CONSTANTS

REL_LT

REL_EQ

REL_GT

REL_ARCH

Special Solvable Ids

SOLVID_META

SOLVID_POS

Constant string Ids

ID_NULL

ID_EMPTY

SOLVABLE_NAME

...

CLASS METHODS

Pool *Pool()
my $pool = solv::Pool->new();
pool = solv.Pool()
pool = Solv::Pool.new()

Create a new pool instance. In most cases you just need one pool. Note that the returned object "owns" the pool, i.e. if the object is freed, the pool is also freed. You can use the disown method to break this ownership relation.

ATTRIBUTES

void *appdata;                  /* read/write */
$pool->{appdata}
pool.appdata
pool.appdata

Application specific data that may be used in any way by the code using the pool.

Solvable solvables[];           /* read only */
my $solvable = $pool->{solvables}->[$solvid];
solvable = pool.solvables[solvid]
solvable = pool.solvables[solvid]

Look up a Solvable by its id.

Repo repos[];                   /* read only */
my $repo = $pool->{repos}->[$repoid];
repo = pool.repos[repoid]
repo = pool.repos[repoid]

Look up a Repository by its id.

Repo *installed;                /* read/write */
$pool->{installed} = $repo;
pool.installed = repo
pool.installed = repo

Define which repository contains all the installed packages.

const char *errstr;             /* read only */
my $err = $pool->{errstr};
err = pool.errstr
err = pool.errstr

Return the last error string that was stored in the pool.

CONSTANTS

POOL_FLAG_FORBIDSELFCONFLICTS

POOL_FLAG_OBSOLETEUSESPROVIDES

POOL_FLAG_IMPLICITOBSOLETEUSESPROVIDES

POOL_FLAG_OBSOLETEUSESCOLORS

POOL_FLAG_IMPLICITOBSOLETEUSESCOLORS

POOL_FLAG_NOINSTALLEDOBSOLETES

POOL_FLAG_HAVEDISTEPOCH

POOL_FLAG_NOOBSOLETESMULTIVERSION

POOL_FLAG_ADDFILEPROVIDESFILTERED

METHODS

void free()
$pool->free();
pool.free()
pool.free()

Force a free of the pool. After this call, you must not access any object that still references the pool.

void disown()
$pool->disown();
pool.disown()
pool.disown()

Break the ownership relation between the binding object and the pool. After this call, the pool will not get freed even if the object goes out of scope. This also means that you must manually call the free method to free the pool data.

void setdebuglevel(int level)
$pool->setdebuglevel($level);
pool.setdebuglevel(level)
pool.setdebuglevel(level)

Set the debug level. A value of zero means no debug output, the higher the value, the more output is generated.

int set_flag(int flag, int value)
my $oldvalue = $pool->set_flag($flag, $value);
oldvalue = pool.set_flag(flag, value)
oldvalue = pool.set_flag(flag, value)

int get_flag(int flag)
my $value = $pool->get_flag($flag);
value = pool.get_flag(flag)
value = pool.get_flag(flag)

Set/get a pool specific flag. The flags define how the system works, e.g. how the package manager treats obsoletes. The default flags should be sane for most applications, but in some cases you may want to tweak a flag, for example if you want to solve package dependencies for some other system.

void set_rootdir(const char *rootdir)
$pool->set_rootdir(rootdir);
pool.set_rootdir(rootdir)
pool.set_rootdir(rootdir)

const char *get_rootdir()
my $rootdir = $pool->get_rootdir();
rootdir = pool.get_rootdir()
rootdir = pool.get_rootdir()

Set/get the rootdir to use. This is useful if you want package management to work only in some directory, for example if you want to setup a chroot jail. Note that the rootdir will only be prepended to file paths if the REPO_USE_ROOTDIR flag is used.

void setarch(const char *arch = 0)
$pool->setarch();
pool.setarch()
pool.setarch()

Set the architecture for your system. The architecture is used to determine which packages are installable. It defaults to the result of “uname -m”.

Repo add_repo(const char *name)
$repo = $pool->add_repo($name);
repo = pool.add_repo(name)
repo = pool.add_repo(name)

Add a Repository with the specified name to the pool. The repository is empty on creation, use the repository methods to populate it with packages.

Repoiterator repos_iter()
for my $repo (@{$pool->repos_iter()})
for repo in pool.repos_iter():
for repo in pool.repos_iter()

Iterate over the existing repositories.

Solvableiterator solvables_iter()
for my $solvable (@{$pool->solvables_iter()})
for solvable in pool.solvables_iter():
for solvable in pool.solvables_iter()

Iterate over the existing solvables.

Dep Dep(const char *str, bool create = 1)
my $dep = $pool->Dep($string);
dep = pool.Dep(string)
dep = pool.Dep(string)

Create an object describing a string or dependency. If the string is currently not in the pool and create is false, undef/None/nil is returned.

void addfileprovides()
$pool->addfileprovides();
pool.addfileprovides()
pool.addfileprovides()

Id *addfileprovides_queue()
my @ids = $pool->addfileprovides_queue();
ids = pool.addfileprovides_queue()
ids = pool.addfileprovides_queue()

Some package managers like rpm allow dependencies on files contained in other packages. To allow libsolv to deal with those dependencies in an efficient way, you need to call the addfileprovides method after creating and reading all repositories. This method will scan all dependency for file names and then scan all packages for matching files. If a filename has been matched, it will be added to the provides list of the corresponding package. The addfileprovides_queue variant works the same way but returns an array containing all file dependencies. This information can be stored in the meta section of the repositories to speed up the next time the repository is loaded and addfileprovides is called.

void createwhatprovides()
$pool->createwhatprovides();
pool.createwhatprovides()
pool.createwhatprovides()

Create the internal “whatprovides” hash over all of the provides of all installable packages. This method must be called before doing any lookups on provides. It’s encouraged to do it right after all repos are set up, usually right after the call to addfileprovides().

Solvable *whatprovides(DepId dep)
my @solvables = $pool->whatprovides($dep);
solvables = pool.whatprovides(dep)
solvables = pool.whatprovides(dep)

Return all solvables that provide the specified dependency. You can use either a Dep object or a simple Id as argument.

Solvable *best_solvables(Solvable *solvables, int flags = 0)
my @solvables = $pool->best_solvables($solvables);
solvables = pool.best_solvables(solvables)
solvables = pool.best_solvables(solvables)

Filter list of solvables by repo priority, architecture and version.

Solvable *whatcontainsdep(Id keyname, DepId dep, Id marker = -1)
my @solvables = $pool->whatcontainsdep($keyname, $dep)
solvables = pool.whatcontainsdep(keyname, dep)
solvables = pool.whatcontainsdep(keyname, dep)

Return all solvables for which keyname contains the dependency.

Solvable *whatmatchesdep(Id keyname, DepId dep, Id marker = -1)
my @solvables = $pool->whatmatchesdep($keyname, $sdep)
solvables = pool.whatmatchesdep(keyname, dep)
solvables = pool.whatmatchesdep(keyname, dep)

Return all solvables that have dependencies in keyname that match the dependency.

Solvable *whatmatchessolvable(Id keyname, Solvable solvable, Id marker = -1)
my @solvables = $pool->whatmatchessolvable($keyname, $solvable)
solvables = pool.whatmatchessolvable(keyname, solvable)
solvables = pool.whatmatchessolvable(keyname, solvable)

Return all solvables that match package dependencies against solvable’s provides.

Id *matchprovidingids(const char *match, int flags)
my @ids = $pool->matchprovidingids($match, $flags);
ids = pool.matchprovidingids(match, flags)
ids = pool.matchprovidingids(match, flags)

Search the names of all provides and return the ones matching the specified string. See the Dataiterator class for the allowed flags.

Id towhatprovides(Id *ids)
my $offset = $pool->towhatprovides(\@ids);
offset = pool.towhatprovides(ids)
offset = pool.towhatprovides(ids)

“Internalize” an array containing Ids. The returned value can be used to create solver jobs working on a specific set of packages. See the Solver class for more information.

void set_namespaceproviders(DepId ns, DepId evr, bool value = 1)
$pool->set_namespaceproviders($ns, $evr, 1);
pool.set_namespaceproviders(ns, evr, True)
pool.set_namespaceproviders(ns, evr, true)

Manually set a namespace provides entry in the whatprovides index.

void flush_namespaceproviders(DepId ns, DepId evr)
$pool->flush_namespaceproviders($ns, $evr);
$pool.flush_namespaceproviders(ns, evr)
$pool.flush_namespaceproviders(ns, evr)

Flush the cache of all namespaceprovides matching the specified namespace dependency. You can use zero as a wildcard argument.

bool isknownarch(DepId id)
my $bool = $pool->isknownarch($id);
bool = pool.isknownarch(id)
bool = pool.isknownarch?(id)

Return true if the specified Id describes a known architecture.

Solver Solver()
my $solver = $pool->Solver();
solver = pool.Solver()
solver = pool.Solver()

Create a new solver object.

Job Job(int how, Id what)
my $job = $pool->Job($how, $what);
job = pool.Job(how, what)
job = pool.Job(how, what)

Create a new Job object. Kind of low level, in most cases you would instead use a Selection or Dep job constructor.

Selection Selection()
my $sel = $pool->Selection();
sel = pool.Selection()
sel = pool.Selection()

Create an empty selection. Useful as a starting point for merging other selections.

Selection Selection_all()
my $sel = $pool->Selection_all();
sel = pool.Selection_all()
sel = pool.Selection_all()

Create a selection containing all packages. Useful as starting point for intersecting other selections or for update/distupgrade jobs.

Selection select(const char *name, int flags)
my $sel = $pool->select($name, $flags);
sel = pool.select(name, flags)
sel = pool.select(name, flags)

Create a selection by matching packages against the specified string. See the Selection class for a list of flags and how to create solver jobs from a selection.

Selection matchdeps(const char *name, int flags, Id keyname, Id marker = -1)
my $sel = $pool->matchdeps($name, $flags, $keyname);
sel = pool.matchdeps(name, flags, keyname)
sel = pool.matchdeps(name, flags, keyname)

Create a selection by matching package dependencies against the specified string. This can be used if you want to match other dependency types than “provides”.

