def save(self):
"""Commits the image and annotation to new files.
Saves the image and annotation as png files with an alpha channel for merging
later. If the image is new, it also adds it to the database.
"""
# parameters for the PIL annotations done in tandem with the seen tkinter annotations
self.font = ImageFont.truetype("calibrib.ttf", 20)
bounds = self.screenshot_canvas.bbox("text")
self.draw.text((bounds[0], bounds[1]), fill = 'white',
font = self.font, text = self.text_annotation)
#takes the bottom left coordinate of text and places the text on the pillow drawing
if self.new == True: # if the image is being saved from LilSnippy
FileManagement(self.folder_path).save_image(self.body_info, self.im, self.annotation)
from markings import GridMark
GridMark(self.marker_canvas, self.folder_path, self.body_info)
else: # if the annotations are being edited from Image Viewer
self.annotation.save(self.folder_path + self.body_info["annotation_file_name"])
self.destroy()
number = FileManagement(self.folder_path).count_bodies(config.all_bodies, False, False, False, False)
if number == 300: # opens a popup at 300 biondi bodies done
done_screen = tk.Toplevel()
done_screen.grab_set()
success_label = tk.Label(done_screen, text = "You have finished annotating 300 bodies.")
success_label.pack(side = 'top')
close_button = tk.Button(done_screen, text = "OK", command = lambda: done_screen.destroy())
close_button.pack(side = "bottom")
def delete_image(self, body_info):
"""Deletes current image.
Deletes the currently selected image's data from the database and resets the information frame and
button list to reflect the changes.
Args:
body_info (tuple): Tuple of the information of the body to be deleted
"""
name = body_info["body_name"]
number = body_info["body_number"]
time = body_info["time"]
fm = FileManagement(self.folder_path)
fm.delete_img(name, number)
# refreshes the button list to reflect the new changes
self._remake_button_list()
self.filter()
self.information_frame.destroy()
# clear the body canvas
self.biondi_image_canvas.delete("all")
# deletes the associated marker on the gridfile
tag = "m" + str(time)
self.marker_canvas.delete(tag)
self.marker_canvas.update()
def capturarNegro():
data = request.get_json()
data['errorBd'] = ""
data['errorCapturaN'] = ""
data['espectroNegro'] = ""
sensorTierraVIS = data["sensorTierraVIS"]
sensorTierraNIR = data["sensorTierraNIR"]
nombreMisionCrear = data["nombreMisionCrear"]
tiempoIntegracion = data["tiempoIntegracion"]
numeroCapturas = data["numeroCapturas"]
rel_path = '/tmp/archivoTemporalNegro.txt'
filePath = FileManagement.to_relative(rel_path)
negroCapturado = []
if os.path.exists(filePath):
os.remove(filePath)
else:
print("Can not delete the file as it doesn't exists")
try:
negroCapturado = capturarNegroRpi(sensorTierraVIS, sensorTierraNIR,
tiempoIntegracion, numeroCapturas)
valores_espectros.espectroNegro = getFilesNegro(negroCapturado)
makeImageD(valores_espectros.espectroNegro)
rel_path = "/tmp/imagenEspectroD.png"
filePath = FileManagement.to_relative(rel_path)
with open(filePath, "rb") as image_file:
encoded_string = base64.b64encode(image_file.read())
encoded_string = encoded_string.decode("utf-8")
# print(encoded_string)
data['espectroNegro'] = encoded_string
except Exception as errorCapturaN:
data['errorCapturaN'] = "T"
raise errorCapturaN
return json.dumps(data)
def update_finished(self, grid_id):
"""Updates the database of a finished grid square.
Sends the grid square over to the database to be marked as complete and be remembered for future
use of the folder
Args:
grid_id (str): The grid square letter marked as complete
"""
fin = self.var_fin.get()
FileManagement(self.folder_path).finish_grid(grid_id, fin)
self.final_order = FileManagement(self.folder_path).get_grid()
def get_data(self):
"""Retrieves user inputs.
Takes the user inputs from the popup and enters them into a data dictionary.
This dictionary is later entered into the database.
