.elv.evKeyNames:
y0 = 0
if "Positioning.Stage_Y" in image.mdh.getEntryNames():
y0 = image.mdh.getEntry("Positioning.Stage_Y")
dsviewer.ym = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh, image.mdh.getEntry("StartTime"), y0, "ScannerYPos", 0
)
charts.append(("YPos [um]", dsviewer.ym, "ScannerYPos"))
if "ScannerZPos" in dsviewer.elv.evKeyNames:
z0 = 0
if "Positioning.PIFoc" in image.mdh.getEntryNames():
z0 = image.mdh.getEntry("Positioning.PIFoc")
dsviewer.zm = piecewiseMapping.GeneratePMFromEventList(
dsviewer.elv.eventSource, image.mdh, image.mdh.getEntry("StartTime"), z0, "ScannerZPos", 0
)
charts.append(("ZPos [um]", dsviewer.zm, "ScannerZPos"))
dsviewer.elv.SetCharts(charts)
dsviewer.updateHooks.append(Update)
def DoPaint(self, dc):
dc.Clear()
hpadding = 10
barWidth = 20
tickSize = 5
lastEvY = 0
eventTextWidth = 100
dc.SetFont(wx.NORMAL_FONT)
textHeight = dc.GetTextExtent("test")[1]
self.textHeight = textHeight
frameLabelSize = max(dc.GetTextExtent("%3.4g" % self.frameRange[1])[0], dc.GetTextExtent("N")[0])
tPerFrame = self.metaData.getEntry("Camera.CycleTime")
# maxT = tPerFrame*self.frameRange[1]
maxT = framesToTime(self.frameRange[1], self.eventSource, self.metaData) - self.startTime
# minT = tPerFrame*self.frameRange[0]
minT = framesToTime(self.frameRange[0], self.eventSource, self.metaData) - self.startTime
timeLabelSize = max(dc.GetTextExtent("%3.4g" % maxT)[0], dc.GetTextExtent("[s]" % maxT)[0])
# labels
dc.DrawText("N", hpadding + frameLabelSize / 2 - dc.GetTextExtent("N")[0] / 2, 0)
dc.DrawText(
"[s]", frameLabelSize + 3 * hpadding + barWidth + timeLabelSize / 2 - dc.GetTextExtent("[s]")[0] / 2, 0
)
# dc.SetFont(wx.NORMAL_FONT)
# bar
# dc.SetPen(wx.GREEN_PEN)
dc.SetBrush(wx.MEDIUM_GREY_BRUSH)
x0 = frameLabelSize + 2 * hpadding
y0 = 2 * textHeight
dc.DrawRectangle(x0, y0, barWidth, self.Size[1] - 3 * textHeight)
if self.frameRange[0] > self.maxRange[0]:
pl = [(x0 + 2, y0 - 3), (x0 + barWidth / 2, y0 - barWidth / 2 - 1), (x0 + barWidth - 2, y0 - 3)]
dc.DrawPolygon(pl)
if self.frameRange[1] < self.maxRange[1]:
y0 = y0 + self.Size[1] - 3 * textHeight
pl = [(x0 + 2, y0 + 2), (x0 + barWidth / 2, y0 + barWidth / 2), (x0 + barWidth - 2, y0 + 2)]
dc.DrawPolygon(pl)
# ticks
dc.SetPen(wx.BLACK_PEN)
##frame # ticks
nFrames = self.frameRange[1] - self.frameRange[0]
pixPerFrame = float(self.Size[1] - 3 * textHeight) / nFrames
pixPerS = pixPerFrame / tPerFrame
self.pixPerFrame = pixPerFrame
nTicksTarget = self.Size[1] / (7.5 * textHeight)
tickSpacing = nFrames / nTicksTarget
# round to 1sf
tickSpacing = round(tickSpacing / (10 ** np.floor(np.log10(tickSpacing)))) * (
10 ** np.floor(np.log10(tickSpacing))
)
tickStart = np.ceil(self.frameRange[0] / tickSpacing) * tickSpacing
ticks = np.arange(tickStart, self.frameRange[1] + 0.01, tickSpacing)
tickTimes = framesToTime(ticks, self.eventSource, self.metaData) - self.startTime
for t, tt in zip(ticks, tickTimes):
# y = (t -self.frameRange[0])*pixPerFrame + 2*textHeight
y = (tt - minT) * pixPerS + 2 * textHeight
dc.DrawText("%3.4g" % t, hpadding, y - 0.5 * textHeight)
dc.DrawLine(frameLabelSize + 2 * hpadding - tickSize, y, frameLabelSize + 2 * hpadding, y)
# #### Time # ticks
tickSpacingTime = tPerFrame * tickSpacing
# round to 1sf
tickSpacingTime = round(tickSpacingTime / (10 ** np.floor(np.log10(tickSpacingTime)))) * (
10 ** np.floor(np.log10(tickSpacingTime))
)
tickStartTime = np.ceil(minT / tickSpacingTime) * tickSpacingTime
ticks = np.arange(tickStartTime, maxT + 0.0001, tickSpacingTime)
#
# #print minT, maxT, tickSpacingTime
#
for t in ticks:
y = (t - minT) * pixPerS + 2 * textHeight
dc.DrawText("%2.4g" % t, frameLabelSize + 3 * hpadding + barWidth, y - 0.5 * textHeight)
dc.DrawLine(
frameLabelSize + 2 * hpadding + barWidth, y, frameLabelSize + 2 * hpadding + barWidth + tickSize, y
