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Bug #10969 » ft1d.py

55fc046c - Dan Smith, 11/27/2023 03:13 PM

 
# Copyright 2010 Dan Smith <dsmith@danplanet.com>
# Copyright 2014 Angus Ainslie <angus@akkea.ca>
# Copyright 2023 Declan Rieb <WD5EQY@arrl.net>
# Sections of digital settings applied from ft70.py, thus
# Copyright 2017 Nicolas Pike <nick@zbm2.com>
#
# This program is free software: you can redistribute it and/or modify
# it under the terms of the GNU General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
#
# This program is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
#
# You should have received a copy of the GNU General Public License
# along with this program. If not, see <http://www.gnu.org/licenses/>.

import re
import string
import logging

from chirp.drivers import yaesu_clone
from chirp import chirp_common, directory, bitwise
from chirp import memmap
from chirp.settings import RadioSettingGroup, RadioSetting, RadioSettings, \
RadioSettingValueInteger, RadioSettingValueString, \
RadioSettingValueList, RadioSettingValueBoolean, \
InvalidValueError
from chirp import util

LOG = logging.getLogger(__name__)

MEM_SETTINGS_FORMAT = """
#seekto 0x049a;
struct {
u8 vfo_a;
u8 vfo_b;
} squelch;

#seekto 0x04c1;
struct {
u8 beep;
} beep_select;

#seekto 0x04ce;
struct {
u8 lcd_dimmer; // 14 DIMMER
u8 dtmf_delay; // 18 DT DLY
u8 unknown0[3];
u8 unknown1:4,
lcd_contrast:4;
u8 lamp; // 28 LAMP
u8 lock; // 30 LOCK
u8 unknown2;
u8 mic_gain; // 31 MCGAIN
u8 unknown2_3;
u8 dw_interval; // 21 DW INT
u8 ptt_delay; // 42 PTT.DLY
u8 rx_save; // 48 RX.SAVE
u8 scan_restart; // 53 SCN.STR
u8 unknown3;
u8 scan_resume;
u8 unknown4[5];
u8 tot;
u8 unknown5[3];
u8 vfo_mode:1, // 60 VFO.MOD
unknown6:1,
scan_lamp:1, // 51 SCN.LMP
unknown7:1,
ars:1, // 45 RPT.ARS
dtmf_speed:1, // 20 DT SPD
unknown8:1,
dtmf_mode:1;
u8 busy_led:1,
unknown9:2,
bclo:1, // 03 BCLO
beep_edge:1, // 06 BEP.EDG
unknown9_1:3;
u8 unknown10:5,
password:1,
home_rev:1, // 26 HOME/REV
moni:1; // 32 MON/T-Call
u8 gm_interval:4, // 25 GM INT
unknown11:4;
u8 vol_mode:1,
unknown11_1:7;
u8 unknown12:4,
home_vfo:1, // 27 HOME->VFO
unknown12_1:2,
dw_rt:1; // 23 DW RVT;
} scan_settings;

#seekto 0x064a;
struct {
u8 unknown0[4];
u8 frequency_band;
u8 unknown1:6,
manual_or_mr:2;
u8 unknown2:7,
mr_banks:1;
u8 unknown3;
u16 mr_index;
u16 bank_index;
u16 bank_enable;
u8 unknown4[5];
u8 unknown5:6,
power:2;
u8 unknown6:4,
tune_step:4;
u8 unknown7:6,
duplex:2;
u8 unknown8:6,
tone_mode:2;
u8 unknown9:2,
tone:6;
u8 unknown10;
u8 unknown11:6,
mode:2;
bbcd freq0[4];
bbcd offset_freq[4];
u8 unknown12[2];
char label[16];
u8 unknown13[6];
bbcd band_lower[4];
bbcd band_upper[4];
bbcd rx_freq[4];
u8 unknown14[22];
bbcd freq1[4];
u8 unknown15[11];
u8 unknown16:3,
volume:5;
u8 unknown17[18];
u8 active_menu_item;
u8 checksum;
} vfo_info[6];

#seekto 0x047e;
struct {
u8 unknown1;
u8 flag;
u16 unknown2;
struct {
u8 padded_yaesu[16];
} message;
} opening_message;

#seekto 0x%(dtmadd)04X; // FT-1D:0e4a, FT2D:094a
struct {
u8 memory[16];
} dtmf[10];

#seekto 0x154a;
// These "channels" seem to actually be a structure:
// first five bits are flags
// 0 Unused (1=entry is unused)
// 1 SW Broadcast
// 2 VHF Marine
// 3 WX (weather)
// 4 ? a mode? ?
// 11 bits of index into frequency tables
//
struct {
u16 channel[100];
} bank_members[24];

#seekto 0x54a;
struct {
u16 in_use;
} bank_used[24];

#seekto 0x0EFE;
struct {
u8 unknown[2];
u8 name[16];
} bank_info[24];
"""

MEM_FORMAT = """
struct memslot {
u8 unknown0:2,
mode_alt:1, // mode for FTM-3200D
clock_shift:1,
unknown1:4;
u8 mode:2,
duplex:2,
tune_step:4;
bbcd freq[3];
u8 power:2,
digmode:2, // 0=Analog, 1=AMS, 2=DN, 3=VW
tone_mode:4;
u16 charsetbits;
char label[16];
bbcd offset[3];
u8 unknown5:2,
tone:6;
u8 unknown6:1,
dcs:7;
u16 unknown7;
u8 unknown8:2,
att:1,
autostep:1,
automode:1,
unknown9:3;
};
#seekto 0x2D4A;
struct memslot memory[%(memnum)d];
struct memslot Skip[99];
struct memslot PMS[100];
#seekto 0x10ca;
struct memslot Home[11];

struct flagslot {
u8 nosubvfo:1,
unknown:3,
pskip:1,
skip:1,
used:1,
valid:1;
};
#seekto 0x280A;
struct flagslot flag[%(memnum)d];
struct flagslot flagskp[99];
struct flagslot flagPMS[100];
"""

MEM_APRS_FORMAT = """
#seekto 0xbeca;
struct {
u8 rx_baud;
u8 custom_symbol;
struct {
char callsign[6];
u8 ssid;
} my_callsign;
u8 unknown3:4,
selected_position_comment:4;
u8 unknown4;
u8 set_time_manually:1,
tx_interval_beacon:1,
ring_beacon:1,
ring_msg:1,
aprs_mute:1,
unknown6:1,
tx_smartbeacon:1,
af_dual:1;
u8 unknown7:1,
aprs_units_wind_mph:1,
aprs_units_rain_inch:1,
aprs_units_temperature_f:1,
aprs_units_altitude_ft:1,
unknown8:1,
aprs_units_distance_m:1,
aprs_units_position_mmss:1;
u8 unknown9:6,
aprs_units_speed:2;
u8 unknown11:1,
filter_other:1,
filter_status:1,
filter_item:1,
filter_object:1,
filter_weather:1,
filter_position:1,
filter_mic_e:1;
u8 unknown12;
u8 unknown13;
u8 unknown14;
u8 unknown15:7,
latitude_sign:1;
u8 latitude_degree;
u8 latitude_minute;
u8 latitude_second;
u8 unknown16:7,
longitude_sign:1;
u8 longitude_degree;
u8 longitude_minute;
u8 longitude_second;
u8 unknown17:4,
selected_position:4;
u8 unknown18:5,
selected_beacon_status_txt:3;
u8 unknown19:4,
beacon_interval:4;
u8 unknowni21:4,
tx_delay:4;
u8 unknown21b:6,
gps_units_altitude_ft:1,
gps_units_position_sss:1;
u8 unknown20:6,
gps_units_speed:2;
u8 unknown21c[4];
struct {
struct {
char callsign[6];
u8 ssid;
} entry[8];
} digi_path_7;
u8 unknown22[18];
struct {
char padded_string[16];
} message_macro[7];
u8 unknown23:5,
selected_msg_group:3;
u8 unknown24;
struct {
char padded_string[9];
} msg_group[8];
u8 unknown25;
u8 unknown25a:2,
timezone:6;
u8 unknown25b[2];
u8 active_smartbeaconing;
struct {
u8 low_speed_mph;
u8 high_speed_mph;
u8 slow_rate_min;
u8 fast_rate_sec;
u8 turn_angle;
u8 turn_slop;
u8 turn_time_sec;
} smartbeaconing_profile[3];
u8 unknown26:2,
flash_msg:6;
u8 unknown27:2,
flash_grp:6;
u8 unknown28:2,
flash_bln:6;
u8 selected_digi_path;
struct {
struct {
char callsign[6];
u8 ssid;
} entry[2];
} digi_path_3_6[4];
u8 unknown30:6,
selected_my_symbol:2;
u8 unknown31[3];
u8 unknown32:2,
vibrate_msg:6;
u8 unknown33:2,
vibrate_grp:6;
u8 unknown34:2,
vibrate_bln:6;
} aprs;

#seekto 0xc26a;
struct {
char padded_string[60];
} aprs_beacon_status_txt[5];

#seekto 0xFECA;
struct {
bbcd date[3];
bbcd time[2];
u8 sequence;
u8 unknown1;
u8 unknown2;
char sender_callsign[9];
u8 data_type;
u8 yeasu_data_type;
u8 unknown4:1,
callsign_is_ascii:1,
unknown5:6;
u8 unknown6;
u16 pkt_len;
u8 unknown7;
u16 in_use;
u16 unknown8;
u16 unknown9;
u16 unknown10;
} aprs_beacon_meta[60];

#seekto 0x1064A;
struct {
char dst_callsign[9];
char path[30];
u16 flags;
u8 separator;
char body[134];
} aprs_beacon_pkt[60];

#seekto 0x137c4;
struct {
u8 flag;
char dst_callsign[6];
u8 dst_callsign_ssid;
char path_and_body[66];
u8 unknown[70];
} aprs_message_pkt[60];
"""

MEM_BACKTRACK_FORMAT = """
#seekto 0xdf06;
struct {
u8 status; // 01 full 08 empty
u8 reserved0; // 00
bbcd year; // 17
bbcd mon; // 06
bbcd day; // 01
u8 reserved1; // 06
bbcd hour; // 21
bbcd min; // xx
u8 reserved2; // 00
u8 reserved3; // 00
char NShemi[1];
char lat[3];
char lat_min[2];
char lat_dec_sec[4];
char WEhemi[1];
char lon[3];
char lon_min[2];
char lon_dec_sec[4];
} backtrack[3];

"""

MEM_GM_FORMAT = """
#seekto 0x04ba;
struct {
u8 unknown:3,
scan_resume:5; // 52 SCN.RSM
u8 unknown1:3,
dw_resume_interval:5; // 22 DW RSM
u8 unknown2;
u8 unknown3:3,
apo:5; // 02 APO
u8 unknown4:6,
gm_ring:2; // 24 GM RNG
u8 temp_cf; // Placeholder as not found
u8 unknown5;
} first_settings;

#seekto 0x04ed;
struct {
u8 unknown1:1,
unknown2:1,
unknown3:1,
unknown4:1,
unknown5:1,
unknown6:1,
unknown7:1,
unknown8:1;
} test_bit_field;

#seekto 0x04c0;
struct {
u8 unknown1:5,
beep_level:3; // 05 BEP.LVL
u8 unknown2:6,
beep_select:2; // 04 BEEP
} beep_settings;

#seekto 0xCF30;
struct {
u8 unknown0;
u8 unknown1;
u8 unknown2;
u8 unknown3;
u8 unknown4;
u8 unknown5;
u8 unknown6;
u8 digital_popup; // 15 DIG.POP
} digital_settings_more;

