def c2p():
m0 = Word.Mask('00ff')
m1 = Word.Mask('0f0f')
print "=[ c2p 1x1 ham6 (blitter + mangled) ]=".center(48, '-')
def MakeWord(c, color):
# mangle: [ 0 0 0 0 r0 r1 r2 r3 g0 g1 g2 g3 b0 b1 b2 b3] =>
# [r0 g0 b0 b0 r1 g1 b1 b1 r2 g2 b2 b2 r3 g3 b3 b3]
return Word([
Bit.Var(c[0], 0, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 3, color)
])
A = Array.Make(MakeWord)
N = len(A)
Array.Print("Data:", *A)
B = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 8) & m0) | (b & ~m0), N / 4, 2, Channel(A, 2, 2),
Channel(A, 0, 2), Channel(B, 0, 2))
Blit(lambda a, b: ((a << 8) & ~m0) | (b & m0), N / 4, 2, Channel(A, 0, 2),
Channel(A, 2, 2), Channel(B, 2, 2))
Array.Print("Swap 8x4:", *B)
C = [Array.Zero(N / 4, 16) for i in range(4)]
Blit(lambda a, b: ((a >> 4) & m1) | (b & ~m1), N / 4, 1, Channel(B, 1, 3),
Channel(B, 0, 3), Channel(C[0]))
Blit(lambda a, b: ((a >> 4) & m1) | (b & ~m1), N / 4, 1, Channel(B, 3, 3),
Channel(B, 2, 3), Channel(C[2]))
Blit(lambda a, b: ((a << 4) & ~m1) | (b & m1), N / 4, 1, Channel(B, 0, 3),
Channel(B, 1, 3), Channel(C[1]))
Blit(lambda a, b: ((a << 4) & ~m1) | (b & m1), N / 4, 1, Channel(B, 2, 3),
Channel(B, 3, 3), Channel(C[3]))
print("Bitplanes:")
Array.Print("[0]:", *C[0])
Array.Print("[1]:", *C[1])
Array.Print("[2]:", *C[2])
Array.Print("[3]:", *C[3])
def c2p_2_1_4():
m0 = Word.Mask('3333')
m1 = Word.Mask('cccc')
m2 = Word.Mask('5555')
m3 = Word.Mask('aaaa')
print "c2p 2x1 4-bitplanes".center(96, '-')
a0 = Word.Data('a', color="31m")
a1 = Word.Data('b', color="32m")
a2 = Word.Data('c', color="33m")
a3 = Word.Data('d', color="34m")
Array.Print("Data:", a0, a1, a2, a3)
b0 = (a0 & m1) | (a2.lsr(2) & m0)
b1 = (a1 & m1) | (a3.lsr(2) & m0)
b2 = (a0.lsl(2) & m1) | (a2 & m0)
b3 = (a1.lsl(2) & m1) | (a3 & m0)
Array.Print("Swap 2x2:", b0, b1, b2, b3)
c0 = (b0 & m3) | (b1.lsr(1) & m2)
c1 = (b0.lsl(1) & m3) | (b1 & m2)
c2 = (b2 & m3) | (b3.lsr(1) & m2)
c3 = (b2.lsl(1) & m3) | (b3 & m2)
Array.Print("Swap 1x1:", c0, c1, c2, c3)
def read():
""" Reads dictionary from file.
"""
fp = open('bla.dict', 'rb')
ways = read_ways(fp)
word = Word()
word.read(fp)
root = ReadNode(fp, fp.tell())
child = root[3]
fp.close()
def process_stream(f, name, *args):
total_count, output_count = 0, 0
document_id, document_info, sentences = None, None, []
comments, words = [], []
for ln, l in enumerate(f, start=1):
l = l.rstrip('\n')
if not l or l.isspace():
sentences.append((comments, words))
comments, words = [], []
elif l.startswith('#'):
if is_document_boundary(l):
if sentences:
output_count += process_document(sentences, *args)
total_count += 1
sentences = []
comments.append(l)
else:
words.append(Word(*l.split('\t')))
if ln % 100000 == 0:
print('processed {} lines, output {}/{} ({:.1%}) documents ...'.\
format(ln, output_count, total_count,
output_count/total_count),
file=sys.stderr, flush=True)
if sentences:
output_count += process_document(sentences, *args)
total_count += 1
print('{}: output {}/{} ({:.1%})'.format(
os.path.basename(name), output_count, total_count,
output_count/total_count), file=sys.stderr, flush=True)
def write():
""" Writes dictionary to file.
