Merge upstream libdivecomputer updates from Jef.
Misc small updates all over, the biggest thing (code wise) is probably
the Ratio firmware update support.
* 'master' of git://github.com/libdivecomputer/libdivecomputer:
Fix the Oceanic Geo 4.0 memory layout
Ignore all empty logbook entries
Add a workaround for the hwOS ppO2 firmware bug
Use macros to encode the firmware version
Use symbolic constants for the sample types
Remove the obsolete hwos parameter
Limit the tank pressure workaround to hwOS devices
Fix the OSTC tank pressure decoding
Fix the Scubapro G2 HUD udev rule
Add the Mares Genius to the bluetooth filter
Add firmware upgrade support for the Ratio computers
This does nothing at all, but it adds all the core skeleton
infrastructure for the Deepblu Cosmiq+ dive computer.
Let's see if I can make sense of things and make it download anything.
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
Update with Jef's upstream:
- add support for Cressi Goa and Cartesio
- update the Shearwater PNF parser to Jef's version
- misc minor fixes
* git://github.com/libdivecomputer/libdivecomputer:
Use the timezone setting of the dive computer
Add support for the Cressi Goa and Cartesio
Add an extra parameter for the initial CRC value
Add support for the Ratio iDive Color series
Shearwater Petrel Native Format parsing
Shearwater: detect which logbook format is support
Shearwater: add Teric to list of supported dive computers
Shearwater: skip deleted dives
Fix a potential buffer overflow
Merge the initial Garmin Descent Mk1 support.
This actually works well enough to be useful, even though there are a
few ugly details yet to be sorted out.
The download itself is fairly complete, but all event handling is
currently missing (warnings, gas changes, things like that).
Also, because of how libdivecomputer works, the "downloading" of dives
is entirely separate from the "parsing" of dives in the libdivecomputer
world. And that is actually problematic for the Garmin Descent
downloader, because you actually need to parse the data to even figure
out whether it's actually a dive at all!
The Garmin Descent is also a fitness and general excercise tracker, so
people can (and do) use it for other sports than just diving, and so the
activities we download may end up not being dives at all, but other
events.
But before we parse them, we don't know, and we aren't really supposed
to parse them until after we've passed the data to the application and
it passes it back for parsing. Nasty chicken-and-egg problem there..
So right now non-diving activities will just show up as very short
and/or shallow dives.
This is fixable by just parsing things an extra time, but I really wish
libdivecomputer would just stop thinking that downloading and parsing
are separate events.
* garmin-descent:
Add dc_usb_storage_open to the symbols list
garmin: only record gasmixes for cylinders that aren't enabled
garmin: don't emit fake device info and vendor event
garmin: add support for downloading gas mixes
garmin: add GPS coordinate data and improve parser_get_field() reports
garmin: actually start using the parsed data
garmin: turn all the remaining unrecognized fields into DEBUG messages
garmin: add a lot of new field definitions
garmin: teach the parser to show undefined values for unknown fields too
garmin: fix file length header parsing
garmin: teach the parser about invalid values and more dates
garmin: some fields are defined in all message types
Garmin: start parsing definition records
Garmin Descent Mk1: flesh out the actual downloading part
Add Garmin Descent Mk1 skeleton
Add 'USB storage' transport enumeration
Merge upstream libdivecomputer changes from Jef Driesen.
* https://github.com/libdivecomputer/libdivecomputer:
Add Travis CI integration
Fix the transport command-line parameter
Document dc_descriptor_get_model
Include stddef.h in iostream.h
Add support for the Mares Smart Air
Fix the average depth for older OSTC dives
Add support for the Oceanic Pro Plus X
This does absolutely nothing, but it adds the basic skeleton for a new
dive computer support.
Not only don't I have any real code for any of this yet, but I actually
think it might be useful to have a "this is how to add a new dive
computer" example commit.
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
We now have at least two dive computers that enumerate as USB storage
devices: the Uemis Zurich and the Garmin Descent Mk1.
The Uemis is handled purely inside of subsurface, with no
libdivecomputer support. That was likely a mistake, but it was not
practical to do a libdivecomputer backend for it at the time.
The Garmin Descent Mk1 support would be much nicer to have natively in
libdivecomputer, and looks much more relevant and practical than the
Uemis situation was.
So start off with defining a new transport type.
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
Merge with upstream libdivecomputer from Jef.
This fixes some sleeping functions, and also implements support for the
Tecdiving DiveComputer.eu dive computers.
