def findpackageset(hdrlist, dbPath='/'):
ts = rpm.TransactionSet(dbPath)
ts.setVSFlags(~(rpm.RPMVSF_NORSA | rpm.RPMVSF_NODSA | rpm.RPMVSF_NOMD5))
pkgDict = {}
# go through and figure out which packages in the header list are
# actually applicable for our architecture
pkgDict = {}
for h in hdrlist:
score1 = rpm.archscore(h[rpm.RPMTAG_ARCH])
if (score1):
name = h[rpm.RPMTAG_NAME]
if pkgDict.has_key(name):
score2 = rpm.archscore(pkgDict[name][rpm.RPMTAG_ARCH])
if (score1 < score2):
pkgDict[name] = h
else:
pkgDict[name] = h
hdlist = pkgDict.values()
pkgDict = {}
# loop through packages and find ones which are a newer
# version than what we have
for pkg in hdlist:
mi = ts.dbMatch('name', pkg[rpm.RPMTAG_NAME])
for h in mi:
val = rpm.versionCompare(h, pkg)
if (val > 0):
# dEBUG("found older version of %(name)s" % h)
pass
elif (val < 0):
# dEBUG("found newer version of %(name)s" % h)
# check if we already have this package in our dictionary
addNewPackageToUpgSet(pkgDict, pkg)
else:
# dEBUG("found same verison of %(name)s" % h)
pass
# handle obsoletes
for pkg in hdlist:
if pkg[rpm.RPMTAG_NAME] in pkgDict.keys():
# dEBUG("%(name)s is already selected" % pkg)
continue
if pkg[rpm.RPMTAG_OBSOLETENAME] is not None:
for obs in pkg[rpm.RPMTAG_OBSOLETENAME]:
mi = ts.dbMatch('name', obs)
# FIXME: I should really iterate over all matches and verify
# versioned obsoletes, but nothing in Red Hat Linux uses
# them, so I'll optimize
for h in mi:
# dEBUG("adding %(name)s to the upgrade set for obsoletes" % pkg)
addNewPackageToUpgSet(pkgDict, pkg)
break
return pkgDict.values()
def __lt__(self, other):
rc = cmp(self.name, other.name)
if type(other) is RPMPackage:
if rc == 0 and self.version != other.version:
selfver, selfarch = splitarch(self.version)
otherver, otherarch = splitarch(other.version)
if selfver != otherver:
rc = vercmp(self.version, other.version)
if rc == 0:
rc = -cmp(archscore(selfarch), archscore(otherarch))
return rc == -1
def comparePackagesArch(pkg1, pkg2):
arch1 = pkg1[4]
arch2 = pkg2[4]
score1 = rpm.archscore(arch1)
score2 = rpm.archscore(arch2)
if score1 > score2:
return 1
if score1 < score2:
return -1
if score1 == score2:
return 0
def comparePackagesArch(pkg1, pkg2):
arch1 = pkg1[4]
arch2 = pkg2[4]
score1 = rpm.archscore(arch1)
score2 = rpm.archscore(arch2)
if score1 > score2:
return 1
if score1 < score2:
return -1
if score1 == score2:
return 0
def getArchScore(arch, _sm=_SCOREMAP):
try:
rpm.platformscore(arch)
if arch not in _sm:
score = rpm.archscore(arch)
_sm[arch] = score
return _sm.get(arch, 0)
except AttributeError:
return 1
def getArchScore(arch, _sm=_SCOREMAP):
try:
rpm.platformscore(arch)
if arch not in _sm:
score = rpm.archscore(arch)
_sm[arch] = score
return _sm.get(arch, 0)
except AttributeError:
return 1
def _is_compatible_arch(self, arch):
if rpm.archscore(arch) == 0:
# Itanium special casing.
if self._arch == 'ia64' and re.match('i.86', arch):
return True
else:
return False
else:
return True
def _is_compatible_arch(self, arch):
if rpm.archscore(arch) == 0:
