def pixmap_to_bytes(pixmap):
"""Converts a pixmap to a byte array for easy comparisons"""
array = QByteArray()
buffer = QBuffer(array)
buffer.open(QIODevice.WriteOnly)
pixmap.save(buffer, "PNG")
return array
def load_finished(self, state):
pixmap = self.engine.grab()
self.image = QByteArray()
buf = QBuffer(self.image)
buf.open(QIODevice.WriteOnly)
pixmap.save(buf, "PNG")
buf.close()
self.quit()
def testWrite(self):
text = 'foobar'
doc = QTextDocument(text)
b = QBuffer()
b.open(QBuffer.ReadWrite)
writer = QTextDocumentWriter(b, "plaintext")
writer.write(doc)
b.close()
self.assertEqual(b.buffer(), text)
def encode_image(image: QImage) -> str:
image_bytes = QByteArray()
buffer = QBuffer(image_bytes)
buffer.open(QIODevice.WriteOnly)
# writes pixmap into bytes in PNG format
image.save(buffer, "PNG") # type: ignore
encoded_bytes = image_bytes.toBase64()
codec = QTextCodec.codecForName(b"UTF-8")
encoded_string = codec.toUnicode(encoded_bytes)
return encoded_string
def readImageQR(self, image):
buffer = QBuffer()
buffer.open(QBuffer.ReadWrite)
image.save(buffer, "BMP")
pillow_image = Image.open(io.BytesIO(buffer.data()))
barcodes = pyzbar.decode(pillow_image,
symbols=[pyzbar.ZBarSymbol.QRCODE])
if barcodes:
self.qr_data_available.emit(barcodes[0].data.decode('utf-8'))
return True
else:
return False
def from_scene(cls, scene):
buffer = QBuffer()
generator = QSvgGenerator()
generator.setOutputDevice(buffer)
scene_rect = scene.sceneRect()
generator.setViewBox(scene_rect)
painter = QPainter(generator)
scene.render(painter, scene_rect, scene_rect)
painter.end()
buffer.open(QBuffer.ReadOnly)
renderer = cls(buffer.readAll())
buffer.close()
renderer.scene = scene
return renderer
def mousePressEvent(self, event):
super(SnapWindow, self).mousePressEvent(event)
if event.button() == QtCore.Qt.MouseButton.LeftButton:
self.scale_ratio()
self.QDrag = QDrag(self)
self.QMimeData = QMimeData()
self.imgdata = QByteArray()
imgbuffer = QBuffer(self.imgdata)
imgbuffer.open(QIODevice.WriteOnly)
self.original_snap.save(imgbuffer, "PNG")
self.QMimeData.setImageData(self.imgdata)
self.QMimeData.setData("image/png", self.imgdata)
self.QDrag.setMimeData(self.QMimeData)
self.QDrag.setPixmap(self.dragicon)
dropaction = self.QDrag.exec_(Qt.CopyAction)
def qpixmap_to_np(im: QPixmap) -> np.ndarray:
# from PIL.ImageQt.fromqimage
buffer = QBuffer()
buffer.open(QIODevice.ReadWrite)
if im.hasAlphaChannel():
im.save(buffer, "png")
else:
im.save(buffer, "ppm")
npbuf = np.frombuffer(buffer.data(), "<B")
buffer.close()
out = cv2.imdecode(npbuf, cv2.IMREAD_UNCHANGED)
if out.shape[2] == 3:
# Add alpha channel
out = np.pad(out, ((0, 0), (0, 0), (0, 1)), constant_values=0xFF)
return out
def prnt(self, screenShot: QPixmap):
buffer = QBuffer()
buffer.open(QBuffer.ReadWrite)
screenShot.save(buffer, 'png')
data = buffer.data().data()
res = self.client.basicGeneral(data)
if 'words_result_num' in res.keys():
print('[ INFO ] 识别成功')
text = ''
result = res['words_result']
d = {
'单选题': self.ui.rad_1,
'多选题': self.ui.rad_2,
'填空题': self.ui.rad_3,
'问答题': self.ui.rad_4,
'判断题': self.ui.rad_14,
'分析题': self.ui.rad_5,
'解答题': self.ui.rad_5,
'计算题': self.ui.rad_5,
'证明题': self.ui.rad_5,
}
for words in result:
ques_type = False
for k in d.keys():