"""
time_added = int(time())
body_file_name = str(self.body_type.get()) + "_" + str(time_added)
annotation_file_name = body_file_name + "_ANNOTATION"
fm = FileManagement(self.folder_path)
data = {
"time":
time_added,
"annotator_name":
self.annotator.get(),
"body_name":
self.body_type.get(),
"body_number":
fm.count_bodies([self.body_type.get()], False, False, False, False)
+ 1,
"x":
self.canvas_x,
"y":
self.canvas_y,
"grid_id":
self.grid_id,
"GR":
self.var_GR.get(),
"MAF":
self.var_MAF.get(),
"MP":
self.var_MP.get(),
"unsure":
self.var_unsure.get(),
"notes":
self.notes.get(),
"body_file_name":
body_file_name + ".png",
"annotation_file_name":
annotation_file_name + ".png",
"angle":
None,
"log":
None,
"dprong1":
None,
"lprong2":
None
}
return data
def update_count(self):
self.body_count.set(
FileManagement(self.folder_path).count_bodies(
config.all_bodies, False, False, False, False))
self.body_count_label.configure(
text="{0} Bodies Annotated".format(self.body_count.get()))
self.master.after(2000, self.update_count)
def guardarNegro():
data = request.get_json()
data['errorBd'] = ""
relPathSrc = '/tmp/archivoTemporalNegro.txt'
relPathDes = '/tmp/archivoNegro.txt'
filePathSrc = FileManagement.to_relative(relPathSrc)
filePathDes = FileManagement.to_relative(relPathDes)
try:
copyfile(filePathSrc, filePathDes)
SpectreManagement.guardarNegro(valores_espectros.id_espectros, [],
valores_espectros.espectroNegro, [], [],
valores_sensores.idSensorTierraVIS)
except Exception as errorBd:
data['errorBd'] = "T"
raise errorBd
return json.dumps(data)
def makeImageC(ejeYMakeImage, j):
ejeY = ""
ejeX = ""
espectrocor = []
wavecor = []
# global wavelenghtsLista
ejeXMakeImage = wavelenghtsLista
ejeY = np.array(ejeYMakeImage, dtype=np.float32)
ejeX = np.array(ejeXMakeImage, dtype=np.float32)
for i in range(230, 890):
espectrocor.append(ejeY[i])
for i in range(230, 890):
wavecor.append(ejeX[i])
plt.figure(1)
ax = plt.subplot(111)
plt.plot(wavecor, espectrocor)#, label='Negro')
ax.set_ylim(min(espectrocor), max(espectrocor))
plt.legend()
rutaImagen= "/tmp/imagenEspectroC%s.png" %(str(datetime.datetime.now())[18:19])
filePath = FileManagement.to_relative(rutaImagen)
resultadoMakeImage= plt.savefig(filePath, format="png")
plt.cla()
plt.clf()
plt.close()
return filePath
def makeImageG(ejeYMakeImage, rutaImagen, lat, lon, alt):
# global wavelenghtsLista
ejeY = ""
ejeX = ""
espectrocor = []
wavecor = []
ejeXMakeImage = wavelenghtsLista
ejeY = np.array(ejeYMakeImage, dtype=np.float32)
ejeX = np.array(ejeXMakeImage, dtype=np.float32)
for i in range(230, 890):
espectrocor.append(ejeY[i])
for i in range(230, 890):
wavecor.append(ejeX[i])
plt.figure(1)
ax = plt.subplot(111)
plt.plot(wavecor, espectrocor)#, label='Negro')
ax.set_ylim(min(espectrocor), max(espectrocor))
plt.legend()
# rutaImagen= "D:/Tesis/Api/Flask/imagenEspectroC%s.png" %(str(j))
resultadoMakeImage= plt.savefig(rutaImagen, format="jpg")
plt.cla()
plt.clf()
plt.close()
rel_path = '/testy/base.jpg'
filePath = FileManagement.to_relative(rel_path)
piexif.transplant(filePath, rutaImagen)
set_gps_location(rutaImagen, lat, lon, alt)
return resultadoMakeImage
def getFilesNegro(negroCapturado):
negroCapturadoLista = []
# Guardar txt de la captura
rel_path = '/tmp/archivoTemporalNegro.txt'
filePath = FileManagement.to_relative(rel_path)
appendFile = open(filePath, 'w')
for i in range(len(negroCapturado)):
appendFile.write(str(negroCapturado[i]))
appendFile.close()
# abrir txt de la captura y gyardar en []
rel_path = '/tmp/archivoTemporalNegro.txt'
filePath = FileManagement.to_relative(rel_path)
with open(filePath, "r") as negrovis:
for line in negrovis:
line = line[0:4]
negroCapturadoLista.append(line)
return negroCapturadoLista
