static char *parse_sample_unit(struct sample *sample, double val, char *unit)
{
char *end = unit, c;
/* Skip over the unit */
while ((c = *end) != 0) {
if (isspace(c)) {
*end++ = 0;
break;
}
end++;
}
/* The units are "°C", "m" or "bar", so let's just look at the first character */
switch (*unit) {
case 'm':
sample->depth.mm = rint(1000*val);
break;
case 'b':
sample->cylinderpressure.mbar = rint(1000*val);
break;
default:
sample->temperature.mkelvin = C_to_mkelvin(val);
break;
}
return end;
}
void add_sample_data(struct sample *sample, enum csv_format type, double val)
{
switch (type) {
case CSV_DEPTH:
sample->depth.mm = feet_to_mm(val);
break;
case CSV_TEMP:
sample->temperature.mkelvin = F_to_mkelvin(val);
break;
case CSV_PRESSURE:
sample->pressure[0].mbar = psi_to_mbar(val * 4);
break;
case POSEIDON_DEPTH:
sample->depth.mm = lrint(val * 0.5 * 1000);
break;
case POSEIDON_TEMP:
sample->temperature.mkelvin = C_to_mkelvin(val * 0.2);
break;
case POSEIDON_SETPOINT:
sample->setpoint.mbar = lrint(val * 10);
break;
case POSEIDON_SENSOR1:
sample->o2sensor[0].mbar = lrint(val * 10);
break;
case POSEIDON_SENSOR2:
sample->o2sensor[1].mbar = lrint(val * 10);
break;
case POSEIDON_NDL:
sample->ndl.seconds = lrint(val * 60);
break;
case POSEIDON_CEILING:
sample->stopdepth.mm = lrint(val * 1000);
break;
}
}
/*
* Divinglog is crazy. The temperatures are in celsius. EXCEPT
* for the sample temperatures, that are in Fahrenheit.
* WTF?
*
* Oh, and I think Diving Log *internally* probably kept them
* in celsius, because I'm seeing entries like
*
* <Temp>32.0</Temp>
*
* in there. Which is freezing, aka 0 degC. I bet the "0" is
* what Diving Log uses for "no temperature".
*
* So throw away crap like that.
*
* It gets worse. Sometimes the sample temperatures are in
* Celsius, which apparently happens if you are in a SI
* locale. So we now do:
*
* - temperatures < 32.0 == Celsius
* - temperature == 32.0 -> garbage, it's a missing temperature (zero converted from C to F)
* - temperatures > 32.0 == Fahrenheit
*/
static void fahrenheit(char *buffer, void *_temperature)
{
temperature_t *temperature = _temperature;
union int_or_float val;
switch (integer_or_float(buffer, &val)) {
case FLOAT:
/* Floating point equality is evil, but works for small integers */
if (val.fp == 32.0)
break;
if (val.fp < 32.0)
temperature->mkelvin = C_to_mkelvin(val.fp);
else
temperature->mkelvin = F_to_mkelvin(val.fp);
break;
default:
fprintf(stderr, "Crazy Diving Log temperature reading %s\n", buffer);
}
}
int parseTemperatureToMkelvin(const QString &text)
{
int mkelvin;
QString numOnly = text;
numOnly.replace(",", ".").remove(QRegExp("[^-0-9.]"));
if (numOnly.isEmpty())
return 0;
double number = numOnly.toDouble();
switch (prefs.units.temperature) {
case units::CELSIUS:
mkelvin = C_to_mkelvin(number);
break;
case units::FAHRENHEIT:
mkelvin = F_to_mkelvin(number);
break;
default:
mkelvin = 0;
}
return mkelvin;
}
void TestUnitConversion::testUnitConversions()
{
QCOMPARE(IS_FP_SAME(grams_to_lbs(1000), 2.204586), true);
QCOMPARE(lbs_to_grams(1), 454);
QCOMPARE(IS_FP_SAME(ml_to_cuft(1000), 0.0353147), true);
QCOMPARE(IS_FP_SAME(cuft_to_l(1), 28.316847), true);
QCOMPARE(IS_FP_SAME(mm_to_feet(1000), 3.280840), true);