)
tTickPositions = (ticks - minT) * pixPerS + 2 * textHeight
startT = self.metaData.getEntry("StartTime")
x0 = frameLabelSize + 2 * hpadding
x1 = x0 + 3 * hpadding + barWidth + timeLabelSize
x2 = x1 + hpadding
x3 = x2 + hpadding
numSkipped = 0
for e in self.eventSource:
t = e["Time"] - startT
if t > minT and t < maxT:
y = (t - minT) * pixPerS + 2 * textHeight
dc.SetPen(wx.Pen(self.lineColours[e["EventName"]]))
dc.SetTextForeground(self.lineColours[e["EventName"]])
if y < (lastEvY + 2) or (numSkipped > 0 and y < (lastEvY + 1.2 * textHeight)): # no room - skip
if ((tTickPositions - y) ** 2).min() < (0.3 * textHeight) ** 2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2 * hpadding, y, x1 - 2 * (1 + 1 * numSkipped), y)
else:
dc.DrawLine(x0, y, x1 - 2 * (1 + 1 * numSkipped), y)
dc.DrawLine(
x1 - 2 * (1 + 1 * numSkipped),
y,
x1 - 2 * (1 + 1 * numSkipped),
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
)
dc.DrawLine(
x1 - 2 * (1 + 1 * numSkipped),
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
x3 + 200,
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
)
numSkipped += 1
else:
if ((tTickPositions - y) ** 2).min() < (0.3 * textHeight) ** 2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2 * hpadding, y, x1, y)
else:
dc.DrawLine(x0, y, x1, y)
if y < (lastEvY + 1.2 * textHeight):
dc.DrawLine(x1, y, x1, lastEvY + 1.2 * textHeight)
y = lastEvY + 1.2 * textHeight
dc.DrawLine(x1, y, x2, y)
eventText = "%6.2fs\t" % t + "%(EventName)s\t%(EventDescr)s" % e
etw = dc.GetTextExtent(eventText)[0]
etwMax = self.Size[0] - (x3 + 2 * hpadding + 80 * len(self.charts))
if etw > etwMax:
newLen = int((float(etwMax) / etw) * len(eventText))
eventText = eventText[: (newLen - 4)] + " ..."
eventTextWidth = max(eventTextWidth, dc.GetTextExtent(eventText)[0])
dc.DrawText(eventText, x3, y - 0.5 * textHeight)
lastEvY = y
numSkipped = 0
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.BLACK_PEN)
x4 = x3 + eventTextWidth + 2 * hpadding
chartWidth = (self.Size[0] - x4) / max(len(self.charts), 1) - 2 * hpadding
for c in self.charts:
cname = c[0]
cmapping = c[1]
sourceEv = c[2]
dc.SetTextForeground(self.lineColours[sourceEv])
dc.DrawText(cname, x4 + chartWidth / 2 - dc.GetTextExtent(cname)[0] / 2, 0)
xv = np.array(
[self.frameRange[0]]
+ [x for x in cmapping.xvals if x > self.frameRange[0] and x < self.frameRange[1]]
+ [self.frameRange[1]]
)
vv = cmapping(xv)
vmin = vv.min()
vmax = vv.max()
if vmax == vmin:
vsc = 0
else:
vsc = chartWidth / float(vmax - vmin)
dc.DrawText("%3.2f" % vmin, x4 - dc.GetTextExtent("%3.2f" % vmin)[0] / 2, 1 * textHeight)
dc.DrawText("%3.2f" % vmax, x4 + chartWidth - dc.GetTextExtent("%3.2f" % vmax)[0] / 2, 1 * textHeight)
dc.SetPen(wx.BLACK_PEN)
dc.DrawLine(x4, 2 * textHeight, x4, 2 * textHeight + tickSize)
dc.DrawLine(x4 + chartWidth, 2 * textHeight, x4 + chartWidth, 2 * textHeight + tickSize)
# dc.SetPen(wx.Pen(wx.BLUE, 2))
dc.SetPen(wx.Pen(self.lineColours[sourceEv], 2))
x_0 = xv[0]
v_0 = vv[0]
yp_ = (x_0 - self.frameRange[0]) * pixPerFrame + 2 * textHeight
xp_ = x4 + (v_0 - vmin) * vsc
for x, v in zip(xv[1:-1], vv[1:-1]):
yp = (x - self.frameRange[0]) * pixPerFrame + 2 * textHeight
xp = x4 + (v - vmin) * vsc
dc.DrawLine(xp_, yp_, xp_, yp)
dc.DrawLine(xp_, yp, xp, yp)
xp_ = xp
yp_ = yp
yp = (xv[-1] - self.frameRange[0]) * pixPerFrame + 2 * textHeight
xp = x4 + (vv[-1] - vmin) * vsc
dc.DrawLine(xp_, yp_, xp_, yp)
x4 = x4 + chartWidth + hpadding
# pm = piecewiseMapping.GeneratePMFromEventList(elv.eventSource, md.Camera.CycleTime*1e-3, md.StartTime, md.Protocol.PiezoStartPos)
# if self.dragging == 'upper':
# dc.SetPen(wx.Pen(wx.GREEN, 2))
# else:
# dc.SetPen(wx.Pen(wx.RED, 2))
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.NullPen)
dc.SetBrush(wx.NullBrush)
dc.SetFont(wx.NullFont)
