def _parse_signal_sources(self):
srcs = []
candidates = []
# This is internal clock source.
for subunit_id, subunit_id_plugs in self.subunit_plugs['music'].items(
):
for i, plug in subunit_id_plugs['output'].items():
if plug['type'] == 'Sync':
addr = AvcCcm.get_subunit_signal_addr('music', 0, i)
candidates.append((addr, plug))
# External source is available.
for i, plug in self.unit_plugs['external']['input'].items():
if plug['type'] in ('Sync', 'Digital', 'Clock'):
addr = AvcCcm.get_unit_signal_addr('external', i)
candidates.append((addr, plug))
# SYT-match is available, but not practical.
for i, plug in self.unit_plugs['isoc']['input'].items():
if plug['type'] == 'Sync':
addr = AvcCcm.get_unit_signal_addr('isoc', i)
candidates.append((addr, plug))
# BeBoBv3 has.
# Inquire these are able to connect to destination.
for params in candidates:
addr = params[0]
plug = params[1]
try:
AvcCcm.ask_signal_source(self.fcp, addr,
self.signal_destination)
except:
continue
srcs.append(params)
return srcs
def get_clock_src(self):
plugs = self.__get_clock_plugs()
dst = plugs['input']
src = AvcCcm.get_signal_source(self.fcp, dst)
addr = AvcCcm.parse_signal_addr(plugs['output'])
if AvcCcm.compare_addrs(src, addr):
return 'Internal'
for name, addr in self.__CLOCK_SRCS.items():
if AvcCcm.compare_addrs(src, AvcCcm.parse_signal_addr(addr)):
return name
raise OSError('Unexpected state of device.')
def set_clock_src(self, src):
if self.get_property('streaming'):
raise OSError('Packet streaming started.')
if src not in self.__CLOCK_SRCS and src != 'Internal':
raise ValueError('Invalid argument for source of clock.')
plugs = self.__get_clock_plugs()
dst = plugs['input']
if src == 'Internal':
src = plugs['output']
else:
src = self.__CLOCK_SRCS[src]
AvcCcm.set_signal_source(self.fcp, src, dst)
def parse_signal_destination(cls, fcp, subunit_plugs):
dst = []
for subunit_id, subunit_id_plugs in subunit_plugs['music'].items():
for i, plug in subunit_id_plugs['input'].items():
if plug['type'] == 'Sync':
dst = AvcCcm.get_subunit_signal_addr('music', 0, i)
return dst
def get_stream_mode(self):
sync_plug_ids = {
5: '8x8',
6: '10x10',
7: '16x16',
}
plugs = self.__get_clock_plugs()
addr = AvcCcm.parse_signal_addr(plugs['output'])
plug_id = addr['data']['plug']
if plug_id not in sync_plug_ids:
raise OSError('Unexpected state of device.')
return sync_plug_ids[plug_id]
def __get_clock_plugs(self):
plugs = {}
info = AvcConnection.get_subunit_plug_info(self.fcp, 'music', 0)
for direction in ('input', 'output'):
for i in range(info[direction]):
addr = BcoPlugInfo.get_subunit_addr(direction, 'music', 0, i)
plug_type = BcoPlugInfo.get_plug_type(self.fcp, addr)
if plug_type == 'Sync':
plugs[direction] = \
AvcCcm.get_subunit_signal_addr('music', 0, i)
break
else:
raise OSError('Unexpected state of device for clock source.')
return plugs
def get_avail_connections(cls, fcp, unit_plug_list, subunit_plug_list):
src_candidates = {}
dst_candidates = {}
avail = {}
for seqid, info in unit_plug_list.items():
data = info['data']
addr = AvcCcm.get_unit_signal_addr(data['unit-type'], data['plug'])
if info['dir'] == 'output':
target = dst_candidates
else:
target = src_candidates
target[seqid] = addr
for seqid, info in subunit_plug_list.items():
data = info['data']
addr = AvcCcm.get_subunit_signal_addr(data['subunit-type'],
data['subunit-id'],
data['plug'])
