diff --git a/code v.1.1 b/code v.1.1
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+# GAPI chart generator v.1.1
+# W.Wojnowski 2021
+
+# imports
+from tkinter import *
+from tkinter import ttk
+from tkinter import filedialog
+from matplotlib.patches import Ellipse
+import matplotlib.pyplot as plt
+from matplotlib.backends.backend_tkagg import FigureCanvasTkAgg
+import webbrowser
+
+# start the program
+root = Tk()
+
+# app title:
+root.title('GAPI v.1.1')
+
+# default app size:
+root.geometry('1300x700')
+root.minsize(1300, 700)
+
+# configure the background
+root.configure(bg='white', padx=8, pady=8)
+
+# create the small icon in the task bar:
+root.iconbitmap('GAPI_icon.ico')
+# root.iconbitmap(r'C:\Users\Admin\Dysk Google\GAPI_rev\GAPI_icon.ico')
+
+# create the menu
+menu = Menu(root)
+
+# configure the menu:
+root.config(menu=menu)
+file_menu = Menu(menu)
+menu.add_cascade(label='File', menu=file_menu)
+file_menu.config(bg='white')
+
+# function for saving the image (raster or vector):
+def saveImage():
+ ftypes = [('PNG file', '.png'), ('SVG file', '.svg'), ('All files', '*')]
+ filename = filedialog.asksaveasfilename(filetypes=ftypes, defaultextension='.png')
+ # save the plot in the specified path; the 'tight' option removes the whitespace from around the figure:
+ plt.savefig(filename, bbox_inches='tight', dpi=300)
+
+# add the image save option to the file menu
+file_menu.add_command(label='Save image', command=saveImage)
+
+# create a popup window with citation information (to be filled in at a later time)
+def popup_bonus():
+ win = Toplevel()
+ win.wm_title('Cite As')
+ root.iconbitmap('GAPI_icon.ico')
+
+
+ def callback(event):
+ webbrowser.open_new(event.widget.cget("text"))
+
+ cite_label1 = Label(win, text="If you are using the GAPI chart generator in your research, please cite: \n"
+ "Lorem ipsum\n"
+ " Dolor sit amet", justify=LEFT)
+ cite_label1.grid(row=0, column=0, padx=8, pady=8)
+
+ cite_label2 = Label(win, text=r'https://doi.org/someDOI', fg='blue', cursor='hand2', justify=LEFT)
+ cite_label2.grid(row=1, column=0, padx=8, pady=8)
+ cite_label2.bind('<Button-1>', callback)
+
+ cite_label3 = Label(win, text='BibTeX entry:', justify=LEFT)
+ cite_label3.grid(row=2, column=0, padx=8, pady=8)
+
+ cite_label4 = Label(win,
+ text='@article{AC:,\n'
+ 'author = {},\n'
+ 'title = {},\n'
+ 'journal = {},\n'
+ 'year = {2021},\n'
+ 'url = https://doi.org/someDOI\n'
+ '}',
+ wraplength=300, justify=LEFT, bg='white')
+
+ cite_label4.grid(row=3, column=0, padx=8, pady=8)
+
+# add the 'About' option to the file menu
+file_menu.add_command(label='About', command=popup_bonus)
+
+# configure the dropdown menu
+dropdown_style = ttk.Style()
+dropdown_style.theme_use('clam')
+dropdown_style.configure("TMenubutton", background="white", width=20)
+label_style = ttk.Style()
+label_style.theme_use('clam')
+label_style.configure('TLabel', background='white')
+
+# create a top frame to pack the banner
+topFrame = Frame(root, padx=10, pady=10, bg='white', bd=1)
+topFrame.pack(side=TOP, anchor=NW)
+fig_canvas = Canvas(root, width=1000, heigh=60, bg='white', bd=0, highlightthickness=0)
+fig_canvas.pack()
+banner = PhotoImage(file='banner2.png')
+fig_canvas.create_image(3, 2, anchor=NW, image=banner)
+
+# create three separate frames; left and middle for the interface, right for the graph.