def DoPaint(self, dc):
dc.Clear()
hpadding = 10
barWidth = 20
tickSize = 5
lastEvY = 0
eventTextWidth = 100
dc.SetFont(wx.NORMAL_FONT)
textHeight = dc.GetTextExtent("test")[1]
self.textHeight = textHeight
timeLabelSize = max(dc.GetTextExtent("%3.4g" % self.timeRange[1])[0], dc.GetTextExtent("N")[0])
# tPerFrame = self.metaData.getEntry('Camera.CycleTime')
minT, maxT = self.timeRange
pixPerS = float(self.Size[1] - 3 * textHeight) / (maxT - minT)
self.pixPerS = pixPerS
maxF = timeToFrames(maxT + self.startTime, self.eventSource, self.metaData) # - self.startTime
minF = timeToFrames(minT + self.startTime, self.eventSource, self.metaData) # - self.startTime
# print minF, maxF
if (maxF < minF) < 30: # show when camera was actually recording
fTimes = framesToTime(np.arange(minF, maxF + 0.1), self.eventSource, self.metaData) - self.startTime
tPerFrame = self.metaData.getEntry("Camera.CycleTime")
old_pen = dc.GetPen()
dc.SetPen(wx.TRANSPARENT_PEN)
dc.SetBrush(wx.TheBrushList.FindOrCreateBrush(wx.Colour(220, 255, 200)))
for ft in fTimes:
y0 = (ft - minT) * pixPerS + 2 * textHeight
bh = tPerFrame * pixPerS
dc.DrawRectangle(0, y0, self.Size[0], bh)
dc.SetPen(old_pen)
frameLabelSize = max(dc.GetTextExtent("%3.4g" % maxF)[0], dc.GetTextExtent("[s]" % maxF)[0])
# labels
dc.DrawText("N", hpadding + frameLabelSize / 2 - dc.GetTextExtent("N")[0] / 2, 0)
dc.DrawText(
"[s]", frameLabelSize + 3 * hpadding + barWidth + timeLabelSize / 2 - dc.GetTextExtent("[s]")[0] / 2, 0
)
dc.SetBrush(wx.MEDIUM_GREY_BRUSH)
x0 = frameLabelSize + 2 * hpadding
y0 = 2 * textHeight
dc.DrawRectangle(x0, y0, barWidth, self.Size[1] - 3 * textHeight)
if self.timeRange[0] > self.maxRange[0]:
pl = [(x0 + 2, y0 - 3), (x0 + barWidth / 2, y0 - barWidth / 2 - 1), (x0 + barWidth - 2, y0 - 3)]
dc.DrawPolygon(pl)
if self.timeRange[1] < self.maxRange[1]:
y0 = y0 + self.Size[1] - 3 * textHeight
pl = [(x0 + 2, y0 + 2), (x0 + barWidth / 2, y0 + barWidth / 2), (x0 + barWidth - 2, y0 + 2)]
dc.DrawPolygon(pl)
# ticks
dc.SetPen(wx.BLACK_PEN)
##frame # ticks
nFrames = maxF - minF
# pixPerS = pixPerFrame/tPerFrame
# self.pixPerFrame = pixPerFrame
nTicksTarget = self.Size[1] / (5.5 * textHeight)
tickSpacing = np.floor(nFrames / nTicksTarget)
# round to 1sf
# tickSpacing = round(tickSpacing/(10**np.floor(np.log10(tickSpacing))))*(10**np.floor(np.log10(tickSpacing)))
tickStart = np.ceil(minF / tickSpacing) * tickSpacing
ticks = np.arange(tickStart, maxF + 0.01, tickSpacing)
tickTimes = framesToTime(ticks, self.eventSource, self.metaData) - self.startTime
# print minT, maxT,nFrames, nTicksTarget, tickStart, tickSpacing
for t, tt in zip(ticks, tickTimes):
# y = (t -self.frameRange[0])*pixPerFrame + 2*textHeight
y = (tt - minT) * pixPerS + 2 * textHeight
# print t, hpadding, y - 0.5*textHeight
dc.DrawText("%3.4g" % t, hpadding, y - 0.5 * textHeight)
dc.DrawLine(frameLabelSize + 2 * hpadding - tickSize, y, frameLabelSize + 2 * hpadding, y)
# #### Time # ticks
tickSpacingTime = (maxT - minT) / nTicksTarget
# round to 1sf
tickSpacingTime = round(tickSpacingTime / (10 ** np.floor(np.log10(tickSpacingTime)))) * (
10 ** np.floor(np.log10(tickSpacingTime))
)
tickStartTime = np.ceil(minT / tickSpacingTime) * tickSpacingTime
ticks = np.arange(tickStartTime, maxT + 0.0001, tickSpacingTime)
#
# print minT, maxT, tickSpacingTime
#
for t in ticks:
y = (t - minT) * pixPerS + 2 * textHeight
dc.DrawText("%2.4g" % t, frameLabelSize + 3 * hpadding + barWidth, y - 0.5 * textHeight)
dc.DrawLine(
frameLabelSize + 2 * hpadding + barWidth, y, frameLabelSize + 2 * hpadding + barWidth + tickSize, y
)
tTickPositions = (ticks - minT) * pixPerS + 2 * textHeight
startT = self.metaData.getEntry("StartTime")
x0 = frameLabelSize + 2 * hpadding
x1 = x0 + 3 * hpadding + barWidth + timeLabelSize
x2 = x1 + hpadding
