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MapToXls.py
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MapToXls.py
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#
import sys
# xlwt is a library to export and work in excel sheet
import xlsxwriter
#------------------------------------------------------------------------------------
# Create UHS graph for excel
#------------------------------------------------------------------------------------
# global variables defines
intensities = []
# def means function
def create_graphs(workbook, nblines):
for worksheet in workbook.worksheets():
# Create a chart object. Type is kind of graph, scatter is line
chart = workbook.add_chart({'type': 'scatter',
'subtype': 'smooth'})
# # Configure the series of the chart from the dataframe data.
chart.add_series({
'name': "Roca_Tipo_B",
# X value
'categories': [worksheet.name, 1, 0, nblines, 0],
# Y value
'values': [worksheet.name, 1, 1, nblines, 1],
'marker': {'type': 'diamond', 'size': 5},
'line': {'width': 1.5},
})
chart.add_series({
'name': "Suelo_Tipo_C",
# X value
'categories': [worksheet.name, 1, 0, nblines, 0],
# Y value
'values': [worksheet.name, 1, 2, nblines, 2],
'marker': {'type': 'diamond', 'size': 5},
'line': {'width': 1.5},
})
chart.add_series({
'name': "Suelo_Tipo_D",
# X value
'categories': [worksheet.name, 1, 0, nblines, 0],
# Y value
'values': [worksheet.name, 1, 3, nblines, 3],
'marker': {'type': 'diamond', 'size': 5},
'line': {'width': 1.5},
})
# Add a chart title and some axis labels.
chart.set_title ({'name': 'ESPECTROS DE PELIGRO UNIFORME (UHS)'})
chart.set_size({'width': 600, 'height': 350})
chart.set_x_axis({'name': 'Period (s)',
'name_font': {'name': 'Arial', 'size': 10},
'major_gridlines': {
'visible': True,
'line': {'width': 0.15}
},
'minor_gridlines': {
'visible': True,
'line': {'width': 0.01}
},
'num_format': '0.00',
'max' : max(intensities),
'num_font': {'name': 'Arial', 'size': 7},
})
chart.set_y_axis({'name': 'Aceleracion Spectral (gals)',
'name_font': {'name': 'Arial', 'size': 12},
'major_gridlines': {
'visible': True,
'line': {'width': 0.15}
},
'minor_gridlines': {
'visible': True,
'line': {'width': 0.01}
},
'num_format': '0.00'
})
# Set an Excel chart style. Colors with white outline and shadow.
chart.set_style(10)
# # # Insert the chart into the worksheet.
worksheet.insert_chart(2, 10, chart)
def create_graphs_2(workbook, nblines):
for worksheet in workbook.worksheets():
# Create a chart object. Type is kind of graph, scatter is line
chart = workbook.add_chart({'type': 'scatter',
'subtype': 'straight'})
# # Configure the series of the chart from the dataframe data.
chart.add_series({
'name': "Roca_Tipo_B",
# X value
'categories': [worksheet.name, nblines + 3, 0, nblines + 3 + (int)(4.0/0.1), 0],
# Y value
'values': [worksheet.name, nblines + 3, 1, nblines + 3 + (int)(4.0/0.1), 1],
'marker': {'type': 'none'},
'line': {'width': 1.5},
})
chart.add_series({
'name': "Suelo_Tipo_C",
# X value
'categories': [worksheet.name, nblines + 3, 3, nblines + 3 + (int)(4.0/0.1), 3],
# Y value
'values': [worksheet.name, nblines + 3, 4, nblines + 3 + (int)(4.0/0.1), 4],
'marker': {'type': 'none'},
'line': {'width': 1.5},
})
chart.add_series({
'name': "Suelo_Tipo_D",
# X value
'categories': [worksheet.name, nblines + 3, 6, nblines + 3 + (int)(4.0/0.1), 6],
# Y value
'values': [worksheet.name, nblines + 3, 7, nblines + 3 + (int)(4.0/0.1), 7],
'marker': {'type': 'none'},
'line': {'width': 1.5},
})