#seekto 0xCF7C;
struct {
u8 unknown0:6,
ams_tx_mode:2; // AMS TX Mode
u8 unknown1;
u8 unknown2:7,
standby_beep:1; // 07 BEP.STB
u8 unknown3;
u8 unknown4:6,
gm_ring:2; // 24 GM RNG
u8 unknown5;
u8 rx_dg_id; // RX DG-ID
u8 tx_dg_id; // TX DG-ID
u8 unknown6:7,
vw_mode:1; // 16 DIG VW
u8 unknown7;
} digital_settings;

#seekto 0x1d6d3;
struct {
char message[32];
} GM[10];

#seekto 0x0ced0;
struct {
char callsign[10]; // 63 MYCALL
u16 charset; // character set ID
} my_call;

#seekto 0x1ddca;
struct {
struct {
char name[16];
} Category[5];
struct {
struct {
char ID[5]; // ASCII numerals
char name[16]; // blank-fill
u8 unknown[3];
} Rooms[20];
} RoomsPerCategory[5];
} WiresX_settings;
"""

MEM_CHECKSUM_FORMAT = """
#seekto 0x1FDC9;
u8 checksum;
"""

TMODES = ["", "Tone", "TSQL", "DTCS"]
DUPLEX = ["", "-", "+", "split"]
MODES = ["FM", "AM", "WFM"]
STEPS = list(chirp_common.TUNING_STEPS)
STEPS.remove(30.0)
STEPS.append(100.0)
STEPS.insert(2, 0.0) # There is a skipped tuning step at index 2 (?)
SKIPS = ["", "S", "P"]
FT1_DTMF_CHARS = list("0123456789ABCD*#-")

CHARSET = ["%i" % int(x) for x in range(0, 10)] + \
[chr(x) for x in range(ord("A"), ord("Z") + 1)] + \
[" ", ] + \
[chr(x) for x in range(ord("a"), ord("z") + 1)] + \
list(".,:;*#_-/&()@!?^ ") + list("\x00" * 100)

POWER_LEVELS = [chirp_common.PowerLevel("Hi", watts=5.00),
chirp_common.PowerLevel("L3", watts=2.50),
chirp_common.PowerLevel("L2", watts=1.00),
chirp_common.PowerLevel("L1", watts=0.05)]
SKIPNAMES = ["Skip%i" % i for i in range(901, 1000)]
PMSNAMES = ["%s%i" % (c, i) for i in range(1, 51) for c in ['L', 'U']]
HOMENAMES = ["Home%i" % i for i in range(1, 12)]
ALLNAMES = SKIPNAMES + PMSNAMES + HOMENAMES
# list of (array name, (list of memories in that array))
# array names must match names of memories defined for radio
SPECIALS = [
("Skip", SKIPNAMES),
("PMS", PMSNAMES),
("Home", HOMENAMES)
]
# Band edges are integer Hz.
VALID_BANDS = [
(510000, 1790000),
(1800000, 50490000),
(50500000, 75990000),
(76000000, 107990000),
(108000000, 136990000),
(145000000, 169920000),
(174000000, 221950000),
(222000000, 419990000),
(420000000, 469990000),
(470000000, 773990000),
(810010000, 999000000)
]


class FT1Bank(chirp_common.NamedBank):
"""A FT1D bank"""

def get_name(self):
_bank = self._model._radio._memobj.bank_info[self.index]

name = ""
for i in _bank.name:
if i == 0xFF:
break
name += CHARSET[i & 0x7F]
return name.rstrip()

def set_name(self, name):
_bank = self._model._radio._memobj.bank_info[self.index]
_bank.name = [CHARSET.index(x) for x in name.ljust(16)[:16]]


class FT1BankModel(chirp_common.BankModel):
"""A FT1D bank model"""
def __init__(self, radio, name='Banks'):
super(FT1BankModel, self).__init__(radio, name)

_banks = self._radio._memobj.bank_info
self._bank_mappings = []
for index, _bank in enumerate(_banks):
bank = FT1Bank(self, "%i" % index, "BANK-%i" % index)
bank.index = index
self._bank_mappings.append(bank)

def get_num_mappings(self):
return len(self._bank_mappings)

def get_mappings(self):
return self._bank_mappings

def _channel_numbers_in_bank(self, bank):
_bank_used = self._radio._memobj.bank_used[bank.index]
if _bank_used.in_use == 0xFFFF:
return set()

_members = self._radio._memobj.bank_members[bank.index]
return set([int(ch) + 1 for ch in _members.channel if ch != 0xFFFF])

def update_vfo(self):
chosen_bank = [None, None]
chosen_mr = [None, None]

flags = self._radio._memobj.flag

# Find a suitable bank and MR for VFO A and B.
for bank in self.get_mappings():
for channel in self._channel_numbers_in_bank(bank):
chosen_bank[0] = bank.index
chosen_mr[0] = channel
if channel & 0x7000 != 0:
# Ignore preset channels without comment DAR
break
if not flags[channel].nosubvfo:
chosen_bank[1] = bank.index
chosen_mr[1] = channel
break
if chosen_bank[1]:
break

for vfo_index in (0, 1):
# 3 VFO info structs are stored as 3 pairs of (master, backup)
vfo = self._radio._memobj.vfo_info[vfo_index * 2]
vfo_bak = self._radio._memobj.vfo_info[(vfo_index * 2) + 1]

if vfo.checksum != vfo_bak.checksum:
LOG.warn("VFO settings are inconsistent with backup")
else:
if ((chosen_bank[vfo_index] is None) and (vfo.bank_index !=
0xFFFF)):
LOG.info("Disabling banks for VFO %d" % vfo_index)
vfo.bank_index = 0xFFFF
vfo.mr_index = 0xFFFF
vfo.bank_enable = 0xFFFF
elif ((chosen_bank[vfo_index] is not None) and
(vfo.bank_index == 0xFFFF)):
LOG.info("Enabling banks for VFO %d" % vfo_index)
vfo.bank_index = chosen_bank[vfo_index]
vfo.mr_index = chosen_mr[vfo_index]
vfo.bank_enable = 0x0000
vfo_bak.bank_index = vfo.bank_index
vfo_bak.mr_index = vfo.mr_index
vfo_bak.bank_enable = vfo.bank_enable

def _update_bank_with_channel_numbers(self, bank, channels_in_bank):
_members = self._radio._memobj.bank_members[bank.index]
if len(channels_in_bank) > len(_members.channel):
raise Exception("Too many entries in bank %d" % bank.index)

empty = 0
for index, channel_number in enumerate(sorted(channels_in_bank)):
_members.channel[index] = channel_number - 1
if channel_number & 0x7000 != 0:
LOG.warn("Bank %d uses Yaesu preset frequency id=%04X. "
"Chirp cannot see or change that entry." % (
bank.index, channel_number))
empty = index + 1
for index in range(empty, len(_members.channel)):
_members.channel[index] = 0xFFFF

def add_memory_to_mapping(self, memory, bank):
channels_in_bank = self._channel_numbers_in_bank(bank)
channels_in_bank.add(memory.number)
self._update_bank_with_channel_numbers(bank, channels_in_bank)

_bank_used = self._radio._memobj.bank_used[bank.index]
_bank_used.in_use = 0x06

self.update_vfo()

def remove_memory_from_mapping(self, memory, bank):
channels_in_bank = self._channel_numbers_in_bank(bank)
try:
channels_in_bank.remove(memory.number)
except KeyError:
raise Exception("Memory %i is not in bank %s. Cannot remove" %
(memory.number, bank))
self._update_bank_with_channel_numbers(bank, channels_in_bank)

if not channels_in_bank:
_bank_used = self._radio._memobj.bank_used[bank.index]
_bank_used.in_use = 0xFFFF

self.update_vfo()

def get_mapping_memories(self, bank):
memories = []
for channel in self._channel_numbers_in_bank(bank):
memories.append(self._radio.get_memory(channel))

return memories

def get_memory_mappings(self, memory):
banks = []
for bank in self.get_mappings():
if memory.number in self._channel_numbers_in_bank(bank):
banks.append(bank)

return banks


# Note: other radios like FTM3200Radio subclass this radio
@directory.register
class FT1Radio(yaesu_clone.YaesuCloneModeRadio):
"""Yaesu FT1DR"""
BAUD_RATE = 38400
VENDOR = "Yaesu"
MODEL = "FT-1D"
VARIANT = "R"
FORMATS = [directory.register_format('FT1D ADMS-6', '*.ft1d')]
class_specials = SPECIALS
_model = b"AH44M"
_memsize = 130507
_block_lengths = [10, 130497]
_block_size = 32
MAX_MEM_SLOT = 900
_mem_params = {
"memnum": 900, # size of memories array
"flgnum": 900, # size of flags array
"dtmadd": 0xe4a, # location of DTMF storage
}
_has_vibrate = False
_has_af_dual = True
_adms_ext = '.ft1d'

_SG_RE = re.compile(r"(?P<sign>[-+NESW]?)(?P<d>[\d]+)[\s\.,]*"
r"(?P<m>[\d]*)[\s\']*(?P<s>[\d]*)")