x3 = x2 + hpadding
numSkipped = 0
evts = self.eventSource[
(self.eventSource["Time"] > (minT + self.startTime)) * (self.eventSource["Time"] < (maxT + self.startTime))
]
ets = evts["Time"] - self.startTime
eys = (ets - minT) * pixPerS + 2 * textHeight
dys = np.hstack([np.diff(eys), [100]])
# special hack for co-incident events
for i in range(len(dys)):
if dys[i] == 0:
j = i + 1
while dys[j] == 0: # find the next non-zero step
j += 1
if dys[j] > 1.2 * textHeight: # we have room to expand
dys[i] += 1.2 * textHeight
dys[j] -= 1.2 * textHeight
lastLineY = 0
for i, e in enumerate(evts):
y = eys[i]
t = ets[i]
# print y
dc.SetPen(wx.Pen(self.lineColours[e["EventName"]]))
dc.SetTextForeground(self.lineColours[e["EventName"]])
if (y < (lastLineY + 2) or (numSkipped > 0 and y < (lastLineY + 1.2 * textHeight))) and dys[i] < (
1.2 * textHeight + 2 * numSkipped
): # no room - skip
if ((tTickPositions - y) ** 2).min() < (0.3 * textHeight) ** 2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2 * hpadding, y, x1 - 2 * (1 + 1 * numSkipped), y)
else:
dc.DrawLine(x0, y, x1 - 2 * (1 + 1 * numSkipped), y)
dc.DrawLine(
x1 - 2 * (1 + 1 * numSkipped),
y,
x1 - 2 * (1 + 1 * numSkipped),
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
)
dc.DrawLine(
x1 - 2 * (1 + 1 * numSkipped),
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
x3 + 200,
lastEvY + 0.5 * textHeight + 1 + 2 * numSkipped,
)
numSkipped += 1
lastLineY += 2
else:
if ((tTickPositions - y) ** 2).min() < (0.3 * textHeight) ** 2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2 * hpadding, y, x1 - 2 * (1 + 1 * numSkipped), y)
else:
dc.DrawLine(x0, y, x1 - 2 * (1 + 1 * numSkipped), y)
if y < (lastLineY + 1.2 * textHeight):
dc.DrawLine(
x1 - 2 * (1 + 1 * numSkipped), y, x1 - 2 * (1 + 1 * numSkipped), lastLineY + 1.2 * textHeight
)
y = lastLineY + 1.2 * textHeight
dc.DrawLine(x1 - 2 * (1 + 1 * numSkipped), y, x2, y)
eventText = "%6.2fs\t" % t + "%(EventName)s\t%(EventDescr)s" % e
etw = dc.GetTextExtent(eventText)[0]
etwMax = self.Size[0] - (x3 + 2 * hpadding + 80 * len(self.charts))
if etw > etwMax:
newLen = int((float(etwMax) / etw) * len(eventText))
eventText = eventText[: (newLen - 4)] + " ..."
eventTextWidth = max(eventTextWidth, dc.GetTextExtent(eventText)[0])
dc.DrawText(eventText, x3, y - 0.5 * textHeight)
lastEvY = y
lastLineY = y
numSkipped = 0
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.BLACK_PEN)
x4 = x3 + eventTextWidth + 2 * hpadding
chartWidth = (self.Size[0] - x4) / max(len(self.charts), 1) - 2 * hpadding
for c in self.charts:
cname = c[0]
cmapping = c[1]
sourceEv = c[2]
dc.SetTextForeground(self.lineColours[sourceEv])
dc.DrawText(cname, x4 + chartWidth / 2 - dc.GetTextExtent(cname)[0] / 2, 0)
xv = np.array([max(minF, 0)] + [x for x in cmapping.xvals if x > minF and x < maxF] + [maxF])
vv = cmapping(xv)
vmin = vv.min()
vmax = vv.max()
ml = dc.GetTextExtent("%3.2f" % vmin)[0] / 2
mr = dc.GetTextExtent("%3.2f" % vmax)[0] / 2
chartWidthInternal = chartWidth - ml - mr
if vmax == vmin:
vsc = 0
else:
vsc = chartWidthInternal / float(vmax - vmin)
dc.DrawText("%3.2f" % vmin, x4, 1 * textHeight)
dc.DrawText("%3.2f" % vmax, x4 + chartWidth - 2 * mr, 1 * textHeight)
dc.SetPen(wx.BLACK_PEN)
dc.DrawLine(x4 + ml, 2 * textHeight, x4 + ml, 2 * textHeight + tickSize)
dc.DrawLine(x4 + chartWidth - mr, 2 * textHeight, x4 + chartWidth - mr, 2 * textHeight + tickSize)
# dc.SetPen(wx.Pen(wx.BLUE, 2))
dc.SetPen(wx.Pen(self.lineColours[sourceEv], 2))
xvt = framesToTime(xv, self.eventSource, self.metaData) - self.startTime
x_0 = xvt[0]
v_0 = vv[0]
yp_ = (x_0 - minT) * pixPerS + 2 * textHeight
xp_ = x4 + ml + (v_0 - vmin) * vsc
for x, v in zip(xvt[1:-1], vv[1:-1]):
yp = (x - minT) * pixPerS + 2 * textHeight
xp = x4 + ml + (v - vmin) * vsc
dc.DrawLine(xp_, yp_, xp_, yp)