"""
fp = open('bla.dict', 'wb')
write_ways(fp, get_ways())
word = Word('Labas', 'Ačiū')
word.write(fp)
root = WriteNode()
child = WriteNode()
child.add_word(word)
root.add_child(3, child)
root.write(fp)
fp.close()
def __init__(self, fp, address):
self.address = address
self.fp = fp
fp.seek(address)
children_count, = unpack('!L', fp.read(4))
word_count, = unpack('!L', fp.read(4))
self.word_count, = unpack('!L', fp.read(4))
self.addresses = {}
for i in range(children_count):
way, address = unpack('!BL', fp.read(5))
self.addresses[way] = address
self.words = []
for i in range(word_count):
word = Word()
word.read(fp)
self.words.append(word)
def sample_stream(f, fn, options):
sentences, comments, words = [], [], []
for ln, l in enumerate(f, start=1):
l = l.rstrip('\n')
if not l or l.isspace():
sentences.append((comments, words))
comments, words = [], []
elif l.startswith('#'):
if is_document_boundary(l):
if sentences:
process_document(sentences, options)
sentences = []
comments.append(l)
else:
words.append(Word(*l.split('\t')))
if sentences:
process_document(sentences, options)
def MakeWord(c, color):
return Word([Bit.Var(c[0], 0, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[3], 3, color)])
def MakeWord(c, color):
# mangle: [ 0 0 0 0 r0 r1 r2 r3 g0 g1 g2 g3 b0 b1 b2 b3] =>
# [r0 g0 b0 b0 r1 g1 b1 b1 r2 g2 b2 b2 r3 g3 b3 b3]
return Word([Bit.Var(c[0], 0, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 3, color)])
def MakeWord(a, b, e, f, c):
return Word([
Bit.Var(a, 3, c),
Bit.Var(a, 2, c),
Bit.Var(b, 3, c),
Bit.Var(b, 2, c),
Bit.Var(a, 1, c),
Bit.Var(a, 0, c),
Bit.Var(b, 1, c),
Bit.Var(b, 0, c),
Bit.Var(e, 3, c),
Bit.Var(e, 2, c),
Bit.Var(f, 3, c),
Bit.Var(f, 2, c),
Bit.Var(e, 1, c),
Bit.Var(e, 0, c),
Bit.Var(f, 1, c),
Bit.Var(f, 0, c)
])
def process_stream(f, name, options):
stats = defaultdict(int)
total_count, output_count = 0, 0
document_id, document_info, sentences = None, None, []
comments, words = [], []
for ln, l in enumerate(f, start=1):
l = l.rstrip('\n')
if not l or l.isspace():
sentences.append((comments, words))
comments, words = [], []
elif l.startswith('#'):
if is_document_boundary(l):
if sentences:
output_count += process_document(sentences, stats, options)
total_count += 1
sentences = []
if options.limit is not None and total_count >= options.limit:
break
comments.append(l)
else:
words.append(Word(*l.split('\t')))
if ln % 100000 == 0:
print('processed {} lines ({} docs) ...'.format(ln, total_count),
file=sys.stderr,
flush=True)
if sentences:
output_count += process_document(sentences, stats, options)
total_count += 1
for k, v in stats.items():
print('{}:{}\t{}'.format(os.path.basename(name), k, v),
file=sys.stderr,
flush=True)
print('{}: output {}/{} ({:.1%})'.format(os.path.basename(name),
output_count, total_count,
output_count / total_count),
file=sys.stderr,
flush=True)
from common import Rule, Word
rules = []
rules.append(Rule('S', 'NP VP'))
rules.append(Rule('NP', 'N'))
rules.append(Rule('NP', 'SURNAME N'))
rules.append(Rule('NP', 'N N'))
rules.append(Rule('NP', 'V N'))
rules.append(Rule('PP', 'PREP NP'))
rules.append(Rule('VP', 'V NP'))
rules.append(Rule('VP', 'ADV VP'))
rules.append(Rule('VP', 'PP VP'))
words = '王 翻译 在 翻译 小说'
words = words.split()
dictionary = []
dictionary.append(Word('王', 'SURNAME N'))
dictionary.append(Word('翻译', 'N V'))
dictionary.append(Word('在', 'V ADV PREP'))
dictionary.append(Word('小说', 'N'))
if __name__ == '__main__':
for i in rules:
print(i)
print()
for i in dictionary:
print(i)
def MakeWord(chars, color):
bits = []
for c in chars:
for i in range(4):
bits.append(Bit.Var(c, i, color))
return Word(bits)
def c2p_2_1_4_stingray():
m0 = Word.Mask('f0f0')
m1 = Word.Mask('0f0f')
m2 = Word.Mask('aaaa')
m3 = Word.Mask('5555')
print "=[ c2p 2x1 4bpl (stingray) ]=".center(48, '-')
def MakeWord(a, b, e, f, c):
return Word([
Bit.Var(a, 3, c),
Bit.Var(a, 2, c),
Bit.Var(b, 3, c),
Bit.Var(b, 2, c),
Bit.Var(a, 1, c),
Bit.Var(a, 0, c),
Bit.Var(b, 1, c),
Bit.Var(b, 0, c),
Bit.Var(e, 3, c),
Bit.Var(e, 2, c),
Bit.Var(f, 3, c),
Bit.Var(f, 2, c),
Bit.Var(e, 1, c),
Bit.Var(e, 0, c),
Bit.Var(f, 1, c),
Bit.Var(f, 0, c)
])
i0 = MakeWord('a', 'b', 'e', 'f', "31m")
i1 = MakeWord('c', 'd', 'g', 'h', "32m")
i2 = MakeWord('A', 'B', 'E', 'F', "33m")
i3 = MakeWord('C', 'D', 'G', 'H', "34m")
Array.Print("Data:", i0, i1, i2, i3)
a0 = (i0.lsl(4) & m0) | (i1 & m1)
a2 = (i2.lsl(4) & m0) | (i3 & m1)
a1 = (i0 & m0) | (i1.lsr(4) & m1)
a3 = (i2 & m0) | (i3.lsr(4) & m1)
Array.Print("Swap 4x2:", a0, a1, a2, a3)
b0 = a0 & m3
b2 = a1 & m3
b4 = a2 & m3
b6 = a3 & m3
b1 = a0.lsr(1) & m3
b3 = a1.lsr(1) & m3
b5 = a2.lsr(1) & m3
b7 = a3.lsr(1) & m3
Array.Print("Bitplanes:", b0, b1, b2, b3, b4, b5, b6, b7)
b0 = (a0 & m3) | (a0.lsl(1) & m2)
b2 = (a1 & m3) | (a1.lsl(1) & m2)
b4 = (a2 & m3) | (a2.lsl(1) & m2)
b6 = (a3 & m3) | (a3.lsl(1) & m2)
b1 = (a0.lsr(1) & m3) | (a0 & m2)
b3 = (a1.lsr(1) & m3) | (a1 & m2)
b5 = (a2.lsr(1) & m3) | (a2 & m2)
b7 = (a3.lsr(1) & m3) | (a3 & m2)
Array.Print("Bitplanes:", b0, b1, b2, b3, b4, b5, b6, b7)
def c2p(bitplane_output=True):
