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Version 4.3.0 (9 May 2021) |
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From this release on libgig requires at least a C++11 compliant compiler to |
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build from its sources. Another new requirement is the presence of some UUID |
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generating function which must be provided by the underlying OS. Previously |
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the presence of an UUID generating function was optional in libgig for many |
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years. Its absence in the past only meant that you were unable to load your |
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own gig files (e.g. created from scratch with Gigedit by yourself) into |
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Tascam's GigaStudio software, it did not mean though any restriction in |
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conjunction with LinuxSampler in the past. The latter has changed in this |
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release. Without UUIDs in gig files you would now also get misbehaviours |
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even while staying entirely in the Linux eco space, and hence this is now a |
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hard build requirement for libgig. |
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Most of the changes in the gig classes in this release are about gig file |
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format extensions used by recent versions of LinuxSampler. For instance you |
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now have much more control over what LFO wave form shall be used (e.g. saw and |
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square, whereas the original GigaStudio was alwas limited to sine only) and |
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other LFO parameters like their start phase. There are also a bunch of new |
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audio filter types available in conjuction with the latest LinuxSampler |
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version, e.g. additional lowpass filter types with 2, 4 and 6 poles, |
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additional highpass filters with 1, 2, 4 and 6 poles, a new bandpass filter |
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with 2 poles and finally also a bandreject filter with 2 poles. Another gig |
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format extension was added concerning NKSP instrument scripts: LinuxSampler's |
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new NKSP "patch" variable type is now supported in this version of libgig. |
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Please refer to the LinuxSampler website for a more detailed explanation about |
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this new NKSP instrument script feature. |
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And as always there are a various fixes in this release, foremost sane output |
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compatibility with GigaStudio 3 was broken, so that GigaStudio version might |
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not have accepted gig files changed by you with the prior version of libgig. |
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This issue is now fixed in this release. |
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And last but not least the Serialization framework was extended to support now |
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various common C++ STL classes like std::string, std::vector, std::map and |
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std::set out of the box. So no custom code is required aymore to |
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serialize/deserialize such very common native C++ object types, which reduces |
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code complexity for serializing/deserializing complex C++ projects a lot. |
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Version 4.2.0 (25 Jul 2019) |
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This is a maintenance release with important fixes; especially it fixes |
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issues with gig files in GigaStudio v4 format, however this release also |
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introduces some few new features and additions. Most notably it is now |
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possible to write large gig files splitted over extension files (.gx01, |
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.gx02, ...). Previously it was only possible to read gig files with |
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extension files, but libgig only supported to save large gig files as one |
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single, monolithic gig file. The problem with the latter was that gig |
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files >= 2 GB could only be read by libgig, but could not be loaded with |
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any version of GigaStudio. So this solves that legacy support issue. |
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Apart from that, a bunch of convenience methods have been added. |
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Version 4.1.0 (25 Nov 2017) |
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This release adds support for files much larger than 2 GB for GigaStudio / |
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Gigasampler (.gig), DLS, as well as for RIFF files in general. This file size |
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limitation existed for a very long time due to the RIFF format's historical, |
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internal 32 bit file offsets. To circumvent this file size limitation the |
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concept of so called "extension files" was added in the past to the |
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GigaStudio format, which means that the GigaStudio instrument editor splitted |
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the respective overall instrument file into a set of files (.gig, .gx01, |
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.gx02, ...), each being max. 2 GB in size, and all of them were expected to be |
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located in the same directory for the sampler to load the entire large |
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instrument successfully. libgig always supported only reading such gig |
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extension files, however libgig never supported to create .gig files with |
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extension files, nor did it support modifying existing ones. In this release |
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it was necessary to finally get rid of this overall file size limitation in |
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libgig. Now when that concept of extension files was introduced years ago, it |
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made sense at that point, because there were still many systems out there |
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which still had no support for large files (on either OS or file system |
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level). However today even on low end mobile devices support for large files |
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is already a broad standard. Accordingly instead of adding write support for |
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extension files in libgig, the problem was addressed at its root by |
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transparently using appropriate, automatic file offset sizes. So when writing |
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.gig/DLS/RIFF files smaller than 2 GB there are still 32 bit file offsets |
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being used by libgig. Accordingly such files are still backward compatible |
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with older software. However if the overall file size to be written is 2 GB or |
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larger, then 64 bit file offsets are automatically used by libgig instead. |
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Note though that due to that circumstance such files >= 2 GB are not backward |
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compatible with older versions of libgig, nor could they be loaded with the |
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original GigaStudio software. |
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Another major new feature in this libgig release is the entirely new |
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serialization API (Serialization.h) which provides a powerful and easy way |
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to serialize and deserialize an arbitrary set of native C++ objects into an |
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abstract data stream. Which means you can simply save the entire runtime state |
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of an application to a file or send it as data over "wire" (i.e. over network |
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or to another process) and restore that runtime state from that data there at |
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any time. In contrast to other C++ serialization frameworks out there, this |
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framework provides two major benefits: |
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1. This serialization framework is designed to be very robust regarding |
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potential versioning changes of the native C++ classes being |
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(de)serialized. So even if the C++ classes have seen massive software |
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changes between the point where they were serialized and the point where |
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they are to be deserialized; for example if class member variables of |