_RX_BAUD = ("off", "1200 baud", "9600 baud")
_TX_DELAY = ("100ms", "150ms", "200ms", "250ms", "300ms",
"400ms", "500ms", "750ms", "1000ms")
_WIND_UNITS = ("m/s", "mph")
_RAIN_UNITS = ("mm", "inch")
_TEMP_UNITS = ("C", "F")
_ALT_UNITS = ("m", "ft")
_DIST_UNITS = ("km", "mile")
_POS_UNITS = ("dd.mmmm'", "dd mm'ss\"")
_SPEED_UNITS = ("km/h", "knot", "mph")
_TIME_SOURCE = ("manual", "GPS")
_TZ = ("-13:00", "-13:30", "-12:00", "-12:30", "-11:00", "-11:30",
"-10:00", "-10:30", "-09:00", "-09:30", "-08:00", "-08:30",
"-07:00", "-07:30", "-06:00", "-06:30", "-05:00", "-05:30",
"-04:00", "-04:30", "-03:00", "-03:30", "-02:00", "-02:30",
"-01:00", "-01:30", "-00:00", "-00:30", "+01:00", "+01:30",
"+02:00", "+02:30", "+03:00", "+03:30", "+04:00", "+04:30",
"+05:00", "+05:30", "+06:00", "+06:30", "+07:00", "+07:30",
"+08:00", "+08:30", "+09:00", "+09:30", "+10:00", "+10:30",
"+11:00", "+11:30")
_BEACON_TYPE = ("Off", "Interval", "SmartBeaconing")
_SMARTBEACON_PROFILE = ("Off", "Type 1", "Type 2", "Type 3")
_BEACON_INT = ("30s", "1m", "2m", "3m", "5m", "10m", "15m",
"20m", "30m", "60m")
_DIGI_PATHS = ("OFF", "WIDE1-1", "WIDE1-1, WIDE2-1", "Digi Path 4",
"Digi Path 5", "Digi Path 6", "Digi Path 7", "Digi Path 8")
_MSG_GROUP_NAMES = ("Message Group 1", "Message Group 2",
"Message Group 3", "Message Group 4",
"Message Group 5", "Message Group 6",
"Message Group 7", "Message Group 8")
_POSITIONS = ("GPS", "Manual Latitude/Longitude",
"Manual Latitude/Longitude", "P1", "P2", "P3", "P4",
"P5", "P6", "P7", "P8", "P9")
_FLASH = ("OFF", "2 seconds", "4 seconds", "6 seconds", "8 seconds",
"10 seconds", "20 seconds", "30 seconds", "60 seconds",
"CONTINUOUS", "every 2 seconds", "every 3 seconds",
"every 4 seconds", "every 5 seconds", "every 6 seconds",
"every 7 seconds", "every 8 seconds", "every 9 seconds",
"every 10 seconds", "every 20 seconds", "every 30 seconds",
"every 40 seconds", "every 50 seconds", "every minute",
"every 2 minutes", "every 3 minutes", "every 4 minutes",
"every 5 minutes", "every 6 minutes", "every 7 minutes",
"every 8 minutes", "every 9 minutes", "every 10 minutes")
_BEEP_SELECT = ("Off", "Key+Scan", "Key")
_SQUELCH = ["%d" % x for x in range(0, 16)]
_VOLUME = ["%d" % x for x in range(0, 33)]
_OPENING_MESSAGE = ("Off", "DC", "Message", "Normal")
_SCAN_RESUME = ["%.1fs" % (0.5 * x) for x in range(4, 21)] + \
["Busy", "Hold"]
_SCAN_RESTART = ["%.1fs" % (0.1 * x) for x in range(1, 10)] + \
["%.1fs" % (0.5 * x) for x in range(2, 21)]
_LAMP_KEY = ["Key %d sec" % x
for x in range(2, 11)] + ["Continuous", "OFF"]
_LCD_CONTRAST = ["Level %d" % x for x in range(1, 16)]
_LCD_DIMMER = ["Level %d" % x for x in range(1, 7)]
_TOT_TIME = ["Off"] + ["%.1f min" % (0.5 * x) for x in range(1, 21)]
_OFF_ON = ("Off", "On")
_VOL_MODE = ("Normal", "Auto Back")
_DTMF_MODE = ("Manual", "Auto")
_DTMF_SPEED = ("50ms", "100ms")
_DTMF_DELAY = ("50ms", "250ms", "450ms", "750ms", "1000ms")
_MY_SYMBOL = ("/[ Person", "/b Bike", "/> Car", "User selected")
_BACKTRACK_STATUS = ("Valid", "Invalid")
_NS_HEMI = ("N", "S")
_WE_HEMI = ("W", "E")
_APRS_HIGH_SPEED_MAX = 70
_MIC_GAIN = ("Level %d" % i for i in range(1, 10))
_AMS_TX_MODE = ("TX Auto", "TX DIGITAL", "TX FM")
_VW_MODE = ("On", "Off")
_DIG_POP_UP = ("Off", "2sec", "4sec", "6sec", "8sec", "10sec",
"20sec", "30sec", "60sec", "Continuous")
_STANDBY_BEEP = ("On", "Off")
_ON_OFF = ("On", "Off")
_TEMP_CF = ("Centigrade", "Fahrenheit")
_APO_SELECT = ("Off", "0.5H", "1.0H", "1.5H", "2.0H", "2.5H",
"3.0H", "3.5H", "4.0H", "4.5H", "5.0H",
"5.5H", "6.0H", "6.5H", "7.0H", "7.5H", "8.0H",
"8.5H", "9.0H", "9.5H", "10.0H", "10.5H",
"11.0H", "11.5H", "12.0H")
_MONI_TCALL = ("Monitor", "Tone-CALL")
_HOME_REV = ("Home", "Reverse")
_LOCK = ("KEY", "DIAL", "Key+Dial", "PTT", "Key+PTT", "Dial+PTT", "ALL")
_PTT_DELAY = ("Off", "20 ms", "50 ms", "100 ms", "200 ms")
_BEEP_LEVEL = ("Level %i" % i for i in range(1, 7))
_SET_MODE = ("Level %i" % i for i in range(1, 8))
_RX_SAVE = ("OFF", "0.2s", ".3s", ".4s", ".5s", ".6s",
".7s", ".8s", ".9s", "1.0s", "1.5s",
"2.0s", "2.5s", "3.0s", "3.5s", "4.0s", "4.5s",
"5.0s", "5.5s", "6.0s", "6.5s", "7.0s",
"7.5s", "8.0s", "8.5s", "9.0s", "10.0s", "15s",
"20s", "25s", "30s", "35s", "40s", "45s", "50s", "55s",
"60s")
_VFO_MODE = ("ALL", "BAND")
_VFO_SCAN_MODE = ("BAND", "ALL")
_MEMORY_SCAN_MODE = ("BAND", "ALL")

_SG_RE = re.compile(r"(?P<sign>[-+NESW]?)(?P<d>[\d]+)[\s\.,]*"
"(?P<m>[\d]*)[\s\']*(?P<s>[\d]*)")

_RX_BAUD = ("off", "1200 baud", "9600 baud")
_TX_DELAY = ("100ms", "150ms", "200ms", "250ms", "300ms",
"400ms", "500ms", "750ms", "1000ms")
_WIND_UNITS = ("m/s", "mph")
_RAIN_UNITS = ("mm", "inch")
_TEMP_UNITS = ("C", "F")
_ALT_UNITS = ("m", "ft")
_DIST_UNITS = ("km", "mile")
_POS_UNITS = ("dd.mmmm'", "dd mm'ss\"")
_SPEED_UNITS = ("km/h", "knot", "mph")
_TIME_SOURCE = ("manual", "GPS")
_TZ = ("-13:00", "-13:30", "-12:00", "-12:30", "-11:00", "-11:30",
"-10:00", "-10:30", "-09:00", "-09:30", "-08:00", "-08:30",
"-07:00", "-07:30", "-06:00", "-06:30", "-05:00", "-05:30",
"-04:00", "-04:30", "-03:00", "-03:30", "-02:00", "-02:30",
"-01:00", "-01:30", "-00:00", "-00:30", "+01:00", "+01:30",
"+02:00", "+02:30", "+03:00", "+03:30", "+04:00", "+04:30",
"+05:00", "+05:30", "+06:00", "+06:30", "+07:00", "+07:30",
"+08:00", "+08:30", "+09:00", "+09:30", "+10:00", "+10:30",
"+11:00", "+11:30")
_BEACON_TYPE = ("Off", "Interval", "SmartBeaconing")
_SMARTBEACON_PROFILE = ("Off", "Type 1", "Type 2", "Type 3")
_BEACON_INT = ("30s", "1m", "2m", "3m", "5m", "10m", "15m",
"20m", "30m", "60m")
_DIGI_PATHS = ("OFF", "WIDE1-1", "WIDE1-1, WIDE2-1", "Digi Path 4",
"Digi Path 5", "Digi Path 6", "Digi Path 7", "Digi Path 8")
_MSG_GROUP_NAMES = ("Message Group 1", "Message Group 2",
"Message Group 3", "Message Group 4",
"Message Group 5", "Message Group 6",
"Message Group 7", "Message Group 8")
_POSITIONS = ("GPS", "Manual Latitude/Longitude",
"Manual Latitude/Longitude", "P1", "P2", "P3", "P4",
"P5", "P6", "P7", "P8", "P9")
_FLASH = ("OFF", "2 seconds", "4 seconds", "6 seconds", "8 seconds",
"10 seconds", "20 seconds", "30 seconds", "60 seconds",
"CONTINUOUS", "every 2 seconds", "every 3 seconds",
"every 4 seconds", "every 5 seconds", "every 6 seconds",
"every 7 seconds", "every 8 seconds", "every 9 seconds",
"every 10 seconds", "every 20 seconds", "every 30 seconds",
"every 40 seconds", "every 50 seconds", "every minute",
"every 2 minutes", "every 3 minutes", "every 4 minutes",
"every 5 minutes", "every 6 minutes", "every 7 minutes",
"every 8 minutes", "every 9 minutes", "every 10 minutes")
_BEEP_SELECT = ("Off", "Key+Scan", "Key")
_SQUELCH = ["%d" % x for x in range(0, 16)]
_VOLUME = ["%d" % x for x in range(0, 33)]
_DG_ID = ["%d" % x for x in range(0, 100)]
_GM_RING = ("OFF", "IN RING", "AlWAYS")
_GM_INTERVAL = ("LONG", "NORMAL", "OFF")

_MYCALL_CHR_SET = list(string.ascii_uppercase) + \
list(string.digits) + ['-', '/']

@classmethod
def match_model(cls, filedata, filename):
if filename.endswith(cls._adms_ext):
return True
else:
return super().match_model(filedata, filename)

@classmethod
def get_prompts(cls):
rp = chirp_common.RadioPrompts()
rp.pre_download = _(
"1. Turn radio off.\n"
"2. Connect cable to DATA terminal.\n"
"3. Press and hold in the [F] key while turning the radio on\n"
" (\"CLONE\" will appear on the display).\n"
"4. <b>After clicking OK</b>, press the [BAND] key to send"
" image.\n")
rp.pre_upload = _(
"1. Turn radio off.\n"
"2. Connect cable to DATA terminal.\n"
"3. Press and hold in the [F] key while turning the radio on\n"
" (\"CLONE\" will appear on the display).\n"
"4. Press the [Dx] key (\"-WAIT-\" will appear on the LCD).\n")
return rp

def process_mmap(self):
mem_format = MEM_SETTINGS_FORMAT + MEM_FORMAT + MEM_APRS_FORMAT + \
MEM_BACKTRACK_FORMAT + MEM_GM_FORMAT + MEM_CHECKSUM_FORMAT
self._memobj = bitwise.parse(mem_format % self._mem_params, self._mmap)

def get_features(self):
rf = chirp_common.RadioFeatures()
rf.has_dtcs_polarity = False
rf.valid_modes = list(MODES) + ['NFM', 'DN']
rf.valid_tmodes = list(TMODES)
rf.valid_duplexes = list(DUPLEX)
rf.valid_tuning_steps = list(STEPS)
rf.valid_bands = [(500000, 999900000)]
rf.valid_skips = SKIPS
rf.valid_power_levels = POWER_LEVELS
rf.valid_characters = "".join(CHARSET)
rf.valid_name_length = 16
rf.memory_bounds = (1, 900)
rf.can_odd_split = True
rf.has_ctone = False
rf.has_bank_names = True
rf.has_settings = True
rf.valid_special_chans = [name for s in SPECIALS for name in s[1]]
return rf

def get_raw_memory(self, number):
return "\n".join([repr(self._memobj.memory[number - 1]),
repr(self._memobj.flag[number - 1])])

def _checksums(self):
return [yaesu_clone.YaesuChecksum(0x064A, 0x06C8),
yaesu_clone.YaesuChecksum(0x06CA, 0x0748),
yaesu_clone.YaesuChecksum(0x074A, 0x07C8),
yaesu_clone.YaesuChecksum(0x07CA, 0x0848),
yaesu_clone.YaesuChecksum(0x0000, 0x1FDC9)]

@staticmethod
def _add_ff_pad(val, length):
return val.ljust(length, b"\xFF")[:length]

@classmethod
def _strip_ff_pads(cls, messages):
result = []
for msg_text in messages:
result.append(str(msg_text).rstrip("\xFF"))
return result