if k in words['words']:
ques_type = True
print('[ INFO ] 题目类型:', k)
d[k].setChecked(True)
d[k].repaint()
break
if not ques_type:
text += words['words']
text = text.replace('(', '（').replace(')', '）').replace(
'?', '？').replace(',', '，')
print('[ INFO ] 题目:', text)
self.ui.questLineEdit.setText(text)
self.ui.questLineEdit.repaint()
self.ui.searchButton.click()
else:
print('[ INFO ] 识别失败')
def _create_tooltip(self, anchor: str) -> str:
path = Path(anchor)
suffix = path.suffix
if suffix in ('.txt', '.py', '.html', '.xml'):
data = self._read_file(path)
if data:
file_buf = data.decode('utf-8')
if suffix == '.html':
return file_buf
else:
return f'<pre>{file_buf}</pre>'
elif suffix in ('.png', '.jpg'):
image = self._read_image(path)
if image:
buffer = QBuffer()
buffer.open(QIODevice.WriteOnly)
pixmap = QPixmap.fromImage(image)
pixmap.save(buffer, "PNG")
data = bytes(buffer.data().toBase64()).decode()
return f'<img src="data:image/png;base64,{data}">'
return f'<p>{anchor}</p>'
def show_qr_code(self):
buffer_png = QBuffer()
buffer_png.open(QIODevice.ReadWrite)
self.text = self.le_qr_code.text()
self.fg_color = self.btn_fg.palette().button().color().name()
self.bg_color = self.btn_bg.palette().button().color().name()
self.scale = self.sb_scale.value()
qrcode = pyqrcode.create(self.text)
qrcode.png(file=buffer_png,
scale=self.scale,
module_color=self.fg_color,
background=self.bg_color)
pixmap_png = QPixmap()
pixmap_png.loadFromData(buffer_png.buffer())
self.lb_qr_img_info.setText(
f'QR Code com {pixmap_png.width()}x{pixmap_png.height()}')
self.lb_qr_img.setPixmap(pixmap_png)
buffer_png.close()
self.btn_save_qr.setEnabled(True)
def save_library(self):
global pc_lib
global pc_ui
directory, ext = QtWidgets.QFileDialog.getSaveFileName(
self, 'Save Files', os.path.dirname(__file__),
"Pose Library(*.poslib)", '*.poslib')
if directory is not '':
for entry in pc_lib:
# Convert Pixmap to Byte Array
byte_array = QByteArray()
buffer = QBuffer(byte_array)
buffer.open(QIODevice.WriteOnly)
entry["preview"].save(buffer, 'PNG')
encoded = buffer.data().toBase64()
entry["preview"] = encoded.data().decode("utf8")
# Write data to file
f = open(directory, "w")
f.write(json.dumps(pc_lib))
f.close()
# Reload the pose libary
load_library(directory)
def plot_dataset(dataset, color_map, scale_labels):
# Only generate the brush once for each unique value
lookup_table = {
x: pg.mkBrush(color_map.map(x))
for x in numpy.unique(dataset)
}
brushes = [lookup_table[x] for x in dataset.data]
scale_widget.setGradient(color_map.getGradient())
scale_widget.setLabels(scale_labels)
# Generate Plot
plot = plot_item.plot(data_x,
data_y,
pen=None,
symbolPen=None,
symbolBrush=brushes,
pxMode=False,
symbolSize=scale_factors,
symbol=pixel_paths)
plot_item.getViewWidget().parent().grab()
volcview_img = plot_item.getViewWidget().parent().grab()
self._view_extents = vbox.viewRange()
file_bytes = QByteArray()
file_buffer = QBuffer(file_bytes)
file_buffer.open(QIODevice.WriteOnly)
volcview_img.save(file_buffer, "PNG")
file_buffer.close()
file_stream = BytesIO(file_bytes)
pil_img = Image.open(file_stream)
# find coverage percent(ish)
width, height = pil_img.size
total_count = width * height # Should be 800,000, unless we changed the size of the images.
