CHIRP

# Copyright 2011 Dan Smith <dsmith@danplanet.com>

#

# FT-2900-specific modifications by Richard Cochran, <ag6qr@sonic.net>

# Initial work on settings by Chris Fosnight, <chris.fosnight@gmail.com>

# FT-7100-specific modifications by Bruno Maire, <bruno@e48.ch>

#

# 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 time

import logging

from chirp import util, memmap, chirp_common, bitwise, directory, errors

from chirp.drivers.yaesu_clone import YaesuCloneModeRadio

from chirp.settings import RadioSetting, RadioSettingGroup, \

    RadioSettingValueList, RadioSettingValueString, RadioSettings, \

    RadioSettingValueInteger, RadioSettingValueBoolean

LOG = logging.getLogger(__name__)

ACK = b"\x06"

NB_OF_BLOCKS = 248

BLOCK_LEN = 32

def _send(pipe, data):

    time.sleep(0.035)   # Same delay as "FT7100 Programmer" from RT Systems

    # pipe.write(data) --> It seems, that the single bytes are sent too fast

    # so send character per character with a delay

    for ch in data:

        pipe.write(ch)

        time.sleep(0.0012)  # 0.0011 is to short. No ACK after a few packets

    echo = pipe.read(len(data))

    if data == "":

        raise Exception("Failed to read echo."

                        " Maybe serial hardware not connected."

                        " Maybe radio not powered or not in receiving mode.")

    if data != echo:

        LOG.debug("expecting echo\n%s\n", util.hexprint(data))

        LOG.debug("got echo\n%s\n", util.hexprint(echo))

        raise Exception("Got false echo. Expected: '{}', got: '{}'."

                        .format(data, echo))

def _send_ack(pipe):

    time.sleep(0.01)  # Wait for radio input buffer ready

    # time.sleep(0.0003) is the absolute working minimum.

    # This delay is not critical for the transfer as there are not many ACKs.

    _send(pipe, ACK)

def _wait_for_ack(pipe):

    echo = pipe.read(1)

    if echo == "":

        raise Exception("Failed to read ACK. No response from radio.")

    if echo != ACK:

        raise Exception("Failed to read ACK.  Expected: '{}', got: '{}'."

                        .format(util.hexprint(ACK), util.hexprint(echo)))

def _download(radio):

    LOG.debug("in _download\n")

    data = ""

    for _i in range(0, 60):

        data = radio.pipe.read(BLOCK_LEN)

        LOG.debug("Header:\n%s", util.hexprint(data))

        LOG.debug("len(header) = %s\n", len(data))

        if data == radio.IDBLOCK:

            break

    if data == b"":

        raise Exception("Got no data from radio.")

    if data != radio.IDBLOCK:

        raise Exception("Got false header. Expected: '{}', got: '{}'."

                        .format(radio.IDBLOCK, data))

    _send_ack(radio.pipe)

    # read 16 Byte block

    # and ignore it because it is constant. This might be a bug.

    # It was built in at the very beginning and discovered very late that the

    # data might be necessary later to write to the radio.

    # Now the data is hardcoded in _upload(radio)

    data = radio.pipe.read(16)

    _send_ack(radio.pipe)

    # initialize data, the big var that holds all memory

    data = b""

    for block_nr in range(NB_OF_BLOCKS):

        chunk = radio.pipe.read(BLOCK_LEN)

        if len(chunk) != BLOCK_LEN:

            LOG.debug("Block %i ", block_nr)

            LOG.debug("Got: %i:\n%s", len(chunk), util.hexprint(chunk))

            LOG.debug("len chunk is %i\n", len(chunk))

            raise Exception("Failed to get full data block")

        else:

            data += chunk

        _send_ack(radio.pipe)

        if radio.status_fn:

            status = chirp_common.Status()

            status.max = NB_OF_BLOCKS * BLOCK_LEN

            status.cur = len(data)

            status.msg = "Cloning from radio"

            radio.status_fn(status)

    LOG.debug("Total: %i", len(data))

    _send_ack(radio.pipe)

