def main():
option='''1> Display individual component
2> Display component average
3> Display Standard Report
4> Sort by alternate column
5> Change Pass/Fail point
6> Exit'''
while True:
print(option)
choice= input("Enter your choice (1-6):")
if choice == "1":
compute.individual_component()
elif choice == "2":
compute.Average_component()
elif choice == "3":
compute.report()
elif choice == "4":
compute.sorted_component()
elif choice == "5":
compute.change_grade()
elif choice == "6":
print("Good Bye",end="")
exit(0)
def menu():
choice = input("""
-------------------Main Menu----------------------
1> Display Individual Component
2> Display component Average
3> Display Standard Report
4> Sort by alternate column
5> change Pass/Fail Point
6> Exit
--------------------------------------------------
Enter Choice: """)
if choice == '1':
cp.individual(students, max_grades)
menu()
elif choice == '2':
choice3 = input("-> Select Component for Average(A1,A2,PR,T1,T2):")
if choice3 == 'a1' or choice3 == 'A1':
cp.average('a1')
elif choice3 == 'a2' or choice3 == 'A2':
cp.average('a2')
elif choice3 == 'pr' or choice3 == 'PR':
cp.average('project')
elif choice3 == 't1' or choice3 == 'T1':
cp.average('test1')
elif choice3 == 't2' or choice3 == 'T2':
cp.average('test2')
else:
print("incorrect choice")
menu()
elif choice == '3':
print("-> Standard Report:")
cp.report(students, max_grades, 1)
menu()
elif choice == '4':
print("-> Standard Report:")
cp.report(students, max_grades, 0)
menu()
elif choice == '5':
point = input("-> Enter Fail Point (between 0 to 100):")
cp.report(students, max_grades, point)
menu()
elif choice == '6':
print("Good Bye")
sys.exit()
else:
print("Incorrect Choice. Choose Between 1 to 6")
menu()
# get the time variable to use in the future
T = data_s[:, 0]
# compute speed and acceleration
(veloc_s, accel_s) = compute.velocity(data_s, win_size=WIN_VELOCITY_SIZE)
(veloc_t, accel_t) = compute.velocity(data_t, win_size=WIN_VELOCITY_SIZE)
# dchanges = compute.dir_changesX2(data, win_size=100)
dchanges_s = compute.dir_changesX3(data_s, win_size=WIN_CHANGE_DIR_SIZE)
dchanges_t = compute.dir_changesX3(data_t, win_size=WIN_CHANGE_DIR_SIZE)
(fs, es, thy, thv, tha, thdc) = compute.decide3(T, data_s[:, 2], veloc_s, veloc_t, accel_s, accel_t, dchanges_s, THRES_V, THRES_Y, THRESHOLD_DC, THRESHOLD_A)
intervals = compute.interval_list(fs, es, T)
compute.subtitle(intervals, name_sub)
bins = compute.report(fs, es, data_s, 0, name_rep, BIN_SIZE)
bins_list[key] = bins
if SHOW_3D:
utils.plot3d(data_t[:, 1], data_t[:, 2], data_s[:, 2], fs, es, XLIMS, YLIMS, ZLIMS, fname=name_fig2, fdpi=FIG_DPI, style=FIG3D, style_normal=FIG3D_NORMAL, style_erratic=FIG3D_ERRATIC, style_freeze=FIG3D_FREEZE)
plt.figure(1)
plt.subplot(5, 1, 1)
plt.plot(T, data_s[:, 1], 'b') # X
plt.plot(T, -data_t[:, 1], 'g') # X
plt.subplot(5, 1, 2)
plt.plot(T, data_s[:, 2]) # Y
plt.axhline(thy)
plt.subplot(5, 1, 3)
# get the time variable to use in the future
T = data[:, 0]
# compute speed and acceleration
(veloc, accel) = compute.velocity(data_smooth, win_size=125)
#dchanges = compute.dir_changesX2(data, win_size=100)
dchanges = compute.dir_changesX3(data, win_size=10)
#(fs, es) = compute.decide(data, veloc, accel, dchanges)
(fs, es) = compute.decide2(T, veloc, data[:, 2], accel, dchanges)
intervals = compute.interval_list(fs, es, data, 0)
compute.subtitle(intervals, name_sub)
compute.report(fs, es, data, 0, name_rep)
plt.figure(1)
plt.subplot(5, 1, 1)
plt.plot(T, data[:, 1]) # X
plt.subplot(5, 1, 2)
plt.plot(T, data[:, 2]) # Y
plt.subplot(5, 1, 3)
plt.plot(T, veloc, 'r') # veloc
plt.axhline(0.1)
THRES = 7.5
plt.subplot(5, 1, 4)
plt.axhline(THRES)