There's also various minor cleanups. Most notable is perhaps the
unification of the Uwatec dive computer backends.
* git://github.com/libdivecomputer/libdivecomputer:
Initialize the socket library for the bluetooth discovery
Fix the length of the Suunto D6i gas change event
Add support for the Tecdiving DiveComputer.eu
Fix the Mac OS X timer implementation
Add the average depth to the xml output
Skip the handshake for BLE communication
Unify the Uwatec Smart, Meridian and G2 backends
Re-organize the packet send/receive code
Use symbolic constants for the commands
Implement an rfcomm filter function
Remove the filter for HW OSTC's without bluetooth
Implement the sleep function for IrDA and bluetooth
The Uwatec Smart, Meridian and G2 backends are almost identical, except
for the low-level packet sending and receiving code. With the new I/O
layer, those three backends can easily be unified in a single backend.
The Meridian and G2 are completely removed, only the family types are
kept for backwards compatibility.
The default libdivecomputer fields are good for structured data that has
a well-defined format, like the cylinder information, or the temperature
data.
But it is entirely useless for miscellaneous divecomputer-specific
information, where there is no standard way of representing the data
across different kinds of dive computers.
Examples of this include simple things like deco calculation algorithm
(what kind of Buehlmann, gradient factor information or is it some
vendor-specific mode?) and even something as trivial as a serial number.
No, serial numbers aren't numbers. They are strings. Really.
But this also includes much more complex data that is really specific to
a particular dive computer or family: what the battery status is for the
dive computer or the wireless transmitters it is connected to (sometimes
it's a voltage, sometimes it's a percentage, sometimes it's just "good"
or "marginal").
It also includes random incidental information like firmware version
numbers (again, these are strings, not numbers, despite the name) or
dive mode and personal adjustment information.
So allow the dive computer to just give "extra information" in the form
of an array of { key, value } string pairs. For my Perdix AI the
information could be
{ "Serial", "370d1f24" }
{ "FW Version", "44" }
{ "Deco model", "GF 40/85" }
{ "Battery type", "3.6V Saft" }
{ "Battery at end", "3.4 V" }
and for my EON Steel with three wireless transmitters connected it can
look like this:
{ "Serial", "1742104730" }
{ "FW Version", "1.6.5" }
{ "HW Version", "70.3.0" }
{ "Battery at start", "Charge: 83%, Voltage: 4.012V" }
{ "Deco algorithm", "Suunto Fused RGBM" }
{ "Personal Adjustment", "P-2" }
{ "Battery at end", "Charge: 79%, Voltage: 3.977V" }
{ "Dive Mode", "Trimix" }
{ "Desaturation Time", "7:53" }
{ "Transmitter ID", "1519107801" }
{ "Transmitter Battery at start", "87 %" }
{ "Transmitter Battery at end", "87 %" }
{ "Transmitter ID", "1550110028" }
{ "Transmitter Battery at start", "100 %" }
{ "Transmitter Battery at end", "100 %" }
{ "Transmitter ID", "1719102387" }
{ "Transmitter Battery at start", "100 %" }
{ "Transmitter Battery at end", "100 %" }
so this data is inherently unstructured and dependent on the dive
computer, but quite relevant to the diver. Subsurface shows this in the
"Extra Info" panel for each dive computer.
Also teach the example output-xml code about the new string field
extension. That example output-xml code was written by Anton Lundin in
the old Subsurface branch, and signed-off-by Dirk. The sign-offs here
are taken from that original work.
Signed-off-by: Anton Lundin <glance@acc.umu.se>
Signed-off-by: Dirk Hohndel <dirk@hohndel.org>
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
When two or more identical (or very similar) dive computers are
connected, the USB VID/PID can be ambiguous. That's because the VID/PID
identifies the type of the USB device, and not the individual device.
But each USB HID device descriptor returned by the device discovery
represents a single connected device, and thus guarantees to open the
correct USB device.
To obtain the same behaviour as before, an application can simply open
the first discovered device.
Setting a default transport type avoids the need to explicitely set a
transport using the the new --transport command-line option. This also
preserves backwards compatibility with previous versions where the
option didn't exist yet.
The dctool example application is updated to the latest changes:
- The I/O stream is opened and closed by the application.
- A new (mandatory) option is added to select the desired transport
type. This is nessecary because several dive computers support
multiple transport types now.
