inicial_new.py

import sys
import os
import math

from PyQt5.uic import loadUi
from PyQt5.QtWidgets import QApplication, QMainWindow, QLabel, QMessageBox, QVBoxLayout, QHBoxLayout, QDialog, QMessageBox, QTableWidget, QTableWidgetItem
from PyQt5.QtGui import QPixmap, QIcon, QImage
from PyQt5 import QtWidgets, QtGui, QtCore
import pyqtgraph as pg


#import marcus

tabela_marcus = 'tabela_marcus.pdf'
abaco_normal = 'abaco_normal.pdf'
abaco_obliqua = 'abaco_obliqua.pdf'


import numpy as np

marcus_caso1 = np.array([
[0.50, 0.059, 169.18, 42.29 ],
[0.51, 0.063, 158.42, 41.20 ],
[0.52, 0.068, 148.64, 40.19 ],
[0.53, 0.073, 139.70, 39.24 ],
[0.54, 0.078, 131.55, 38.36 ],
[0.55, 0.084, 124.10, 37.53 ],
[0.56, 0.089, 117.25, 36.77 ],
[0.57, 0.095, 110.96, 36.05 ],
[0.58, 0.102, 105.19, 35.38 ],
[0.59, 0.108, 99.86, 34.76 ],
[0.60, 0.115, 94.94, 34.18 ],
[0.61, 0.122, 90.40, 33.64 ],
[0.62, 0.129, 86.20, 33.13 ],
[0.63, 0.136, 82.30, 32.66 ],
[0.64, 0.144, 78.68, 32.23 ],
[0.65, 0.151, 75.32, 31.82 ],
[0.66, 0.159, 72.19, 31.44 ],
[0.67, 0.168, 69.27, 31.09 ],
[0.68, 0.176, 66.54, 30.99 ],
[0.69, 0.185, 63.99, 30.46 ],
[0.70, 0.194, 61.60, 30.18 ],
[0.71, 0.203, 59.37, 29.93 ],
[0.72, 0.212, 57.27, 29.69 ],
[0.73, 0.221, 55.29, 29.47 ],
[0.74, 0.231, 53.44, 29.26 ],
[0.75, 0.240, 51.69, 29.07 ],
[0.76, 0.250, 50.04, 28.90 ],
[0.77, 0.260, 48.48, 28.74 ],
[0.78, 0.270, 47.01, 28.60 ],
[0.79, 0.280, 45.61, 28.46 ],
[0.80, 0.290, 44.29, 28.34 ],
[0.81, 0.301, 43.03, 28.23 ],
[0.82, 0.311, 41.84, 28.13 ],
[0.83, 0.322, 40.70, 28.04 ],
[0.84, 0.332, 39.62, 27.96 ],
[0.85, 0.343, 38.59, 27.88 ],
[0.86, 0.354, 37.61, 27.81 ],
[0.87, 0.364, 36.67, 27.75 ],
[0.88, 0.375, 35.77, 27.70 ],
[0.89, 0.385, 34.91, 27.65 ],
[0.90, 0.396, 34.09, 27.61 ],
[0.91, 0.407, 33.30, 27.57 ],
[0.92, 0.417, 32.54, 27.54 ],
[0.93, 0.428, 31.81, 27.51 ],
[0.94, 0.438, 31.11, 27.49 ],
[0.95, 0.449, 30.44, 27.47 ],
[0.96, 0.459, 29.79, 27.45 ],
[0.97, 0.469, 29.17, 27.44 ],
[0.98, 0.480, 28.57, 27.43 ],
[0.99, 0.490, 27.99, 27.43 ],
[1.00, 0.500, 27.43, 27.43 ],
[1.00, 0.500, 27.43, 27.43],
[1.01, 0.510, 26.89, 27.43],
[1.02, 0.520, 26.37, 27.43],
[1.03, 0.529, 25.87, 27.44],
[1.04, 0.539, 25.38, 27.45],
[1.05, 0.549, 24.91, 27.47],
[1.06, 0.558, 24.46, 27.48],
[1.07, 0.567, 24.02, 27.50],
[1.08, 0.576, 23.60, 27.52],
[1.09, 0.585, 23.19, 27.55],
[1.10, 0.594, 22.79, 27.57],
[1.11, 0.603, 22.41, 27.61],
[1.12, 0.611, 22.03, 27.64],
[1.13, 0.620, 21.67, 27.67],
[1.14, 0.628, 21.32, 27.71],
[1.15, 0.636, 20.99, 27.76],
[1.16, 0.644, 20.66, 27.80],
[1.17, 0.652, 20.34, 27.85],
[1.18, 0.660, 20.04, 27.90],
[1.19, 0.667, 19.74, 27.95],
[1.20, 0.675, 19.45, 28.01],
[1.21, 0.682, 19.17, 28.07],
[1.22, 0.689, 18.90, 28.13],
[1.23, 0.696, 18.64, 28.20],
[1.24, 0.703, 18.39, 28.27],
[1.25, 0.709, 18.14, 28.34],
[1.26, 0.716, 17.90, 28.42],
[1.27, 0.722, 17.67, 28.50],
[1.28, 0.729, 17.44, 28.58],
[1.29, 0.735, 17.23, 28.67],
[1.30, 0.741, 17.01, 28.76],
[1.31, 0.746, 16.81, 28.85],
[1.32, 0.752, 16.61, 28.94],
[1.33, 0.758, 16.42, 29.04],
[1.34, 0.763, 16.23, 29.14],
[1.35, 0.769, 16.05, 29.25],
[1.36, 0.774, 15.87, 29.36],
[1.37, 0.779, 15.70, 29.47],
[1.38, 0.784, 15.53, 29.58],
[1.39, 0.789, 15.37, 29.70],
[1.40, 0.793, 15.21, 29.82],
[1.41, 0.798, 15.06, 29.95],
[1.42, 0.803, 14.91, 30.07],
[1.43, 0.807, 14.77, 30.20],
[1.44, 0.811, 14.63, 30.34],
[1.45, 0.815, 14.49, 30.47],
[1.46, 0.820, 14.36, 30.61],
[1.47, 0.824, 14.23, 30.76],
[1.48, 0.827, 14.11, 30.90],
[1.49, 0.831, 13.99, 31.05],
[1.50, 0.835, 13.87, 31.21],
[1.50, 0.835, 13.87, 31.21],
[1.51, 0.839, 13.75, 31.36],
[1.52, 0.842, 13.64, 31.52],
[1.53, 0.846, 13.53, 31.68],
[1.54, 0.849, 13.43, 31.85],
[1.55, 0.852, 13.32, 32.01],
[1.56, 0.855, 13.22, 32.18],
[1.57, 0.859, 13.13, 32.36],
[1.58, 0.862, 13.03, 32.53],
[1.59, 0.865, 12.94, 32.71],
[1.60, 0.868, 12.85, 32.80],
[1.61, 0.870, 12.76, 33.08],
[1.62, 0.873, 12.68, 33.27],
[1.63, 0.876, 12.59, 33.46],
[1.64, 0.878, 12.51, 33.65],
[1.65, 0.881, 12.43, 33.85],
[1.66, 0.884, 12.35, 34.04],
[1.67, 0.886, 12.28, 34.24],
[1.68, 0.888, 12.21, 34.45],
[1.69, 0.891, 12.13, 34.65],
[1.70, 0.893, 12.06, 34.87],
[1.71, 0.895, 12.00, 35.08],
[1.72, 0.897, 11.93, 35.29],
[1.73, 0.899, 11.86, 35.51],
[1.74, 0.902, 11.80, 35.73],
[1.75, 0.904, 11.74, 35.95],
[1.76, 0.906, 11.68, 36.17],
[1.77, 0.907, 11.62, 36.40],
[1.78, 0.909, 11.56, 36.63],
[1.79, 0.911, 11.51, 36.86],
[1.80, 0.913, 11.45, 37.10],
[1.81, 0.915, 11.40, 37.33],
[1.82, 0.916, 11.34, 37.58],
[1.83, 0.918, 11.29, 37.82],
[1.84, 0.920, 11.24, 38.06],
[1.85, 0.921, 11.19, 38.31],
[1.86, 0.923, 11.15, 38.56],
[1.87, 0.924, 11.10, 38.81],
[1.88, 0.926, 11.05, 39.07],
[1.89, 0.927, 11.01, 39.32],
[1.90, 0.929, 10.96, 39.58],
[1.91, 0.930, 10.92, 39.84],
[1.92, 0.931, 10.88, 40.10],
[1.93, 0.933, 10.84, 40.37],
[1.94, 0.934, 10.80, 40.63],
[1.95, 0.935, 10.76, 40.91],
[1.96, 0.936, 10.72, 41.18],
[1.97, 0.938, 10.68, 41.45],
[1.98, 0.939, 10.64, 41.73],
[1.99, 0.940, 10.60, 42.01],
[2.00, 0.941, 10.57, 42.29],])



marcus_caso2 = np.array([	
[0.50, 0.135, 140.93, 59.20, 45.13],
[0.51, 0.145, 132.95, 55.31, 44.11],
[0.52, 0.154, 125.68, 51.77, 43.22],
[0.53, 0.165, 119.03, 48.56, 42.38],
[0.54, 0.175, 112.94, 45.64, 41.60],
[0.55, 0.186, 107.35, 42.97, 40.88],
[0.56, 0.197, 102.20, 40.54, 40.21],
[0.57, 0.209, 97.46, 38.32, 39.60],
[0.58, 0.220, 93.08, 36.28, 39.03],
[0.59, 0.232, 89.03, 34.41, 38.51],
[0.60, 0.245, 85.28, 32.69, 38.04],
[0.61, 0.257, 81.79, 31.11, 37.60],
[0.62, 0.270, 78.55, 29.66, 37.20],
[0.63, 0.282, 75.53, 28.31, 36.83],
[0.64, 0.295, 72.71, 27.07, 36.49],
[0.65, 0.308, 70.07, 25.93, 36.19],
[0.66, 0.322, 67.60, 24.86, 35.92],
[0.67, 0.335, 65.28, 23.88, 35.67],
[0.68, 0.348, 63.10, 22.97, 35.44],
[0.69, 0.362, 61.05, 22.12, 35.25],
[0.70, 0.375, 59.12, 21.33, 35.07],
[0.71, 0.388, 57.30, 20.59, 34.92],
[0.72, 0.402, 55.58, 19.91, 34.78],
[0.73, 0.415, 53.95, 19.27, 34.67],
[0.74, 0.428, 52.41, 18.67, 34.57],
[0.75, 0.442, 50.94, 18.11, 34.50],
[0.76, 0.455, 49.56, 17.59, 34.44],
[0.77, 0.468, 48.24, 17.10, 34.39],
[0.78, 0.481, 46.98, 16.64, 34.36],
[0.79, 0.493, 45.79, 16.21, 34.35],
[0.80, 0.506, 44.65, 15.81, 34.35],
[0.81, 0.518, 43.56, 15.43, 34.36],
[0.82, 0.531, 42.53, 15.08, 34.39],
[0.83, 0.543, 41.54, 14.74, 34.42],
[0.84, 0.554, 40.60, 14.43, 34.48],
[0.85, 0.566, 39.69, 14.13, 34.54],
[0.86, 0.578, 38.83, 13.85, 34.62],
[0.87, 0.589, 38.01, 13.59, 34.70],
[0.88, 0.600, 97.22, 13.34, 34.80],
[0.89, 0.611, 96.46, 13.10, 34.91],
[0.90, 0.621, 95.73, 12.88, 35.03],
[0.91, 0.632, 35.04, 12.67, 35.16],
[0.92, 0.642, 34.37, 12.47, 35.29],
[0.93, 0.652, 33.73, 12.28, 35.44],
[0.94, 0.661, 33.12, 12.10, 35.60],
[0.95, 0.671, 32.53, 11.93, 35.77],
[0.96, 0.680, 31.97, 11.77, 35.95],
[0.97, 0.689, 31.43, 11.61, 36.13],
[0.98, 0.697, 30.91, 11.47, 36.33],
[0.99, 0.706, 30.41, 11.33, 36.53],
[1.00, 0.714, 29.93, 11.20, 36.74],
[ 1.00, 0.714, 29.93, 11.20, 36],
[ 1.02, 0.730, 29.02, 10.96, 37],
[ 1.04, 0.745, 28.18, 10.73, 37],
[ 1.06, 0.759, 27.41, 10.53, 38],
[ 1.08, 0.773, 26.69, 10.35, 38],
[ 1.10, 0.785, 26.02, 10.18, 39],
[ 1.12, 0.797, 25.40, 10.03, 39],
[1.14, 0.808, 24.83, 9.89, 40.55],
[1.16, 0.819, 24.29, 9.77, 41.21],
[1.18, 0.829, 23.79, 9.65, 41.90],
[1.20, 0.838, 23.33, 9.45, 42.62],
[1.22, 0.847, 22.89, 9.44, 43.36],
[1.24, 0.855, 22.49, 9.35, 44.13],
[1.26, 0.863, 22.11, 9.27, 44.93],
[1.28, 0.870, 21.75, 9.19, 45.75],
[1.30, 0.877, 21.42, 9.12, 46.59],
[1.32, 0.884, 21.11, 9.05, 47.46],
[1.34, 0.889, 20.82, 8.99, 48.34],
[1.36, 0.895, 20.54, 8.93, 49.26],
[1.38, 0.901, 20.28, 8.88, 50.20],
[1.40, 0.906, 20.04, 8.83, 51.15],
[1.42, 0.910, 19.81, 8.79, 52.14],
[1.44, 0.915, 19.59, 8.74, 53.14],
[1.46, 0.919, 19.39, 8.70, 54.16],
[1.48, 0.923, 19.20, 8.67, 55.21],
[1.50, 0.927, 19.01, 8.63, 56.28],
[1.52, 0.930, 18.84, 8.60, 57.36],
[1.54, 0.934, 18.68, 8.57, 58.47],
[1.56, 0.937, 18.52, 8.54, 59.60],
[1.58, 0.940, 18.37, 8.51, 60.74],
[1.60, 0.942, 18.23, 8.49, 61.91],
[1.62, 0.945, 18.10, 8.46, 63.11],
[1.64, 0.948, 17.97, 8.44, 64.31],
[1.66, 0.950, 17.85, 8.42, 65.53],
[1.68, 0.952, 17.74, 8.40, 66.78],
[1.70, 0.954, 17.63, 8.38, 68.04],
[1.72, 0.956, 17.52, 8.36, 69.33],
[1.74, 0.958, 17.42, 8.35, 70.63],
[1.76, 0.960, 17.33, 8.33, 71.96],
[1.78, 0.962, 17.25, 8.32, 73.30],
[1.80, 0.963, 17.15, 8.30, 74.65],
[1.82, 0.965, 17.07, 8.29, 76.03],
[1.84, 0.966, 16.99, 8.28, 77.42],
[1.86, 0.968, 16.91, 8.27, 78.85],
[1.88, 0.969, 16.84, 8.26, 80.27],
[1.90, 0.970, 16.77, 8.24, 81.73],
[1.92, 0.971, 16.70, 8.23, 83.18],
[1.94, 0.972, 16.64, 8.23, 84.67],
[1.96, 0.974, 16.57, 8.22, 86.19],
[1.98, 0.975, 16.51, 8.21, 87.70],
[2.00, 0.976, 16.46, 8.20, 89.22],])


