def encode(self):
parms = self.parent.get_attr('TCA_TBF_PARMS') or \
self.parent.get_attr('TCA_HTB_PARMS') or \
self.parent.get_attr('TCA_POLICE_TBF')
if parms is not None:
self.value = getattr(parms, self.__class__.__name__)
self['value'] = struct.pack('I' * 256, *self.value)
nla.encode(self)
def encode(self):
parms = self.parent.get_encoded('TCA_TBF_PARMS') or \
self.parent.get_encoded('TCA_HTB_PARMS') or \
self.parent.get_encoded('TCA_POLICE_TBF')
if parms is not None:
self.value = getattr(parms, self.__class__.__name__)
self['value'] = struct.pack('I' * 256,
*(int(x) for x in self.value))
nla.encode(self)
def encode(self):
self.rtab = None
self.ptab = None
if self.get('rate', False):
self.rtab = self.calc_rtab('rate')
if self.get('peak', False):
self.ptab = self.calc_rtab('peak')
if self.get('ceil', False):
self.ctab = self.calc_rtab('ceil')
nla.encode(self)
def encode(self):
self.rtab = None
self.ptab = None
if self.get('rate', False):
self.rtab = self.calc_rtab('rate')
if self.get('peak', False):
self.ptab = self.calc_rtab('peak')
if self.get('ceil', False):
self.ctab = self.calc_rtab('ceil')
nla.encode(self)
def encode(self):
'''
'keys': ['0x0006/0x00ff+8',
'0x0000/0xffc0+2',
'0x5/0xf+0',
'0x10/0xff+33']
=> 00060000/00ff0000 + 8
05000000/0f00ffc0 + 0
00100000/00ff0000 + 32
'''
def cut_field(key, separator):
'''
split a field from the end of the string
'''
field = '0'
pos = key.find(separator)
new_key = key
if pos > 0:
field = key[pos + 1:]
new_key = key[:pos]
return (new_key, field)
# 'header' array to pack keys to
header = [(0, 0) for i in range(256)]
keys = []
# iterate keys and pack them to the 'header'
for key in self['keys']:
# TODO tags: filter
(key, nh) = cut_field(key, '@') # FIXME: do not ignore nh
(key, offset) = cut_field(key, '+')
offset = int(offset, 0)
# a little trick: if you provide /00ff+8, that
# really means /ff+9, so we should take it into
# account
(key, mask) = cut_field(key, '/')
if mask[:2] == '0x':
mask = mask[2:]
while True:
if mask[:2] == '00':
offset += 1
mask = mask[2:]
else:
break
mask = '0x' + mask
mask = int(mask, 0)
value = int(key, 0)
bits = 24
if mask == 0 and value == 0:
key = self.u32_key(self.buf)
key['key_off'] = offset
key['key_mask'] = mask
key['key_val'] = value
keys.append(key)
for bmask in struct.unpack('4B', struct.pack('>I', mask)):
if bmask > 0:
bvalue = (value & (bmask << bits)) >> bits
header[offset] = (bvalue, bmask)
offset += 1
bits -= 8
# recalculate keys from 'header'
key = None
value = 0
mask = 0
for offset in range(256):
(bvalue, bmask) = header[offset]
if bmask > 0 and key is None:
key = self.u32_key(self.buf)
key['key_off'] = offset
key['key_mask'] = 0
key['key_val'] = 0
bits = 24
if key is not None and bits >= 0:
key['key_mask'] |= bmask << bits
key['key_val'] |= bvalue << bits
bits -= 8
if (bits < 0 or offset == 255):
keys.append(key)
key = None
assert keys
self['nkeys'] = len(keys)
# FIXME: do not hardcode flags :)
self['flags'] = 1
start = self.buf.tell()
nla.encode(self)
for key in keys:
key.encode()
self.update_length(start)
def encode(self):
self["value"] = state_by_name[self.value]
nla.encode(self)
def encode(self):
self['value'] = state_by_name[self.value]
nla.encode(self)
def encode(self):
'''
'keys': ['0x0006/0x00ff+8',
'0x0000/0xffc0+2',
'0x5/0xf+0',
'0x10/0xff+33']
=> 00060000/00ff0000 + 8
05000000/0f00ffc0 + 0
00100000/00ff0000 + 32
'''
def cut_field(key, separator):
'''
split a field from the end of the string
'''
field = '0'
pos = key.find(separator)
new_key = key
if pos > 0:
field = key[pos + 1:]
new_key = key[:pos]
return (new_key, field)
# 'header' array to pack keys to
header = [(0, 0) for i in range(256)]
keys = []
# iterate keys and pack them to the 'header'
for key in self['keys']:
# TODO tags: filter
(key, nh) = cut_field(key, '@') # FIXME: do not ignore nh
(key, offset) = cut_field(key, '+')
offset = int(offset, 0)
# a little trick: if you provide /00ff+8, that
# really means /ff+9, so we should take it into
# account
(key, mask) = cut_field(key, '/')
if mask[:2] == '0x':
mask = mask[2:]
while True:
if mask[:2] == '00':
offset += 1
mask = mask[2:]
else:
break
mask = '0x' + mask
mask = int(mask, 0)
value = int(key, 0)
bits = 24
if mask == 0 and value == 0:
key = self.u32_key(self.buf)
key['key_off'] = offset
key['key_mask'] = mask
key['key_val'] = value
keys.append(key)
for bmask in struct.unpack('4B', struct.pack('>I', mask)):
if bmask > 0:
bvalue = (value & (bmask << bits)) >> bits
header[offset] = (bvalue, bmask)
offset += 1
bits -= 8
# recalculate keys from 'header'
key = None
value = 0
mask = 0
for offset in range(256):
(bvalue, bmask) = header[offset]
if bmask > 0 and key is None:
key = self.u32_key(self.buf)
key['key_off'] = offset
key['key_mask'] = 0
key['key_val'] = 0
bits = 24
if key is not None and bits >= 0:
key['key_mask'] |= bmask << bits
key['key_val'] |= bvalue << bits
bits -= 8
if (bits < 0 or offset == 255):
keys.append(key)
key = None
assert keys
self['nkeys'] = len(keys)
# FIXME: do not hardcode flags :)
self['flags'] = 1
start = self.buf.tell()
nla.encode(self)
for key in keys:
key.encode()
self.update_length(start)
def encode(self):
self['value'] = state_by_name[self.value]
nla.encode(self)