m0 = Word.Mask('00ff')
m1 = Word.Mask('0f0f')
m2 = Word.Mask('3333')
m3 = Word.Mask('5555')
print "=[ c2p 1x1 4bpl (blitter) ]=".center(48, '-')
def MakeWord(chars, color):
bits = []
for c in chars:
for i in range(4):
bits.append(Bit.Var(c, i, color))
return Word(bits)
A = Array.Make(MakeWord)
N = len(A)
Array.Print("Data:", *A)
B = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 8) & m0) | (b & ~m0), N / 4, 2, Channel(A, 2, 2),
Channel(A, 0, 2), Channel(B, 0, 2))
Blit(lambda a, b: ((a << 8) & ~m0) | (b & m0), N / 4, 2, Channel(A, 0, 2),
Channel(A, 2, 2), Channel(B, 2, 2))
Array.Print("Swap 8x4:", *B)
C = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 4) & m1) | (b & ~m1), N / 2, 1, Channel(B, 1, 1),
Channel(B, 0, 1), Channel(C, 0, 1))
Blit(lambda a, b: ((a << 4) & ~m1) | (b & m1), N / 2, 1, Channel(B, 0, 1),
Channel(B, 1, 1), Channel(C, 1, 1))
Array.Print("Swap 4x2:", *C)
D = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 2) & m2) | (b & ~m2), N / 4, 2, Channel(C, 2, 2),
Channel(C, 0, 2), Channel(D, 0, 2))
Blit(lambda a, b: ((a << 2) & ~m2) | (b & m2), N / 4, 2, Channel(C, 0, 2),
Channel(C, 2, 2), Channel(D, 2, 2))
Array.Print("Swap 2x2:", *D)
if bitplane_output:
E = [Array.Zero(N / 4, 16) for i in range(4)]
Blit(lambda a, b: ((a >> 1) & m3) | (b & ~m3), N / 4, 1,
Channel(D, 1, 3), Channel(D, 0, 3), Channel(E[0], 0, 0))
Blit(lambda a, b: ((a >> 1) & m3) | (b & ~m3), N / 4, 1,
Channel(D, 3, 3), Channel(D, 2, 3), Channel(E[2], 0, 0))
Blit(lambda a, b: ((a << 1) & ~m3) | (b & m3), N / 4, 1,
Channel(D, 0, 3), Channel(D, 1, 3), Channel(E[1], 0, 0))
Blit(lambda a, b: ((a << 1) & ~m3) | (b & m3), N / 4, 1,
Channel(D, 2, 3), Channel(D, 3, 3), Channel(E[3], 0, 0))
print("Bitplanes:")
Array.Print("[0]:", *E[0])
Array.Print("[1]:", *E[1])
Array.Print("[2]:", *E[2])
Array.Print("[3]:", *E[3])
else:
E = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 1) & m3) | (b & ~m3), N / 2, 1,
Channel(D, 1, 1), Channel(D, 0, 1), Channel(E, 0, 1))
Blit(lambda a, b: ((a << 1) & ~m3) | (b & m3), N / 2, 1,
Channel(D, 0, 1), Channel(D, 1, 1), Channel(E, 1, 1))
Array.Print("Swap 1x1:", *E)
def c2p_1_1_8():
m0 = Word.Mask('0f0f')
m1 = Word.Mask('f0f0')
m2 = Word.Mask('3333')
m3 = Word.Mask('cccc')
m4 = Word.Mask('5555')
m5 = Word.Mask('aaaa')
print "c2p 1x1 8-bitplanes".center(96, '-')
a0 = Word.Data('a', color="31m")
a1 = Word.Data('b', color="32m")
a2 = Word.Data('c', color="33m")
a3 = Word.Data('d', color="34m")
a4 = Word.Data('e', color="35m")
a5 = Word.Data('f', color="36m")