    # for debugging purposes, dump the channels, in hex.

    for _i in range(0, (NB_OF_BLOCKS * BLOCK_LEN) / 26):

        _start_data = 4 + 26 * _i

        chunk = data[_start_data:_start_data + 26]

        LOG.debug("channel %i:\n%s", _i-21, util.hexprint(chunk))

    return memmap.MemoryMapBytes(data)

def _upload(radio):

    data = radio.pipe.read(256)  # Clear buffer

    _send(radio.pipe, radio.IDBLOCK)

    _wait_for_ack(radio.pipe)

    # write 16 Byte block

    # If there should be a problem, see remarks in _download(radio)

    _send(radio.pipe, b"\xEE\x77\x01\x00\x0E\x07\x0E\x07"

                      b"\x00\x00\x00\x00\x00\x02\x00\x00")

    _wait_for_ack(radio.pipe)

    for block_nr in range(NB_OF_BLOCKS):

        data = radio.get_mmap()[block_nr * BLOCK_LEN:

                                (block_nr + 1) * BLOCK_LEN]

        LOG.debug("Writing block_nr %i:\n%s", block_nr, util.hexprint(data))

        _send(radio.pipe, data)

        _wait_for_ack(radio.pipe)

        if radio.status_fn:

            status = chirp_common.Status()

            status.max = NB_OF_BLOCKS * BLOCK_LEN

            status.cur = block_nr * BLOCK_LEN

            status.msg = "Cloning to radio"

            radio.status_fn(status)

        block_nr += 1

MEM_FORMAT = """

struct mem {

  u8   is_used:1,

       is_masked:1,

       is_skip:1,

       unknown11:3,

       show_name:1,

       is_split:1;

  u8   unknown2;

  ul32 freq_rx_Hz;

  ul32 freq_tx_Hz;

  ul16 offset_10khz;

  u8   unknown_dependent_of_band_144_b0000_430_b0101:4,

       tuning_step_index_1_2:4;

  u8   unknown51:2,

       is_offset_minus:1,

       is_offset_plus:1,

       unknown52:1,

       tone_mode_index:3;

  u8   tone_index;

  u8   dtcs_index;

  u8   is_mode_am:1,

       unknown71:2,

       is_packet96:1

       unknown72:2,

       power_index:2;

  u8   unknown81:2,

       tuning_step_index_2_2:4,

       unknown82:2;

  char name[6];

  u8   unknown9;

  u8   unknownA;

};

// Settings are often present multiple times.

// The memories which is written to are mapped here

struct

{

#seekto 0x41;

  u8        current_band;

#seekto 0xa1;

  u8        apo;

#seekto 0xa2;

  u8        ars_vhf;

#seekto 0xe2;

  u8        ars_uhf;

#seekto 0xa3;

  u8        arts_vhf;

#seekto 0xa3;

  u8        arts_uhf;

#seekto 0xa4;

  u8        beep;

#seekto 0xa5;

  u8        cwid;

#seekto 0x80;

  char        cwidw[6];

#seekto 0xa7;

  u8        dim;

#seekto 0xaa;

  u8        dcsnr_vhf;

#seekto 0xea;

  u8        dcsnr_uhf;

#seekto 0xab;

  u8        disp;

#seekto 0xac;

  u8        dtmfd;

#seekto 0xad;

  u8        dtmfs;

#seekto 0xae;

  u8        dtmfw;

#seekto 0xb0;

  u8        lockt;

#seekto 0xb1;

  u8        mic;

#seekto 0xb2;

  u8        mute;

#seekto 0xb4;

  u8        button[4];

#seekto 0xb8;

  u8        rf_sql_vhf;

#seekto 0xf8;

  u8        rf_sql_uhf;

#seekto 0xb9;

  u8        scan_vhf;

#seekto 0xf9;

  u8        scan_uhf;

#seekto 0xbc;

  u8        speaker_cnt;

#seekto 0xff;

  u8        tot;

#seekto 0xc0;

  u8        txnar_vhf;

#seekto 0x100;

  u8        txnar_uhf;

#seekto 0xc1;

  u8        vfotr;

#seekto 0xc2;

  u8        am;

} overlay;