# Called with a "memref" index to CHIRP memory (int or str)
# and optionally with a "extref" extended name.
# Find and return the corresponding memobj
# Returns:
# Corresponding radio memory object
# Corresponding radio alag structure (if any)
# index into the specific memory object structure (int) ndx
# overall index into memory & specials (int) num
# an indicator of the specific radio object structure (str)
def slotloc(self, memref, extref=None):
array = None
num = memref
ename = ""
mstr = isinstance(memref, str)
specials = ALLNAMES
extr = False
if extref is not None:
extr = extref in specials
if mstr or extr: # named special?
ename = memref
num = self.MAX_MEM_SLOT + 1
# num = -1
sname = memref if mstr else extref
# Find name of appropriate memory and index into that memory
for x in self.class_specials:
try:
ndx = x[1].index(sname)
array = x[0]
break
except Exception:
num += len(x[1])
# num -= len(x[1])
if array is None:
raise IndexError("Unknown special %s", memref)
num += ndx
# num -= ndx
elif memref > self.MAX_MEM_SLOT: # numbered special
ename = extref
ndx = memref - (self.MAX_MEM_SLOT + 1)
# Find name of appropriate memory and index into that memory
# But assumes specials are in reverse-quantity order
for x in self.class_specials:
if ndx < len(x[1]):
array = x[0]
break
ndx -= len(x[1])
if array is None:
raise IndexError("Unknown memref number %s", memref)
else:
array = "memory"
ndx = memref - 1
_flag = self._memobj.flag[ndx]
if array == "Skip":
_flag = self._memobj.flagskp[ndx]
elif array == "PMS":
_flag = self._memobj.flagPMS[ndx]
elif array == "Home":
_flag = None
_mem = getattr(self._memobj, array)[ndx]
return (_mem, _flag, ndx, num, array, ename)

# Build CHIRP version (mem) of radio's memory (_mem)
def get_memory(self, number):
_mem, _flag, ndx, num, array, ename = self.slotloc(number)
mem = chirp_common.Memory()
mem.number = num
if array == "Home":
mem.empty = False
mem.extd_number = ename
mem.name = self._decode_label(_mem)
mem.immutable += ["empty", "number", "extd_number", "skip"]
elif array != "memory":
mem.extd_number = ename
mem.immutable += ["name", "extd_number"]
else:
mem.name = self._decode_label(_mem)

if _flag is not None:
mem.skip = _flag.pskip and "P" or _flag.skip and "S" or ""
mem.empty = False
if not _flag.used:
mem.empty = True
if not _flag.valid:
mem.empty = True
if mem.empty:
mem.freq = 0
mem.offset = 0
mem.duplex = ""
mem.power = POWER_LEVELS[0]
mem.mode = "FM"
mem.tuning_step = 0
else:
mem.freq = chirp_common.fix_rounded_step(int(_mem.freq) * 1000)
mem.offset = int(_mem.offset) * 1000
mem.rtone = mem.ctone = chirp_common.TONES[_mem.tone]
self._get_tmode(mem, _mem)
if mem.duplex is None:
mem.duplex = DUPLEX[""]
else:
mem.duplex = DUPLEX[_mem.duplex]
if mem.duplex == "split":
mem.offset = chirp_common.fix_rounded_step(mem.offset)
mem.mode = self._decode_mode(_mem)
mem.dtcs = chirp_common.DTCS_CODES[_mem.dcs]
mem.tuning_step = STEPS[_mem.tune_step]
mem.power = self._decode_power_level(_mem)
self._get_mem_extra(mem, _mem)
return mem

def _get_mem_extra(self, mem, _mem):
mem.extra = RadioSettingGroup('Extra', 'extra')

ams = _mem.digmode == 1
rs = RadioSetting('ysf_ams', 'AMS mode',
RadioSettingValueBoolean(ams))
mem.extra.append(rs)

def _set_mem_extra(self, mem, _mem):
if 'ysf_ams' in mem.extra:
# We only set AMS if the memory mode is DN. If it is FM,
# then that takes precedence as "analog-only".
if mem.mode == 'DN':
orig = int(_mem.digmode)
_mem.digmode = int(mem.extra['ysf_ams'].value) and 1 or 2
LOG.debug('Changed digmode from %i to %i' % (
orig, _mem.digmode))

def _decode_label(self, mem):
charset = ''.join(CHARSET).ljust(256, '.')
return str(mem.label).rstrip("\xFF").translate(charset)

def _encode_label(self, mem):
label = "".join([chr(CHARSET.index(x))
for x in mem.name.rstrip()]).encode()
return self._add_ff_pad(label, 16)

def _encode_charsetbits(self, mem):
# We only speak English here in chirpville
return 0x0000

def _decode_power_level(self, mem):
return POWER_LEVELS[3 - mem.power]

def _encode_power_level(self, mem):
if mem.power is None:
return 3 # Choose lowest power
else:
return 3 - POWER_LEVELS.index(mem.power)

def _decode_mode(self, mem):
mode = MODES[mem.mode]
if mode == 'FM' and int(mem.digmode):
# DN mode is FM with a digital flag. Since digmode can be AMS or
# DN, either will be called 'DN' in chirp
return 'DN'
if mode == 'FM' and int(mem.mode_alt):
return 'NFM'
else:
return mode

def _encode_mode(self, mem):
mode = mem.mode
if mode == 'NFM':
# Narrow is handled by a separate flag
mode = 'FM'
elif mode == 'DN':
# DN mode is FM with a digital flag
mode = 'FM'
return MODES.index(mode)

def _get_tmode(self, mem, _mem):
mem.tmode = TMODES[_mem.tone_mode]

def _set_tmode(self, _mem, mem):
_mem.tone_mode = TMODES.index(mem.tmode)

def _set_mode(self, _mem, mem):
_mem.mode_alt = mem.mode == 'NFM'
if mem.mode == 'DN' and int(_mem.digmode) == 0:
# If we are going to DN mode, default to AMS
LOG.debug('New mode DN, setting AMS')
if 'ysf_ams' not in mem.extra:
_mem.digmode = 1
else:
# If we have the extra setting, use that, since it will be
# applied at the end of set_memory() and we want it to apply
# the right value.
mem.extra['ysf_ams'].value = True
elif mem.mode == 'FM' and int(_mem.digmode):
# If we are going back to FM, that means analog-only, so AMS
# is disabled
LOG.debug('New mode FM, disabling AMS')
_mem.digmode = 0
_mem.mode = self._encode_mode(mem)
bm = self.get_bank_model()
for bank in bm.get_memory_mappings(mem):
bm.remove_memory_from_mapping(mem, bank)

def _debank(self, mem):
bm = self.get_bank_model()
for bank in bm.get_memory_mappings(mem):
bm.remove_memory_from_mapping(mem, bank)

def validate_memory(self, mem):
# Only check the home registers for appropriate bands
msgs = super().validate_memory(mem)
ndx = mem.number - ALLNAMES.index("Home1") - self.MAX_MEM_SLOT - 1
if 10 >= ndx >= 0:
f = VALID_BANDS[ndx]
if not(f[0] < mem.freq < f[1]):
msgs.append(chirp_common.ValidationError(
"Frequency outside of band for Home%2d" %
(ndx + 1)))
return msgs

# Modify radio's memory (_mem) corresponding to CHIRP version at 'mem'
def set_memory(self, mem):
_mem, flag, ndx, num, regtype, ename = self.slotloc(mem.number,
mem.extd_number)
if mem.empty:
self._wipe_memory(_mem)
if flag is not None:
flag.used = False
return
_mem.power = self._encode_power_level(mem)
_mem.tone = chirp_common.TONES.index(mem.rtone)
self._set_tmode(_mem, mem)
_mem.dcs = chirp_common.DTCS_CODES.index(mem.dtcs)
_mem.tune_step = STEPS.index(mem.tuning_step)
# duplex "off" is equivalent to "" and may show up in tox test.
if mem.duplex is None:
_mem.duplex = DUPLEX.index("")
else:
_mem.duplex = DUPLEX.index(mem.duplex)
self._set_mode(_mem, mem)
if flag is not None:
if mem.freq < 30000000 or \
(mem.freq > 88000000 and mem.freq < 108000000) or \
mem.freq > 580000000:
flag.nosubvfo = True # Masked from VFO B
else:
flag.nosubvfo = False # Available in both VFOs
if regtype != "Home":
self._debank(mem)
ndx = num - 1
flag.used = not mem.empty
flag.valid = True
flag.skip = mem.skip == "S"
flag.pskip = mem.skip == "P"
freq = mem.freq
_mem.freq = int(freq / 1000)
_mem.offset = int(mem.offset / 1000)
_mem.label = self._encode_label(mem)
_mem.charsetbits = self._encode_charsetbits(mem)
self._set_mem_extra(mem, _mem)
return

@classmethod
def _wipe_memory(cls, mem):
mem.set_raw("\x00" * (mem.size() // 8))
mem.unknown1 = 0x05

def get_bank_model(self):
return FT1BankModel(self)

@classmethod
def _digi_path_to_str(cls, path):
path_cmp = []
for entry in path.entry:
callsign = str(entry.callsign).rstrip("\xFF")
if not callsign:
break
path_cmp.append("%s-%d" % (callsign, entry.ssid))
return ",".join(path_cmp)

@staticmethod
def _latlong_sanity(sign, l_d, l_m, l_s, is_lat):
if sign not in (0, 1):
sign = 0
if is_lat:
d_max = 90
else:
d_max = 180
if l_d < 0 or l_d > d_max:
l_d = 0
l_m = 0
l_s = 0
if l_m < 0 or l_m > 60:
l_m = 0
l_s = 0
if l_s < 0 or l_s > 60:
l_s = 0
return sign, l_d, l_m, l_s

@classmethod
def _latlong_to_str(cls, sign, l_d, l_m, l_s, is_lat, to_sexigesimal=True):
sign, l_d, l_m, l_s = cls._latlong_sanity(sign, l_d, l_m, l_s, is_lat)
mult = sign and -1 or 1
if to_sexigesimal:
return "%d,%d'%d\"" % (mult * l_d, l_m, l_s)
return "%0.5f" % (mult * l_d + (l_m / 60.0) + (l_s / (60.0 * 60.0)))

@classmethod
def _str_to_latlong(cls, lat_long, is_lat):
sign = 0
result = [0, 0, 0]

lat_long = lat_long.strip()

if not lat_long:
return 1, 0, 0, 0

try:
# DD.MMMMM is the simple case, try that first.
val = float(lat_long)
if val < 0:
sign = 1
val = abs(val)
result[0] = int(val)
result[1] = int(val * 60) % 60
result[2] = int(val * 3600) % 60
except ValueError:
# Try DD MM'SS" if DD.MMMMM failed.
match = cls._SG_RE.match(lat_long.strip())
if match:
if match.group("sign") and (match.group("sign") in "SE-"):
sign = 1
else:
sign = 0
if match.group("d"):
result[0] = int(match.group("d"))
if match.group("m"):
result[1] = int(match.group("m"))
if match.group("s"):
result[2] = int(match.group("s"))
elif len(lat_long) > 4:
raise Exception("Lat/Long should be DD MM'SS\" or DD.MMMMM")

return cls._latlong_sanity(sign, result[0], result[1], result[2],
is_lat)

def _get_aprs_settings(self):
menu = RadioSettingGroup("aprs_top", "APRS")
menu.append(self._get_aprs_general_settings())
menu.append(self._get_aprs_rx_settings())
menu.append(self._get_aprs_tx_settings())
menu.append(self._get_aprs_smartbeacon())
menu.append(self._get_aprs_msgs())
menu.append(self._get_aprs_beacons())
return menu

def _get_aprs_general_settings(self):
menu = RadioSettingGroup("aprs_general", "APRS General")
aprs = self._memobj.aprs

val = RadioSettingValueString(
0, 6, str(aprs.my_callsign.callsign).rstrip("\xFF"))
rs = RadioSetting("aprs.my_callsign.callsign", "My Callsign", val)
rs.set_apply_callback(self.apply_callsign, aprs.my_callsign)
menu.append(rs)

val = RadioSettingValueList(
chirp_common.APRS_SSID,
chirp_common.APRS_SSID[aprs.my_callsign.ssid])
rs = RadioSetting("aprs.my_callsign.ssid", "My SSID", val)
menu.append(rs)

val = RadioSettingValueList(self._MY_SYMBOL,
self._MY_SYMBOL[aprs.selected_my_symbol])
rs = RadioSetting("aprs.selected_my_symbol", "My Symbol", val)
menu.append(rs)

symbols = list(chirp_common.APRS_SYMBOLS)
selected = aprs.custom_symbol
if aprs.custom_symbol >= len(chirp_common.APRS_SYMBOLS):
symbols.append("%d" % aprs.custom_symbol)
selected = len(symbols) - 1
val = RadioSettingValueList(symbols, symbols[selected])
rs = RadioSetting("aprs.custom_symbol_text", "User Selected Symbol",
val)
rs.set_apply_callback(self.apply_custom_symbol, aprs)
menu.append(rs)

val = RadioSettingValueList(
chirp_common.APRS_POSITION_COMMENT,
chirp_common.APRS_POSITION_COMMENT[aprs.selected_position_comment])
rs = RadioSetting("aprs.selected_position_comment", "Position Comment",
val)
menu.append(rs)

latitude = self._latlong_to_str(aprs.latitude_sign,
aprs.latitude_degree,
aprs.latitude_minute,
aprs.latitude_second,
True, aprs.aprs_units_position_mmss)
longitude = self._latlong_to_str(aprs.longitude_sign,
aprs.longitude_degree,
aprs.longitude_minute,
aprs.longitude_second,
False, aprs.aprs_units_position_mmss)