QCOMPARE(feet_to_mm(1), (long unsigned int) 305);
QCOMPARE(to_feet((depth_t){ 1000 }), 3);
QCOMPARE(IS_FP_SAME(mkelvin_to_C(647000), 373.85), true);
QCOMPARE(IS_FP_SAME(mkelvin_to_F(647000), 704.93), true);
QCOMPARE(F_to_mkelvin(704.93), (unsigned long)647000);
QCOMPARE(C_to_mkelvin(373.85), (unsigned long)647000);
QCOMPARE(IS_FP_SAME(psi_to_bar(14.6959488), 1.01325), true);
QCOMPARE(psi_to_mbar(14.6959488), (long)1013);
QCOMPARE(to_PSI((pressure_t){ 1013 }), (int)15);
QCOMPARE(IS_FP_SAME(bar_to_atm(1.013), 1.0), true);
QCOMPARE(IS_FP_SAME(mbar_to_atm(1013), 1.0), true);
QCOMPARE(mbar_to_PSI(1013), (int)15);
get_units();
}
static temperature_t get_temperature(const char *line)
{
temperature_t t;
t.mkelvin = C_to_mkelvin(ascii_strtod(line, NULL));
return t;
}
static void cochran_parse_dive(const unsigned char *decode, unsigned mod,
const unsigned char *in, unsigned size,
struct dive_table *table)
{
unsigned char *buf = malloc(size);
struct dive *dive;
struct divecomputer *dc;
struct tm tm = {0};
uint32_t csum[5];
double max_depth, avg_depth, min_temp;
unsigned int duration = 0, corrupt_dive = 0;
/*
* The scrambling has odd boundaries. I think the boundaries
* match some data structure size, but I don't know. They were
* discovered the same way we dynamically discover the decode
* size: automatically looking for least random output.
*
* The boundaries are also this confused "off-by-one" thing,
* the same way the file size is off by one. It's as if the
* cochran software forgot to write one byte at the beginning.
*/
partial_decode(0, 0x0fff, decode, 1, mod, in, size, buf);
partial_decode(0x0fff, 0x1fff, decode, 0, mod, in, size, buf);
partial_decode(0x1fff, 0x2fff, decode, 0, mod, in, size, buf);
partial_decode(0x2fff, 0x48ff, decode, 0, mod, in, size, buf);
/*
* This is not all the descrambling you need - the above are just
* what appears to be the fixed-size blocks. The rest is also
* scrambled, but there seems to be size differences in the data,
* so this just descrambles part of it:
*/
if (size < 0x4914 + config.logbook_size) {
// Analyst calls this a "Corrupt Beginning Summary"
free(buf);
return;
}
// Decode log entry (512 bytes + random prefix)
partial_decode(0x48ff, 0x4914 + config.logbook_size, decode,
0, mod, in, size, buf);
unsigned int sample_size = size - 0x4914 - config.logbook_size;
int g;
unsigned int sample_pre_offset = 0, sample_end_offset = 0;
// Decode sample data
partial_decode(0x4914 + config.logbook_size, size, decode,
0, mod, in, size, buf);
#ifdef COCHRAN_DEBUG
// Display pre-logbook data
puts("\nPre Logbook Data\n");
cochran_debug_write(buf, 0x4914);
// Display log book
puts("\nLogbook Data\n");
cochran_debug_write(buf + 0x4914, config.logbook_size + 0x400);
// Display sample data
puts("\nSample Data\n");
#endif
dive = alloc_dive();
dc = &dive->dc;
unsigned char *log = (buf + 0x4914);
switch (config.type) {
case TYPE_GEMINI:
case TYPE_COMMANDER:
if (config.type == TYPE_GEMINI) {
dc->model = "Gemini";
dc->deviceid = buf[0x18c] * 256 + buf[0x18d]; // serial no
fill_default_cylinder(&dive->cylinder[0]);
dive->cylinder[0].gasmix.o2.permille = (log[CMD_O2_PERCENT] / 256
+ log[CMD_O2_PERCENT + 1]) * 10;