Selection matchdepid(DepId dep, int flags, Id keyname, Id marker = -1)
my $sel = $pool->matchdepid($dep, $flags, $keyname);
sel = pool.matchdepid(dep, flags, keyname)
sel = pool.matchdepid(dep, flags, keyname)

Create a selection by matching package dependencies against the specified dependency. This may be faster than matchdeps and also works with complex dependencies. The downside is that you cannot use globs or case insensitive matching.

Selection matchsolvable(Solvable solvable, int flags, Id keyname, Id marker = -1)
my $sel = $pool->matchsolvable($solvable, $flags, $keyname);
sel = pool.matchsolvable(solvable, flags, keyname)
sel = pool.matchsolvable(solvable, flags, keyname)

Create a selection by matching package dependencies against the specified solvable’s provides.

void setpooljobs(Jobs *jobs)
$pool->setpooljobs(\@jobs);
pool.setpooljobs(jobs)
pool.setpooljobs(jobs)

Job *getpooljobs()
@jobs = $pool->getpooljobs();
jobs = pool.getpooljobs()
jobs = pool.getpooljobs()

Get/Set fixed jobs stored in the pool. Those jobs are automatically appended to all solver jobs, they are meant for fixed configurations like which packages can be multiversion installed, which packages were userinstalled, or which packages must not be erased.

void set_loadcallback(Callable *callback)
$pool->setloadcallback(\&callbackfunction);
pool.setloadcallback(callbackfunction)
pool.setloadcallback { |repodata| ... }

Set the callback function called when repository metadata needs to be loaded on demand. To make use of this feature, you need to create repodata stubs that tell the library which data is available but not loaded. If later on the data needs to be accessed, the callback function is called with a repodata argument. You can then load the data (maybe fetching it first from a remote server). The callback should return true if the data has been made available.

/* bindings only */
$pool->appdata_disown()
pool.appdata_disown()
pool.appdata_disown()

Decrement the reference count of the appdata object. This can be used to break circular references (e.g. if the pool’s appdata value points to some meta data structure that contains a pool handle). If used incorrectly, this method can lead to application crashes, so beware. (This method is a no-op for ruby and tcl.)

Id *get_considered_list()
my @ids = $pool->get_considered_list();
ids = pool.get_considered_list()
ids = pool.get_considered_list()

void set_considered_list(Id *ids)
$pool->set_considered_list(\@ids);
pool.set_considered_list(ids)
pool.set_considered_list(ids)

Get/set the list of solvables that are eligible for installation. Note that you need to recreate the whatprovides hash after changing the list.

Id *get_disabled_list()
my @ids = $pool->get_disabled_list();
ids = pool.get_disabled_list()
ids = pool.get_disabled_list()

void set_disabled_list(Id *ids)
$pool->set_disabled_list(\@ids);
pool.set_disabled_list(ids)
pool.set_disabled_list(ids)

Get/set the list of solvables that are not eligible for installation. This is basically the inverse of the “considered” methods above, i.e. calling “set_disabled_list()” with an empty list will make all solvables eligible for installation. Note you need to recreate the whatprovides hash after changing the list.

DATA RETRIEVAL METHODS

$solv::SOLVABLE_SUMMARY
solv.SOLVABLE_SUMMARY
Solv::SOLVABLE_SUMMARY

selects the “Summary” entry of a solvable. The solvid argument selects the desired solvable by Id.

const char *lookup_str(Id solvid, Id keyname)
my $string = $pool->lookup_str($solvid, $keyname);
string = pool.lookup_str(solvid, keyname)
string = pool.lookup_str(solvid, keyname)

Id lookup_id(Id solvid, Id keyname)
my $id = $pool->lookup_id($solvid, $keyname);
id = pool.lookup_id(solvid, keyname)
id = pool.lookup_id(solvid, keyname)

unsigned long long lookup_num(Id solvid, Id keyname, unsigned long long notfound = 0)
my $num = $pool->lookup_num($solvid, $keyname);
num = pool.lookup_num(solvid, keyname)
num = pool.lookup_num(solvid, keyname)

bool lookup_void(Id solvid, Id keyname)
my $bool = $pool->lookup_void($solvid, $keyname);
bool = pool.lookup_void(solvid, keyname)
bool = pool.lookup_void(solvid, keyname)

Id *lookup_idarray(Id solvid, Id keyname)
my @ids = $pool->lookup_idarray($solvid, $keyname);
ids = pool.lookup_idarray(solvid, keyname)
ids = pool.lookup_idarray(solvid, keyname)

Chksum lookup_checksum(Id solvid, Id keyname)
my $chksum = $pool->lookup_checksum($solvid, $keyname);
chksum = pool.lookup_checksum(solvid, keyname)
chksum = pool.lookup_checksum(solvid, keyname)

Lookup functions. Return the data element stored in the specified solvable. You should probably use the methods of the Solvable class instead.

Dataiterator Dataiterator(Id keyname, const char *match = 0, int flags = 0)
my $di = $pool->Dataiterator($keyname, $match, $flags);
di = pool.Dataiterator(keyname, match, flags)
di = pool.Dataiterator(keyname, match, flags)

Dataiterator Dataiterator_solvid(Id solvid, Id keyname, const char *match = 0, int flags = 0)
my $di = $pool->Dataiterator($solvid, $keyname, $match, $flags);
di = pool.Dataiterator(solvid, keyname, match, flags)
di = pool.Dataiterator(solvid, keyname, match, flags)

for my $d (@$di)
for d in di:
for d in di

Iterate over the matching data elements. See the Dataiterator class for more information. The Dataiterator method iterates over all solvables in the pool, whereas the Dataiterator_solvid only iterates over the specified solvable.

ID METHODS

Repo id2repo(Id id)
$repo = $pool->id2repo($id);
repo = pool.id2repo(id)
repo = pool.id2repo(id)

Lookup an existing Repository by id. You can also do this by using the repos attribute.

Solvable id2solvable(Id id)
$solvable = $pool->id2solvable($id);
solvable = pool.id2solvable(id)
solvable = pool.id2solvable(id)

Lookup an existing Repository by id. You can also do this by using the solvables attribute.

const char *solvid2str(Id id)
my $str = $pool->solvid2str($id);
str = pool.solvid2str(id)
str = pool.solvid2str(id)

Return a string describing the Solvable with the specified id. The string consists of the name, version, and architecture of the Solvable.

Id str2id(const char *str, bool create = 1)
my $id = pool->str2id($string);
id = pool.str2id(string)
id = pool.str2id(string)

const char *id2str(Id id)
$string = pool->id2str($id);
string = pool.id2str(id)
string = pool.id2str(id)

Convert a string into an Id and back. If the string is currently not in the pool and create is false, zero is returned.

Id rel2id(Id name, Id evr, int flags, bool create = 1)
my $id = pool->rel2id($nameid, $evrid, $flags);
id = pool.rel2id(nameid, evrid, flags)
id = pool.rel2id(nameid, evrid, flags)

Create a “relational” dependency. Such dependencies consist of a name part, flags describing the relation, and a version part. The flags are:

$solv::REL_EQ | $solv::REL_GT | $solv::REL_LT
solv.REL_EQ | solv.REL_GT | solv.REL_LT
Solv::REL_EQ | Solv::REL_GT | Solv::REL_LT

Thus, if you want a “<=” relation, you would use REL_LT | REL_EQ.

Id id2langid(Id id, const char *lang, bool create = 1)
my $id = $pool->id2langid($id, $language);
id = pool.id2langid(id, language)
id = pool.id2langid(id, language)

Create a language specific Id from some other id. This function simply converts the id into a string, appends a dot and the specified language to the string and converts the result back into an Id.

const char *dep2str(Id id)
$string = pool->dep2str($id);
string = pool.dep2str(id)
string = pool.dep2str(id)

Convert a dependency id into a string. If the id is just a string, this function has the same effect as id2str(). For relational dependencies, the result is the correct “name relation evr” string.

ATTRIBUTES

Pool *pool;             /* read only */
$dep->{pool}
dep.pool
dep.pool

Back reference to the pool this dependency belongs to.

Id id;          /* read only */
$dep->{id}
dep.id
dep.id

The id of this dependency.

METHODS

Dep Rel(int flags, DepId evrid, bool create = 1)
my $reldep = $dep->Rel($flags, $evrdep);
reldep = dep.Rel(flags, evrdep)
reldep = dep.Rel(flags, evrdep)

Create a relational dependency from the caller dependency, the flags, and a dependency describing the “version” part. See the pool’s rel2id method for a description of the flags.

Selection Selection_name(int setflags = 0)
my $sel = $dep->Selection_name();
sel = dep.Selection_name()
sel = dep.Selection_name()

Create a Selection from a dependency. The selection consists of all packages that have a name equal to the dependency. If the dependency is of a relational type, the packages version must also fulfill the dependency.

Selection Selection_provides(int setflags = 0)
my $sel = $dep->Selection_provides();
sel = dep.Selection_provides()
sel = dep.Selection_provides()

Create a Selection from a dependency. The selection consists of all packages that have at least one provides matching the dependency.

const char *str()
my $str = $dep->str();
str = $dep.str()
str = $dep.str()

Return a string describing the dependency.

<stringification>
my $str = $dep->str;
str = str(dep)
str = dep.to_s

Same as calling the str() method.

<equality>
if ($dep1 == $dep2)
if dep1 == dep2:
if dep1 == dep2

Two dependencies are equal if they are part of the same pool and have the same ids.

ATTRIBUTES

Pool *pool;                     /* read only */
$repo->{pool}
repo.pool
repo.pool

Back reference to the pool this dependency belongs to.

Id id;                          /* read only */
$repo->{id}
repo.id
repo.id

The id of the repository.

const char *name;               /* read/write */
$repo->{name}
repo.name
repo.name

The repositories name. To libsolv, the name is just a string with no specific meaning.

int priority;                   /* read/write */
$repo->{priority}
repo.priority
repo.priority

The priority of the repository. A higher number means that packages of this repository will be chosen over other repositories, even if they have a greater package version.

int subpriority;                /* read/write */
$repo->{subpriority}
repo.subpriority
repo.subpriority

The sub-priority of the repository. This value is compared when the priorities of two repositories are the same. It is useful to make the library prefer on-disk repositories to remote ones.

int nsolvables;                 /* read only */
$repo->{nsolvables}
repo.nsolvables
repo.nsolvables

The number of solvables in this repository.

void *appdata;                  /* read/write */
$repo->{appdata}
repo.appdata
repo.appdata

Application specific data that may be used in any way by the code using the repository.