dc.DrawLine(xp_, yp, xp, yp)
xp_ = xp
yp_ = yp
yp = (xvt[-1] - minT) * pixPerS + 2 * textHeight
xp = x4 + ml + (vv[-1] - vmin) * vsc
dc.DrawLine(xp_, yp_, xp_, yp)
x4 = x4 + chartWidth + hpadding
# pm = piecewiseMapping.GeneratePMFromEventList(elv.eventSource, md.Camera.CycleTime*1e-3, md.StartTime, md.Protocol.PiezoStartPos)
# if self.dragging == 'upper':
# dc.SetPen(wx.Pen(wx.GREEN, 2))
# else:
# dc.SetPen(wx.Pen(wx.RED, 2))
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.NullPen)
dc.SetBrush(wx.NullBrush)
dc.SetFont(wx.NullFont)
def DoPaint(self, dc):
dc.Clear()
hpadding = 10
barWidth = 20
tickSize = 5
lastEvY = 0
eventTextWidth = 100
dc.SetFont(wx.NORMAL_FONT)
textHeight = dc.GetTextExtent('test')[1]
self.textHeight = textHeight
frameLabelSize = max(dc.GetTextExtent('%3.4g' % self.frameRange[1])[0], dc.GetTextExtent('N')[0])
tPerFrame = self.metaData.getEntry('Camera.CycleTime')
#maxT = tPerFrame*self.frameRange[1]
maxT = framesToTime(self.frameRange[1], self.eventSource, self.metaData) - self.startTime
#minT = tPerFrame*self.frameRange[0]
minT = framesToTime(self.frameRange[0], self.eventSource, self.metaData) - self.startTime
timeLabelSize = max(dc.GetTextExtent('%3.4g' % maxT)[0], dc.GetTextExtent('[s]' % maxT)[0])
#labels
dc.DrawText('N', hpadding + frameLabelSize/2 - dc.GetTextExtent('N')[0]/2, 0)
dc.DrawText('[s]', frameLabelSize + 3*hpadding + barWidth + timeLabelSize/2 - dc.GetTextExtent('[s]')[0]/2 , 0)
#dc.SetFont(wx.NORMAL_FONT)
#bar
#dc.SetPen(wx.GREEN_PEN)
dc.SetBrush(wx.MEDIUM_GREY_BRUSH)
x0 = frameLabelSize + 2*hpadding
y0 = 2*textHeight
dc.DrawRectangle(x0, y0, barWidth, self.Size[1] - 3*textHeight)
if self.frameRange[0] > self.maxRange[0]:
pl = [(x0 + 2,y0 - 3), (x0 + barWidth/2, y0 - barWidth/2 - 1), (x0 + barWidth - 2, y0 - 3)]
dc.DrawPolygon(pl)
if self.frameRange[1] < self.maxRange[1]:
y0 = y0 + self.Size[1] - 3*textHeight
pl = [(x0 + 2,y0 + 2), (x0 + barWidth/2, y0 + barWidth/2), (x0 + barWidth - 2, y0 + 2)]
dc.DrawPolygon(pl)
#ticks
dc.SetPen(wx.BLACK_PEN)
##frame # ticks
nFrames = self.frameRange[1] - self.frameRange[0]
pixPerFrame = float(self.Size[1] - 3*textHeight)/nFrames
pixPerS = pixPerFrame/tPerFrame
self.pixPerFrame = pixPerFrame
nTicksTarget = self.Size[1]/(7.5*textHeight)
tickSpacing = nFrames/nTicksTarget
#round to 1sf
tickSpacing = round(tickSpacing/(10**np.floor(np.log10(tickSpacing))))*(10**np.floor(np.log10(tickSpacing)))
tickStart = np.ceil(self.frameRange[0]/tickSpacing)*tickSpacing
ticks = np.arange(tickStart, self.frameRange[1]+.01, tickSpacing)
tickTimes = framesToTime(ticks, self.eventSource, self.metaData) - self.startTime
for t, tt in zip(ticks, tickTimes):
#y = (t -self.frameRange[0])*pixPerFrame + 2*textHeight
y = (tt -minT)*pixPerS + 2*textHeight
dc.DrawText('%3.4g' % t, hpadding, y - 0.5*textHeight)
dc.DrawLine(frameLabelSize + 2*hpadding - tickSize, y, frameLabelSize + 2*hpadding, y)
# #### Time # ticks
tickSpacingTime = tPerFrame * tickSpacing
#round to 1sf
tickSpacingTime = round(tickSpacingTime/(10**np.floor(np.log10(tickSpacingTime))))*(10**np.floor(np.log10(tickSpacingTime)))
tickStartTime = np.ceil(minT/tickSpacingTime)*tickSpacingTime
ticks = np.arange(tickStartTime, maxT+.0001, tickSpacingTime)
#
# #print minT, maxT, tickSpacingTime
#
for t in ticks:
y = (t -minT)*pixPerS + 2*textHeight
dc.DrawText('%2.4g' % t, frameLabelSize + 3*hpadding + barWidth, y - 0.5*textHeight)
dc.DrawLine(frameLabelSize + 2*hpadding + barWidth, y, frameLabelSize + 2*hpadding + barWidth + tickSize, y)
tTickPositions = (ticks -minT)*pixPerS + 2*textHeight
startT = self.metaData.getEntry('StartTime')
x0 = frameLabelSize + 2*hpadding
x1 = x0 + 3*hpadding + barWidth + timeLabelSize
x2 = x1 + hpadding
x3 = x2 + hpadding
numSkipped = 0
for e in self.eventSource:
t = e['Time'] - startT
if t > minT and t < maxT:
y = (t -minT)*pixPerS + 2*textHeight
dc.SetPen(wx.Pen(self.lineColours[e['EventName']]))
dc.SetTextForeground(self.lineColours[e['EventName']])
if y < (lastEvY + 2) or (numSkipped > 0 and y < (lastEvY + 1.2*textHeight)): #no room - skip
if ((tTickPositions - y)**2).min() < (0.3*textHeight)**2:
#line will occlude time text, draw as two segments
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2*hpadding, y, x1 - 2*(1 + 1*numSkipped), y)
else:
dc.DrawLine(x0, y, x1 - 2*(1 + 1*numSkipped), y)
dc.DrawLine(x1- 2*(1 + 1*numSkipped), y, x1- 2*(1 + 1*numSkipped), lastEvY + 0.5*textHeight + 1 + 2*numSkipped)
dc.DrawLine(x1- 2*(1 + 1*numSkipped),lastEvY + 0.5*textHeight + 1 + 2*numSkipped, x3 + 200, lastEvY+ 0.5*textHeight + 1 + 2*numSkipped)
numSkipped +=1
else: #Don't skip - draw nomally
if ((tTickPositions - y)**2).min() < (0.3*textHeight)**2:
#line will occlude time text, draw as two segments
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2*hpadding, y, x1, y)
else:
dc.DrawLine(x0, y, x1, y)
if y < (lastEvY + 1.2*textHeight):
#label will overlap with previous - move down
dc.DrawLine(x1, y, x1, lastEvY + 1.2*textHeight)
y = lastEvY + 1.2*textHeight
dc.DrawLine(x1, y, x2, y)
eventText = '%6.2fs\t' % t + '%(EventName)s\t%(EventDescr)s' % e
etw = dc.GetTextExtent(eventText)[0]
etwMax = self.Size[0] - (x3 + 2*hpadding + 80*len(self.charts))
if etw > etwMax:
newLen = int((float(etwMax)/etw)*len(eventText))
eventText = eventText[:(newLen - 4)] + ' ...'
eventTextWidth = max(eventTextWidth, dc.GetTextExtent(eventText)[0])
dc.DrawText(eventText, x3, y - 0.5*textHeight)
lastEvY = y
numSkipped = 0
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.BLACK_PEN)
x4 = x3 + eventTextWidth + 2*hpadding
chartWidth = (self.Size[0] - x4)/max(len(self.charts), 1) - 2*hpadding
for c in self.charts:
cname = c[0]
cmapping = c[1]
sourceEv = c[2]
dc.SetTextForeground(self.lineColours[sourceEv])
dc.DrawText(cname, x4 + chartWidth/2 - dc.GetTextExtent(cname)[0]/2, 0)
xv = np.array([self.frameRange[0],] + [x for x in cmapping.xvals if x > self.frameRange[0] and x < self.frameRange[1]] + [self.frameRange[1],])
vv = cmapping(xv)
vmin = vv.min()
vmax = vv.max()
if vmax == vmin:
vsc = 0
else:
vsc = chartWidth/float(vmax - vmin)
dc.DrawText('%3.2f'% vmin, x4 - dc.GetTextExtent('%3.2f'% vmin)[0]/2, 1*textHeight)
dc.DrawText('%3.2f'% vmax, x4 + chartWidth - dc.GetTextExtent('%3.2f'% vmax)[0]/2, 1*textHeight)
dc.SetPen(wx.BLACK_PEN)
dc.DrawLine(x4, 2*textHeight, x4, 2*textHeight + tickSize)
dc.DrawLine(x4 + chartWidth, 2*textHeight, x4 + chartWidth, 2*textHeight + tickSize)
#dc.SetPen(wx.Pen(wx.BLUE, 2))
dc.SetPen(wx.Pen(self.lineColours[sourceEv],2))
x_0 = xv[0]
v_0 = vv[0]
yp_ = (x_0 -self.frameRange[0])*pixPerFrame + 2*textHeight
xp_ = x4 + (v_0 - vmin)*vsc
for x,v in zip(xv[1:-1], vv[1:-1]):
yp = (x -self.frameRange[0])*pixPerFrame + 2*textHeight
xp = x4 + (v - vmin)*vsc
dc.DrawLine(xp_, yp_, xp_, yp)
dc.DrawLine(xp_, yp, xp, yp)
xp_ = xp
yp_ = yp
yp = (xv[-1] -self.frameRange[0])*pixPerFrame + 2*textHeight
xp = x4 + (vv[-1] - vmin)*vsc
dc.DrawLine(xp_, yp_, xp_, yp)
x4 = x4 + chartWidth + hpadding
#pm = piecewiseMapping.GeneratePMFromEventList(elv.eventSource, md.Camera.CycleTime*1e-3, md.StartTime, md.Protocol.PiezoStartPos)
# if self.dragging == 'upper':
# dc.SetPen(wx.Pen(wx.GREEN, 2))
# else:
# dc.SetPen(wx.Pen(wx.RED, 2))
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.NullPen)
dc.SetBrush(wx.NullBrush)
dc.SetFont(wx.NullFont)
def DoPaint(self, dc):
dc.Clear()
hpadding = 10
barWidth = 20
tickSize = 5
lastEvY = 0
eventTextWidth = 100
dc.SetFont(wx.NORMAL_FONT)
textHeight = dc.GetTextExtent('test')[1]
self.textHeight = textHeight
timeLabelSize = max(dc.GetTextExtent('%3.4g' % self.timeRange[1])[0], dc.GetTextExtent('N')[0])
