When an exception occurs while initializing or handling the card we
print a traceback, but we do not print any info that allows us to
identify the device that was involved when the exception occurred. Let's
include the device path or number in the error message before we print
the traceback.
In order to make it easier to print the device information, let's add a
__str__() method to all of our devices. This method shall return the
device number or path.
Related: OS#6210
Change-Id: I200463e692245da40ea6d5b609bfc0ca02d15bdb
When the trace file end is reaced, pyShark raises a StopIteration
exception. Let's catch this exception and exit gracefully.
Related: OS#6094
Change-Id: I6ab5689b909333531d08bf46e5dfea59b161a79e
The trace log currently does not contain any information about card
resets. This makes the trace difficult to follow. Let's use the
CardReset object to display the ATR in the trace.
Related: OS#6094
Change-Id: Ia550a8bd2f45d2ad622cb2ac2a2905397db76bce
The trace log currently only shows the parsed APDU. However, depending
on the problem to investigate it may be required to see the raw APDU
string as well. Let's add an option for this.
Related: OS#6094
Change-Id: I1a3bc54c459e45ed3154479759ceecdc26db9d37
We have a strict "one CardProfile per card" rule. For a modern UICC
without legacy SIM support, that works great, as all applications
have AID and ADF and can hence be enumerated/detected that way.
However, in reality there are mostly UICC that have legacy SIM, GSM-R
or even CDMA support, all of which are not proper UICC applications
for historical reasons.
So instead of having hard-coded hacks in various places, let's introduce
the new concept of a CardProfileAddon. Every profile can have any
number of those. When building up the RuntimeState, we iterate over the
CardProfile addons, and probe which of those are actually on the card.
For those discovered, we add their files to the filesystem hierarchy.
Change-Id: I5866590b6d48f85eb889c9b1b8ab27936d2378b9
There are some functions / classes which are only needed by the legacy
tools pySim-{read,prog}, bypassing our modern per-file transcoder
classes. Let's move this code to the pySim/legacy sub-directory,
rendering pySim.legacy.* module names.
The long-term goal is to get rid of those and have all code use the
modern pySim/filesystem classes for reading/decoding/encoding/writing
any kind of data on cards.
Change-Id: Ia8cf831929730c48f90679a83d69049475cc5077
So far we supported
* GSMTAP live traces via a UDP socket
* RSPRO traces from pcap files (or live)
We were lacking support for reading GSMTAP stored in pcap, which
is what this patch implements.
Change-Id: I46d42774b39a2735500ff5804206ddcfa545568c
The Tracer implemented those options and the argparser handled it,
but we didn't ever connect the two.
Change-Id: I7d7d5fc475a8d09efdb63d3d6f1cc1de1996687b
This introduces a new pySim.apdu module hierarchy, which contains
classes that represent TPDU/APDUs as exchanged between
SIM/UICC/USIM/ISIM card and UE.
It contains instruction level decoders for SELECT, READ BINARY and
friends, and then uses the pySim.filesystem.Runtime{Lchan,State} classes
to keep track of the currently selected EF/DF/ADF for each logical
channel, and uses the file-specific decoder classes of pySim to decode
the actual file content that is being read or written.
This provides a much more meaningful decode of protocol traces than
wireshark will ever be able to give us.
Furthermore, there's the new pySim.apdu_source set of classes which
provides "input plugins" for obtaining APDU traces in a variety of
formats. So far, GSMTAP UDP live capture and pyshark based RSPRO
live and pcap file reading are imlpemented.
Change-Id: I862d93163d495a294364168f7818641e47b18c0a
Closes: OS#5126
Harald Welte
Philipp Maier