# TODO: Rebuild this when aprs_units_position_mmss changes.
# TODO: Rebuild this when latitude/longitude change.
# TODO: Add saved positions p1 - p10 to memory map.
position_str = list(self._POSITIONS)
# position_str[1] = "%s %s" % (latitude, longitude)
# position_str[2] = "%s %s" % (latitude, longitude)
val = RadioSettingValueList(position_str,
position_str[aprs.selected_position])
rs = RadioSetting("aprs.selected_position", "My Position", val)
menu.append(rs)

val = RadioSettingValueString(0, 10, latitude)
rs = RadioSetting("latitude", "Manual Latitude", val)
rs.set_apply_callback(self.apply_lat_long, aprs)
menu.append(rs)

val = RadioSettingValueString(0, 11, longitude)
rs = RadioSetting("longitude", "Manual Longitude", val)
rs.set_apply_callback(self.apply_lat_long, aprs)
menu.append(rs)

val = RadioSettingValueList(
self._TIME_SOURCE, self._TIME_SOURCE[aprs.set_time_manually])
rs = RadioSetting("aprs.set_time_manually", "Time Source", val)
menu.append(rs)

val = RadioSettingValueList(self._TZ, self._TZ[aprs.timezone])
rs = RadioSetting("aprs.timezone", "Timezone", val)
menu.append(rs)

val = RadioSettingValueList(self._SPEED_UNITS,
self._SPEED_UNITS[aprs.aprs_units_speed])
rs = RadioSetting("aprs.aprs_units_speed", "APRS Speed Units", val)
menu.append(rs)

val = RadioSettingValueList(self._SPEED_UNITS,
self._SPEED_UNITS[aprs.gps_units_speed])
rs = RadioSetting("aprs.gps_units_speed", "GPS Speed Units", val)
menu.append(rs)

val = RadioSettingValueList(
self._ALT_UNITS, self._ALT_UNITS[aprs.aprs_units_altitude_ft])
rs = RadioSetting("aprs.aprs_units_altitude_ft", "APRS Altitude Units",
val)
menu.append(rs)

val = RadioSettingValueList(
self._ALT_UNITS, self._ALT_UNITS[aprs.gps_units_altitude_ft])
rs = RadioSetting("aprs.gps_units_altitude_ft", "GPS Altitude Units",
val)
menu.append(rs)

val = RadioSettingValueList(
self._POS_UNITS, self._POS_UNITS[aprs.aprs_units_position_mmss])
rs = RadioSetting("aprs.aprs_units_position_mmss",
"APRS Position Format", val)
menu.append(rs)

val = RadioSettingValueList(
self._POS_UNITS, self._POS_UNITS[aprs.gps_units_position_sss])
rs = RadioSetting("aprs.gps_units_position_sss",
"GPS Position Format", val)
menu.append(rs)

val = RadioSettingValueList(
self._DIST_UNITS, self._DIST_UNITS[aprs.aprs_units_distance_m])
rs = RadioSetting("aprs.aprs_units_distance_m", "APRS Distance Units",
val)
menu.append(rs)

val = RadioSettingValueList(self._WIND_UNITS,
self._WIND_UNITS[aprs.aprs_units_wind_mph])
rs = RadioSetting("aprs.aprs_units_wind_mph", "APRS Wind Speed Units",
val)
menu.append(rs)

val = RadioSettingValueList(
self._RAIN_UNITS, self._RAIN_UNITS[aprs.aprs_units_rain_inch])
rs = RadioSetting("aprs.aprs_units_rain_inch", "APRS Rain Units", val)
menu.append(rs)

val = RadioSettingValueList(
self._TEMP_UNITS, self._TEMP_UNITS[aprs.aprs_units_temperature_f])
rs = RadioSetting("aprs.aprs_units_temperature_f",
"APRS Temperature Units", val)
menu.append(rs)

return menu

def _get_aprs_msgs(self):
menu = RadioSettingGroup("aprs_msg", "APRS Messages")
aprs_msg = self._memobj.aprs_message_pkt

for index in range(0, 60):
if aprs_msg[index].flag != 255:
astring = \
str(aprs_msg[index].dst_callsign).partition("\xFF")[0]

val = RadioSettingValueString(
0, 9, chirp_common.sanitize_string(astring) +
"-%d" % aprs_msg[index].dst_callsign_ssid)
val.set_mutable(False)
rs = RadioSetting(
"aprs_msg.dst_callsign%d" % index,
"Dst Callsign %d" % index, val)
menu.append(rs)

astring = \
str(aprs_msg[index].path_and_body).partition("\xFF")[0]
val = RadioSettingValueString(
0, 66, chirp_common.sanitize_string(astring))
val.set_mutable(False)
rs = RadioSetting(
"aprs_msg.path_and_body%d" % index, "Body", val)
menu.append(rs)

return menu

def _get_aprs_beacons(self):
menu = RadioSettingGroup("aprs_beacons", "APRS Beacons")
aprs_beacon = self._memobj.aprs_beacon_pkt
aprs_meta = self._memobj.aprs_beacon_meta

for index in range(0, 60):
# There is probably a more pythonesque way to do this
scl = int(aprs_meta[index].sender_callsign[0])
dcl = int(aprs_beacon[index].dst_callsign[0])
if scl != 255 and scl != 0: # ignore if empty send call
callsign = str(aprs_meta[index].sender_callsign).rstrip("\xFF")
val = RadioSettingValueString(0, 9, callsign)
val.set_mutable(False)
rs = RadioSetting(
"aprs_beacon.src_callsign%d" % index,
"SRC Callsign %d" % index, val)
menu.append(rs)

if dcl != 255 and dcl != 0: # ignore if empty dest call
val = str(aprs_beacon[index].dst_callsign)
val = RadioSettingValueString(0, 9, val.rstrip("\xFF"))
val.set_mutable(False)
rs = RadioSetting(
"aprs_beacon.dst_callsign%d" % index,
"DST Callsign %d" % index, val)
menu.append(rs)

date = "%02d/%02d/%02d" % (
aprs_meta[index].date[0],
aprs_meta[index].date[1],
aprs_meta[index].date[2])
val = RadioSettingValueString(0, 8, date)
val.set_mutable(False)
rs = RadioSetting("aprs_beacon.date%d" % index, "Date", val)
menu.append(rs)

time = "%02d:%02d" % (
aprs_meta[index].time[0],
aprs_meta[index].time[1])
val = RadioSettingValueString(0, 5, time)
val.set_mutable(False)
rs = RadioSetting("aprs_beacon.time%d" % index, "Time", val)
menu.append(rs)

if dcl != 255 and dcl != 0: # ignore if empty dest call
path = str(aprs_beacon[index].path).replace("\x00", " ")
path = ''.join(c for c in path
if c in string.printable).strip()
path = str(path).replace("\xE0", "*")
val = RadioSettingValueString(0, 32, path)
val.set_mutable(False)
rs = RadioSetting(
"aprs_beacon.path%d" % index, "Digipath", val)
menu.append(rs)

body = str(aprs_beacon[index].body).rstrip("\xFF")
checksum = body[-2:]
body = ''.join(s for s in body[:-2]
if s in string.printable).translate(
str.maketrans(
"", "", "\x09\x0a\x0b\x0c\x0d"))
try:
val = RadioSettingValueString(0, 134, body.strip())
except Exception as e:
LOG.error("Error in APRS beacon at index %s", index)
raise e
val.set_mutable(False)
rs = RadioSetting("aprs_beacon.body%d" % index, "Body", val)
menu.append(rs)

return menu

def _get_aprs_rx_settings(self):
menu = RadioSettingGroup("aprs_rx", "APRS Receive")
aprs = self._memobj.aprs

val = RadioSettingValueList(self._RX_BAUD, self._RX_BAUD[aprs.rx_baud])
rs = RadioSetting("aprs.rx_baud", "Modem RX", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.aprs_mute)
rs = RadioSetting("aprs.aprs_mute", "APRS Mute", val)
menu.append(rs)

if self._has_af_dual:
val = RadioSettingValueBoolean(aprs.af_dual)
rs = RadioSetting("aprs.af_dual", "AF Dual", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.ring_msg)
rs = RadioSetting("aprs.ring_msg", "Ring on Message RX", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.ring_beacon)
rs = RadioSetting("aprs.ring_beacon", "Ring on Beacon RX", val)
menu.append(rs)

val = RadioSettingValueList(self._FLASH,
self._FLASH[aprs.flash_msg])
rs = RadioSetting("aprs.flash_msg", "Flash on personal message", val)
menu.append(rs)

if self._has_vibrate:
val = RadioSettingValueList(self._FLASH,
self._FLASH[aprs.vibrate_msg])
rs = RadioSetting("aprs.vibrate_msg",
"Vibrate on personal message", val)
menu.append(rs)

val = RadioSettingValueList(self._FLASH[:10],
self._FLASH[aprs.flash_bln])
rs = RadioSetting("aprs.flash_bln", "Flash on bulletin message", val)
menu.append(rs)

if self._has_vibrate:
val = RadioSettingValueList(self._FLASH[:10],
self._FLASH[aprs.vibrate_bln])
rs = RadioSetting("aprs.vibrate_bln",
"Vibrate on bulletin message", val)
menu.append(rs)

val = RadioSettingValueList(self._FLASH[:10],
self._FLASH[aprs.flash_grp])
rs = RadioSetting("aprs.flash_grp", "Flash on group message", val)
menu.append(rs)

if self._has_vibrate:
val = RadioSettingValueList(self._FLASH[:10],
self._FLASH[aprs.vibrate_grp])
rs = RadioSetting("aprs.vibrate_grp",
"Vibrate on group message", val)
menu.append(rs)