+leftFrame = Frame(root, bd=1, width=600, padx=10, pady=10, bg='white')
+leftFrame.pack(side=LEFT, anchor=N)
+leftFrame.columnconfigure(0, minsize=100)
+leftFrame.columnconfigure(1, minsize=150)
+
+middleFrame = Frame(root, bd=1, width=600, padx=10, pady=10, bg='white')
+middleFrame.pack(side=LEFT, anchor=N)
+middleFrame.columnconfigure(0, minsize=100)
+middleFrame.columnconfigure(1, minsize=150)
+
+rightFrame = Frame(root, width=600, height=600, padx=1, pady=1, bg='grey')
+rightFrame.pack(side=RIGHT, anchor=N)
+bottomFrame = Frame(root, bd=1).pack(side=BOTTOM, anchor=W)
+
+# Create the graph (figure) and the canvas
+fig, ax = plt.subplots(figsize=(675.93 / 100, 642.84 / 100), dpi=100) # figsize/dpi
+ax.axis('equal')
+
+c = FigureCanvasTkAgg(fig, master=rightFrame)
+plot_widget = c.get_tk_widget()
+plot_widget.pack(side=TOP)
+
+# remove the axes from the matplotlib graph
+plt.axis('off')
+
+# create a common class for the shapes
+class Polygon:
+
+ def __init__(self, x, y, color, edgecolor, lw, canvas):
+ self.x = x
+ self.y = y
+ self.color = color
+ self.edgecolor = edgecolor
+ self.lw = lw
+ self.canvas = canvas
+
+ plt.fill(self.x, self.y, facecolor=self.color, edgecolor=self.edgecolor, lw=self.lw)
+
+ def polygonreload(self):
+ plt.fill(self.x, self.y, facecolor=self.color, edgecolor=self.edgecolor, lw=self.lw)
+
+ # refresh the canvas with the graph:
+ ellipse_1.edgecolor=polygons[4].color
+ CenterEllipse.ellipsereload(ellipse_1)
+ self.canvas.draw()
+
+class CenterEllipse:
+
+ def __init__(self, canvas, edgecolor, lw):
+ self.canvas = canvas
+ self.visible = False
+ self.edgecolor = edgecolor
+ self.lw = lw
+
+ ellipse = Ellipse(xy=(337.96, 355.35), width=100, height=63, edgecolor=self.edgecolor,
+ fc='None', lw=self.lw, zorder=1, visible=self.visible)
+ ax.add_patch(ellipse)
+
+ # the zorder parameter makes sure that the ellipse stays on top of the pentagon
+ def ellipsereload(self):
+ ellipse = Ellipse(xy=(337.96, 355.35), width=100, height=63, edgecolor=self.edgecolor,
+ fc='None', lw=self.lw, zorder=1, visible=self.visible)
+ ax.add_patch(ellipse)
+ self.canvas.draw()
+ # Polygon.polygonreload(polygons[4])
+
+
+class EllipseDropdown():
+
+ def __init__(self, master, options, label_text, row):
+ self.master = master
+ self.options = options
+ self.label_text = label_text,
+ self.row = row
+ self.var = StringVar(self.master)
+ self.var.set('n.a.')
+
+ self.label = ttk.Label(self.master, text=label_text).grid(row=self.row, column=0, padx=8, sticky=W)
+ self.dropdown = ttk.OptionMenu(self.master, self.var, self.var.get(), *self.options.keys())
+ self.dropdown.grid(row=self.row, column=1, padx=8, sticky=W)
+
+ self.ellipse = CenterEllipse(c, edgecolor='black', lw=0.5)
+
+ # monitor the changes done via the dropdown ('w' - 'write') to update
+ # the visibility of the ellipse
+ self.var.trace('w', self.change_dropdown)
+
+ def change_dropdown(self, *args):
+ self.ellipse.visible = self.options[self.var.get()]
+ if self.options[self.var.get()] == False:
+ self.ellipse.lw = 0.9
+ self.ellipse.edgecolor = polygons[4].color
+ else:
+ self.ellipse.lw = 0.5
+ self.ellipse.edgecolor = 'black'
+
+ Polygon.polygonreload(polygons[4])
+ CenterEllipse.ellipsereload(self.ellipse)
+
+
+class OptionsDropdown:
+
+ def __init__(self, master, options, plgn, label_text, row, number):
+
+ self.options = options
+ self.master = master
+ self.var = StringVar(self.master)
+ self.var.set('n.a.')