// All known memories

#seekto 0x20;

  u8        nb_mem_used_vhf;

#seekto 0x22;

  u8        nb_mem_used_vhf_and_limits;

#seekto 0x24;

  u8        nb_mem_used_uhf;

#seekto 0x26;

  u8        nb_mem_used_uhf_and_limits;

#seekto 0x41;

  u8        current_band;

#seekto 0x42;

  u8        current_nb_mem_used_vhf_maybe_not;

#seekto 0x4c;

  u8        priority_channel_maybe_1;   // not_implemented

  u8        priority_channel_maybe_2;   // not_implemented

  u8        priority_channel;           // not_implemented

#seekto 0x87;

  u8        opt_01_apo_1_4;

#seekto 0xa1;

  u8        opt_01_apo_2_4;

#seekto 0xc5;

  u8        opt_01_apo_3_4;

#seekto 0xe1;

  u8        opt_01_apo_4_4;

#seekto 0x88;

  u8        opt_02_ars_vhf_1_2;

#seekto 0xa2;

  u8        opt_02_ars_vhf_2_2;

#seekto 0xc6;

  u8        opt_02_ars_uhf_1_2;

#seekto 0xe2;

  u8        opt_02_ars_uhf_2_2;

#seekto 0x89;

  u8        opt_03_arts_mode_vhf_1_2;

#seekto 0xa3;

  u8        opt_03_arts_mode_vhf_2_2;

#seekto 0xc7;

  u8        opt_03_arts_mode_uhf_1_2;

#seekto 0xa3;

  u8        opt_03_arts_mode_vhf_2_2;

#seekto 0x8a;

  u8        opt_04_beep_1_2;

#seekto 0xa4;

  u8        opt_04_beep_2_2;

#seekto 0x8b;

  u8        opt_05_cwid_on_1_4;

#seekto 0xa5;

  u8        opt_05_cwid_on_2_4;

#seekto 0xc9;

  u8        opt_05_cwid_on_3_4;

#seekto 0xe5;

  u8        opt_05_cwid_on_4_4;

#seekto 0x80;

  char        opt_06_cwidw[6];

#seekto 0x8d;

  u8        opt_07_dim_1_4;

#seekto 0xa7;

  u8        opt_07_dim_2_4;

#seekto 0xcb;

  u8        opt_07_dim_3_4;

#seekto 0xe7;

  u8        opt_07_dim_4_4;

#seekto 0x90;

  u8        opt_10_dcsnr_vhf_1_2;

#seekto 0xaa;

  u8        opt_10_dcsnr_vhf_2_2;

#seekto 0xce;

  u8        opt_10_dcsnr_uhf_1_2;

#seekto 0xea;

  u8        opt_10_dcsnr_uhf_2_2;

#seekto 0x91;

  u8        opt_11_disp_1_4;

#seekto 0xab;

  u8        opt_11_disp_2_4;

#seekto 0xcf;

  u8        opt_11_disp_3_4;

#seekto 0xeb;

  u8        opt_11_disp_4_4;

#seekto 0x92;

  u8        opt_12_dtmf_delay_1_4;

#seekto 0xac;

  u8        opt_12_dtmf_delay_2_4;

#seekto 0xd0;

  u8        opt_12_dtmf_delay_3_4;

#seekto 0xec;

  u8        opt_12_dtmf_delay_4_4;

#seekto 0x93;

  u8        opt_13_dtmf_speed_1_4;

#seekto 0xad;

  u8        opt_13_dtmf_speed_2_4;

#seekto 0xd1;

  u8        opt_13_dtmf_speed_3_4;

#seekto 0xed;

  u8        opt_13_dtmf_speed_4_4;

#seekto 0x94;

  u8        opt_14_dtmfw_index_1_4;

#seekto 0xae;

  u8        opt_14_dtmfw_index_2_4;

#seekto 0xd2;

  u8        opt_14_dtmfw_index_3_4;

#seekto 0xee;

  u8        opt_14_dtmfw_index_4_4;

#seekto 0x96;

  u8        opt_16_lockt_1_4;

#seekto 0xb0;

  u8        opt_16_lockt_2_4;