#tPerFrame = self.metaData.getEntry('Camera.CycleTime')
minT, maxT = self.timeRange
pixPerS = float(self.Size[1] - 3*textHeight)/(maxT - minT)
self.pixPerS = pixPerS
maxF = timeToFrames(maxT+ self.startTime, self.eventSource, self.metaData) #- self.startTime
minF = timeToFrames(minT+ self.startTime, self.eventSource, self.metaData) #- self.startTime
#print minF, maxF
if (maxF < minF) < 30: #show when camera was actually recording
fTimes = framesToTime(np.arange(minF, maxF + .1), self.eventSource, self.metaData) - self.startTime
tPerFrame = self.metaData.getEntry('Camera.CycleTime')
old_pen = dc.GetPen()
dc.SetPen(wx.TRANSPARENT_PEN)
dc.SetBrush(wx.TheBrushList.FindOrCreateBrush(wx.Colour(220, 255, 200)))
for ft in fTimes:
y0 = (ft -minT)*pixPerS + 2*textHeight
bh = tPerFrame*pixPerS
dc.DrawRectangle(0, y0, self.Size[0], bh)
dc.SetPen(old_pen)
frameLabelSize = max(dc.GetTextExtent('%3.4g' % maxF)[0], dc.GetTextExtent('[s]' % maxF)[0])
#labels
dc.DrawText('N', hpadding + frameLabelSize/2 - dc.GetTextExtent('N')[0]/2, 0)
dc.DrawText('[s]', frameLabelSize + 3*hpadding + barWidth + timeLabelSize/2 - dc.GetTextExtent('[s]')[0]/2 , 0)
dc.SetBrush(wx.MEDIUM_GREY_BRUSH)
x0 = frameLabelSize + 2*hpadding
y0 = 2*textHeight
dc.DrawRectangle(x0, y0, barWidth, self.Size[1] - 3*textHeight)
if self.timeRange[0] > self.maxRange[0]:
pl = [(x0 + 2,y0 - 3), (x0 + barWidth/2, y0 - barWidth/2 - 1), (x0 + barWidth - 2, y0 - 3)]
dc.DrawPolygon(pl)
if self.timeRange[1] < self.maxRange[1]:
y0 = y0 + self.Size[1] - 3*textHeight
pl = [(x0 + 2,y0 + 2), (x0 + barWidth/2, y0 + barWidth/2), (x0 + barWidth - 2, y0 + 2)]
dc.DrawPolygon(pl)
#ticks
dc.SetPen(wx.BLACK_PEN)
##frame # ticks
nFrames = maxF - minF
#pixPerS = pixPerFrame/tPerFrame
#self.pixPerFrame = pixPerFrame
nTicksTarget = self.Size[1]/(5.5*textHeight)
tickSpacing = max(np.floor(nFrames/nTicksTarget), 1)
#round to 1sf
#tickSpacing = round(tickSpacing/(10**np.floor(np.log10(tickSpacing))))*(10**np.floor(np.log10(tickSpacing)))
tickStart = np.ceil(minF/tickSpacing)*tickSpacing
#print(tickStart, maxF+.01, tickSpacing)
ticks = np.arange(tickStart, maxF+.01, tickSpacing)
tickTimes = framesToTime(ticks, self.eventSource, self.metaData) - self.startTime
#print minT, maxT,nFrames, nTicksTarget, tickStart, tickSpacing
for t, tt in zip(ticks, tickTimes):
#y = (t -self.frameRange[0])*pixPerFrame + 2*textHeight
y = (tt -minT)*pixPerS + 2*textHeight
#print t, hpadding, y - 0.5*textHeight
dc.DrawText('%3.4g' % t, hpadding, y - 0.5*textHeight)
dc.DrawLine(frameLabelSize + 2*hpadding - tickSize, y, frameLabelSize + 2*hpadding, y)
# #### Time # ticks
tickSpacingTime = (maxT - minT)/nTicksTarget
#round to 1sf
tickSpacingTime = round(tickSpacingTime/(10**np.floor(np.log10(tickSpacingTime))))*(10**np.floor(np.log10(tickSpacingTime)))
tickStartTime = np.ceil(minT/tickSpacingTime)*tickSpacingTime
ticks = np.arange(tickStartTime, maxT+.0001, tickSpacingTime)
#
#print minT, maxT, tickSpacingTime
#
for t in ticks:
y = (t -minT)*pixPerS + 2*textHeight
dc.DrawText('%2.4g' % t, frameLabelSize + 3*hpadding + barWidth, y - 0.5*textHeight)
dc.DrawLine(frameLabelSize + 2*hpadding + barWidth, y, frameLabelSize + 2*hpadding + barWidth + tickSize, y)
tTickPositions = (ticks -minT)*pixPerS + 2*textHeight
startT = self.metaData.getEntry('StartTime')
x0 = frameLabelSize + 2*hpadding
x1 = x0 + 3*hpadding + barWidth + timeLabelSize
x2 = x1 + hpadding
x3 = x2 + hpadding
numSkipped = 0
evts = self.eventSource[(self.eventSource['Time'] > (minT + self.startTime))*(self.eventSource['Time'] < (maxT + self.startTime))]
ets = evts['Time'] - self.startTime
eys = (ets -minT)*pixPerS + 2*textHeight
dys = np.hstack([np.diff(eys), [100]])
#special hack for co-incident events
for i in range(len(dys)):
if dys[i] == 0:
j = i+1
while dys[j] == 0: #find the next non-zero step
j += 1
if dys[j] > 1.2*textHeight: #we have room to expand
dys[i] += 1.2*textHeight
dys[j] -= 1.2*textHeight
lastLineY = 0
for i, e in enumerate(evts):
y = eys[i]
t = ets[i]
#print y
dc.SetPen(wx.Pen(self.lineColours[e['EventName']]))
dc.SetTextForeground(self.lineColours[e['EventName']])
if (y < (lastLineY + 2) or (numSkipped > 0 and y < (lastLineY + 1.2*textHeight))) and dys[i] < (1.2*textHeight + 2*numSkipped): #no room - skip
if ((tTickPositions - y)**2).min() < (0.3*textHeight)**2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2*hpadding, y, x1 - 2*(1 + 1*numSkipped), y)
else:
dc.DrawLine(x0, y, x1 - 2*(1 + 1*numSkipped), y)
dc.DrawLine(x1- 2*(1 + 1*numSkipped), y, x1- 2*(1 + 1*numSkipped), lastEvY + 0.5*textHeight + 1 + 2*numSkipped)
dc.DrawLine(x1- 2*(1 + 1*numSkipped),lastEvY + 0.5*textHeight + 1 + 2*numSkipped, x3 + 200, lastEvY+ 0.5*textHeight + 1 + 2*numSkipped)
numSkipped +=1
lastLineY += 2
else:
if ((tTickPositions - y)**2).min() < (0.3*textHeight)**2:
dc.DrawLine(x0, y, x0 + barWidth, y)
dc.DrawLine(x1 - 2*hpadding, y, x1- 2*(1 + 1*numSkipped), y)
else:
dc.DrawLine(x0, y, x1- 2*(1 + 1*numSkipped), y)
if y < (lastLineY + 1.2*textHeight):
dc.DrawLine(x1- 2*(1 + 1*numSkipped), y, x1- 2*(1 + 1*numSkipped), lastLineY + 1.2*textHeight)
y = lastLineY + 1.2*textHeight
dc.DrawLine(x1- 2*(1 + 1*numSkipped), y, x2, y)
eventText = '%6.2fs\t' % t + '%(EventName)s\t%(EventDescr)s' % e
etw = dc.GetTextExtent(eventText)[0]
etwMax = self.Size[0] - (x3 + 2*hpadding + 80*len(self.charts))
if etw > etwMax:
newLen = int((float(etwMax)/etw)*len(eventText))
eventText = eventText[:(newLen - 4)] + ' ...'
eventTextWidth = max(eventTextWidth, dc.GetTextExtent(eventText)[0])
dc.DrawText(eventText, x3, y - 0.5*textHeight)
lastEvY = y
lastLineY = y
numSkipped = 0
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.BLACK_PEN)
x4 = x3 + eventTextWidth + 2*hpadding
chartWidth = (self.Size[0] - x4)/max(len(self.charts), 1) - 2*hpadding
for c in self.charts:
cname = c[0]
cmapping = c[1]
sourceEv = c[2]
dc.SetTextForeground(self.lineColours[sourceEv])
dc.DrawText(cname, x4 + chartWidth/2 - dc.GetTextExtent(cname)[0]/2, 0)
xv = np.array([max(minF, 0),] + [x for x in cmapping.xvals if x > minF and x < maxF] + [maxF,])
vv = cmapping(xv)
vmin = vv.min()
vmax = vv.max()
ml = dc.GetTextExtent('%3.2f'% vmin)[0]/2
mr = dc.GetTextExtent('%3.2f'% vmax)[0]/2
chartWidthInternal = chartWidth - ml - mr
if vmax == vmin:
vsc = 0
else:
vsc = chartWidthInternal/float(vmax - vmin)
dc.DrawText('%3.2f'% vmin, x4 , 1*textHeight)
dc.DrawText('%3.2f'% vmax, x4 + chartWidth - 2*mr, 1*textHeight)
dc.SetPen(wx.BLACK_PEN)
dc.DrawLine(x4 + ml, 2*textHeight, x4 + ml, 2*textHeight + tickSize)
dc.DrawLine(x4 + chartWidth - mr, 2*textHeight, x4 + chartWidth - mr, 2*textHeight + tickSize)
#dc.SetPen(wx.Pen(wx.BLUE, 2))
dc.SetPen(wx.Pen(self.lineColours[sourceEv],2))
xvt = framesToTime(xv, self.eventSource, self.metaData) - self.startTime
#print xv,xvt, vv
x_0 = xvt[0]
v_0 = vv[0]
yp_ = (x_0 -minT)*pixPerS + 2*textHeight
xp_ = x4 + ml + (v_0 - vmin)*vsc
for x,v in zip(xvt[1:-1], vv[1:-1]):
yp = (x -minT)*pixPerS + 2*textHeight
xp = x4 + ml + (v - vmin)*vsc
dc.DrawLine(xp_, yp_, xp_, yp)
dc.DrawLine(xp_, yp, xp, yp)
xp_ = xp
yp_ = yp
yp = (xvt[-1] -minT)*pixPerS + 2*textHeight
xp = x4 + ml + (vv[-1] - vmin)*vsc
dc.DrawLine(xp_, yp_, xp_, yp)
x4 = x4 + chartWidth + hpadding
#pm = piecewiseMapping.GeneratePMFromEventList(elv.eventSource, md.Camera.CycleTime*1e-3, md.StartTime, md.Protocol.PiezoStartPos)
# if self.dragging == 'upper':
# dc.SetPen(wx.Pen(wx.GREEN, 2))
# else:
# dc.SetPen(wx.Pen(wx.RED, 2))
dc.SetTextForeground(wx.BLACK)
dc.SetPen(wx.NullPen)
dc.SetBrush(wx.NullBrush)
dc.SetFont(wx.NullFont)