def general_triangle( z ):
global args
if z == 'f':
args.A_f= radians( input_float( "ENTER: Angle (f)? " ) )
elif z == 'g':
args.A_g= radians( input_float( "ENTER: Angle (g)? " ) )
elif z == 'h':
args.A_h= radians( input_float( "ENTER: Angle (h)? " ) )
elif z == 'i':
args.S_i= input_float( "ENTER: Side <i>? " )
elif z == 'j':
args.S_j= input_float( "ENTER: Side <j>? " )
elif z == 'k':
args.S_k= input_float( "ENTER: Side <k>? " )
args= solutri.triangle( **args )
report= {
'f': format(args, 'A_f', convert=math.degrees),
'g': format(args, 'A_g', convert=math.degrees),
'h': format(args, 'A_h', convert=math.degrees),
'i': format(args, 'S_k'),
'j': format(args, 'S_i'),
'k': format(args, 'S_j'),
}
print( " /^\\" )
print( " / (f) \\ <-- {f}°".format(**report) )
print( " / \\" )
print( " <i>/ \\ <-- {i}".format(**report) )
print( " / \\<j> <-- {j}".format(**report) )
print( " / \\".format(**report) )
print( " / (h) (g) \\ <-- {h}° {g}°".format(**report) )
print( "/_ _ _ _ _ _ _ _ _ __ _ _ _ _ _\\" )
print( " <k> <-- {k}".format(**report) )
print()
def right_triangle(z):
global args
args.A_h= math.radians(90)
if z == 'a':
args.A_f= radians( input_float( "ENTER: Angle (a)? " ) )
elif z == 'b':
args.A_g= radians( input_float( "ENTER: Angle (b)? " ) )
elif z == 'c':
args.S_k= input_float( "ENTER: Side <c>? " )
elif z == 'd':
args.S_i= input_float( "ENTER: Side <d>? " )
elif z == 'e':
args.S_j= input_float( "ENTER: Side <e>? " )
args= solutri.triangle( **args )
report= {
'a': format(args, 'A_f', convert=math.degrees),
'b': format(args, 'A_g', convert=math.degrees),
'c': format(args, 'S_k'),
'd': format(args, 'S_i'),
'e': format(args, 'S_j'),
}
print( " |\\" )
print( " | \\" )
print( " |(a)\\ <-- {a}°".format(**report) )
print( " | \\" )
print( " | \\<e> <-- {e}".format(**report) )
print( "<d>| \\ <-- {d}".format(**report) )
print( " | (b)\\ <-- {b}°".format(**report) )
print( " |_ _ _ _ _\\" )
print( " <c> <-- {c}".format(**report) )
print()