# dump into a numpy array to count grey pixels
as_array = numpy.array(pil_img)
# the grey value we use is 238, so if all elements of axis 2 are 238,
# then the pixel is grey.
is_grey = numpy.all(as_array == 238, axis=2)
# number that is False is non-grey, or covered, pixels
# Not quite true due to scale bar, borders, etc.
unique, counts = numpy.unique(is_grey, return_counts=True)
non_grey = dict(zip(unique, counts))[False]
covered_percent = non_grey / total_count
# Don't send the image to volcview unless it has at least 15% coverage.
# Allow 2% for the scale bar and other features.
threshold = .17
if sector['pixelSize'] == 5:
threshold = .06
if covered_percent > threshold:
self._add_coastlines(pil_img)
raw_data = QByteArray()
buffer = QBuffer(raw_data)
if not gen_cloud and not self._data_type in ('VIIRS'):
# "Save" the percentile bar to a bytes buffer, in PNG format
buffer.open(QIODevice.WriteOnly)
_percentContainer.grab().save(buffer, "PNG")
buffer.close()
# Use a bytes IO object to "read" the image into a PIL object
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
pil_img.paste(img, (5, 5), mask=img)
# Add the scale bar and timestamp.
scale_top = pil_img.height
buffer.open(QIODevice.WriteOnly)
scale_widget.grab() # why? WHYYYYYYYY????
scale_widget.grab().save(buffer, "PNG")
buffer.close()
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
scale_top = pil_img.height - img.height - 10
pil_img.paste(img, (25, scale_top), mask=img)
# Add the timestamp
buffer.open(QIODevice.WriteOnly)
date_label.grab().save(buffer, "PNG")
buffer.close()
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
pil_img.paste(img, (pil_img.width - img.width - 51,
scale_top - img.height - 5),
mask=img)
# Save an archive image
logging.debug("Saving archive image for %s", band)
filename = f"{self._file_date.strftime('%Y_%m_%d_%H%M%S')}-{band}-{self._data_type}.png"
save_file = os.path.join(config.FILE_BASE, 'VolcView',
sector['name'], filename)
os.makedirs(os.path.dirname(save_file), exist_ok=True)
pil_img.save(save_file, format='PNG')
file_stream = BytesIO()
# "Save" the image to memory in PNG format
pil_img.save(file_stream, format='PNG')
file_stream.seek(0) # Go back to the begining for reading out
logging.debug("Uploading image for %s", band)
if not DEBUG:
self._volcview_upload(file_stream, sector, band)
else:
logging.debug("******Pretending to send to volc view")
print("TEST UPLOAD", sector['name'], filename, "***200***")
logging.debug("Image upload complete")
if DEBUG:
# This is just Debugging code to save the generated
# image to disk for local analysis.
# Feel free to change file paths to something more
# appropriate if desired.
print(f"^^^^SAVING IMAGE FOR FILE TO DISK^^^")
dest_dir = f"/tmp/VolcViewImages/{sector['sector']}"
os.makedirs(dest_dir, exist_ok=True)
dest_file = f"{self._data_type}-{band}-{self._file_date.strftime('%Y_%m_%d_%H%M%S')}.png"
dest_path = os.path.join(dest_dir, dest_file)
file_stream.seek(0)
with open(dest_path, 'wb') as f:
f.write(file_stream.read())
###################
else:
logging.info("Not enough coverage to bother with")
plot_item.removeItem(plot)
class MainWindow(QMainWindow):
def __init__(self):
super().__init__()
self.buffer = QBuffer()
self.buffer.open(QBuffer.ReadWrite)
self.setupUI()
self.model = QModel(self)
self.model.start()
""" USER INTERFACE SETUP """
def setupUI(self):
# WINDOW SETUP
self.setWindowTitle("Keras.QuickDraw")
self.setMinimumSize(QSize(800, 600))
self.setFixedSize(QSize(800, 600))
self.setWindowIcon(QIcon("favicon.ico"))
# INITIALIZE: WINDOW CENTRAL
self.widget_central = QWidget(self)
self.widget_central.setObjectName("Window Central")
self.widget_central.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Expanding)
self.layout_central = QBoxLayout(QBoxLayout.TopToBottom, self.widget_central)
self.setCentralWidget(self.widget_central)
# INITIALIZE: CENTRAL HEADER
self.widget_header = QWidget(self.widget_central)
self.widget_header.setObjectName("Widget Header")
self.widget_header.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Fixed)
self.widget_header_indicater = QLabel(parent = self.widget_header)
self.widget_header_caption = QLabel("(TARGET)", self.widget_header)
self.widget_header_counter = QLabel(parent = self.widget_header)
self.layout_header = QBoxLayout(QBoxLayout.LeftToRight, self.widget_header)
self.layout_header.addWidget(self.widget_header_indicater, 0, Qt.AlignLeft)
self.layout_header.addWidget(self.widget_header_caption , 1, Qt.AlignCenter)
self.layout_header.addWidget(self.widget_header_counter , 0, Qt.AlignRight)
# INITIALIZE: CENTRAL CANVAS
self.widget_canvas = QCanvas(self.widget_central, self)
self.widget_canvas.setObjectName("Widget Canvas")
self.widget_canvas.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Expanding)
# INITIALIZE: CENTRAL BUTTONS
self.widget_footer = QWidget(self.widget_central)
self.widget_footer.setObjectName("Widget Footer")
self.widget_footer.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Fixed)
self.widget_footer_clear = QPushButton("Clear", self.widget_footer)
self.widget_footer_clear.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Expanding)
self.widget_footer_clear.clicked.connect(self.widget_canvas.resetCanvas)
self.widget_footer_undo = QPushButton("Undo", self.widget_footer)
self.widget_footer_undo.setSizePolicy(QSizePolicy.Expanding, QSizePolicy.Expanding)
self.widget_footer_undo.clicked.connect(self.widget_canvas.undoCanvas)
self.layout_footer = QBoxLayout(QBoxLayout.LeftToRight, self.widget_footer)
self.layout_footer.addWidget(self.widget_footer_undo, 0)
self.layout_footer.addWidget(self.widget_footer_clear, 0)
self.layout_footer.setMargin(0)
# LAYOUT: HEADER + CANVAS + FOOTER -> CENTRAL WINDOW CENTRAL
self.layout_central.addWidget(self.widget_header, 0)
self.layout_central.addWidget(self.widget_canvas, 1, Qt.AlignCenter)
self.layout_central.addWidget(self.widget_footer, 0)