def generalized_main():
FileManager = FileManagement()
FileConsider = FileConsiderations()
ZIPMetrics = GeneralMedianVals()
DATEMetrics = GeneralMedianVals()
input_file = sys.argv[1]
output_path = sys.argv[2]
report = FileManager.file_input(input_file)
for line in report:
FileConsider.set_flags(line)
if FileConsider.check_flags() == False:
continue
elif FileConsider.check_flags() == "consider_for_zip":
ZIPMetrics.medianvals(line, line[0], line[10][0:5])
ZIPMetrics.update_median_out(line[0], line[10][0:5])
continue
elif FileConsider.check_flags() == "consider_for_date":
DATEMetrics.medianvals(line, line[0], line[13])
continue
elif FileConsider.check_flags() == "consider_for_zipdate":
ZIPMetrics.medianvals(line, line[0], line[10][0:5])
ZIPMetrics.update_median_out(line[0], line[10][0:5])
DATEMetrics.medianvals(line, line[0], line[13])
continue
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_zip.txt",
data=ZIPMetrics.median_out)
DATEMetrics.calculate_medianvals()
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_date.txt",
data=DATEMetrics.median_out)
def main():
# Get and prepare the input file
file_manager = FileManagement()
file = file_manager.input_file_get(assembler_file_path)
assembler_list = file_manager.file_list_get(file)
assembler_list = file_manager.remove_whitespaces(assembler_list)
assembler_list_original = assembler_list.copy()
#print(*assembler_list, sep = "\n")
#file_manager.file_print(file)
file_manager.input_file_close(file)
#print(assembler_list)
#input()
decoder = Decoder()
output_list, pattern = decoder.sequitur_algorithm(assembler_list)
#pprint.pprint(output_list)
#pprint.pprint(pattern)
# Get the compression rates
original_size = len(assembler_list_original)
compressed_size = len(output_list)
for i in pattern:
compressed_size += len(pattern[i])
compression_rate = original_size / compressed_size
#compression_rate = compressed_size / original_size
space_saving = (1 - compressed_size / original_size) * 100
# Print out the results
print("Original size: ", original_size)
print("Compressed size: ", compressed_size)
print("Compression rate ", compression_rate)
print("Space saving {} %".format(space_saving))
def capturarBlanco():
valores_sensores.sumaBlanco = 0
blancoCapturado = []
# obtener datos del json
data = request.get_json()
data['errorBd'] = ""
data['errorCapturaB'] = ""
data['espectroBlanco'] = ""
sensorTierraVIS = data["sensorTierraVIS"]
sensorTierraNIR = data["sensorTierraNIR"]
nombreMisionCrear = data["nombreMisionCrear"]
tiempoIntegracion = data["tiempoIntegracion"]
numeroCapturas = data["numeroCapturas"]
rel_path = '/tmp/archivoTemporalBlanco.txt'
filePath = FileManagement.to_relative(rel_path)
if os.path.exists(filePath):
os.remove(filePath)
else:
print("Can not delete the file as it doesn't exists")
try:
# Comandar sensores para captura
blancoCapturado = capturarBlancoRpi(sensorTierraVIS, sensorTierraNIR,
tiempoIntegracion, numeroCapturas)
# construir imagen
valores_espectros.espectroBlanco = getFilesBlanco(blancoCapturado)
for i in range(0, len(valores_espectros.espectroBlanco)):
valores_sensores.sumaBlanco += float(
valores_espectros.espectroBlanco[i])
print("limiteCalibracion = " + str(valores_sensores.sumaBlanco))
# print(a)
makeImageW(valores_espectros.espectroBlanco)
rel_path = "/tmp/imagenEspectroW.png"
filePath = FileManagement.to_relative(rel_path)
with open(filePath, "rb") as image_file:
encoded_string = base64.b64encode(image_file.read())
encoded_string = encoded_string.decode("utf-8")
# print(encoded_string)
data['espectroBlanco'] = encoded_string
except Exception as errorCapturaB:
data['errorCapturaB'] = "T"
raise errorCapturaB
return json.dumps(data)
return json.dumps(data)
def show_ignored(self):