# Inverse direction against plugs of unit.
if info['dir'] == 'output':
target = src_candidates
else:
target = dst_candidates
target[seqid] = addr
for dst_seqid, dst_addr in dst_candidates.items():
try:
curr_src_info = AvcCcm.get_signal_source(fcp, dst_addr)
except Exception:
curr_src_info = None
for src_seqid, src_addr in src_candidates.items():
try:
AvcCcm.ask_signal_source(fcp, src_addr, dst_addr)
except Exception:
continue
if dst_seqid not in avail:
avail[dst_seqid] = []
src_info = AvcCcm.parse_signal_addr(src_addr)
avail[dst_seqid].append((src_seqid, src_info == curr_src_info))
return avail
class ApogeeEnsembleUnit(BebobUnit):
__CLOCK_SRCS = {
'Coaxial': AvcCcm.get_unit_signal_addr('external', 4),
'Optical': AvcCcm.get_unit_signal_addr('external', 5),
'Word-clock': AvcCcm.get_unit_signal_addr('external', 6),
}
def __init__(self, path):
super().__init__(path)
if (self.vendor_id, self.model_id) != (0x0003db, 0x01eeee):
raise OSError('Not supported.')
guid = self.get_property('guid')
self.__path = Path('/tmp/hinawa-{0:08x}'.format(guid))
if self.__path.exists() and self.__path.is_file():
self.__load_cache()
else:
self.__create_cache()
self.__set_from_cache()
self.__save_cache()
def __load_cache(self):
with self.__path.open(mode='r') as f:
self.__cache = load(f)
def __save_cache(self):
with self.__path.open(mode='w+') as f:
dump(self.__cache, f)
def __create_cache(self):
cache = {}
HwCmd.create_cache(cache)
DisplayCmd.create_cache(cache)
OptIfaceCmd.create_cache(cache)
MicCmd.create_cache(cache)
InputCmd.create_cache(cache)
OutputCmd.create_cache(cache)
MixerCmd.create_cache(cache)
RouteCmd.create_cache(cache)
SpdifResampleCmd.create_cache(cache)
self.__cache = cache
def __set_from_cache(self):
val = HwCmd.get_cd_mode(self.__cache)
HwCmd.set_cd_mode(self.__cache, self.fcp, val)
val = HwCmd.get_16bit_mode(self.__cache)
HwCmd.set_16bit_mode(self.__cache, self.fcp, val)
val = DisplayCmd.get_illuminate(self.__cache)
DisplayCmd.set_illuminate(self.__cache, self.fcp, val)
val = DisplayCmd.get_mode(self.__cache)
DisplayCmd.set_mode(self.__cache, self.fcp, val)
val = DisplayCmd.get_target(self.__cache)
DisplayCmd.set_target(self.__cache, self.fcp, val)
val = DisplayCmd.get_overhold(self.__cache)
DisplayCmd.set_overhold(self.__cache, self.fcp, val)
for target in OptIfaceCmd.get_target_labels():
val = OptIfaceCmd.get_mode(self.__cache, target)
OptIfaceCmd.set_mode(self.__cache, self.fcp, target, val)
for target in MicCmd.get_mic_labels():
val = MicCmd.get_power(self.__cache, target)
MicCmd.set_power(self.__cache, self.fcp, target, val)
val = MicCmd.get_polarity(self.__cache, target)
MicCmd.set_polarity(self.__cache, self.fcp, target, val)
for target in InputCmd.get_in_labels():
val = InputCmd.get_soft_limit(self.__cache, target)
InputCmd.set_soft_limit(self.__cache, self.fcp, target, val)
val = InputCmd.get_attr(self.__cache, target)
InputCmd.set_attr(self.__cache, self.fcp, target, val)
for target in OutputCmd.get_target_labels():
val = OutputCmd.get_attr(self.__cache, target)
OutputCmd.set_attr(self.__cache, self.fcp, target, val)
for target in MixerCmd.get_target_labels():
for src in MixerCmd.get_src_labels():
vals = MixerCmd.get_src_gain(self.__cache, target, src)
MixerCmd.set_src_gain(self.__cache, self.fcp, target, src,
*vals)
for target in RouteCmd.get_out_labels():
src = RouteCmd.get_out_src(self.__cache, target)
RouteCmd.set_out_src(self.__cache, self.fcp, target, src)
for target in RouteCmd.get_cap_labels():
src = RouteCmd.get_cap_src(self.__cache, target)
RouteCmd.set_cap_src(self.__cache, self.fcp, target, src)
for target in RouteCmd.get_hp_labels():
src = RouteCmd.get_hp_src(self.__cache, target)
RouteCmd.set_hp_src(self.__cache, self.fcp, target, src)
params = SpdifResampleCmd.get_params(self.__cache)
SpdifResampleCmd.set_params(self.__cache, self.fcp, *params)
def __get_clock_plugs(self):
plugs = {}
info = AvcConnection.get_subunit_plug_info(self.fcp, 'music', 0)
for direction in ('input', 'output'):
for i in range(info[direction]):
addr = BcoPlugInfo.get_subunit_addr(direction, 'music', 0, i)
plug_type = BcoPlugInfo.get_plug_type(self.fcp, addr)
if plug_type == 'Sync':
plugs[direction] = \
AvcCcm.get_subunit_signal_addr('music', 0, i)
break
else:
raise OSError('Unexpected state of device for clock source.')