marcus_caso3 = np.array([
[1.00, 0.500, 37.14, 16.00, 37.14, 16.00],
[1.01, 0.510, 36.42, 15.69, 37.15, 16.00],
[1.02, 0.520, 35.72, 15.39, 37.16, 16.01],
[1.03, 0.529, 35.05, 15.11, 37.19, 16.03],
[1.04, 0.539, 34.42, 14.84, 37.22, 16.05],
[1.05, 0.549, 33.81, 14.58, 37.27, 16.08],
[1.06, 0.558, 33.21, 14.34, 27.32, 16.11],
[1.07, 0.567, 32.65, 14.10, 37.38, 16.15],
[1.08, 0.576, 32.11, 13.88, 37.45, 16.19],
[1.09, 0.585, 31.59, 13.67, 37.53, 16.24],
[1.10, 0.594, 31.09, 13.46, 37.61, 16.29],
[1.11, 0.603, 30.61, 13.27, 37.71, 16.35],
[1.12, 0.611, 30.14, 13.08, 37.81, 16.41],
[1.13, 0.620, 29.70, 12.91, 37.92, 16.48],
[1.14, 0.628, 29.27, 12.74, 38.04, 16.55],
[1.15, 0.636, 28.85, 12.57, 38.16, 16.63],
[1.16, 0.644, 28.46, 12.42, 38.29, 16.71],
[1.17, 0.652, 28.08, 12.27, 38.43, 16.79],
[1.18, 0.660, 27.71, 12.13, 38.58, 16.88],
[1.19, 0.667, 27.35, 11.99, 38.73, 16.98],
[1.20, 0.674, 27.00, 11.85, 38.89, 17.07],
[1.21, 0.682, 26.68, 11.73, 39.06, 17.18],
[1.22, 0.690, 26.36, 11.61, 39.23, 17.28],
[1.23, 0.696, 26.05, 11.49, 39.41, 17.39],
[1.24, 0.703, 25.75, 11.38, 39.59, 17.50],
[1.25, 0.709, 25.46, 11.28, 39.78, 17.62],
[1.26, 0.716, 25.18, 11.17, 39.98, 17.74],
[1.27, 0.722, 24.92, 11.07, 40.19, 17.86],
[1.28, 0.729, 24.66, 10.98, 40.40, 17.99],
[1.29, 0.735, 24.40, 10.89, 40.61, 18.12],
[1.30, 0.741, 24.16, 10.80, 40.83, 18.25],
[1.31, 0.746, 23.93, 10.72, 41.06, 18.39],
[1.32, 0.752, 23.70, 10.63, 41.29, 18.53],
[1.33, 0.758, 23.48, 10.56, 41.53, 18.67],
[1.34, 0.763, 23.26, 10.48, 41.77, 18.82],
[1.35, 0.769, 23.06, 10.41, 42.02, 18.97],
[1.36, 0.774, 22.86, 10.34, 42.28, 19.12],
[1.37, 0.779, 22.66, 10.27, 42.54, 19.28],
[1.38, 0.784, 22.48, 10.21, 42.80, 19.43],
[1.39, 0.789, 22.29, 10.14, 43.07, 19.60],
[1.40, 0.793, 22.12, 10.08, 43.35, 19.76],
[1.41, 0.798, 21.95, 10.02, 43.63, 19.93],
[1.42, 0.803, 21.78,  9.97, 43.92, 20.10],
[1.43, 0.807, 21.62,  9.91, 44.21, 20.27],
[1.44, 0.811, 21.46,  9.86, 44.50, 20.45],
[1.45, 0.815, 21.31,  9.81, 44.80, 20.62],
[1.46, 0.820, 21.16,  9.76, 45.11, 20.80],
[1.47, 0.824, 21.02,  9.71, 45.42, 20.99],
[1.48, 0.827, 20.88,  9.67, 45.74, 21.17],
[1.49, 0.831, 20.75,  9.62, 46.06, 21.36],
[1.50, 0.835, 20.61,  9.38, 46.38, 21.55],
[1.50, 0.835, 20.61, 9.58, 46.38, 21.55],
[1.51, 0.839, 20.49, 9.54, 46.71, 21.75],
[1.52, 0.842, 20.36, 9.50, 47.05, 21.94],
[1.53, 0.846, 20.24, 9.46, 47.38, 22.14],
[1.54, 0.849, 20.12, 9.42, 47.73, 22.34],
[1.55, 0.852, 20.01, 9.39, 48.07, 22.55],
[1.56, 0.855, 19.90, 9.35, 48.43, 22.76],
[1.57, 0.859, 19.79, 9.32, 48.78, 22.96],
[1.58, 0.862, 19.69, 9.28, 49.14, 23.17],
[1.59, 0.865, 19.58, 9.25, 49.51, 23.09],
[1.60, 0.868, 19.48, 9.22, 49.88, 23.60],
[1.61, 0.870, 19.39, 9.19, 50.25, 23.82],
[1.62, 0.873, 19.29, 9.16, 52.63, 24.04],
[1.63, 0.876, 19.20, 9.13, 51.01, 24.26],
[1.64, 0.878, 19.11, 9.11, 51.40, 24.49],
[1.65, 0.881, 19.02, 9.08, 51.79, 24.72],
[1.66, 0.884, 18.94, 9.05, 52.19, 24.95],
[1.67, 0.886, 18.86, 9.03, 52.58, 25.18],
[1.68, 0.888, 18.77, 9.00, 52.99, 25.41],
[1.69, 0.891, 18.70, 8.98, 53.39, 25.65],
[1.70, 0.893, 18.62, 8.96, 53.81, 25.89],
[1.71, 0.895, 18.54, 8.93, 54.22, 26.13],
[1.72, 0.897, 18.47, 8.91, 54.64, 26.37],
[1.73, 0.899, 18.40, 8.89, 55.07, 26.61],
[1.74, 0.902, 18.33, 8.87, 55.49, 26.86],
[1.75, 0.904, 18.26, 8.85, 55.92, 27.11],
[1.76, 0.906, 18.18, 8.83, 56.36, 27.36],
[1.77, 0.907, 18.13, 8.81, 56.80, 27.61],
[1.78, 0.909, 18.07, 8.80, 57.24, 27.87],
[1.79, 0.911, 18.00, 8.78, 57.68, 28.13],
[1.80, 0.913, 17.94, 8.76, 58.14, 28.39],
[1.81, 0.915, 17.88, 8.74, 58.59, 28.65],
[1.82, 0.916, 17.83, 8.73, 59.05, 28.91],
[1.83, 0.918, 17.77, 8.71, 59.51, 29.18],
[1.84, 0.920, 17.72, 8.70, 59.97, 29.44],
[1.85, 0.921, 17.66, 8.68, 60.44, 29.72],
[1.86, 0.923, 17.61, 8.67, 60.92, 29.99],
[1.87, 0.924, 17.56, 8.65, 61.39, 30.26],
[1.88, 0.926, 17.51, 8.64, 61.88, 30.54],
[1.89, 0.927, 17.46, 8.63, 62.36, 30.81],
[1.90, 0.929, 17.41, 8.61, 62.85, 31.09],
[1.91, 0.930, 17.36, 8.60, 63.34, 31.38],
[1.92, 0.931, 17.32, 8.59, 63.83, 31.66],
[1.93, 0.933, 17.27, 8.58, 64.33, 31.94],
[1.94, 0.934, 17.23, 8.56, 64.83, 32.23],
[1.95, 0.935, 17.18, 8.55, 65.34, 32.52],
[1.96, 0.936, 17.14, 8.54, 65.84, 32.81],
[1.97, 0.938, 17.10, 8.53, 66.36, 33.10],
[1.98, 0.939, 17.06, 8.52, 66.88, 33.40],
[1.99, 0.940, 17.02, 8.51, 67.39, 33.70],
[2.00, 0.941, 16.93, 8.50, 67.92, 34.00],])


marcus_caso5 = np.array([
[0.50, 0.111, 246.52, 108.00, 71.43, 36.00],    
[0.51, 0.119, 230.76, 100.70, 69.53, 34.92],   
[0.52, 0.127, 216.51, 95.07, 67.77, 33.91],     
[0.53, 0.136, 203.52, 88.05, 66.13, 32.97],     
[0.54, 0.145, 191.66, 82.56, 64.60, 32.10],     
[0.55, 0.155, 180.83, 77.57, 63.18, 31.29],     
[0.56, 0.164, 170.91, 73.01, 61.86, 30.53],     
[0.57, 0.174, 161.79, 68.84, 60.63, 29.82],     
[0.58, 0.184, 153.42, 65.02, 59.49, 29.16],     
[0.59, 0.195, 145.72, 61.52, 58.42, 28.55],     
[0.60, 0.206, 138.61, 58.30, 57.43, 27.98],     
[0.61, 0.217, 132.05, 55.34, 56.52, 27.45],     
[0.62, 0.228, 125.98, 52.61, 55.67, 26.96],     
[0.63, 0.239, 120.36, 50.09, 54.88, 26.51],     
[0.64, 0.251, 115.15, 47.76, 54.15, 26.08],     
[0.65, 0.263, 110.30, 45.61, 53.48, 25.69],     
[0.66, 0.275, 105.81, 43.62, 52.85, 25.33],     
[0.67, 0.287, 101.61, 41.77, 52.28, 25.00],     
[0.68, 0.299,  97.70, 40.06, 51.76, 24.70],   	
[0.69, 0.312,  94.06, 38.47, 51.28, 24.42],   	
[0.70, 0.324,  90.65, 36.99, 50.84, 24.17],   	
[0.71, 0.337,  87.46, 35.61, 50.45, 23.93],   	
[0.72, 0.349,  84.48, 34.33, 50.09, 23.73],   	
[0.73, 0.362,  81.68, 33.13, 49.77, 23.54],   	
[0.74, 0.375,  82.05, 32.48, 49.05, 23.37],   	
[0.75, 0.387,  76.58, 30.96, 49.23, 23.22],   	
[0.76, 0.400,  74.26, 29.98, 49.00, 23.09],   	
[0.77, 0.413,  72.08, 29.07, 48.81, 22.98],   	
[0.78, 0.425,  70.02, 28.21, 48.65, 22.88],   	
[0.79, 0.438,  68.08, 27.40, 48.51, 22.80],   	
[0.80, 0.450,  66.24, 26.65, 48.40, 22.74],   	
[0.81, 0.463,  64.51, 25.94, 48.32, 22.69],   	
[0.82, 0.475,  62.88, 25.27, 48.26, 22.65],   	
[0.83, 0.487,  61.33, 24.64, 48.22, 22.63],   	
[0.84, 0.499,  59.86, 24.05, 48.21, 22.63],   	
[0.85, 0.511,  58.47, 23.49, 48.22, 22.63],   	
[0.86, 0.522,  57.15, 22.97, 48.25, 22.65],   	
[0.87, 0.543,  55.90, 22.47, 48.30, 22.68],   	
[0.88, 0.545,  54.71, 22.00, 48.37, 22.72],   	
[0.89, 0.558,  53.58, 21.56, 48.46, 22.77],   	
[0.90, 0.567,  52.51, 21.14, 48.57, 22.84],   	
[0.91, 0.578,  51.49, 20.75, 48.69, 22.91],   	
[0.92, 0.589,  50.51, 20.37, 48.83, 22.99],   	
[0.93, 0.599,  49.59, 20.02, 48.99, 23.09],   	
[0.94, 0.610,  48.70, 19.68, 49.17, 23.19],   	
[0.95, 0.620,  47.86, 19.37, 49.06, 13.30],   	
[0.96, 0.629,  47.06, 19.06, 49.57, 23.42],   	
[0.97, 0.639,  46.29, 18.78, 49.80, 23.56],   	
[0.98, 0.648,  45.55, 18.50, 50.04, 23.70],   	
[0.99, 0.658,  44.85, 18.25, 50.29, 23.84],   	
[1.00, 0.667,  44.18, 18.00, 50.56, 24.00],
[1.00, 0.667, 44.18, 18.00,  50.56, 24.00],
[1.02, 0.684, 42.92, 17.54,  51.14, 24.33],
[1.04, 0.700, 41.77, 17.13,  51.76, 24.70],
[1.06, 0.716, 40.71, 16.75,  52.44, 25.10],
[1.08, 0.731, 39.74, 16.41,  53.18, 25.52],
[1.10, 0.745, 38.84, 16.10,  53.95, 25.97],
[1.12, 0.759, 38.01, 15.81,  54.78, 26.45],
[1.14, 0.772, 37.25, 15.55,  55.64, 26.95],
[1.16, 0.784, 36.54, 15.31,  56.55, 27.47],
[1.18, 0.795, 35.88, 15.09,  57.50, 28.02],
[1.20, 0.806, 35.27, 14.89,  58.50, 28.59],
[1.22, 0.816, 34.70, 14.71,  59.53, 29.19],
[1.24, 0.825, 34.17, 14.54,  60.60, 29.80],
[1.26, 0.834, 33.68, 14.38,  61.71, 30.44],
[1.28, 0.843, 33.22, 14.23,  62.85, 31.10],
[1.30, 0.851, 32.79, 14.10,  64.03, 31.77],
[1.32, 0.859, 32.38, 13.98,  65.25, 32.47],
[1.34, 0.866, 32.01, 13.86,  66.50, 33.18],
[1.36, 0.872, 31.65, 13.75,  66.78, 33.92],
[1.38, 0.879, 31.02, 13.65,  69.10, 34.67],
[1.40, 0.885, 31.01, 13.56,  70.45, 35.44],
[1.42, 0.890, 30.72, 13.47,  71.83, 36.23],
[1.44, 0.896, 30.44, 13.39,  73.24, 37.03],
[1.46, 0.901, 30.18, 13.32,  74.69, 37.86],
[1.48, 0.906, 29.94, 13.25,  76.17, 38.70],
[1.50, 0.910, 29.71, 13.18,  77.67, 39.55],
[1.52, 0.914, 29.49, 13.12,  79.20, 40.43],
[1.54, 0.918, 29.28, 13.07,  80.77, 41.32],
[1.56, 0.922, 29.09, 13.01,  82.36, 12.22],
[1.58, 0.926, 28.90, 12.96,  83.98, 43.14],
[1.60, 0.929, 28.73, 12.91,  85.64, 44.08],
[1.62, 0.932, 28.56, 12.87,  87.31, 45.03],
[1.64, 0.935, 28.40, 12.83,  89.02, 46.00],
[1.66, 0.938, 28.25, 12.79,  90.77, 46.99],
[1.68, 0.941, 28.11, 12.75,  92.52, 47.98],
[1.70, 0.943, 27.97, 12.72,  94.32, 49.00],
[1.72, 0.946, 27.84, 12.68,  96.13, 50.03],
[1.74, 0.948, 27.72, 12.65,  97.98, 51.08],
[1.76, 0.950, 27.60, 12.62,  99.86, 52.14],
[1.78, 0.952, 27.49, 12.60, 101.75, 53.21],
[1.80, 0.954, 27.38, 12.57, 103.68, 54.30],
[1.82, 0.956, 27.28, 12.55, 105.63, 55.41],
[1.84, 0.958, 27.18, 12.52, 107.62, 56.63],
[1.86, 0.960, 27.09, 12.50, 109.63, 57.67],
[1.88, 0.961, 27.00, 12.48, 111.65, 58.81],
[1.90, 0.963, 26.91, 12.46, 110.71, 59.97],
[1.92, 0.964, 26.83, 12.44, 115.79, 61.15],
[1.94, 0.966, 26.75, 12.42, 117.89, 62.33],
[1.96, 0.967, 26.68, 12.41, 120.04, 63.55],
[1.98, 0.968, 26.61, 12.39, 122.19, 64.76],
[2.00, 0.970, 26.54, 12.37, 124.35, 65.98]])


