X-Git-Url: https://sigrok.org/gitweb/?p=libsigrok.git;a=blobdiff_plain;f=src%2Fhardware%2Fhameg-hmo%2Fprotocol.c;h=26dac0cb037f34de3a8e370bc2d74a99285a799d;hp=60731ec46574a35f98f3594d96b523039e55a0a4;hb=4da62209ddfa3aad12678c7141c19e9c3e8419c1;hpb=8cccbac8da97397b61aa094c67e62ee922b628ed diff --git a/src/hardware/hameg-hmo/protocol.c b/src/hardware/hameg-hmo/protocol.c index 60731ec4..26dac0cb 100644 --- a/src/hardware/hameg-hmo/protocol.c +++ b/src/hardware/hameg-hmo/protocol.c @@ -2,6 +2,7 @@ * This file is part of the libsigrok project. * * Copyright (C) 2013 poljar (Damir Jelić) + * Copyright (C) 2018 Guido Trentalancia * * 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 @@ -23,100 +24,217 @@ #include "scpi.h" #include "protocol.h" +SR_PRIV void hmo_queue_logic_data(struct dev_context *devc, + size_t group, GByteArray *pod_data); +SR_PRIV void hmo_send_logic_packet(struct sr_dev_inst *sdi, + struct dev_context *devc); +SR_PRIV void hmo_cleanup_logic_data(struct dev_context *devc); + static const char *hameg_scpi_dialect[] = { - [SCPI_CMD_GET_DIG_DATA] = ":POD%d:DATA?", - [SCPI_CMD_GET_TIMEBASE] = ":TIM:SCAL?", - [SCPI_CMD_SET_TIMEBASE] = ":TIM:SCAL %s", - [SCPI_CMD_GET_COUPLING] = ":CHAN%d:COUP?", - [SCPI_CMD_SET_COUPLING] = ":CHAN%d:COUP %s", - [SCPI_CMD_GET_SAMPLE_RATE] = ":ACQ:SRAT?", - [SCPI_CMD_GET_SAMPLE_RATE_LIVE] = ":%s:DATA:POINTS?", - [SCPI_CMD_GET_ANALOG_DATA] = ":CHAN%d:DATA?", - [SCPI_CMD_GET_VERTICAL_DIV] = ":CHAN%d:SCAL?", - [SCPI_CMD_SET_VERTICAL_DIV] = ":CHAN%d:SCAL %s", - [SCPI_CMD_GET_DIG_POD_STATE] = ":POD%d:STAT?", - [SCPI_CMD_SET_DIG_POD_STATE] = ":POD%d:STAT %d", - [SCPI_CMD_GET_TRIGGER_SLOPE] = ":TRIG:A:EDGE:SLOP?", - [SCPI_CMD_SET_TRIGGER_SLOPE] = ":TRIG:A:EDGE:SLOP %s", - [SCPI_CMD_GET_TRIGGER_SOURCE] = ":TRIG:A:SOUR?", - [SCPI_CMD_SET_TRIGGER_SOURCE] = ":TRIG:A:SOUR %s", - [SCPI_CMD_GET_DIG_CHAN_STATE] = ":LOG%d:STAT?", - [SCPI_CMD_SET_DIG_CHAN_STATE] = ":LOG%d:STAT %d", - [SCPI_CMD_GET_VERTICAL_OFFSET] = ":CHAN%d:POS?", - [SCPI_CMD_GET_HORIZ_TRIGGERPOS] = ":TIM:POS?", - [SCPI_CMD_SET_HORIZ_TRIGGERPOS] = ":TIM:POS %s", - [SCPI_CMD_GET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT?", - [SCPI_CMD_SET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT %d", + [SCPI_CMD_GET_DIG_DATA] = ":FORM UINT,8;:POD%d:DATA?", + [SCPI_CMD_GET_TIMEBASE] = ":TIM:SCAL?", + [SCPI_CMD_SET_TIMEBASE] = ":TIM:SCAL %s", + [SCPI_CMD_GET_HORIZONTAL_DIV] = ":TIM:DIV?", + [SCPI_CMD_GET_COUPLING] = ":CHAN%d:COUP?", + [SCPI_CMD_SET_COUPLING] = ":CHAN%d:COUP %s", + [SCPI_CMD_GET_SAMPLE_RATE] = ":ACQ:SRAT?", + [SCPI_CMD_GET_ANALOG_DATA] = ":FORM:BORD %s;" \ + ":FORM REAL,32;:CHAN%d:DATA?", + [SCPI_CMD_GET_VERTICAL_SCALE] = ":CHAN%d:SCAL?", + [SCPI_CMD_SET_VERTICAL_SCALE] = ":CHAN%d:SCAL %s", + [SCPI_CMD_GET_DIG_POD_STATE] = ":POD%d:STAT?", + [SCPI_CMD_SET_DIG_POD_STATE] = ":POD%d:STAT %d", + [SCPI_CMD_GET_TRIGGER_SOURCE] = ":TRIG:A:SOUR?", + [SCPI_CMD_SET_TRIGGER_SOURCE] = ":TRIG:A:SOUR %s", + [SCPI_CMD_GET_TRIGGER_SLOPE] = ":TRIG:A:EDGE:SLOP?", + [SCPI_CMD_SET_TRIGGER_SLOPE] = ":TRIG:A:TYPE EDGE;:TRIG:A:EDGE:SLOP %s", + [SCPI_CMD_GET_TRIGGER_PATTERN] = ":TRIG:A:PATT:SOUR?", + [SCPI_CMD_SET_TRIGGER_PATTERN] = ":TRIG:A:TYPE LOGIC;" \ + ":TRIG:A:PATT:FUNC AND;" \ + ":TRIG:A:PATT:COND \"TRUE\";" \ + ":TRIG:A:PATT:MODE OFF;" \ + ":TRIG:A:PATT:SOUR \"%s\"", + [SCPI_CMD_GET_HIGH_RESOLUTION] = ":ACQ:HRES?", + [SCPI_CMD_SET_HIGH_RESOLUTION] = ":ACQ:HRES %s", + [SCPI_CMD_GET_PEAK_DETECTION] = ":ACQ:PEAK?", + [SCPI_CMD_SET_PEAK_DETECTION] = ":ACQ:PEAK %s", + [SCPI_CMD_GET_DIG_CHAN_STATE] = ":LOG%d:STAT?", + [SCPI_CMD_SET_DIG_CHAN_STATE] = ":LOG%d:STAT %d", + [SCPI_CMD_GET_VERTICAL_OFFSET] = ":CHAN%d:POS?", + [SCPI_CMD_GET_HORIZ_TRIGGERPOS] = ":TIM:POS?", + [SCPI_CMD_SET_HORIZ_TRIGGERPOS] = ":TIM:POS %s", + [SCPI_CMD_GET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT?", + [SCPI_CMD_SET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT %d", + [SCPI_CMD_GET_PROBE_UNIT] = ":PROB%d:SET:ATT:UNIT?", + [SCPI_CMD_GET_DIG_POD_THRESHOLD] = ":POD%d:THR?", + [SCPI_CMD_SET_DIG_POD_THRESHOLD] = ":POD%d:THR %s", + [SCPI_CMD_GET_DIG_POD_USER_THRESHOLD] = ":POD%d:THR:UDL%d?", + [SCPI_CMD_SET_DIG_POD_USER_THRESHOLD] = ":POD%d:THR:UDL%d %s", +}; + +static const char *rohde_schwarz_log_not_pod_scpi_dialect[] = { + [SCPI_CMD_GET_DIG_DATA] = ":FORM UINT,8;:LOG%d:DATA?", + [SCPI_CMD_GET_TIMEBASE] = ":TIM:SCAL?", + [SCPI_CMD_SET_TIMEBASE] = ":TIM:SCAL %s", + [SCPI_CMD_GET_HORIZONTAL_DIV] = ":TIM:DIV?", + [SCPI_CMD_GET_COUPLING] = ":CHAN%d:COUP?", + [SCPI_CMD_SET_COUPLING] = ":CHAN%d:COUP %s", + [SCPI_CMD_GET_SAMPLE_RATE] = ":ACQ:SRAT?", + [SCPI_CMD_GET_ANALOG_DATA] = ":FORM:BORD %s;" \ + ":FORM REAL,32;:CHAN%d:DATA?", + [SCPI_CMD_GET_VERTICAL_SCALE] = ":CHAN%d:SCAL?", + [SCPI_CMD_SET_VERTICAL_SCALE] = ":CHAN%d:SCAL %s", + [SCPI_CMD_GET_DIG_POD_STATE] = ":LOG%d:STAT?", + [SCPI_CMD_SET_DIG_POD_STATE] = ":LOG%d:STAT %d", + [SCPI_CMD_GET_TRIGGER_SOURCE] = ":TRIG:A:SOUR?", + [SCPI_CMD_SET_TRIGGER_SOURCE] = ":TRIG:A:SOUR %s", + [SCPI_CMD_GET_TRIGGER_SLOPE] = ":TRIG:A:EDGE:SLOP?", + [SCPI_CMD_SET_TRIGGER_SLOPE] = ":TRIG:A:TYPE EDGE;:TRIG:A:EDGE:SLOP %s", + [SCPI_CMD_GET_TRIGGER_PATTERN] = ":TRIG:A:PATT:SOUR?", + [SCPI_CMD_SET_TRIGGER_PATTERN] = ":TRIG:A:TYPE LOGIC;" \ + ":TRIG:A:PATT:FUNC AND;" \ + ":TRIG:A:PATT:COND \"TRUE\";" \ + ":TRIG:A:PATT:MODE OFF;" \ + ":TRIG:A:PATT:SOUR \"%s\"", + [SCPI_CMD_GET_HIGH_RESOLUTION] = ":ACQ:HRES?", + [SCPI_CMD_SET_HIGH_RESOLUTION] = ":ACQ:HRES %s", + [SCPI_CMD_GET_PEAK_DETECTION] = ":ACQ:PEAK?", + [SCPI_CMD_SET_PEAK_DETECTION] = ":ACQ:PEAK %s", + [SCPI_CMD_GET_DIG_CHAN_STATE] = ":LOG%d:STAT?", + [SCPI_CMD_SET_DIG_CHAN_STATE] = ":LOG%d:STAT %d", + [SCPI_CMD_GET_VERTICAL_OFFSET] = ":CHAN%d:POS?", /* Might not be supported on RTB200x... */ + [SCPI_CMD_GET_HORIZ_TRIGGERPOS] = ":TIM:POS?", + [SCPI_CMD_SET_HORIZ_TRIGGERPOS] = ":TIM:POS %s", + [SCPI_CMD_GET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT?", + [SCPI_CMD_SET_ANALOG_CHAN_STATE] = ":CHAN%d:STAT %d", + [SCPI_CMD_GET_PROBE_UNIT] = ":PROB%d:SET:ATT:UNIT?", + [SCPI_CMD_GET_DIG_POD_THRESHOLD] = ":DIG%d:TECH?", + [SCPI_CMD_SET_DIG_POD_THRESHOLD] = ":DIG%d:TECH %s", + [SCPI_CMD_GET_DIG_POD_USER_THRESHOLD] = ":DIG%d:THR?", + [SCPI_CMD_SET_DIG_POD_USER_THRESHOLD] = ":DIG%d:THR %s", }; -static const uint32_t hmo_devopts[] = { +static const uint32_t devopts[] = { SR_CONF_OSCILLOSCOPE, + SR_CONF_LIMIT_SAMPLES | SR_CONF_SET, SR_CONF_LIMIT_FRAMES | SR_CONF_GET | SR_CONF_SET, - SR_CONF_TRIGGER_SOURCE | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, + SR_CONF_SAMPLERATE | SR_CONF_GET, SR_CONF_TIMEBASE | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, SR_CONF_NUM_HDIV | SR_CONF_GET, - SR_CONF_TRIGGER_SLOPE | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, SR_CONF_HORIZ_TRIGGERPOS | SR_CONF_GET | SR_CONF_SET, - SR_CONF_SAMPLERATE | SR_CONF_GET, + SR_CONF_TRIGGER_SOURCE | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, + SR_CONF_TRIGGER_SLOPE | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, + SR_CONF_TRIGGER_PATTERN | SR_CONF_GET | SR_CONF_SET, + SR_CONF_HIGH_RESOLUTION | SR_CONF_GET | SR_CONF_SET, + SR_CONF_PEAK_DETECTION | SR_CONF_GET | SR_CONF_SET, }; -static const uint32_t hmo_analog_devopts[] = { +static const uint32_t devopts_cg_analog[] = { SR_CONF_NUM_VDIV | SR_CONF_GET, - SR_CONF_COUPLING | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, SR_CONF_VDIV | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, + SR_CONF_COUPLING | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, +}; + +static const uint32_t devopts_cg_digital[] = { + SR_CONF_LOGIC_THRESHOLD | SR_CONF_GET | SR_CONF_SET | SR_CONF_LIST, + SR_CONF_LOGIC_THRESHOLD_CUSTOM | SR_CONF_GET | SR_CONF_SET, }; -static const char *hmo_coupling_options[] = { - "AC", - "ACL", - "DC", - "DCL", +static const char *coupling_options[] = { + "AC", // AC with 50 Ohm termination (152x, 202x, 30xx, 1202) + "ACL", // AC with 1 MOhm termination + "DC", // DC with 50 Ohm termination + "DCL", // DC with 1 MOhm termination + "GND", +}; + +static const char *coupling_options_rtb200x[] = { + "ACL", // AC with 1 MOhm termination + "DCL", // DC with 1 MOhm termination + "GND", +}; + +static const char *coupling_options_rtm300x[] = { + "ACL", // AC with 1 MOhm termination + "DC", // DC with 50 Ohm termination + "DCL", // DC with 1 MOhm termination "GND", - NULL, }; static const char *scope_trigger_slopes[] = { "POS", "NEG", - NULL, + "EITH", +}; + +/* Predefined logic thresholds. */ +static const char *logic_threshold[] = { + "TTL", + "ECL", + "CMOS", + "USER1", + "USER2", // overwritten by logic_threshold_custom, use USER1 for permanent setting +}; + +static const char *logic_threshold_rtb200x_rtm300x[] = { + "TTL", + "ECL", + "CMOS", + "MAN", // overwritten by logic_threshold_custom +}; + +/* This might need updates whenever logic_threshold* above change. */ +#define MAX_NUM_LOGIC_THRESHOLD_ENTRIES ARRAY_SIZE(logic_threshold) + +/* RTC1002, HMO Compact2 and HMO1002/HMO1202 */ +static const char *an2_dig8_trigger_sources[] = { + "CH1", "CH2", + "LINE", "EXT", "PATT", "BUS1", "BUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", +}; + +/* HMO3xx2 */ +static const char *an2_dig16_trigger_sources[] = { + "CH1", "CH2", + "LINE", "EXT", "PATT", "BUS1", "BUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", + "D8", "D9", "D10", "D11", "D12", "D13", "D14", "D15", +}; + +/* RTB2002 and RTM3002 */ +static const char *an2_dig16_sbus_trigger_sources[] = { + "CH1", "CH2", + "LINE", "EXT", "PATT", "SBUS1", "SBUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", + "D8", "D9", "D10", "D11", "D12", "D13", "D14", "D15", +}; + +/* HMO Compact4 */ +static const char *an4_dig8_trigger_sources[] = { + "CH1", "CH2", "CH3", "CH4", + "LINE", "EXT", "PATT", "BUS1", "BUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", }; -static const char *hmo_compact2_trigger_sources[] = { - "CH1", - "CH2", - "LINE", - "EXT", - "D0", - "D1", - "D2", - "D3", - "D4", - "D5", - "D6", - "D7", - NULL, +/* HMO3xx4 and HMO2524 */ +static const char *an4_dig16_trigger_sources[] = { + "CH1", "CH2", "CH3", "CH4", + "LINE", "EXT", "PATT", "BUS1", "BUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", + "D8", "D9", "D10", "D11", "D12", "D13", "D14", "D15", }; -static const char *hmo_compact4_trigger_sources[] = { - "CH1", - "CH2", - "CH3", - "CH4", - "LINE", - "EXT", - "D0", - "D1", - "D2", - "D3", - "D4", - "D5", - "D6", - "D7", - NULL, +/* RTB2004, RTM3004 and RTA4004 */ +static const char *an4_dig16_sbus_trigger_sources[] = { + "CH1", "CH2", "CH3", "CH4", + "LINE", "EXT", "PATT", "SBUS1", "SBUS2", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", + "D8", "D9", "D10", "D11", "D12", "D13", "D14", "D15", }; -static const uint64_t hmo_timebases[][2] = { +static const uint64_t timebases[][2] = { /* nanoseconds */ + { 1, 1000000000 }, { 2, 1000000000 }, { 5, 1000000000 }, { 10, 1000000000 }, @@ -154,8 +272,30 @@ static const uint64_t hmo_timebases[][2] = { { 50, 1 }, }; -static const uint64_t hmo_vdivs[][2] = { - /* millivolts */ +/* HMO Compact series (HMO722/724/1022/1024/1522/1524/2022/2024) do + * not support 1 ns timebase setting. + */ +static const uint64_t timebases_hmo_compact[][2] = { + /* nanoseconds */ + { 2, 1000000000 }, + { 5, 1000000000 }, + { 10, 1000000000 }, + { 20, 1000000000 }, + { 50, 1000000000 }, + { 100, 1000000000 }, + { 200, 1000000000 }, + { 500, 1000000000 }, + /* microseconds */ + { 1, 1000000 }, + { 2, 1000000 }, + { 5, 1000000 }, + { 10, 1000000 }, + { 20, 1000000 }, + { 50, 1000000 }, + { 100, 1000000 }, + { 200, 1000000 }, + { 500, 1000000 }, + /* milliseconds */ { 1, 1000 }, { 2, 1000 }, { 5, 1000 }, @@ -165,7 +305,7 @@ static const uint64_t hmo_vdivs[][2] = { { 100, 1000 }, { 200, 1000 }, { 500, 1000 }, - /* volts */ + /* seconds */ { 1, 1 }, { 2, 1 }, { 5, 1 }, @@ -174,97 +314,438 @@ static const uint64_t hmo_vdivs[][2] = { { 50, 1 }, }; +static const uint64_t vdivs[][2] = { + /* millivolts */ + { 1, 1000 }, + { 2, 1000 }, + { 5, 1000 }, + { 10, 1000 }, + { 20, 1000 }, + { 50, 1000 }, + { 100, 1000 }, + { 200, 1000 }, + { 500, 1000 }, + /* volts */ + { 1, 1 }, + { 2, 1 }, + { 5, 1 }, + { 10, 1 }, +}; + static const char *scope_analog_channel_names[] = { - "CH1", - "CH2", - "CH3", - "CH4", + "CH1", "CH2", "CH3", "CH4", }; static const char *scope_digital_channel_names[] = { - "D0", - "D1", - "D2", - "D3", - "D4", - "D5", - "D6", - "D7", - "D8", - "D9", - "D10", - "D11", - "D12", - "D13", - "D14", - "D15", + "D0", "D1", "D2", "D3", "D4", "D5", "D6", "D7", + "D8", "D9", "D10", "D11", "D12", "D13", "D14", "D15", }; -static const struct scope_config scope_models[] = { +static struct scope_config scope_models[] = { + { + /* HMO Compact2: HMO722/1022/1522/2022 support only 8 digital channels. */ + .name = {"HMO722", "HMO1022", "HMO1522", "HMO2022", NULL}, + .analog_channels = 2, + .digital_channels = 8, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options, + .num_coupling_options = ARRAY_SIZE(coupling_options), + + .logic_threshold = &logic_threshold, + .num_logic_threshold = ARRAY_SIZE(logic_threshold), + .logic_threshold_for_pod = TRUE, + + .trigger_sources = &an2_dig8_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an2_dig8_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases_hmo_compact, + .num_timebases = ARRAY_SIZE(timebases_hmo_compact), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &hameg_scpi_dialect, + }, { - /* HMO2522/3032/3042/3052 support 16 digital channels but they're not supported yet. */ - .name = {"HMO722", "HMO1022", "HMO1522", "HMO2022", "HMO2522", - "HMO3032", "HMO3042", "HMO3052", NULL}, + /* RTC1002 and HMO1002/HMO1202 support only 8 digital channels. */ + .name = {"RTC1002", "HMO1002", "HMO1202", NULL}, .analog_channels = 2, .digital_channels = 8, - .digital_pods = 1, .analog_names = &scope_analog_channel_names, .digital_names = &scope_digital_channel_names, - .devopts = &hmo_devopts, - .num_devopts = ARRAY_SIZE(hmo_devopts), + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), - .analog_devopts = &hmo_analog_devopts, - .num_analog_devopts = ARRAY_SIZE(hmo_analog_devopts), + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options, + .num_coupling_options = ARRAY_SIZE(coupling_options), + + .logic_threshold = &logic_threshold, + .num_logic_threshold = ARRAY_SIZE(logic_threshold), + .logic_threshold_for_pod = TRUE, + + .trigger_sources = &an2_dig8_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an2_dig8_trigger_sources), - .coupling_options = &hmo_coupling_options, - .trigger_sources = &hmo_compact2_trigger_sources, .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), - .timebases = &hmo_timebases, - .num_timebases = ARRAY_SIZE(hmo_timebases), + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), - .vdivs = &hmo_vdivs, - .num_vdivs = ARRAY_SIZE(hmo_vdivs), + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), - .num_xdivs = 12, .num_ydivs = 8, .scpi_dialect = &hameg_scpi_dialect, }, { - /* HMO2524/3034/3044/3054 support 16 digital channels but they're not supported yet. */ - .name = {"HMO724", "HMO1024", "HMO1524", "HMO2024", "HMO2524", - "HMO3034", "HMO3044", "HMO3054", NULL}, + /* HMO3032/3042/3052/3522 support 16 digital channels. */ + .name = {"HMO3032", "HMO3042", "HMO3052", "HMO3522", NULL}, + .analog_channels = 2, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options, + .num_coupling_options = ARRAY_SIZE(coupling_options), + + .logic_threshold = &logic_threshold, + .num_logic_threshold = ARRAY_SIZE(logic_threshold), + .logic_threshold_for_pod = TRUE, + + .trigger_sources = &an2_dig16_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an2_dig16_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &hameg_scpi_dialect, + }, + { + /* HMO Compact4: HMO724/1024/1524/2024 support only 8 digital channels. */ + .name = {"HMO724", "HMO1024", "HMO1524", "HMO2024", NULL}, .analog_channels = 4, .digital_channels = 8, - .digital_pods = 1, .analog_names = &scope_analog_channel_names, .digital_names = &scope_digital_channel_names, - .devopts = &hmo_devopts, - .num_devopts = ARRAY_SIZE(hmo_devopts), + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options, + .num_coupling_options = ARRAY_SIZE(coupling_options), + + .logic_threshold = &logic_threshold, + .num_logic_threshold = ARRAY_SIZE(logic_threshold), + .logic_threshold_for_pod = TRUE, + + .trigger_sources = &an4_dig8_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an4_dig8_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases_hmo_compact, + .num_timebases = ARRAY_SIZE(timebases_hmo_compact), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &hameg_scpi_dialect, + }, + { + .name = {"HMO2524", "HMO3034", "HMO3044", "HMO3054", "HMO3524", NULL}, + .analog_channels = 4, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), - .analog_devopts = &hmo_analog_devopts, - .num_analog_devopts = ARRAY_SIZE(hmo_analog_devopts), + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options, + .num_coupling_options = ARRAY_SIZE(coupling_options), + + .logic_threshold = &logic_threshold, + .num_logic_threshold = ARRAY_SIZE(logic_threshold), + .logic_threshold_for_pod = TRUE, + + .trigger_sources = &an4_dig16_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an4_dig16_trigger_sources), - .coupling_options = &hmo_coupling_options, - .trigger_sources = &hmo_compact4_trigger_sources, .