ignored = FileManagement(self.folder_path).query_all_ignored()
if self.ignored_var.get() == False:
for coords in ignored:
tag = "i{0}{1}".format(coords[0], coords[1])
self.marker_canvas.delete(tag)
else:
for coords in ignored:
GridIgnored(self.marker_canvas, self.folder_path, coords[0],
coords[1])
def getFilesBlanco(blancoCapturado):
blancoCapturadoLista=[]
# guardar txt de la captura
rel_path = '/tmp/archivoTemporalBlanco.txt'
filePath = FileManagement.to_relative(rel_path)
appendFile = open(filePath, 'w')
for i in range(len(blancoCapturado)):
appendFile.write(str(blancoCapturado[i]))
appendFile.close()
#blanco capturado es un array de strings de tamaño 14336 que al escribirse por
#líneas en el archivo queda de 1024----14336/14
# abrir txt capura y guardar en []
rel_path = '/tmp/archivoTemporalBlanco.txt'
filePath = FileManagement.to_relative(rel_path)
with open(filePath, "r") as blancovis:
for line in blancovis:
line = line[0:4]
blancoCapturadoLista.append(line)
# print(blancoCapturadoLista)
return blancoCapturadoLista
def guardarBlanco():
data = request.get_json()
data['errorBd'] = ""
relPathSrc = '/tmp/archivoTemporalBlanco.txt'
relPathDes = '/tmp/archivoBlanco.txt'
filePathSrc = FileManagement.to_relative(relPathSrc)
filePathDes = FileManagement.to_relative(relPathDes)
try:
copyfile(filePathSrc, filePathDes)
print(valores_espectros.espectroBlanco)
SpectreManagement.guardarBlanco(valores_espectros.id_espectros,
valores_espectros.espectroBlanco, [],
[], [],
valores_sensores.idSensorTierraVIS)
except Exception as errorBd:
data['errorBd'] = "T"
print("Error de DB en guardarBlanco: ", errorBd)
return json.dumps(data)
raise errorBd
return json.dumps(data)
def confirm():
"""Exports images to folder_path.
Takes case name and folder path and exports biondi images to the designated folder.
"""
if self.case_name.get() == "" or self.new_folder_path.get() == "/":
return
else:
FileManagement(self.folder_path).export_case(
self.new_folder_path.get(), self.case_name.get())
export.destroy()
def guardarTodos():
data = request.get_json()
data['errorBd'] = ""
nombreMisionCrear = data['nombreMisionCrear']
ruta = str(data['ruta'])
filePath = FileManagement.to_relative(ruta)
usuario = str(data['usuario'])
try:
if os.path.isdir(filePath):
data['errorCarpeta'] = ""
idsWaypoints = []
idsEspectros = []
latlonsWaypoints = []
conn = conexion()
daoMision = DaoMision(conn)
mision = daoMision.getMisionNombre(nombreMisionCrear)
idMision = mision.id
altura = mision.elevacion
daoWaypoints = DaoWaypoints(conn)
waypointsList = daoWaypoints.getAllWaypoints2(idMision)
print(waypointsList[0].id, waypointsList[1].id) #272" lista de obj
for i in range(0, len(waypointsList)):
idsWaypoints.append(waypointsList[i].id)
latlonsWaypoints.append(waypointsList[i].latlon)
print(idsWaypoints) #
print("J")
print(latlonsWaypoints)
for i in range(0, len(idsWaypoints)):
daoEspway = DaoEspway(conn)
espway = daoEspway.getEspwayWaypoint(idsWaypoints[i])
idEspectro = espway.espectros_id
idsEspectros.append(idEspectro)
for i in range(0, len(idsEspectros)):
latlons = latlonsWaypoints[i].split(",")
rutaG = filePath
daoEspectros = DaoEspectros(conn)
espectro = daoEspectros.getEspectros(idsEspectros[i])
resultado = espectro.resultado
rutaG += "/Usuario(" + usuario + ")" + "Mision(" + nombreMisionCrear + ")" + "WaypointNumber(" + str(
i) + ")"
# filePath = FileManagement.to_relative(rutaG)
generate(resultado, rutaG, float(latlons[0]),
float(latlons[1]), altura)
conn.close()
else:
data['errorCarpeta'] = "T"
except Exception as errorBd:
data['errorBd'] = "T"
print("Error en guardarTodos: ", errorBd)
raise errorBd
finally:
return json.dumps(data)
def initiate_markers(self):
"""Initializes marker info in FileManagment.