# Itanium special casing.
if self._arch == 'ia64' and re.match('i.86', arch):
return True
else:
return False
else:
return True
def __init__(self, hdlist, compatPackages = None, noscore = 0,
prunePPCKernels = 1):
self.hdlist = hdlist
self.packages = {}
newCompat = []
self.hasFullHeaders = 0
for h in hdlist:
name = h[rpm.RPMTAG_NAME]
# we should only keep kernel-pseries and kernel-iseries on
# the appropriate machine
if prunePPCKernels and name == "kernel-pseries" and iutil.getPPCMachine() != "pSeries":
continue
if prunePPCKernels and name == "kernel-iseries" and iutil.getPPCMachine() != "iSeries":
continue
# FIXME: this is a really bad hack so that we can try to avoid
# weirdness with kernel packages
if prunePPCKernels and (name == "kernel-iseries" or name == "kernel-pseries"):
self.packages["kernel"] = Package(h)
if noscore:
self.packages[name] = Package(h)
continue
score1 = rpm.archscore(h['arch'])
if (score1):
if self.packages.has_key(name):
score2 = rpm.archscore(self.packages[name].h['arch'])
if (score1 < score2):
newCompat.append(self.packages[name])
self.packages[name] = Package(h)
else:
newCompat.append(Package(h))
else:
self.packages[name] = Package(h)
if hdlist and not self.packages:
raise RuntimeError, ("the header list was read, but no packages "
"matching architecture '%s' were found."
% os.uname()[4])
if compatPackages != None:
compatPackages.extend(newCompat)
def addNewPackageToUpgSet(pkgDict, pkg):
"""Check to see if there's already a pkg by the name of pkg already
in our dictionary. If not, add this one. If there is, see if
this one is 'newer' or has a 'better' arch."""
name = pkg[rpm.RPMTAG_NAME]
if not pkgDict.has_key(name):
# nope
pkgDict[name] = pkg
else:
# first check version
val = rpm.versionCompare(pkgDict[name], pkg)
if val < 0:
# we're newer, add this one
pkgDict[name] = pkg
elif val == 0:
# same version, so check the architecture
newscore = rpm.archscore(pkg[rpm.RPMTAG_ARCH])
oldscore = pkgDict[name][rpm.RPMTAG_ARCH]
if newscore and newscore < oldscore:
# if the score is less, we're "better"
pkgDict[name] = pkg
def getArchScore(arch, _sm=_SCOREMAP):
if arch not in _sm:
score = rpm.archscore(arch)
_sm[arch] = score
return _sm.get(arch, 0)
def load(self):
CM = self.COMPMAP
CF = self.COMPFLAGS
Pkg = RPMPackage
Prv = RPMProvides
NPrv = RPMNameProvides
PreReq = RPMPreRequires
Req = RPMRequires
Obs = RPMObsoletes
Cnf = RPMConflicts
prog = iface.getProgress(self._cache)
for h, offset in self.getHeaders(prog):
if h[1106]: # RPMTAG_SOURCEPACKAGE
continue
arch = h[1022] # RPMTAG_ARCH
if rpm.archscore(arch) == 0:
continue
name = h[1000] # RPMTAG_NAME
epoch = h[1003] # RPMTAG_EPOCH
if epoch and epoch != "0":
# RPMTAG_VERSION, RPMTAG_RELEASE
version = "%s:%s-%s" % (epoch, h[1001], h[1002])
else:
# RPMTAG_VERSION, RPMTAG_RELEASE
version = "%s-%s" % (h[1001], h[1002])
versionarch = "%s@%s" % (version, arch)
n = h[1047] # RPMTAG_PROVIDENAME
v = h[1113] # RPMTAG_PROVIDEVERSION
prvdict = {}
for i in range(len(n)):
ni = n[i]
if not ni.startswith("config("):
vi = v[i]
if vi and vi[:2] == "0:":
vi = vi[2:]
if ni == name and vi == version:
prvdict[(NPrv, intern(ni), versionarch)] = True
else:
prvdict[(Prv, intern(ni), vi or None)] = True
prvargs = prvdict.keys()
n = h[1049] # RPMTAG_REQUIRENAME
if n:
f = h[1048] # RPMTAG_REQUIREFLAGS
v = h[1050] # RPMTAG_REQUIREVERSION
reqdict = {}
for i in range(len(n)):
ni = n[i]
if ni[:7] not in ("rpmlib(", "config("):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
r = CM.get(f[i] & CF)
if ((r is not None and r != "=")
or ((Prv, ni, vi) not in prvdict)):