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), - .timebases = &hmo_timebases, - .num_timebases = ARRAY_SIZE(hmo_timebases), + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), - .vdivs = &hmo_vdivs, - .num_vdivs = ARRAY_SIZE(hmo_vdivs), + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), - .num_xdivs = 12, .num_ydivs = 8, .scpi_dialect = &hameg_scpi_dialect, }, + { + .name = {"RTB2002", NULL}, + .analog_channels = 2, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options_rtb200x, + .num_coupling_options = ARRAY_SIZE(coupling_options_rtb200x), + + .logic_threshold = &logic_threshold_rtb200x_rtm300x, + .num_logic_threshold = ARRAY_SIZE(logic_threshold_rtb200x_rtm300x), + .logic_threshold_for_pod = FALSE, + + .trigger_sources = &an2_dig16_sbus_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an2_dig16_sbus_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &rohde_schwarz_log_not_pod_scpi_dialect, + }, + { + .name = {"RTB2004", NULL}, + .analog_channels = 4, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options_rtb200x, + .num_coupling_options = ARRAY_SIZE(coupling_options_rtb200x), + + .logic_threshold = &logic_threshold_rtb200x_rtm300x, + .num_logic_threshold = ARRAY_SIZE(logic_threshold_rtb200x_rtm300x), + .logic_threshold_for_pod = FALSE, + + .trigger_sources = &an4_dig16_sbus_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an4_dig16_sbus_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &rohde_schwarz_log_not_pod_scpi_dialect, + }, + { + .name = {"RTM3002", NULL}, + .analog_channels = 2, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options_rtm300x, + .num_coupling_options = ARRAY_SIZE(coupling_options_rtm300x), + + .logic_threshold = &logic_threshold_rtb200x_rtm300x, + .num_logic_threshold = ARRAY_SIZE(logic_threshold_rtb200x_rtm300x), + .logic_threshold_for_pod = FALSE, + + .trigger_sources = &an2_dig16_sbus_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an2_dig16_sbus_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &rohde_schwarz_log_not_pod_scpi_dialect, + }, + { + .name = {"RTM3004", NULL}, + .analog_channels = 4, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options_rtm300x, + .num_coupling_options = ARRAY_SIZE(coupling_options_rtm300x), + + .logic_threshold = &logic_threshold_rtb200x_rtm300x, + .num_logic_threshold = ARRAY_SIZE(logic_threshold_rtb200x_rtm300x), + .logic_threshold_for_pod = FALSE, + + .trigger_sources = &an4_dig16_sbus_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an4_dig16_sbus_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &rohde_schwarz_log_not_pod_scpi_dialect, + }, + { + .name = {"RTA4004", NULL}, + .analog_channels = 4, + .digital_channels = 16, + + .analog_names = &scope_analog_channel_names, + .digital_names = &scope_digital_channel_names, + + .devopts = &devopts, + .num_devopts = ARRAY_SIZE(devopts), + + .devopts_cg_analog = &devopts_cg_analog, + .num_devopts_cg_analog = ARRAY_SIZE(devopts_cg_analog), + + .devopts_cg_digital = &devopts_cg_digital, + .num_devopts_cg_digital = ARRAY_SIZE(devopts_cg_digital), + + .coupling_options = &coupling_options_rtm300x, + .num_coupling_options = ARRAY_SIZE(coupling_options_rtm300x), + + .logic_threshold = &logic_threshold_rtb200x_rtm300x, + .num_logic_threshold = ARRAY_SIZE(logic_threshold_rtb200x_rtm300x), + .logic_threshold_for_pod = FALSE, + + .trigger_sources = &an4_dig16_sbus_trigger_sources, + .num_trigger_sources = ARRAY_SIZE(an4_dig16_sbus_trigger_sources), + + .trigger_slopes = &scope_trigger_slopes, + .num_trigger_slopes = ARRAY_SIZE(scope_trigger_slopes), + + .timebases = &timebases, + .num_timebases = ARRAY_SIZE(timebases), + + .vdivs = &vdivs, + .num_vdivs = ARRAY_SIZE(vdivs), + + .num_ydivs = 8, + + .scpi_dialect = &rohde_schwarz_log_not_pod_scpi_dialect, + }, }; static void scope_state_dump(const struct scope_config *config, @@ -276,7 +757,7 @@ static void scope_state_dump(const struct scope_config *config, for (i = 0; i < config->analog_channels; i++) { tmp = sr_voltage_string((*config->vdivs)[state->analog_channels[i].vdiv][0], (*config->vdivs)[state->analog_channels[i].vdiv][1]); - sr_info("State of analog channel %d -> %s : %s (coupling) %s (vdiv) %2.2e (offset)", + sr_info("State of analog channel %d -> %s : %s (coupling) %s (vdiv) %2.2e (offset)", i + 1, state->analog_channels[i].state ? "On" : "Off", (*config->coupling_options)[state->analog_channels[i].coupling], tmp, state->analog_channels[i].vertical_offset); @@ -288,11 +769,18 @@ static void scope_state_dump(const struct scope_config *config, } for (i = 0; i < config->digital_pods; i++) { - sr_info("State of digital POD %d -> %s", i, - state->digital_pods[i] ? "On" : "Off"); + if (!strncmp("USER", (*config->logic_threshold)[state->digital_pods[i].threshold], 4) || + !strcmp("MAN", (*config->logic_threshold)[state->digital_pods[i].threshold])) + sr_info("State of digital POD %d -> %s : %E (threshold)", i + 1, + state->digital_pods[i].state ? "On" : "Off", + state->digital_pods[i].user_threshold); + else + sr_info("State of digital POD %d -> %s : %s (threshold)", i + 1, + state->digital_pods[i].state ? "On" : "Off", + (*config->logic_threshold)[state->digital_pods[i].threshold]); } - tmp = sr_period_string((*config->timebases)[state->timebase][0] * + tmp = sr_period_string((*config->timebases)[state->timebase][0], (*config->timebases)[state->timebase][1]); sr_info("Current timebase: %s", tmp); g_free(tmp); @@ -301,49 +789,41 @@ static void scope_state_dump(const struct scope_config *config, sr_info("Current samplerate: %s", tmp); g_free(tmp); - sr_info("Current trigger: %s (source), %s (slope) %.2f (offset)", - (*config->trigger_sources)[state->trigger_source], - (*config->trigger_slopes)[state->trigger_slope], - state->horiz_triggerpos); + if (!strcmp("PATT", (*config->trigger_sources)[state->trigger_source])) + sr_info("Current trigger: %s (pattern), %.2f (offset)", + state->trigger_pattern, + state->horiz_triggerpos); + else // Edge (slope) trigger + sr_info("Current trigger: %s (source), %s (slope) %.2f (offset)", + (*config->trigger_sources)[state->trigger_source], + (*config->trigger_slopes)[state->trigger_slope], + state->horiz_triggerpos); } static int scope_state_get_array_option(struct sr_scpi_dev_inst *scpi, - const char *command, const char *(*array)[], int *result) + const char *command, const char *(*array)[], unsigned int n, int *result) { char *tmp; - unsigned int i; + int idx; - if (sr_scpi_get_string(scpi, command, &tmp) != SR_OK) { - g_free(tmp); + if (sr_scpi_get_string(scpi, command, &tmp) != SR_OK) return SR_ERR; - } - - for (i = 0; (*array)[i]; i++) { - if (!g_strcmp0(tmp, (*array)[i])) { - *result = i; - g_free(tmp); - tmp = NULL; - break; - } - } - if (tmp) { + if ((idx = std_str_idx_s(tmp, *array, n)) < 0) { g_free(tmp); - return SR_ERR; + return SR_ERR_ARG; } + *result = idx; + + g_free(tmp); + return SR_OK; } /** - * This function takes a value of the form "2.000E-03", converts it to a - * significand / factor pair and returns the index of an array where - * a matching pair was found. - * - * It's a bit convoluted because of floating-point issues. The value "10.00E-09" - * is parsed by g_ascii_strtod() as 0.000000009999999939, for example. - * Therefore it's easier to break the number up into two strings and handle - * them separately. + * This function takes a value of the form "2.000E-03" and returns the index + * of an array where a matching pair was found. * * @param value The string to be parsed. * @param array The array of s/f pairs. @@ -355,48 +835,15 @@ static int scope_state_get_array_option(struct sr_scpi_dev_inst *scpi, static int array_float_get(gchar *value, const uint64_t array[][2], int array_len, unsigned int *result) { - int i, pos, e; - uint64_t f; - float s; - unsigned int s_int; - gchar ss[10], es[10]; - - memset(ss, 0, sizeof(ss)); - memset(es, 0, sizeof(es)); - - /* Get index of the separating 'E' character and break up the string. */ - pos = (int)g_strstr_len(value, strlen(value), "E"); - pos -= (int)value; + struct sr_rational rval; + struct sr_rational aval; - strncpy(ss, value, pos); - strncpy(es, &(value[pos+1]), 3); - - if (sr_atof_ascii(ss, &s) != SR_OK) - return SR_ERR; - if (sr_atoi(es, &e) != SR_OK) + if (sr_parse_rational(value, &rval) != SR_OK) return SR_ERR; - /* Transform e.g. 10^-03 to 1000 as the array stores the inverse. */ - f = pow(10, abs(e)); - - /* - * Adjust the significand/factor pair to make sure - * that f is a multiple of 1000. - */ - while ((int)fmod(log10(f), 3) > 0) { - s *= 10; - - if (e < 0) - f *= 10; - else - f /= 10; - } - - /* Truncate s to circumvent rounding errors. */ - s_int = (unsigned int)s; - - for (i = 0; i < array_len; i++) { - if ((s_int == array[i][0]) && (f == array[i][1])) { + for (int i = 0; i < array_len; i++) { + sr_rational_set(&aval, array[i][0], array[i][1]); + if (sr_rational_eq(&rval, &aval)) { *result = i; return SR_OK; } @@ -405,13 +852,29 @@ static int array_float_get(gchar *value, const uint64_t array[][2], return SR_ERR; } -static int analog_channel_state_get(struct sr_scpi_dev_inst *scpi, +static struct sr_channel *get_channel_by_index_and_type(GSList *channel_lhead, + int index, int type) +{ + while (channel_lhead) { + struct sr_channel *ch = channel_lhead->data; + if (ch->index == index && ch->type == type) + return ch; + + channel_lhead = channel_lhead->next; + } + + return 0; +} + +static int analog_channel_state_get(struct sr_dev_inst *sdi, const struct scope_config *config, struct scope_state *state) { unsigned int i, j; char command[MAX_COMMAND_SIZE]; char *tmp_str; + struct sr_channel *ch; + struct sr_scpi_dev_inst *scpi = sdi->conn; for (i = 0; i < config->analog_channels; i++) { g_snprintf(command, sizeof(command), @@ -422,15 +885,18 @@ static int analog_channel_state_get(struct sr_scpi_dev_inst *scpi, &state->analog_channels[i].state) != SR_OK) return SR_ERR; + ch = get_channel_by_index_and_type(sdi->channels, i, SR_CHANNEL_ANALOG); + if (ch) + ch->enabled = state->analog_channels[i].state; + g_snprintf(command, sizeof(command), - (*config->scpi_dialect)[SCPI_CMD_GET_VERTICAL_DIV], + (*config->scpi_dialect)[SCPI_CMD_GET_VERTICAL_SCALE], i + 1); if (sr_scpi_get_string(scpi, command, &tmp_str) != SR_OK) return SR_ERR; - if (array_float_get(tmp_str, hmo_vdivs, ARRAY_SIZE(hmo_vdivs), - &j) != SR_OK) { + if (array_float_get(tmp_str, ARRAY_AND_SIZE(vdivs), &j) != SR_OK) { g_free(tmp_str); sr_err("Could not determine array index for vertical div scale."); return SR_ERR; @@ -452,19 +918,37 @@ static int analog_channel_state_get(struct sr_scpi_dev_inst *scpi, i + 1); if (scope_state_get_array_option(scpi, command, config->coupling_options, + config->num_coupling_options, &state->analog_channels[i].coupling) != SR_OK) return SR_ERR; + + g_snprintf(command, sizeof(command), + (*config->scpi_dialect)[SCPI_CMD_GET_PROBE_UNIT], + i + 1); + + if (sr_scpi_get_string(scpi, command, &tmp_str) != SR_OK) + return SR_ERR; + + if (tmp_str[0] == 'A') + state->analog_channels[i].probe_unit = 'A'; + else + state->analog_channels[i].probe_unit = 'V'; + g_free(tmp_str); } return SR_OK; } -static int digital_channel_state_get(struct sr_scpi_dev_inst *scpi, +static int digital_channel_state_get(struct sr_dev_inst *sdi, const struct scope_config *config, struct scope_state *state) { - unsigned int i; + unsigned int i, idx; + int result = SR_ERR; + char *logic_threshold_short[MAX_NUM_LOGIC_THRESHOLD_ENTRIES]; char command[MAX_COMMAND_SIZE]; + struct sr_channel *ch; + struct sr_scpi_dev_inst *scpi = sdi->conn; for (i = 0; i < config->digital_channels; i++) { g_snprintf(command, sizeof(command), @@ -474,6 +958,26 @@ static int digital_channel_state_get(struct sr_scpi_dev_inst *scpi, if (sr_scpi_get_bool(scpi, command, &state->digital_channels[i]) != SR_OK) return SR_ERR; + + ch = get_channel_by_index_and_type(sdi->channels, i, SR_CHANNEL_LOGIC); + if (ch) + ch->enabled = state->digital_channels[i]; + } + + /* According to the SCPI standard, on models that support multiple + * user-defined logic threshold settings the response to the command + * SCPI_CMD_GET_DIG_POD_THRESHOLD might return "USER" instead of + * "USER1". + * + * This makes more difficult to validate the response when the logic + * threshold is set to "USER1" and therefore we need to prevent device + * opening failures in such configuration case... + */ + for (i = 0; i < config->num_logic_threshold; i++) { + logic_threshold_short[i] = g_strdup((*config->logic_threshold)[i]); + if (!strcmp("USER1", (*config->logic_threshold)[i])) + g_strlcpy(logic_threshold_short[i], + (*config->logic_threshold)[i], strlen((*config->logic_threshold)[i])); } for (i = 0; i < config->digital_pods; i++) { @@ -482,11 +986,58 @@ static int digital_channel_state_get(struct sr_scpi_dev_inst *scpi, i + 1); if (sr_scpi_get_bool(scpi, command, - &state->digital_pods[i]) != SR_OK) - return