#seekto 0xd4;

  u8        opt_16_lockt_3_4;

#seekto 0xf0;

  u8        opt_16_lockt_4_4;

#seekto 0x97;

  u8        opt_17_mic_MH48_1_4;

#seekto 0xb1;

  u8        opt_17_mic_MH48_2_4;

#seekto 0xd5;

  u8        opt_17_mic_MH48_3_4;

#seekto 0xf1;

  u8        opt_17_mic_MH48_4_4;

#seekto 0x98;

  u8        opt_18_mute_1_4;

#seekto 0xb2;

  u8        opt_18_mute_2_4;

#seekto 0xd6;

  u8        opt_18_mute_3_4;

#seekto 0xf2;

  u8        opt_18_mute_4_4;

#seekto 0x9a;

  u8        opt_20_pg_p_1_4[4];

#seekto 0xb4;

  u8        opt_20_pg_p_2_4[4];

#seekto 0xd8;

  u8        opt_20_pg_p_3_4[4];

#seekto 0xf4;

  u8        opt_20_pg_p_4_4[4];

#seekto 0x9e;

  u8        opt_24_rf_sql_vhf_1_2;

#seekto 0xb8;

  u8        opt_24_rf_sql_vhf_2_2;

#seekto 0xdc;

  u8        opt_24_rf_sql_uhf_1_2;

#seekto 0xf8;

  u8        opt_24_rf_sql_uhf_2_2;

#seekto 0x9f;

  u8        opt_25_scan_resume_vhf_1_2;

#seekto 0xb9;

  u8        opt_25_scan_resume_vhf_2_2;

#seekto 0xdd;

  u8        opt_25_scan_resume_uhf_1_2;

#seekto 0xf9;

  u8        opt_25_scan_resume_uhf_2_2;

#seekto 0xbc;

  u8        opt_28_speaker_cnt_1_2;

#seekto 0xfc;

  u8        opt_28_speaker_cnt_2_2;

#seekto 0xbf;

  u8        opt_31_tot_1_2;

#seekto 0xff;

  u8        opt_31_tot_2_2;

#seekto 0xc0;

  u8        opt_32_tx_nar_vhf;

#seekto 0x100;

  u8        opt_32_tx_nar_uhf;

#seekto 0xc1;

  u8        opt_33_vfo_tr;

#seekto 0xc2;

  u8        opt_34_am_1_2;

#seekto 0x102;

  u8        opt_34_am_2_2;

#seekto 260;

struct {

  struct mem mem_struct;

  char        fill_ff[2];

} unknown00;

struct {

  struct mem mem_struct;

  char        fill_00[6];

} current_vfo_vhf_uhf[2];

struct {

  struct mem mem_struct;

  char        fill_ff[6];

} current_mem_vhf_uhf[2];

struct {

  struct mem mem_struct;

  char        fill_ff[6];

} home_vhf_uhf[2];

struct {

  struct mem mem_struct;

  char        fill_010003000000[6];

} vhome;

struct {

  struct mem mem_struct;

  char        fill_010001000000[6];

} unknown01;

struct {

  char name[32];

} Vertex_Standard_AH003M_Backup_DT;

struct mem

  memory[260];

struct {

  char name[24];

} Vertex_Standard_AH003M;

struct {

  u8 dtmf[16];

} dtmf_mem[16];

"""

MODES_VHF = ["FM", "AM"]

MODES_UHF = ["FM"]      # AM can be set but is ignored by the radio

DUPLEX = ["", "-", "+", "split"]

TONE_MODES_RADIO = ["", "Tone", "TSQL", "CTCSS Bell", "DTCS"]

TONE_MODES = ["", "Tone", "TSQL", "DTCS"]

POWER_LEVELS = [

    chirp_common.PowerLevel("Low", watts=5),

    chirp_common.PowerLevel("Low2", watts=10),

    chirp_common.PowerLevel("Low3", watts=20),

    chirp_common.PowerLevel("High", watts=35),

    ]

TUNING_STEPS = [5.0, 10.0, 12.5, 15.0, 20.0, 25.0, 50.0]