dive->cylinder[0].gasmix.he.permille = 0;
} else {
dc->model = "Commander";
dc->deviceid = array_uint32_le(buf + 0x31e); // serial no
for (g = 0; g < 2; g++) {
fill_default_cylinder(&dive->cylinder[g]);
dive->cylinder[g].gasmix.o2.permille = (log[CMD_O2_PERCENT + g * 2] / 256
+ log[CMD_O2_PERCENT + g * 2 + 1]) * 10;
dive->cylinder[g].gasmix.he.permille = 0;
}
}
tm.tm_year = log[CMD_YEAR];
tm.tm_mon = log[CMD_MON] - 1;
tm.tm_mday = log[CMD_DAY];
tm.tm_hour = log[CMD_HOUR];
tm.tm_min = log[CMD_MIN];
tm.tm_sec = log[CMD_SEC];
tm.tm_isdst = -1;
dive->when = dc->when = utc_mktime(&tm);
dive->number = log[CMD_NUMBER] + log[CMD_NUMBER + 1] * 256 + 1;
dc->duration.seconds = (log[CMD_BT] + log[CMD_BT + 1] * 256) * 60;
dc->surfacetime.seconds = (log[CMD_SIT] + log[CMD_SIT + 1] * 256) * 60;
dc->maxdepth.mm = lrint((log[CMD_MAX_DEPTH] +
log[CMD_MAX_DEPTH + 1] * 256) / 4 * FEET * 1000);
dc->meandepth.mm = lrint((log[CMD_AVG_DEPTH] +
log[CMD_AVG_DEPTH + 1] * 256) / 4 * FEET * 1000);
dc->watertemp.mkelvin = C_to_mkelvin((log[CMD_MIN_TEMP] / 32) - 1.8);
dc->surface_pressure.mbar = lrint(ATM / BAR * pow(1 - 0.0000225577
* (double) log[CMD_ALTITUDE] * 250 * FEET, 5.25588) * 1000);
dc->salinity = 10000 + 150 * log[CMD_WATER_CONDUCTIVITY];
SHA1(log + CMD_NUMBER, 2, (unsigned char *)csum);
dc->diveid = csum[0];
if (log[CMD_MAX_DEPTH] == 0xff && log[CMD_MAX_DEPTH + 1] == 0xff)
corrupt_dive = 1;
sample_pre_offset = array_uint32_le(log + CMD_PREDIVE_OFFSET);
sample_end_offset = array_uint32_le(log + CMD_END_OFFSET);
break;
case TYPE_EMC:
dc->model = "EMC";
dc->deviceid = array_uint32_le(buf + 0x31e); // serial no
for (g = 0; g < 4; g++) {
fill_default_cylinder(&dive->cylinder[g]);
dive->cylinder[g].gasmix.o2.permille =
(log[EMC_O2_PERCENT + g * 2] / 256
+ log[EMC_O2_PERCENT + g * 2 + 1]) * 10;
dive->cylinder[g].gasmix.he.permille =
(log[EMC_HE_PERCENT + g * 2] / 256
+ log[EMC_HE_PERCENT + g * 2 + 1]) * 10;
}
tm.tm_year = log[EMC_YEAR];
tm.tm_mon = log[EMC_MON] - 1;
tm.tm_mday = log[EMC_DAY];
tm.tm_hour = log[EMC_HOUR];
tm.tm_min = log[EMC_MIN];
tm.tm_sec = log[EMC_SEC];
tm.tm_isdst = -1;
dive->when = dc->when = utc_mktime(&tm);
dive->number = log[EMC_NUMBER] + log[EMC_NUMBER + 1] * 256 + 1;
dc->duration.seconds = (log[EMC_BT] + log[EMC_BT + 1] * 256) * 60;
dc->surfacetime.seconds = (log[EMC_SIT] + log[EMC_SIT + 1] * 256) * 60;
dc->maxdepth.mm = lrint((log[EMC_MAX_DEPTH] +
log[EMC_MAX_DEPTH + 1] * 256) / 4 * FEET * 1000);
dc->meandepth.mm = lrint((log[EMC_AVG_DEPTH] +
log[EMC_AVG_DEPTH + 1] * 256) / 4 * FEET * 1000);
dc->watertemp.mkelvin = C_to_mkelvin((log[EMC_MIN_TEMP] - 32) / 1.8);
dc->surface_pressure.mbar = lrint(ATM / BAR * pow(1 - 0.0000225577
* (double) log[EMC_ALTITUDE] * 250 * FEET, 5.25588) * 1000);
dc->salinity = 10000 + 150 * (log[EMC_WATER_CONDUCTIVITY] & 0x3);
SHA1(log + EMC_NUMBER, 2, (unsigned char *)csum);
dc->diveid = csum[0];
if (log[EMC_MAX_DEPTH] == 0xff && log[EMC_MAX_DEPTH + 1] == 0xff)
corrupt_dive = 1;
sample_pre_offset = array_uint32_le(log + EMC_PREDIVE_OFFSET);
sample_end_offset = array_uint32_le(log + EMC_END_OFFSET);
break;
}
// Use the log information to determine actual profile sample size
// Otherwise we will get surface time at end of dive.