return plugs
def get_clock_src_labels(self):
labels = list(self.__CLOCK_SRCS.keys())
labels.append('Internal')
return labels
def set_clock_src(self, src):
if self.get_property('streaming'):
raise OSError('Packet streaming started.')
if src not in self.__CLOCK_SRCS and src != 'Internal':
raise ValueError('Invalid argument for source of clock.')
plugs = self.__get_clock_plugs()
dst = plugs['input']
if src == 'Internal':
src = plugs['output']
else:
src = self.__CLOCK_SRCS[src]
AvcCcm.set_signal_source(self.fcp, src, dst)
def get_clock_src(self):
plugs = self.__get_clock_plugs()
dst = plugs['input']
src = AvcCcm.get_signal_source(self.fcp, dst)
addr = AvcCcm.parse_signal_addr(plugs['output'])
if AvcCcm.compare_addrs(src, addr):
return 'Internal'
for name, addr in self.__CLOCK_SRCS.items():
if AvcCcm.compare_addrs(src, AvcCcm.parse_signal_addr(addr)):
return name
raise OSError('Unexpected state of device.')
def get_stream_mode_labels(self):
return HwCmd.get_stream_mode_labels()
def set_stream_mode(self, mode):
HwCmd.set_stream_mode(mode)
def get_stream_mode(self):
sync_plug_ids = {
5: '8x8',
6: '10x10',
7: '16x16',
}
plugs = self.__get_clock_plugs()
addr = AvcCcm.parse_signal_addr(plugs['output'])
plug_id = addr['data']['plug']
if plug_id not in sync_plug_ids:
raise OSError('Unexpected state of device.')
return sync_plug_ids[plug_id]
def reset_meters(self):
DisplayCmd.reset_meter(self.fcp)
def set_cd_mode(self, enable):
if enable:
if self.__cache['hw']['16bit'] != 'spdif-coax-out-1/2':
raise ValueError('16bit-mode should be spdif-coax-out-1/2.')
rate = AvcConnection.get_plug_signal_format(self.fcp, 'output', 0)
if rate != 44100:
raise ValueError('Sampling rate should be 44100.')
HwCmd.set_cd_mode(self.__cache, self.fcp, enable)
self.__save_cache()
def get_cd_mode(self):
return HwCmd.get_cd_mode(self.__cache)
def get_16bit_mode_labels(self):
return HwCmd.get_16bit_mode_labels()
def set_16bit_mode(self, target):
if target != 'none':
rate = AvcConnection.get_plug_signal_format(self.fcp, 'output', 0)
if rate not in (44100, 48000):
raise ValueError('Sampling rate should be 44100 or 48000.')
HwCmd.set_16bit_mode(self.__cache, self.fcp, target)
self.__save_cache()
def get_16bit_mode(self):
return HwCmd.get_16bit_mode(self.__cache)
# Hardware configurations.
def set_display_mode(self, enable):
DisplayCmd.set_mode(self.__cache, self.fcp, enable)
self.__save_cache()
def get_display_mode(self):
return DisplayCmd.get_mode(self.__cache)
def get_display_target_labels(self):
return DisplayCmd.get_target_labels()
def set_display_target(self, target):
DisplayCmd.set_target(self.__cache, self.fcp, target)
self.__save_cache()
def get_display_target(self):
return DisplayCmd.get_target(self.__cache)
def set_display_illuminate(self, enable):
DisplayCmd.set_illuminate(self.__cache, self.fcp, enable)
self.__save_cache()
def get_display_illuminate(self):
return DisplayCmd.get_illuminate(self.__cache)
def set_display_overhold(self, enable):
DisplayCmd.set_overhold(self.__cache, self.fcp, enable)
self.__save_cache()
def get_display_overhold(self):
return DisplayCmd.get_overhold(self.__cache)
def get_opt_iface_target_labels(self):
return OptIfaceCmd.get_target_labels()
def get_opt_iface_mode_labels(self):
return OptIfaceCmd.get_mode_labels()
def set_opt_iface_mode(self, target, mode):
OptIfaceCmd.set_mode(self.__cache, self.fcp, target, mode)
self.__save_cache()
def get_opt_iface_mode(self, target):
return OptIfaceCmd.get_mode(self.__cache, target)