Creates a marker for every body on the application's startup. Iterates
through the bodies in the database to do so. Also creates a marker for
every ignored marker
"""
data = FileManagement(self.folder_path).query_images(
config.all_bodies, False, False, False, False)
for i in data:
body_info = {}
x = 0
for choice in ("time", "body_name", "body_number", "x", "y"):
body_info[choice] = i[x]
x += 1
GridMark(self.marker_canvas, self.folder_path, body_info)
# generates ignored markers
ignored = FileManagement(self.folder_path).query_all_ignored()
for coord in ignored:
GridIgnored(self.marker_canvas, self.folder_path, coord[0],
coord[1])
def getFilesVuelo(vueloCapturado):
vueloCapturadoLista=[]
# guardar txt de la captura
rel_path = '/tmp/archivoTemporalVuelo.txt'
filePath = FileManagement.to_relative(rel_path)
appendFile = open(filePath, 'w')
for i in range(len(vueloCapturado)):
appendFile.write(str(vueloCapturado[i]))
appendFile.close()
with open(filePath, "r") as blancovis:
for line in blancovis:
line = line[0:4]
vueloCapturadoLista.append(line)
return vueloCapturadoLista
def create_buttons(self, body_param, GR_param, MAF_param, MP_param,
unsure_param):
"""Creates the buttons in the button list.
Create a series of buttons reflecting the filter options which the user can click
to bring up the relevant information and images for the body selected.
Args:
body_param (list): A list of all the selected bodies for filtering. Enter self.all_bodies
for a selection of all the body types.
GR_param (bool): True if sorting by GR.
MAF_param (bool): True if sorting by MAF.
MP_param (bool): True if sorting by MP.
unsure_param (bool): True if sorting by unsure.
"""
# queries a list of all the selected bodies
fm = FileManagement(self.folder_path)
data = fm.query_images(body_param, GR_param, MAF_param, MP_param,
unsure_param)
# loops through generating bodies
for i in data:
time = i[0]
name = i[1]
number = i[2]
body_name = "{} {}".format(name, number)
# each button takes a different command depending on its selected data
btn = tk.Button(self.interior,
height=1,
width=20,
relief=tk.FLAT,
bg="gray99",
fg="purple3",
font="Dosis",
text=body_name,
command=lambda i=time: self.open_file(i))
btn.pack(padx=10, pady=5, side=tk.TOP)
def show_select_markers(self):
"""Toggles which markers get shown based on the filter
Takes seconday_selection and body_selection and shows the markers based on those requirements
from FileManagement.
"""
all_data = FileManagement(self.folder_path).query_images(
config.all_bodies, False, False, False, False)
for i in all_data:
self.grid_canvas.delete("m" + str(i[0]))
bodies = self._get_body_selection()
secondary_selection = self._get_secondary_selection()
data = FileManagement(self.folder_path).query_images(
bodies, secondary_selection[0], secondary_selection[1],
secondary_selection[2], secondary_selection[3])
for i in data:
body_info = {}
x = 0
for choice in ("time", "body_name", "body_number", "x", "y"):
body_info[choice] = i[x]
x += 1
GridMark(self.marker_canvas, self.folder_path, body_info)
def create_ignored_marker(event):
"""Event method that adds an ignored marker.
x and y are the coords of where the mouse clicked. Then converted to canvas coordinates
which is used to add a marker.