if (sample_pre_offset < sample_end_offset && sample_end_offset != 0xffffffff)
sample_size = sample_end_offset - sample_pre_offset;
cochran_parse_samples(dive, buf + 0x4914, buf + 0x4914
+ config.logbook_size, sample_size,
&duration, &max_depth, &avg_depth, &min_temp);
// Check for corrupt dive
if (corrupt_dive) {
dc->maxdepth.mm = lrint(max_depth * FEET * 1000);
dc->meandepth.mm = lrint(avg_depth * FEET * 1000);
dc->watertemp.mkelvin = C_to_mkelvin((min_temp - 32) / 1.8);
dc->duration.seconds = duration;
}
record_dive_to_table(dive, table);
mark_divelist_changed(true);
free(buf);
}
/*
* Parse sample data, extract events and build a dive
*/
static void cochran_parse_samples(struct dive *dive, const unsigned char *log,
const unsigned char *samples, unsigned int size,
unsigned int *duration, double *max_depth,
double *avg_depth, double *min_temp)
{
const unsigned char *s;
unsigned int offset = 0, profile_period = 1, sample_cnt = 0;
double depth = 0, temp = 0, depth_sample = 0, psi = 0, sgc_rate = 0;
int ascent_rate = 0;
unsigned int ndl = 0;
unsigned int in_deco = 0, deco_ceiling = 0, deco_time = 0;
struct divecomputer *dc = &dive->dc;
struct sample *sample;
// Initialize stat variables
*max_depth = 0, *avg_depth = 0, *min_temp = 0xFF;
// Get starting depth and temp (tank PSI???)
switch (config.type) {
case TYPE_GEMINI:
depth = (float) (log[CMD_START_DEPTH]
+ log[CMD_START_DEPTH + 1] * 256) / 4;
temp = log[CMD_START_TEMP];
psi = log[CMD_START_PSI] + log[CMD_START_PSI + 1] * 256;
sgc_rate = (float)(log[CMD_START_SGC]
+ log[CMD_START_SGC + 1] * 256) / 2;
profile_period = log[CMD_PROFILE_PERIOD];
break;
case TYPE_COMMANDER:
depth = (float) (log[CMD_START_DEPTH]
+ log[CMD_START_DEPTH + 1] * 256) / 4;
temp = log[CMD_START_TEMP];
profile_period = log[CMD_PROFILE_PERIOD];
break;
case TYPE_EMC:
depth = (float) log [EMC_START_DEPTH] / 256
+ log[EMC_START_DEPTH + 1];
temp = log[EMC_START_TEMP];
profile_period = log[EMC_PROFILE_PERIOD];
break;
}
// Skip past pre-dive events
unsigned int x = 0;
unsigned int c;
while (x < size && (samples[x] & 0x80) == 0 && samples[x] != 0x40) {
c = cochran_predive_event_bytes(samples[x]) + 1;
#ifdef COCHRAN_DEBUG
printf("Predive event: ");
for (unsigned int y = 0; y < c && x + y < size; y++) printf("%02x ", samples[x + y]);
putchar('\n');
#endif
x += c;
}
// Now process samples
offset = x;
while (offset + config.sample_size < size) {
s = samples + offset;
// Start with an empty sample
sample = prepare_sample(dc);
sample->time.seconds = sample_cnt * profile_period;
// Check for event
if (s[0] & 0x80) {
cochran_dive_event(dc, s, sample_cnt * profile_period, &in_deco, &deco_ceiling, &deco_time);
offset += cochran_dive_event_bytes(s[0]) + 1;
continue;
}
// Depth is in every sample
depth_sample = (float)(s[0] & 0x3F) / 4 * (s[0] & 0x40 ? -1 : 1);
depth += depth_sample;
#ifdef COCHRAN_DEBUG
cochran_debug_sample(s, sample_cnt);
#endif
switch (config.type) {
case TYPE_COMMANDER:
switch (sample_cnt % 2) {
case 0: // Ascent rate
ascent_rate = (s[1] & 0x7f) * (s[1] & 0x80 ? 1: -1);
break;
case 1: // Temperature
temp = s[1] / 2 + 20;
break;
}
break;
case TYPE_GEMINI:
// Gemini with tank pressure and SAC rate.