# Add a chart title and some axis labels.
chart.set_title ({'name': 'ESPECTROS DE DISENO GENERICO HORIZONTALES AASHTO'})
chart.set_size({'width': 600, 'height': 350})
chart.set_x_axis({'name': 'Period (s)',
'name_font': {'name': 'Arial', 'size': 10},
'major_gridlines': {
'visible': True,
'line': {'width': 0.1}
},
'minor_gridlines': {
'visible': True,
'line': {'width': 0.01}
},
'num_format': '0.00',
})
chart.set_y_axis({'name': 'Aceleracion Spectral (gals)',
'name_font': {'name': 'Arial', 'size': 12},
'major_gridlines': {
'visible': True,
'line': {'width': 0.1}
},
'minor_gridlines': {
'visible': True,
'line': {'width': 0.01}
},
'num_format': '0.00',
})
# Set an Excel chart style. Colors with white outline and shadow.
chart.set_style(10)
# # # Insert the chart into the worksheet.
worksheet.insert_chart(24, 10, chart)
def reduce_name(city, footer):
# sheet name cannot be greater than 30 characters.
result = city[:30-len(footer)-len("_")]
result = result +'_'+ footer
return result;
def parse_dat_file(filename):
gra_file = open(filename, "r")
# we store the intensities valules into a global variable intensities table
global intensities;
#-------------------- LOOP FOR EACH LINE IN THE .MAP FILE TO FIND INTENSITIES VALES FOR UHS ----------------------------------
#loop until end of file
while True:
line = gra_file.readline()
if len(line) == 0:
break
split_line=(line.rstrip().split(","))
if (len(split_line) == 4) and (split_line[3]=='gals'):
intensities.append((float)(split_line[0]))
fpga_values = [0.1, 0.2, 0.3, 0.4, 0.5]
fpga_matching = [
# 0.1
{
"B" : 1.0,
"C" : 1.2,
"D" : 1.6,
},
# 0.2
{
"B" : 1.0,
"C" : 1.2,
"D" : 1.4,
},
# 0.3
{
"B" : 1.0,
"C" : 1.1,
"D" : 1.2,
},
# 0.4
{
"B" : 1.0,
"C" : 1.0,
"D" : 1.1,
},
# 0.5
{
"B" : 1.0,
"C" : 1.0,
"D" : 1.0,
}
]
Fa_values = [0.25, 0.50, 0.75, 1.0, 1.25]
Fa_matching = fpga_matching # same table as fpga
Fv_values = [0.10, 0.20, 0.30, 0.40, 0.50]
Fv_matching = [
# 0.1
{
"B" : 1.0,
"C" : 1.7,
"D" : 2.4,
},
# 0.2
{
"B" : 1.0,
"C" : 1.6,
"D" : 2.0,
},
# 0.3
{
"B" : 1.0,
"C" : 1.5,
"D" : 1.8,
},
# 0.4
{
"B" : 1.0,
"C" : 1.4,
"D" : 1.6,
},
# 0.5
{
"B" : 1.0,
"C" : 1.3,
"D" : 1.5,
}
]
def low_value(value, ref_values):
if (value<=ref_values[0]):
return ref_values[0]
for i in range(1, len(ref_values)):
#print str(i) + " -> " + str(ref_values[i-1])
if (value < ref_values[i]):
return ref_values[i-1];
return ref_values[len(ref_values)-1]
def up_value(value, ref_values):
if (value>=ref_values[len(ref_values)-1]):
return ref_values[len(ref_values)-1]
for i in range(1, len(ref_values) + 1):
#print str(len(ref_values)-i) + " -> " + str(ref_values[len(ref_values)-i])
if (value > ref_values[len(ref_values)-i]):
return ref_values[len(ref_values)-i + 1];
return ref_values[0]
def compute_value(value, ref_values, matching_values, category):
result = -1
value_low = low_value(value, ref_values)
index_value_low = ref_values.index(value_low)
value_low_result = matching_values[index_value_low][category]
value_up = up_value(value, ref_values)
index_value_up = ref_values.index(value_up)
value_up_result = matching_values[index_value_up][category]
# print "value " + str(value)
# print "value_low " + str(value_low)
# print "value_up " + str(value_up)
# print "value_low_result " + str(value_low_result)
# print "value_up_result " + str(value_up_result)
if ((value_up-value_low) == 0):
result = value_low_result
else:
result = value_low_result + ((value-value_low) * (value_up_result-value_low_result)) / (value_up-value_low)
return result
def parse_map_file(workbook, category, filename, current_column):
gra_file = open(filename, "r")
#10 initialization de variable de etat - boolean variable