SKIP_VALUES = ["", "S"]

CHARSET = r"!\"#$%&'()*+,-./0123456789:;<=>?@ABCDEFGHIJKLMNOPQRSTUVWXYZ[\]^ _"

DTMF_CHARSET = "0123456789*# "

SPECIAL_CHANS = ['VFO-VHF', 'VFO-UHF', 'Home-VHF', 'Home-UHF', 'VFO', 'Home']

SCAN_LIMITS = ["L1", "U1", "L2", "U2", "L3", "U3", "L4", "U4", "L5", "U5"]

def do_download(radio):

    """This is your download function"""

    return _download(radio)

@directory.register

class FT7100Radio(YaesuCloneModeRadio):

    """Yaesu FT-7100M"""

    MODEL = "FT-7100M"

    VARIANT = ""

    IDBLOCK = b"Vartex Standard AH003M M-Map V04"

    BAUD_RATE = 9600

    NEEDS_COMPAT_SERIAL = False

    # Return information about this radio's features, including

    # how many memories it has, what bands it supports, etc

    def get_features(self):

        LOG.debug("get_features")

        rf = chirp_common.RadioFeatures()

        rf.has_bank = False

        rf.memory_bounds = (0, 240)

        # This radio supports 120 + 10 + 120 + 10 = 260 memories

        # These are zero based for chirpc

        rf.valid_bands = [

            (108000000, 180000000),  # Supports 2-meters tx

            (320000000, 999990000),  # Supports 70-centimeters tx

            ]

        rf.can_odd_split = True

        rf.has_ctone = True

        rf.has_rx_dtcs = True

        rf.has_cross = False

        rf.has_dtcs_polarity = False

        rf.has_bank = False

        rf.has_bank_names = False

        rf.has_settings = True

        rf.has_sub_devices = True

        rf.valid_tuning_steps = TUNING_STEPS

        rf.valid_modes = MODES_VHF

        rf.valid_tmodes = TONE_MODES

        rf.valid_power_levels = POWER_LEVELS

        rf.valid_duplexes = DUPLEX

        rf.valid_skips = SKIP_VALUES

        rf.valid_name_length = 6

        rf.valid_characters = CHARSET

        rf.valid_special_chans = SPECIAL_CHANS

        return rf

    def sync_in(self):

        start = time.time()

        try:

            self._mmap = _download(self)

        except errors.RadioError:

            raise

        except Exception as e:

            raise errors.RadioError("Failed to communicate with radio: %s" % e)

        LOG.info("Downloaded in %.2f sec", (time.time() - start))

        self.process_mmap()

    def sync_out(self):

        self.pipe.timeout = 1

        start = time.time()

        try:

            _upload(self)

        except errors.RadioError:

            raise

        except Exception as e:

            raise errors.RadioError("Failed to communicate with radio: %s" % e)

        LOG.info("Uploaded in %.2f sec", (time.time() - start))

    def process_mmap(self):

        self._memobj = bitwise.parse(MEM_FORMAT, self._mmap)

    def get_raw_memory(self, number):

        return repr(self._memobj.memory[number])

    def get_memory(self, number):

        LOG.debug("get_memory Number: {}".format(number))

        # Create a high-level memory object to return to the UI

        mem = chirp_common.Memory()

        # Get a low-level memory object mapped to the image

        if isinstance(number, int) and number < 0:

            number = SPECIAL_CHANS[number + 10]

        if isinstance(number, str):

            mem.number = -10 + SPECIAL_CHANS.index(number)

            mem.extd_number = number

            band = 0

            if self._memobj.overlay.current_band != 0:

                band = 1

            if number == 'VFO-VHF':

                _mem = self._memobj.current_vfo_vhf_uhf[0].mem_struct

            elif number == 'VFO-UHF':

                _mem = self._memobj.current_vfo_vhf_uhf[1].mem_struct

            elif number == 'Home-VHF':

                _mem = self._memobj.home_vhf_uhf[0].mem_struct

            elif number == 'Home-UHF':

                _mem = self._memobj.home_vhf_uhf[1].mem_struct

            elif number == 'VFO':