filter_val = [m.padded_string for m in aprs.msg_group]
filter_val = self._strip_ff_pads(filter_val)
for index, filter_text in enumerate(filter_val):
val = RadioSettingValueString(0, 9, filter_text)
rs = RadioSetting("aprs.msg_group_%d" % index,
"Message Group %d" % (index + 1), val)
menu.append(rs)
rs.set_apply_callback(self.apply_ff_padded_string,
aprs.msg_group[index])
# TODO: Use filter_val as the list entries and update it on edit.
val = RadioSettingValueList(
self._MSG_GROUP_NAMES,
self._MSG_GROUP_NAMES[aprs.selected_msg_group])
rs = RadioSetting("aprs.selected_msg_group", "Selected Message Group",
val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_mic_e)
rs = RadioSetting("aprs.filter_mic_e", "Receive Mic-E Beacons", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_position)
rs = RadioSetting("aprs.filter_position", "Receive Position Beacons",
val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_weather)
rs = RadioSetting("aprs.filter_weather", "Receive Weather Beacons",
val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_object)
rs = RadioSetting("aprs.filter_object", "Receive Object Beacons", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_item)
rs = RadioSetting("aprs.filter_item", "Receive Item Beacons", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_status)
rs = RadioSetting("aprs.filter_status", "Receive Status Beacons", val)
menu.append(rs)

val = RadioSettingValueBoolean(aprs.filter_other)
rs = RadioSetting("aprs.filter_other", "Receive Other Beacons", val)
menu.append(rs)

return menu

def _get_aprs_tx_settings(self):
menu = RadioSettingGroup("aprs_tx", "APRS Transmit")
aprs = self._memobj.aprs

beacon_type = (aprs.tx_smartbeacon << 1) | aprs.tx_interval_beacon
val = RadioSettingValueList(self._BEACON_TYPE,
self._BEACON_TYPE[beacon_type])
rs = RadioSetting("aprs.transmit", "TX Beacons", val)
rs.set_apply_callback(self.apply_beacon_type, aprs)
menu.append(rs)

val = RadioSettingValueList(self._TX_DELAY,
self._TX_DELAY[aprs.tx_delay])
rs = RadioSetting("aprs.tx_delay", "TX Delay", val)
menu.append(rs)

val = RadioSettingValueList(self._BEACON_INT,
self._BEACON_INT[aprs.beacon_interval])
rs = RadioSetting("aprs.beacon_interval", "Beacon Interval", val)
menu.append(rs)

desc = []
status = [m.padded_string for m in self._memobj.aprs_beacon_status_txt]
status = self._strip_ff_pads(status)
for index, msg_text in enumerate(status):
val = RadioSettingValueString(0, 60, msg_text)
desc.append("Beacon Status Text %d" % (index + 1))
rs = RadioSetting("aprs_beacon_status_txt_%d" % index, desc[-1],
val)
rs.set_apply_callback(self.apply_ff_padded_string,
self._memobj.aprs_beacon_status_txt[index])
menu.append(rs)
val = RadioSettingValueList(desc,
desc[aprs.selected_beacon_status_txt])
rs = RadioSetting("aprs.selected_beacon_status_txt",
"Beacon Status Text", val)
menu.append(rs)

message_macro = [m.padded_string for m in aprs.message_macro]
message_macro = self._strip_ff_pads(message_macro)
for index, msg_text in enumerate(message_macro):
val = RadioSettingValueString(0, 16, msg_text)
rs = RadioSetting("aprs.message_macro_%d" % index,
"Message Macro %d" % (index + 1), val)
rs.set_apply_callback(self.apply_ff_padded_string,
aprs.message_macro[index])
menu.append(rs)

path_str = list(self._DIGI_PATHS)
path_str[3] = self._digi_path_to_str(aprs.digi_path_3_6[0])
val = RadioSettingValueString(0, 22, path_str[3])
rs = RadioSetting("aprs.digi_path_3", "Digi Path 4 (2 entries)", val)
rs.set_apply_callback(self.apply_digi_path, aprs.digi_path_3_6[0])
menu.append(rs)

path_str[4] = self._digi_path_to_str(aprs.digi_path_3_6[1])
val = RadioSettingValueString(0, 22, path_str[4])
rs = RadioSetting("aprs.digi_path_4", "Digi Path 5 (2 entries)", val)
rs.set_apply_callback(self.apply_digi_path, aprs.digi_path_3_6[1])
menu.append(rs)

path_str[5] = self._digi_path_to_str(aprs.digi_path_3_6[2])
val = RadioSettingValueString(0, 22, path_str[5])
rs = RadioSetting("aprs.digi_path_5", "Digi Path 6 (2 entries)", val)
rs.set_apply_callback(self.apply_digi_path, aprs.digi_path_3_6[2])
menu.append(rs)

path_str[6] = self._digi_path_to_str(aprs.digi_path_3_6[3])
val = RadioSettingValueString(0, 22, path_str[6])
rs = RadioSetting("aprs.digi_path_6", "Digi Path 7 (2 entries)", val)
rs.set_apply_callback(self.apply_digi_path, aprs.digi_path_3_6[3])
menu.append(rs)

path_str[7] = self._digi_path_to_str(aprs.digi_path_7)
val = RadioSettingValueString(0, 88, path_str[7])
rs = RadioSetting("aprs.digi_path_7", "Digi Path 8 (8 entries)", val)
rs.set_apply_callback(self.apply_digi_path, aprs.digi_path_7)
menu.append(rs)

# Show friendly messages for empty slots rather than blanks.
# TODO: Rebuild this when digi_path_[34567] change.
# path_str[3] = path_str[3] or self._DIGI_PATHS[3]
# path_str[4] = path_str[4] or self._DIGI_PATHS[4]
# path_str[5] = path_str[5] or self._DIGI_PATHS[5]
# path_str[6] = path_str[6] or self._DIGI_PATHS[6]
# path_str[7] = path_str[7] or self._DIGI_PATHS[7]
path_str[3] = self._DIGI_PATHS[3]
path_str[4] = self._DIGI_PATHS[4]
path_str[5] = self._DIGI_PATHS[5]
path_str[6] = self._DIGI_PATHS[6]
path_str[7] = self._DIGI_PATHS[7]
val = RadioSettingValueList(path_str,
path_str[aprs.selected_digi_path])
rs = RadioSetting("aprs.selected_digi_path", "Selected Digi Path", val)
menu.append(rs)

return menu

def _get_aprs_smartbeacon(self):
menu = RadioSettingGroup("aprs_smartbeacon", "APRS SmartBeacon")
aprs = self._memobj.aprs

val = RadioSettingValueList(
self._SMARTBEACON_PROFILE,
self._SMARTBEACON_PROFILE[aprs.active_smartbeaconing])
rs = RadioSetting("aprs.active_smartbeaconing", "SmartBeacon profile",
val)
menu.append(rs)

for profile in range(3):
pfx = "type%d" % (profile + 1)
path = "aprs.smartbeaconing_profile[%d]" % profile
prof = aprs.smartbeaconing_profile[profile]

low_val = RadioSettingValueInteger(2, 30, prof.low_speed_mph)
high_val = RadioSettingValueInteger(3, self._APRS_HIGH_SPEED_MAX,
prof.high_speed_mph)
low_val.get_max = lambda: min(30, int(high_val.get_value()) - 1)

rs = RadioSetting("%s.low_speed_mph" % path,
"%s Low Speed (mph)" % pfx, low_val)
menu.append(rs)

rs = RadioSetting("%s.high_speed_mph" % path,
"%s High Speed (mph)" % pfx, high_val)
menu.append(rs)

val = RadioSettingValueInteger(1, 100, prof.slow_rate_min)
rs = RadioSetting("%s.slow_rate_min" % path,
"%s Slow rate (minutes)" % pfx, val)
menu.append(rs)

val = RadioSettingValueInteger(10, 180, prof.fast_rate_sec)
rs = RadioSetting("%s.fast_rate_sec" % path,
"%s Fast rate (seconds)" % pfx, val)
menu.append(rs)

val = RadioSettingValueInteger(5, 90, prof.turn_angle)
rs = RadioSetting("%s.turn_angle" % path,
"%s Turn angle (degrees)" % pfx, val)
menu.append(rs)

val = RadioSettingValueInteger(1, 255, prof.turn_slop)
rs = RadioSetting("%s.turn_slop" % path,
"%s Turn slop" % pfx, val)
menu.append(rs)

val = RadioSettingValueInteger(5, 180, prof.turn_time_sec)
rs = RadioSetting("%s.turn_time_sec" % path,
"%s Turn time (seconds)" % pfx, val)
menu.append(rs)

return menu

def _get_digital_settings(self):
topmenu = RadioSettingGroup("digital_settings", "Digital")
menu = RadioSettingGroup("settings", "Digital Modes")
topmenu.append(menu)
GMmenu = RadioSettingGroup("first_settings", "Group Monitor(GM)")
topmenu.append(GMmenu)
WXmenu = RadioSettingGroup("WiresX_settings", "Wires-X")
topmenu.append(WXmenu)

# MYCALL
mycall = self._memobj.my_call
mycallstr = str(mycall.callsign).rstrip("\xff").rstrip()
mycalle = RadioSettingValueString(0, 10, mycallstr, False,
charset=self._MYCALL_CHR_SET)
rs = RadioSetting('mycall.callsign',
'MYCALL (10 uppercase chars)', mycalle)
rs.set_apply_callback(self.apply_mycall, mycall)
menu.append(rs)

# Short Press AMS button AMS TX Mode
digital_settings = self._memobj.digital_settings
val = RadioSettingValueList(
self._AMS_TX_MODE,
self._AMS_TX_MODE[digital_settings.ams_tx_mode])
rs = RadioSetting("digital_settings.ams_tx_mode",
"AMS TX Mode", val)
menu.append(rs)

# 16 DIG VW Turn the VW mode selection ON or OFF.
val = RadioSettingValueList(
self._VW_MODE,
self._VW_MODE[digital_settings.vw_mode])
rs = RadioSetting("digital_settings.vw_mode", "VW Mode", val)
menu.append(rs)

# TX DG-ID Long Press Mode Key, Dial
val = RadioSettingValueList(
self._DG_ID,
self._DG_ID[digital_settings.tx_dg_id])
rs = RadioSetting("digital_settings.tx_dg_id",
"TX DG-ID", val)
menu.append(rs)

# RX DG-ID Long Press Mode Key, Mode Key to select, Dial
val = RadioSettingValueList(
self._DG_ID,
self._DG_ID[digital_settings.rx_dg_id])
rs = RadioSetting("digital_settings.rx_dg_id",
"RX DG-ID", val)
menu.append(rs)

# 15 DIG.POP Call sign display pop up time
digital_settings_more = self._memobj.digital_settings_more

val = RadioSettingValueList(
self._DIG_POP_UP,
self._DIG_POP_UP[
0 if digital_settings_more.digital_popup == 0
else digital_settings_more.digital_popup - 9])

rs = RadioSetting("digital_settings_more.digital_popup",
"Digital Popup", val)
rs.set_apply_callback(self.apply_digital_popup,
digital_settings_more)
menu.append(rs)

# 07 BEP.STB Standby Beep in the digital C4FM mode. On/Off
val = RadioSettingValueList(
self._STANDBY_BEEP,
self._STANDBY_BEEP[digital_settings.standby_beep])
rs = RadioSetting("digital_settings.standby_beep",
"Standby Beep", val)
menu.append(rs)

# GM settings
# 24 GM RNG Select the beep option
first_settings = self._memobj.first_settings
val = RadioSettingValueList(
self._GM_RING,
self._GM_RING[first_settings.gm_ring])
rs = RadioSetting("first_settings.gm_ring", "GM Ring", val)
GMmenu.append(rs)