+ self.row = row
+ self.number = number
+
+ self.label = ttk.Label(self.master, text=label_text).grid(row=self.row, column=0, padx=8, sticky=W)
+ self.dropdown = ttk.OptionMenu(self.master, self.var, self.var.get(), *self.options.keys())
+ self.dropdown.grid(row=self.row, column=1, padx=8, sticky=W)
+
+ self.shape = plgn
+ # monitor the changes done via the dropdown ('w' - 'write') to update
+ # the colour of the polygon
+ self.var.trace('w', self.change_dropdown)
+
+ def change_dropdown(self, *args):
+ self.shape.color = colors[self.options[self.var.get()]]
+
+ # make sure the sub-graph disappears entirely if the corresponding polygons are empty.
+ # the difference in LineWidth (lw) between the white and black lines is meant to prevent fanthom outlines.
+
+ if polygons[0].color != 'white' or polygons[1].color != 'white' or polygons[2].color != 'white' or polygons[3].color != 'white':
+ polygons[0].edgecolor = 'black'
+ polygons[1].edgecolor = 'black'
+ polygons[2].edgecolor = 'black'
+ polygons[3].edgecolor = 'black'
+ polygons[0].lw = 0.5
+ polygons[1].lw = 0.5
+ polygons[2].lw = 0.5
+ polygons[3].lw = 0.5
+ else:
+ polygons[0].edgecolor = 'white'
+ polygons[1].edgecolor = 'white'
+ polygons[2].edgecolor = 'white'
+ polygons[3].edgecolor = 'white'
+ polygons[0].lw = 1.0
+ polygons[1].lw = 1.0
+ polygons[2].lw = 1.0
+ polygons[3].lw = 1.0
+
+ if polygons[4].color != 'white':
+ polygons[4].edgecolor = 'black'
+ polygons[4].lw = 0.5
+ else:
+ polygons[4].edgecolor = 'black'
+ polygons[4].lw = 0.5
+
+ if polygons[5].color != 'white' or polygons[6].color != 'white' or polygons[7].color != 'white':
+ polygons[5].edgecolor = 'black'
+ polygons[6].edgecolor = 'black'
+ polygons[7].edgecolor = 'black'
+ polygons[5].lw = 0.5
+ polygons[6].lw = 0.5
+ polygons[7].lw = 0.5
+ else:
+ polygons[5].edgecolor = 'white'
+ polygons[6].edgecolor = 'white'
+ polygons[7].edgecolor = 'white'
+ polygons[5].lw = 1.0
+ polygons[6].lw = 1.0
+ polygons[7].lw = 1.0
+
+ if polygons[8].color != 'white' or polygons[9].color != 'white' or polygons[10].color != 'white':
+ polygons[8].edgecolor = 'black'
+ polygons[9].edgecolor = 'black'
+ polygons[10].edgecolor = 'black'
+ polygons[8].lw = 0.5
+ polygons[9].lw = 0.5
+ polygons[10].lw = 0.5
+ else:
+ polygons[8].edgecolor = 'white'
+ polygons[9].edgecolor = 'white'
+ polygons[10].edgecolor = 'white'
+ polygons[8].lw = 1.0
+ polygons[9].lw = 1.0
+ polygons[10].lw = 1.0
+
+ if polygons[11].color != 'white' or polygons[12].color != 'white' or polygons[13].color != 'white' or polygons[14].color != 'white':
+ polygons[11].edgecolor = 'black'
+ polygons[12].edgecolor = 'black'
+ polygons[13].edgecolor = 'black'
+ polygons[14].edgecolor = 'black'
+ polygons[11].lw = 0.5
+ polygons[12].lw = 0.5
+ polygons[13].lw = 0.5
+ polygons[14].lw = 0.5
+ else:
+ polygons[11].edgecolor = 'white'
+ polygons[12].edgecolor = 'white'
+ polygons[13].edgecolor = 'white'
+ polygons[14].edgecolor = 'white'
+ polygons[11].lw = 1.0
+ polygons[12].lw = 1.0
+ polygons[13].lw = 1.0
+ polygons[14].lw = 1.0
+
+ if polygons[15].color != 'white' or \
+ polygons[16].color != 'white' or \
+ polygons[17].color != 'white' or \
+ polygons[18].color != 'white' or \
+ polygons[19].color != 'white' or \
+ polygons[20].color != 'white' or \
+ polygons[21].color != 'white' or \