marcus_caso6 = np.array([
[1.00, 0.500, 55.74, 24.00, 55.74, 24.00], 
[1.01, 0.510, 54.65, 32.53, 55.75, 24.00], 
[1.02, 0.520, 53.61, 32.09, 55.78, 24.02], 
[1.03, 0.529, 52.62, 22.66, 55.82, 24.04], 
[1.04, 0.539, 51.76, 22.26, 55.88, 24.07], 
[1.05, 0.549, 50.76, 21.87, 55.96, 24.11], 
[1.06, 0.558, 49.89, 21.50, 56.06, 24.16], 
[1.07, 0.567, 49.06, 21.15, 56.17, 24.22], 
[1.08, 0.576, 48.27, 20.82, 56.30, 24.28], 
[1.09, 0.585, 47.50, 20.50, 56.44, 24.36], 
[1.10, 0.594, 46.77, 20.20, 56.59, 24.44], 
[1.11, 0.603, 46.07, 19.90, 56.76, 24.52], 
[1.12, 0.611, 45.40, 19.63, 56.95, 24.62], 
[1.13, 0.620, 44.75, 19.36, 57.14, 24.72], 
[1.14, 0.628, 44.13, 19.10, 57.36, 24.83], 
[1.15, 0.636, 43.54, 18.86, 57.58, 24.94], 
[1.16, 0.644, 42.97, 18.63, 57.82, 25.06], 
[1.17, 0.652, 42.42, 18.40, 58.07, 25.19], 
[1.18, 0.660, 41.89, 18.19, 58.33, 25.33], 
[1.19, 0.667, 41.38, 17.98, 58.60, 25.47], 
[1.20, 0.675, 40.90, 17.79, 58.89, 25.61], 
[1.21, 0.682, 40.42, 17.60, 59.19, 25.76], 
[1.22, 0.689, 39.97, 17.42, 59.49, 25.92], 
[1.23, 0.696, 39.54, 17.24, 59.81, 26.09], 
[1.24, 0.703, 39.12, 17.07, 60.15, 26.25], 
[1.25, 0.709, 38.71, 16.91, 60.49, 26.43], 
[1.26, 0.716, 38.32, 16.76, 60.84, 26.61], 
[1.27, 0.722, 37.95, 16.61, 61.20, 26.79], 
[1.28, 0.729, 37.58, 16.47, 61.57, 26.98], 
[1.29, 0.735, 37.23, 16.33, 61.96, 27.18], 
[1.30, 0.741, 36.89, 16.20, 62.05, 27.38], 
[1.31, 0.746, 36.57, 16.07, 62.75, 27.58], 
[1.32, 0.752, 36.25, 15.95, 63.16, 27.79], 
[1.33, 0.758, 35.95, 15.83, 63.59, 28.01], 
[1.34, 0.763, 35.65, 15.72, 64.02, 28.23], 
[1.35, 0.769, 35.37, 15.61, 64.46, 28.45], 
[1.36, 0.774, 35.09, 15.51, 64.91, 28.68], 
[1.37, 0.779, 34.83, 15.41, 65.36, 28.91], 
[1.38, 0.784, 34.57, 15.31, 65.83, 29.15], 
[1.39, 0.789, 34.32, 15.21, 66.31, 29.39], 
[1.40, 0.793, 34.08, 15.12, 66.79, 29.64], 
[1.41, 0.798, 33.85, 15.04, 67.29, 29.89], 
[1.42, 0.803, 33.62, 14.95, 67.79, 30.15], 
[1.43, 0.807, 33.40, 14.87, 68.30, 30.40], 
[1.44, 0.811, 33.19, 14.79, 68.82, 30.67], 
[1.45, 0.815, 32.98, 14.71, 69.34, 30.94], 
[1.46, 0.820, 32.78, 14.64, 69.88, 31.21], 
[1.47, 0.824, 32.59, 14.57, 70.42, 31.48], 
[1.48, 0.827, 32.40, 14.50, 70.97, 31.76], 
[1.49, 0.831, 32.22, 14.43, 71.53, 32.04], 
[1.50, 0.835, 32.04, 14.37, 72.10, 32.33], 
[1.50, 0.835, 32.04, 14.37,  72.10, 32.33],
[1.51, 0.839, 31.87, 14.31,  72.67, 32.62],
[1.52, 0.842, 31.71, 14.25,  73.25, 32.92],
[1.53, 0.846, 31.54, 14.19,  73.84, 33.22],
[1.54, 0.849, 31.39, 14.13,  74.44, 33.52],
[1.55, 0.852, 31.24, 14.08,  75.04, 33.82],
[1.56, 0.855, 31.09, 14.03,  75.65, 34.13],
[1.57, 0.859, 30.94, 13.97,  76.27, 34.45],
[1.58, 0.862, 30.80, 13.92,  76.90, 34.79],
[1.59, 0.865, 30.67, 13.88,  77.52, 35.08],
[1.60, 0.868, 30.54, 13.83,  78.17, 35.41],
[1.61, 0.870, 30.41, 13.79,  78.81, 35.73],
[1.62, 0.873, 30.28, 13.74,  79.47, 36.06],
[1.63, 0.876, 30.16, 13.70,  80.13, 36.40],
[1.64, 0.878, 30.04, 13.66,  80.80, 36.74],
[1.65, 0.881, 29.93, 13.62,  81.48, 37.08],
[1.66, 0.884, 29.82, 13.58,  82.16, 37.42],
[1.67, 0.886, 29.71, 13.54,  82.84, 37.77],
[1.68, 0.888, 29.60, 13.51,  83.54, 38.12],
[1.69, 0.891, 29.50, 13.47,  84.24, 38.47],
[1.70, 0.893, 29.40, 13.44,  84.95, 38.83],
[1.71, 0.895, 29.30, 13.40,  85.67, 39.19],
[1.72, 0.897, 29.20, 13.37,  86.38, 39.55],
[1.73, 0.899, 29.11, 13.34,  87.12, 39.92],
[1.74, 0.902, 29.02, 13.31,  87.85, 40.29],
[1.75, 0.904, 28.93, 13.28,  88.60, 40.67],
[1.76, 0.906, 28.84, 13.25,  89.34, 41.04],
[1.77, 0.907, 28.76, 13.22,  90.09, 41.42],
[1.78, 0.909, 28.68, 13.19,  90.86, 41.81],
[1.79, 0.911, 28.60, 13.17,  91.61, 42.19],
[1.80, 0.913, 28.52, 13.14,  92.39, 42.58],
[1.81, 0.915, 28.44, 13.12,  93.17, 42.97],
[1.82, 0.916, 28.37, 13.09,  93.96, 43.37],
[1.83, 0.918, 28.29, 13.07,  94.75, 43.77],
[1.84, 0.920, 28.22, 13.05,  95.54, 44.17],
[1.85, 0.921, 28.15, 13.02,  96.35, 44.57],
[1.86, 0.923, 28.09, 13.00,  97.16, 44.98],
[1.87, 0.924, 28.02, 12.98,  97.98, 45.09],
[1.88, 0.926, 27.95, 12.96,  98.80, 45.81],
[1.89, 0.927, 27.89, 12.94,  99.62, 46.22],
[1.90, 0.929, 27.83, 12.92, 100.46, 46.64],
[1.91, 0.930, 27.77, 12.90, 101.30, 47.06],
[1.92, 0.931, 27.71, 12.88, 102.14, 47.49],
[1.93, 0.933, 27.65, 12.86, 103.00, 47.92],
[1.94, 0.934, 27.60, 12.85, 103.85, 48.35],
[1.95, 0.935, 27.54, 12.83, 104.72, 48.78],
[1.96, 0.936, 27.49, 12.81, 105.58, 49.21],
[1.97, 0.938, 27.43, 12.80, 106.45, 49.65],
[1.98, 0.939, 27.38, 12.78, 107.35, 50.10],
[1.99, 0.940, 27.33, 12.76, 108.23, 50.55],
[2.00, 0.941, 27.28, 12.75, 109.12, 50.99],])


marcus_caso4 = np.array([
[1.00, 0.833, 37.47, 14.40,  55.74], 
[1.02, 0.844, 36.71, 14.22,  57.01], 
[1.04, 0.854, 36.00, 14.05,  58.33], 
[1.06, 0.863, 35.34, 13.90,  59.70], 
[1.08, 0.872, 34.74, 13.76,  61.12], 
[1.10, 0.880, 34.18, 13.64,  62.59], 
[1.12, 0.887, 33.66, 13.52,  64.10], 
[1.14, 0.894, 33.18, 13.42,  65.66], 
[1.16, 0.900, 32.74, 13.32,  67.26], 
[1.18, 0.906, 32.32, 13.24,  68.91], 
[1.20, 0.912, 31.93, 13.16,  70.60], 
[1.22, 0.917, 31.57, 13.08,  72.33], 
[1.24, 0.922, 31.23, 13.01,  74.11], 
[1.26, 0.926, 30.92, 12.95,  75.92], 
[1.28, 0.931, 30.62, 12.89,  77.78], 
[1.30, 0.934, 30.34, 12.84,  79.66], 
[1.32, 0.938, 30.08, 12.79,  81.60], 
[1.34, 0.942, 29.83, 12.74,  83.58], 
[1.36, 0.945, 29.60, 12.70,  85.58], 
[1.38, 0.948, 29.39, 12.66,  87.63], 
[1.40, 0.950, 29.18, 12.62,  89.72], 
[1.42, 0.953, 28.99, 12.59,  91.84], 
[1.44, 0.955, 28.80, 12.56,  94.01], 
[1.46, 0.958, 28.63, 12.53,  96.20], 
[1.48, 0.960, 28.47, 12.50,  98.45], 
[1.50, 0.962, 28.31, 12.47, 100.72],
[1.52, 0.964, 28.16, 12.45, 103.02],
[1.54, 0.966, 28.02, 12.43, 105.38],
[1.56, 0.967, 27.89, 12.40, 107.76],
[1.58, 0.969, 27.76, 12.38, 110.16],
[1.60, 0.970, 27.64, 12.37, 112.61],
[1.62, 0.972, 27.53, 12.35, 115.12],
[1.64, 0.973, 27.42, 12.33, 117.62],
[1.66, 0.974, 27.31, 12.32, 120.17],
[1.68, 0.975, 27.21, 12.30, 122.76],
[1.70, 0.977, 27.12, 12.29, 125.41],
[1.72, 0.978, 27.03, 12.27, 128.04],
[1.74, 0.979, 26.94, 12.26, 130.75],
[1.76, 0.800, 26.86, 12.25, 133.50],
[1.78, 0.980, 26.78, 12.24, 136.24],
[1.80, 0.981, 26.70, 12.23, 139.05],
[1.82, 0.982, 26.63, 12.22, 141.85],
[1.84, 0.983, 26.56, 12.21, 144.78],
[1.86, 0.983, 26.49, 12.20, 147.65],
[1.88, 0.984, 26.43, 12.19, 150.60],
[1.90, 0.985, 26.37, 12.18, 153.54],
[1.92, 0.985, 26.31, 12.18, 156.53],
[1.94, 0.986, 26.25, 12.17, 159.56],
[1.96, 0.987, 26.19, 12.16, 162.60],
[1.98, 0.987, 26.14, 12.16, 165.75],
[2.00, 0.988, 26.09, 12.15, 168.80],



[0.50, 0.238, 37.06, 50.40, 49.92],
[0.51, 0.253, 30.06, 47.48, 49.11],
[0.52, 0.268, 23.66, 44.83, 48.38],
[0.53, 0.283, 17.79, 42.42, 47.72],
[0.54, 0.298, 12.39, 40.23, 47.13],
[0.55, 0.314, 107.42, 38.23, 46.60],
[0.56, 0.330, 102.83, 36.40, 46.13],
[0.57, 0.345, 98.59, 34.74, 45.72],
[0.58, 0.361, 94.67, 33.21, 45.35],
[0.59, 0.377, 91.02, 31.81, 45.04],
[0.60, 3.930, 87.62, 30.52, 44.77],
[0.61, 0.409, 84.46, 29.33, 44.54],
[0.62, 0.425, 81.51, 28.24, 44.35],
[0.63, 0.441, 78.76, 27.24, 44.21],
[0.64, 0.456, 76.18, 26.30, 44.10],
[0.65, 0.472, 73.76, 25.45, 44.02],
[0.66, 0.487, 71.49, 24.65, 43.98],
[0.67, 0.502, 69.36, 23.91, 47.97],
[0.68, 0.517, 67.36, 23.22, 43.98],
[0.69, 0.531, 65.47, 22.59, 44.03],
[0.70, 0.545, 63.69, 22.00, 44.11],
[0.71, 0.559, 62.01, 21.44, 44.21],
[0.72, 0.573, 60.42, 20.93, 44.34],
[0.73, 0.587, 58.92, 20.45, 44.49],
[0.74, 0.600, 57.51, 20.00, 44.66],
[0.75, 0.613, 56.16, 19.38, 44.86],
[0.76, 0.625, 54.89, 19.19, 45.08],
[0.77, 0.637, 53.69, 18.83, 45.33],
[0.78, 0.649, 52.54, 18.48, 45.59],
[0.79, 0.661, 51.46, 18.16, 45.87],
[0.80, 0.672, 50.42, 17.86, 46.17],
[0.81, 0.683, 49.44, 17.57, 46.30],
[0.82, 0.693, 48.51, 17.31, 46.84],
[0.83, 0.703, 47.62, 17.06, 47.20],
[0.84, 0.713, 46.78, 16.82, 47.57],
[0.85, 0.723, 45.97, 16.60, 47.97],
[0.86, 0.732, 45.21, 16.39, 48.38],
[0.87, 0.741, 44.48, 16.19, 48.81],
[0.88, 0.750, 43.78, 16.00, 49.25],
[0.89, 0.758, 43.12, 15.82, 49.71],
[0.90, 0.766, 42.48, 15.66, 50.19],
[0.91, 0.774, 41.87, 15.50, 50.68],
[0.92, 0.782, 41.30, 15.35, 51.18],
[0.93, 0.789, 40.74, 15.21, 51.50],
[0.94, 0.796, 40.21, 15.07, 52.24],
[0.95, 0.803, 39.70, 14.95, 52.78],
[0.96, 0.809, 39.22, 14.82, 53.35],
[0.97, 0.816, 38.75, 14.72, 53.92],
[0.98, 0.822, 38.31, 14.60, 54.52],
[0.99, 0.828, 37.88, 14.50, 55.12],
[1.00, 0.833, 37.47, 14.40, 55.74],
 

])


class Inicio(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = None
		self.load_ui()
		self.load_signals()

	def load_ui(self):
		self.ui = loadUi('inicio_alt.ui',self)
		self.label.setStyleSheet("Background-Color: #ddebff;")

		self.setWindowTitle('Navier - inicio')

		self.pushButton.setIcon(QtGui.QIcon('./btn_inicio_vigas.png'))
		self.pushButton.setIconSize(QtCore.QSize(52,52))
		self.pushButton_3.setIcon(QtGui.QIcon('./btn_inicio_pilares.png'))
		self.pushButton_3.setIconSize(QtCore.QSize(42,42))
		self.pushButton_9.setIcon(QtGui.QIcon('./btn_inicio_lajes.png'))
		self.pushButton_9.setIconSize(QtCore.QSize(42,42))
		self.pushButton_11.setIcon(QtGui.QIcon('./btn_inicio_fundacoes.png'))
		self.pushButton_11.setIconSize(QtCore.QSize(45,45))


		self.label_5.setStyleSheet("Background-Color: #ddebff;")
		self.label_10.setStyleSheet("Background-Color: #ddebff;")
		self.label_9.setStyleSheet("Background-Color: #ddebff;")
		self.label_11.setStyleSheet("Background-Color: #ddebff;")
		
		self.pushButton_2.setIcon(QtGui.QIcon('./btn_caa.png'))
		self.pushButton_2.setIconSize(QtCore.QSize(45,45))
		self.pushButton_5.setIcon(QtGui.QIcon('./btn_cadicional.png'))
		self.pushButton_5.setIconSize(QtCore.QSize(45,45))
		self.pushButton_6.setIcon(QtGui.QIcon('./btn_tabbitolas.png'))
		self.pushButton_6.setIconSize(QtCore.QSize(45,45))
		self.pushButton_7.setIcon(QtGui.QIcon('./btn_tabmarcus.png'))
		self.pushButton_7.setIconSize(QtCore.QSize(45,45))
		self.pushButton_8.setIcon(QtGui.QIcon('./btn_flexaosimples.png'))
		self.pushButton_8.setIconSize(QtCore.QSize(45,45))
		self.pushButton_23.setIcon(QtGui.QIcon('./btn_flexaocomposta.png'))
		self.pushButton_23.setIconSize(QtCore.QSize(45,45))

		self.label_21.setToolTip('Brunel - programa de cálculo e verificação de perfis metálicos para perfis brasileiros')
		self.label_22.setToolTip('EngTool - aplicação mobile para cálculo de vigas de concreto armado')
		
		self.setFixedSize(570, 450)

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))
		
		self.show()


	def load_signals(self):
		self.pushButton.clicked.connect(self.iniciar_vigas)
		self.pushButton_3.clicked.connect(self.iniciar_pilares)
		self.pushButton_9.clicked.connect(self.iniciar_lajes)
		self.pushButton_11.clicked.connect(self.iniciar_fundacoes)

		self.pushButton_2.clicked.connect(self.iniciar_classe_agressividade)
		self.pushButton_5.clicked.connect(self.iniciar_carga_adicional)
		self.pushButton_6.clicked.connect(self.iniciar_tabela_bitolas)

		self.pushButton_7.clicked.connect(lambda: self.abrirTabelaAuxiliar(tabela_marcus))
		self.pushButton_23.clicked.connect(lambda: self.abrirTabelaAuxiliar(abaco_normal))
		self.pushButton_8.clicked.connect(lambda: self.abrirTabelaAuxiliar(abaco_obliqua))


	def abrirTabelaAuxiliar(self,file):
	    if sys.platform == 'linux2':
	        subprocess.call(["xdg-open", file])
	    else:
	        os.startfile(file)

	def iniciar_vigas(self):
		print('vigas')
		vigas.show()
	def iniciar_pilares(self):
		print('pilares')
		pilares.show()
	def iniciar_lajes(self):
		print('lajes')
		lajes.show()
	def iniciar_fundacoes(self):
		print('fundações')
		sapatas.show()
	#--------------------------- forms complementares -----------------------------
	def iniciar_carga_adicional(self):
		print('carga adicional')
		carga_adicional.show()
	def iniciar_tabela_bitolas(self):
		print('carga adicional')
		tabela_bitolas.show()
	def iniciar_classe_agressividade(self):
		print('classe de agressividade')
		tabela_classe_agressividade.show()



class Vigas(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = loadUi('vigas_alt.ui',self)
		self.load_signals()