# RPMSENSE_PREREQ |
# RPMSENSE_SCRIPT_PRE |
# RPMSENSE_SCRIPT_PREUN |
# RPMSENSE_SCRIPT_POST |
# RPMSENSE_SCRIPT_POSTUN == 7744
reqdict[(f[i] & 7744 and PreReq
or Req, intern(ni), r, vi)] = True
reqargs = reqdict.keys()
else:
reqargs = None
n = h[1054] # RPMTAG_CONFLICTNAME
if n:
f = h[1053] # RPMTAG_CONFLICTFLAGS
# FIXME (20050321): Solaris rpm 4.1 hack
if type(f) == int:
f = [f]
v = h[1055] # RPMTAG_CONFLICTVERSION
cnfargs = []
for i in range(len(n)):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
cnfargs.append((Cnf, n[i], CM.get(f[i] & CF), vi))
else:
cnfargs = []
obstup = (Obs, name, '<', versionarch)
n = h[1090] # RPMTAG_OBSOLETENAME
if n:
f = h[1114] # RPMTAG_OBSOLETEFLAGS
# FIXME (20050321): Solaris rpm 4.1 hack
if type(f) == int:
f = [f]
v = h[1115] # RPMTAG_OBSOLETEVERSION
upgargs = []
for i in range(len(n)):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
upgargs.append((Obs, n[i], CM.get(f[i] & CF), vi))
cnfargs.extend(upgargs)
upgargs.append(obstup)
else:
upgargs = [obstup]
pkg = self.buildPackage((Pkg, name, versionarch), prvargs, reqargs,
upgargs, cnfargs)
pkg.loaders[self] = offset
self._offsets[offset] = pkg
self._groups[pkg] = intern(h[rpm.RPMTAG_GROUP])
def getArchScore(arch, _sm=_SCOREMAP):
if arch not in _sm:
score = rpm.archscore(arch)
_sm[arch] = score
return _sm.get(arch, 0)
def solveDep(self, unknowns, availList,
msgCallback = None,
progressCallback = None,
refreshCallback = None):
self.cfg = config.initUp2dateConfig()
self.log = up2dateLog.initLog()
self.log.log_me("solving dep for: %s" % unknowns)
self.refreshCallback = refreshCallback
self.progressCallback = progressCallback
self.msgCallback = msgCallback
self.availList = availList
availList.sort()
self.availListHash = {}
for p in self.availList:
if self.availListHash.has_key(tuple(p[:4])):
self.availListHash[tuple(p[:4])].append(p)
else:
self.availListHash[tuple(p[:4])] = [p]
self.retDict = {}
self.getSolutions(unknowns,
progressCallback = self.progressCallback,
msgCallback = self.msgCallback)
reslist = []
self.depToPkg = DictOfLists()
self.depsNotAvailable = DictOfLists()
# self.depToPkg = {}
#FIXME: this should be cached, I dont really need to query the db
# for this everytime
self.installedPkgList = rpmUtils.getInstalledPackageList(getArch=1)
self.installedPkgHash = {}
for pkg in self.installedPkgList:
if self.installedPkgHash.has_key(pkg[0]):
self.installedPkgHash[pkg[0]].append(pkg)
else:
self.installedPkgHash[pkg[0]] = [pkg]
# we didnt get any results, bow out...
if not len(self.retDict):
return (reslist, self.depToPkg)
newList = []
availListNVRE = map(lambda p: p[:4], self.availList)
failedDeps = []
solutionPkgs = []
pkgs = []
for dep in self.retDict.keys():
# skip the rest if we didnt get a result
if len(self.retDict[dep]) == 0:
continue
solutions = self.retDict[dep]
# fixme, grab the first package that satisfies the dep
# but make sure we match nvre against the list of avail packages
# so we grab the right version of the package
# if we only get one soltution, use it. No point in jumping
# though other hoops
if len(solutions) == 1:
for solution in solutions:
pkgs.append(solution)
# we've got more than one possible solution, do some work
# to figure out if I want one, some, or all of them
elif len(solutions) > 1:
# try to install the new version of whatever arch is
# installed
solutionsInstalled = self.__getSolutionsInstalled(solutions)
found = 0
if len(solutionsInstalled):
for p in solutionsInstalled:
pkgs.append(p)
self.depToPkg[dep] = p
found = 1
if found:
break
# we dont have any of possible solutions installed, pick one
else:
# this is where we could do all sort of heuristics to pick
# best one. For now, grab the first one in the list thats
# available
#FIXME: we need to arch score here for multilib/kernel
# packages that dont have a version installed
# This tends to happen a lot when isntalling into
# empty chroots (aka, pick which of the kernels to
# install).
# ie, this is the pure heuristic approach...
shortest = solutions[0]
for solution in solutions:
if len(shortest[0]) > len(solution[0]):
shortest = solution
# if we get this far, its still possible that we have package
# that is multilib and we need to install both versions of
# this is a check for that...
if self.installedPkgHash.has_key(shortest[0]):
iList = self.installedPkgHash[shortest[0]]
for iPkg in iList:
if self.availListHash.has_key(tuple(shortest[:4])):
for i in self.availListHash[tuple(shortest[:4])]:
if self.cfg['forcedArch']:
arches = self.cfg['forcedArch']
if i[4] in arches:
pkgs.append(i)
self.depToPkg[dep] = i
break
else:
# its not the same package we have installed
if iPkg[:5] != i[:5]:
# this arch matches the arch of a package
# installed
if iPkg[4] == i[4]:
pkgs.append(i)
self.depToPkg[dep] = i
break
# you may be asking yourself, wtf is that madness that follows?
# well, good question...
# its basically a series of kluges to work around packaging problems
# in RHEL-3 (depends who you ask... But basically, its packages doing
# stuff that was determined to be "unsupported" at the time of the
# initial multilib support, but packages did it later anyway
# Basically, what we are trying to do is pick the best arch of
# a package to solve a dep. Easy enough. The tricky part is
# what happens when we discover the best arch is already in
# transation and is _not_ solving the dep, so we need to look
# at the next best arch. So we check to see if we added it to
# the list of selected packges already, and if so, add the
# next best arch to the set. To make it uglier, the second best
# arch might not be valid at all, so in that case, dont use it
# (which will cause an unsolved dep, but they happen...)
if self.availListHash.has_key(tuple(shortest[:4])):
avail = self.availListHash[tuple(shortest[:4])]
bestArchP = None
useNextBestArch = None
bestArchP2 = None
# a saner approach might be to find the applicable arches,
# sort them, and walk over them in order
# remove the items with archscore <= 0
app_avail = filter(lambda a: rpm.archscore(a[4]), avail)
# sort the items by archscore, most approriate first
app_avail.sort(lambda a,b: cmp(rpm.archscore(a[4]),rpm.archscore(b[4])))
# so, whats wrong with this bit? well, if say "libgnutls.so(64bit)" doesn't
# find a dep, we'll try to solve it with gnutls.i386
# its because "gnutls" and "libgnutls.so(64bit)" are in the same set of
# deps. Since gnutls.x86_64 is added for the "gnutls" dep, its in the
# list of already selected for
for i in app_avail:
if i in self.selectedPkgs:
continue
pkgs.append(i)
self.depToPkg[dep] = i
# we found something, stop iterating over available
break
# we found something for this dep, stop iterating
continue
else:
# FIXME: in an ideal world, I could raise an exception here, but that will break the current gui
pkgs.append(p)
self.depToPkg[dep] = p
# raise UnsolvedDependencyError("Packages %s provide dep %s but are not available for install based on client config" % (pkgs,dep), dep, pkgs )
for pkg in pkgs:
self.selectedPkgs.append(pkg)
if pkg[:4] in availListNVRE:
newList.append(pkg)
else:
newList.append(pkg)
reslist = newList