SR_ERR; + &state->digital_pods[i].state) != SR_OK) + goto exit; + + /* Check if the threshold command is based on the POD or digital channel index. */ + if (config->logic_threshold_for_pod) + idx = i + 1; + else + idx = i * DIGITAL_CHANNELS_PER_POD; + + g_snprintf(command, sizeof(command), + (*config->scpi_dialect)[SCPI_CMD_GET_DIG_POD_THRESHOLD], + idx); + + /* Check for both standard and shortened responses. */ + if (scope_state_get_array_option(scpi, command, config->logic_threshold, + config->num_logic_threshold, + &state->digital_pods[i].threshold) != SR_OK) + if (scope_state_get_array_option(scpi, command, (const char * (*)[]) &logic_threshold_short, + config->num_logic_threshold, + &state->digital_pods[i].threshold) != SR_OK) + goto exit; + + /* If used-defined or custom threshold is active, get the level. */ + if (!strcmp("USER1", (*config->logic_threshold)[state->digital_pods[i].threshold])) + g_snprintf(command, sizeof(command), + (*config->scpi_dialect)[SCPI_CMD_GET_DIG_POD_USER_THRESHOLD], + idx, 1); /* USER1 logic threshold setting. */ + else if (!strcmp("USER2", (*config->logic_threshold)[state->digital_pods[i].threshold])) + g_snprintf(command, sizeof(command), + (*config->scpi_dialect)[SCPI_CMD_GET_DIG_POD_USER_THRESHOLD], + idx, 2); /* USER2 for custom logic_threshold setting. */ + else if (!strcmp("USER", (*config->logic_threshold)[state->digital_pods[i].threshold]) || + !strcmp("MAN", (*config->logic_threshold)[state->digital_pods[i].threshold])) + g_snprintf(command, sizeof(command), + (*config->scpi_dialect)[SCPI_CMD_GET_DIG_POD_USER_THRESHOLD], + idx); /* USER or MAN for custom logic_threshold setting. */ + if (!strcmp("USER1", (*config->logic_threshold)[state->digital_pods[i].threshold]) || + !strcmp("USER2", (*config->logic_threshold)[state->digital_pods[i].threshold]) || + !strcmp("USER", (*config->logic_threshold)[state->digital_pods[i].threshold]) || + !strcmp("MAN", (*config->logic_threshold)[state->digital_pods[i].threshold])) + if (sr_scpi_get_float(scpi, command, + &state->digital_pods[i].user_threshold) != SR_OK) + goto exit; } - return SR_OK; + result = SR_OK; + +exit: + for (i = 0; i < config->num_logic_threshold; i++) + g_free(logic_threshold_short[i]); + + return result; } SR_PRIV int hmo_update_sample_rate(const struct sr_dev_inst *sdi) @@ -494,59 +1045,18 @@ SR_PRIV int hmo_update_sample_rate(const struct sr_dev_inst *sdi) struct dev_context *devc; struct scope_state *state; const struct scope_config *config; - - int tmp; - unsigned int i; float tmp_float; - gboolean channel_found; - char tmp_str[MAX_COMMAND_SIZE]; - char chan_name[20]; devc = sdi->priv; config = devc->model_config; state = devc->model_state; - channel_found = FALSE; - for (i = 0; i < config->analog_channels; i++) { - if (state->analog_channels[i].state) { - g_snprintf(chan_name, sizeof(chan_name), "CHAN%d", i + 1); - g_snprintf(tmp_str, sizeof(tmp_str), - (*config->scpi_dialect)[SCPI_CMD_GET_SAMPLE_RATE_LIVE], - chan_name); - channel_found = TRUE; - break; - } - } - - if (!channel_found) { - for (i = 0; i < config->digital_pods; i++) { - if (state->digital_pods[i]) { - g_snprintf(chan_name, sizeof(chan_name), "POD%d", i); - g_snprintf(tmp_str, sizeof(tmp_str), - (*config->scpi_dialect)[SCPI_CMD_GET_SAMPLE_RATE_LIVE], - chan_name); - channel_found = TRUE; - break; - } - } - } - - /* No channel is active, ask the instrument for the sample rate - * in single shot mode */ - if (!channel_found) { - if (sr_scpi_get_float(sdi->conn, - (*config->scpi_dialect)[SCPI_CMD_GET_SAMPLE_RATE], - &tmp_float) != SR_OK) - return SR_ERR; + if (sr_scpi_get_float(sdi->conn, + (*config->scpi_dialect)[SCPI_CMD_GET_SAMPLE_RATE], + &tmp_float) != SR_OK) + return SR_ERR; - state->sample_rate = tmp_float; - } else { - if (sr_scpi_get_int(sdi->conn, tmp_str, &tmp) != SR_OK) - return SR_ERR; - state->sample_rate = tmp / (((float) (*config->timebases)[state->timebase][0] / - (*config->timebases)[state->timebase][1]) * - config->num_xdivs); - } + state->sample_rate = tmp_float; return SR_OK; } @@ -566,15 +1076,10 @@ SR_PRIV int hmo_scope_state_get(struct sr_dev_inst *sdi) sr_info("Fetching scope state"); - if (analog_channel_state_get(sdi->conn, config, state) != SR_OK) + if (analog_channel_state_get(sdi, config, state) != SR_OK) return SR_ERR; - if (digital_channel_state_get(sdi->conn, config, state) != SR_OK) - return SR_ERR; - - if (sr_scpi_get_float(sdi->conn, - (*config->scpi_dialect)[SCPI_CMD_GET_TIMEBASE], - &tmp_float) != SR_OK) + if (digital_channel_state_get(sdi, config, state) != SR_OK) return SR_ERR; if (sr_scpi_get_string(sdi->conn, @@ -582,15 +1087,21 @@ SR_PRIV int hmo_scope_state_get(struct sr_dev_inst *sdi) &tmp_str) != SR_OK) return SR_ERR; - if (array_float_get(tmp_str, hmo_timebases, ARRAY_SIZE(hmo_timebases), - &i) != SR_OK) { + if (array_float_get(tmp_str, ARRAY_AND_SIZE(timebases), &i) != SR_OK) { g_free(tmp_str); sr_err("Could not determine array index for time base."); return SR_ERR; } + g_free(tmp_str); state->timebase = i; + /* Determine the number of horizontal (x) divisions. */ + if (sr_scpi_get_int(sdi->conn, + (*config->scpi_dialect)[SCPI_CMD_GET_HORIZONTAL_DIV], + (int *)&config->num_xdivs) != SR_OK) + return SR_ERR; + if (sr_scpi_get_float(sdi->conn, (*config->scpi_dialect)[SCPI_CMD_GET_HORIZ_TRIGGERPOS], &tmp_float) != SR_OK) @@ -603,13 +1114,44 @@ SR_PRIV int hmo_scope_state_get(struct sr_dev_inst *sdi) if (scope_state_get_array_option(sdi->conn, (*config->scpi_dialect)[SCPI_CMD_GET_TRIGGER_SOURCE], - config->trigger_sources, &state->trigger_source) != SR_OK) + config->trigger_sources, config->num_trigger_sources, + &state->trigger_source) != SR_OK) return SR_ERR; if (scope_state_get_array_option(sdi->conn, - (*config->scpi_dialect)[SCPI_CMD_GET_TRIGGER_SLOPE], - config->trigger_slopes, &state->trigger_slope) != SR_OK) + (*config->scpi_dialect)[SCPI_CMD_GET_TRIGGER_SLOPE], + config->trigger_slopes, config->num_trigger_slopes, + &state->trigger_slope) != SR_OK) + return SR_ERR; + + if (sr_scpi_get_string(sdi->conn, + (*config->scpi_dialect)[SCPI_CMD_GET_TRIGGER_PATTERN], + &tmp_str) != SR_OK) + return