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Vigas')
		self.setFixedSize(860, 620)

	def load_signals(self):
		print('viga carregado')
		self.pushButton.clicked.connect(lambda: self.stackedWidget.setCurrentIndex(1))
		self.pushButton_2.clicked.connect(lambda: self.stackedWidget.setCurrentIndex(0))
		self.pushButton_3.clicked.connect(lambda: detalhar_vigas.show())

		self.pushButton_6.clicked.connect(self.calcular_viga_index)
		self.pushButton_7.clicked.connect(self.limpar_vigas)

		self.radioButton.clicked.connect(lambda: self.lineEdit_35.setText('0.450'))
		self.radioButton_2.clicked.connect(lambda: self.lineEdit_35.setText('0.628'))


	def calcular_viga_index(self):
		aux = self.stackedWidget.currentIndex() #retorn o indice do stackedwidget e indica se o cálculo é de simples ou dupla
		#aux == 0 (Simples), aux == 1 (Dupla)
		if aux == 1:
			self.calcular_viga_simples()
		else:
			self.calcular_viga_dupla()

	def truncar(self,x):
		aux = '{:.9f}'.format(x)
		return aux

	def calcular_viga_cortante(self):
		aux = self.stackedWidget.currentIndex()
		fck_viga = float(self.comboBox.currentText())
		fcd_viga = fck_viga/1.4
		fyk_viga = float(self.comboBox_2.currentText())
		fyd_viga = fyk_viga/1.15

		mk_viga = float(self.lineEdit.text())
		vk_viga = float(self.lineEdit_2.text())

		if aux == 1:
			bw_viga = float(self.lineEdit_3.text())
			h_viga = float(self.lineEdit_4.text())
			d_viga = float(self.lineEdit_5.text())

		else:
			bw_viga = float(self.lineEdit_15.text())
			h_viga = float(self.lineEdit_16.text())
			d_viga = float(self.lineEdit_17.text())


		theta_transversal = 45
		alfa_transversal = 90
		if self.radioButton_4.isChecked():
			theta_transversal = self.spinBox.value()
		
		theta_transversal = (theta_transversal/180)*math.pi
		alfa_transversal = (alfa_transversal/180)*math.pi

		fator_cotangentes_transversal = ((math.cos(alfa_transversal)/math.sin(alfa_transversal))) + ((math.cos(theta_transversal)/math.sin(theta_transversal)))
		fator_cotangentes_transversal = 1

		vsd = vk_viga * 1.4
		vrd2 = 0.27 * (1-(fck_viga/250)) * (bw_viga/100) * fcd_viga * (d_viga/100) *(math.sin(2*theta_transversal))*fator_cotangentes_transversal * 1000
		print('VSD: ',vsd)
		print('VRD2: ',vrd2)

		if vrd2 < vsd:
			QMessageBox.about(self, "Alerta", "A seção de concreto não permite gerar bielas resistentes à compressão. Reveja as dimensões da viga ou esforços de cálculo para a estrutura.")
		else:
			vc_0 = 0.09*(fck_viga**(2/3))*(bw_viga/100)*(d_viga/100)*1000
			if self.radioButton_4.isChecked():
				vc_0 = vc_0*((vrd2 - vsd)/(vrd2 - vc_0))

			vsw = vsd - vc_0

			#as_transversal = (vsw/(0.9*(d_viga/100)*fyd_viga*fator_cotangentes_transversal*math.sin(alfa_transversal)))*1000
			as_transversal = (vsw/(0.9*(d_viga/100)*fyd_viga)*math.tan(theta_transversal))*1000

			taxa_aco_cortante_retangular = 0.2*(0.3*fck_viga**(2/3))/fyk_viga

			as_min_transversal = ((bw_viga*10)*taxa_aco_cortante_retangular)*1000 # para deixar em mm²

			print('vk_viga: ',vk_viga)
			print('vsd: ',vsd)
			print('vrd2: ',vrd2)
			print('vc_0: ',vc_0)
			print('vsw: ',vsw)
			print('as_transversal: ',as_transversal)
			print('taxa_aco_cortante_retangular: ',taxa_aco_cortante_retangular)
			print('as_min_transversal',as_min_transversal)

			#------------------------------------------- saida de dados --------------------------------------------------
			self.lineEdit_30.setText(str(round(vk_viga*1.4, ndigits=4)))
			self.lineEdit_31.setText(str(round(vrd2, ndigits=4)))
			self.lineEdit_32.setText(str(round(vc_0, ndigits=4)))
			self.lineEdit_33.setText(str(round(vsw, ndigits=4)))

			self.lineEdit_34.setText(str(round(as_transversal, ndigits=4)))
			self.lineEdit_37.setText(str(round(as_min_transversal, ndigits=4)))


			if (vsd <= 0.67*vrd2):
				espass_maximo = 30
			else:
				espass_maximo = 20

			global info_viga_cortante
			info_viga_cortante = [str(vsw), espass_maximo]



	def calcular_viga_simples(self):
		mk_viga = self.lineEdit.text()
		vk_viga = self.lineEdit_2.text()
		bw_viga = self.lineEdit_3.text()
		h_viga = self.lineEdit_4.text()
		d_viga = self.lineEdit_5.text()

		if (mk_viga != '0' and vk_viga != '0' and bw_viga != '0' and h_viga != '0' and d_viga != '0'):
			fck_viga = float(self.comboBox.currentText())
			fcd_viga = fck_viga/1.4
			fyk_viga = float(self.comboBox_2.currentText())
			fyd_viga = fyk_viga/1.15

			mk_viga = float(self.lineEdit.text())
			vk_viga = float(self.lineEdit_2.text())
			bw_viga = float(self.lineEdit_3.text())
			h_viga = float(self.lineEdit_4.text())
			d_viga = float(self.lineEdit_5.text())

			d_linha_viga = h_viga - d_viga
			self.lineEdit_21.setText(str(round(d_linha_viga, ndigits=2)))
			area_secao_viga = bw_viga * h_viga

			kmd_viga = (mk_viga * 1.4 * 1000)/((bw_viga/100) * ((d_viga/100)**2) * (0.85*fcd_viga*1000000))
			if kmd_viga >0.5:
				QMessageBox.about(self, "Alerta", "Os esforços especificados não são suportados pela seção de concreto analisada. Por favor altera as dimensões da seção da viga ou reveja os esforços de cálculo para a estrutura.")
			else:
				kx_viga = (1 - math.sqrt(1 - 2*kmd_viga))/0.8
				kz_viga = 1 - 0.4*kx_viga
				as_viga = (mk_viga * 1.4 * 1000)/(kz_viga * (d_viga/100) * fyd_viga)

				as_sobre_apoio_viga = as_viga/3
				if h_viga >= 60:
					as_pele = (0.1/100)*area_secao_viga*100
				else:
					as_pele = 0

				as_max_viga = (4/100)*area_secao_viga*100

				if fck_viga == 20:
					taxa_aco_viga_retangular = 0.15/100
				elif fck_viga == 25:
					taxa_aco_viga_retangular = 0.15/100
				elif fck_viga == 30:
					taxa_aco_viga_retangular = 0.173/100
				elif fck_viga == 35:
					taxa_aco_viga_retangular = 0.201/100
				elif fck_viga == 40:
					taxa_aco_viga_retangular = 0.203/100
				elif fck_viga == 45:
					taxa_aco_viga_retangular = 0.259/100
				elif fck_viga == 50:
					taxa_aco_viga_retangular = 0.288/100

				as_min_viga = taxa_aco_viga_retangular * area_secao_viga*100


				if kx_viga < 0:
					dominio_viga = 'Domínio 1'
				elif kx_viga > 0 and kx_viga <0.259:
					dominio_viga = 'Domínio 2'
				elif kx_viga > 0.259 and kx_viga <0.45:
					dominio_viga = 'Domínio 3 - Dúctil'
				elif kx_viga > 0.45 and kx_viga <0.63:
					dominio_viga = 'Domínio 3 - Não Dúctil'
				elif (kx_viga > 0.628 and kx_viga <1):
					dominio_viga = 'Domínio 4a'
				elif (kx_viga > 0.438 and kx_viga <1) and (fyk_viga == 600):
					dominio_viga = 'Domínio 4a'
				else:
					dominio_viga = 'Domínio 4b'

				kmd_viga = self.truncar(kmd_viga)
				kx_viga = self.truncar(kx_viga)
				kz_viga = self.truncar(kz_viga)

				print('kmd_viga: ',kmd_viga)
				print('kx_viga: ',kx_viga)
				print('kz_viga: ',kz_viga)
				print('as_viga: ',as_viga)
				print('as_sobre_apoio_viga: ',as_sobre_apoio_viga)
				print('as_max_viga: ',as_max_viga)
				print('as_min_viga',as_min_viga)

				#-------------------------------------- saida de dados ------------------------------------------------
				self.lineEdit_6.setText(str(round(mk_viga*1.4,ndigits=4)))
				self.lineEdit_13.setText(dominio_viga)
				self.lineEdit_7.setText(str(kmd_viga))
				self.lineEdit_8.setText(str(kx_viga))
				self.lineEdit_9.setText(str(kz_viga))

				self.lineEdit_10.setText(str(round(as_viga,ndigits=4)))
				self.lineEdit_11.setText(str(round(as_sobre_apoio_viga,ndigits=4)))
				self.lineEdit_12.setText(str(round(as_pele,ndigits=4)))
				self.lineEdit_14.setText(str(round(as_max_viga,ndigits=4)))
				self.lineEdit_20.setText(str(round(as_min_viga,ndigits=4)))

				#-------------------------------------------------------------------------------------------------
				if (dominio_viga == 'Domínio 4a') or (dominio_viga == 'Domínio 4b'):
					QMessageBox.about(self, "Atenção", "Domínio de cálculo 4, recomenda-se utilizar, em seção retangular, armadura dupla ou seção tê para contenção dos esforços de compressão do concreto.")

				if as_viga > as_max_viga:
					QMessageBox.about(self, "Atenção", "Área Total calculada superior a Área Máxima especificada para a seção da viga.")
				if as_viga < as_min_viga:
					QMessageBox.about(self, "Atenção", "Área Total calculada inferior a Área Mínima especificada para a seção da viga.")

				self.calcular_viga_cortante()

				global info_viga
				info_viga = [str(as_viga),str(bw_viga),str(h_viga),str(d_viga),str(1.9)]


		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes!")

	

	def calcular_viga_dupla(self):
		mk_viga = self.lineEdit.text()
		vk_viga = self.lineEdit_2.text()
		bw_viga = self.lineEdit_15.text()
		h_viga = self.lineEdit_16.text()
		d_viga = self.lineEdit_17.text()

		if (mk_viga != '0' and vk_viga != '0' and bw_viga != '0' and h_viga != '0' and d_viga != '0'):
			fck_viga = float(self.comboBox.currentText())
			fcd_viga = fck_viga/1.4
			fyk_viga = float(self.comboBox_2.currentText())
			fyd_viga = fyk_viga/1.15

			mk_viga = float(self.lineEdit.text())
			vk_viga = float(self.lineEdit_2.text())
			bw_viga = float(self.lineEdit_15.text())
			h_viga = float(self.lineEdit_16.text())
			d_viga = float(self.lineEdit_17.text())

			d_linha_viga = h_viga - d_viga
			self.lineEdit_27.setText(str(round(d_linha_viga, ndigits=4)))

			xis_dominio = float(self.lineEdit_35.text())

			d_min_viga = math.sqrt((mk_viga*1.4*1000)/((bw_viga/100) * (fcd_viga*1000000) * (0.68*xis_dominio - 0.272*(xis_dominio**2))))

			x_lim_viga = xis_dominio * (d_viga/100)

			momento_lim_viga = 0.68 * (bw_viga/100) * (fcd_viga*1000) * x_lim_viga*((d_viga/100) - 0.4*x_lim_viga)

			print('d_min_viga: ',d_min_viga)
			print('x_lim_viga: ',x_lim_viga)
			print('momento_lim_viga: ',momento_lim_viga)

			if d_min_viga < (h_viga/100):
				self.lineEdit_36.setText(str(round(d_min_viga, ndigits=5)))
				self.lineEdit_18.setText(str(round(x_lim_viga, ndigits=5)))
				QMessageBox.about(self, "Observação", "A altura atual da viga é maior que a altura útil mínima, calcule como simplesmente armada")

			else:

				momento_lim_viga = 0.68 * (bw_viga/100) * (fcd_viga*1000) * x_lim_viga*((d_viga/100) - 0.4*x_lim_viga)
				momento_2_viga = (mk_viga*1.4) - momento_lim_viga

				as_compressao_viga = (momento_2_viga * 1000)/(((d_viga/100) - (d_linha_viga/100))*(fyd_viga))
				#as_tracao_viga = ((momento_lim_viga * 1000)/((1 - 0.4*x_lim_viga)*(d_viga/100)*fyd_viga))
				as_tracao_viga = ((momento_lim_viga * 1000)/((1 - 0.4*xis_dominio)*(d_viga/100)*fyd_viga))

				as_tracao_viga = as_tracao_viga + as_compressao_viga

				as_total_viga = as_tracao_viga + as_compressao_viga

				as_sobre_apoio_viga = as_tracao_viga/3

				area_secao_viga = bw_viga * h_viga
				if h_viga >= 60:
					as_pele = (0.1/100)*area_secao_viga*100
				else:
					as_pele = 0

				if fck_viga == 20:
					taxa_aco_viga_retangular = 0.15/100
				elif fck_viga == 25:
					taxa_aco_viga_retangular = 0.15/100
				elif fck_viga == 30:
					taxa_aco_viga_retangular = 0.173/100
				elif fck_viga == 35:
					taxa_aco_viga_retangular = 0.201/100
				elif fck_viga == 40:
					taxa_aco_viga_retangular = 0.203/100
				elif fck_viga == 45:
					taxa_aco_viga_retangular = 0.259/100
				elif fck_viga == 50:
					taxa_aco_viga_retangular = 0.288/100

				as_max_viga = (4/100)*area_secao_viga*100
				as_min_viga = taxa_aco_viga_retangular * area_secao_viga*100


				print('momento_lim_viga: ',momento_lim_viga)
				print('momento_2_viga: ',momento_2_viga)
				print('as_compressao_viga: ',as_compressao_viga)
				print('as_tracao_viga: ',as_tracao_viga)


				#------------------------------------------ saida de dados --------------------------------------------------
				self.lineEdit_36.setText(str(round(d_min_viga, ndigits=5)))
				self.lineEdit_18.setText(str(round(x_lim_viga, ndigits=5)))
				self.lineEdit_26.setText(str(round(momento_lim_viga, ndigits=5)))
				self.lineEdit_19.setText(str(round(momento_2_viga, ndigits=5)))

				self.lineEdit_22.setText(str(round(as_compressao_viga, ndigits=5)))
				self.lineEdit_28.setText(str(round(as_tracao_viga, ndigits=5)))
				self.lineEdit_23.setText(str(round(as_sobre_apoio_viga, ndigits=5)))
				self.lineEdit_24.setText(str(round(as_pele, ndigits=5)))
				self.lineEdit_38.setText(str(round(as_total_viga, ndigits=2)))
				self.lineEdit_25.setText(str(round(as_max_viga, ndigits=2)))
				self.lineEdit_29.setText(str(round(as_min_viga, ndigits=2)))
				#------------------------------------------ ------------- --------------------------------------------------
				
				if as_total_viga > as_max_viga:
					QMessageBox.about(self, "Atenção", "Área Total calculada superior a Área Máxima especificada para a seção da viga.")
				if as_total_viga < as_min_viga:
					QMessageBox.about(self, "Atenção", "Área Total calculada inferior a Área Mínima especificada para a seção da viga.")

				self.calcular_viga_cortante()

				global info_viga
				info_viga = [str(as_tracao_viga),str(bw_viga),str(h_viga),str(d_viga),str(1.9)]
				
		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes!")


	def limpar_vigas(self):
		self.comboBox.setCurrentIndex(0)
		self.comboBox_2.setCurrentIndex(0)
		self.lineEdit.setText('0')
		self.lineEdit_2.setText('0')
		self.lineEdit_3.setText('0')
		self.lineEdit_4.setText('0')
		self.lineEdit_5.setText('0')
		self.lineEdit_21.setText('0')

		self.lineEdit_6.setText('')
		self.lineEdit_7.setText('')
		self.lineEdit_8.setText('')
		self.lineEdit_9.setText('')
		self.lineEdit_10.setText('')
		self.lineEdit_11.setText('')
		self.lineEdit_12.setText('')
		self.lineEdit_13.setText('')
		self.lineEdit_14.setText('')

		self.lineEdit_15.setText('0')
		self.lineEdit_16.setText('0')
		self.lineEdit_17.setText('0')
		self.lineEdit_27.setText('0')

		self.lineEdit_36.setText('')
		self.lineEdit_18.setText('')
		self.lineEdit_26.setText('')
		self.lineEdit_19.setText('')
		self.lineEdit_22.setText('')
		self.lineEdit_28.setText('')
		self.lineEdit_23.setText('')
		self.lineEdit_24.setText('')
		self.lineEdit_38.setText('')
		self.lineEdit_25.setText('')
		self.lineEdit_29.setText('')

		self.lineEdit_30.setText('')
		self.lineEdit_31.setText('')
		self.lineEdit_32.setText('')
		self.lineEdit_33.setText('')
		self.lineEdit_34.setText('')
		self.lineEdit_37.setText('')

tabela_bitolas_ferro = [
	[6.3, 31.17],
	[8, 50.26],
	[10, 78.53],
	[12.5, 122.71],
	[16, 201.06],
	[20, 314.15],
	[25, 490.87],
	[32, 804.24],
	[40, 1256.63]
				]

#info_viga = ['95','12','45','40','1.9']
#info_viga = [As,bw,h,d,agregado]

class Detalhar_viga(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.load_ui()
		self.load_signals()

	def load_ui(self):
		self.ui = loadUi('detalhamento_vigas_alt.ui',self)

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Vigas - Detalhamento')
		self.setFixedSize(845,600)
	

	def load_signals(self):
		print('inicializado')
		self.pushButton.clicked.connect(self.calcular_area)
		#self.pushButton.clicked.connect(self.calcular_estribos)
		self.pushButton_2.clicked.connect(self.limpar_detalhamento)
		self.pushButton_3.clicked.connect(self.recuperarValores)


		#pg.plot(x=[0,1,2,3,4], y=[0,1,2,3,4]**2 )
		header = self.tableWidget.horizontalHeader()
		header.setSectionResizeMode(0, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(1, QtWidgets.QHeaderView.ResizeToContents)
		header.setSectionResizeMode(2, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(3, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(4, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(5, QtWidgets.QHeaderView.Stretch)

		self.widget.setTitle('nº barras/Bitola')
		self.widget.showGrid(x=True,y=True,alpha=1)

