* Due to the org-babel bug which breaks Python source code examples
beyond the most simple snippets, ported the HOWTO to a source format
which I *know* for sure won't break it.
* Details of the org-mode bug is in https://dev.gnupg.org/T3977
* DITA project uses DITA-OT 2.x (2.4 or 2.5, IIRC) with support for DITA 1.3.
* source files were written with oXygenXML Editor 20.0, hence the
oXygenXML project file in the directory; however only the .ditamap
and .dita files are required to generate any output with the
DITA-OT.
Signed-off-by: Ben McGinnes <ben@adversary.org>
* Changed the expiration date for the generated test key to NYE this
century, rather than the NYE this millennium as originally suggested
in job #3815.
* This covers the lifetimes of current users (except, maybe, some very
healthy millennials) as well as the 32-bit clock end date in 2038;
without falling foul of OpenPGP's 2106 expiration.
* src/qgpgmenewcryptoconfig.cpp (QGpgMENewCryptoConfigEntry::urlValue):
Build url from local file.
(QGpgMENewCryptoConfigEntry::setURLValue): Set native seperated
path.
--
This fixes setting files through cryptoconfig on Windows.
GnuPG-Bug-Id: T3939
* lang/python/setup.py.in: Copy gpgme.h instead of parsing it.
--
The python bindings tried to parse deprecated functions
out of gpgme.h. This fails for the current gpgme.h in
that it removes an entire field in the key sig struct (_obsolete_class).
Hence, the fields were off by an int and the bindings accessed struct
members via the wrong offset. That caused python program to crash.
At least on 32bit platforms, the crash can be easily triggered by
accessing key.uids[0].signatures. On 64bit platforms the compiler
probably aligns the struct so that the missing 4 bytes are not noticed.
With this change, the python bindings will expose all functions
that gpgme exposes, including the deprecated ones.
Credits go to Justus Winter for debugging and identying the issue.
Signed-off-by: Tobias Mueller <muelli@cryptobitch.de>
GnuPG-bug-id: 3892
* Script to generate a new key with encryption subkey taking input
from interactive prompts.
* Will also take a passphrase via pinentry and uses passphrase caching
of five minutes when used in conjunction with the temp homedir
script.
* Testing the addition of a HTML header set in org-mode in order to
had RSS update links for files.
* This should work with any [X]HTML export from current versions of
Org-Mode, but if it also works on website generated pages then it'll
tick off one of the wishlist itmes.
* Script to create a temporary gnupg homedir in the user's directory
for testing or scripting purposes.
* Creates a hidden directory on POSIX systems with the correct
permissions (700).
* Creates a gpg.conf in that directory containing the same
configuration options as used in the "Danger Mouse" example in the
HOWTO with the correct permissions (600).
* Added GPGME Python bindings HOWTO in Australian/British English.
** en-US "translation" still to be done.
* Added several example scripts comprised of the "Basic Functions"
section of the HOWTO (plus the work-around at the end).
** As these scripts are very basic examples they are released under
both the GPLv2+ and the LGPLv2.1+ (just like GPGME itself).
Signed-off-by: Ben McGinnes <ben@adversary.org>
* Temporarily removing multi-key selection based examples.
* There are a few issues with getting the key selections to play
nicely with gpg.Context().keylist object types.
* Will troubleshoot them separately and restore them when that's
worked out, but I don't want these more complicated examples to
delay merging the HOWTO with master.
* Similar to group-key-selection.py, but does not use an existing
group from gpg.conf; instead takes multiple key IDs, fingerprints or
patterns on the command line and adds them to a keylist object.
* Begins to string together some of the simpler examples to do more
useful things.
* Signs and encrypts a file while encrypting to every key in a group
specified in the gpg.conf file.
* Updated usage so it only references importing the final list of
lists produced. Trying to use some of the mid-points can have
unpredictable results (this is part of the problem with work
arounds).