Datapos *meta;                  /* read only */
$repo->{meta}
repo.meta
repo.meta

Return a Datapos object of the repodata’s metadata. You can use the lookup methods of the Datapos class to lookup metadata attributes, like the repository timestamp.

CONSTANTS

REPO_NO_INTERNALIZE

REPO_LOCALPOOL

REPO_USE_LOADING

REPO_EXTEND_SOLVABLES

REPO_USE_ROOTDIR

REPO_NO_LOCATION

SOLV_ADD_NO_STUBS

SUSETAGS_RECORD_SHARES

METHODS

void free(bool reuseids = 0)
$repo->free();
repo.free()
repo.free()

Free the repository and all solvables it contains. If reuseids is set to true, the solvable ids and the repository id may be reused by the library when added new solvables. Thus you should leave it false if you are not sure that somebody holds a reference.

void empty(bool reuseids = 0)
$repo->empty();
repo.empty()
repo.empty()

Free all the solvables in a repository. The repository will be empty after this call. See the free() method for the meaning of reuseids.

bool isempty()
$repo->isempty()
repo.empty()
repo.empty?

Return true if there are no solvables in this repository.

void internalize()
$repo->internalize();
repo.internalize()
repo.internalize()

Internalize added data. Data must be internalized before it is available to the lookup and data iterator functions.

bool write(FILE *fp)
$repo->write($fp)
repo.write(fp)
repo.write(fp)

Write a repo as a “solv” file. These files can be read very fast and thus are a good way to cache repository data. Returns false if there was some error writing the file.

Solvableiterator solvables_iter()
for my $solvable (@{$repo->solvables_iter()})
for solvable in repo.solvables_iter():
for solvable in repo.solvables_iter()

Iterate over all solvables in a repository.

Repodata add_repodata(int flags = 0)
my $repodata = $repo->add_repodata();
repodata = repo.add_repodata()
repodata = repo.add_repodata()

Add a new repodata area to the repository. This is normally automatically done by the repo_add methods, so you need this method only in very rare circumstances.

void create_stubs()
$repo->create_stubs();
repo.create_stubs()
repo.create_stubs()

Calls the create_stubs() repodata method for the last repodata of the repository.

bool iscontiguous()
$repo->iscontiguous()
repo.iscontiguous()
repo.iscontiguous?

Return true if the solvables of this repository are all in a single block with no holes, i.e. they have consecutive ids.

Repodata first_repodata()
my $repodata = $repo->first_repodata();
repodata = repo.first_repodata()
repodata = repo.first_repodata()

Checks if all repodatas but the first repodata are extensions, and return the first repodata if this is the case. Useful if you want to do a store/retrieve sequence on the repository to reduce the memory using and enable paging, as this does not work if the repository contains multiple non-extension repodata areas.

Selection Selection(int setflags = 0)
my $sel = $repo->Selection();
sel = repo.Selection()
sel = repo.Selection()

Create a Selection consisting of all packages in the repository.

Dataiterator Dataiterator(Id key, const char *match = 0, int flags = 0)
my $di = $repo->Dataiterator($keyname, $match, $flags);
di = repo.Dataiterator(keyname, match, flags)
di = repo.Dataiterator(keyname, match, flags)

Dataiterator Dataiterator_meta(Id key, const char *match = 0, int flags = 0)
my $di = $repo->Dataiterator_meta($keyname, $match, $flags);
di = repo.Dataiterator_meta(keyname, match, flags)
di = repo.Dataiterator_meta(keyname, match, flags)

for my $d (@$di)
for d in di:
for d in di

Iterate over the matching data elements in this repository. See the Dataiterator class for more information. The Dataiterator() method iterates over all solvables in a repository, whereas the Dataiterator_meta method only iterates over the repository’s meta data.

<stringification>
my $str = $repo->str;
str = str(repo)
str = repo.to_s

Return the name of the repository, or "Repo#<id>" if no name is set.

<equality>
if ($repo1 == $repo2)
if repo1 == repo2:
if repo1 == repo2

Two repositories are equal if they belong to the same pool and have the same id.

DATA ADD METHODS

Solvable add_solvable()
$repo->add_solvable();
repo.add_solvable()
repo.add_solvable()

Add a single empty solvable to the repository. Returns a Solvable object, see the Solvable class for more information.

bool add_solv(const char *name, int flags = 0)
$repo->add_solv($name);
repo.add_solv(name)
repo.add_solv(name)

bool add_solv(FILE *fp, int flags = 0)
$repo->add_solv($fp);
repo.add_solv(fp)
repo.add_solv(fp)

Read a “solv” file and add its contents to the repository. These files can be written with the write() method and are normally used as fast cache for repository metadata.

bool add_rpmdb(int flags = 0)
$repo->add_rpmdb();
repo.add_rpmdb()
repo.add_rpmdb()

bool add_rpmdb_reffp(FILE *reffp, int flags = 0)
$repo->add_rpmdb_reffp($reffp);
repo.add_rpmdb_reffp(reffp)
repo.add_rpmdb_reffp(reffp)

Add the contents of the rpm database to the repository. If a solv file containing an old version of the database is available, it can be passed as reffp to speed up reading.

Solvable add_rpm(const char *filename, int flags = 0)
my $solvable = $repo->add_rpm($filename);
solvable = repo.add_rpm(filename)
solvable = repo.add_rpm(filename)

Add the metadata of a single rpm package to the repository.

bool add_rpmdb_pubkeys(int flags = 0)
$repo->add_rpmdb_pubkeys();
repo.add_rpmdb_pubkeys()
repo.add_rpmdb_pubkeys()

Add all pubkeys contained in the rpm database to the repository. Note that newer rpm versions also allow to store the pubkeys in some directory instead of the rpm database.

Solvable add_pubkey(const char *keyfile, int flags = 0)
my $solvable = $repo->add_pubkey($keyfile);
solvable = repo.add_pubkey(keyfile)
solvable = repo.add_pubkey(keyfile)

Add a pubkey from a file to the repository.

bool add_rpmmd(FILE *fp, const char *language, int flags = 0)
$repo->add_rpmmd($fp, undef);
repo.add_rpmmd(fp, None)
repo.add_rpmmd(fp, nil)

Add metadata stored in the "rpm-md" format (i.e. from files in the “repodata” directory) to a repository. Supported files are "primary", "filelists", "other", "suseinfo". Do not forget to specify the REPO_EXTEND_SOLVABLES for extension files like "filelists" and "other". Use the language parameter if you have language extension files, otherwise simply use a undef/None/nil parameter.

bool add_repomdxml(FILE *fp, int flags = 0)
$repo->add_repomdxml($fp);
repo.add_repomdxml(fp)
repo.add_repomdxml(fp)

Add the repomd.xml meta description from the "rpm-md" format to the repository. This file contains information about the repository like keywords, and also a list of all database files with checksums. The data is added to the "meta" section of the repository, i.e. no package gets created.

bool add_updateinfoxml(FILE *fp, int flags = 0)
$repo->add_updateinfoxml($fp);
repo.add_updateinfoxml(fp)
repo.add_updateinfoxml(fp)

Add the updateinfo.xml file containing available maintenance updates to the repository. All updates are created as special packages that have a "patch:" prefix in their name.

bool add_deltainfoxml(FILE *fp, int flags = 0)
$repo->add_deltainfoxml($fp);
repo.add_deltainfoxml(fp)
repo.add_deltainfoxml(fp)

Add the deltainfo.xml file (also called prestodelta.xml) containing available delta-rpms to the repository. The data is added to the "meta" section, i.e. no package gets created.

bool add_debdb(int flags = 0)
$repo->add_debdb();
repo.add_debdb()
repo.add_debdb()

Add the contents of the debian installed package database to the repository.

bool add_debpackages(FILE *fp, int flags = 0)
$repo->add_debpackages($fp);
repo.add_debpackages($fp)
repo.add_debpackages($fp)

Add the contents of the debian repository metadata (the "packages" file) to the repository.

Solvable add_deb(const char *filename, int flags = 0)
my $solvable = $repo->add_deb($filename);
solvable = repo.add_deb(filename)
solvable = repo.add_deb(filename)

Add the metadata of a single deb package to the repository.

bool add_mdk(FILE *fp, int flags = 0)
$repo->add_mdk($fp);
repo.add_mdk(fp)
repo.add_mdk(fp)

Add the contents of the mageia/mandriva repository metadata (the "synthesis.hdlist" file) to the repository.

bool add_mdk_info(FILE *fp, int flags = 0)
$repo->add_mdk_info($fp);
repo.add_mdk_info(fp)
repo.add_mdk_info(fp)

Extend the packages from the synthesis file with the info.xml and files.xml data. Do not forget to specify REPO_EXTEND_SOLVABLES.

bool add_arch_repo(FILE *fp, int flags = 0)
$repo->add_arch_repo($fp);
repo.add_arch_repo(fp)
repo.add_arch_repo(fp)

Add the contents of the archlinux repository metadata (the ".db.tar" file) to the repository.

bool add_arch_local(const char *dir, int flags = 0)
$repo->add_arch_local($dir);
repo.add_arch_local(dir)
repo.add_arch_local(dir)

Add the contents of the archlinux installed package database to the repository. The dir parameter is usually set to "/var/lib/pacman/local".

bool add_content(FILE *fp, int flags = 0)
$repo->add_content($fp);
repo.add_content(fp)
repo.add_content(fp)

Add the “content” meta description from the susetags format to the repository. This file contains information about the repository like keywords, and also a list of all database files with checksums. The data is added to the "meta" section of the repository, i.e. no package gets created.

bool add_susetags(FILE *fp, Id defvendor, const char *language, int flags = 0)
$repo->add_susetags($fp, $defvendor, $language);
repo.add_susetags(fp, defvendor, language)
repo.add_susetags(fp, defvendor, language)

Add repository metadata in the susetags format to the repository. Like with add_rpmmd, you can specify a language if you have language extension files. The defvendor parameter provides a default vendor for packages with missing vendors, it is usually provided in the content file.

bool add_products(const char *dir, int flags = 0)
$repo->add_products($dir);
repo.add_products(dir)
repo.add_products(dir)

Add the installed SUSE products database to the repository. The dir parameter is usually "/etc/products.d".