+ polygons[22].color != 'white' or \
+ polygons[23].color != 'white' or \
+ polygons[24].color != 'white' or \
+ polygons[25].color != 'white' or \
+ polygons[26].color != 'white':
+ polygons[15].edgecolor = 'black'
+ polygons[16].edgecolor = 'black'
+ polygons[17].edgecolor = 'black'
+ polygons[18].edgecolor = 'black'
+ polygons[19].edgecolor = 'black'
+ polygons[20].edgecolor = 'black'
+ polygons[21].edgecolor = 'black'
+ polygons[22].edgecolor = 'black'
+ polygons[23].edgecolor = 'black'
+ polygons[24].edgecolor = 'black'
+ polygons[25].edgecolor = 'black'
+ polygons[26].edgecolor = 'black'
+ polygons[15].lw = 0.5
+ polygons[16].lw = 0.5
+ polygons[17].lw = 0.5
+ polygons[18].lw = 0.5
+ polygons[19].lw = 0.5
+ polygons[20].lw = 0.5
+ polygons[21].lw = 0.5
+ polygons[22].lw = 0.5
+ polygons[23].lw = 0.5
+ polygons[24].lw = 0.5
+ polygons[25].lw = 0.5
+ polygons[26].lw = 0.5
+
+ else:
+ polygons[15].edgecolor = 'white'
+ polygons[16].edgecolor = 'white'
+ polygons[17].edgecolor = 'white'
+ polygons[18].edgecolor = 'white'
+ polygons[19].edgecolor = 'white'
+ polygons[20].edgecolor = 'white'
+ polygons[21].edgecolor = 'white'
+ polygons[22].edgecolor = 'white'
+ polygons[23].edgecolor = 'white'
+ polygons[24].edgecolor = 'white'
+ polygons[25].edgecolor = 'white'
+ polygons[26].edgecolor = 'white'
+ polygons[15].lw = 1.0
+ polygons[16].lw = 1.0
+ polygons[17].lw = 1.0
+ polygons[18].lw = 1.0
+ polygons[19].lw = 1.0
+ polygons[20].lw = 1.0
+ polygons[21].lw = 1.0
+ polygons[22].lw = 1.0
+ polygons[23].lw = 1.0
+ polygons[24].lw = 1.0
+ polygons[25].lw = 1.0
+ polygons[26].lw = 1.0
+
+ if self.number in range(0, 4):
+ for i in range(0, 4):
+ Polygon.polygonreload(polygons[i])
+
+ elif self.number in range(5, 8):
+ for i in range(5, 8):
+ Polygon.polygonreload(polygons[i])
+
+ elif self.number in range(8, 11):
+ for i in range(8, 11):
+ Polygon.polygonreload(polygons[i])
+
+ elif self.number in range(11, 15):
+ for i in range(11, 15):
+ Polygon.polygonreload(polygons[i])
+
+ elif self.number in range(15, 27):
+ for i in range(15, 27):
+ Polygon.polygonreload(polygons[i])
+
+ else:
+ Polygon.polygonreload(polygons[self.number])
+
+ ell1.change_dropdown()
+
+
+
+# define the colors to be used in the graph
+colors = {
+ 'white': 'white',
+ 'black': 'black',
+ 'green': '#00FF00',
+ 'yellow': '#FFFF00',
+ 'red': '#FF0000'
+ }
+
+'''
+COORDINATES FOR THE POLYGONS
+'''
+# list of coordinates for the polygon vertices:
+# e.g. polygon 1: [[x1, x2, x3], [y1, y2, y3]]
+coords = [
+ [[198.68, 122.79, 245.58], [389.89, 285.44, 245.54]], # p1
+ [[245.58, 122.79, 61.40, 122.79], [245.54, 285.44, 200.94, 156.33]], # p2
+ [[122.79, 23.45, 0.0, 61.40], [285.44, 317.72, 245.54, 200.94]], # p3
+ [[198.68, 49.90, 23.45, 122.79], [389.89, 389.89, 317.72, 285.44]], # p4
+ [[337.96, 215.17, 262.07, 413.85, 460.75], [484.46, 395.25, 250.90, 250.90, 395.25]], # p5
+ [[204.98, 204.98, 327.77], [409.28, 538.39, 498.49]], # p6
+ [[204.98, 82.19, 129.09, 204.98], [409.28, 498.49, 642.84, 538.39]], # p7
+ [[204.98, 129.09, 280.87, 327.77], [538.39, 642.84, 642.84, 498.49]], # p8
+ [[348.15, 470.94, 470.94], [498.49, 538.39, 409.28]], # p9
+ [[470.94, 546.83, 395.05, 348.15], [538.39, 642.84, 642.84, 498.49]], # p10
+ [[470.94, 593.73, 546.83, 470.94], [409.28, 498.49, 642.84, 538.39]], # p11