		#if '0' not in info_viga:
		#	self.recuperarValores()

	def calcular_estribos(self):
		vsw = self.lineEdit_14.text()
		fyk_estribo = self.comboBox_2.currentText()
		tramos = self.lineEdit_15.text()

		if (vsw != '0' and tramos != '0'):
			vsw = float(self.lineEdit_14.text())
			bitola_estribo = float(self.comboBox.currentText())
			fyk_estribo = float(self.comboBox_2.currentText())
			tramos = float(self.lineEdit_15.text())
			d = float(self.lineEdit_13.text())

			espass_horizontal = info_viga_cortante[1]

			area_bitola = (3.14*((bitola_estribo/1000)**2)/4)

			print(vsw)
			print(bitola_estribo)
			print(tramos)
			print(fyk_estribo)
			print(area_bitola)


			s_estribo = ((tramos * area_bitola * 0.9 * (d/100) * (fyk_estribo*100000/1.15))/vsw*1000)/100
			s_estribo = round(s_estribo, ndigits=3)

			if s_estribo < espass_horizontal:
				self.lineEdit.setText(str(espass_horizontal))
			else:
				self.lineEdit.setText(str(s_estribo))
			
		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes para o cálculo dos Estribos!")


	def recuperarValores(self):
		area_aco = info_viga[0]
		base = info_viga[1]
		altura = info_viga[2]
		d = info_viga[3]
		d_agreg = info_viga[4]

		vsw = info_viga_cortante[0]

		self.lineEdit_11.setText(area_aco)
		self.lineEdit_10.setText(base)
		self.lineEdit_9.setText(altura)
		self.lineEdit_12.setText(d_agreg)
		self.lineEdit_13.setText(d)
		self.lineEdit_14.setText(vsw)

	def calcular_area(self):
		area_aco = self.lineEdit_11.text()
		base = self.lineEdit_10.text()
		altura = self.lineEdit_9.text()
		d_agreg = self.lineEdit_12.text()
		d = self.lineEdit_13.text()

		if (area_aco != '0' and base != '0' and altura != '0' and d_agreg != '0' and d != '0'):

			self.widget.clear()
			area_aco = float(self.lineEdit_11.text())
			base = float(self.lineEdit_10.text())
			altura = float(self.lineEdit_9.text())
			cobrimento = float(self.comboBox_3.currentText())
			bitola_estribo = float(self.comboBox.currentText())
			x = []
			y = []
			z = []
			cont = 0
			for i in tabela_bitolas_ferro:
				n_barras = float(area_aco/i[1])
				print('bitola: ',i[0],' - nº barras: ',n_barras)

				self.tableWidget.setItem(cont,2, QTableWidgetItem(str(round(n_barras, ndigits=2))))
				self.tableWidget.setItem(cont,3, QTableWidgetItem(str(round(n_barras +0.5)+1)))

				x.append(i[0])
				y.append(round(n_barras +0.5)+1)

				bitola = x[cont]
				n_barras = (round(n_barras +0.5)+1)

				espass_horizontal = (round(base - 2*(cobrimento+bitola_estribo/10) - n_barras*(bitola/10), ndigits=2))/(n_barras-1)
				
				z.append(round(espass_horizontal,ndigits=2))
				self.tableWidget.setItem(cont,4, QTableWidgetItem(str(espass_horizontal)))

				print('base:',base)
				print('cobrimento:',cobrimento)
				print('bitola_estribo:',bitola_estribo)
				print('n_barras:',n_barras)

				cont +=1

			#print(x)
			#print(y)
			#print(z)
			
			self.widget.plot(x=x,y=y,pen=(3))

			self.calcular_espacamentos()
			self.calcular_estribos()

		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes!")


	def calcular_espacamentos(self):
		bitola = float(self.comboBox_4.currentText())
		d_agreg = float(self.lineEdit_12.text())

		s_horizontal = max(2, (bitola/10), 1.2*d_agreg)
		s_vertical = max(2, (bitola/10), 0.5*d_agreg)

		#------------------------------- saida de dados ----------------------------------
		self.lineEdit_7.setText(str(s_horizontal))
		self.lineEdit_8.setText(str(s_vertical))

	def limpar_detalhamento(self):
		self.widget.clear()
		self.lineEdit_11.setText(str('0'))
		self.lineEdit_9.setText(str('0'))
		self.lineEdit_10.setText(str('0'))
		self.lineEdit_7.setText(str('0'))
		self.lineEdit_8.setText(str('0'))



class Tabela_Bitolas(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = loadUi('bitolas_ferros.ui',self)

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		header = self.tableWidget.horizontalHeader()
		header.setSectionResizeMode(0, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(1, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(2, QtWidgets.QHeaderView.Stretch)

		self.setWindowTitle('Navier - Tabela de Bitolas')
		self.setFixedSize(456,372)


global pilares_info
pilares_info = [0,0,0,0]

global pilares_info_aco
pilares_info_aco = [0, 0, 0, 0, 0, 0, 0]

class Pilares(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = loadUi('pilares_alt.ui',self)
		self.load_signals()

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Pilares')
		self.setFixedSize(997,670)

	def load_signals(self):
		print('pilares carregado')
		self.cont_x = 0
		self.cont_y = 0

		self.pushButton_6.clicked.connect(self.calcular_pilares)
		self.pushButton_7.clicked.connect(self.limpar_pilares)

		self.pushButton.clicked.connect(self.gerar_envoltoria)
		self.pushButton_3.clicked.connect(lambda: pilares_areas_aco.show())


	def calcular_pilares(self):
		x_pilar = self.lineEdit.text()
		y_pilar = self.lineEdit_2.text()
		altura_pilar = self.lineEdit_3.text()
		altura_lance = self.lineEdit_4.text()

		nk_pilar = self.lineEdit_5.text()
		momento_x_topo = self.lineEdit_6.text()
		momento_x_base = self.lineEdit_7.text()
		momento_y_topo = self.lineEdit_8.text()
		momento_y_base = self.lineEdit_9.text()


		if (x_pilar != '0' and y_pilar != '0' and altura_pilar != '0' and altura_lance != '0' and nk_pilar != '0'):
			fck_pilar = float(self.comboBox_3.currentText())
			fcd_pilar = fck_pilar/1.4
			fyk_pilar = float(self.comboBox_4.currentText())
			fyd_pilar = fyk_pilar/1.15
			cobrimento_pilar = float(self.comboBox_5.currentText())

			x_pilar = float(self.lineEdit.text())
			y_pilar = float(self.lineEdit_2.text())
			altura_pilar = float(self.lineEdit_3.text())
			altura_lance = float(self.lineEdit_4.text())

			nk_pilar = float(self.lineEdit_5.text())
			momento_x_topo = float(self.lineEdit_6.text())
			momento_x_base = float(self.lineEdit_7.text())
			momento_y_topo = float(self.lineEdit_8.text())
			momento_y_base = float(self.lineEdit_9.text())

			area_secao_pilar = (x_pilar/100)*(y_pilar/100)

			#nd_pilar = (nk_pilar + ((x_pilar/100)*(y_pilar/100)*altura_pilar*25)) * 1.4
			nd_pilar = (nk_pilar) * 1.4
			md_x_topo = 1.4 * momento_x_topo
			md_x_base = 1.4 * momento_x_base
			md_y_topo = 1.4 * momento_y_topo
			md_y_base = 1.4 * momento_y_base


			tipo_apoio_x = 'AA'

			if momento_x_topo == 0 and momento_x_base == 0 and momento_y_topo == 0 and momento_y_base == 0:
				self.tipo_pilar = 'intermediario'
			elif momento_x_topo == 0 and momento_x_base == 0:
				self.tipo_pilar = 'extremidade-x'
			elif momento_y_topo == 0 and momento_y_base == 0:
				self.tipo_pilar = 'extremidade-y'
			else:
				self.tipo_pilar = 'canto'


			self.lineEdit_13.setText(str(round(md_x_topo, ndigits=5)))
			self.lineEdit_14.setText(str(round(md_x_base, ndigits=5)))
			self.lineEdit_22.setText(str(round(md_y_topo, ndigits=5)))
			self.lineEdit_28.setText(str(round(md_y_base, ndigits=5)))

			#-Eixo-X----------------------------------------------------------------------
			b = y_pilar
			h = x_pilar

			m_a = max(md_x_topo, md_x_base)
			m_b = min(md_x_topo, md_x_base)

			if self.tipo_pilar == 'intermediario' or self.tipo_pilar == 'extremidade-x':
				alfa_b_x = 1.0
			else:
				alfa_b_x = (0.6 + 0.4*(m_b/m_a))

			if alfa_b_x < 0.4:
				alfa_b_x = 0.4

			#excen_min_x = (1.5+0.03*h)
			momento_min_x = (nd_pilar *(1.5+0.03*h))/100
			excen_min_x = momento_min_x/nd_pilar

			if md_x_topo < momento_min_x:
				md_x_topo = momento_min_x
				print('momento topo - mínimo')
				alfa_b_x = 1.0
			if md_x_base < momento_min_x:
				md_x_base = momento_min_x
				print('momento base - mínimo')
				alfa_b_x = 1.0

			compr_efetivo_x = (altura_pilar*100) + h
			if (altura_lance*100 < compr_efetivo_x):
				compr_efetivo_x = altura_lance*100

			excen_x_acidental = compr_efetivo_x/400
			v_0 = (nd_pilar*1000)/(area_secao_pilar * fcd_pilar*1000000)

			excentricidade_relativa = (max(md_x_topo,md_x_base,momento_min_x)/nd_pilar)/h

			lambda_pilar_x = 3.46 * (compr_efetivo_x/h)
			lambda_pilar_x_limite = (25 + 12.5*(excentricidade_relativa))/alfa_b_x
			if lambda_pilar_x_limite < 35:
				lambda_pilar_x_limite = 35

			excen_2_x = (compr_efetivo_x**2)/10 *(0.005/((v_0+0.5)*h))

			md2_x = nd_pilar * (excen_2_x/100)

			if lambda_pilar_x > lambda_pilar_x_limite:
				print('efeitos de 2 ordem considerados')
				excen_2 = (compr_efetivo_x**2)/10 *(0.005/((v_0+0.5)*h))
				md2_x_relativo = nd_pilar * (excen_2/100)
			else:
				md2_x_relativo = 0
				print('efeitos de 2 ordem desconsiderados')

			msd_x_intermediario = alfa_b_x * max(abs(md_x_topo), abs(md_x_base), abs(momento_min_x)) + md2_x_relativo
			#msd_x_intermediario = alfa_b_x * abs(momento_min_x) + md2_x_relativo

			mi_x = msd_x_intermediario/(h * area_secao_pilar * fcd_pilar)/10
			delta_x = cobrimento_pilar/h


			#-Eixo-Y----------------------------------------------------------------------
			h = y_pilar
			b = x_pilar

			m_a = max(md_y_topo, md_y_base)
			m_b = min(md_y_topo, md_y_base)

			if self.tipo_pilar == 'intermediario' or self.tipo_pilar == 'extremidade-y':
				alfa_b_y = 1.0
			else:
				alfa_b_y = (0.6 + 0.4*(m_b/m_a))

			if alfa_b_y < 0.4:
				alfa_b_y = 0.4

			momento_min_y = (nd_pilar *(1.5+0.03*h))/100
			excen_min_y = momento_min_y/nd_pilar
			
			if md_y_topo < momento_min_y:
				md_y_topo = momento_min_y
				print('momento topo - mínimo')
				alfa_b_y = 1.0
			if md_y_base < momento_min_y:
				md_y_base = momento_min_y
				print('momento base - mínimo')
				alfa_b_y = 1.0

			compr_efetivo_y = (altura_pilar*100) + h
			if (altura_lance*100 < compr_efetivo_y):
				compr_efetivo_y = altura_lance*100

			excen_y_acidental = compr_efetivo_y/400
			v_0 = (nd_pilar*1000)/(area_secao_pilar * fcd_pilar*1000000)

			excentricidade_relativa = (max(md_y_topo,md_y_base,momento_min_y)/nd_pilar)/h

			lambda_pilar_y = 3.46 * (compr_efetivo_y/h)
			lambda_pilar_y_limite = (25 + 12.5*(excentricidade_relativa))/alfa_b_y
			if lambda_pilar_y_limite < 35:
				lambda_pilar_y_limite = 35

			excen_2_y = (compr_efetivo_y**2)/10 *(0.005/((v_0+0.5)*h))

			md2_y = nd_pilar * (excen_2_y/100)

			if lambda_pilar_y > lambda_pilar_y_limite:
				print('efeitos de 2 ordem considerados')
				excen_2 = (compr_efetivo_y**2)/10 *(0.005/((v_0+0.5)*h))
				md2_y_relativo = nd_pilar * (excen_2/100)
			else:
				md2_y_relativo = 0
				print('efeitos de 2 ordem desconsiderados')

			msd_y_intermediario = alfa_b_y * max(abs(md_y_topo), abs(md_y_base), abs(momento_min_y)) + md2_y_relativo
			#msd_y_intermediario = alfa_b_y * abs(momento_min_y) + md2_y_relativo

			mi_y = msd_y_intermediario/(h * area_secao_pilar * fcd_pilar)/10
			delta_y = cobrimento_pilar/h


			#--------------------------------------------- saida de dados ---------------------------------------------
			self.lineEdit_10.setText(str(round(nd_pilar, ndigits=4)))
			self.lineEdit_11.setText(str(round(area_secao_pilar, ndigits=4)))
			self.lineEdit_12.setText(str(round(v_0, ndigits=4)))

			self.lineEdit_15.setText(str(round(momento_min_x, ndigits=5)))
			self.lineEdit_16.setText(str(round(excen_min_x*100, ndigits=5)))
			self.lineEdit_17.setText(str(round(lambda_pilar_x, ndigits=5)))
			self.lineEdit_18.setText(str(round(lambda_pilar_x_limite, ndigits=5)))
			self.lineEdit_19.setText(str(round(excen_2_x, ndigits=5)))
			self.lineEdit_20.setText(str(round(md2_x, ndigits=5)))
			self.lineEdit_21.setText(str(round(msd_x_intermediario, ndigits=5)))

			self.lineEdit_24.setText(str(round(momento_min_y, ndigits=5)))
			self.lineEdit_25.setText(str(round(excen_min_y*100, ndigits=5)))
			self.lineEdit_26.setText(str(round(lambda_pilar_y, ndigits=5)))
			self.lineEdit_23.setText(str(round(lambda_pilar_y_limite, ndigits=5)))
			self.lineEdit_30.setText(str(round(excen_2_y, ndigits=5)))
			self.lineEdit_29.setText(str(round(md2_y, ndigits=5)))
			self.lineEdit_27.setText(str(round(msd_y_intermediario, ndigits=5)))

			self.lineEdit_31.setText(str(round(mi_x, ndigits=2)))
			self.lineEdit_32.setText(str(round(mi_y, ndigits=2)))
			self.lineEdit_33.setText(str(round(delta_x, ndigits=2)))
			self.lineEdit_34.setText(str(round(delta_y, ndigits=2)))

			global pilares_info
			pilares_info = [msd_x_intermediario, msd_y_intermediario, momento_min_x, momento_min_y]

			if md2_x_relativo == 0:
				self.label_39.setText('não considera 2º ordem')
			else:
				self.label_39.setText('considera 2º ordem')

			if md2_y_relativo == 0:
				self.label_44.setText('não considera 2º ordem')
			else:
				self.label_44.setText('considera 2º ordem')


			if self.tipo_pilar == 'intermediario':
				self.label.setText('PILAR INTERMEDIÁRIO')
			elif (self.tipo_pilar == 'extremidade-x') or (self.tipo_pilar == 'extremidade-y'):
				self.label.setText('PILAR DE EXTREMIDADE')
			else:
				self.label.setText('PILAR DE CANTO')
			
			global pilares_info_aco
			pilares_info_aco = [mi_x, delta_x, mi_y, delta_y, fck_pilar, area_secao_pilar, nk_pilar]

		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes!")