# Knob configurations.
def get_knob_out_labels(self):
return KnobCmd.get_knob_out_labels()
def set_knob_out_volume(self, target, db):
KnobCmd.set_out_vol(self.fcp, target, db)
def get_knob_states(self):
return KnobCmd.get_states(self.fcp)
# Microphone configurations.
def get_mic_labels(self):
return MicCmd.get_mic_labels()
def set_polarity(self, target, invert):
MicCmd.set_polarity(self.__cache, self.fcp, target, invert)
self.__save_cache()
def get_polarity(self, target):
return MicCmd.get_polarity(self.__cache, target)
def set_phantom_power(self, target, enable):
MicCmd.set_power(self.__cache, self.fcp, target, enable)
self.__save_cache()
def get_phantom_power(self, target):
return MicCmd.get_power(self.__cache, target)
# Line input/output configurations.
def get_line_in_labels(self):
return InputCmd.get_in_labels()
def set_soft_limit(self, target, enable):
InputCmd.set_soft_limit(self.__cache, self.fcp, target, enable)
self.__save_cache()
def get_soft_limit(self, target):
return InputCmd.get_soft_limit(self.__cache, target)
def get_in_attr_labels(self):
return InputCmd.get_attr_labels()
def set_in_attr(self, target, attr):
InputCmd.set_attr(self.__cache, self.fcp, target, attr)
self.__save_cache()
def get_in_attr(self, target):
return InputCmd.get_attr(self.__cache, target)
def get_line_out_labels(self):
return OutputCmd.get_target_labels()
def get_out_attr_labels(self):
return OutputCmd.get_attr_labels()
def set_out_attr(self, target, attr):
OutputCmd.set_attr(self.__cache, self.fcp, target, attr)
self.__save_cache()
def get_out_attr(self, target):
return OutputCmd.get_attr(self.__cache, target)
# Route configurations.
def get_out_labels(self):
return RouteCmd.get_out_labels()
def get_out_src_labels(self):
return RouteCmd.get_out_src_labels()
def set_out_src(self, target, src):
RouteCmd.set_out_src(self.__cache, self.fcp, target, src)
self.__save_cache()
def get_out_src(self, target):
return RouteCmd.get_out_src(self.__cache, target)
def get_cap_labels(self):
return RouteCmd.get_cap_labels()
def get_cap_src_labels(self):
return RouteCmd.get_cap_src_labels()
def set_cap_src(self, target, src):
RouteCmd.set_cap_src(self.__cache, self.fcp, target, src)
self.__save_cache()
def get_cap_src(self, target):
return RouteCmd.get_cap_src(self.__cache, target)
def get_hp_labels(self):
return RouteCmd.get_hp_labels()
def get_hp_src_labels(self):
return RouteCmd.get_hp_src_labels()
def set_hp_src(self, target, src):
RouteCmd.set_hp_src(self.__cache, self.fcp, target, src)
self.__save_cache()
def get_hp_src(self, target):
return RouteCmd.get_hp_src(self.__cache, target)
# Internal multiplexer configuration.
def get_mixer_labels(self):
return MixerCmd.get_target_labels()
def get_mixer_src_labels(self):
return MixerCmd.get_src_labels()
def set_mixer_src(self, target, src, db, balance):
MixerCmd.set_src_gain(self.__cache, self.fcp, target, src, db, balance)
self.__save_cache()
def get_mixer_src(self, target, src):
return MixerCmd.get_src_gain(self.__cache, target, src)
# S/PDIF resampler configuration.
def get_spdif_resample_iface_labels(self):
return SpdifResampleCmd.get_iface_labels()
def get_spdif_resample_direction_labels(self):
return SpdifResampleCmd.get_direction_labels()
def get_spdif_resample_rate_labels(self):
return SpdifResampleCmd.get_rate_labels()
def set_spdif_resample(self, enable, iface, direction, rate):
SpdifResampleCmd.set_params(self.__cache, self.fcp, enable, iface,
direction, rate)
self.__save_cache()
def get_spdif_resample(self):
return SpdifResampleCmd.get_params(self.__cache)
def get_clock_source(self):
dst = AvcCcm.get_subunit_signal_addr('music', 0, 1)
curr = AvcCcm.get_signal_source(self.unit.fcp, dst)
for name, addr in self.__clocks.items():
if AvcCcm.compare_addrs(curr, AvcCcm.parse_signal_addr(addr)):
return name
def set_clock_source(self, src):
if self.unit.get_property('streaming'):
raise ValueError('Packet streaming already runs.')