+ [[477.24, 553.13, 430.34], [389.89, 285.44, 245.54]], # p12
+ [[477.24, 553.13, 652.47, 629.02], [389.89, 285.44, 317.72, 389.89]], # p13
+ [[652.47, 553.13, 614.52, 675.92], [317.72, 285.44, 200.94, 245.54]], # p14
+ [[614.52, 553.13, 430.34, 553.13], [200.92, 285.44, 245.54, 156.33]], # p15
+
+ [[337.96, 262.07, 413.85], [144.35, 233.56, 233.56]], # p16
+ [[413.85, 536.64, 337.96], [233.56, 144.35, 144.35]], # p17
+ [[337.96, 536.44, 413.85], [144.35, 144.35, 55.14]], # p18
+
+ [[413.85, 363.26, 337.96], [55.14, 55.14, 144.35]], # p19
+ [[337.96, 312.66, 363.26], [144.35, 55.14, 55.14]], # p20
+ [[337.96, 262.07, 312.66], [144.35, 55.14, 55.14]], # p21
+
+ [[337.96, 221.14, 262.07], [144.35, 84.87, 55.14]], # p23
+ [[337.96, 221.14, 180.21], [144.35, 84.87, 114.61]], # p24
+ [[337.96, 180.21, 139.28], [144.35, 114.61, 144.35]], # p25
+
+ [[337.96, 139.28, 180.21], [144.35, 144.35, 174.09]], # p26
+ [[337.96, 180.21, 221.14], [144.35, 174.09, 203.82]], # p27
+ [[337.96, 221.14, 262.07], [144.35, 203.82, 233.56]], # p28
+
+]
+
+# create the Polygon objects (parts of the graph) based on the list of coordinates
+polygons = []
+ellipse_1 = CenterEllipse(c, 'None', 0.5)
+
+# generate the polygons:
+for number in range(0, len(coords)):
+ polygons.append(Polygon(coords[number][0], coords[number][1], colors['white'], colors['white'], 1.0, c))
+
+# the central polygon should always be visible:
+polygons[4].edgecolor = 'black'
+polygons[4].lw = 0.5
+Polygon.polygonreload(polygons[4])
+
+label1 = ttk.Label(leftFrame, text='SAMPLE PREPARATION', font='Helvetica 9 bold').grid(row=1, column=0, columnspan=2, padx=30, sticky='ew')
+label2 = ttk.Label(leftFrame, text='REAGENTS AND SOLVENTS', font='Helvetica 9 bold').grid(row=10, column=0, columnspan=2, padx=30, sticky='ew')
+label3 = ttk.Label(leftFrame, text='INSTRUMENTATION', font='Helvetica 9 bold').grid(row=14, column=0, columnspan=2, padx=30, sticky='ew')
+label4 = ttk.Label(leftFrame, text='METHOD TYPE', font='Helvetica 9 bold').grid(row=25, column=0, columnspan=2, padx=30, sticky='ew')
+label5 = ttk.Label(middleFrame, text='YIELD AND CONDITIONS', font='Helvetica 9 bold').grid(row=0, column=0, columnspan=2, padx=30, sticky='ew')
+label6 = ttk.Label(middleFrame, text='REAGENTS AND SOLVENTS', font='Helvetica 9 bold').grid(row=3, column=0, columnspan=2, padx=30, sticky='ew')
+label7 = ttk.Label(middleFrame, text='INSTRUMENTATION', font='Helvetica 9 bold').grid(row=8, column=0, columnspan=2, padx=30, sticky='ew')
+label8 = ttk.Label(middleFrame, text='WORKUP AND PURIFICATION', font='Helvetica 9 bold').grid(row=12, column=0, columnspan=2, padx=30, sticky='ew')
+
+
+options = [
+ {'n.a.': 'white', 'In-line': 'green', 'On-line or at-line': 'yellow', 'off-line': 'red'}, # 1
+ {'n.a.': 'white', 'None': 'green', 'Chemical or physical': 'yellow', 'Physico-chemical': 'red'}, # 2
+ {'n.a.': 'white', 'None': 'green', 'Required': 'red'}, # 3
+ {'n.a.': 'white', 'None': 'green', 'Under normal conditions': 'yellow', 'Under special conditions': 'red'}, # 4
+ {'n.a.': 'white', 'No sample preparation': 'green', 'Simple procedures': 'yellow', 'Extraction required': 'red'}, # 5
+ {'n.a.': 'white', 'Nano-extraction': 'green', 'Micro-extraction': 'yellow', 'Macro-extraction': 'red'}, # 6