			

	def gerar_envoltoria(self):
		msd_x_intermediario = pilares_info[0]
		msd_y_intermediario = pilares_info[1]
		momento_min_x = pilares_info[2]
		momento_min_y = pilares_info[3]

		x = []
		y = []
		for i in range(360):
			theta = i
			theta_conv = (theta*math.pi)/180

			seno = math.sin(theta_conv)
			seno = momento_min_y * seno

			cosseno = math.cos(theta_conv)
			cosseno = momento_min_x * cosseno

			x.append(seno)
			y.append(cosseno)

		z = []
		w = []
		for j in range(360):
			theta = j
			theta_conv = (theta*math.pi)/180

			seno = math.sin(theta_conv)
			seno = msd_y_intermediario * seno

			cosseno = math.cos(theta_conv)
			cosseno = msd_x_intermediario * cosseno

			z.append(seno)
			w.append(cosseno)

		# create plot
		'''plt = pg.plot(x, y, title='theTitle', pen='r')
		plt.showGrid(x=True,y=True)
		'''
		# create plot
		plt = pg.plot()
		plt.clear()
		plt.showGrid(x=True,y=True)
		plt.addLegend()
		plt.setTitle('Envoltória de Momentos')
		

		# set properties
		plt.setLabel('left', 'Momentos Y', units='KN.m')
		plt.setLabel('bottom', 'Momentos X', units='KN.m')
		plt.setXRange(0,10)
		plt.setYRange(0,20)
		

		plt.enableAutoRange()
		plt.setWindowTitle('pyqtgraph plot')
		# plot
		c1 = plt.plot(x, y, pen='r', name='Envoltória Momentos min')
		c2 = plt.plot(z, w, pen='b', name='Envoltória Momentos máx')



	def limpar_pilares(self):
		print('limpar')
		self.comboBox_3.setCurrentIndex(0)
		self.comboBox_4.setCurrentIndex(0)
		self.comboBox_5.setCurrentIndex(0)

		self.lineEdit.setText('0')
		self.lineEdit_2.setText('0')
		self.lineEdit_3.setText('0')
		self.lineEdit_4.setText('0')
		self.lineEdit_5.setText('0')
		self.lineEdit_6.setText('0')
		self.lineEdit_7.setText('0')
		self.lineEdit_8.setText('0')
		self.lineEdit_9.setText('0')

		self.lineEdit_10.setText('')
		self.lineEdit_11.setText('')
		self.lineEdit_12.setText('')
		self.lineEdit_13.setText('')
		self.lineEdit_14.setText('')
		self.lineEdit_15.setText('')
		self.lineEdit_16.setText('')
		self.lineEdit_17.setText('')
		self.lineEdit_18.setText('')
		self.lineEdit_19.setText('')
		self.lineEdit_20.setText('')
		self.lineEdit_21.setText('')
		self.lineEdit_22.setText('')
		self.lineEdit_23.setText('')
		self.lineEdit_24.setText('')
		self.lineEdit_25.setText('')
		self.lineEdit_26.setText('')
		self.lineEdit_27.setText('')
		self.lineEdit_28.setText('')
		self.lineEdit_29.setText('')
		self.lineEdit_30.setText('')

		self.lineEdit_31.setText('')
		self.lineEdit_32.setText('')
		self.lineEdit_33.setText('')
		self.lineEdit_34.setText('')




class Pilar_area_aco(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.load_ui()
		self.load_signals()

	def load_ui(self):
		self.ui = loadUi('pilares_areas_aco.ui',self)

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Pilares - Áreas de Aço')
		self.setFixedSize(484,300)

		self.pushButton_4.setIcon(QtGui.QIcon('./btn_flexaosimples.png'))
		self.pushButton_4.setIconSize(QtCore.QSize(50,60))
		self.pushButton_5.setIcon(QtGui.QIcon('./btn_flexaocomposta.png'))
		self.pushButton_5.setIconSize(QtCore.QSize(50,60))

	def load_signals(self):
		print('inicializado')
		self.pushButton_2.clicked.connect(self.calcular_area_aco)
		self.pushButton.clicked.connect(self.recuperar_dados)
		self.pushButton_3.clicked.connect(self.limpar)
		self.pushButton_4.clicked.connect(lambda: self.abrirTabelaAuxiliar(abaco_normal))
		self.pushButton_5.clicked.connect(lambda: self.abrirTabelaAuxiliar(abaco_obliqua))

	def recuperar_dados(self):
		self.lineEdit_2.setText(str(round(pilares_info_aco[0], ndigits=2)))
		self.lineEdit_3.setText(str(round(pilares_info_aco[1], ndigits=2)))
		self.lineEdit_5.setText(str(round(pilares_info_aco[2], ndigits=2)))
		self.lineEdit_6.setText(str(round(pilares_info_aco[3], ndigits=2)))
		self.lineEdit_12.setText(str(round(pilares_info_aco[4], ndigits=2)))
		self.lineEdit_13.setText(str(round(pilares_info_aco[5], ndigits=2)))
		self.lineEdit_14.setText(str(round(pilares_info_aco[6], ndigits=2)))

	def calcular_area_aco(self):
		fck = float(self.lineEdit_12.text())
		fcd = fck/1.4
		fyd = 500/1.15
		area_concreto = float(self.lineEdit_13.text())
		nk = float(self.lineEdit_14.text())
		nd = 1.4 * nk

		mi_x = float(self.lineEdit_2.text())
		delta_x = float(self.lineEdit_3.text())

		mi_y = float(self.lineEdit_5.text())
		delta_y = float(self.lineEdit_6.text())

		omega_x = float(self.lineEdit_4.text())
		omega_y = float(self.lineEdit_7.text())

		as_x = (omega_x * (area_concreto*1000000) * fcd)/fyd
		as_y = (omega_y * (area_concreto*1000000) * fcd)/fyd

		as_x = round(as_x, ndigits=3)
		as_y = round(as_y, ndigits=3)

		as_pilar_min = 0.15 * (nd/fyd)
		if as_pilar_min < (0.004*area_concreto*100000):
			as_pilar_min = round((0.004*area_concreto*100000), ndigits=3)

		as_pilar_max = round((0.08*area_concreto*1000000), ndigits=3)

		#-------------------------------------- saída de dados ----------------------------------------------------
		self.lineEdit_8.setText(str(as_x))
		self.lineEdit_9.setText(str(as_y))
		self.lineEdit_10.setText(str(as_pilar_max))
		self.lineEdit_11.setText(str(as_pilar_min))

	def teste(self):
		print('teste')
	
	def limpar(self):
		self.lineEdit_2.setText('0')
		self.lineEdit_3.setText('0')
		self.lineEdit_4.setText('1')
		self.lineEdit_5.setText('0')
		self.lineEdit_6.setText('0')
		self.lineEdit_7.setText('1')
		self.lineEdit_8.setText('0')
		self.lineEdit_9.setText('0')
		self.lineEdit_10.setText('0')
		self.lineEdit_11.setText('0')
		self.lineEdit_12.setText('0')
		self.lineEdit_13.setText('0')
		self.lineEdit_14.setText('0')

	def abrirTabelaAuxiliar(self,file):
	    if sys.platform == 'linux2':
	        subprocess.call(["xdg-open", file])
	    else:
	        os.startfile(file)




class Lajes(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = loadUi('lajes_alt.ui',self)

		self.lado1 = 'livre'
		self.lado2 = 'livre'
		self.lado3 = 'livre'
		self.lado4 = 'livre'
		self.label_37.hide()
		self.label_38.hide()
		self.label_40.hide()
		self.label_41.hide()
		global caso
		caso = '1'
		global lx_lage
		lx_lage = 'l_menor'
		self.lineEdit.setReadOnly(True)

		self.load_signals()

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Lajes')
		self.setFixedSize(1245,587)


	def load_signals(self):
		print('lajes iniciado')
		self.pushButton.clicked.connect(self.estado_l1)
		self.pushButton_2.clicked.connect(self.estado_l2)
		self.pushButton_3.clicked.connect(self.estado_l3)
		self.pushButton_4.clicked.connect(self.estado_l4)
		self.pushButton.clicked.connect(self.situacao_laje)
		self.pushButton_2.clicked.connect(self.situacao_laje)
		self.pushButton_3.clicked.connect(self.situacao_laje)
		self.pushButton_4.clicked.connect(self.situacao_laje)

		self.pushButton_5.clicked.connect(lambda: self.abrirTabelaAuxiliar(tabela_marcus))
		self.pushButton_6.clicked.connect(self.calcular_laje)
		self.pushButton_7.clicked.connect(self.limpar_lajes)

		self.toolButton.clicked.connect(self.revelar_carg_acidental)

	def abrirTabelaAuxiliar(self,file):
	    if sys.platform == 'linux2':
	        subprocess.call(["xdg-open", file])
	    else:
	        os.startfile(file)

	def teste(self):
		lado1 = float(self.lineEdit_3.text())
		lado2 = float(self.lineEdit_4.text())
		espes = float(self.lineEdit_5.text())


		pp = (espes * 25)/100
		self.lineEdit.setText(str(pp))

	def revelar_carg_acidental(self):
		print('oi--')
		carga_adicional.show()

	def estado_l1(self):
		if self.lado1 == 'livre':
			self.lado1 = 'engastado'
			pixmap = QPixmap('./engv.png')
			self.pushButton.setIcon(QIcon(pixmap))
		else:
			self.lado1 = 'livre'
			pixmap = QPixmap('./livv.png')
			self.pushButton.setIcon(QIcon(pixmap))

	def estado_l2(self):
		if self.lado2 == 'livre':
			self.lado2 = 'engastado'
			pixmap = QPixmap('./engh.png')
			self.pushButton_2.setIcon(QIcon(pixmap))
		else:
			self.lado2 = 'livre'
			pixmap = QPixmap('./livh.png')
			self.pushButton_2.setIcon(QIcon(pixmap))

	def estado_l3(self):
		if self.lado3 == 'livre':
			self.lado3 = 'engastado'
			pixmap = QPixmap('./engh.png')
			self.pushButton_3.setIcon(QIcon(pixmap))
		else:
			self.lado3 = 'livre'
			pixmap = QPixmap('./livh.png')
			self.pushButton_3.setIcon(QIcon(pixmap))

	def estado_l4(self):
		if self.lado4 == 'livre':
			self.lado4 = 'engastado'
			pixmap = QPixmap('./engv.png')
			self.pushButton_4.setIcon(QIcon(pixmap))
		else:
			self.lado4 = 'livre'
			pixmap = QPixmap('./livv.png')
			self.pushButton_4.setIcon(QIcon(pixmap))

	def situacao_laje(self):
		l1 = self.lado1
		l2 = self.lado2
		l3 = self.lado3
		l4 = self.lado4

		cota_v1 = self.label_37
		cota_v2 = self.label_40
		cota_h1 = self.label_38
		cota_h2 = self.label_41

		if (l1 == 'livre' and l2 == 'livre' and l3 == 'livre' and l4 == 'livre'):
			global caso
			caso = '1'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			global lx_lage
			lx_lage = 'l_menor'
		elif (l1 == 'engastado' and l2 == 'livre' and l3 == 'livre' and l4 == 'livre') or (l1 == 'livre' and l2 == 'livre' and l3 == 'livre' and l4 == 'engastado'):
			caso = '2'

			cota_v1.hide()
			cota_v2.hide()
			cota_h1.show()
			cota_h2.show()

			lx_lage = 'l_maior'
		elif (l1 == 'livre' and l2 == 'engastado' and l3 == 'livre' and l4 == 'livre') or (l1 == 'livre' and l2 == 'livre' and l3 == 'engastado' and l4 == 'livre') :
			caso = '2'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			lx_lage = 'l_menor'
		elif (l1 == 'engastado' and l2 == 'engastado' and l3 == 'livre' and l4 == 'livre') or (l1 == 'engastado' and l2 == 'livre' and l3 == 'engastado' and l4 == 'livre') or (l1 == 'livre' and l2 == 'engastado' and l3 == 'livre' and l4 == 'engastado') or (l1 == 'livre' and l2 == 'livre' and l3 == 'engastado' and l4 == 'engastado'):
			caso = '3'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			lx_lage = 'l_menor'
		elif (l1 == 'engastado' and l2 == 'livre' and l3 == 'livre' and l4 == 'engastado'):
			caso = '4'

			cota_v1.hide()
			cota_v2.hide()
			cota_h1.show()
			cota_h2.show()

			lx_lage = 'l_maior'
		elif (l1 == 'livre' and l2 == 'engastado' and l3 == 'engastado' and l4 == 'livre'):
			caso = '4'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			lx_lage = 'l_menor'
		elif (l1 == 'engastado' and l2 == 'livre' and l3 == 'engastado' and l4 == 'engastado') or (l1 == 'engastado' and l2 == 'engastado' and l3 == 'livre' and l4 == 'engastado'):
			caso = '5'

			cota_v1.hide()
			cota_v2.hide()
			cota_h1.show()
			cota_h2.show()

			lx_lage = 'l_maior'
		elif (l1 == 'livre' and l2 == 'engastado' and l3 == 'engastado' and l4 == 'engastado') or (l1 == 'engastado' and l2 == 'engastado' and l3 == 'engastado' and l4 == 'livre'):
			caso = '5'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			lx_lage = 'l_menor'
		elif (l1 == 'engastado' and l2 == 'engastado' and l3 == 'engastado' and l4 == 'engastado'):
			caso = '6'

			cota_v1.show()
			cota_v2.show()
			cota_h1.hide()
			cota_h2.hide()

			lx_lage = 'l_menor'
		else:
			caso='ainda não existe, não sei como você chegou até aqui srsrrsrsrsrsrs'


		print(caso)
		self.lineEdit_6.setText(str(caso))

	def calcular_laje(self):
		lado_maior = float(self.lineEdit_3.text())
		lado_menor = float(self.lineEdit_4.text())
		espes = float(self.lineEdit_5.text())
		d = float(self.lineEdit_27.text())

		self.lineEdit_7.setText('')
		self.lineEdit_9.setText('')
		self.lineEdit_8.setText('')
		self.lineEdit_10.setText('')
		self.lineEdit_16.setText('')
		self.lineEdit_14.setText('')
		self.lineEdit_15.setText('')
		self.lineEdit_16.setText('')
		
		if lado_maior != 0 and lado_menor != 0 and espes != 0 and d != 0:
			lado1 = float(self.lineEdit_3.text())
			lado2 = float(self.lineEdit_4.text())
			espes = float(self.lineEdit_5.text())
			d = float(self.lineEdit_27.text())
			carreg_adicional = float(self.lineEdit_2.text())
			#fck_laje = float(self.comboBox.currentText())
			#fcd_laje = fck_laje/1.4
			#fyk_laje = float(self.comboBox_2.currentText())
			#fyd_laje = fyk_laje/1.15

			pp = (espes * 25)/100
			self.lineEdit.setText(str(pp))

			carreg_total = pp + carreg_adicional
			#print(caso)
			#print(lx_lage)
			#---------------------------------- cálculo do Lx baseado no caso do tipo de situação da laje -----------------
			global lx
			global lambda_laje
			if lx_lage == 'l_menor':
				lx = lado2
				lambda_laje = round((lado1/lado2),ndigits=2)
			elif lx_lage == 'l_maior':
				lx = lado1
				lambda_laje = round((lado2/lado1),ndigits=2)
			print(lx_lage)


			#---------------------------------- definição se a laje é unidirecional ou bidirecional baseado no lambda  -----------------
			global tipo_laje
			if float(lambda_laje) > 2.001:
				tipo_laje = 'UNIDIRECIONAL'
				self.laje_unidirecional(carreg_total)
			else:
				tipo_laje = 'BIDIRECIONAL'
				#self.label_43.setStyleSheet("Background: url('laje_unidirecional_modelo.png') no-repeat")
			
				mx = my = nx = ny = ''
				
				if caso == '1':
					caso1 = marcus_caso1
					linhas = len(caso1)
					colunas = len(caso1[0])

					for i in range(linhas):
						aux = caso1[i][0]
						if lambda_laje == aux:
							print(caso1[i])
							mx = caso1[i][2]
							my = caso1[i][3]

					print('mx: ',mx)
					print('my: ',my)

				if caso == '2':
					caso2 = marcus_caso2
					linhas = len(caso2)
					colunas = len(caso2[0])

					for i in range(linhas):
						aux = caso2[i][0]
						if lambda_laje == aux:
							print(caso2[i])
							mx = caso2[i][2]
							nx = caso2[i][3]
							my = caso2[i][4]

					print('mx: ',mx)
					print('nx: ',nx)
					print('my: ',my)

				if caso == '3':
					caso3 = marcus_caso3
					linhas = len(caso3)
					colunas = len(caso3[0])

					for i in range(linhas):
						aux = caso3[i][0]
						if lambda_laje == aux:
							print(caso3[i])
							mx = caso3[i][2]
							nx = caso3[i][3]
							my = caso3[i][4]
							ny = caso3[i][5]

					print('mx: ',mx)
					print('nx: ',nx)
					print('my: ',my)
					print('ny: ',ny)

				if caso == '4':
					caso4 = marcus_caso4
					linhas = len(caso4)
					colunas = len(caso4[0])

					for i in range(linhas):
						aux = caso4[i][0]
						if lambda_laje == aux:
							print(caso4[i])
							mx = caso4[i][2]
							nx = caso4[i][3]
							my = caso4[i][4]

					print('mx: ',mx)
					print('nx: ',nx)
					print('my: ',my)

				if caso == '5':
					caso5 = marcus_caso5
					linhas = len(caso5)
					colunas = len(caso5[0])

					for i in range(linhas):
						aux = caso5[i][0]
						if lambda_laje == aux:
							print(caso5[i])
							mx = caso5[i][2]
							nx = caso5[i][3]
							my = caso5[i][4]
							ny = caso5[i][5]

					print('mx: ',mx)
					print('nx: ',nx)
					print('my: ',my)
					print('ny: ',ny)

				if caso == '6':
					caso6 = marcus_caso6
					linhas = len(caso6)
					colunas = len(caso6[0])

					for i in range(linhas):
						aux = caso6[i][0]
						if lambda_laje == aux:
							print(caso6[i])
							mx = caso6[i][2]
							nx = caso6[i][3]
							my = caso6[i][4]
							ny = caso6[i][5]

					print('mx: ',mx)
					print('nx: ',nx)
					print('my: ',my)
					print('ny: ',ny)

				print(lx)
				if mx != '':
					self.lineEdit_7.setText(str(mx))
					momento_pos_x = ((carreg_total * (lx**2))/mx)
					momento_pos_x = round(momento_pos_x,ndigits=4)


					self.lineEdit_13.setText(str(momento_pos_x))
				#else:
				#	self.lineEdit_13.setText('0')
				if nx != '':
					self.lineEdit_9.setText(str(nx))
					momento_neg_x = round(((carreg_total * (lx**2))/nx),ndigits=4)
					self.lineEdit_14.setText(str(momento_neg_x))
					#momento_neg_x = round(momento_neg_x,ndigits=2)
				#else:
				#	self.lineEdit_14.setText('0')
				if my != '':
					self.lineEdit_8.setText(str(my))
					momento_pos_y = ((carreg_total * (lx**2))/my)
					momento_pos_y = round(momento_pos_y,ndigits=4)
					self.lineEdit_15.setText(str(momento_pos_y))
				#else:
				#	self.lineEdit_15.setText('0')
				if ny != '':
					self.lineEdit_10.setText(str(ny))
					momento_neg_y = round(((carreg_total * (lx**2))/ny),ndigits=4)
					self.lineEdit_16.setText(str(momento_neg_y))
					#momento_neg_y = round(momento_neg_y,ndigits=2)