SR_ERR; + strncpy(state->trigger_pattern, + sr_scpi_unquote_string(tmp_str), + MAX_ANALOG_CHANNEL_COUNT + MAX_DIGITAL_CHANNEL_COUNT); + g_free(tmp_str); + + if (sr_scpi_get_string(sdi->conn, + (*config->scpi_dialect)[SCPI_CMD_GET_HIGH_RESOLUTION], + &tmp_str) != SR_OK) + return SR_ERR; + if (!strcmp("OFF", tmp_str)) + state->high_resolution = FALSE; + else + state->high_resolution = TRUE; + g_free(tmp_str); + + if (sr_scpi_get_string(sdi->conn, + (*config->scpi_dialect)[SCPI_CMD_GET_PEAK_DETECTION], + &tmp_str) != SR_OK) return SR_ERR; + if (!strcmp("OFF", tmp_str)) + state->peak_detection = FALSE; + else + state->peak_detection = TRUE; + g_free(tmp_str); if (hmo_update_sample_rate(sdi) != SR_OK) return SR_ERR; @@ -631,7 +1173,7 @@ static struct scope_state *scope_state_new(const struct scope_config *config) state->digital_channels = g_malloc0_n( config->digital_channels, sizeof(gboolean)); state->digital_pods = g_malloc0_n(config->digital_pods, - sizeof(gboolean)); + sizeof(struct digital_pod_state)); return state; } @@ -646,11 +1188,11 @@ SR_PRIV void hmo_scope_state_free(struct scope_state *state) SR_PRIV int hmo_init_device(struct sr_dev_inst *sdi) { - char tmp[25]; int model_index; - unsigned int i, j; + unsigned int i, j, group; struct sr_channel *ch; struct dev_context *devc; + int ret; devc = sdi->priv; model_index = -1; @@ -668,15 +1210,22 @@ SR_PRIV int hmo_init_device(struct sr_dev_inst *sdi) } if (model_index == -1) { - sr_dbg("Unsupported HMO device."); + sr_dbg("Unsupported device."); return SR_ERR_NA; } + /* Configure the number of PODs given the number of digital channels. */ + scope_models[model_index].digital_pods = scope_models[model_index].digital_channels / DIGITAL_CHANNELS_PER_POD; + devc->analog_groups = g_malloc0(sizeof(struct sr_channel_group*) * scope_models[model_index].analog_channels); - devc->digital_groups = g_malloc0(sizeof(struct sr_channel_group*) * scope_models[model_index].digital_pods); + if (!devc->analog_groups || !devc->digital_groups) { + g_free(devc->analog_groups); + g_free(devc->digital_groups); + return SR_ERR_MALLOC; + } /* Add analog channels. */ for (i = 0; i < scope_models[model_index].analog_channels; i++) { @@ -694,26 +1243,32 @@ SR_PRIV int hmo_init_device(struct sr_dev_inst *sdi) } /* Add digital channel groups. */ + ret = SR_OK; for (i = 0; i < scope_models[model_index].digital_pods; i++) { - g_snprintf(tmp, 25, "POD%d", i); - devc->digital_groups[i] = g_malloc0(sizeof(struct sr_channel_group)); - - devc->digital_groups[i]->name = g_strdup(tmp); + if (!devc->digital_groups[i]) { + ret = SR_ERR_MALLOC; + break; + } + devc->digital_groups[i]->name = g_strdup_printf("POD%d", i + 1); sdi->channel_groups = g_slist_append(sdi->channel_groups, - devc->digital_groups[i < 8 ? 0 : 1]); + devc->digital_groups[i]); } + if (ret != SR_OK) + return ret; /* Add digital channels. */ for (i = 0; i < scope_models[model_index].digital_channels; i++) { ch = sr_channel_new(sdi, i, SR_CHANNEL_LOGIC, TRUE, (*scope_models[model_index].digital_names)[i]); - devc->digital_groups[i < 8 ? 0 : 1]->channels = g_slist_append( - devc->digital_groups[i < 8 ? 0 : 1]->channels, ch); + group = i / DIGITAL_CHANNELS_PER_POD; + devc->digital_groups[group]->channels = g_slist_append( + devc->digital_groups[group]->channels, ch); } devc->model_config = &scope_models[model_index]; + devc->samples_limit = 0; devc->frame_limit = 0; if (!(devc->model_state = scope_state_new(devc->model_config))) @@ -722,19 +1277,108 @@ SR_PRIV int hmo_init_device(struct sr_dev_inst *sdi) return SR_OK; } +/* Queue data of one channel group, for later submission. */ +SR_PRIV void hmo_queue_logic_data(struct dev_context *devc, + size_t group, GByteArray *pod_data) +{ + size_t size; + GByteArray *store; + uint8_t *logic_data; + size_t idx, logic_step; + + /* + * Upon first invocation, allocate the array which can hold the + * combined logic data for all channels. Assume that each channel + * will yield an identical number of samples per receive call. + * + * As a poor man's safety measure: (Silently) skip processing + * for unexpected sample counts, and ignore samples for + * unexpected channel groups. Don't bother with complicated + * resize logic, considering that many models only support one + * pod, and the most capable supported models have two pods of + * identical size. We haven't yet seen any "odd" configuration. + */ + if (!devc->logic_data) { + size = pod_data->len * devc->pod_count; + store = g_byte_array_sized_new(size); + memset(store->data, 0, size); + store = g_byte_array_set_size(store, size); + devc->logic_data = store; + } else { + store = devc->logic_data; + size = store->len / devc->pod_count; + if (group >= devc->pod_count) + return; + } + + /* + * Fold the data of the most recently received channel group into + * the storage, where data resides for all channels combined. + */ + logic_data = store->data; + logic_data += group; + logic_step = devc->pod_count; + for (idx = 0; idx < pod_data->len; idx++) { + *logic_data = pod_data->data[idx]; + logic_data += logic_step; + } + + /* Truncate acquisition if a smaller number of samples has been requested. */ + if (devc->samples_limit > 0 && devc->logic_data->len > devc->samples_limit * devc->pod_count) + devc->logic_data->len = devc->samples_limit * devc->pod_count; +} + +/* Submit data for all channels, after the individual groups got collected. */ +SR_PRIV void hmo_send_logic_packet(struct sr_dev_inst *sdi, + struct dev_context *devc) +{ + struct sr_datafeed_packet packet; + struct sr_datafeed_logic logic; + + if (!devc->logic_data) + return; + + logic.data = devc->logic_data->data; + logic.length = devc->logic_data->len; + logic.unitsize = devc->pod_count; + + packet.type = SR_DF_LOGIC; + packet.payload = &logic; + + sr_session_send(sdi, &packet); +} + +/* Undo previous resource allocation. */ +SR_PRIV void hmo_cleanup_logic_data(struct dev_context *devc) +{ + + if (devc->logic_data) { + g_byte_array_free(devc->logic_data, TRUE); + devc->logic_data = NULL; + } + /* + * Keep 'pod_count'! It's required when more frames will be + * received, and does not harm when kept after acquisition. + */ +} + SR_PRIV int hmo_receive_data(int fd, int revents, void *cb_data) { struct sr_channel *ch; struct sr_dev_inst *sdi; struct dev_context *devc; + struct scope_state *state; struct sr_datafeed_packet packet; - GArray *data; - struct sr_datafeed_analog_old analog; + GByteArray *data; + struct sr_datafeed_analog analog; + struct sr_analog_encoding encoding; + struct sr_analog_meaning meaning; + struct sr_analog_spec spec; struct sr_datafeed_logic logic; + size_t group; (void)fd; - - data = NULL; + (void)revents; if (!