ATTRIBUTES

Repo *repo;                     /* read only */
$solvable->{repo}
solvable.repo
solvable.repo

The repository this solvable belongs to.

Pool *pool;                     /* read only */
$solvable->{pool}
solvable.pool
solvable.pool

The pool this solvable belongs to, same as the pool of the repo.

Id id;                          /* read only */
$solvable->{id}
solvable.id
solvable.id

The specific id of the solvable.

char *name;                     /* read/write */
$solvable->{name}
solvable.name
solvable.name

char *evr;                      /* read/write */
$solvable->{evr}
solvable.evr
solvable.evr

char *arch;                     /* read/write */
$solvable->{arch}
solvable.arch
solvable.arch

char *vendor;                   /* read/write */
$solvable->{vendor}
solvable.vendor
solvable.vendor

Easy access to often used attributes of solvables. They are internally stored as Ids.

Id nameid;                      /* read/write */
$solvable->{nameid}
solvable.nameid
solvable.nameid

Id evrid;                       /* read/write */
$solvable->{evrid}
solvable.evrid
solvable.evrid

Id archid;                      /* read/write */
$solvable->{archid}
solvable.archid
solvable.archid

Id vendorid;                    /* read/write */
$solvable->{vendorid}
solvable.vendorid
solvable.vendorid

Raw interface to the ids. Useful if you want to search for a specific id and want to avoid the string compare overhead.

METHODS

const char *lookup_str(Id keyname)
my $string = $solvable->lookup_str($keyname);
string = solvable.lookup_str(keyname)
string = solvable.lookup_str(keyname)

Id lookup_id(Id keyname)
my $id = $solvable->lookup_id($keyname);
id = solvable.lookup_id(keyname)
id = solvable.lookup_id(keyname)

unsigned long long lookup_num(Id keyname, unsigned long long notfound = 0)
my $num = $solvable->lookup_num($keyname);
num = solvable.lookup_num(keyname)
num = solvable.lookup_num(keyname)

bool lookup_void(Id keyname)
my $bool = $solvable->lookup_void($keyname);
bool = solvable.lookup_void(keyname)
bool = solvable.lookup_void(keyname)

Chksum lookup_checksum(Id keyname)
my $chksum = $solvable->lookup_checksum($keyname);
chksum = solvable.lookup_checksum(keyname)
chksum = solvable.lookup_checksum(keyname)

Id *lookup_idarray(Id keyname, Id marker = -1)
my @ids = $solvable->lookup_idarray($keyname);
ids = solvable.lookup_idarray(keyname)
ids = solvable.lookup_idarray(keyname)

Dep *lookup_deparray(Id keyname, Id marker = -1)
my @deps = $solvable->lookup_deparray($keyname);
deps = solvable.lookup_deparray(keyname)
deps = solvable.lookup_deparray(keyname)

Generic lookup methods. Retrieve data stored for the specific keyname. The lookup_idarray() method will return an array of Ids, use lookup_deparray if you want an array of Dependency objects instead. Some Id arrays contain two parts of data divided by a specific marker, for example the provides array uses the SOLVABLE_FILEMARKER id to store both the ids provided by the package and the ids added by the addfileprovides method. The default, -1, translates to the correct marker for the keyname and returns the first part of the array, use 1 to select the second part or 0 to retrieve all ids including the marker.

const char *lookup_location(unsigned int *OUTPUT);
my ($location, $mediano) = $solvable->lookup_location();
location, mediano = solvable.lookup_location()
location, mediano = solvable.lookup_location()

Return a tuple containing the on-media location and an optional media number for multi-part repositories (e.g. repositories spawning multiple DVDs).

const char *lookup_sourcepkg();
my $sourcepkg = $solvable->lookup_sourcepkg();
sourcepkg = solvable.lookup_sourcepkg()
sourcepkg = solvable.lookup_sourcepkg()

Return a sourcepkg name associated with solvable.

Dataiterator Dataiterator(Id keyname, const char *match = 0, int flags = 0)
my $di = $solvable->Dataiterator($keyname, $match, $flags);
di = solvable.Dataiterator(keyname, match, flags)
di = solvable.Dataiterator(keyname, match, flags)

for my $d (@$di)
for d in di:
for d in di

Iterate over the matching data elements. See the Dataiterator class for more information.

void add_deparray(Id keyname, DepId dep, Id marker = -1);
$solvable->add_deparray($keyname, $dep);
solvable.add_deparray(keyname, dep)
solvable.add_deparray(keyname, dep)

Add a new dependency to the attributes stored in keyname.

void unset(Id keyname);
$solvable->unset($keyname);
solvable.unset(keyname)
solvable.unset(keyname)

Delete data stored for the specific keyname.

bool installable();
$solvable->installable()
solvable.installable()
solvable.installable?

Return true if the solvable is installable on the system. Solvables are not installable if the system does not support their architecture.

bool isinstalled();
$solvable->isinstalled()
solvable.isinstalled()
solvable.isinstalled?

Return true if the solvable is installed on the system.

bool identical(Solvable *other)
$solvable->identical($other)
solvable.identical(other)
solvable.identical?(other)

Return true if the two solvables are identical.

int evrcmp(Solvable *other)
$solvable->evrcmp($other)
solvable.evrcmp(other)
solvable.evrcmp(other)

Returns -1 if the epoch/version/release of the solvable is less than the one from the other solvable, 1 if it is greater, and 0 if they are equal. Note that "equal" does not mean that the evr is identical.

int matchesdep(Id keyname, DepId id, Id marker = -1)
$solvable->matchesdep($keyname, $dep)
solvable.matchesdep(keyname, dep)
solvable.matchesdep?(keyname, dep)

Return true if the dependencies stored in keyname match the specified dependency.

Selection Selection(int setflags = 0)
my $sel = $solvable->Selection();
sel = solvable.Selection()
sel = solvable.Selection()

Create a Selection containing just the single solvable.

const char *str()
my $str = $solvable->str();
str = $solvable.str()
str = $solvable.str()

Return a string describing the solvable. The string consists of the name, version, and architecture of the Solvable.

<stringification>
my $str = $solvable->str;
str = str(solvable)
str = solvable.to_s

Same as calling the str() method.

<equality>
if ($solvable1 == $solvable2)
if solvable1 == solvable2:
if solvable1 == solvable2

Two solvables are equal if they are part of the same pool and have the same ids.

CONSTANTS

SEARCH_STRINGSTART

SEARCH_STRINGEND

SEARCH_SUBSTRING

SEARCH_GLOB

SEARCH_REGEX

SEARCH_NOCASE

SEARCH_FILES

SEARCH_COMPLETE_FILELIST

SEARCH_CHECKSUMS

METHODS

void prepend_keyname(Id keyname);
$di->prepend_keyname($keyname);
di.prepend_keyname(keyname)
di.prepend_keyname(keyname)

Do a sub-search in the array stored in keyname.

void skip_solvable();
$di->skip_solvable();
di.skip_solvable()
di.skip_solvable()

Stop matching the current solvable and advance to the next one.

<iteration>
for my $d (@$di)
for d in di:
for d in di

Iterate through the matches. If there is a match, the object in d will be of type Datamatch.

ATTRIBUTES

Pool *pool;                             /* read only */
$d->{pool}
d.pool
d.pool

Back pointer to pool.

Repo *repo;                             /* read only */
$d->{repo}
d.repo
d.repo

The repository containing the matched object.

Solvable *solvable;                     /* read only */
$d->{solvable}
d.solvable
d.solvable

The solvable containing the value that was matched.

Id solvid;                              /* read only */
$d->{solvid}
d.solvid
d.solvid

The id of the solvable that matched.

Id key_id;
$d->{key_id}
d.key_id
d.key_id

const char *key_idstr;
$d->{key_idstr}
d.key_idstr
d.key_idstr

The keyname that matched, either as id or string.

Id type_id;
$d->{type_id}
d.type_id
d.type_id

const char *type_idstr;
$d->{type_idstr};
d.type_idstr
d.type_idstr

The key type of the value that was matched, either as id or string.

Id id;
$d->{id}
d.id
d.id

Id idstr;
$d->{idstr}
d.idstr
d.idstr

The Id of the value that was matched (only valid for id types), either as id or string.

const char *str;
$d->{str}
d.str
d.str

The string value that was matched (only valid for string types).

unsigned long long num;
$d->{num}
d.num
d.num

The numeric value that was matched (only valid for numeric types).

unsigned int num2;
$d->{num2}
d.num2
d.num2

The secondary numeric value that was matched (only valid for types containing two values).

unsigned int binary;
$d->{binary}
d.binary
d.binary

The value in binary form, useful for checksums and other data that cannot be represented as a string.

METHODS

Datapos pos();
my $pos = $d->pos();
pos = d.pos()
pos = d.pos()

The position object of the current match. It can be used to do sub-searches starting at the match (if it is of an array type). See the Datapos class for more information.

Datapos parentpos();
my $pos = $d->parentpos();
pos = d.parentpos()
pos = d.parentpos()

The position object of the array containing the current match. It can be used to do sub-searches, see the Datapos class for more information.

<stringification>
my $str = $d->str;
str = str(d)
str = d.to_s

Return the stringification of the matched value. Stringification depends on the search flags, for file list entries it will return just the base name unless SEARCH_FILES is used, for checksums it will return an empty string unless SEARCH_CHECKSUMS is used. Numeric values are currently stringified to an empty string.

CONSTANTS

SELECTION_PROVIDES

SELECTION_FILELIST

SELECTION_CANON

SELECTION_DOTARCH

SELECTION_REL

SELECTION_GLOB

SELECTION_NOCASE

SELECTION_FLAT

SELECTION_SKIP_KIND

SELECTION_MATCH_DEPSTR

SELECTION_INSTALLED_ONLY

SELECTION_SOURCE_ONLY

SELECTION_WITH_SOURCE

SELECTION_WITH_DISABLED

SELECTION_WITH_BADARCH

SELECTION_WITH_ALL

SELECTION_ADD

SELECTION_SUBTRACT

SELECTION_FILTER

ATTRIBUTES

Pool *pool;                             /* read only */
$d->{pool}
d.pool
d.pool

Back pointer to pool.

int flags;                              /* read only */
$sel->{flags}
flags = sel.flags
flags = sel.flags

The result flags of the selection. The flags are a subset of the ones used when creating the selection, they describe which method was used to get the result. For example, if you create the selection with “SELECTION_NAME | SELECTION_PROVIDES”, the resulting flags will either be SELECTION_NAME or SELECTION_PROVIDES depending if there was a package that matched the name or not. If there was no match at all, the flags will be zero.