a6 = Word.Data('g', color="37m")
a7 = Word.Data('h', color="38m")
Array.Print("Data:", a0, a1, a2, a3, a4, a5, a6, a7)
b0 = (a0 & m1) | (a4.lsr(4) & m0)
b1 = (a1 & m1) | (a5.lsr(4) & m0)
b2 = (a2 & m1) | (a6.lsr(4) & m0)
b3 = (a3 & m1) | (a7.lsr(4) & m0)
b4 = (a0.lsl(4) & m1) | (a4 & m0)
b5 = (a1.lsl(4) & m1) | (a5 & m0)
b6 = (a2.lsl(4) & m1) | (a6 & m0)
b7 = (a3.lsl(4) & m1) | (a7 & m0)
Array.Print("Swap 4x4:", b0, b1, b2, b3, b4, b5, b6, b7)
c0 = (b0 & m3) | (b2.lsr(2) & m2)
c1 = (b1 & m3) | (b3.lsr(2) & m2)
c2 = (b0.lsl(2) & m3) | (b2 & m2)
c3 = (b1.lsl(2) & m3) | (b3 & m2)
c4 = (b4 & m3) | (b6.lsr(2) & m2)
c5 = (b5 & m3) | (b7.lsr(2) & m2)
c6 = (b4.lsl(2) & m3) | (b6 & m2)
c7 = (b5.lsl(2) & m3) | (b7 & m2)
Array.Print("Swap 2x2:", c0, c1, c2, c3, c4, c5, c6, c7)
d0 = (c0 & m5) | (c1.lsr(1) & m4)
d1 = (c0.lsl(1) & m5) | (c1 & m4)
d2 = (c2 & m5) | (c3.lsr(1) & m4)
d3 = (c2.lsl(1) & m5) | (c3 & m4)
d4 = (c4 & m5) | (c5.lsr(1) & m4)
d5 = (c4.lsl(1) & m5) | (c5 & m4)
d6 = (c6 & m5) | (c7.lsr(1) & m4)
d7 = (c6.lsl(1) & m5) | (c7 & m4)
Array.Print("Swap 1x1:", d0, d1, d2, d3, d4, d5, d6, d7)
from common import Rule, Word
rules = []
rules.append(Rule('S', 'NP VP'))
rules.append(Rule('NP', 'ART ADJ N'))
rules.append(Rule('NP', 'ART N'))
rules.append(Rule('NP', 'ADJ N'))
rules.append(Rule('VP', 'AUX VP'))
rules.append(Rule('VP', 'V NP'))
words = 'the large can can hold the water'
words = words.split()
dictionary = []
dictionary.append(Word('the', 'ART'))
dictionary.append(Word('large', 'ADJ'))
dictionary.append(Word('can', 'N AUX V'))
dictionary.append(Word('hold', 'N V'))
dictionary.append(Word('water', 'N V'))
if __name__ == '__main__':
for i in rules:
print(i)
print()
for i in dictionary:
print(i)
def c2p(bitplane_output=True):
m0 = Word.Mask('ff00')
m1 = Word.Mask('f0f0')
m2 = Word.Mask('cccc')
print "=[ c2p 1x1 4bpl (blitter + mangled) ]=".center(48, '-')
def MakeWord(c, color):
return Word([
Bit.Var(c[0], 0, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 3, color)
])
A = Array.Make(MakeWord)
N = len(A)
Array.Print("Data:", *A)
B = Array.Zero(N, 16)
Blit(lambda a, b: (a & m0) | ((b >> 8) & ~m0), N / 4, 2, Channel(A, 0, 2),
Channel(A, 2, 2), Channel(B, 0, 2))
Blit(lambda a, b: ((a << 8) & m0) | (b & ~m0), N / 4, 2, Channel(A, 0, 2),
Channel(A, 2, 2), Channel(B, 2, 2))
Array.Print("Swap 8x4:", *B)
C = Array.Zero(N, 16)
Blit(lambda a, b: (a & m1) | ((b >> 4) & ~m1), N / 2, 1, Channel(B, 0, 1),
Channel(B, 1, 1), Channel(C, 0, 1))
Blit(lambda a, b: ((a << 4) & m1) | (b & ~m1), N / 2, 1, Channel(B, 0, 1),