+ {'n.a.': 'white', 'Solvent-free methods': 'green', 'Green solvents/reagents': 'yellow', 'Non-green solvents/reagents': 'red'}, # 7
+ {'n.a.': 'white', 'None': 'green', 'Simple treatments': 'yellow', 'Advanced treatments': 'red'}, # 8
+ {'n.a.': 'white', '< 10 mL (< 10 g)': 'green', '10-100 mL (10-100 g)': 'yellow', '> 100 mL (> 100 g)': 'red'}, # 9
+ {'n.a.': 'white', 'Slightly toxic, slight irritant; NFPA health hazard score of 0 or 1. No special hazards.': 'green', # 10
+ 'Moderately toxic; could cause temporary incapacitation; NFPA = 2 or 3.': 'yellow',
+ 'Serious injury on short-term exposure; known or suspected small animal carcinogen; NFPA = 4.': 'red'},
+ {'n.a.': 'white', 'Highest NFPA flammability or instability score of 0 or 1. No special hazards.': 'green', # 11
+ 'Highest NFPA flammability or instability score = 2 or 3, or a special hazard is used.': 'yellow',
+ 'Highest NFPA flammability or instability score of 4.': 'red'},
+ {'n.a.': 'white', '<= 0.1 kWh per sample': 'green', '<= 1.5 kWh per sample': 'yellow', '> 1.5 kWh per sample': 'red'}, # 12
+ {'n.a.': 'white', 'Hermetic sealing of the analytical process': 'green', 'Emission of vapours to the atmosphere': 'red'}, # 13
+ {'n.a.': 'white', '< 1 mL (< 1 g)': 'green', '1-10 mL (1-10 g)': 'yellow', '> 10 mL (>10 g)': 'red'}, # 14
+ {'n.a.': 'white', 'Recycling': 'green', 'Degradation, passivation': 'yellow', 'No treatment': 'red'}, # 15
+ {'n.a.': False, 'Qualitative': False, 'Qualitative and quantitative': True}, # 0
+ {'n.a.': 'white', '>=89%': 'green', '80-89%': 'yellow', '<=79%': 'red'}, # 16 (I)
+ {'n.a.': 'white', 'Room temp., < 1 h': 'green', 'Room temp., > 1 h, Heating, < 1 h, Cooling to 0°C': 'yellow', 'Heating, > 1 h \n Cooling < 0°C': 'red'},
+ {'n.a.': 'white', 'Inexpensive< 10$': 'green', 'Expensive 10-50$': 'yellow', 'Very expensive': 'red'},
+ {'n.a.': 'white', '< 10 mL (mg)': 'green', '10-100 mL (mg)': 'yellow', '> 100 mL (mg)': 'red'},
+
+ {'n.a.': 'white', 'Slightly toxic, slight irritant; NFPA health hazard score is 0 or 1': 'green',
+ 'Moderately toxic; could cause temporary incapacitation; NFPA = 2 or 3': 'yellow',
+ 'Serious injury on short term exposure; known or suspected small animal carcinogen; NFPA = 4': 'red'},
+ {'n.a.': 'white', 'Highest NFPA flammability, instability score of 0 or 1. No special hazards ': 'green',
+ 'Highest NFPA flammability or instability score is 2 or 3, or a special hazard is used': 'yellow',
+ 'Highest NFPA flammability or instability score is 4': 'red'},
+ {'n.a.': 'white', 'Common setup': 'green', 'Additional setups/instruments used': 'yellow',
+ 'Pressure equipment > 1atm; Glove box ': 'red'},
+ {'n.a.': 'white', 'â¤0.1 kWh per sample': 'green', 'â¤1.5 kWh per sample': 'yellow',
+ '>1.5 kWh per sample': 'red'},
+ {'n.a.': 'white', 'Hermetization of analytical proces': 'green', 'Emission of vapours to the atmosphere': 'red'},
+ {'n.a.': 'white', 'None or simple proceses': 'green', 'Standard purification techniques': 'yellow', 'Advanced purification techniques': 'red'},
+ {'n.a.': 'white', '>98%': 'green', '97-98%': 'yellow', '<97%': 'red'},
+ {'n.a.': 'white', '<1 mL (<1 g)': 'green', '1-10 mL (1-10 g)': 'yellow', '>10 mL (<10 g)': 'red'},
+
+]
+
+# create the drop-down menus (frame, dict. with options and values, polygon to be generated,
+# label, pack row, polygon number).