# must_print=False and must_print=True
must_print=False
# Initialization of variable
CITY="Uknown"
# Initialization of variable object - to read each sheet in the during the loop
current_sheet=None
# Initialization of variable to print results in the sheet
curent_line=0
rp_map = [];
#-------------------- LOOP FOR EACH LINE IN THE .GRA FILE----------------------------------
#loop until end of file
# Cell color for header names
cell_format = workbook.add_format({'bold': True, 'font_color': 'white'})
cell_format.set_bg_color('#004C99')
cell_format.set_text_wrap()
cell_format.set_center_across()
#cell_format.num_format = '0.00'
cell_format_2 = workbook.add_format()
cell_format_2.num_format = '0.00'
cell_format_2.set_center_across()
while True:
line = gra_file.readline()
if len(line) == 0:
break
split_line=(line.rstrip().split())
# rp line
if (len(split_line)>1):
if (split_line[0] == "RP"):
for RP in range(0,5):
rp_map.append(split_line[RP+1])
# city line
if (len(split_line)>9):
read_city = split_line[9]
must_print = True;
if (CITY != read_city):
CITY = read_city
curent_line = 1;
else:
must_print = False
if must_print==True:
RP = 1
if (len(split_line)>5):
for RP in range(0,5):
worksheet_name = reduce_name(CITY, "TF_" + str(rp_map[RP]))
current_sheet = workbook.get_worksheet_by_name(worksheet_name);
if (current_sheet==None):
current_sheet = workbook.add_worksheet(worksheet_name)
current_sheet.write(0, 0 , "Period (s)", cell_format)
current_sheet.write(0, 1 , "Intensity_Tipo_B (gals)", cell_format)
current_sheet.write(0, 2 , "Intensity_Tipo_C (gals)", cell_format)
current_sheet.write(0, 3 , "Intensity_Tipo_D (gals)", cell_format)
current_sheet.write(0, 6 , "Tipo_B", cell_format)
current_sheet.write(0, 7 , "Tipo_C", cell_format)
current_sheet.write(0, 8 , "Tipo_D", cell_format)
if (current_column == 1):
current_sheet.write(curent_line, 0, intensities[curent_line-1], cell_format_2)
current_sheet.write(1, 5, "PGA", cell_format)
current_sheet.write(2, 5, "Ss", cell_format)
current_sheet.write(3, 5, "Sd", cell_format)
current_sheet.write(4, 5, "Fpga", cell_format)
current_sheet.write(5, 5, "Fa", cell_format)
current_sheet.write(6, 5, "Fv", cell_format)
current_sheet.write(7, 5, "As", cell_format)
current_sheet.write(8, 5, "Sds", cell_format)
current_sheet.write(9, 5, "Sd1", cell_format)
# T0 -> formula
current_sheet.write(10, 5, "T0", cell_format)
current_sheet.write(10, 6, "=0.2*G10/G9", cell_format_2)
current_sheet.write(10, 7, "=0.2*H10/H9", cell_format_2)
current_sheet.write(10, 8, "=0.2*I10/I9", cell_format_2)
# Ts -> formula
current_sheet.write(11, 5, "Ts", cell_format)
current_sheet.write(11, 6, "=G10/G9", cell_format_2)
current_sheet.write(11, 7, "=H10/H9", cell_format_2)
current_sheet.write(11, 8, "=I10/I9", cell_format_2)
# Tltl -> constant
current_sheet.write(12, 5, "Tltl", cell_format)
current_sheet.write(12, 6, 4.0, cell_format_2)
current_sheet.write(12, 7, 4.0, cell_format_2)
current_sheet.write(12, 8, 4.0, cell_format_2)
current_sheet.write(curent_line, current_column ,(float)(split_line[RP+1]),cell_format_2)
# compute values
intensity = intensities[curent_line-1]
intensities_to_print = [0.0, 0.2, 1.0]
if (intensity in intensities_to_print):
intensity_index = intensities_to_print.index(intensity)
# values / 981
value981 = ((float)(split_line[RP+1]))/981.0
current_sheet.write(intensity_index + 1, 5 + current_column, value981, cell_format_2)
# fpga, fa, fv
scales = [fpga_values, Fa_values, Fv_values]
matchings = [fpga_matching, Fa_matching, Fv_matching]
interpolated_value = compute_value(value981, scales[intensity_index], matchings[intensity_index], category)
current_sheet.write(intensity_index + 4, 5 + current_column, interpolated_value, cell_format_2)