# FIXME: we need to return the list of stuff that was skipped
# because it wasn't on the available list and present it to the
# user something like:
# blippy-1.0-1 requires barpy-2.0-1 but barpy-3.0-1 is already isntalled
#print "\n\nself.depsNotAvailable"
#pprint.pprint(self.depsNotAvailable)
#pprint.pprint(self.depToPkg)
return (reslist, self.depToPkg)
def handleArchEnd(self, name, attrs, data):
if rpm.archscore(data) == 0:
self._skip = self.PACKAGE
else:
self._arch = data
def listPackages(self, channel,
msgCallback = None, progressCallback = None):
# TODO: where do we implement cache validation? guess we
# use http header time stamps to make a best guess since we
# dont have any real info about the file format
# a glob used to find the old versions to cleanup
# FIXME: this is probabaly overkill... Should only have
# one version of any given
globPattern = "%s/%s.*" % (self.cfg["storageDir"], channel['label'])
oldLists = glob.glob(globPattern)
channelTimeStamp = None
if oldLists:
filename = oldLists[0]
filename = os.path.basename(filename)
oldVersion = string.split(filename, '.')[-1]
channelTimeStamp = time.strptime(oldVersion,"%Y%m%d%H%M%S")
# for yum stuff, we assume that serverUrl is the base
# path, channel is the relative path, and version isnt
# user
url = "%s/headers/header.info" % (channel['url'])
if msgCallback:
msgCallback("Fetching %s" % url)
# oh, this lame, but implement a fancy url fetcher later
# heck, maybe even borrow the one from yum
#print urlUtils
ret = urlUtils.fetchUrl(url, lastModified=channelTimeStamp,
progressCallback = progressCallback,
agent = "Up2date %s/Yum" % up2dateUtils.version())
if ret:
(buffer, lmtime) = ret
else:
return None
if not lmtime:
lmtime = time.gmtime(time.time())
version = time.strftime("%Y%m%d%H%M%S", lmtime)
# use the time stamp on the headerlist as the channel "version"
filePath = "%s/%s.%s" % (self.cfg["storageDir"], channel['label'], version)
# it's possible to get bogus data here, so at least try not
# to traceback
if buffer:
lines = string.split(buffer)
else:
lines = []
# this gives us the raw yum header list, which is _not_
# in the pretty format up2date likes, so convert it
# and sadly, I can no longer proudly state that up2date
# at no points attempts to parse rpm filenames into something
# useful. At least yum includes the epoch
pkgList = []
# yum can have a different path for each rpm. Not exactly
# sure how this meets the "keep it simple" idea, but alas
self.pkgNamePath = {}
for line in lines:
if line == "" or line[0] == "#":
continue
(envra, rpmPath) = string.split(line, '=')
rpmPath = string.strip(rpmPath)
(epoch, name, ver, rel, arch) = self._stripENVRA(envra)
# quite possibly need to encode channel info here as well
if epoch == "0" or epoch == 0:
epoch = ""
# hmm, if an arch doesnt apply, guess no point in
# keeping it around, should make package lists smaller
# and cut down on some churn
if rpm.archscore(arch) == 0:
continue
self.pkgNamePath[(name,ver,rel,epoch,arch)] = rpmPath
# doh, no size info. FIXME
size = "1000" # er, yeah... thats not lame at all...
pkgList.append([name, ver, rel, epoch, arch, size, channel['label'], rpmPath])
# now we have the package list, convert it to xmlrpc style
# presentation and dump it
pkgList.sort(lambda a, b: cmp(a[0], b[0]))
count = 0
total = len(pkgList)
rd = repoDirector.initRepoDirector()
for pkg in pkgList:
# were deep down in the yum specific bits, but we want to call
# the generic getHeader to get it off disc or cache
hdr = rd.getHeader([name,ver,rel,epoch,arch, "0",channel['label']])
if progressCallback:
progressCallback(count, total)
count = count + 1
rpmSourceUtils.saveListToDisk(pkgList, filePath, globPattern)