+select1 = OptionsDropdown(leftFrame, options[0], polygons[0], '1. Collection:', 2, 0)
+select2 = OptionsDropdown(leftFrame, options[1], polygons[1], '2. Preservation:', 3, 1)
+select3 = OptionsDropdown(leftFrame, options[2], polygons[2], '3. Transport:', 4, 2)
+select4 = OptionsDropdown(leftFrame, options[3], polygons[3], '4. Storage:', 5, 3)
+select5 = OptionsDropdown(leftFrame, options[4], polygons[4], '5. Type of method:', 6, 4)
+select6 = OptionsDropdown(leftFrame, options[5], polygons[5], '6. Scale of extraction:', 7, 5)
+select7 = OptionsDropdown(leftFrame, options[6], polygons[6], '7. Solvents/reagents used:', 8, 6)
+select8 = OptionsDropdown(leftFrame, options[7], polygons[7], '8. Additional treatments:', 9, 7)
+select9 = OptionsDropdown(leftFrame, options[8], polygons[8], '9. Amount:', 11, 8)
+select10 = OptionsDropdown(leftFrame, options[9], polygons[9], '10. Health hazard:', 12, 9)
+select11 = OptionsDropdown(leftFrame, options[10], polygons[10], '11. Safety hazard:', 13, 10)
+select12 = OptionsDropdown(leftFrame, options[11], polygons[11], '12. Energy:', 15, 11)
+select13 = OptionsDropdown(leftFrame, options[12], polygons[12], '13. Occupational hazard:', 16, 12)
+select14 = OptionsDropdown(leftFrame, options[13], polygons[13], '14. Waste:', 17, 13)
+select15 = OptionsDropdown(leftFrame, options[14], polygons[14], '15. Waste treatment:', 18, 14)
+
+select16 = OptionsDropdown(middleFrame, options[16], polygons[15], '16. Yield:', 1, 15)
+select17 = OptionsDropdown(middleFrame, options[17], polygons[16], '17. Temperature/time:', 2, 16)
+select18 = OptionsDropdown(middleFrame, options[18], polygons[17], '18. Price of reagents:', 4, 17)
+
+select19 = OptionsDropdown(middleFrame, options[19], polygons[18], '19. Amount:', 5, 18)
+select20 = OptionsDropdown(middleFrame, options[20], polygons[19], '20. Health hazard:', 6, 19)
+select21 = OptionsDropdown(middleFrame, options[21], polygons[20], '21. Safety hazard:', 7, 20)
+
+select22 = OptionsDropdown(middleFrame, options[22], polygons[21], '22. Technical setup :', 9, 21)
+select23 = OptionsDropdown(middleFrame, options[23], polygons[22], '23. Energy:', 10, 22)
+select24 = OptionsDropdown(middleFrame, options[24], polygons[23], '24. Occupational hazard:', 11, 23)
+
+select25 = OptionsDropdown(middleFrame, options[25], polygons[24], '25. End products workup, purification:', 13, 24)
+select26 = OptionsDropdown(middleFrame, options[26], polygons[25], '26. Purity:', 14, 25)
+select27 = OptionsDropdown(middleFrame, options[27], polygons[26], '27. Waste:', 15, 26)
+
+# create the central ellipse
+ell1 = EllipseDropdown(leftFrame, options[15], 'Type of analysis:', row=26)
+
+
+root.mainloop()
+