Currently the dive computer backends are responsible for opening (and
closing) the underlying I/O stream internally. The consequence is that
each backend is hardwired to a specific transport type (e.g. serial,
irda or usbhid). In order to remove this dependency and support more
than one transport type in the same backend, the opening (and closing)
of the I/O stream is moved to the application.
The dc_device_open() function is modified to accept a pointer to the I/O
stream, instead of a string with the device node (which only makes sense
for serial communication). The dive computer backends only depend on the
common I/O interface.
The device descriptor is either mandatory for a certain command (with
DCTOOL_CONFIG_DESCRIPTOR) or always NULL. But for some commands it will
be useful to support an optional descriptor as well. To support this, we
always try to lookup the device descriptor whenever the corresponding
command-line options are set.
Add a new type to distinguish between closed circuit (CCR) and
semi-closed circuit (SCR) diving. Some dive computers from HW and
DiveSystem/Ratio support this.
Because the CCR/SCR abbreviations are more commonly used, let's take the
opportunity to also rename the existing DC_DIVEMODE_CC. To preserve
backwards compatibility, a macro is added to map the old name to the new
one.
Reported-by: Jan Mulder <jlmulder@xs4all.nl>
Allthough most dive computers always use local time and don't support
timezones at all, there are a few exceptions. There are two different
sources of timezone information:
- Some of the newer Uwatec/Scubapro devices use UTC internally and also
support a timezone setting. This UTC offset is currently taken into
account to obtain the dive date/time, but the UTC offset itself is
lost.
- Uwatec/Scubapro and Reefnet devices rely on the clock of the host
system to synchronize the internal device clock and calculate the
dive date/time. The consequence is that the resulting date/time is
always in the timezone of the host system.
In order to preserve this timezone information, the dc_datetime_t
structure is extended with a new "timezone" field, containing the UTC
offset in seconds. Devices without timezone support will set the field
to the special value DC_TIMEZONE_NONE.
The dc_datetime_localtime() and dc_datetime_gmtime() functions will
automatically populate the new field with respectively the local
timezone offset and zero. The dc_datetime_mktime() function will take
into account the new timezone field for the conversion to UTC. The
special value DC_TIMEZONE_NONE is interpreted as zero.
The back-end parser seems to be the same as for the Uwatec Smart (aka
Galileo Sol). At least that's the assumption right now.
The downloader just uses USB HID (very similar to EON Steel) rather than
the horrible IrDA thing.
There's also eventually a BLE thing, but that's for the future.
This is an unholy mixture of the Uwatec Smart downloader logic and the
EON Steel usbhid transfer code. The back-end is pure Uwatec Smart
(model 0x11, same as Galileo Sol).
I'm not at all sure this gets everything right, but it downloads
*something*.
[Jef Driesen: Renamed the backend to uwatec, and made some smaller
cosmetic changes to match the existing coding style.]
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
For applications supporting offline parsing (like libdivecomputer's own
dctool application), some device specific knowledge is still required in
order to map a particular model to the corresponding backend. The new
convenience function will take care of that internally.
The already existing dc_parser_new() function does the same, but
requires an open device handle, which makes it unsuitable for offline
parsing.
When the device family is provided without an explicit model number, we
simply choose the first available model. But since new models are being
added all the time, this default model is not guaranteed to remain the
same. That's not desirable because it can alter the behaviour of the
application.
The introduction of the Aeris 500AI is an example of this problem. The
default model in the vtpro family used to be the Oceanic Versa Pro. But
because the Aeris 500AI has a lower model number, it automatically
became the new default model. Since both use a different protocol
variant (MOD vs INTR) they are not interchangable.
The default model is now hardcoded. The best option is of course to
provide the model number explicitly!
Libdivecomputer always uses metric units internally. But when reverse
engineering a device that stores everything using imperial units, it's
very convenient to be able to switch the output to imperial units too.
The existing output code is removed and replaced with the new XML and
RAW output formats. The desired output format can be selected with a new
command-line option. The XML format remains the default output format.
The RAW output format exports each dive to a raw (binary) file. To
output multiple files, the filename is interpreted as a template and
should contain one or more placeholders.
The new output interface provides the necessary infrastructure to add
support for multiple output formats. Due to the abstract interface, each
new format will require only minimal changes in the application itself.
On BSD based operating systems (which includes Mac OS X), the getopt()
function is posix compliant and thus the option processing stops when
the first non-option is found. But the getopt_long() function permutes
the argument vector, just like the GNU implementation.
Using a leading '+' character in the option string disables the
permutation again.