dst = AvcCcm.get_subunit_signal_addr('music', 0, 1)
addr = self.__clocks[src]
AvcCcm.set_signal_source(self.unit.fcp, addr, dst)
class MaudioProtocolNormal(MaudioProtocolAbstract):
__IDS = (
0x00000a, # Ozonic
0x010062, # Firewire Solo
0x010060, # Firewire Audiophile
0x010046, # Firewire 410
# Need information.
# NRV10
# ProFire Lightbridge
)
__LABELS = (
{
'inputs': ('analog-1/2', 'analog-3/4', 'stream-1/2', 'stream-3/4'),
'outputs': ('analog-1/2', 'analog-3/4'),
'mixers': ('mixer-1/2', 'mixer-3/4'),
'meters':
('analog-in-1', 'analog-in-2', 'analog-in-3', 'analog-in-4',
'stream-in-1', 'stream-in-2', 'stream-in-3', 'stream-in-4',
'analog-out-1', 'analog-out-2', 'analog-out-3', 'analog-out-4')
},
{
'inputs':
('analog-1/2', 'digital-1/2', 'stream-1/2', 'stream-3/4'),
'outputs': ('analog-1/2', 'digital-1/2'),
'mixers': ('mixer-1/2', 'mixer-3/4'),
'meters':
('analog-in-1', 'analog-in-2', 'digital-in-1', 'digital-in-2',
'stream-in-1', 'stream-in-2', 'stream-in-3', 'stream-in-4',
'analog-out-1', 'analog-out-2', 'digital-out-1', 'digital-out-2')
},
{
'inputs': ('analog-1/2', 'digital-1/2', 'stream-1/2', 'stream-3/4',
'stream-5/6'),
'outputs': ('analog-1/2', 'analog-3/4', 'digital-1/2'),
'mixers': ('mixer-1/2', 'mixer-3/4', 'mixer-5/6'),
'meters':
('analog-in-1', 'analog-in-2', 'digital-in-1', 'digital-in-2',
'analog-out-1', 'analog-out-2', 'analog-out-3', 'analog-out-4',
'digital-out-1', 'digital-out-2', 'headphone-out-1',
'headphone-out-2', 'aux-out-1', 'aux-out-2')
},
{
'inputs': ('analog-1/2', 'digital-1/2', 'stream-1/2', 'stream-3/4',
'stream-5/6', 'stream-7/8', 'stream-9/10'),
'outputs': ('analog-1/2', 'analog-3/4', 'analog-5/6', 'analog-7/8',
'digital-1/2'),
'mixers':
('mixer-1/2', 'mixer-3/4', 'mixer-5/6', 'mixer-7/8', 'mixer-9/10'),
'meters':
('analog-in-1', 'analog-in-2', 'digital-in-1', 'digital-in-2',
'analog-out-1', 'analog-out-2', 'analog-out-3', 'analog-out-4',
'analog-out-5', 'analog-out-6', 'analog-out-7', 'analog-out-8',
'digital-out-1', 'digital-out-2', 'headphone-out-1',
'headphone-out-2', 'aux-out-1', 'aux-out-2')
},
)
# = __LABELS['inputs']
__INPUTS = (
((3, (1, 2)), (4, (1, 2)), (1, (1, 2)), (2, (1, 2))),
((1, (1, 2)), (2, (1, 2)), (4, (1, 2)), (3, (1, 2))),
((4, (1, 2)), (5, (1, 2)), (1, (1, 2)), (2, (1, 2)), (3, (1, 2))),
((3, (1, 2)), (4, (1, 2)), (2, (1, 2)), (1, (1, 2)), (1, (3, 4)),
(1, (5, 6)), (1, (7, 8))),
)
# = __LABELS['inputs']
__AUX__INPUTS = (
(),
(),
((9, (1, 2)), (10, (1, 2)), (6, (1, 2)), (7, (1, 2)), (8, (1, 2))),
((7, (1, 2)), (8, (1, 2)), (9, (1, 2)), (6, (1, 2)), (5, (1, 2)),
(5, (3, 4)), (5, (5, 6)), (5, (7, 8))),
)
__AUX_OUTPUT = (
None,
None,
11,
9,
)
# = __LABELS['inputs']
__MIXER_SOURCES = (
((2, (1, 2)), (3, (1, 2)), (0, (1, 2)), (1, (1, 2))),
((0, (1, 2)), (1, (1, 2)), (3, (1, 2)), (2, (1, 2))),
((3, (1, 2)), (4, (1, 2)), (0, (1, 2)), (1, (1, 2)), (2, (1, 2))),
((2, (1, 2)), (3, (1, 2)), (1, (1, 2)), (0, (1, 2)), (0, (3, 4)),
(0, (5, 6)), (0, (7, 8))),
)
# = __LABELS['mixers']
__MIXERS = (
((1, (1, 2)), (1, (1, 2))),
((1, (1, 2)), (1, (3, 4))),
((1, (1, 2)), (2, (1, 2)), (3, (1, 2))),
((1, (1, 2)), (1, (3, 4)), (1, (5, 6)), (1, (7, 8)), (1, (9, 10))),
)
# = __LABELS['outputs']
__OUTPUT_SOURCES = (
(),
(),
(1, 2, 3),
(2, 3, 4, 5, 6),
)