                _mem = self._memobj.current_vfo_vhf_uhf[band].mem_struct

            elif number == 'Home':

                _mem = self._memobj.home_vhf_uhf[band].mem_struct

            _mem.is_used = True

        else:

            mem.number = number                 # Set the memory number

            _mem = self._memobj.memory[number]

            upper_channel = self._memobj.nb_mem_used_vhf

            upper_limit = self._memobj.nb_mem_used_vhf_and_limits

            if number >= upper_channel and number < upper_limit:

                i = number - upper_channel

                mem.extd_number = SCAN_LIMITS[i]

            if number >= 260-10:

                i = number - (260-10)

                mem.extd_number = SCAN_LIMITS[i]

        # Convert your low-level frequency to Hertz

        mem.freq = int(_mem.freq_rx_Hz)

        mem.name = str(_mem.name).rstrip()  # Set the alpha tag

        mem.rtone = chirp_common.TONES[_mem.tone_index]

        mem.ctone = chirp_common.TONES[_mem.tone_index]

        mem.dtcs = chirp_common.DTCS_CODES[_mem.dtcs_index]

        mem.rx_dtcs = chirp_common.DTCS_CODES[_mem.dtcs_index]

        tmode_radio = TONE_MODES_RADIO[_mem.tone_mode_index]

        # CTCSS Bell is TSQL plus a flag in the extra setting

        is_ctcss_bell = tmode_radio == "CTCSS Bell"

        if is_ctcss_bell:

            mem.tmode = "TSQL"

        else:

            mem.tmode = tmode_radio

        mem.duplex = ""

        if _mem.is_offset_plus:

            mem.duplex = "+"

        elif _mem.is_offset_minus:

            mem.duplex = "-"

        elif _mem.is_split:

            mem.duplex = "split"

        if _mem.is_split:

            mem.offset = int(_mem.freq_tx_Hz)

        else:

            mem.offset = int(_mem.offset_10khz)*10000   # 10kHz to Hz

        if _mem.is_mode_am:

            mem.mode = "AM"

        else:

            mem.mode = "FM"

        mem.power = POWER_LEVELS[_mem.power_index]

        mem.tuning_step = TUNING_STEPS[_mem.tuning_step_index_1_2]

        if _mem.is_skip:

            mem.skip = "S"

        else:

            mem.skip = ""

        # mem.comment = ""

        mem.empty = not _mem.is_used

        mem.extra = RadioSettingGroup("Extra", "extra")

        rs = RadioSetting("show_name", "Show Name",

                          RadioSettingValueBoolean(_mem.show_name))

        mem.extra.append(rs)

        rs = RadioSetting("is_masked", "Is Masked",

                          RadioSettingValueBoolean(_mem.is_masked))

        mem.extra.append(rs)

        rs = RadioSetting("is_packet96", "Packet 9600",

                          RadioSettingValueBoolean(_mem.is_packet96))

        mem.extra.append(rs)

        rs = RadioSetting("is_ctcss_bell", "CTCSS Bell",

                          RadioSettingValueBoolean(is_ctcss_bell))

        mem.extra.append(rs)

        return mem

    def set_memory(self, mem):

        LOG.debug("set_memory Number: {}".format(mem.number))

        if mem.number < 0:

            number = SPECIAL_CHANS[mem.number+10]

            if number == 'VFO-VHF':

                _mem = self._memobj.current_vfo_vhf_uhf[0].mem_struct

            elif number == 'VFO-UHF':

                _mem = self._memobj.current_vfo_vhf_uhf[1].mem_struct

            elif number == 'Home-VHF':

                _mem = self._memobj.home_vhf_uhf[0].mem_struct

            elif number == 'Home-UHF':

                _mem = self._memobj.home_vhf_uhf[1].mem_struct

            else:

                raise errors.RadioError("Unexpected Memory Number: {}"

                                        .format(mem.number))

        else:

            _mem = self._memobj.memory[mem.number]

        _mem.name = mem.name.ljust(6)

        _mem.tone_index = chirp_common.TONES.index(mem.rtone)

        _mem.dtcs_index = chirp_common.DTCS_CODES.index(mem.dtcs)

        if mem.tmode == "TSQL":