self.pkglists[channel['label']] = pkgList
return pkgList
def listPackages(self, channel, msgCallback=None, progressCallback=None):
# TODO: where do we implement cache validation? guess we
# use http header time stamps to make a best guess since we
# dont have any real info about the file format
# a glob used to find the old versions to cleanup
# FIXME: this is probabaly overkill... Should only have
# one version of any given
globPattern = "%s/%s.*" % (self.cfg["storageDir"], channel['label'])
oldLists = glob.glob(globPattern)
channelTimeStamp = None
if oldLists:
filename = oldLists[0]
filename = os.path.basename(filename)
oldVersion = string.split(filename, '.')[-1]
channelTimeStamp = time.strptime(oldVersion, "%Y%m%d%H%M%S")
# for yum stuff, we assume that serverUrl is the base
# path, channel is the relative path, and version isnt
# user
url = "%s/headers/header.info" % (channel['url'])
if msgCallback:
msgCallback("Fetching %s" % url)
# oh, this lame, but implement a fancy url fetcher later
# heck, maybe even borrow the one from yum
#print urlUtils
ret = urlUtils.fetchUrl(url,
lastModified=channelTimeStamp,
progressCallback=progressCallback,
agent="Up2date %s/Yum" %
up2dateUtils.version())
if ret:
(buffer, lmtime) = ret
else:
return None
if not lmtime:
lmtime = time.gmtime(time.time())
version = time.strftime("%Y%m%d%H%M%S", lmtime)
# use the time stamp on the headerlist as the channel "version"
filePath = "%s/%s.%s" % (self.cfg["storageDir"], channel['label'],
version)
# it's possible to get bogus data here, so at least try not
# to traceback
if buffer:
lines = string.split(buffer)
else:
lines = []
# this gives us the raw yum header list, which is _not_
# in the pretty format up2date likes, so convert it
# and sadly, I can no longer proudly state that up2date
# at no points attempts to parse rpm filenames into something
# useful. At least yum includes the epoch
pkgList = []
# yum can have a different path for each rpm. Not exactly
# sure how this meets the "keep it simple" idea, but alas
self.pkgNamePath = {}
for line in lines:
if line == "" or line[0] == "#":
continue
(envra, rpmPath) = string.split(line, '=')
rpmPath = string.strip(rpmPath)
(epoch, name, ver, rel, arch) = self._stripENVRA(envra)
# quite possibly need to encode channel info here as well
if epoch == "0" or epoch == 0:
epoch = ""
# hmm, if an arch doesnt apply, guess no point in
# keeping it around, should make package lists smaller
# and cut down on some churn
if rpm.archscore(arch) == 0:
continue
self.pkgNamePath[(name, ver, rel, epoch, arch)] = rpmPath
# doh, no size info. FIXME
size = "1000" # er, yeah... thats not lame at all...
pkgList.append(
[name, ver, rel, epoch, arch, size, channel['label'], rpmPath])
# now we have the package list, convert it to xmlrpc style
# presentation and dump it
pkgList.sort(lambda a, b: cmp(a[0], b[0]))
count = 0
total = len(pkgList)
rd = repoDirector.initRepoDirector()
for pkg in pkgList:
# were deep down in the yum specific bits, but we want to call
# the generic getHeader to get it off disc or cache
hdr = rd.getHeader(
[name, ver, rel, epoch, arch, "0", channel['label']])
if progressCallback:
progressCallback(count, total)
count = count + 1
rpmSourceUtils.saveListToDisk(pkgList, filePath, globPattern)
self.pkglists[channel['label']] = pkgList
return pkgList
def handleArchEnd(self, name, attrs, data):
if rpm.archscore(data) == 0:
self._skip = self.PACKAGE
else:
self._arch = data
def load(self):
CM = self.COMPMAP
CF = self.COMPFLAGS
Pkg = RPMPackage
Prv = RPMProvides
NPrv = RPMNameProvides