# = __LABELS['outputs']
__OUTPUTS = (
(),
(),
((12, (1, 2)), (13, (1, 2)), (14, (1, 2))),
((10, (1, 2)), (11, (1, 2)), (12, (1, 2)), (13, (1, 2)), (14, (1, 2))),
)
__HP_SOURCES = (
(),
(),
((4, (0, 1, 2, 3)), ),
((7, (2, 3, 4, 5, 6, 7)), ),
)
__HP_OUTS = (
(),
(),
((15, (1, 2)), ),
((15, (1, 2)), ),
)
__METERS = (
48,
52,
60,
76,
)
__CLOCKS = (
{},
{
'Internal': AvcCcm.get_subunit_signal_addr('music', 0, 1),
'S/PDIF': AvcCcm.get_unit_signal_addr('external', 1)
},
{
'Internal': AvcCcm.get_subunit_signal_addr('music', 0, 1),
'S/PDIF': AvcCcm.get_unit_signal_addr('external', 2)
},
{
'Internal': AvcCcm.get_subunit_signal_addr('music', 0, 1),
'S/PDIF': AvcCcm.get_unit_signal_addr('external', 2),
'ADAT': AvcCcm.get_unit_signal_addr('external', 3)
},
)
def __init__(self, unit, debug):
if unit.model_id not in self.__IDS:
raise OSError('Not supported')
super().__init__(unit, debug)
index = self.__IDS.index(unit.model_id)
self.labels = self.__LABELS[index]
self.mixers = self.__MIXERS[index]
self.__inputs = self.__INPUTS[index]
self.__aux_inputs = self.__AUX__INPUTS[index]
self.__aux_output = self.__AUX_OUTPUT[index]
self.__mixer_sources = self.__MIXER_SOURCES[index]
self.__output_sources = self.__OUTPUT_SOURCES[index]
self.__outputs = self.__OUTPUTS[index]
self.__hp_sources = self.__HP_SOURCES[index]
self.__hp_outs = self.__HP_OUTS[index]
self.__meters = self.__METERS[index]
self.__clocks = self.__CLOCKS[index]
def _refer_fb_data(self, targets, index, ch):
if index >= len(targets):
raise ValueError('Invalid argument for function block index')
if ch >= len(targets[index][1]):
raise ValueError('Invalid argument for channel number')
fb = targets[index][0]
ch = targets[index][1][ch]
return (fb, ch)
def _set_volume(self, targets, index, ch, db):
fb, ch = self._refer_fb_data(targets, index, ch)
data = AvcAudio.build_data_from_db(db)
AvcAudio.set_feature_volume_state(self.unit.fcp, 0, 'current', fb, ch,
data)
def _get_volume(self, targets, index, ch):
fb, ch = self._refer_fb_data(targets, index, ch)
data = AvcAudio.get_feature_volume_state(self.unit.fcp, 0, 'current',
fb, ch)
return AvcAudio.parse_data_to_db(data)
def get_input_labels(self):
return self.labels['inputs']
def _refer_input_data(self, target):
if target not in self.labels['inputs']:
raise ValueError('Invalid argument for input')
return self.labels['inputs'].index(target)
def set_input_gain(self, target, ch, db):
index = self._refer_input_data(target)
self._set_volume(self.__inputs, index, ch, db)
def get_input_gain(self, target, ch):
index = self._refer_input_data(target)
return self._get_volume(self.__inputs, index, ch)
def get_input_balance_labels(self):
labels = []
for label in self.labels['inputs']:
if label.find('stream-') == 0:
continue
labels.append(label)
return labels
def set_input_balance(self, target, ch, balance):
index = self._refer_input_data(target)
fb, ch = self._refer_fb_data(self.__inputs, index, ch)
data = AvcAudio.build_data_from_db(balance)
AvcAudio.set_feature_lr_state(self.unit.fcp, 0, 'current', fb, ch,
data)
def get_input_balance(self, target, ch):
index = self._refer_input_data(target)
fb, ch = self._refer_fb_data(self.__inputs, index, ch)
data = AvcAudio.get_feature_lr_state(self.unit.fcp, 0, 'current', fb,
ch)