Channel(B, 1, 1), Channel(C, 1, 1))
Array.Print("Swap 4x2:", *C)
if bitplane_output:
D = [Array.Zero(N / 4, 16) for i in range(4)]
Blit(lambda a, b: (a & m2) | ((b >> 2) & ~m2), N / 4, 1,
Channel(C, 0, 3), Channel(C, 2, 3), Channel(D[0], 0, 0))
Blit(lambda a, b: (a & m2) | ((b >> 2) & ~m2), N / 4, 1,
Channel(C, 1, 3), Channel(C, 3, 3), Channel(D[1], 0, 0))
Blit(lambda a, b: ((a << 2) & m2) | (b & ~m2), N / 4, 1,
Channel(C, 0, 3), Channel(C, 2, 3), Channel(D[2], 0, 0))
Blit(lambda a, b: ((a << 2) & m2) | (b & ~m2), N / 4, 1,
Channel(C, 1, 3), Channel(C, 3, 3), Channel(D[3], 0, 0))
print("Bitplanes:")
Array.Print("[0]:", *D[0])
Array.Print("[1]:", *D[1])
Array.Print("[2]:", *D[2])
Array.Print("[3]:", *D[3])
else:
D = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 2) & ~m2) | (b & m2), N / 4, 2,
Channel(C, 2, 2), Channel(C, 0, 2), Channel(D, 0, 2))
Blit(lambda a, b: ((a << 2) & m2) | (b & ~m2), N / 4, 2,
Channel(C, 0, 2), Channel(C, 2, 2), Channel(D, 2, 2))
Array.Print("Swap 2x2:", *D)
def c2p(bitplane_output=True):
print "=[ c2p 2x1 4bpl (blitter + mangled) ]=".center(48, '-')
# premangled pixels:
# 1) [- - - - a b c d] => [a b - - c d - -]
# 2) [- - - - e f g h] => [- - e f - - g h]
def MakeWord(c, color):
return Word([
Bit.Var(c[0], 0, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[3], 3, color)
])
# premangled pixel buffer: [AB CD EF GH] => [AB EF CD GH]
def ArrayMake(fn):
return [
fn("abef", color="31m"),
fn("cdgh", color="32m"),
fn("ijmn", color="33m"),
fn("klop", color="34m"),
fn("qruv", color="35m"),
fn("stwx", color="36m"),
fn("ABEF", color="31;1m"),
fn("CDGH", color="32;1m"),
fn("IJMN", color="33;1m"),
fn("KLOP", color="34;1m"),
fn("QRUV", color="35;1m"),
fn("STWX", color="36;1m")
]
A = ArrayMake(MakeWord)
N = len(A)
Array.Print("Data:", *A)
m0 = Word.Mask('f0f0')
m1 = Word.Mask('aaaa')
B = [Array.Zero(N / 2, 16) for i in range(2)]
Blit(lambda a, b: (a & m0) | ((b >> 4) & ~m0), N / 2, 1, Channel(A, 0, 1),
Channel(A, 1, 1), Channel(B[0]))
Blit(lambda a, b: ((a << 4) & m0) | (b & ~m0), N / 2, 1, Channel(A, 0, 1),
Channel(A, 1, 1), Channel(B[1]))
print("Swap 4x2:")
Array.Print("[0]:", *B[0])
Array.Print("[1]:", *B[1])
C = [Array.Zero(N / 2, 16) for i in range(4)]
Blit(lambda a, b: (a & m1) | ((b >> 1) & ~m1), N / 2, 1, Channel(B[0]),
Channel(B[0]), Channel(C[0]))
Blit(lambda a, b: (a & m1) | ((b >> 1) & ~m1), N / 2, 1, Channel(B[1]),
Channel(B[1]), Channel(C[2]))
Blit(lambda a, b: ((a << 1) & m1) | (b & ~m1), N / 2, 1, Channel(B[0]),