# 25 GM INT transmission interval of digital GM info
scan_settings = self._memobj.scan_settings
val = RadioSettingValueList(
self._GM_INTERVAL,
self._GM_INTERVAL[scan_settings.gm_interval])
rs = RadioSetting("scan_settings.gm_interval",
"GM Interval", val)
GMmenu.append(rs)

m = self._memobj.GM
for i in range(0, 10):
cname = "GM[%d].message" % i
msg = str(m[i].message).rstrip("\xff)")
val = RadioSettingValueString(0, 32, msg)
rs = RadioSetting(cname, "GM Message%2d" % (i + 1),
val)
GMmenu.append(rs)

# WiresX settings
wxc = self._memobj.WiresX_settings
for i in range(0, 5):
cname = "WiresX_settings.Category[%d].name" % (i + 1)
c = ''
for j in range(0, 16):
s = wxc.Category[i].name[j]
if int(s) != 0xff:
c = c + str(s)
val = RadioSettingValueString(0, 16, c)
rs = RadioSetting(cname, "Category %d" % (i+1), val)
rs.set_apply_callback(self.apply_WiresX_category,
wxc.Category[i].name)
WXmenu.append(rs)

r = wxc.RoomsPerCategory[i]
rn = False
for j in range(0, 20):
idn = "0"
if int(r.Rooms[j].ID[1]) != 0xff:
idn = r.Rooms[j].ID
rn = False
elif rn:
break
elif j > 0:
rn = True
val = RadioSettingValueInteger(0, 99999, int(str(idn)))
vname = "WiresX_settings.RoomsperCategory%s" \
"Rooms[%d].ID" % (i, j)
rs = RadioSetting(vname, " Room ID%2s (5 numerals)" %
(j+1), val)
rs.set_apply_callback(self.apply_WiresX_roomid,
r.Rooms[j])
WXmenu.append(rs)
cn = ''
for l in range(0, 16):
s = r.Rooms[j].name[l]
if int(s) != 0xff:
cn = cn + str(s)
val = RadioSettingValueString(0, 16, str(cn))
cname = "WiresX_settings.RoomsperCategory%s" \
"Rooms[%d].name" % (i, j)
rs = RadioSetting(cname, " Room Name%2s (16 chars)" %
(j+1), val)
rs.set_apply_callback(self.apply_WiresX_roomname,
r.Rooms[j])
WXmenu.append(rs)
pass
return topmenu

def apply_WiresX_category(cls, setting, obj):
val = setting.value.get_value()
setattr(obj, "name", val)

def apply_WiresX_roomid(self, setting, obj):
val = setting.value.get_value()
obj.ID = self.zero_pad(val, 5)

def apply_WiresX_roomname(cls, setting, obj):
val = setting.value.get_value()
obj.name = str(val)

def _get_dtmf_settings(self):
menu = RadioSettingGroup("dtmf_settings", "DTMF")
dtmf = self._memobj.scan_settings

val = RadioSettingValueList(
self._DTMF_MODE,
self._DTMF_MODE[dtmf.dtmf_mode])
rs = RadioSetting("scan_settings.dtmf_mode", "DTMF Mode", val)
menu.append(rs)

val = RadioSettingValueList(
self._DTMF_SPEED,
self._DTMF_SPEED[dtmf.dtmf_speed])
rs = RadioSetting(
"scan_settings.dtmf_speed", "DTMF AutoDial Speed", val)
menu.append(rs)

val = RadioSettingValueList(
self._DTMF_DELAY,
self._DTMF_DELAY[dtmf.dtmf_delay])
rs = RadioSetting(
"scan_settings.dtmf_delay", "DTMF AutoDial Delay", val)
menu.append(rs)

for i in range(10):
name = "dtmf_%02d" % i
dtmfsetting = self._memobj.dtmf[i]
dtmfstr = ""
for c in dtmfsetting.memory:
if c == 0xFF:
break
if c < len(FT1_DTMF_CHARS):
dtmfstr += FT1_DTMF_CHARS[c]
dtmfentry = RadioSettingValueString(0, 16, dtmfstr)
dtmfentry.set_charset(FT1_DTMF_CHARS + list("abcd "))
rs = RadioSetting(name, name.upper(), dtmfentry)
rs.set_apply_callback(self.apply_dtmf, i)
menu.append(rs)

return menu

def _get_misc_settings(self):
menu = RadioSettingGroup("misc_settings", "Misc")
scan_settings = self._memobj.scan_settings

val = RadioSettingValueList(
self._LCD_DIMMER,
self._LCD_DIMMER[scan_settings.lcd_dimmer])
rs = RadioSetting("scan_settings.lcd_dimmer", "LCD Dimmer", val)
menu.append(rs)

val = RadioSettingValueList(
self._LCD_CONTRAST,
self._LCD_CONTRAST[scan_settings.lcd_contrast - 1])
rs = RadioSetting("scan_settings.lcd_contrast", "LCD Contrast",
val)
rs.set_apply_callback(self.apply_lcd_contrast, scan_settings)
menu.append(rs)

val = RadioSettingValueList(
self._LAMP_KEY,
self._LAMP_KEY[scan_settings.lamp])
rs = RadioSetting("scan_settings.lamp", "Lamp", val)
menu.append(rs)

beep_select = self._memobj.beep_select

val = RadioSettingValueList(
self._BEEP_SELECT,
self._BEEP_SELECT[beep_select.beep])
rs = RadioSetting("beep_select.beep", "Beep Select", val)
menu.append(rs)

opening_message = self._memobj.opening_message

val = RadioSettingValueList(
self._OPENING_MESSAGE,
self._OPENING_MESSAGE[opening_message.flag])
rs = RadioSetting("opening_message.flag", "Opening Msg Mode",
val)
menu.append(rs)

rs = self._decode_opening_message(opening_message)
menu.append(rs)

return menu

def _decode_opening_message(self, opening_message):
msg = ""
for i in opening_message.message.padded_yaesu:
if i == 0xFF:
break
msg += CHARSET[i & 0x7F]
val = RadioSettingValueString(0, 16, msg)
rs = RadioSetting("opening_message.message.padded_yaesu",
"Opening Message", val)
rs.set_apply_callback(self.apply_ff_padded_yaesu,
opening_message.message)
return rs

def backtrack_ll_validate(self, number, min, max):
if str(number).lstrip('0').strip().isdigit() and \
int(str(number).lstrip('0')) <= max and \
int(str(number).lstrip('0')) >= min:
return True

return False

@staticmethod
def zero_pad(number, length):
"""
Applies a leading zero pad of length `length` to `number`
"""
return str(number).rjust(length, "0")

def _get_backtrack_settings(self):

menu = RadioSettingGroup("backtrack", "Backtrack")

for i in range(3):
prefix = ''
if i == 0:
prefix = "Star "
if i == 1:
prefix = "L1 "
if i == 2:
prefix = "L2 "

bt_idx = "backtrack[%d]" % i

bt = self._memobj.backtrack[i]

val = RadioSettingValueList(
self._BACKTRACK_STATUS,
self._BACKTRACK_STATUS[0 if bt.status == 1 else 1])
rs = RadioSetting(
"%s.status" % bt_idx,
prefix + "status", val)
rs.set_apply_callback(self.apply_backtrack_status, bt)
menu.append(rs)

if bt.status == 1 and int(bt.year) < 100:
val = RadioSettingValueInteger(0, 99, bt.year)
else:
val = RadioSettingValueInteger(0, 99, 0)
rs = RadioSetting(
"%s.year" % bt_idx,
prefix + "year", val)
menu.append(rs)

if bt.status == 1 and int(bt.mon) <= 12:
val = RadioSettingValueInteger(0, 12, bt.mon)
else:
val = RadioSettingValueInteger(0, 12, 0)
rs = RadioSetting(
"%s.mon" % bt_idx,
prefix + "month", val)
menu.append(rs)

if bt.status == 1:
val = RadioSettingValueInteger(0, 31, bt.day)
else:
val = RadioSettingValueInteger(0, 31, 0)
rs = RadioSetting(
"%s.day" % bt_idx,
prefix + "day", val)
menu.append(rs)

if bt.status == 1:
val = RadioSettingValueInteger(0, 23, bt.hour)
else:
val = RadioSettingValueInteger(0, 23, 0)
rs = RadioSetting(
"%s.hour" % bt_idx,
prefix + "hour", val)
menu.append(rs)

if bt.status == 1:
val = RadioSettingValueInteger(0, 59, bt.min)
else:
val = RadioSettingValueInteger(0, 59, 0)
rs = RadioSetting(
"%s.min" % bt_idx,
prefix + "min", val)
menu.append(rs)

if bt.status == 1 and \
(str(bt.NShemi) == 'N' or str(bt.NShemi) == 'S'):
val = RadioSettingValueString(0, 1, str(bt.NShemi))
else:
val = RadioSettingValueString(0, 1, ' ')
rs = RadioSetting(
"%s.NShemi" % bt_idx,
prefix + "NS hemisphere", val)
rs.set_apply_callback(self.apply_NShemi, bt)
menu.append(rs)

if bt.status == 1 and self.backtrack_ll_validate(bt.lat, 0, 90):
val = RadioSettingValueString(
0, 3, self.zero_pad(bt.lat, 3))
else:
val = RadioSettingValueString(0, 3, ' ')
rs = RadioSetting("%s.lat" % bt_idx, prefix + "Latitude", val)
rs.set_apply_callback(self.apply_bt_lat, bt)
menu.append(rs)

if bt.status == 1 and \
self.backtrack_ll_validate(bt.lat_min, 0, 59):
val = RadioSettingValueString(
0, 2, self.zero_pad(bt.lat_min, 2))
else:
val = RadioSettingValueString(0, 2, ' ')
rs = RadioSetting(
"%s.lat_min" % bt_idx,
prefix + "Latitude Minutes", val)
rs.set_apply_callback(self.apply_bt_lat_min, bt)
menu.append(rs)

if bt.status == 1 and \
self.backtrack_ll_validate(bt.lat_dec_sec, 0, 9999):
val = RadioSettingValueString(
0, 4, self.zero_pad(bt.lat_dec_sec, 4))
else:
val = RadioSettingValueString(0, 4, ' ')
rs = RadioSetting(
"%s.lat_dec_sec" % bt_idx,
prefix + "Latitude Decimal Seconds", val)
rs.set_apply_callback(self.apply_bt_lat_dec_sec, bt)
menu.append(rs)

if bt.status == 1 and \
(str(bt.WEhemi) == 'W' or str(bt.WEhemi) == 'E'):
val = RadioSettingValueString(
0, 1, str(bt.WEhemi))
else:
val = RadioSettingValueString(0, 1, ' ')
rs = RadioSetting(
"%s.WEhemi" % bt_idx,
prefix + "WE hemisphere", val)
rs.set_apply_callback(self.apply_WEhemi, bt)
menu.append(rs)

if bt.status == 1 and self.backtrack_ll_validate(bt.lon, 0, 180):
val = RadioSettingValueString(
0, 3, self.zero_pad(bt.lon, 3))
else:
val = RadioSettingValueString(0, 3, ' ')
rs = RadioSetting("%s.lon" % bt_idx, prefix + "Longitude", val)
rs.set_apply_callback(self.apply_bt_lon, bt)
menu.append(rs)