return AvcAudio.parse_data_to_db(data)
def get_output_labels(self):
if len(self.__outputs) == 0:
return ()
return self.labels['outputs']
def _refer_out_data(self, target):
if target not in self.labels['outputs']:
raise ValueError('Invalid argument for output')
return self.labels['outputs'].index(target)
def set_output_volume(self, target, ch, db):
index = self._refer_out_data(target)
self._set_volume(self.__outputs, index, ch, db)
def get_output_volume(self, target, ch):
index = self._refer_out_data(target)
return self._get_volume(self.__outputs, index, ch)
def set_aux_volume(self, ch, db):
if ch > 2:
raise ValueError('Invalid argument for master channel')
fb = self.__aux_output
data = AvcAudio.build_data_from_db(db)
AvcAudio.set_feature_volume_state(self.unit.fcp, 0, 'current', fb, ch,
data)
def get_aux_volume(self, ch):
if ch > 2:
raise ValueError('Invalid argument for master channel')
fb = self.__aux_output
data = AvcAudio.get_feature_volume_state(self.unit.fcp, 0, 'current',
fb, ch)
return AvcAudio.parse_data_to_db(data)
def set_aux_balance(self, ch, balance):
if ch > 2:
raise ValueError('Invalid argument for master channel')
fb = self.__aux_output
data = AvcAudio.build_data_from_db(balance)
ch += 1
AvcAudio.set_feature_lr_state(self.unit.fcp, 0, 'current', fb, ch,
data)
def get_aux_balance(self, ch):
if ch > 2:
raise ValueError('Invalid argument for master channel')
fb = self.__aux_output
ch += 1
data = AvcAudio.get_feature_lr_state(self.unit.fcp, 0, 'current', fb,
ch)
return AvcAudio.parse_data_to_db(data)
def get_headphone_labels(self):
labels = []
for i in range(len(self.__hp_outs)):
labels.append('headphone-{0}/{1}'.format(i * 2 + 1, i * 2 + 2))
return labels
def _refer_hp_data(self, target):
matches = match('^headphone-([0-9]*)/([0-9]*)$', target)
if not matches:
raise ValueError('Invalid argument for headphone')
left = int(matches.group(1)) // 2
right = int(matches.group(2)) // 2
if right != left + 1:
raise ValueError('Invalid argument for headphone')
return left
def set_headphone_volume(self, target, ch, db):
index = self._refer_hp_data(target)
self._set_volume(self.__hp_outs, index, ch, db)
def get_headphone_volume(self, target, ch):
index = self._refer_hp_data(target)
return self._get_volume(self.__hp_outs, index, ch)
def get_aux_input_labels(self):
if not self.__aux_output:
return ()
return self.labels['inputs']
def set_aux_input(self, target, ch, db):
index = self._refer_input_data(target)
self._set_volume(self.__aux_inputs, index, ch, db)
def get_aux_input(self, target, ch):
index = self._refer_input_data(target)
return self._get_volume(self.__aux_inputs, index, ch)
def get_mixer_labels(self):
return self.labels['mixers']
def get_mixer_source_labels(self):
return self.labels['inputs']
def _refer_mixer_data(self, target, source):
if source not in self.labels['inputs']:
raise ValueError('Invalid argument for mixer input')
if target not in self.labels['mixers']:
raise ValueError('Invalid argument for mixer output')
input = self.labels['inputs'].index(source)
in_fb = self.__mixer_sources[input][0]
in_ch = self.__mixer_sources[input][1][0] # Use left channel.
mixer = self.labels['mixers'].index(target)
out_fb = self.mixers[mixer][0]
out_ch = self.mixers[mixer][1][0] # Use left channel.
