{
"aplib":["APLib", lambda x:x, ""],
},
"JCAlg": \
{
"jcalg":["JCAlg", lambda x:x, ""],
},
"BriefLZ": \
{
"brieflz":["BriefLZ", lambda x:x, ""],
},
}
algorithms = get_algorithms(families)
Help = makehelp(description, __version__, "<data_to_compress>", families)
if len(argv) == 1:
print(Help)
exit()
requested_algorithms, inputs = get_parameters(argv, 1, algorithms)
tab = " "
data_to_sum = inputs[0]
if len(requested_algorithms) == 1:
print "%s" % (algorithms[requested_algorithms[0]][0](data_to_sum))
else:
for s in requested_algorithms:
print "%s%s%s" % (algorithms[s][1], tab, algorithms[s][0](data_to_sum))
{
"aplib":["APLib", lambda x:x, ""],
},
"JCAlg": \
{
"jcalg":["JCAlg", lambda x:x, ""],
},
"BriefLZ": \
{
"brieflz":["BriefLZ", lambda x:x, ""],
},
}
algorithms = get_algorithms(families)
Help = makehelp(description, __version__, "<data_to_compress>", families)
if len(argv) == 1:
print(Help)
exit()
requested_algorithms, inputs = get_parameters(argv, 1, algorithms)
tab = " "
data_to_sum = inputs[0]
if len(requested_algorithms) == 1:
print "%s" % (algorithms[requested_algorithms[0]][0](data_to_sum))
else:
for s in requested_algorithms:
print "%s%s%s" % (algorithms[s][1], tab, algorithms[s][0](data_to_sum))
"sha256": ["SHA-256", lambda x:sha2.Sha256().compute(x).hexdigest(), ""],
"sha384": ["SHA-384", lambda x:sha2.Sha384().compute(x).hexdigest(), ""],
"sha512": ["SHA-512", lambda x:sha2.Sha512().compute(x).hexdigest(), ""],
},
"tiger": \
{
"tiger" :["tiger-192", lambda x:tiger.Tiger().compute(x).hexdigest(), ""],
"tiger2" :["tiger2" , lambda x:tiger.Tiger2().compute(x).hexdigest(), ""],
"tiger128":["tiger-128", lambda x:tiger.Tiger128().compute(x).hexdigest(), ""],
"tiger160":["tiger-160", lambda x:tiger.Tiger160().compute(x).hexdigest(), ""],
}
}
algorithms = get_algorithms(families)
Help = makehelp(description, __version__, "<data_to_sum>", families)
if len(argv) == 1:
print(Help)
exit()
requested_algorithms, inputs = get_parameters(argv, 1, algorithms)
tab = " "
data_to_sum = inputs[0]
if len(requested_algorithms) == 1:
print "%s" % (algorithms[requested_algorithms[0]][0](data_to_sum))
else:
for s in requested_algorithms:
print "%s%s%s" % (algorithms[s][1], tab, algorithms[s][0](data_to_sum))
"delta": ["Delta encoding", elias.delta_encode, ""],
"omega": ["Omega encoding", elias.omega_encode, ""],
},
"fibonacci": {
"fibonacci": [
"Fibonacci encoding", fibonacci.encode,
"decomposition in fibonacci numbers, and their index unary encoded"
],
},
"unary": {
"unary": [
"Unary encoding", unary.encode,
"the simplest and less efficient encoding"
],
},
}
algorithms = get_algorithms(families)
Help = makehelp(description, __version__, "<number_to_encode>", families)
if len(argv) == 1:
print(Help)
exit()
requested_algorithms, inputs = get_parameters(argv, 1, algorithms)
tab = " "
for s in requested_algorithms:
print "%s\t%s" % (algorithms[s][1], algorithms[s][0](int(inputs[0])))
"gamma":["Gamma encoding", elias.gamma_encode, ""],
"gamma-2":["interleaved Gamma", elias.interleaved_gamma_encode,
"Gamma with length and value encoded together, very efficient"],
"delta":["Delta encoding", elias.delta_encode, ""],
"omega":["Omega encoding", elias.omega_encode, ""],
},
"fibonacci":{
"fibonacci":["Fibonacci encoding", fibonacci.encode,
"decomposition in fibonacci numbers, and their index unary encoded"],
},
"unary":{
"unary":["Unary encoding", unary.encode,
"the simplest and less efficient encoding"],
},
}
algorithms = get_algorithms(families)
Help = makehelp(description, __version__, "<number_to_encode>", families)
if len(argv) == 1:
print(Help)
exit()
requested_algorithms, inputs = get_parameters(argv, 1, algorithms)
tab = " "
for s in requested_algorithms:
print "%s\t%s" % (algorithms[s][1], algorithms[s][0](int(inputs[0])))