self.show()
""" EVENT: SAVING CANVAS (QThread ALTERNATIVE) """
def paintEvent(self, event: QPaintEvent) -> None:
# SCREENSHOT WIDGET OF QPaintDevice, SUCH AS QBITMAP
self.widget_canvas.render(self.widget_canvas.pixmap())
if self.isVisible:
self.buffer.reset()
self.widget_canvas.pixmap().save(self.buffer, "BMP")
return super().paintEvent(event)
""" EVENT: CLOSING MAINWINDOW """
def closeEvent(self, event: QCloseEvent) -> None:
self.model.terminate()
self.model.wait()
self.buffer.close()
return super().closeEvent(event)
class NetworkConnectionClass(QtCore.QObject):
SignalDataRec = Signal(str, int)
SignalFrameDataAvailable = Signal()
def __init__(self, parent=None):
super(NetworkConnectionClass, self).__init__(parent=parent)
#self.CommandSocket = QTcpSocket()
self.CommandSocket = QUdpSocket()
self.CommandSocket.bind(QHostAddress("192.168.100.2"), 2323)
self.CommandSocket.connected.connect(self.EventConnectedHandle)
self.CommandSocket.readyRead.connect(self.RecieveData)
#self.CommandSocket.connectToHost("192.168.100.5",2323,QIODevice.ReadWrite)
#self.CommandSocket.connectToHost("127.0.0.1",2323,QIODevice.ReadWrite)
#self.CommandSocket.connectToHost("192.168.20.196",2323,QIODevice.ReadWrite)
#print("NETWORK - ",self.CommandSocket.localAddress(),self.CommandSocket.peerAddress())
self.Display = WindowNetworkConnection()
self.NetworkDataArray = QByteArray()
self.NetworkDataArray.resize(2000)
self.SignalDataRec.connect(self.Display.PrintData)
self.BufferWrite = QBuffer(self.NetworkDataArray)
self.BufferWrite.open(QBuffer.WriteOnly)
self.BufferRead = QBuffer(self.NetworkDataArray)
self.BufferRead.open(QBuffer.ReadOnly)
self.ReadDataStream = QDataStream(self.BufferRead)
self.ReadDataStream.setByteOrder(QDataStream.LittleEndian)
self.WriteDataStream = QDataStream(self.BufferWrite)
self.WriteDataStream.setByteOrder(QDataStream.LittleEndian)
self.SocketDataStream = QDataStream(self.CommandSocket)
self.SocketDataStream.setByteOrder(QDataStream.LittleEndian)
self.Timer = QTime()
self.Timer.start()
self.BufferRead.seek(0)
self.BufferWrite.seek(0)
self.LimitBufferSize = 2000
self.MinTransferUnit = 7
self.MaxTransferUnit = 18
self.bytesAvailable = 0
self.Display.ui.pushButton.clicked.connect(self.SendData)
#===================================================== WRITE BUFFER
self.SendBuffer = QByteArray()
#=====================================================
# TestMessage = QByteArray(bytearray.fromhex('A1 A2 A3')); TestMessage2 = QByteArray(bytearray.fromhex('A4 A5 A6'))
# self.BufferWriteQueue.write(TestMessage); self.BufferWriteQueue.write(TestMessage2)
# print("BUFFER - ",self.NetworkDataArray)
# self.Message = MessageData()
# self.Message << self.NetworkDataStream << self.NetworkDataStream
def __rshift__(self, Reciever: DataTransferHeader):
Reciever << self.ReadDataStream
self.bytesAvailable -= Reciever.UNIT_SIZE
print("BYTES AVAILABLE - ", self.bytesAvailable)
#print(" REABUFFER POS - ",self.BufferRead.pos(),'BYTES AVAILABLE - ',self.bytesAvailable,"UNIT SIZE -",Reciever.UNIT_SIZE)
#print(" READ UNIT -",Reciever.UNIT_SIZE)
#print(" READ BUFFER POS -",self.BufferRead.pos())
#print(" READ BUFFER -",self.BufferRead.data().toHex())
if not self.BufferRead.pos(
) < self.LimitBufferSize - self.MaxTransferUnit:
self.BufferRead.seek(0)
print("READ BUFFER SEEK TO 0 - ", self.BufferRead.pos())
return self
def EventConnectedHandle(self):
self.SignalDataRec.emit("CONNECTED TO HOST", 0)