(sdi = cb_data)) return TRUE; @@ -742,52 +1386,98 @@ SR_PRIV int hmo_receive_data(int fd, int revents, void *cb_data) if (!(devc = sdi->priv)) return TRUE; + /* Although this is correct in general, the USBTMC libusb implementation + * currently does not generate an event prior to the first read. Often + * it is ok to start reading just after the 50ms timeout. See bug #785. if (revents != G_IO_IN) return TRUE; + */ ch = devc->current_channel->data; + state = devc->model_state; + + /* + * Send "frame begin" packet upon reception of data for the + * first enabled channel. + */ + if (devc->current_channel == devc->enabled_channels) + std_session_send_df_frame_begin(sdi); + /* + * Pass on the received data of the channel(s). + */ switch (ch->type) { case SR_CHANNEL_ANALOG: - if (sr_scpi_get_floatv(sdi->conn, NULL, &data) != SR_OK) { + data = NULL; + if (sr_scpi_get_block(sdi->conn, NULL, &data) != SR_OK) { if (data) - g_array_free(data, TRUE); - + g_byte_array_free(data, TRUE); return TRUE; } - packet.type = SR_DF_FRAME_BEGIN; - sr_session_send(sdi, &packet); - - analog.channels = g_slist_append(NULL, ch); - analog.num_samples = data->len; - analog.data = (float *) data->data; - analog.mq = SR_MQ_VOLTAGE; - analog.unit = SR_UNIT_VOLT; - analog.mqflags = 0; - packet.type = SR_DF_ANALOG_OLD; + packet.type = SR_DF_ANALOG; + + analog.data = data->data; + analog.num_samples = data->len / sizeof(float); + /* Truncate acquisition if a smaller number of samples has been requested. */ + if (devc->samples_limit > 0 && analog.num_samples > devc->samples_limit) + analog.num_samples = devc->samples_limit; + /* TODO: Use proper 'digits' value for this device (and its modes). */ + sr_analog_init(&analog, &encoding, &meaning, &spec, 2); + encoding.is_signed = TRUE; + if (state->analog_channels[ch->index].probe_unit == 'V') { + meaning.mq = SR_MQ_VOLTAGE; + meaning.unit = SR_UNIT_VOLT; + } else { + meaning.mq = SR_MQ_CURRENT; + meaning.unit = SR_UNIT_AMPERE; + } + meaning.channels = g_slist_append(NULL, ch); packet.payload = &analog; - sr_session_send(cb_data, &packet); - g_slist_free(analog.channels); - g_array_free(data, TRUE); + sr_session_send(sdi, &packet); + devc->num_samples = data->len / sizeof(float); + g_slist_free(meaning.channels); + g_byte_array_free(data, TRUE); data = NULL; break; case SR_CHANNEL_LOGIC: - if (sr_scpi_get_uint8v(sdi->conn, NULL, &data) != SR_OK) { - g_free(data); + data = NULL; + if (sr_scpi_get_block(sdi->conn, NULL, &data) != SR_OK) { + if (data) + g_byte_array_free(data, TRUE); return TRUE; } - packet.type = SR_DF_FRAME_BEGIN; - sr_session_send(sdi, &packet); + /* + * If only data from the first pod is involved in the + * acquisition, then the raw input bytes can get passed + * forward for performance reasons. When the second pod + * is involved (either alone, or in combination with the + * first pod), then the received bytes need to be put + * into memory in such a layout that all channel groups + * get combined, and a unitsize larger than a single byte + * applies. The "queue" logic transparently copes with + * any such configuration. This works around the lack + * of support for "meaning" to logic data, which is used + * above for analog data. + */ + if (devc->pod_count == 1) { + packet.type = SR_DF_LOGIC; + logic.data = data->data; + logic.length = data->len; + /* Truncate acquisition if a smaller number of samples has been requested. */ + if (devc->samples_limit > 0 && logic.length > devc->samples_limit) + logic.length = devc->samples_limit; + logic.unitsize = 1; + packet.payload = &logic; + sr_session_send(sdi, &packet); + } else { + group = ch->index / DIGITAL_CHANNELS_PER_POD; + hmo_queue_logic_data(devc, group, data); + } - logic.length = data->len; - logic.unitsize = 1; - logic.data = data->data; - packet.type = SR_DF_LOGIC; - packet.payload = &logic; - sr_session_send(cb_data, &packet); - g_array_free(data, TRUE); + devc->num_samples = data->len / devc->pod_count; + g_byte_array_free(data, TRUE); data = NULL; break; default: @@ -795,14 +1485,36 @@ SR_PRIV int hmo_receive_data(int fd, int revents, void *cb_data) break; } - packet.type = SR_DF_FRAME_END; - sr_session_send(sdi, &packet); - + /* + * Advance to the next enabled channel. When data for all enabled + * channels was received, then flush potentially queued logic data, + * and send the "frame end" packet. + */ if (devc->current_channel->next) { devc->current_channel = devc->current_channel->next; hmo_request_data(sdi); - } else if (++devc->num_frames == devc->frame_limit) { - sdi->driver->dev_acquisition_stop(sdi, cb_data); + return TRUE; + } + hmo_send_logic_packet(sdi, devc); + + /* + * Release the logic data storage after each frame. This copes + * with sample counts that differ in length per frame. -- Is + * this a real constraint when acquiring multiple frames with + * identical device settings? + */ + hmo_cleanup_logic_data(devc); + + std_session_send_df_frame_end(sdi); + + /* + * End of frame was reached. Stop acquisition after the specified + * number of frames or after the specified number of samples, or + * continue reception by starting over at the first enabled channel. + */ + if (++devc->num_frames >= devc->frame_limit || devc->num_samples >= devc->samples_limit) { + sr_dev_acquisition_stop(sdi); + hmo_cleanup_logic_data(devc); } else { devc->current_channel = devc->enabled_channels; hmo_request_data(sdi);