METHODS

bool isempty()
$sel->isempty()
sel.isempty()
sel.isempty?

Return true if the selection is empty, i.e. no package could be matched.

Selection clone(int flags = 0)
my $cloned = $sel->clone();
cloned = sel.clone()
cloned = sel.clone()

Return a copy of a selection.

void filter(Selection *other)
$sel->filter($other);
sel.filter(other)
sel.filter(other)

Intersect two selections. Packages will only stay in the selection if there are also included in the other selecting. Does an in-place modification.

void add(Selection *other)
$sel->add($other);
sel.add(other)
sel.add(other)

Build the union of two selections. All packages of the other selection will be added to the set of packages of the selection object. Does an in-place modification. Note that the selection flags are no longer meaningful after the add operation.

void subtract(Selection *other)
$sel->subtract($other);
sel.subtract(other)
sel.subtract(other)

Remove the packages of the other selection from the packages of the selection object. Does an in-place modification.

void add_raw(Id how, Id what)
$sel->add_raw($how, $what);
sel.add_raw(how, what)
sel.add_raw(how, what)

Add a raw element to the selection. Check the Job class for information about the how and what parameters. Note that the selection flags are no longer meaningful after the add_raw operation.

Job *jobs(int action)
my @jobs = $sel->jobs($action);
jobs = sel.jobs(action)
jobs = sel.jobs(action)

Convert a selection into an array of Job objects. The action parameter is or-ed to the “how” part of the job, it describes the type of job (e.g. install, erase). See the Job class for the action and action modifier constants.

Solvable *solvables()
my @solvables = $sel->solvables();
solvables = sel.solvables()
solvables = sel.solvables()

Convert a selection into an array of Solvable objects.

void select(const char *name, int flags)
$sel->select($name, $flags);
sel.select(name, flags)
sel.select(name, flags)

Do a select operation and combine the result with the current selection. You can choose the desired combination method by using either the SELECTION_ADD, SELECTION_SUBTRACT, or SELECTION_FILTER flag. If none of the flags are used, SELECTION_FILTER|SELECTION_WITH_ALL is assumed.

void matchdeps(const char *name, int flags, Id keyname, Id marker = -1)
$sel->matchdeps($name, $flags, $keyname);
sel.matchdeps(name, flags, keyname)
sel.matchdeps(name, flags, keyname)

Do a matchdeps operation and combine the result with the current selection.

void matchdepid(DepId dep, int flags, Id keyname, Id marker = -1)
$sel->matchdepid($dep, $flags, $keyname);
sel.matchdepid(dep, flags, keyname)
sel.matchdepid(dep, flags, keyname)

Do a matchdepid operation and combine the result with the current selection.

void matchsolvable(Solvable solvable, int flags, Id keyname, Id marker = -1)
$sel->matchsolvable($solvable, $flags, $keyname);
sel.matchsolvable(solvable, flags, keyname)
sel.matchsolvable(solvable, flags, keyname)

Do a matchsolvable operation and combine the result with the current selection.

<stringification>
my $str = $sel->str;
str = str(sel)
str = sel.to_s

Return a string describing the selection.

CONSTANTS

SOLVER_SOLVABLE

SOLVER_SOLVABLE_NAME

SOLVER_SOLVABLE_PROVIDES

SOLVER_SOLVABLE_ONE_OF

SOLVER_SOLVABLE_REPO

SOLVER_SOLVABLE_ALL

SOLVER_SOLVABLE_SELECTMASK

Action constants:

SOLVER_NOOP

SOLVER_INSTALL

SOLVER_ERASE

SOLVER_UPDATE

SOLVER_WEAKENDEPS

SOLVER_MULTIVERSION

SOLVER_LOCK

SOLVER_DISTUPGRADE

SOLVER_DROP_ORPHANED

SOLVER_VERIFY

SOLVER_USERINSTALLED

SOLVER_ALLOWUNINSTALL

SOLVER_FAVOR

SOLVER_DISFAVOR

SOLVER_JOBMASK

Action modifier constants:

SOLVER_WEAK

SOLVER_ESSENTIAL

SOLVER_CLEANDEPS

SOLVER_FORCEBEST

SOLVER_TARGETED

Set constants.

SOLVER_SETEV

SOLVER_SETEVR

SOLVER_SETARCH

SOLVER_SETVENDOR

SOLVER_SETREPO

SOLVER_SETNAME

SOLVER_NOAUTOSET

SOLVER_SETMASK

See the section about set bits for more information.

ATTRIBUTES

Pool *pool;                             /* read only */
$job->{pool}
d.pool
d.pool

Back pointer to pool.

Id how;                                 /* read/write */
$job->{how}
d.how
d.how

Union of the selection, action, action modifier, and set flags. The selection part describes the semantics of the “what” Id.

Id what;                                /* read/write */
$job->{what}
d.what
d.what

Id describing the set of packages, the meaning depends on the selection part of the “how” attribute.

METHODS

Solvable *solvables()
my @solvables = $job->solvables();
solvables = job.solvables()
solvables = job.solvables()

Return the set of solvables of the job as an array of Solvable objects.

bool isemptyupdate();
$job->isemptyupdate()
job.isemptyupdate()
job.isemptyupdate?

Convenience function to find out if the job describes an update job with no matching packages, i.e. a job that does nothing. Some package managers like “zypper” like to turn those jobs into install jobs, i.e. an update of a not-installed package will result into the installation of the package.

<stringification>
my $str = $job->str;
str = str(job)
str = job.to_s

Return a string describing the job.

<equality>
if ($job1 == $job2)
if job1 == job2:
if job1 == job2

Two jobs are equal if they belong to the same pool and both the “how” and the “what” attributes are the same.

TARGETED UPDATES

Here’s an example to explain the subtle difference. Suppose that you have package A installed in version "1.1", "A-1.2" is available in one of the repositories and there is also package "B" that obsoletes package A.

An untargeted update of "A" will update the installed "A-1.1" to package "B", because that is the newest version (B obsoletes A and is thus newer).

A targeted update of "A" will update "A-1.1" to "A-1.2", as the set of packages contains both "A-1.1" and "A-1.2", and "A-1.2" is the newer one.

An untargeted update of "B" will do nothing, as "B" is not installed.

An targeted update of "B" will update "A-1.1" to "B".

Note that the default is to do "auto-targeting", thus if the specified set of packages does not include an installed package, the solver will assume targeted operation even if SOLVER_TARGETED is not used.

This mostly matches the intent of the user, with one exception: In the example above, an update of "A-1.2" will update "A-1.1" to "A-1.2" (targeted mode), but a second update of "A-1.2" will suddenly update to "B", as untargeted mode is chosen because "A-1.2" is now installed.

If you want to have full control over when targeting mode is chosen, turn off auto-targeting with the SOLVER_FLAG_NO_AUTOTARGET solver option. In that case, all updates are considered to be untargeted unless they include the SOLVER_TARGETED flag.

SET BITS

So if a package "screen-1-1" is installed for the x86_64 architecture and version "2-1" is only available for the i586 architecture, installing package "screen-2.1" will ask the user for confirmation because of the different architecture. When using the Selection class to create jobs the set bits are automatically added, e.g. selecting “screen.i586” will automatically add SOLVER_SETARCH, and thus no problem will be reported.

CONSTANTS

SOLVER_FLAG_ALLOW_DOWNGRADE

SOLVER_FLAG_ALLOW_ARCHCHANGE

SOLVER_FLAG_ALLOW_VENDORCHANGE

SOLVER_FLAG_ALLOW_NAMECHANGE

SOLVER_FLAG_ALLOW_UNINSTALL

SOLVER_FLAG_DUP_ALLOW_DOWNGRADE

SOLVER_FLAG_DUP_ALLOW_ARCHCHANGE

SOLVER_FLAG_DUP_ALLOW_VENDORCHANGE

SOLVER_FLAG_DUP_ALLOW_NAMECHANGE

SOLVER_FLAG_NO_UPDATEPROVIDE

SOLVER_FLAG_NEED_UPDATEPROVIDE

SOLVER_FLAG_SPLITPROVIDES

SOLVER_FLAG_IGNORE_RECOMMENDED

SOLVER_FLAG_ADD_ALREADY_RECOMMENDED

SOLVER_FLAG_NO_INFARCHCHECK

SOLVER_FLAG_BEST_OBEY_POLICY

SOLVER_FLAG_NO_AUTOTARGET

SOLVER_FLAG_KEEP_ORPHANS

SOLVER_FLAG_BREAK_ORPHANS

SOLVER_FLAG_FOCUS_INSTALLED

SOLVER_FLAG_FOCUS_BEST

SOLVER_FLAG_INSTALL_ALSO_UPDATES

SOLVER_FLAG_YUM_OBSOLETES

SOLVER_FLAG_URPM_REORDER

Basic rule types:

SOLVER_RULE_UNKNOWN

SOLVER_RULE_PKG

SOLVER_RULE_UPDATE

SOLVER_RULE_FEATURE

SOLVER_RULE_JOB

SOLVER_RULE_DISTUPGRADE

SOLVER_RULE_INFARCH

SOLVER_RULE_CHOICE

SOLVER_RULE_LEARNT

Special dependency rule types:

SOLVER_RULE_PKG_NOT_INSTALLABLE

SOLVER_RULE_PKG_NOTHING_PROVIDES_DEP

SOLVER_RULE_PKG_REQUIRES

SOLVER_RULE_PKG_SELF_CONFLICT

SOLVER_RULE_PKG_CONFLICTS

SOLVER_RULE_PKG_SAME_NAME

SOLVER_RULE_PKG_OBSOLETES

SOLVER_RULE_PKG_IMPLICIT_OBSOLETES

SOLVER_RULE_PKG_INSTALLED_OBSOLETES

SOLVER_RULE_JOB_NOTHING_PROVIDES_DEP

SOLVER_RULE_JOB_UNKNOWN_PACKAGE

SOLVER_RULE_JOB_PROVIDED_BY_SYSTEM

SOLVER_RULE_JOB_UNSUPPORTED

Policy error constants

POLICY_ILLEGAL_DOWNGRADE

POLICY_ILLEGAL_ARCHCHANGE

POLICY_ILLEGAL_VENDORCHANGE

POLICY_ILLEGAL_NAMECHANGE

Solution element type constants

SOLVER_SOLUTION_JOB

SOLVER_SOLUTION_POOLJOB

SOLVER_SOLUTION_INFARCH

SOLVER_SOLUTION_DISTUPGRADE

SOLVER_SOLUTION_BEST

SOLVER_SOLUTION_ERASE

SOLVER_SOLUTION_REPLACE

SOLVER_SOLUTION_REPLACE_DOWNGRADE

SOLVER_SOLUTION_REPLACE_ARCHCHANGE

SOLVER_SOLUTION_REPLACE_VENDORCHANGE

SOLVER_SOLUTION_REPLACE_NAMECHANGE

Reason constants

SOLVER_REASON_UNRELATED

SOLVER_REASON_UNIT_RULE

SOLVER_REASON_KEEP_INSTALLED

SOLVER_REASON_RESOLVE_JOB

SOLVER_REASON_UPDATE_INSTALLED

SOLVER_REASON_CLEANDEPS_ERASE

SOLVER_REASON_RESOLVE

SOLVER_REASON_WEAKDEP

SOLVER_REASON_RESOLVE_ORPHAN

SOLVER_REASON_RECOMMENDED

SOLVER_REASON_SUPPLEMENTED

ATTRIBUTES

Pool *pool;                             /* read only */
$job->{pool}
d.pool
d.pool

Back pointer to pool.

METHODS

int set_flag(int flag, int value)
my $oldvalue = $solver->set_flag($flag, $value);
oldvalue = solver.set_flag(flag, value)
oldvalue = solver.set_flag(flag, value)

int get_flag(int flag)
my $value = $solver->get_flag($flag);
value = solver.get_flag(flag)
value = solver.get_flag(flag)

Set/get a solver specific flag. The flags define the policies the solver has to obey. The flags are explained in the CONSTANTS section of this class.

Problem *solve(Job *jobs)
my @problems = $solver->solve(\@jobs);
problems = solver.solve(jobs)
problems = solver.solve(jobs)

Solve a problem specified in the job list (plus the jobs defined in the pool). Returns an array of problems that need user interaction, or an empty array if no problems were encountered. See the Problem class on how to deal with problems.

Transaction transaction()
my $trans = $solver->transaction();
trans = solver.transaction()
trans = solver.transaction()

Return the transaction to implement the calculated package changes. A transaction is available even if problems were found, this is useful for interactive user interfaces that show both the job result and the problems.

int reason = describe_decision(Solvable *s, Rule *OUTPUT)
my ($reason, $rule) = $solver->describe_decision($solvable);
(reason, rule) = solver.describe_decision(solvable)
(reason, rule) = solver.describe_decision(solvable)

Return the reason why a specific solvable was installed or erased. For most of the reasons the rule that triggered the decision is also returned.

Solvable *get_recommended(bool noselected=0);
my @solvables = $solver->get_recommended();
solvables = solver.get_recommended()
solvables = solver.get_recommended()

Return all solvables that are recommended by the solver run result. This includes solvables included in the result, set noselected if you want to filter those.

Solvable *get_suggested(bool noselected=0);
my @solvables = $solver->get_suggested();
solvables = solver.get_suggested()
solvables = solver.get_suggested()

Return all solvables that are suggested by the solver run result. This includes solvables included in the result, set noselected if you want to filter those.

ATTRIBUTES

Solver *solv;                           /* read only */
$problem->{solv}
problem.solv
problem.solv

Back pointer to solver object.

Id id;                                  /* read only */
$problem->{id}
problem.id
problem.id

Id of the problem. The first problem has Id 1, they are numbered consecutively.

METHODS

Rule findproblemrule()
my $probrule = $problem->findproblemrule();
probrule = problem.findproblemrule()
probrule = problem.findproblemrule()

Return the rule that caused the problem. Of course in most situations there is no single responsible rule, but many rules that interconnect with each created the problem. Nevertheless, the solver uses some heuristic approach to find a rule that somewhat describes the problem best to the user.

Rule *findallproblemrules(bool unfiltered = 0)
my @probrules = $problem->findallproblemrules();
probrules = problem.findallproblemrules()
probrules = problem.findallproblemrules()

Return all rules responsible for the problem. The returned set of rules contains all the needed information why there was a problem, but it’s hard to present them to the user in a sensible way. The default is to filter out all update and job rules (unless the returned rules only consist of those types).

Solution *solutions()
my @solutions = $problem->solutions();
solutions = problem.solutions()
solutions = problem.solutions()

Return an array containing multiple possible solutions to fix the problem. See the solution class for more information.

int solution_count()
my $cnt = $problem->solution_count();
cnt = problem.solution_count()
cnt = problem.solution_count()

Return the number of solutions without creating solution objects.

<stringification>
my $str = $problem->str;
str = str(problem)
str = problem.to_s

Return a string describing the problem. This is a convenience function, it is a shorthand for calling findproblemrule(), then ruleinfo() on the problem rule and problemstr() on the ruleinfo object.

ATTRIBUTES

Solver *solv;                           /* read only */
$rule->{solv}
rule.solv
rule.solv

Back pointer to solver object.

Id id;                                  /* read only */
$rule->{id}
rule.id
rule.id

The id of the rule.

int type;                               /* read only */
$rule->{type}
rule.type
rule.type

The basic type of the rule. See the constant section of the solver class for the type list.

METHODS

Ruleinfo info()
my $ruleinfo = $rule->info();
ruleinfo = rule.info()
ruleinfo = rule.info()

Return a Ruleinfo object that contains information about why the rule was created. But see the allinfos() method below.

Ruleinfo *allinfos()
my @ruleinfos = $rule->allinfos();
ruleinfos = rule.allinfos()
ruleinfos = rule.allinfos()

As the same dependency rule can get created because of multiple dependencies, one Ruleinfo is not enough to describe the reason. Thus the allinfos() method returns an array of all infos about a rule.

<equality>
if ($rule1 == $rule2)
if rule1 == rule2:
if rule1 == rule2

Two rules are equal if they belong to the same solver and have the same id.

ATTRIBUTES

Solver *solv;                           /* read only */
$ruleinfo->{solv}
ruleinfo.solv
ruleinfo.solv

Back pointer to solver object.

int type;                               /* read only */
$ruleinfo->{type}
ruleinfo.type
ruleinfo.type

The type of the ruleinfo. See the constant section of the solver class for the rule type list and the special type list.

Dep *dep;                               /* read only */
$ruleinfo->{dep}
ruleinfo.dep
ruleinfo.dep

The dependency leading to the creation of the rule.

Dep *dep_id;                            /* read only */
$ruleinfo->{'dep_id'}
ruleinfo.dep_id
ruleinfo.dep_id

The Id of the dependency leading to the creation of the rule, or zero.

Solvable *solvable;                     /* read only */
$ruleinfo->{solvable}
ruleinfo.solvable
ruleinfo.solvable

The involved Solvable, e.g. the one containing the dependency.

Solvable *othersolvable;                /* read only */
$ruleinfo->{othersolvable}
ruleinfo.othersolvable
ruleinfo.othersolvable

The other involved Solvable (if any), e.g. the one containing providing the dependency for conflicts.

const char *problemstr();
my $str = $ruleinfo->problemstr();
str = ruleinfo.problemstr()
str = ruleinfo.problemstr()

A string describing the ruleinfo from a problem perspective. This probably only makes sense if the rule is part of a problem.

ATTRIBUTES

Solver *solv;                           /* read only */
$solution->{solv}
solution.solv
solution.solv

Back pointer to solver object.

Id problemid;                           /* read only */
$solution->{problemid}
solution.problemid
solution.problemid

Id of the problem the solution solves.

Id id;                                  /* read only */
$solution->{id}
solution.id
solution.id

Id of the solution. The first solution has Id 1, they are numbered consecutively.

METHODS

Solutionelement *elements(bool expandreplaces = 0)
my @solutionelements = $solution->elements();
solutionelements = solution.elements()
solutionelements = solution.elements()

Return an array containing the elements describing what needs to be done to implement the specific solution. If expandreplaces is true, elements of type SOLVER_SOLUTION_REPLACE will be replaced by one or more elements replace elements describing the policy mismatches.

int element_count()
my $cnt = $solution->solution_count();
cnt = solution.element_count()
cnt = solution.element_count()

Return the number of solution elements without creating objects. Note that the count does not match the number of objects returned by the elements() method of expandreplaces is set to true.

ATTRIBUTES

Solver *solv;                           /* read only */
$solutionelement->{solv}
solutionelement.solv
solutionelement.solv

Back pointer to solver object.

Id problemid;                           /* read only */
$solutionelement->{problemid}
solutionelement.problemid
solutionelement.problemid

Id of the problem the element (partly) solves.

Id solutionid;                          /* read only */
$solutionelement->{solutionid}
solutionelement.solutionid
solutionelement.solutionid

Id of the solution the element is a part of.

Id id;                                  /* read only */
$solutionelement->{id}
solutionelement.id
solutionelement.id

Id of the solution element. The first element has Id 1, they are numbered consecutively.

Id type;                                /* read only */
$solutionelement->{type}
solutionelement.type
solutionelement.type

Type of the solution element. See the constant section of the solver class for the existing types.

Solvable *solvable;                     /* read only */
$solutionelement->{solvable}
solutionelement.solvable
solutionelement.solvable

The installed solvable that needs to be replaced for replacement elements.