PreReq = RPMPreRequires
Req = RPMRequires
Obs = RPMObsoletes
Cnf = RPMConflicts
prog = iface.getProgress(self._cache)
for h, offset in self.getHeaders(prog):
if h[1106]: # RPMTAG_SOURCEPACKAGE
continue
arch = h[1022] # RPMTAG_ARCH
if rpm.archscore(arch) == 0:
continue
name = h[1000] # RPMTAG_NAME
epoch = h[1003] # RPMTAG_EPOCH
if epoch and epoch != "0":
# RPMTAG_VERSION, RPMTAG_RELEASE
version = "%s:%s-%s" % (epoch, h[1001], h[1002])
else:
# RPMTAG_VERSION, RPMTAG_RELEASE
version = "%s-%s" % (h[1001], h[1002])
versionarch = "%s@%s" % (version, arch)
n = h[1047] # RPMTAG_PROVIDENAME
v = h[1113] # RPMTAG_PROVIDEVERSION
prvdict = {}
for i in range(len(n)):
ni = n[i]
if not ni.startswith("config("):
vi = v[i]
if vi and vi[:2] == "0:":
vi = vi[2:]
if ni == name and vi == version:
prvdict[(NPrv, intern(ni), versionarch)] = True
else:
prvdict[(Prv, intern(ni), vi or None)] = True
prvargs = prvdict.keys()
n = h[1049] # RPMTAG_REQUIRENAME
if n:
f = h[1048] # RPMTAG_REQUIREFLAGS
v = h[1050] # RPMTAG_REQUIREVERSION
reqdict = {}
for i in range(len(n)):
ni = n[i]
if ni[:7] not in ("rpmlib(", "config("):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
r = CM.get(f[i]&CF)
if ((r is not None and r != "=") or
((Prv, ni, vi) not in prvdict)):
# RPMSENSE_PREREQ |
# RPMSENSE_SCRIPT_PRE |
# RPMSENSE_SCRIPT_PREUN |
# RPMSENSE_SCRIPT_POST |
# RPMSENSE_SCRIPT_POSTUN == 7744
reqdict[(f[i]&7744 and PreReq or Req,
intern(ni), r, vi)] = True
reqargs = reqdict.keys()
else:
reqargs = None
n = h[1054] # RPMTAG_CONFLICTNAME
if n:
f = h[1053] # RPMTAG_CONFLICTFLAGS
# FIXME (20050321): Solaris rpm 4.1 hack
if type(f) == int:
f = [f]
v = h[1055] # RPMTAG_CONFLICTVERSION
cnfargs = []
for i in range(len(n)):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
cnfargs.append((Cnf, n[i], CM.get(f[i]&CF), vi))
else:
cnfargs = []
obstup = (Obs, name, '<', versionarch)
n = h[1090] # RPMTAG_OBSOLETENAME
if n:
f = h[1114] # RPMTAG_OBSOLETEFLAGS
# FIXME (20050321): Solaris rpm 4.1 hack
if type(f) == int:
f = [f]
v = h[1115] # RPMTAG_OBSOLETEVERSION
upgargs = []
for i in range(len(n)):
vi = v[i] or None
if vi and vi[:2] == "0:":
vi = vi[2:]
upgargs.append((Obs, n[i], CM.get(f[i]&CF), vi))
cnfargs.extend(upgargs)
upgargs.append(obstup)
else:
upgargs = [obstup]
pkg = self.buildPackage((Pkg, name, versionarch),
prvargs, reqargs, upgargs, cnfargs)
pkg.loaders[self] = offset
self._offsets[offset] = pkg
self._groups[pkg] = intern(h[rpm.RPMTAG_GROUP])
def solveDep(self,
unknowns,
availList,
msgCallback=None,
progressCallback=None,
refreshCallback=None):
self.cfg = config.initUp2dateConfig()
self.log = up2dateLog.initLog()
self.log.log_me("solving dep for: %s" % unknowns)
self.refreshCallback = refreshCallback
self.progressCallback = progressCallback
self.msgCallback = msgCallback
self.availList = availList
availList.sort()
self.availListHash = {}
for p in self.availList:
if self.availListHash.has_key(tuple(p[:4])):
self.availListHash[tuple(p[:4])].append(p)
else:
self.availListHash[tuple(p[:4])] = [p]
self.retDict = {}
self.getSolutions(unknowns,
progressCallback=self.progressCallback,
msgCallback=self.msgCallback)
reslist = []
self.depToPkg = DictOfLists()
self.depsNotAvailable = DictOfLists()
# self.depToPkg = {}
#FIXME: this should be cached, I dont really need to query the db
# for this everytime
self.installedPkgList = rpmUtils.getInstalledPackageList(getArch=1)
self.installedPkgHash = {}
for pkg in self.installedPkgList:
if self.installedPkgHash.has_key(pkg[0]):
self.installedPkgHash[pkg[0]].append(pkg)
else:
self.installedPkgHash[pkg[0]] = [pkg]