            _mem.tone_index = chirp_common.TONES.index(mem.ctone)

        if mem.tmode == "DTSC-R":

            _mem.dtcs_index = chirp_common.DTCS_CODES.index(mem.rx_dtcs)

        _mem.is_offset_plus = 0

        _mem.is_offset_minus = 0

        _mem.is_split = 0

        _mem.freq_rx_Hz = mem.freq

        _mem.freq_tx_Hz = mem.freq

        if mem.duplex == "+":

            _mem.is_offset_plus = 1

            _mem.freq_tx_Hz = mem.freq + mem.offset

            _mem.offset_10khz = int(mem.offset/10000)

        elif mem.duplex == "-":

            _mem.is_offset_minus = 1

            _mem.freq_tx_Hz = mem.freq - mem.offset

            _mem.offset_10khz = int(mem.offset/10000)

        elif mem.duplex == "split":

            _mem.is_split = 1

            _mem.freq_tx_Hz = mem.offset

            # No change to _mem.offset_10khz

        _mem.is_mode_am = mem.mode == "AM"

        if mem.power:

            _mem.power_index = POWER_LEVELS.index(mem.power)

        _mem.tuning_step_index_1_2 = TUNING_STEPS.index(mem.tuning_step)

        _mem.is_skip = mem.skip == "S"

        _mem.is_used = not mem.empty

        # if name not empty: show name

        _mem.show_name = mem.name.strip() != ""

        # In testmode there is no setting in mem.extra

        # This is why the following line is not located in the else part of

        # the if structure below

        _mem.tone_mode_index = TONE_MODES_RADIO.index(mem.tmode)

        for setting in mem.extra:

            if setting.get_name() == "is_ctcss_bell":

                if mem.tmode == "TSQL" and setting.value:

                    _mem.tone_mode_index = TONE_MODES_RADIO.index("CTCSS Bell")

            else:

                setattr(_mem, setting.get_name(), setting.value)

        LOG.debug("encoded mem\n%s\n", (util.hexprint(_mem.get_raw()[0:25])))

        LOG.debug(repr(_mem))

    def get_settings(self):

        common = RadioSettingGroup("common", "Common Settings")

        band = RadioSettingGroup("band", "Band dependent Settings")

        arts = RadioSettingGroup("arts",

                                 "Auto Range Transponder System (ARTS)")

        dtmf = RadioSettingGroup("dtmf", "DTMF Settings")

        mic_button = RadioSettingGroup("mic_button", "Microphone Buttons")

        setmode = RadioSettings(common, band, arts, dtmf, mic_button)

        _overlay = self._memobj.overlay

        # numbers and names of settings refer to the way they're

        # presented in the set menu, as well as the list starting on

        # page 49 of the manual

        # 1 Automatic Power Off

        opts = [

            "Off", "30 Min",

            "1 Hour", "1.5 Hours",

            "2 Hours", "2.5 Hours",

            "3 Hours", "3.5 Hours",

            "4 Hours", "4.5 Hours",

            "5 Hours", "5.5 Hours",

            "6 Hours", "6.5 Hours",

            "7 Hours", "7.5 Hours",

            "8 Hours", "8.5 Hours",

            "9 Hours", "9.5 Hours",

            "10 Hours", "10.5 Hours",

            "11 Hours", "11.5 Hours",

            "12 Hours",

            ]

        common.append(

            RadioSetting(

                "apo", "Automatic Power Off",

                RadioSettingValueList(opts, opts[_overlay.apo])))

        # 2 Automatic Repeater Shift function

        opts = ["Off", "On"]

        band.append(

            RadioSetting(

                "ars_vhf", "Automatic Repeater Shift VHF",

                RadioSettingValueList(opts, opts[_overlay.ars_vhf])))

        band.append(

            RadioSetting(

                "ars_uhf", "Automatic Repeater Shift UHF",

                RadioSettingValueList(opts, opts[_overlay.ars_uhf])))