switch (sample_cnt % 4) {
case 0: // Ascent rate
ascent_rate = (s[1] & 0x7f) * (s[1] & 0x80 ? 1 : -1);
break;
case 2: // PSI change
psi -= (float)(s[1] & 0x7f) * (s[1] & 0x80 ? 1 : -1) / 4;
break;
case 1: // SGC rate
sgc_rate -= (float)(s[1] & 0x7f) * (s[1] & 0x80 ? 1 : -1) / 2;
break;
case 3: // Temperature
temp = (float)s[1] / 2 + 20;
break;
}
break;
case TYPE_EMC:
switch (sample_cnt % 2) {
case 0: // Ascent rate
ascent_rate = (s[1] & 0x7f) * (s[1] & 0x80 ? 1: -1);
break;
case 1: // Temperature
temp = (float)s[1] / 2 + 20;
break;
}
// Get NDL and deco information
switch (sample_cnt % 24) {
case 20:
if (offset + 5 < size) {
if (in_deco) {
// Fist stop time
//first_deco_time = (s[2] + s[5] * 256 + 1) * 60; // seconds
ndl = 0;
} else {
// NDL
ndl = (s[2] + s[5] * 256 + 1) * 60; // seconds
deco_time = 0;
}
}
break;
case 22:
if (offset + 5 < size) {
if (in_deco) {
// Total stop time
deco_time = (s[2] + s[5] * 256 + 1) * 60; // seconds
ndl = 0;
}
}
break;
}
}
// Track dive stats
if (depth > *max_depth) *max_depth = depth;
if (temp < *min_temp) *min_temp = temp;
*avg_depth = (*avg_depth * sample_cnt + depth) / (sample_cnt + 1);
sample->depth.mm = lrint(depth * FEET * 1000);
sample->ndl.seconds = ndl;
sample->in_deco = in_deco;
sample->stoptime.seconds = deco_time;
sample->stopdepth.mm = lrint(deco_ceiling * FEET * 1000);
sample->temperature.mkelvin = C_to_mkelvin((temp - 32) / 1.8);
sample->sensor[0] = 0;
sample->pressure[0].mbar = lrint(psi * PSI / 100);
finish_sample(dc);
offset += config.sample_size;
sample_cnt++;
}
UNUSED(ascent_rate); // mark the variable as unused
if (sample_cnt > 0)
*duration = sample_cnt * profile_period - 1;
}
static int dm5_dive(void *param, int columns, char **data, char **column)
{
UNUSED(columns);
UNUSED(column);
int i;
int tempformat = 0;
int interval, retval = 0, block_size;
struct parser_state *state = (struct parser_state *)param;
sqlite3 *handle = state->sql_handle;
unsigned const char *sampleBlob;
char *err = NULL;
char get_events_template[] = "select * from Mark where DiveId = %d";
char get_tags_template[] = "select Text from DiveTag where DiveId = %d";
char get_cylinders_template[] = "select * from DiveMixture where DiveId = %d";
char get_gaschange_template[] = "select GasChangeTime,Oxygen,Helium from DiveGasChange join DiveMixture on DiveGasChange.DiveMixtureId=DiveMixture.DiveMixtureId where DiveId = %d";
char get_events[512];
dive_start(state);
state->cur_dive->number = atoi(data[0]);
state->cur_dive->when = (time_t)(atol(data[1]));
if (data[2])
utf8_string(data[2], &state->cur_dive->notes);
if (data[3])
state->cur_dive->duration.seconds = atoi(data[3]);
if (data[15])
state->cur_dive->dc.duration.seconds = atoi(data[15]);
/*
* TODO: the deviceid hash should be calculated here.