#self.SignalDataRec.emit("192.168.100.5 PORT 2323",0)
self.SignalDataRec.emit("192.168.20.197 PORT 2323", 0)
#self.SignalDataRec.emit("BYTES IN REC BUFFER - " + str(self.bytesAvailable))
def RecieveData(self):
#self.CommandSocket.receiveDatagram(20)
HEADER = QByteArray()
HEADER.resize(2)
if self.bytesAvailable < self.LimitBufferSize - self.MaxTransferUnit: #check that memory for packet available
if self.BufferWrite.pos(
) < self.LimitBufferSize - self.MaxTransferUnit:
(newData, sender,
senderPort) = self.CommandSocket.readDatagram(20)
#newData = self.CommandSocket.read(self.LimitBufferSize - self.bytesAvailable)
#print(" NEW DATA - ",newData.toHex(),"to POS - ",self.BufferWrite.pos())
self.BufferWrite.write(newData)
self.bytesAvailable += newData.size()
print(self.Timer.restart())
#print("REC ",data)
#print(" BUFFER - ",self.BufferWrite.data().toHex())
else:
H1 = 0
H2 = 0
while self.CommandSocket.bytesAvailable() > 0:
H1 = H2
H2 = self.SocketDataStream.readInt16()
if H1 == 0xF1 and (H2 == 0xD1 or H2 == 0xD2 or H2 == 0xD3
or H2 == 0xC1):
self.BufferWrite.seek(0)
newData = self.CommandSocket.read(
self.LimitBufferSize - self.bytesAvailable)
self.WriteDataStream.writeInt16(H1)
self.WriteDataStream.writeInt16(H2)
print(
"=============================================================="
)
print("SEEK TO 0")
print("NEW DATA - ", newData, "to POS - ",
self.BufferWrite.pos() - 4)
self.BufferWrite.write(newData)
self.bytesAvailable += (4 + newData.size())
#print("BUFFER - ",self.NetworkDataArray.toHex())
break
else:
self.WriteDataStream.writeInt16(H2)
self.bytesAvailable += 1
#self.SignalDataRec.emit("BYTES IN REC BUFFER - " + str(self.bytesAvailable))
if (self.bytesAvailable >= self.MinTransferUnit):
self.SignalFrameDataAvailable.emit()
def SendData(self):
Req = ConnectCheckRequest()
self.SendBuffer.clear()
self.SendBuffer.resize(Req.MESSAGE_SIZE)
WriteDataStream = QDataStream(self.SendBuffer, QIODevice.ReadWrite)
WriteDataStream.setByteOrder(QDataStream.LittleEndian)
Req >> WriteDataStream
self.CommandSocket.write(self.SendBuffer)
self.CommandSocket.waitForBytesWritten(20)
self.SignalDataRec.emit("CHECK CONNECT - " + str(Req.Connect), 1)
#self.CommandSocket.write(bytearray(b'TestMessage\r\n'))
#print("WRITE BUFFER - ",self.SendBuffer.toHex())
#print("===============================================")
def HandleErrorSocket(self):
print("ErrorSocket")
def plot_dataset(dataset, color_map, scale_labels):
# Only generate the brush once for each unique value
lookup_table = {x: pg.mkBrush(color_map.map(x)) for x in numpy.unique(dataset)}
brushes = [lookup_table[x] for x in dataset.data]
scale_widget.setGradient(color_map.getGradient())
scale_widget.setLabels(scale_labels)
# Generate Plot
plot = plot_item.plot(data_x, data_y,
pen=None,
symbolPen=None,
symbolBrush=brushes,
pxMode=False,
symbolSize=scale_factors,
symbol=pixel_paths)
plot_item.getViewWidget().parent().grab()
volcview_img = plot_item.getViewWidget().parent().grab()
self._view_extents = vbox.viewRange()
file_bytes = QByteArray()
file_buffer = QBuffer(file_bytes)
file_buffer.open(QIODevice.WriteOnly)
volcview_img.save(file_buffer, "PNG")
file_buffer.close()
file_stream = BytesIO(file_bytes)
pil_img = Image.open(file_stream)
# find coverage percent(ish)
width, height = pil_img.size
total_count = width * height # Should be 800,000, unless we changed the size of the images.