        # 3  Selects the ARTS mode.

        # -> Only useful to set it on the radio directly

        # 4 Enables/disables the key/button beeper.

        opts = ["Off", "On"]

        common.append(

            RadioSetting(

                "beep", "Key/Button Beep",

                RadioSettingValueList(opts, opts[_overlay.beep])))

        # 5 Enables/disables the CW IDer during ARTS operation.

        opts = ["Off", "On"]

        arts.append(

            RadioSetting(

                "cwid", "Enables/Disables the CW ID",

                RadioSettingValueList(opts, opts[_overlay.cwid])))

        # 6  Callsign during ARTS operation.

        cwidw = _overlay.cwidw.get_raw()

        cwidw = cwidw.rstrip('\x00')

        val = RadioSettingValueString(0, 6, cwidw)

        val.set_charset(CHARSET)

        rs = RadioSetting("cwidw", "CW Identifier Callsign", val)

        def apply_cwid(setting):

            value_string = setting.value.get_value()

            _overlay.cwidw.set_value(value_string)

        rs.set_apply_callback(apply_cwid)

        arts.append(rs)

        # 7 Front panel display's illumination level.

        opts = ["0: Off", "1: Max", "2", "3", "4", "5", "6", "7: Min"]

        common.append(

            RadioSetting(

                "dim", "Display Illumination",

                RadioSettingValueList(opts, opts[_overlay.dim])))

        # 8 Setting the DCS code number.

        #   Note: This Menu item can be set independently for each band,

        #         and independently in each memory.

        # 9 Activates the DCS Code Search

        # -> Only useful if set on radio itself

        # 10 Selects 'Normal' or 'Inverted' DCS coding.

        opts = ["TRX Normal", "RX Reversed", "TX Reversed", "TRX Reversed"]

        band.append(

            RadioSetting(

                "dcsnr_vhf", "DCS coding VHF",

                RadioSettingValueList(opts, opts[_overlay.dcsnr_vhf])))

        band.append(

            RadioSetting(

                "dcsnr_uhf", "DCS coding UHF",

                RadioSettingValueList(opts, opts[_overlay.dcsnr_uhf])))

        # 11 Selects the 'sub' band display format

        opts = ["Frequency", "Off / Sub Band disabled",

                "DC Input Voltage", "CW ID"]

        common.append(

            RadioSetting(

                "disp", "Sub Band Display Format",

                RadioSettingValueList(opts, opts[_overlay.disp])))

        # 12 Setting the DTMF Autodialer delay time

        opts = ["50 ms", "250 ms", "450 ms", "750 ms", "1 s"]

        dtmf.append(

            RadioSetting(

                "dtmfd", "Autodialer delay time",

                RadioSettingValueList(opts, opts[_overlay.dtmfd])))

        # 13 Setting the DTMF Autodialer sending speed

        opts = ["50 ms", "75 ms", "100 ms"]

        dtmf.append(

            RadioSetting(

                "dtmfs", "Autodialer sending speed",

                RadioSettingValueList(opts, opts[_overlay.dtmfs])))

        # 14 Current DTMF Autodialer memory

        rs = RadioSetting("dtmfw", "Current Autodialer memory",

                          RadioSettingValueInteger(1, 16, _overlay.dtmfw + 1))

        def apply_dtmfw(setting):

            _overlay.dtmfw = setting.value.get_value() - 1

        rs.set_apply_callback(apply_dtmfw)

        dtmf.append(rs)

        # DTMF Memory

        for i in range(16):

            dtmf_string = ""

            for j in range(16):

                dtmf_char = ''

                dtmf_int = int(self._memobj.dtmf_mem[i].dtmf[j])

                if dtmf_int < 10:

                    dtmf_char = str(dtmf_int)

                elif dtmf_int == 14:

                    dtmf_char = '*'

                elif dtmf_int == 15:

                    dtmf_char = '#'

                elif dtmf_int == 255:

                    break

                dtmf_string += dtmf_char

            radio_setting_value_string = RadioSettingValueString(0, 16,

                                                                 dtmf_string)

            radio_setting_value_string.set_charset(DTMF_CHARSET)

            rs = RadioSetting("dtmf_{0:02d}".format(i),

                              "DTMF Mem " + str(i+1),