def to_fxp_array(input, output, fractbit):
if len(output) != 0:
print("ERROR")
for i in range(len(input) // 2):
x1 = Fxp(input[2 * i], True, 16, fractbit)
bdata1 = int(x1.hex(), 16).to_bytes(2, byteorder='big')
x2 = Fxp(input[2 * i + 1], True, 16, fractbit)
bdata2 = int(x2.hex(), 16).to_bytes(2, byteorder='big')
bdata = bdata2 + bdata1
idata = int.from_bytes(bdata, 'big')
output.append(idata)
channels = 3
elif image.mode == "L":
channels = 1
else:
print("Unknown mode: %s" % image.mode)
return None
pixel_values = numpy.array(pixel_values).reshape((width, height, channels))
return pixel_values, width, height
image, x, y = get_image("empty-heart.jpg")
file1.write('v2.0 raw')
for j in range(y):
for i in range(x):
#print (image[i][j] >> 4)
fxppixel = Fxp(image[j][i], 0, 24, 0)
fxppixel = Fxp(fxppixel >> 4, 0, 4, 0)
print(str(fxppixel.hex()).replace("0x", ""))
tempstr = str(fxppixel.hex()).replace("0x", "")
tempstr = tempstr.replace("'", "")
tempstr = tempstr.replace("[", "")
tempstr = tempstr.replace("]", "")
tempstr = tempstr.replace(",", "")
tempstr = tempstr.replace(" ", "")
file1.write('\n' + tempstr)
#file1.write('\n' + str(image[j][i] >> 4))
file1.close()
i_f = float(val) / float(maxval) * (len(colors) - 1)
i, f = int(i_f // 1), i_f % 1 # Split into whole & fractional parts.
# Does it fall exactly on one of the color points?
if f < EPSILON:
return colors[i]
else: # Otherwise return a color within the range between them.
(r1, g1, b1), (r2, g2, b2) = colors[i], colors[i + 1]
return int(r1 + f * (r2 - r1)), int(g1 + f * (g2 - g1)), int(b1 + f *
(b2 - b1))
maxval = 767
colors = [(0, 15, 15), (0, 0, 15), (15, 0, 15)] # [Beginning, Middle , End]
print(' Val R G B')
file1.write('v2.0 raw')
for i in range(maxval + 1):
r, g, b = convert_to_rgb(maxval, i, colors)
fxpred = (Fxp(r, 0, 16, 0))
fxpgreen = (Fxp(g, 0, 16, 0))
fxpblue = (Fxp(b, 0, 16, 0))
const = (Fxp(1, 0, 16, 0))
fxpword = Fxp(None, 0, 16, 0)
fxpword.equal(((const & 0x0001) << 15) | ((fxpred & 0x001f) << 10)
| ((fxpgreen & 0x001f) << 5) | ((fxpblue & 0x001f)))
print('{:3d} -> ({:3d}, {:3d}, {:3d})'.format(i, r, g, b))
file1.write('\n' + str(fxpword.hex()).replace("0x", ""))
file1.close()
for ty in range(0, Noy // Toy):
for tx in range(0, Nox // Tox):
with open(
"Tile/fmi_tile/fmi_tile_" + str((ty * (Nox // Tox)) + tx) +
".txt", "w") as fifi:
for f in range(0, Nif):
for y in range(0, Tiy):
for x in range(0, Tix):
if ((ty * Toy + y == 0) | (ty * Toy + y > Niy) |
(tx * Tox + x == 0) | (tx * Tox + x > Nix)):
stri = Fxp(0, True, BW_px, fr_px, overflow='wrap')
else:
stri = fmi[f][ty * Toy + y - 1][tx * Tox + x - 1]
stri = ('0' *
(8 - len(stri.hex()[2:]))) + stri.hex()[2:]
stri = stri + " : " + str(f * Tix * Tiy + y * Tiy + x)
fifi.write(stri + "\n")
# Create Kex and the Tile (Npar)
with open("kex.txt", "w") as fifi:
for f in range(0, Nif * t):
for y in range(0, Ngr):
for x in range(0, Nnp):
stri1 = kex_wg[f][y][x]
stri2 = kex_pos[f][y][x]
stri = ('0' * (4 - len(stri2.hex()[2:]))) + stri2.hex()[2:] + (
'0' * (4 - len(stri1.hex()[2:]))) + stri1.hex()[2:]
fifi.write(stri + "\n")