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serialized C++ objects were renamed in meantime, or if variable offsets, or |
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variables' data types had been changed, then the deserialization algorithm |
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can still cope with such common software changes automatically in many |
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cases, that is as long as the deserialization algorithm can "guess" what |
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the changes were exactly. If the serialization framework is unable to |
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automatically detect the precise software changes, then it will abort the |
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deserialization task with an exception and an error message stating that |
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the software versions are incompatible. |
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2. This serialization framework supports "partial" deserialization. That |
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means it not only allows to restore an entire runtime state, but it also |
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allows to only restore an arbitrary desired subset of information |
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from the previously serialized data stream, while leaving all other data |
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of the running C++ objects untouched. The serialization framework also |
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incorporates a reflection API which allows applications to implement |
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convenient editors on top of such serialized data, i.e. allowing end users |
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to pick or alter specific information within the serialized data. |
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The new Serialization framework is already embedded into the gig classes of |
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libgig, and it is used as basis for the new powerful macro features in the |
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gigedit instrument editor application. Refer to the release notes of |
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gigedit 1.1.0 for more information about those new macro features in gigedit. |
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Version 4.0.0 (14 Jul 2015) |
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This major release of libgig adds support for other file formats: |
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SoundFont 2 (.sf2), KORG multi sample instruments (.KSF, .KMP) and AKAI |
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format sounds. The AKAI classes are a fork of Sébastien Métrot's libakai and |
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since it is released under a different license (LGPL) than libgig is (GPL), |
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the AKAI classes are built as separate DLL file. All other classes of those |
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new file formats are built and bundled with the existing libgig DLL. Thanks |
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to Grigor Iliev for his work on the SoundFont 2 classes! Please note that |
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there is currently no support for KORG's .PCG file format yet. That's because |
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this file format changes a lot and is not only dependent to the precise KORG |
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keyboard model, but also to the precise OS version on the same model. And |
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since basic conversion can also be done by just accessing the .KSF and .KMP |
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files (sample data, loop informations), the current classes should be |
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sufficient for many tasks. Adding support for KORG's .PCG files is not |
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planned at the moment. |
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Various new command line tools have been added as well to dump, extract and |
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convert between all those file formats now. Each one of it has a man page, |
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so please refer to the respective man page of the individual command line |
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tool for details. |
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The GigaStudio/Gigasampler classes received a load of fixes during the last |
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six years. And support for features introduced with the last official |
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GigaStudio 4 software (RIP) were added, for instance support for so called |
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"iMIDI Rules". Those rules allow i.e. to trigger notes by MIDI CC and to |
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define a sample set for legato playing style. In the meantime it seems as if |
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the GigaStudio software has seen its last version with GigaStudio 4, because |
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Tascam discontinued this product and the intellectual property of GigaStudio |
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had been sold several times between companies. It is currently not possible |
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to buy a new copy of GigaStudio anymore and we personally don't expect that |
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this situation will ever change. |
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Does this also mean the end of new features for libgig? Not really! Actually |
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we already started to add new features to the GigaStudio/Gigasampler format |
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which never existed with the GigaStudio/Gigasampler software: The most |
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noteworthy new feature added by us is support for real-time instrument |
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scripts. These are little "programs" which you can bundle with your .gig |
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sounds to add a custom behavior to your sounds when playing them with i.e. |
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LinuxSampler. Find out more about this new major feature on: |
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http://doc.linuxsampler.org/Instrument_Scripts/ |
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There are also some more minor extensions to the .gig format, for example |
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support for far more MIDI CC's than originally allowed by the GigaStudio |
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software. Obviously all those custom extensions will not work with any |
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version of the official GigaStudio software, those new features will only |
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work with a recent version of LinuxSampler and gigedit at the moment. |
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Besides those major changes, a load of convenient methods have been added to |
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the existing libgig classes to reduce the overall effort working with all |
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those file formats with software applications based on libgig. |
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Version 3.3.0 (30 Jul 2009) |
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Partial support for MIDI rules, the rest are just bug fixes. |
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Version 3.2.1 (5 Dec 2007) |
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Just some minor performance optimizations. |
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Version 3.2.0 (14 Oct 2007) |
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This release once again comes with a huge bunch of fixes regarding |
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Gigasampler write support. Instrument files created from scratch with |
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libgig can finally be loaded into the Gigasampler application as well. |
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libgig's home has moved! From now on you can find it on: |
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http://www.linuxsampler.org/libgig/ |
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Please update your links and bookmarks! |
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Version 3.1.1 (24 Mar 2007) |
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This is a bugfix release, fixing one important bug regarding gig v3 |
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support (custom split points) and a lot of bugs regarding .gig write |
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support. And this is the first official release for the Windows platform. |
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Version 3.1.0 (24 Nov 2006) |
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libgig's home has moved (slightly) from |
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http://stud.fh-heilbronn.de/~cschoene/projects/libgig/ to |
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http://stud.hs-heilbronn.de/~cschoene/projects/libgig/, please update your |
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links and bookmarks! This is due to the recent renaming of the University |
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of Heilbronn, which kindly hosts this and other projects. |
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Version 3.0.0 (28 Apr 2006) |
Version 3.0.0 (28 Apr 2006) |
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This is the first release which allows to create new and modify existing |
This is the first release which allows to create new and modify existing |
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