return (in_fb, in_ch, out_fb, out_ch)
def set_mixer_routing(self, target, source, enable):
in_fb, in_ch, out_fb, out_ch = self._refer_mixer_data(target, source)
if enable:
data = (0x00, 0x00)
else:
data = (0x80, 0x00)
AvcAudio.set_processing_mixer_state(self.unit.fcp, 0, 'current',
out_fb, in_fb, in_ch, out_ch, data)
def get_mixer_routing(self, target, source):
in_fb, in_ch, out_fb, out_ch = self._refer_mixer_data(target, source)
data = AvcAudio.get_processing_mixer_state(self.unit.fcp, 0, 'current',
out_fb, in_fb, in_ch,
out_ch)
return data[0] == 0x00 and data[1] == 0x00
def get_headphone_source_labels(self, target):
labels = []
if len(self.__hp_sources) > 0:
for mixer in self.labels['mixers']:
labels.append(mixer)
if self.__aux_output:
labels.append("aux-1/2")
return labels
def set_headphone_source(self, target, source):
index = self._refer_hp_data(target)
if source in self.labels['mixers']:
ch = self.labels['mixers'].index(source)
elif source.find('aux') == 0:
ch = len(self.labels['mixers'])
else:
raise ValueError('Invalid argument for output target')
fb = self.__hp_sources[index][0]
value = self.__hp_sources[index][1][ch]
AvcAudio.set_selector_state(self.unit.fcp, 0, 'current', fb, value)
def get_headphone_source(self, target):
index = self._refer_hp_data(target)
fb = self.__hp_sources[index][0]
value = AvcAudio.get_selector_state(self.unit.fcp, 0, 'current', fb)
ch = self.__hp_sources[index][1][value]
if ch < len(self.labels['mixers']):
return self.labels['mixers'][ch]
return 'aux-1/2'
def get_output_source_labels(self, target):
index = self._refer_out_data(target)
labels = []
labels.append(self.labels['mixers'][index])
if self.__aux_output:
labels.append("aux-1/2")
return labels
def set_output_source(self, target, source):
index = self._refer_out_data(target)
if source in self.labels['mixers'][index]:
value = 0
elif source.find('aux') == 0:
value = 1
else:
raise ValueError('Invalid argument for output target')
fb = self.__output_sources[index]
AvcAudio.set_selector_state(self.unit.fcp, 0, 'current', fb, value)
def get_output_source(self, target):
index = self._refer_out_data(target)
fb = self.__output_sources[index]
value = AvcAudio.get_selector_state(self.unit.fcp, 0, 'current', fb)
if value == 1 and self.__aux_output:
return 'aux-1/2'
return self.labels['mixers'][index]
# 0x0000ffff - 0x7fffffff
# db = 20 * log10(vol / 0x80000000)
# vol = 0, then db = -144.0
# may differs analog-in and the others.
def get_meters(self):
labels = self.labels['meters']
meters = {}
req = Hinawa.FwReq()
frames = [0] * 256
data = req.transaction(self.unit.get_node(),
Hinawa.FwTcode.READ_BLOCK_REQUEST,
self._ADDR_FOR_METERING, self.__meters, frames)
for i, name in enumerate(labels):
meters[name] = unpack('>I', data[i * 4:(i + 1) * 4])[0]
if len(data) > len(labels) * 4:
meters['rotery-0'] = data[-3] & 0x0f
meters['rotery-1'] = (data[-3] & 0xf0) >> 4
meters['rotery-2'] = 0
meters['switch-0'] = (data[-4] & 0xf0) >> 4
meters['switch-1'] = data[-4] & 0x0f
meters['rate'] = AvcConnection.SAMPLING_RATES[data[-2]]
meters['sync'] = data[-1] & 0x0f
return meters
def get_clock_source_labels(self):
return self.__clocks.keys()
def set_clock_source(self, src):
if self.unit.get_property('streaming'):
raise ValueError('Packet streaming already runs.')
dst = AvcCcm.get_subunit_signal_addr('music', 0, 1)
addr = self.__clocks[src]
AvcCcm.set_signal_source(self.unit.fcp, addr, dst)
def get_clock_source(self):
dst = AvcCcm.get_subunit_signal_addr('music', 0, 1)
curr = AvcCcm.get_signal_source(self.unit.fcp, dst)
for name, addr in self.__clocks.items():
if AvcCcm.compare_addrs(curr, AvcCcm.parse_signal_addr(addr)):
return name
def get_sampling_rate(self):
in_rate = AvcConnection.get_plug_signal_format(self.unit.fcp, 'input',
0)
out_rate = AvcConnection.get_plug_signal_format(
self.unit.fcp, 'output', 0)
if in_rate != out_rate:
raise OSError('Unexpected state of the unit: {0}!={1}'.format(
in_rate, out_rate))
return in_rate