# dump into a numpy array to count grey pixels
as_array = numpy.array(pil_img)
# the grey value we use is 238, so if all elements of axis 2 are 238,
# then the pixel is grey.
is_grey = numpy.all(as_array == 238, axis=2)
# number that is False is non-grey, or covered, pixels
# Not quite true due to scale bar, borders, etc.
unique, counts = numpy.unique(is_grey, return_counts=True)
non_grey = dict(zip(unique, counts))[False]
covered_percent = non_grey / total_count
# Don't send the image to volcview unless it has at least 15% coverage.
# Allow 2% for the scale bar and other features.
threshold = .17
if sector['pixelSize'] == 5:
threshold = .06
if covered_percent > threshold:
self._add_coastlines(pil_img)
raw_data = QByteArray()
buffer = QBuffer(raw_data)
if not gen_cloud and not self._data_type in ('VIIRS'):
# "Save" the percentile bar to a bytes buffer, in PNG format
buffer.open(QIODevice.WriteOnly)
_percentContainer.grab().save(buffer, "PNG")
buffer.close()
# Use a bytes IO object to "read" the image into a PIL object
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
pil_img.paste(img,
(5, 5),
mask = img)
# Add the scale bar and timestamp.
scale_top = pil_img.height
buffer.open(QIODevice.WriteOnly)
scale_widget.grab() # why? WHYYYYYYYY????
scale_widget.grab().save(buffer, "PNG")
buffer.close()
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
scale_top = pil_img.height - img.height - 10
pil_img.paste(img, (25, scale_top), mask = img)
# Add the timestamp
buffer.open(QIODevice.WriteOnly)
date_label.grab().save(buffer, "PNG")
buffer.close()
img_stream = BytesIO(raw_data)
with Image.open(img_stream) as img:
pil_img.paste(img,
(pil_img.width - img.width - 51,
scale_top - img.height - 5),
mask = img)
# Save an archive image
logging.debug("Saving archive image for %s", band)
os.makedirs(os.path.dirname(save_file), exist_ok = True)
pil_img.save(save_file, format = 'PNG')
else:
logging.info("Not enough coverage to bother with")
plot_item.removeItem(plot)
def get_raw(self):
'''
Get the scene information. (can be be save in .pii)
Return
------
out: (dict)
Dictionary of scene date to be save in .pii file.
'''
image_data = str()
pixmap = self._backgroundNode.pixmap()
# Extract Image Data
if not pixmap.isNull():
buffer = QBuffer()
buffer.open(QIODevice.WriteOnly)
pixmap.save(buffer, "PNG")
# Image Data
image_data = bytes(buffer.data().toBase64()).decode('ascii')
nodeList = []
for each in self._scene.items():
if type(each) == PickNode:
textColor = each.defaultTextColor()
bgColor = each.Background
item = {
PIIPick.TYPE:
PIINode.PICK,
PIIPick.TEXT:
each.toPlainText(),
PIIPick.SIZE:
each.font().pointSize(),
PIIPick.POSITION: (each.pos().x(), each.pos().y()),
PIIPick.COLOR:
(textColor.red(), textColor.green(), textColor.blue()),
PIIPick.BACKGROUND:
(bgColor.red(), bgColor.green(), bgColor.blue()),
PIIPick.SELECTION:
each.Items,
PIIPick.SHAPE:
each.Shape
}
nodeList.append(item)
elif type(each) == ButtonNode:
textColor = each.defaultTextColor()
bgColor = each.Background
item = {
PIIButton.TYPE:
PIINode.BUTTON,
PIIButton.TEXT:
each.toPlainText(),
PIIButton.SIZE:
each.font().pointSize(),
PIIButton.POSITION: (each.pos().x(), each.pos().y()),
PIIButton.COLOR:
(textColor.red(), textColor.green(), textColor.blue()),
PIIButton.BACKGROUND:
(bgColor.red(), bgColor.green(), bgColor.blue()),
PIIButton.COMMAND:
each.Command,
PIIButton.COMMANDTYPE:
each.CommandsType
}
nodeList.append(item)
rawData = {
PII.VERSION: "1.0.0",
PII.BACKGROUND: image_data,
PII.NODES: nodeList
}
return rawData