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>
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.
This adds the string field interface to the Shearwater family of dive
computers.
That includes proper serial number formatting, but it also has a lot of
new fields for battery information (both the dive computer itself and
the transmitter) but also deco model information.
Much of the deco model cases come from Anton Lundin in the original
subsurface branch, and Dirk Hohndel added the battery type and serial
number and firmware version data. And I ended up massaging it even in
that original branch, so it blamed me for all these lines even back
there.
The sign-offs from Dirk and Anton are from the original commits.
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>
This adds the string field interface to the Suunto D9 family.
It's really just the proper serial number handling. From Dirk's
original commit:
"We have the correct firmware in the devinfo, but that's the firmware
the dive computer is on NOW, not necessarily the firmware it was using
when recording the dive"
so thus just serial number.
Signed-off-by: Dirk Hohndel <dirk@hohndel.org>
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
This adds the string field interface to the Oceanic Atom2 family,
including the proper serial number handling.
Signed-off-by: Dirk Hohndel <dirk@hohndel.org>
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
This adds the string field interface to the HW OSTC family, including
the proper serial number handling.
The deco model information was done by Anton Lundin in the original
subsurface branch, and the salinity, serial number, battery voltage and
desat information was added by Dirk Hohndel. Jan Mulder added the
battery percentage.
[ The sign-offs have been taken from the original commits in that old
subsurface branch, and I'm marking Dirk as the main author because on
the whole most of the lines come from him - Linus ]
Signed-off-by: Anton Lundin <glance@acc.umu.se>
Signed-off-by: Jan Mulder <jlmulder@xs4all.nl>
Signed-off-by: Dirk Hohndel <dirk@hohndel.org>
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
The libdivecomputer serial number handling is very very messy.
There are multiple issues that make it messy:
- it's not actually figured out at parse-time, it's figured out at
download time and passed up through the DC_EVENT_DEVINFO as part of
the devinfo structure.
- it's passed around as an "unsigned in" in the devinfo structure,
which is entirely useless to anybody but libdivecomputer, since a
serial number isn't actually a number, but a string, and the format
of the string depends on the dive computer.
- it is *not* passed to the parser, so the parser can't do a better job
at it later.
But it turns out that the sane "create new parser" helper function does
actually get it, as part of the "devinfo" that is passed to it. So as
long as you use that sane interface, we can now pass it in to the actual
parser creation, and then the dive computer parsers that want to do a
reasonable job of actually generating a real serial number string can
now save it off and do so.
This just adds the infrastructure to make this possible. I'll do the
dive computers one by one.
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
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>
The calibration values for the Petrel are typically in the range 1600 to
2400, while for Predator they are much smaller, with values in the range
800 to 1400. The consequence is that the calculated ppO2 values are too
low for the Predator. Adding a constant offset of about 1000 changes the
calibration value to be in approximately the same range as the Petrel,
and hence more reasonable ppO2 values. But this correction should only
be applied for the Predator, and not the Petrel.
Reviewed-by: Anton Lundin <glance@acc.umu.se>
The second variant of the open or create functions were introduced to
maintain backwards compatibility. But after being removed from the
public api, these functions serve no purpose anymore, and can be removed
completely.
The vendor_product_parser_create() and vendor_product_device_open()
functions should be called indirectly, through the generic
dc_device_open() and dc_parser_new() functions. And the
vendor_product_extract_dives() functions are internal functions that
should never have been part of the public api in the first place.
The Cressi Drake is a mainly a freedive computer. The data format is
almost identical to the Leonardo. The main difference is that a single
dive now contains an entire freedive session. Each freedive in the
session is delimited with a 4 byte header containing the surface
interval and a special marker.
To be able to pass the OSTC 3 model number to the parser, and preserve
backwards compatibility, we need a new function. The new function should
also be used for the Frog, by passing zero as the model number.
Using the hw_ostc_parser_create() function with the hwos parameter set
to one, is now deprecated but will remain supported for backwards
compatibility.
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.
Both the allocation and initialization of the object data structure is
now moved to a single function. The corresponding deallocation function
is intended to free objects that have been allocated, but are not fully
initialized yet. The public cleanup function shouldn't be used in such
case, because it may try to release resources that haven't been
initialized yet.
Instead of freeing the object data structure in the backend specific
cleanup function, the memory is now freed automatically in the base
class function. This reduces the amount of boilerplate code in the
backends. Backends that don't allocate any additional resources, do no
longer require a cleanup function at all.
The protocol of the iX3M series is almost identical to the protocol of
the iDive series. The main difference is that the command bytes and the
size of the response packets have been changed. In order to be able to
communicate with the correct set of commands, the user needs to supply
the correct number now. To maintain backwards compatibility, a new
variant of the open function is added.
Basic Suunto EON Steel downloading copied from my test application.
This parses all the core dive data, including sample data (time, depth,
cylinder pressure, deco information etc).
The deco information returns ceiling and TTS rather than ceiling and
"time at ceiling", because that's what the dive computer has, and I
don't see any other way to return the information.
We don't report any events yet, though.
Signed-off-by: Linus Torvalds <torvalds@linux-foundation.org>
The Uwatec Meridian protocol is identical to the Uwatec Smart/Galileo
protocol, except for some additional framing around each data packet,
and the switch from IrDA to usb-serial communication. For parsing, the
data format appears to be identical to the Galileo data format.
Although the communication protocol of the OSTC3 is nearly identical to
that of the Frog, the different size parameters make it hard to share
the code easily. On top of that, if we ever implement native bluetooth
communication support, we'll need a completely separate backend anyway.
Therefore the Frog backend is simply duplicated, with a few OSTC3
specific changes applied here and there.
The existing ostc parser is upgraded to support the new OSTC3 data
format.
The React Pro White appears to be a newer variant of the React Pro. For
the communication it uses the newer atom2 protocol, but the data format
remains (almost) the same as the older React Pro.
The Petrel (with updated firmware) supports an enhanced communication
protocol, which is more efficient and powerfull than the legacy Predator
compatibility mode. The new protocol uses data compression for faster
transfers and supports the ability to selectively download individual
dives. Last but not least, the new protocol isn't limited to the last
128kB of logbook data, but can access the full logbook capacity (16MB).
Currently, each backend has it's own function to verify whether the
object vtable pointer is the expected one. All these functions can be
removed in favor of a single isintance function in the base class,
which takes the expected vtable pointer as a parameter.
Functions which are called through the vtable, don't need to verify the
vtable pointer, and those checks are removed.
The term "backend" can be confusing because it can refer to both the
virtual function table and the device/parser backends. The use of the
term "vtable" avoids this.
This is only a preliminary version. There is certainly some room for
improvement, but the basic functionality is already in place. That
should be sufficient for daily use, and possibles issues can always be
fixed when discovered.
I forgot to update the device and parser initialization functions to
store the context pointer into the objects. As a result, the internal
context pointers were always NULL.
The public api is changed to require a context object for all
operations. Because other library objects store the context pointer
internally, only the constructor functions need an explicit context
object as a parameter.
The devinfo and clock event data is now cached internally at the device layer.
This allows the new dc_parser_new() convenience function to retrieve the event
data directly from the device handle, and applications don't have to deal with
the events anymore to create a parser.
Adding the "dc_" namespace prefix (which is of course an abbreviation
for libdivecomputer) should avoid conflicts with other libraries. For
the time being, only the high-level device and parser layers are
changed.