				#----------------------------------- enviar resultados de saida ao programa ---------------------------------------
				self.lineEdit_11.setText(str(lambda_laje))
				self.label_16.setText(str(tipo_laje))
				self.lineEdit_12.setText(str(carreg_total))

				self.resultados_laje()
		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes")
		

	def laje_unidirecional(self,carreg_total):

		self.lado1 = 'livre'
		pixmap = QPixmap('./livv.png')
		self.pushButton.setIcon(QIcon(pixmap))

		self.lado4 = 'livre'
		pixmap = QPixmap('./livv.png')
		self.pushButton_4.setIcon(QIcon(pixmap))

		print('unidirecional')
		#l1 = self.lado1
		l2 = self.lado2
		l3 = self.lado3
		#l4 = self.lado4
		l1 = l4 = 'livre'
		print(carreg_total)
		if (l2 == 'livre' and l3 == 'livre'):
			self.label_43.setStyleSheet("Background: url('./laje_unidirecional_ll2.png') no-repeat")
			momento_pos_y = (carreg_total * (lx**2))/8
			momento_neg_y = 0
		elif (l2 == 'engastado' and l3 == 'engastado'):
			self.label_43.setStyleSheet("Background: url('./laje_unidirecional_ee2.png') no-repeat")
			momento_pos_y = (carreg_total * (lx**2))/24
			momento_neg_y = (carreg_total * (lx**2))/12
		elif (l2 == 'engastado' and l3 == 'livre') or (l2 == 'livre' and l3 == 'engastado'):
			self.label_43.setStyleSheet("Background: url('./laje_unidirecional_le2.png') no-repeat")
			momento_pos_y = (carreg_total * (lx**2))/14.2
			momento_neg_y = (carreg_total * (lx**2))/8

		print('momento_pos_y: ',momento_pos_y)
		print('momento_neg_y: ',momento_neg_y)

		#----------------------------------- enviar resultados de saida ao programa ---------------------------------------
		momento_pos_y = round(momento_pos_y,ndigits=4)
		self.lineEdit_15.setText(str(momento_pos_y))
		momento_neg_y = round(momento_neg_y,ndigits=4)
		self.lineEdit_16.setText(str(momento_neg_y))

		self.lineEdit_13.setText('0')
		self.lineEdit_14.setText('0')

		self.lineEdit_11.setText(str(lambda_laje))
		self.label_16.setText(str(tipo_laje))
		self.lineEdit_12.setText(str(carreg_total))

		self.resultados_laje()

	def truncar(self,x):
		aux = '{:.9f}'.format(x)
		return aux

	def resultados_laje(self):
		fck_laje = float(self.comboBox.currentText())
		fcd_laje = fck_laje/1.4
		fyk_laje = float(self.comboBox_2.currentText())
		fyd_laje = fyk_laje/1.15
		espes = float(self.lineEdit_5.text())

		area_concreto_laje = round(((espes/100)*1000000),ndigits=4)

		ro_armad_minima = 0
		if fck_laje == 20:
			ro_armad_minima = 0.15/100
		elif fck_laje == 25:
			ro_armad_minima = 0.15/100
		elif fck_laje == 30:
			ro_armad_minima = 0.15/100
		elif fck_laje == 35:
			ro_armad_minima = 0.164/100
		elif fck_laje == 40:
			ro_armad_minima = 0.179/100

		armad_max_laje = (0.4/100)*area_concreto_laje
		armad_neg_min = ro_armad_minima*area_concreto_laje
		armad_pos_cruz = round(0.67*(ro_armad_minima*area_concreto_laje), ndigits=2)
		armad_princ_unid = ro_armad_minima*area_concreto_laje
		armad_secnd_unid = max((0.2*armad_princ_unid), (90), (0.5*(ro_armad_minima*area_concreto_laje)))


		mx = self.lineEdit_13.text()
		if mx == '':
			self.lineEdit_13.setText('0')

		my = self.lineEdit_15.text()
		if my == '':
			self.lineEdit_15.setText('0')

		nx = self.lineEdit_14.text()
		if nx == '':
			self.lineEdit_14.setText('0')

		ny = self.lineEdit_16.text()
		if ny == '':
			self.lineEdit_16.setText('0')

		fck_laje = float(self.comboBox.currentText())
		fyk_laje = float(self.comboBox_2.currentText())
		fcd_laje = fck_laje* 1000000/1.4
		fyd_laje = fyk_laje* 1000000/1.15
		d_laje = float(self.lineEdit_27.text())
		espes = float(self.lineEdit_5.text())

		#------------------------------------------enxerto-----------------------

		mx = float(self.lineEdit_13.text())
		my = float(self.lineEdit_15.text())
		nx = float(self.lineEdit_14.text())
		ny = float(self.lineEdit_16.text())
		#print('mx: ',mx)
		#print('nx: ',nx)
		#print('my: ',my)
		#print('ny: ',ny)
		mk_x = mx
		mk_y = my

		nk_x = nx
		nk_y = ny
		

		md_x = round(1.4 * mk_x, ndigits = 4)
		kmd_x_laje = (md_x * 1000)/(1 * ((d_laje/100)**2) * 0.85 * (fcd_laje))
		kx_x_laje = (1 - math.sqrt(1 - 2*kmd_x_laje))/0.8
		kz_x_laje = 1 - 0.4 * kx_x_laje

		as_x_laje = (md_x * 1000/ (kz_x_laje * (d_laje/100) * fyd_laje))*1000000

		print('md_x: ', md_x)
		print('kmd_x_laje: ', kmd_x_laje)
		print('kx_x_laje: ', kx_x_laje)
		print('kz_x_laje: ', kz_x_laje)
		print('as_x_laje: ', as_x_laje)

		md_y = round(1.4 * mk_y, ndigits = 4)
		kmd_y_laje = (md_y * 1000)/(1 * ((d_laje/100)**2) * 0.85 * (fcd_laje))
		kx_y_laje = (1 - math.sqrt(1 - 2*kmd_y_laje))/0.8
		kz_y_laje = 1 - 0.4 * kx_y_laje

		as_y_laje = (md_y * 1000/ (kz_y_laje * (d_laje/100) * fyd_laje))*1000000

		print('md_y: ', md_y)
		print('kmd_y_laje: ', kmd_y_laje)
		print('kx_y_laje: ', kx_y_laje)
		print('kz_y_laje: ', kz_y_laje)
		print('as_y_laje: ', as_y_laje)


		nd_x = round(1.4 * nk_x, ndigits = 4)
		kmd_x_laje_n = (nd_x * 1000)/(1 * ((d_laje/100)**2) * 0.85 * (fcd_laje))
		kx_x_laje_n = (1 - math.sqrt(1 - 2*kmd_x_laje_n))/0.8
		kz_x_laje_n = 1 - 0.4 * kx_x_laje_n

		as_x_laje_n = (nd_x * 1000/ (kz_x_laje_n * (d_laje/100) * fyd_laje))*1000000


		nd_y = round(1.4 * nk_y, ndigits = 4)
		kmd_y_laje_n = (nd_y * 1000)/(1 * ((d_laje/100)**2) * 0.85 * (fcd_laje))
		kx_y_laje_n = (1 - math.sqrt(1 - 2*kmd_y_laje_n))/0.8
		kz_y_laje_n = 1 - 0.4 * kx_y_laje_n

		as_y_laje_n = (nd_x * 1000/ (kz_y_laje_n * (d_laje/100) * fyd_laje))*1000000

		#------------------------------------------ saida de dados ------------------------------------
		kmd_x_laje = self.truncar(kmd_x_laje)
		kx_x_laje = self.truncar(kx_x_laje)
		kz_x_laje = self.truncar(kz_x_laje)
		as_x_laje = self.truncar(as_x_laje)

		kmd_y_laje = self.truncar(kmd_y_laje)
		kx_y_laje = self.truncar(kx_y_laje)
		kz_y_laje = self.truncar(kz_y_laje)
		as_y_laje = self.truncar(as_y_laje)


		self.lineEdit_17.setText(str(md_x))
		self.lineEdit_18.setText(str(kmd_x_laje))
		self.lineEdit_19.setText(str(kx_x_laje))
		self.lineEdit_20.setText(str(kz_x_laje))
		self.lineEdit_21.setText(str(as_x_laje))

		self.lineEdit_22.setText(str(md_y))
		self.lineEdit_24.setText(str(kmd_y_laje))
		self.lineEdit_25.setText(str(kx_y_laje))
		self.lineEdit_26.setText(str(kz_y_laje))
		self.lineEdit_23.setText(str(as_y_laje))


		self.lineEdit_38.setText(str(area_concreto_laje))
		self.lineEdit_39.setText(str(ro_armad_minima*100))
		self.lineEdit_42.setText(str(armad_max_laje))
		self.lineEdit_40.setText(str(armad_neg_min))
		self.lineEdit_41.setText(str(armad_pos_cruz))
		self.lineEdit_43.setText(str(armad_princ_unid))
		self.lineEdit_44.setText(str(armad_secnd_unid))

		if tipo_laje == 'UNIDIRECIONAL':
			self.label_44.setText('Distribuição')
			if float(as_y_laje) < armad_princ_unid:
				self.label_45.setText('Mínima')
			else:
				self.label_45.setText('')

		if tipo_laje == 'BIDIRECIONAL':
			if float(as_x_laje) < armad_pos_cruz:
				self.label_44.setText('Mínima')
			else:
				self.label_44.setText('')

			if float(as_y_laje) < armad_pos_cruz:
				self.label_45.setText('Mínima')
			else:
				self.label_45.setText('')

	def limpar_lajes(self):
		self.comboBox.setCurrentIndex(0)
		self.comboBox_2.setCurrentIndex(0)

		self.lineEdit.setText('0')
		self.lineEdit_2.setText('0')
		self.lineEdit_3.setText('0')
		self.lineEdit_4.setText('0')
		self.lineEdit_5.setText('0')
		self.lineEdit_27.setText('0')

		self.lineEdit_7.setText('')
		self.lineEdit_8.setText('')
		self.lineEdit_9.setText('')
		self.lineEdit_10.setText('')

		self.lineEdit_11.setText('')
		self.lineEdit_12.setText('')
		self.lineEdit_38.setText('')
		self.lineEdit_39.setText('')
		self.lineEdit_42.setText('')
		self.lineEdit_40.setText('')
		self.lineEdit_41.setText('')
		self.lineEdit_43.setText('')
		self.lineEdit_44.setText('')

		self.lineEdit_13.setText('')
		self.lineEdit_14.setText('')
		self.lineEdit_15.setText('')
		self.lineEdit_16.setText('')

		self.lineEdit_16.setText('')
		self.lineEdit_17.setText('')
		self.lineEdit_18.setText('')
		self.lineEdit_19.setText('')
		self.lineEdit_20.setText('')
		self.lineEdit_21.setText('')
		self.lineEdit_22.setText('')
		self.lineEdit_23.setText('')
		self.lineEdit_24.setText('')
		self.lineEdit_25.setText('')
		self.lineEdit_26.setText('')



class Carga_Adicional(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()

		self.ui = loadUi('lajes_carg_adicional_atualizada.ui',self)

		header = self.tableWidget.horizontalHeader()
		header.setSectionResizeMode(0, QtWidgets.QHeaderView.Stretch)

		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Cargas Adicionais')
		self.setFixedSize(649,504)



class Sapatas(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.ui = loadUi('sapatas_alt.ui',self)
		self.load_signals()

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Sapatas')
		self.setFixedSize(946,574)

	def load_signals(self):
		print('sapatas carregado')
		self.pushButton_6.clicked.connect(self.calcular_sapata)
		self.pushButton_7.clicked.connect(self.limpar_sapatas)
		self.pushButton.clicked.connect(self.gerar_dim_sapata)

	def arredondar_cinco(self, numero):
		numero = round(numero, ndigits=2)
		numero = 100*numero
		resto = numero%5
		while resto != 0:
		    numero += 1
		    resto = numero%5
		    print('numero:',numero,' - resto: ',resto)

		numero = numero/100
		return numero

	def calcular_sapata(self):

		nk = float(self.lineEdit_3.text())
		momento_x_sapata = float(self.lineEdit_4.text())
		momento_y_sapata = float(self.lineEdit_5.text())
		x_pilar = float(self.lineEdit.text())
		y_pilar = float(self.lineEdit_2.text())
		tensao_adm_solo = float(self.lineEdit_35.text())
		fator_solo = float(self.lineEdit_13.text())

		base_y_sapata = float(self.lineEdit_10.text())
		base_x_sapata = float(self.lineEdit_9.text())
		h_total = float(self.lineEdit_11.text())
		h_0 = float(self.lineEdit_12.text())

		y_sapata = float(self.lineEdit_9.text())
		x_sapata = float(self.lineEdit_10.text())
		h_total = float(self.lineEdit_11.text())
		h_0 = float(self.lineEdit_12.text())

		if (nk != 0 and x_pilar != 0 and y_pilar != 0 and tensao_adm_solo != 0 and fator_solo != 0 and base_y_sapata != 0 and base_x_sapata != 0 and h_total != 0 and h_0 != 0):
			if (x_sapata < 0.6 or y_sapata < 0.6):
				QMessageBox.about(self, "Erro de Entrada", "As sapatas não podem apresentar lados menores de 60 cm, conforme a NBR 6122")
			else:
				fck_sapata = float(self.comboBox.currentText())
				fcd_sapata = fck_sapata / 1.4
				fyk_sapata = float(self.comboBox_2.currentText())
				fyd_sapata = fyk_sapata / 1.15
				nk = float(self.lineEdit_3.text())
				momento_x_sapata = float(self.lineEdit_4.text())
				momento_y_sapata = float(self.lineEdit_5.text())
				tensao_adm_solo = float(self.lineEdit_35.text())
				fator_solo = float(self.lineEdit_13.text())
				angulo_dissp_sapata = float(self.spinBox.value())

				angulo_dissp_sapata = (angulo_dissp_sapata / 180)* 3.14

				x_pilar = float(self.lineEdit.text())/100
				y_pilar = float(self.lineEdit_2.text())/100

				y_sapata = float(self.lineEdit_9.text())
				x_sapata = float(self.lineEdit_10.text())
				h_total = float(self.lineEdit_11.text())
				h_0 = float(self.lineEdit_12.text())

				if (momento_x_sapata != 0 and momento_y_sapata == 0) or (momento_x_sapata == 0 and momento_y_sapata != 0):
					fator_acrescimo_dimensoes = 1.05
				elif (momento_x_sapata != 0 and momento_y_sapata != 0):
					fator_acrescimo_dimensoes = 1.103
				else:
					fator_acrescimo_dimensoes = 1.0

				x_sapata = round(x_sapata * fator_acrescimo_dimensoes, ndigits=4)
				y_sapata = round(y_sapata * fator_acrescimo_dimensoes, ndigits=4)

				wx = x_sapata * (y_sapata**2)/6
				wy = y_sapata * (x_sapata**2)/6

				mw_x = (momento_x_sapata/wx)*1000
				mw_y = (momento_y_sapata/wy)*1000

				tensao_sapata = (fator_solo*nk*1000)/(x_sapata*y_sapata)
				tensao_max_sapata = tensao_sapata + mw_x + mw_y
				tensao_min_sapata = tensao_sapata - mw_x - mw_y

				nk_equiv = (x_sapata * y_sapata * tensao_max_sapata)/fator_solo
				area_sapata = round(fator_solo * ((nk*1000)/(tensao_adm_solo*1000000)),ndigits=6)

				ca_sapata = (x_sapata - x_pilar)/2
				cb_sapata = (y_sapata - y_pilar)/2
				h_rig_x = 2/3 * ca_sapata
				h_rig_y = 2/3 * cb_sapata

				h_mincis = (1.4 * nk_equiv)/(2*(x_pilar+y_pilar)*0.27*(1-(fck_sapata/250))*(fcd_sapata*1000000))
				if h_mincis < 0.40:
					h_mincis = 0.40
				if h_total < h_mincis:
					h_total = h_mincis

				braco_alavanca_sapata = h_total - 0.05

				h0a = h_total - ca_sapata * math.tan(angulo_dissp_sapata)
				h0b = h_total - cb_sapata * math.tan(angulo_dissp_sapata)