Solvable *replacement;                  /* read only */
$solutionelement->{replacement}
solutionelement.replacement
solutionelement.replacement

The solvable that needs to be installed to fix the problem.

int jobidx;                             /* read only */
$solutionelement->{jobidx}
solutionelement.jobidx
solutionelement.jobidx

The index of the job that needs to be removed to fix the problem, or -1 if the element is of another type. Note that it’s better to change the job to SOLVER_NOOP type so that the numbering of other elements does not get disturbed. This method works both for types SOLVER_SOLUTION_JOB and SOLVER_SOLUTION_POOLJOB.

METHODS

Solutionelement *replaceelements()
my @solutionelements = $solutionelement->replaceelements();
solutionelements = solutionelement.replaceelements()
solutionelements = solutionelement.replaceelements()

If the solution element is of type SOLVER_SOLUTION_REPLACE, return an array of elements describing the policy mismatches, otherwise return a copy of the element. See also the “expandreplaces” option in the solution’s elements() method.

int illegalreplace()
my $illegal = $solutionelement->illegalreplace();
illegal = solutionelement.illegalreplace()
illegal = solutionelement.illegalreplace()

Return an integer that contains the policy mismatch bits or-ed together, or zero if there was no policy mismatch. See the policy error constants in the solver class.

Job Job()
my $job = $solutionelement->Job();
illegal = solutionelement.Job()
illegal = solutionelement.Job()

Create a job that implements the solution element. Add this job to the array of jobs for all elements of type different to SOLVER_SOLUTION_JOB and SOLVER_SOLUTION_POOLJOB. For the latter two, a SOLVER_NOOB Job is created, you should replace the old job with the new one.

const char *str()
my $str = $solutionelement->str();
str = solutionelement.str()
str = solutionelement.str()

A string describing the change the solution element consists of.

CONSTANTS

SOLVER_TRANSACTION_IGNORE

SOLVER_TRANSACTION_INSTALL

SOLVER_TRANSACTION_ERASE

SOLVER_TRANSACTION_MULTIINSTALL

SOLVER_TRANSACTION_MULTIREINSTALL

Transaction element types, active view

SOLVER_TRANSACTION_REINSTALL

SOLVER_TRANSACTION_CHANGE

SOLVER_TRANSACTION_UPGRADE

SOLVER_TRANSACTION_DOWNGRADE

SOLVER_TRANSACTION_OBSOLETES

Transaction element types, passive view

SOLVER_TRANSACTION_REINSTALLED

SOLVER_TRANSACTION_CHANGED

SOLVER_TRANSACTION_UPGRADED

SOLVER_TRANSACTION_DOWNGRADED

SOLVER_TRANSACTION_OBSOLETED

Pseudo element types for showing extra information used by classify()

SOLVER_TRANSACTION_ARCHCHANGE

SOLVER_TRANSACTION_VENDORCHANGE

Transaction mode flags

SOLVER_TRANSACTION_SHOW_ACTIVE

SOLVER_TRANSACTION_SHOW_OBSOLETES

SOLVER_TRANSACTION_SHOW_ALL

SOLVER_TRANSACTION_SHOW_MULTIINSTALL

SOLVER_TRANSACTION_CHANGE_IS_REINSTALL

SOLVER_TRANSACTION_OBSOLETE_IS_UPGRADE

SOLVER_TRANSACTION_MERGE_ARCHCHANGES

SOLVER_TRANSACTION_MERGE_VENDORCHANGES

SOLVER_TRANSACTION_RPM_ONLY

Transaction order flags

SOLVER_TRANSACTION_KEEP_ORDERDATA

ATTRIBUTES

Pool *pool;                             /* read only */
$trans->{pool}
trans.pool
trans.pool

Back pointer to pool.

METHODS

bool isempty();
$trans->isempty()
trans.isempty()
trans.isempty?

Returns true if the transaction does not do anything, i.e. has no elements.

Solvable *newsolvables();
my @newsolvables = $trans->newsolvables();
newsolvables = trans.newsolvables()
newsolvables = trans.newsolvables()

Return all packages that are to be installed by the transaction. These are the packages that need to be downloaded from the repositories.

Solvable *keptsolvables();
my @keptsolvables = $trans->keptsolvables();
keptsolvables = trans.keptsolvables()
keptsolvables = trans.keptsolvables()

Return all installed packages that the transaction will keep installed.

Solvable *steps();
my @steps = $trans->steps();
steps = trans.steps()
steps = trans.steps()

Return all solvables that need to be installed (if the returned solvable is not already installed) or erased (if the returned solvable is installed). A step is also called a transaction element.

int steptype(Solvable *solvable, int mode)
my $type = $trans->steptype($solvable, $mode);
type = trans.steptype(solvable, mode)
type = trans.steptype(solvable, mode)

Return the transaction type of the specified solvable. See the CONSTANTS sections for the mode argument flags and the list of returned types.

TransactionClass *classify(int mode = 0)
my @classes = $trans->classify();
classes = trans.classify()
classes = trans.classify()

Group the transaction elements into classes so that they can be displayed in a structured way. You can use various mapping mode flags to tweak the result to match your preferences, see the mode argument flag in the CONSTANTS section. See the TransactionClass class for how to deal with the returned objects.

Solvable othersolvable(Solvable *solvable);
my $other = $trans->othersolvable($solvable);
other = trans.othersolvable(solvable)
other = trans.othersolvable(solvable)

Return the “other” solvable for a given solvable. For installed packages the other solvable is the best package with the same name that replaces the installed package, or the best package of the obsoleting packages if the package does not get replaced by one with the same name.

For to be installed packages, the “other” solvable is the best installed package with the same name that will be replaced, or the best packages of all the packages that are obsoleted if the new package does not replace a package with the same name.

Thus, the “other” solvable is normally the package that is also shown for a given package.

Solvable *allothersolvables(Solvable *solvable);
my @others = $trans->allothersolvables($solvable);
others = trans.allothersolvables(solvable)
others = trans.allothersolvables(solvable)

For installed packages, returns all of the packages that replace us. For to be installed packages, returns all of the packages that the new package replaces. The special “other” solvable is always the first entry of the returned array.

long long calc_installsizechange();
my $change = $trans->calc_installsizechange();
change = trans.calc_installsizechange()
change = trans.calc_installsizechange()

Return the size change of the installed system in kilobytes (kibibytes).

void order(int flags = 0);
$trans->order();
trans.order()
trans.order()

Order the steps in the transactions so that dependent packages are updated before packages that depend on them. For rpm, you can also use rpmlib’s ordering functionality, debian’s dpkg does not provide a way to order a transaction.

ACTIVE/PASSIVE VIEW

updated   A-1-1 (other: A-2-1)
obsoleted B-1-1 (other: A-2-1)

in passive mode, but

update A-2-1 (other: A-1-1)
erase  B

in active mode. If the mode contains SOLVER_TRANSACTION_SHOW_ALL, the passive mode list will be unchanged but the active mode list will just contain A-2-1.

ATTRIBUTES

Transaction *transaction;               /* read only */
$class->{transaction}
class.transaction
class.transaction

Back pointer to transaction object.

int type;                               /* read only */
$class->{type}
class.type
class.type

The type of the transaction elements in the class.

int count;                              /* read only */
$class->{count}
class.count
class.count

The number of elements in the class.

const char *fromstr;
$class->{fromstr}
class.fromstr
class.fromstr

The old vendor or architecture.

const char *tostr;
$class->{tostr}
class.tostr
class.tostr

The new vendor or architecture.

Id fromid;
$class->{fromid}
class.fromid
class.fromid

The id of the old vendor or architecture.

Id toid;
$class->{toid}
class.toid
class.toid

The id of the new vendor or architecture.

METHODS

void solvables();
my @solvables = $class->solvables();
solvables = class.solvables()
solvables = class.solvables()

Return the solvables for all transaction elements in the class.

CLASS METHODS

Chksum Chksum(Id type)
my $chksum = solv::Chksum->new($type);
chksum = solv.Chksum(type)
chksum = Solv::Chksum.new(type)

Create a checksum object. Currently the following types are supported:

REPOKEY_TYPE_MD5
REPOKEY_TYPE_SHA1
REPOKEY_TYPE_SHA256

These keys are constants in the solv class.

Chksum Chksum(Id type, const char *hex)
my $chksum = solv::Chksum->new($type, $hex);
chksum = solv.Chksum(type, hex)
chksum = Solv::Chksum.new(type, hex)

Create an already finalized checksum object from a hex string.

Chksum Chksum_from_bin(Id type, char *bin)
my $chksum = solv::Chksum->from_bin($type, $bin);
chksum = solv.Chksum.from_bin(type, bin)
chksum = Solv::Chksum.from_bin(type, bin)

Create an already finalized checksum object from a binary checksum.

ATTRIBUTES

Id type;                        /* read only */
$chksum->{type}
chksum.type
chksum.type

Return the type of the checksum object.

METHODS

void add(const char *str)
$chksum->add($str);
chksum.add(str)
chksum.add(str)

Add a (binary) string to the checksum.

void add_fp(FILE *fp)
$chksum->add_fp($file);
chksum.add_fp(file)
chksum.add_fp(file)

Add the contents of a file to the checksum.

void add_stat(const char *filename)
$chksum->add_stat($filename);
chksum.add_stat(filename)
chksum.add_stat(filename)

Stat the file and add the dev/ino/size/mtime member to the checksum. If the stat fails, the members are zeroed.

void add_fstat(int fd)
$chksum->add_fstat($fd);
chksum.add_fstat(fd)
chksum.add_fstat(fd)

Same as add_stat, but instead of the filename a file descriptor is used.

unsigned char *raw()
my $raw = $chksum->raw();
raw = chksum.raw()
raw = chksum.raw()

Finalize the checksum and return the result as raw bytes. This means that the result can contain NUL bytes or unprintable characters.

const char *hex()
my $raw = $chksum->hex();
raw = chksum.hex()
raw = chksum.hex()

Finalize the checksum and return the result as hex string.

const char *typestr()
my $typestr = $chksum->typestr();
typestr = chksum.typestr
typestr = chksum.typestr

Return the type of the checksum as a string, e.g. "sha256".

<equality>
if ($chksum1 == $chksum2)
if chksum1 == chksum2:
if chksum1 == chksum2

Checksums are equal if they are of the same type and the finalized results are the same.

<stringification>
my $str = $chksum->str;
str = str(chksum)
str = chksum.to_s

If the checksum is finished, the checksum is returned as "<type>:<hex>" string. Otherwise "<type>:unfinished" is returned.