*/
settings_start(state);
dc_settings_start(state);
if (data[4]) {
utf8_string(data[4], &state->cur_settings.dc.serial_nr);
state->cur_settings.dc.deviceid = atoi(data[4]);
}
if (data[5])
utf8_string(data[5], &state->cur_settings.dc.model);
dc_settings_end(state);
settings_end(state);
if (data[6])
state->cur_dive->dc.maxdepth.mm = lrint(strtod_flags(data[6], NULL, 0) * 1000);
if (data[8])
state->cur_dive->dc.airtemp.mkelvin = C_to_mkelvin(atoi(data[8]));
if (data[9])
state->cur_dive->dc.watertemp.mkelvin = C_to_mkelvin(atoi(data[9]));
if (data[4]) {
state->cur_dive->dc.deviceid = atoi(data[4]);
}
if (data[5])
utf8_string(data[5], &state->cur_dive->dc.model);
snprintf(get_events, sizeof(get_events) - 1, get_cylinders_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm5_cylinders, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm5_cylinders failed.\n");
return 1;
}
if (data[14])
state->cur_dive->dc.surface_pressure.mbar = (atoi(data[14]) / 100);
interval = data[16] ? atoi(data[16]) : 0;
/*
* sampleBlob[0] version number, indicates the size of one sample
*
* Following ones describe single sample, bugs in interpretation of the binary blob are likely:
*
* sampleBlob[3] depth
* sampleBlob[7-9] pressure
* sampleBlob[11] temperature - either full Celsius or float, might be different field for some version of DM
*/
sampleBlob = (unsigned const char *)data[24];
if (sampleBlob) {
switch (sampleBlob[0]) {
case 1:
// Log is converted from DM4 to DM5
block_size = 16;
break;
case 2:
block_size = 19;
break;
case 3:
block_size = 23;
break;
case 4:
// Temperature is stored in float
tempformat = 1;
block_size = 26;
break;
case 5:
// Temperature is stored in float
tempformat = 1;
block_size = 30;
break;
default:
block_size = 16;
break;
}
}
for (i = 0; interval && sampleBlob && i * interval < state->cur_dive->duration.seconds; i++) {
float *depth = (float *)&sampleBlob[i * block_size + 3];
int32_t pressure = (sampleBlob[i * block_size + 9] << 16) + (sampleBlob[i * block_size + 8] << 8) + sampleBlob[i * block_size + 7];
sample_start(state);
state->cur_sample->time.seconds = i * interval;
state->cur_sample->depth.mm = lrintf(depth[0] * 1000.0f);
if (tempformat == 1) {
float *temp = (float *)&(sampleBlob[i * block_size + 11]);
state->cur_sample->temperature.mkelvin = C_to_mkelvin(*temp);
} else {
if ((sampleBlob[i * block_size + 11]) != 0x7F) {
state->cur_sample->temperature.mkelvin = C_to_mkelvin(sampleBlob[i * block_size + 11]);
}
}
/*
* Limit cylinder pressures to somewhat sensible values
*/
if (pressure >= 0 && pressure < 350000)
state->cur_sample->pressure[0].mbar = pressure;
sample_end(state);
}
/*
* Log was converted from DM4, thus we need to parse the profile
* from DM4 format
*/
if (i == 0) {
float *profileBlob;
unsigned char *tempBlob;
int *pressureBlob;
profileBlob = (float *)data[17];
tempBlob = (unsigned char *)data[18];
pressureBlob = (int *)data[19];
for (i = 0; interval && i * interval < state->cur_dive->duration.seconds; i++) {
sample_start(state);
state->cur_sample->time.seconds = i * interval;
if (profileBlob)
state->cur_sample->depth.mm = lrintf(profileBlob[i] * 1000.0f);
else
state->cur_sample->depth.mm = state->cur_dive->dc.maxdepth.mm;
if (data[18] && data[18][0])
state->cur_sample->temperature.mkelvin = C_to_mkelvin(tempBlob[i]);
if (data[19] && data[19][0])
state->cur_sample->pressure[0].mbar = pressureBlob[i];
sample_end(state);
}
}
snprintf(get_events, sizeof(get_events) - 1, get_gaschange_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm5_gaschange, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm5_gaschange failed.\n");
return 1;
}
snprintf(get_events, sizeof(get_events) - 1, get_events_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm4_events, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm4_events failed.\n");
return 1;
}
snprintf(get_events, sizeof(get_events) - 1, get_tags_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm4_tags, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm4_tags failed.\n");
return 1;
}
dive_end(state);
return SQLITE_OK;
}
static int dm4_dive(void *param, int columns, char **data, char **column)
{
UNUSED(columns);
UNUSED(column);
int i;
int interval, retval = 0;
struct parser_state *state = (struct parser_state *)param;
sqlite3 *handle = state->sql_handle;
float *profileBlob;
unsigned char *tempBlob;
int *pressureBlob;
char *err = NULL;
char get_events_template[] = "select * from Mark where DiveId = %d";
char get_tags_template[] = "select Text from DiveTag where DiveId = %d";
char get_events[64];
dive_start(state);
state->cur_dive->number = atoi(data[0]);
state->cur_dive->when = (time_t)(atol(data[1]));
if (data[2])
utf8_string(data[2], &state->cur_dive->notes);
/*
* DM4 stores Duration and DiveTime. It looks like DiveTime is
* 10 to 60 seconds shorter than Duration. However, I have no
* idea what is the difference and which one should be used.