"""
x = event.x
y = event.y
canvas_x = self.marker_canvas.canvasx(x)
canvas_y = self.marker_canvas.canvasy(y)
coords = (canvas_x, canvas_y)
GridIgnored(self.marker_canvas, self.folder_path, canvas_x,
canvas_y)
FileManagement(self.folder_path).add_ignored(coords)
def ok(self):
if (self.l == []) | (self.d == None):
return
self.body_info["log"], self.body_info["dprong1"], self.body_info["lprong2"] = self.calc_log()
if self.new:
ScreenshotEditor(self.body_info, self.folder_path, self.marker_canvas, self.im, True)
else:
info = (self.body_info["body_name"], self.body_info["GR"],
self.body_info["MAF"], self.body_info["MP"],
self.body_info["unsure"], self.body_info["notes"],
self.body_info["angle"], self.body_info["log"],
self.body_info["dprong1"], self.body_info["lprong2"],
self.body_info["time"])
FileManagement(self.folder_path).edit_info(info)
self.destroy()
def main():
FileManager = FileManagement()
FileConsider = FileConsiderations()
Metrics = MedianVals()
input_file = sys.argv[1]
output_path = sys.argv[2]
#input_file = input_path
#input_file = input_path + "itcont.txt"
report = FileManager.file_input(input_file)
#count = 0
#loop_time = time.time()
for line in report:
#if count % 1000 == 0:
# print(str(count)+"th line, time per 1000 lines = ---- %s seconds ----" %(time.time() - loop_time))
# loop_time = time.time()
#count += 1
FileConsider.set_flags(line)
if FileConsider.check_flags() == False:
continue
elif FileConsider.check_flags() == "consider_for_zip":
Metrics.medianvals_by_zip(line)
continue
elif FileConsider.check_flags() == "consider_for_date":
Metrics.medianvals_by_date(line)
continue
elif FileConsider.check_flags() == "consider_for_zipdate":
Metrics.medianvals_by_zip(line)
Metrics.medianvals_by_date(line)
continue
#print('writing zips')
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_zip.txt",
data=Metrics.medianzip_out)
#print('calculating dates')
#calculate_time = time.time()
Metrics.calculate_medianvals_by_date()
#print("time to calculate medianvals_by_date = ----------- %s seconds ------------" % (time.time() - calculate_time))
#print('writing dates')
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_date.txt",
data=Metrics.mediandate_out)
def open_file(self, time):
"""Brings up the relevant file information.
When clicking a button, open_file brings up the annotation and body image
to show in the biondi_image_canvas as well as shows the information about that
specific body.
Args:
Time (int): Time added of selected body in unix time.
"""
body_info = FileManagement(self.folder_path).get_image_time(time)
self.clear_information_canvas()
self.show_information(body_info)
self.open_annotation_image(body_info)
self.marker_canvas.itemconfig("m" + str(time), fill="red")
if self.previous_body_time != 0:
self.marker_canvas.itemconfig("m" + str(self.previous_body_time),
fill="white")
self.previous_body_time = time
def main():
FileManager = FileManagement()
FileConsider = FileConsiderations()
Metrics = MedianVals()
input_file = sys.argv[1]
output_path = sys.argv[2]
#report = FileManager.file_input(input_file)
report = (line.strip().split("|") for line in open(input_file, 'r'))
for line in report:
FileConsider.set_flags(line)
if FileConsider.check_flags() == False:
continue
elif FileConsider.check_flags() == "consider_for_zip":
Metrics.medianvals_by_zip(line)
continue
elif FileConsider.check_flags() == "consider_for_date":
Metrics.medianvals_by_date(line)
continue
elif FileConsider.check_flags() == "consider_for_zipdate":
Metrics.medianvals_by_zip(line)
Metrics.medianvals_by_date(line)
continue