METHODS

int fileno()
my $fileno = $file->fileno();
fileno = file.fileno()
fileno = file.fileno()

Return file file descriptor of the file. If the file is not open, -1 is returned.

void cloexec(bool state)
$file->cloexec($state)
file.cloexec(state)
file.cloexec(state)

Set the close-on-exec flag of the file descriptor. The xfopen function returns files with close-on-exec turned on, so if you want to pass a file to some other process you need to call cloexec(0) before calling exec.

int dup()
my $fileno = $file->dup();
fileno = file.dup()
fileno = file.dup()

Return a copy of the descriptor of the file. If the file is not open, -1 is returned.

bool flush()
$file->flush();
file.flush()
file.flush()

Flush the file. Returns false if there was an error. Flushing a closed file always returns true.

bool close()
$file->close();
file.close()
file.close()

Close the file. This is needed for languages like Ruby that do not destruct objects right after they are no longer referenced. In that case, it is good style to close open files so that the file descriptors are freed right away. Returns false if there was an error.

ATTRIBUTES

Repo *repo;                     /* read only */
$data->{repo}
data.repo
data.repo

Back pointer to repository object.

Id id;                                  /* read only */
$data->{id}
data.id
data.id

The id of the repodata area. Repodata ids of different repositories overlap.

METHODS

internalize();
$data->internalize();
data.internalize()
data.internalize()

Internalize newly added data. The lookup functions will only see the new data after it has been internalized.

bool write(FILE *fp);
$data->write($fp);
data.write(fp)
data.write(fp)

Write the contents of the repodata area as solv file.

Id str2dir(const char *dir, bool create = 1)
my $did = data->str2dir($dir);
did = data.str2dir(dir)
did = data.str2dir(dir)

const char *dir2str(Id did, const char *suffix = 0)
$dir = pool->dir2str($did);
dir = pool.dir2str(did)
dir = pool.dir2str(did)

Convert a string (directory) into an Id and back. If the string is currently not in the pool and create is false, zero is returned.

void add_dirstr(Id solvid, Id keyname, Id dir, const char *str)
$data->add_dirstr($solvid, $keyname, $dir, $string)
data.add_dirstr(solvid, keyname, dir, string)
data.add_dirstr(solvid, keyname, dir, string)

Add a file path consisting of a dirname Id and a basename string.

bool add_solv(FILE *fp, int flags = 0);
$data->add_solv($fp);
data.add_solv(fp)
data.add_solv(fp)

Replace a stub repodata object with the data from a solv file. This method automatically adds the REPO_USE_LOADING flag. It should only be used from a load callback.

void create_stubs();
$data->create_stubs()
data.create_stubs()
data.create_stubs()

Create stub repodatas from the information stored in the repodata meta area.

void extend_to_repo();
$data->extend_to_repo();
data.extend_to_repo()
data.extend_to_repo()

Extend the repodata so that it has the same size as the repo it belongs to. This method is needed when setting up a new extension repodata so that it matches the repository size. It is also needed when switching to a just written repodata extension to make the repodata match the written extension (which is always of the size of the repo).

<equality>
if ($data1 == $data2)
if data1 == data2:
if data1 == data2

Two repodata objects are equal if they belong to the same repository and have the same id.

DATA RETRIEVAL METHODS

const char *lookup_str(Id solvid, Id keyname)
my $string = $data->lookup_str($solvid, $keyname);
string = data.lookup_str(solvid, keyname)
string = data.lookup_str(solvid, keyname)

const char *lookup_id(Id solvid, Id keyname)
my $string = $data->lookup_id($solvid, $keyname);
string = data.lookup_id(solvid, keyname)
string = data.lookup_id(solvid, keyname)

unsigned long long lookup_num(Id solvid, Id keyname, unsigned long long notfound = 0)
my $num = $data->lookup_num($solvid, $keyname);
num = data.lookup_num(solvid, keyname)
num = data.lookup_num(solvid, keyname)

bool lookup_void(Id solvid, Id keyname)
my $bool = $data->lookup_void($solvid, $keyname);
bool = data.lookup_void(solvid, keyname)
bool = data.lookup_void(solvid, keyname)

Id *lookup_idarray(Id solvid, Id keyname)
my @ids = $data->lookup_idarray($solvid, $keyname);
ids = data.lookup_idarray(solvid, keyname)
ids = data.lookup_idarray(solvid, keyname)

Chksum lookup_checksum(Id solvid, Id keyname)
my $chksum = $data->lookup_checksum($solvid, $keyname);
chksum = data.lookup_checksum(solvid, keyname)
chksum = data.lookup_checksum(solvid, keyname)

Lookup functions. Return the data element stored in the specified solvable. The methods probably only make sense to retrieve data from the special SOLVID_META solvid that stores repodata meta information.

DATA STORAGE METHODS

void set_str(Id solvid, Id keyname, const char *str);
$data->set_str($solvid, $keyname, $str);
data.set_str(solvid, keyname, str)
data.set_str(solvid, keyname, str)

void set_id(Id solvid, Id keyname, DepId id);
$data->set_id($solvid, $keyname, $id);
data.set_id(solvid, keyname, id)
data.set_id(solvid, keyname, id)

void set_num(Id solvid, Id keyname, unsigned long long num);
$data->set_num($solvid, $keyname, $num);
data.set_num(solvid, keyname, num)
data.set_num(solvid, keyname, num)

void set_void(Id solvid, Id keyname);
$data->set_void($solvid, $keyname);
data.set_void(solvid, keyname)
data.set_void(solvid, keyname)

void set_poolstr(Id solvid, Id keyname, const char *str);
$data->set_poolstr($solvid, $keyname, $str);
data.set_poolstr(solvid, keyname, str)
data.set_poolstr(solvid, keyname, str)

void set_checksum(Id solvid, Id keyname, Chksum *chksum);
$data->set_checksum($solvid, $keyname, $chksum);
data.set_checksum(solvid, keyname, chksum)
data.set_checksum(solvid, keyname, chksum)

void set_sourcepkg(Id solvid, const char *sourcepkg);
$data.set_sourcepkg($solvid, $sourcepkg);
data.set_sourcepkg(solvid, sourcepkg)
data.set_sourcepkg(solvid, sourcepkg)

void set_location(Id solvid, unsigned int mediano, const char *location);
$data.set_location($solvid, $mediano, $location);
data.set_location(solvid, mediano, location)
data.set_location(solvid, mediano, location)

void add_idarray(Id solvid, Id keyname, DepId id);
$data->add_idarray($solvid, $keyname, $id);
data.add_idarray(solvid, keyname, id)
data.add_idarray(solvid, keyname, id)

Id new_handle();
my $handle = $data->new_handle();
handle = data.new_handle()
handle = data.new_handle()

void add_flexarray(Id solvid, Id keyname, Id handle);
$data->add_flexarray($solvid, $keyname, $handle);
data.add_flexarray(solvid, keyname, handle)
data.add_flexarray(solvid, keyname, handle)

void unset(Id solvid, Id keyname);
$data->unset($solvid, $keyname);
data.unset(solvid, keyname)
data.unset(solvid, keyname)

Data storage methods. Probably only useful to store data in the special SOLVID_META solvid that stores repodata meta information. Note that repodata areas can have their own Id pool (see the REPO_LOCALPOOL flag), so be careful if you need to store ids. Arrays are created by calling the add function for every element. A flexarray is an array of sub-structures, call new_handle to create a new structure, use the handle as solvid to fill the structure with data and call add_flexarray to put the structure in an array.

ATTRIBUTES

Repo *repo;                     /* read only */
$data->{repo}
data.repo
data.repo

Back pointer to repository object.

METHODS

Dataiterator(Id keyname, const char *match, int flags)
my $di = $datapos->Dataiterator($keyname, $match, $flags);
di = datapos.Dataiterator(keyname, match, flags)
di = datapos.Dataiterator(keyname, match, flags)

Create a Dataiterator at the position of the datapos object.

const char *lookup_deltalocation(unsigned int *OUTPUT);
my ($location, $mediano) = $datapos->lookup_deltalocation();
location, mediano = datapos.lookup_deltalocation()
location, mediano = datapos.lookup_deltalocation()

Return a tuple containing the on-media location and an optional media number for a delta rpm. This obviously only works if the data position points to structure describing a delta rpm.

const char *lookup_deltaseq();
my $seq = $datapos->lookup_deltaseq();
seq = datapos.lookup_deltaseq();
seq = datapos.lookup_deltaseq();

Return the delta rpm sequence from the structure describing a delta rpm.

DATA RETRIEVAL METHODS

const char *lookup_str(Id keyname)
my $string = $datapos->lookup_str($keyname);
string = datapos.lookup_str(keyname)
string = datapos.lookup_str(keyname)

Id lookup_id(Id solvid, Id keyname)
my $id = $datapos->lookup_id($keyname);
id = datapos.lookup_id(keyname)
id = datapos.lookup_id(keyname)

unsigned long long lookup_num(Id keyname, unsigned long long notfound = 0)
my $num = $datapos->lookup_num($keyname);
num = datapos.lookup_num(keyname)
num = datapos.lookup_num(keyname)

bool lookup_void(Id keyname)
my $bool = $datapos->lookup_void($keyname);
bool = datapos.lookup_void(keyname)
bool = datapos.lookup_void(keyname)

Id *lookup_idarray(Id keyname)
my @ids = $datapos->lookup_idarray($keyname);
ids = datapos.lookup_idarray(keyname)
ids = datapos.lookup_idarray(keyname)

Chksum lookup_checksum(Id keyname)
my $chksum = $datapos->lookup_checksum($keyname);
chksum = datapos.lookup_checksum(keyname)
chksum = datapos.lookup_checksum(keyname)

Lookup functions. Note that the returned Ids are always translated into the Ids of the global pool even if the repodata area contains its own pool.

Dataiterator Dataiterator(Id keyname, const char *match = 0, int flags = 0)
my $di = $datapos->Dataiterator($keyname, $match, $flags);
di = datapos.Dataiterator(keyname, match, flags)
di = datapos.Dataiterator(keyname, match, flags)

for my $d (@$di)
for d in di:
for d in di

Iterate over the matching data elements. See the Dataiterator class for more information.