				#h0 = round(h0a, ndigits=2)
				#if h0a < h0b:
				#	h0 = round(h0b, ndigits=2)

				volume_concreto_sapata = (h_total-h_0)/(3*(x_sapata*y_sapata+x_pilar*y_pilar+math.sqrt(x_sapata*y_sapata*x_pilar*y_pilar))+x_sapata*y_sapata*h_0)

				tracao_x_sapata = 1.1 * nk_equiv * (x_sapata - x_pilar)/(8 * braco_alavanca_sapata)
				tracao_y_sapata = 1.1 * nk_equiv * (y_sapata - y_pilar)/(8 * braco_alavanca_sapata)
				as_x_sapata = (1.4 * tracao_x_sapata)/(fyd_sapata)
				as_y_sapata = (1.4 * tracao_y_sapata)/fyd_sapata

				taxa_aco_sapata = (0.078 * (fck_sapata)**(2/3))/fyd_sapata
				
				if taxa_aco_sapata <= 0.0015:
					taxa_aco_sapata = 0.0015

				as_x_min_laje = 0.67 * taxa_aco_sapata * h_mincis * x_sapata
				as_y_min_laje = 0.67 * taxa_aco_sapata * h_mincis * y_sapata

				print('x_sapata: ',x_sapata)
				print('y_sapata: ',y_sapata)

				print('wx: ',wx)
				print('wy: ',wy)
				print('mw_x: ',mw_x)
				print('mw_y: ',mw_y)
				print('tensao_max_sapata: ',tensao_max_sapata)
				print('tensao_min_sapata: ',tensao_min_sapata)
				print('nk_equiv: ',nk_equiv)
				print('ca_sapata: ',ca_sapata)
				print('cb_sapata: ',cb_sapata)
				print('h0a: ',h0a)
				print('h0b: ',h0b)
				print('h_mincis: ',h_mincis)
				#print('h0: ',h0)
				print('h_total',h_total)
				print('-------------------------------------\n')

				#-------------------------------------- saida dos dados --------------------------------------------------
				self.lineEdit_11.setText(str(h_total))
				#self.lineEdit_12.setText(str(h0))

				self.lineEdit_15.setText(str(area_sapata))
				self.lineEdit_16.setText(str(round(wx, ndigits=6)))
				self.lineEdit_17.setText(str(round(wy, ndigits=6)))
				self.lineEdit_18.setText(str(round(nk_equiv, ndigits=4)))
				self.lineEdit_19.setText(str(round(tensao_max_sapata/1000000, ndigits=4)))
				self.lineEdit_20.setText(str(round(tensao_min_sapata/1000000, ndigits=4)))
				self.lineEdit_21.setText(str(round(ca_sapata*100, ndigits=4)))
				self.lineEdit_22.setText(str(round(cb_sapata*100, ndigits=4)))

				self.lineEdit_23.setText(str(round(h_rig_x*100, ndigits=4)))
				self.lineEdit_24.setText(str(round(h_rig_y*100, ndigits=4)))
				self.lineEdit_25.setText(str(round(h_mincis*100, ndigits=4)))
				self.lineEdit_26.setText(str(round(h0a*100, ndigits=4)))
				self.lineEdit_28.setText(str(round(h0b*100, ndigits=4)))
				self.lineEdit_27.setText(str(round(volume_concreto_sapata, ndigits=4)))

				self.lineEdit_14.setText(str(round(tracao_x_sapata/1000, ndigits=4)))
				self.lineEdit_29.setText(str(round(tracao_y_sapata/1000, ndigits=4)))
				self.lineEdit_30.setText(str(round(as_x_sapata, ndigits=4)))
				self.lineEdit_31.setText(str(round(as_y_sapata, ndigits=4)))

				self.lineEdit_32.setText(str(round(taxa_aco_sapata, ndigits=7)))
				self.lineEdit_33.setText(str(round(as_x_min_laje*1000000, ndigits=4)))
				self.lineEdit_34.setText(str(round(as_y_min_laje*1000000, ndigits=4)))

		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes")



	def gerar_dim_sapata(self):

		nk = float(self.lineEdit_3.text())
		momento_x_sapata = float(self.lineEdit_4.text())
		momento_y_sapata = float(self.lineEdit_5.text())
		x_pilar = float(self.lineEdit.text())
		y_pilar = float(self.lineEdit_2.text())
		tensao_adm_solo = float(self.lineEdit_35.text())
		fator_solo = float(self.lineEdit_13.text())


		if (nk != 0 and x_pilar != 0 and y_pilar != 0 and tensao_adm_solo != 0 and fator_solo != 0):
		
			fck_sapata = float(self.comboBox.currentText())
			fcd_sapata = fck_sapata / 1.4
			fyk_sapata = float(self.comboBox_2.currentText())
			fyd_sapata = fyk_sapata / 1.15
			nk = float(self.lineEdit_3.text())
			momento_x_sapata = float(self.lineEdit_4.text())
			momento_y_sapata = float(self.lineEdit_5.text())
			tensao_adm_solo = float(self.lineEdit_35.text())
			fator_solo = float(self.lineEdit_13.text())
			angulo_dissp_sapata = float(self.spinBox.value())

			angulo_dissp_sapata = (angulo_dissp_sapata / 180)* 3.14

			x_pilar = float(self.lineEdit.text())/100
			y_pilar = float(self.lineEdit_2.text())/100

			area_sapata = round(fator_solo * ((nk*1000)/(tensao_adm_solo*1000000)),ndigits=6)

			y_sapata = 0.5*(y_pilar - x_pilar) + math.sqrt(0.25*((y_pilar - x_pilar)**2)+area_sapata)

			x_sapata = area_sapata/y_sapata

			if (momento_x_sapata != 0 and momento_y_sapata == 0) or (momento_x_sapata == 0 and momento_y_sapata != 0):
				fator_acrescimo_dimensoes = 1.05
			elif (momento_x_sapata != 0 and momento_y_sapata != 0):
				fator_acrescimo_dimensoes = 1.103
			else:
				fator_acrescimo_dimensoes = 1.0

			x_sapata = round(x_sapata * fator_acrescimo_dimensoes, ndigits=4)
			y_sapata = round(y_sapata * fator_acrescimo_dimensoes, ndigits=4)

			if x_sapata < 0.6:
				x_sapata = 0.6
			if y_sapata < 0.6:
				y_sapata = 0.6
			print(x_sapata,'<--------------------------------------------------')
			wx = x_sapata * (y_sapata**2)/6
			wy = y_sapata * (x_sapata**2)/6

			mw_x = (momento_x_sapata/wx)*1000
			mw_y = (momento_y_sapata/wy)*1000

			tensao_sapata = (fator_solo*nk*1000)/(x_sapata*y_sapata)
			tensao_max_sapata = tensao_sapata + mw_x + mw_y
			tensao_min_sapata = tensao_sapata - mw_x - mw_y

			x_sapata = self.arredondar_cinco(x_sapata)
			y_sapata = self.arredondar_cinco(y_sapata)
			if x_sapata < 0.6:
				x_sapata = 0.6
			if y_sapata < 0.6:
				y_sapata = 0.6

			nk_equiv = (x_sapata * y_sapata * tensao_max_sapata)/fator_solo

			ca_sapata = (x_sapata - x_pilar)/2
			cb_sapata = (y_sapata - y_pilar)/2
			h_rig_x = 2/3 * ca_sapata
			h_rig_y = 2/3 * cb_sapata

			h_total = h_rig_x
			if h_total < h_rig_y:
				h_total = h_rig_y

			h_mincis = (1.4 * nk_equiv)/(2*(x_pilar+y_pilar)*0.27*(1-(fck_sapata/250))*(fcd_sapata*1000000))
			if h_mincis < 0.40:
				h_mincis = 0.40
			h_mincis = round(h_mincis, ndigits=4)

			if h_total < h_mincis:
				h_total = h_mincis

			h_total = self.arredondar_cinco(h_total)

			h0a = h_total - ca_sapata * math.tan(angulo_dissp_sapata)
			h0b = h_total - cb_sapata * math.tan(angulo_dissp_sapata)
			h0_prerrogativo = h_total/3
			tangente_angulo = math.tan(angulo_dissp_sapata)
			h0 = round(h0a, ndigits=2)
			if h0a < h0b:
				h0 = round(h0b, ndigits=2)
			elif h0b < h0_prerrogativo:
				h0 = h0_prerrogativo
			if h0 < 0.25:
				h0 = 0.25
			h0 = self.arredondar_cinco(h0)

			volume_concreto_sapata = ((h_total-h0)/3*(x_sapata*y_sapata+x_pilar*y_pilar+math.sqrt(x_sapata*y_sapata*x_pilar*y_pilar)))+(x_sapata*y_sapata*h0)

			braco_alavanca_sapata = h_total - 0.05

			tracao_x_sapata = 1.1 * nk_equiv * (x_sapata - x_pilar)/(8 * braco_alavanca_sapata)
			tracao_y_sapata = 1.1 * nk_equiv * (y_sapata - y_pilar)/(8 * braco_alavanca_sapata)
			as_x_sapata = (1.4 * tracao_x_sapata)/(fyd_sapata)
			as_y_sapata = (1.4 * tracao_y_sapata)/fyd_sapata

			taxa_aco_sapata = (0.078 * (fck_sapata)**(2/3))/fyd_sapata

			if taxa_aco_sapata <= 0.0015:
				taxa_aco_sapata = 0.0015

			as_x_min_laje = 0.67 * taxa_aco_sapata * h_total * x_sapata
			as_y_min_laje = 0.67 * taxa_aco_sapata * h_total * y_sapata

			print('x_sapata: ',x_sapata)
			print('y_sapata: ',y_sapata)

			print('wx: ',wx)
			print('wy: ',wy)
			print('mw_x: ',mw_x)
			print('mw_y: ',mw_y)
			print('tensao_max_sapata: ',tensao_max_sapata)
			print('tensao_min_sapata: ',tensao_min_sapata)
			print('nk_equiv: ',nk_equiv)
			print('ca_sapata: ',ca_sapata)
			print('cb_sapata: ',cb_sapata)
			print('h0a: ',h0a)
			print('h0b: ',h0b)
			print('h_mincis: ',h_mincis)
			print('h0: ',h0)
			print('tangente_angulo: ',tangente_angulo)
			print('----------')
			print('h_total: ',h_total)
			print('tracao_x_sapata: ',tracao_x_sapata)
			print('tracao_y_sapata: ',tracao_y_sapata)
			print('as_x_sapata: ',as_x_sapata)
			print('as_y_sapata: ',as_y_sapata)
			print('taxa_aco_sapata: ',taxa_aco_sapata)
			print('as_x_min_laje: ',as_x_min_laje)
			print('as_y_min_laje: ',as_y_min_laje)
			print('-------------------------------------\n')
			#------------------------------ saida de dados ---------------------------------------------
			self.lineEdit_9.setText(str(y_sapata))
			self.lineEdit_10.setText(str(x_sapata))
			self.lineEdit_15.setText(str(area_sapata))

			self.lineEdit_11.setText(str(round(h_total, ndigits=4)))
			self.lineEdit_12.setText(str(round(h0, ndigits=4)))


			self.lineEdit_15.setText(str(area_sapata))
			self.lineEdit_16.setText(str(round(wx, ndigits=6)))
			self.lineEdit_17.setText(str(round(wy, ndigits=6)))
			self.lineEdit_18.setText(str(round(nk_equiv, ndigits=4)))
			self.lineEdit_19.setText(str(round(tensao_max_sapata/1000000, ndigits=4)))
			self.lineEdit_20.setText(str(round(tensao_min_sapata/1000000, ndigits=4)))
			self.lineEdit_21.setText(str(round(ca_sapata*100, ndigits=4)))
			self.lineEdit_22.setText(str(round(cb_sapata*100, ndigits=4)))

			self.lineEdit_23.setText(str(round(h_rig_x*100, ndigits=4)))
			self.lineEdit_24.setText(str(round(h_rig_y*100, ndigits=4)))
			self.lineEdit_25.setText(str(round(h_mincis*100, ndigits=4)))
			self.lineEdit_26.setText(str(round(h0a*100, ndigits=4)))
			self.lineEdit_28.setText(str(round(h0b*100, ndigits=4)))
			self.lineEdit_27.setText(str(round(volume_concreto_sapata, ndigits=4)))

			self.lineEdit_14.setText(str(round(tracao_x_sapata/1000, ndigits=4)))
			self.lineEdit_29.setText(str(round(tracao_y_sapata/1000, ndigits=4)))
			self.lineEdit_30.setText(str(round(as_x_sapata, ndigits=4)))
			self.lineEdit_31.setText(str(round(as_y_sapata, ndigits=4)))

			self.lineEdit_32.setText(str(round(taxa_aco_sapata, ndigits=7)))
			self.lineEdit_33.setText(str(round(as_x_min_laje*1000000, ndigits=4)))
			self.lineEdit_34.setText(str(round(as_y_min_laje*1000000, ndigits=4)))

		else:
			QMessageBox.about(self, "Falta de Dados", "Por favor insira dados consistentes")


	def limpar_sapatas(self):
		self.comboBox.setCurrentIndex(0)
		self.comboBox_2.setCurrentIndex(0)

		self.lineEdit.setText('0')
		self.lineEdit_2.setText('0')
		self.lineEdit_3.setText('0')
		self.lineEdit_4.setText('0')
		self.lineEdit_5.setText('0')

		self.lineEdit_35.setText('0')
		self.lineEdit_13.setText('1.1')
		self.spinBox.setValue(30)

		self.lineEdit_9.setText('0')
		self.lineEdit_10.setText('0')
		self.lineEdit_11.setText('0')
		self.lineEdit_12.setText('0')

		self.lineEdit_15.setText('')
		self.lineEdit_16.setText('')
		self.lineEdit_17.setText('')
		self.lineEdit_18.setText('')
		self.lineEdit_19.setText('')
		self.lineEdit_20.setText('')
		self.lineEdit_21.setText('')
		self.lineEdit_22.setText('')
		self.lineEdit_23.setText('')
		self.lineEdit_24.setText('')
		self.lineEdit_25.setText('')
		self.lineEdit_26.setText('')
		self.lineEdit_27.setText('')
		self.lineEdit_28.setText('')

		self.lineEdit_14.setText('')
		self.lineEdit_29.setText('')
		self.lineEdit_30.setText('')
		self.lineEdit_31.setText('')
		self.lineEdit_32.setText('')
		self.lineEdit_33.setText('')
		self.lineEdit_34.setText('')

#---------------------------------------------- Janelas Adicionais ----------------------------------------------------


class Tabela_Classe_Agressividade(QtWidgets.QMainWindow):
	def __init__(self):
		super().__init__()
		self.load_ui()
		self.load_signals()

	def load_ui(self):
		self.ui = loadUi('class_agres.ui',self)

		#scriptDir = os.path.dirname(os.path.realpath(__file__))
		#self.setWindowIcon(QtGui.QIcon(scriptDir + os.path.sep + 'logo.ico'))
		self.setWindowIcon(QtGui.QIcon('./logo.ico'))

		self.setWindowTitle('Navier - Classes de Agressividade e Cobrimentos Mínimos')
		self.setFixedSize(579, 520)

	def load_signals(self):
		print('inicializado')
		header = self.tableWidget.horizontalHeader()
		header.setSectionResizeMode(0, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(1, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(2, QtWidgets.QHeaderView.Stretch)
		header.setSectionResizeMode(3, QtWidgets.QHeaderView.Stretch)

		self.tableWidget.setSpan(0, 0, 1, 4)

		header_2 = self.tableWidget_2.horizontalHeader()
		header_2.setSectionResizeMode(0, QtWidgets.QHeaderView.Stretch)
		header_2.setSectionResizeMode(1, QtWidgets.QHeaderView.Stretch)
		header_2.setSectionResizeMode(2, QtWidgets.QHeaderView.Stretch)
		header_2.setSectionResizeMode(3, QtWidgets.QHeaderView.ResizeToContents)

		self.tableWidget_2.setSpan(0, 0, 2, 1)
		self.tableWidget_2.setSpan(0, 1, 2, 1)
		self.tableWidget_2.setSpan(0, 3, 2, 1)

		self.tableWidget_2.setSpan(3, 0, 2, 1)
		self.tableWidget_2.setSpan(3, 1, 2, 1)
		self.tableWidget_2.setSpan(3, 3, 2, 1)

		self.tableWidget_2.setSpan(5, 0, 2, 1)
		self.tableWidget_2.setSpan(5, 1, 2, 1)
		self.tableWidget_2.setSpan(5, 3, 2, 1)



if __name__ == '__main__':
	app = QtWidgets.QApplication(sys.argv)
	inicio = Inicio()
	vigas = Vigas()
	detalhar_vigas = Detalhar_viga()
	pilares = Pilares()
	pilares_areas_aco = Pilar_area_aco()
	#pilares.show()
	#vigas.show()
	lajes = Lajes()
	#lajes.show()
	sapatas = Sapatas()
	#sapatas.show()
	carga_adicional = Carga_Adicional()
	tabela_classe_agressividade = Tabela_Classe_Agressividade()
	tabela_bitolas = Tabela_Bitolas()

	app.exec_()