if bt.status == 1 and \
self.backtrack_ll_validate(bt.lon_min, 0, 59):
val = RadioSettingValueString(
0, 2, self.zero_pad(bt.lon_min, 2))
else:
val = RadioSettingValueString(0, 2, ' ')
rs = RadioSetting(
"%s.lon_min" % bt_idx,
prefix + "Longitude Minutes", val)
rs.set_apply_callback(self.apply_bt_lon_min, bt)
menu.append(rs)

if bt.status == 1 and \
self.backtrack_ll_validate(bt.lon_dec_sec, 0, 9999):
val = RadioSettingValueString(
0, 4, self.zero_pad(bt.lon_dec_sec, 4))
else:
val = RadioSettingValueString(0, 4, ' ')
rs = RadioSetting(
"%s.lon_dec_sec" % bt_idx,
prefix + "Longitude Decimal Seconds", val)
rs.set_apply_callback(self.apply_bt_lon_dec_sec, bt)
menu.append(rs)

return menu

def _get_scan_settings(self):
menu = RadioSettingGroup("scan_settings", "Scan")
scan_settings = self._memobj.scan_settings

val = RadioSettingValueList(
self._VOL_MODE,
self._VOL_MODE[scan_settings.vol_mode])
rs = RadioSetting("scan_settings.vol_mode", "Volume Mode", val)
menu.append(rs)

vfoa = self._memobj.vfo_info[0]
val = RadioSettingValueList(
self._VOLUME,
self._VOLUME[vfoa.volume])
rs = RadioSetting("vfo_info[0].volume", "VFO A Volume", val)
rs.set_apply_callback(self.apply_volume, 0)
menu.append(rs)

vfob = self._memobj.vfo_info[1]
val = RadioSettingValueList(
self._VOLUME,
self._VOLUME[vfob.volume])
rs = RadioSetting("vfo_info[1].volume", "VFO B Volume", val)
rs.set_apply_callback(self.apply_volume, 1)
menu.append(rs)

squelch = self._memobj.squelch
val = RadioSettingValueList(
self._SQUELCH,
self._SQUELCH[squelch.vfo_a])
rs = RadioSetting("squelch.vfo_a", "VFO A Squelch", val)
menu.append(rs)

val = RadioSettingValueList(
self._SQUELCH,
self._SQUELCH[squelch.vfo_b])
rs = RadioSetting("squelch.vfo_b", "VFO B Squelch", val)
menu.append(rs)

val = RadioSettingValueList(
self._SCAN_RESTART,
self._SCAN_RESTART[scan_settings.scan_restart])
rs = RadioSetting("scan_settings.scan_restart", "Scan Restart", val)
menu.append(rs)

val = RadioSettingValueList(
self._SCAN_RESUME,
self._SCAN_RESUME[scan_settings.scan_resume])
rs = RadioSetting("scan_settings.scan_resume", "Scan Resume", val)
menu.append(rs)

val = RadioSettingValueList(
self._OFF_ON,
self._OFF_ON[scan_settings.busy_led])
rs = RadioSetting("scan_settings.busy_led", "Busy LED", val)
menu.append(rs)

val = RadioSettingValueList(
self._OFF_ON,
self._OFF_ON[scan_settings.scan_lamp])
rs = RadioSetting("scan_settings.scan_lamp", "Scan Lamp", val)
menu.append(rs)

val = RadioSettingValueList(
self._TOT_TIME,
self._TOT_TIME[scan_settings.tot])
rs = RadioSetting("scan_settings.tot", "Transmit Timeout (TOT)", val)
menu.append(rs)

return menu

def _get_settings(self):
top = RadioSettings(self._get_aprs_settings(),
self._get_digital_settings(),
self._get_dtmf_settings(),
self._get_misc_settings(),
self._get_scan_settings(),
self._get_backtrack_settings())
return top

def get_settings(self):
try:
return self._get_settings()
except:
import traceback
LOG.error("Failed to parse settings: %s", traceback.format_exc())
return None

@staticmethod
def apply_custom_symbol(setting, obj):
# Ensure new value falls within known bounds, otherwise leave it as
# it's a custom value from the radio that's outside our list.
if setting.value.get_value() in chirp_common.APRS_SYMBOLS:
setattr(obj, "custom_symbol",
chirp_common.APRS_SYMBOLS.index(setting.value.get_value()))

@classmethod
def _apply_callsign(cls, callsign, obj, default_ssid=None):
ssid = default_ssid
dash_index = callsign.find("-")
if dash_index >= 0:
ssid = callsign[dash_index + 1:]
callsign = callsign[:dash_index]
try:
ssid = int(ssid) % 16
except ValueError:
ssid = default_ssid
setattr(obj, "callsign", cls._add_ff_pad(callsign.encode(), 6))
if ssid is not None:
setattr(obj, "ssid", ssid)

def apply_beacon_type(cls, setting, obj):
beacon_type = str(setting.value.get_value())
beacon_index = cls._BEACON_TYPE.index(beacon_type)
tx_smartbeacon = beacon_index >> 1
tx_interval_beacon = beacon_index & 1
if tx_interval_beacon:
setattr(obj, "tx_interval_beacon", 1)
setattr(obj, "tx_smartbeacon", 0)
elif tx_smartbeacon:
setattr(obj, "tx_interval_beacon", 0)
setattr(obj, "tx_smartbeacon", 1)
else:
setattr(obj, "tx_interval_beacon", 0)
setattr(obj, "tx_smartbeacon", 0)

# digital settings callback routines
def apply_digital_popup(cls, setting, obj):
rawval = setting.value.get_value()
val = 0 if cls._DIG_POP_UP.index(rawval) == 0 \
else cls._DIG_POP_UP.index(rawval) + 9
obj.digital_popup = val

def apply_mycall(cls, setting, obj):
cs = setting.value.get_value()
if cs[0] in ('-', '/'):
raise InvalidValueError("First character of"
" call sign can't be - or /: {0:s}"
.format(cs))
else:
obj.callsign = cls._add_ff_pad(cs.rstrip(), 10)

@classmethod
def apply_callsign(cls, setting, obj, default_ssid=None):
# Uppercase, strip SSID then FF pad to max string length.
callsign = setting.value.get_value().upper()
cls._apply_callsign(callsign, obj, default_ssid)

def apply_digi_path(self, setting, obj):
# Parse and map to aprs.digi_path_4_7[0-3] or aprs.digi_path_8
# and FF terminate.
path = str(setting.value.get_value())
callsigns = [c.strip() for c in path.split(",")]
for index in range(len(obj.entry)):
try:
self._apply_callsign(callsigns[index], obj.entry[index], 0)
except IndexError:
self._apply_callsign("", obj.entry[index], 0)
if len(callsigns) > len(obj.entry):
raise Exception("This path only supports %d entries" % (index + 1))

@classmethod
def apply_ff_padded_string(cls, setting, obj):
# FF pad.
val = setting.value.get_value()
max_len = getattr(obj, "padded_string").size() / 8
val = str(val).rstrip()
setattr(obj, "padded_string", cls._add_ff_pad(val, max_len))

@classmethod
def apply_lat_long(cls, setting, obj):
name = setting.get_name()
is_latitude = name.endswith("latitude")
lat_long = setting.value.get_value().strip()
sign, l_d, l_m, l_s = cls._str_to_latlong(lat_long, is_latitude)
LOG.debug("%s: %d %d %d %d" % (name, sign, l_d, l_m, l_s))
setattr(obj, "%s_sign" % name, sign)
setattr(obj, "%s_degree" % name, l_d)
setattr(obj, "%s_minute" % name, l_m)
setattr(obj, "%s_second" % name, l_s)

def set_settings(self, settings):
_mem = self._memobj
for element in settings:
if not isinstance(element, RadioSetting):
self.set_settings(element)
continue
if not element.changed():
continue
try:
if element.has_apply_callback():
LOG.debug("Using apply callback")
try:
element.run_apply_callback()
except NotImplementedError as e:
LOG.error("ft1d.set_settings: %s", e)
continue

# Find the object containing setting.
obj = _mem
bits = element.get_name().split(".")
setting = bits[-1]
for name in bits[:-1]:
if name.endswith("]"):
name, index = name.split("[")
index = int(index[:-1])
obj = getattr(obj, name)[index]
else:
obj = getattr(obj, name)

try:
old_val = getattr(obj, setting)
LOG.debug("Setting %s(%r) <= %s" % (
element.get_name(), old_val, element.value))
setattr(obj, setting, element.value)
except AttributeError as e:
LOG.error("Setting %s is not in the memory map: %s" %
(element.get_name(), e))
except Exception:
LOG.debug(element.get_name())
raise

def apply_ff_padded_yaesu(cls, setting, obj):
# FF pad yaesus custom string format.
rawval = setting.value.get_value()
max_len = getattr(obj, "padded_yaesu").size() / 8
rawval = str(rawval).rstrip()
val = [CHARSET.index(x) for x in rawval]
for x in range(len(val), max_len):
val.append(0xFF)
obj.padded_yaesu = val

def apply_volume(cls, setting, vfo):
val = setting.value.get_value()
cls._memobj.vfo_info[(vfo * 2)].volume = val
cls._memobj.vfo_info[(vfo * 2) + 1].volume = val

def apply_lcd_contrast(cls, setting, obj):
rawval = setting.value.get_value()
val = cls._LCD_CONTRAST.index(rawval) + 1
obj.lcd_contrast = val

def apply_dtmf(cls, setting, i):
rawval = setting.value.get_value().upper().rstrip()
val = [FT1_DTMF_CHARS.index(x) for x in rawval]
for x in range(len(val), 16):
val.append(0xFF)
cls._memobj.dtmf[i].memory = val

def apply_backtrack_status(cls, setting, obj):
status = setting.value.get_value()

if status == 'Valid':
val = 1
else:
val = 8
setattr(obj, "status", val)

def apply_NShemi(cls, setting, obj):
hemi = setting.value.get_value().upper()

if hemi != 'N' and hemi != 'S':
hemi = ' '
setattr(obj, "NShemi", hemi)

def apply_WEhemi(cls, setting, obj):
hemi = setting.value.get_value().upper()

if hemi != 'W' and hemi != 'E':
hemi = ' '
setattr(obj, "WEhemi", hemi)

def apply_bt_lat(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 3)

setattr(obj, "lat", val)

def apply_bt_lat_min(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 2)

setattr(obj, "lat_min", val)

def apply_bt_lat_dec_sec(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 4)

setattr(obj, "lat_dec_sec", val)

def apply_bt_lon(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 3)

setattr(obj, "lon", val)

def apply_bt_lon_min(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 2)

setattr(obj, "lon_min", val)

def apply_bt_lon_dec_sec(cls, setting, obj):
val = setting.value.get_value()
val = cls.backtrack_zero_pad(val, 4)

setattr(obj, "lon_dec_sec", val)

def load_mmap(self, filename):
if filename.lower().endswith(self._adms_ext):
with open(filename, 'rb') as f:
self._adms_header = f.read(0x16)
LOG.debug('ADMS Header:\n%s',
util.hexprint(self._adms_header))
self._mmap = memmap.MemoryMapBytes(self._model + f.read())
LOG.info('Loaded ADMS file')
self.process_mmap()
else:
chirp_common.CloneModeRadio.load_mmap(self, filename)

def save_mmap(self, filename):
if filename.lower().endswith(self._adms_ext):
if not hasattr(self, '_adms_header'):
raise Exception('Unable to save .img to %s' % self._adms_ext)
with open(filename, 'wb') as f:
f.write(self._adms_header)
f.write(self._mmap.get_packed()[5:])
LOG.info('Wrote file')
else:
chirp_common.CloneModeRadio.save_mmap(self, filename)
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