# As / Sds / Sd1
AsSdsSd1 = interpolated_value * value981;
current_sheet.write(intensity_index + 7, 5 + current_column, AsSdsSd1, cell_format_2)
curent_line = curent_line + 1
return curent_line
def create_AASHTO_table(current_sheet, line, column, category):
# header
# Cell color for header names
cell_format_1 = workbook.add_format({'bold': True, 'font_color': 'white'})
cell_format_1.set_bg_color('blue')
cell_format_1.set_center_across()
#
current_sheet.write(line, column, "Rock " + category,cell_format_1)
line = line + 1
current_sheet.write(line, column, "Tm (seg)",cell_format_1)
current_sheet.write(line, column + 1, "Cm (-)",cell_format_1)
line = line + 1
T = 0.0
cell_format = workbook.add_format()
cell_format.num_format = '0.00'
cell_format.set_center_across()
categoryToColumn = {
"B":"G",
"C":"H",
"D":"I"
}
Asline = "8"
Sdsline = "9"
Sd1line = "10"
T0line = "11"
Tsline = "12"
while (T <= 4.1):
current_sheet.write(line, column, T, cell_format)
T0 = "{}{}".format(categoryToColumn[category], T0line)
Ts = "{}{}".format(categoryToColumn[category], Tsline)
Sds = "{}{}".format(categoryToColumn[category], Sdsline)
Sd1 = "{}{}".format(categoryToColumn[category], Sd1line)
As = "{}{}".format(categoryToColumn[category], Asline)
formula = "=IF({}<{},({}-{})*({}/{})+{},IF({}>={},{}/{},{}))".format(T,T0,Sds,As,T,T0,As,T,Ts,Sd1,T,Sds)
current_sheet.write(line, column + 1, formula, cell_format)
line = line + 1
T = T + 0.1
#------------------------------------------------------------------------------------
#------------------------------------------------------------------------------------
# this are the arguments passed to the script
# argv[0] is the name of the script
# argv[1] is the name of input file
# argv[2] is the name of output file
print( 'Number of arguments:', len(sys.argv), 'arguments.')
print( 'Argument List:', str(sys.argv))
if (len(sys.argv)<5):
print "Error - wrong parameters"
print "Usage (example): " + sys.argv[0] + " GRA_B.map GRA_C.map GRA_D.map GRA_B.dat"
exit(1)
# 11 Create a excel Sheet - WORKBOOK
workbook = xlsxwriter.Workbook('MAP_AMSV.xlsx')
# 12 Object "sheet_amsv" to create a sheet in the excel workwook called "AMSV1". An object is to do action on it.
#sheet_amsv1 = workbook.add_worksheet('AMSV1')
#sheet_amsv2 = workbook.add_worksheet('AMSV2')
# 13 write the value in your sheet - first colum and line start with 0; (raw,column,value to add)
#sheet_amsv1.write(2,0,"value1")
#sheet_amsv2.write(2,0,"value2")
# print low_value(0.60, fpga_values)
# print low_value(0.55, fpga_values)
# print low_value(0.50, fpga_values)
# print low_value(0.45, fpga_values)
# print low_value(0.40, fpga_values)
# print low_value(0.35, fpga_values)
# print low_value(0.30, fpga_values)
# print low_value(0.25, fpga_values)
# print low_value(0.20, fpga_values)
# print low_value(0.15, fpga_values)
# print low_value(0.10, fpga_values)
# print low_value(0.05, fpga_values)
#print compute_value(0.35, fpga_values, fpga_matching, "D")
#exit(0)
# open input file
parse_dat_file(sys.argv[4])
if (len(intensities)==0):
print("ERROR: No gals unit found in .dat file !!!")
exit(1)
print("Found " + str(len(intensities)) + " in dat files.")
nblines = parse_map_file(workbook, "B", sys.argv[1], 1)
nblines = parse_map_file(workbook, "C", sys.argv[2], 2)
nblines = parse_map_file(workbook, "D", sys.argv[3], 3)
for worksheet in workbook.worksheets():
create_AASHTO_table(worksheet, nblines + 1, 0 ,"B")
create_AASHTO_table(worksheet, nblines + 1, 3 ,"C")
create_AASHTO_table(worksheet, nblines + 1, 6 ,"D")
create_graphs(workbook, nblines)
create_graphs_2(workbook, nblines)
workbook.close()
print ("end..")