Channel(B[0]), Channel(C[1]))
Blit(lambda a, b: ((a << 1) & m1) | (b & ~m1), N / 2, 1, Channel(B[1]),
Channel(B[1]), Channel(C[3]))
print("Expand 2x1:")
Array.Print("[0]:", *C[0])
Array.Print("[1]:", *C[1])
Array.Print("[2]:", *C[2])
Array.Print("[3]:", *C[3])
def c2p(bitplane_output=True):
m0 = Word.Mask('00ff')
m1 = Word.Mask('0f0f')
m2 = Word.Mask('5555')
print "=[ c2p 2x1 4bpl (blitter + mangled) ]=".center(48, '-')
# premangled pixels:
# 1) [- - - - a b c d] => [a b - - c d - -]
# 2) [- - - - e f g h] => [- - e f - - g h]
def MakeWord(c, color):
return Word([Bit.Var(c[0], 0, color),
Bit.Var(c[0], 1, color),
Bit.Var(c[1], 0, color),
Bit.Var(c[1], 1, color),
Bit.Var(c[0], 2, color),
Bit.Var(c[0], 3, color),
Bit.Var(c[1], 2, color),
Bit.Var(c[1], 3, color),
Bit.Var(c[2], 0, color),
Bit.Var(c[2], 1, color),
Bit.Var(c[3], 0, color),
Bit.Var(c[3], 1, color),
Bit.Var(c[2], 2, color),
Bit.Var(c[2], 3, color),
Bit.Var(c[3], 2, color),
Bit.Var(c[3], 3, color)])
A = Array.Make(MakeWord)
N = len(A)
Array.Print("Data:", *A)
B = Array.Zero(N, 16)
Blit(lambda a, b: ((a >> 8) & m0) | (b & ~m0),
N / 2, 1, Channel(A, 1, 1), Channel(A, 0, 1), Channel(B, 0, 1))
Blit(lambda a, b: ((a << 8) & ~m0) | (b & m0),
N / 2, 1, Channel(A, 0, 1), Channel(A, 1, 1), Channel(B, 1, 1))
Array.Print("Swap 8x2:", *B)
C = Array.Zero(N, 16)
Blit(lambda a, b: ((a & ~m1) | ((b >> 4) & m1)),
N / 2, 1, Channel(B, 0, 1), Channel(B, 1, 1), Channel(C, 0, 1))
Blit(lambda a, b: (((a << 4) & ~m1) | (b & m1)),
N / 2, 1, Channel(B, 0, 1), Channel(B, 1, 1), Channel(C, 1, 1))
Array.Print("Swap 4x2:", *C)
if bitplane_output:
D = [Array.Zero(N / 2, 16) for i in range(4)]
Blit(lambda a, b: (((a >> 1) & m2) | (b & ~m2)),
N / 2, 1, Channel(C, 0, 1), Channel(C, 0, 1), Channel(D[0], 0, 0))
Blit(lambda a, b: (((a >> 1) & m2) | (b & ~m2)),
N / 2, 1, Channel(C, 1, 1), Channel(C, 1, 1), Channel(D[2], 0, 0))
Blit(lambda a, b: (((a << 1) & ~m2) | (b & m2)),
N / 2, 1, Channel(C, 0, 1), Channel(C, 0, 1), Channel(D[1], 0, 0))
Blit(lambda a, b: (((a << 1) & ~m2) | (b & m2)),
N / 2, 1, Channel(C, 1, 1), Channel(C, 1, 1), Channel(D[3], 0, 0))
print("Bitplanes:")
Array.Print("[0]:", *D[0])
Array.Print("[1]:", *D[1])
Array.Print("[2]:", *D[2])
Array.Print("[3]:", *D[3])
else:
D = Array.Zero(N * 2, 16)
Blit(lambda a, b: (((a >> 1) & m2) | (b & ~m2)),
N, 1, Channel(C, 0, 0), Channel(C, 0, 0), Channel(D, 0, 1))
Blit(lambda a, b: (((a << 1) & ~m2) | (b & m2)),
N, 1, Channel(C, 0, 0), Channel(C, 0, 0), Channel(D, 1, 1))
Array.Print("Expand 2x1:", *D)