# for line in report:
# FileConsider.set_flags(line)
# if FileConsider.check_flags() == False:
# continue
# elif FileConsider.check_flags() == "consider_for_zip":
# Metrics.medianvals_by_zip(line)
# continue
# elif FileConsider.check_flags() == "consider_for_date":
# Metrics.medianvals_by_date(line)
# continue
# elif FileConsider.check_flags() == "consider_for_zipdate":
# Metrics.medianvals_by_zip(line)
# Metrics.medianvals_by_date(line)
# continue
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_zip.txt",
data=Metrics.medianzip_out)
Metrics.calculate_medianvals_by_date()
FileManager.file_output(outputpath=output_path,
outputname="medianvals_by_date.txt",
data=Metrics.mediandate_out)
def makeImageW(ejeYMakeImage):
global wavelenghtsLista
ejeXMakeImage = wavelenghtsLista
print(len(ejeXMakeImage))
print(len(ejeYMakeImage))
# print(ejeXMakeImage)
ejeY = np.array(ejeYMakeImage, dtype=np.float32)
ejeX = np.array(ejeXMakeImage, dtype=np.float32)
plt.figure(1)
ax = plt.subplot(111)
plt.plot(ejeX, ejeY)#, label='Negro')
ax.set_ylim(min(ejeY), max(ejeY))
plt.legend()
rutaImagen= "/tmp/imagenEspectroW.png"
filePath = FileManagement.to_relative(rutaImagen)
resultadoMakeImage= plt.savefig(filePath, format="png")
plt.cla()
plt.clf()
plt.close()
return resultadoMakeImage
def guardarEspectro():
data = request.get_json()
data['errorBd'] = ""
nombreMisionCrear = data['nombreMisionCrear']
waypointSeleccionado = data['waypointSeleccionado']
ruta = str(data['ruta'])
usuario = str(data['usuario'])
filePath = FileManagement.to_relative(ruta)
try:
if os.path.isdir(filePath):
conn = conexion()
daoMision = DaoMision(conn)
mision = daoMision.getMisionNombre(nombreMisionCrear)
idMision = mision.id
altura = mision.elevacion
daoWaypoints = DaoWaypoints(conn)
wayp = daoWaypoints.getWaypointByNumber(waypointSeleccionado,
idMision)
idWayp = wayp.id
latlon = wayp.latlon.split(",")
daoEspway = DaoEspway(conn)
espway = daoEspway.getEspwayWaypoint(idWayp)
idEspectro = espway.espectros_id
daoEspectros = DaoEspectros(conn)
espectro = daoEspectros.getEspectros(idEspectro)
resultado = espectro.resultado
conn.close()
filePath += "/Usuario(" + usuario + ")" + "Mision(" + nombreMisionCrear + ")" + "Waypoint(" + waypointSeleccionado + ")"
generate(resultado, filePath, float(latlon[0]), float(latlon[1]),
altura)
else:
data['errorCarpeta'] = "T"
except Exception as errorBd:
data['errorBd'] = "T"
raise errorBd
finally:
return json.dumps(data)
def sensoresVuelo(sensorVueloVIS, sensorVueloNIR, tiempoIntegracion, numeroCapturas, aux):
global counter
try:
if aux == "C":
print("capturando Vuelo")
start_time_A = time.time()
# x = "D:/subtext/splitTest0/Quieto 1 feb/cult2/2mt0.txt"
# D:\Tesis\Api\Flask\testy\cult2
if counter > 6:
counter = 0
x = "/testy/cult2/inten%s.txt" %(counter)
file_path = FileManagement.to_relative(x)
with open(file_path, 'r') as f:
intensitiesFlask = f.read()
# sts.runInParallel(read_VIS(b, c), read_NIR(a, c)) #DOUBLE
# #sts.runInParallel(read_VIS) # SINGLE
# if queueTierra.full(): # If both the NIR and VIS spectra have been acquired successfully
# # print(queue.qsize()) # The queue size should be 2
# wavelengths_NIR, intensities_NIR, wavelengths_VIS, intensities_VIS = sts.assign_spectra(queue, init_wl_NIR, init_wl_VIS) # SINGLE
# else:
# print("Queue not full")
end_time_A = time.time()
duration = end_time_A - start_time_A
print("Acquisition for {} seconds".format(duration))
duration = str(duration)
success = "Success"
counter += 1
pass
else:
intensitiesFlask = ""
counter = 0
# a, b, c = calibrarSensores(sensorVueloVIS, sensorVueloNIR, tiempoIntegracion, numeroCapturas)
pass
pass
except Exception as errorCalibrarSensoresTierra:
print("error captura/calibracion")
raise errorCalibrarSensoresTierra
return intensitiesFlask