* Duration = data[3]
* DiveTime = data[15]
*/
if (data[3])
state->cur_dive->duration.seconds = atoi(data[3]);
if (data[15])
state->cur_dive->dc.duration.seconds = atoi(data[15]);
/*
* TODO: the deviceid hash should be calculated here.
*/
settings_start(state);
dc_settings_start(state);
if (data[4])
utf8_string(data[4], &state->cur_settings.dc.serial_nr);
if (data[5])
utf8_string(data[5], &state->cur_settings.dc.model);
state->cur_settings.dc.deviceid = 0xffffffff;
dc_settings_end(state);
settings_end(state);
if (data[6])
state->cur_dive->dc.maxdepth.mm = lrint(strtod_flags(data[6], NULL, 0) * 1000);
if (data[8])
state->cur_dive->dc.airtemp.mkelvin = C_to_mkelvin(atoi(data[8]));
if (data[9])
state->cur_dive->dc.watertemp.mkelvin = C_to_mkelvin(atoi(data[9]));
/*
* TODO: handle multiple cylinders
*/
cylinder_start(state);
if (data[22] && atoi(data[22]) > 0)
state->cur_dive->cylinder[state->cur_cylinder_index].start.mbar = atoi(data[22]);
else if (data[10] && atoi(data[10]) > 0)
state->cur_dive->cylinder[state->cur_cylinder_index].start.mbar = atoi(data[10]);
if (data[23] && atoi(data[23]) > 0)
state->cur_dive->cylinder[state->cur_cylinder_index].end.mbar = (atoi(data[23]));
if (data[11] && atoi(data[11]) > 0)
state->cur_dive->cylinder[state->cur_cylinder_index].end.mbar = (atoi(data[11]));
if (data[12])
state->cur_dive->cylinder[state->cur_cylinder_index].type.size.mliter = lrint((strtod_flags(data[12], NULL, 0)) * 1000);
if (data[13])
state->cur_dive->cylinder[state->cur_cylinder_index].type.workingpressure.mbar = (atoi(data[13]));
if (data[20])
state->cur_dive->cylinder[state->cur_cylinder_index].gasmix.o2.permille = atoi(data[20]) * 10;
if (data[21])
state->cur_dive->cylinder[state->cur_cylinder_index].gasmix.he.permille = atoi(data[21]) * 10;
cylinder_end(state);
if (data[14])
state->cur_dive->dc.surface_pressure.mbar = (atoi(data[14]) * 1000);
interval = data[16] ? atoi(data[16]) : 0;
profileBlob = (float *)data[17];
tempBlob = (unsigned char *)data[18];
pressureBlob = (int *)data[19];
for (i = 0; interval && i * interval < state->cur_dive->duration.seconds; i++) {
sample_start(state);
state->cur_sample->time.seconds = i * interval;
if (profileBlob)
state->cur_sample->depth.mm = lrintf(profileBlob[i] * 1000.0f);
else
state->cur_sample->depth.mm = state->cur_dive->dc.maxdepth.mm;
if (data[18] && data[18][0])
state->cur_sample->temperature.mkelvin = C_to_mkelvin(tempBlob[i]);
if (data[19] && data[19][0])
state->cur_sample->pressure[0].mbar = pressureBlob[i];
sample_end(state);
}
snprintf(get_events, sizeof(get_events) - 1, get_events_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm4_events, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm4_events failed.\n");
return 1;
}
snprintf(get_events, sizeof(get_events) - 1, get_tags_template, state->cur_dive->number);
retval = sqlite3_exec(handle, get_events, &dm4_tags, state, &err);
if (retval != SQLITE_OK) {
fprintf(stderr, "%s", "Database query dm4_tags failed.\n");
return 1;
}
dive_end(state);
/*
for (i=0; i<columns;++i) {
fprintf(stderr, "%s\t", column[i]);
}
fprintf(stderr, "\n");
for (i=0; i<columns;++i) {
fprintf(stderr, "%s\t", data[i]);
}
fprintf(stderr, "\n");
//exit(0);
*/
return SQLITE_OK;
}