# we didnt get any results, bow out...
if not len(self.retDict):
return (reslist, self.depToPkg)
newList = []
availListNVRE = map(lambda p: p[:4], self.availList)
failedDeps = []
solutionPkgs = []
pkgs = []
for dep in self.retDict.keys():
# skip the rest if we didnt get a result
if len(self.retDict[dep]) == 0:
continue
solutions = self.retDict[dep]
# fixme, grab the first package that satisfies the dep
# but make sure we match nvre against the list of avail packages
# so we grab the right version of the package
# if we only get one soltution, use it. No point in jumping
# though other hoops
if len(solutions) == 1:
for solution in solutions:
pkgs.append(solution)
# we've got more than one possible solution, do some work
# to figure out if I want one, some, or all of them
elif len(solutions) > 1:
# try to install the new version of whatever arch is
# installed
solutionsInstalled = self.__getSolutionsInstalled(solutions)
found = 0
if len(solutionsInstalled):
for p in solutionsInstalled:
pkgs.append(p)
self.depToPkg[dep] = p
found = 1
if found:
break
# we dont have any of possible solutions installed, pick one
else:
# this is where we could do all sort of heuristics to pick
# best one. For now, grab the first one in the list thats
# available
#FIXME: we need to arch score here for multilib/kernel
# packages that dont have a version installed
# This tends to happen a lot when isntalling into
# empty chroots (aka, pick which of the kernels to
# install).
# ie, this is the pure heuristic approach...
shortest = solutions[0]
for solution in solutions:
if len(shortest[0]) > len(solution[0]):
shortest = solution
# if we get this far, its still possible that we have package
# that is multilib and we need to install both versions of
# this is a check for that...
if self.installedPkgHash.has_key(shortest[0]):
iList = self.installedPkgHash[shortest[0]]
for iPkg in iList:
if self.availListHash.has_key(tuple(shortest[:4])):
for i in self.availListHash[tuple(
shortest[:4])]:
if self.cfg['forcedArch']:
arches = self.cfg['forcedArch']
if i[4] in arches:
pkgs.append(i)
self.depToPkg[dep] = i
break
else:
# its not the same package we have installed
if iPkg[:5] != i[:5]:
# this arch matches the arch of a package
# installed
if iPkg[4] == i[4]:
pkgs.append(i)
self.depToPkg[dep] = i
break
# you may be asking yourself, wtf is that madness that follows?
# well, good question...
# its basically a series of kluges to work around packaging problems
# in RHEL-3 (depends who you ask... But basically, its packages doing
# stuff that was determined to be "unsupported" at the time of the
# initial multilib support, but packages did it later anyway
# Basically, what we are trying to do is pick the best arch of
# a package to solve a dep. Easy enough. The tricky part is
# what happens when we discover the best arch is already in
# transation and is _not_ solving the dep, so we need to look
# at the next best arch. So we check to see if we added it to
# the list of selected packges already, and if so, add the
# next best arch to the set. To make it uglier, the second best
# arch might not be valid at all, so in that case, dont use it
# (which will cause an unsolved dep, but they happen...)
if self.availListHash.has_key(tuple(shortest[:4])):
avail = self.availListHash[tuple(shortest[:4])]
bestArchP = None
useNextBestArch = None
bestArchP2 = None
# a saner approach might be to find the applicable arches,
# sort them, and walk over them in order
# remove the items with archscore <= 0
app_avail = filter(lambda a: rpm.archscore(a[4]),
avail)
# sort the items by archscore, most approriate first
app_avail.sort(lambda a, b: cmp(
rpm.archscore(a[4]), rpm.archscore(b[4])))
# so, whats wrong with this bit? well, if say "libgnutls.so(64bit)" doesn't
# find a dep, we'll try to solve it with gnutls.i386
# its because "gnutls" and "libgnutls.so(64bit)" are in the same set of
# deps. Since gnutls.x86_64 is added for the "gnutls" dep, its in the
# list of already selected for
for i in app_avail:
if i in self.selectedPkgs:
continue
pkgs.append(i)
self.depToPkg[dep] = i
# we found something, stop iterating over available
break
# we found something for this dep, stop iterating
continue
else:
# FIXME: in an ideal world, I could raise an exception here, but that will break the current gui
pkgs.append(p)
self.depToPkg[dep] = p
# raise UnsolvedDependencyError("Packages %s provide dep %s but are not available for install based on client config" % (pkgs,dep), dep, pkgs )
for pkg in pkgs:
self.selectedPkgs.append(pkg)
if pkg[:4] in availListNVRE:
newList.append(pkg)
else:
newList.append(pkg)
reslist = newList
# FIXME: we need to return the list of stuff that was skipped
# because it wasn't on the available list and present it to the
# user something like:
# blippy-1.0-1 requires barpy-2.0-1 but barpy-3.0-1 is already isntalled
#print "\n\nself.depsNotAvailable"
#pprint.pprint(self.depsNotAvailable)
#pprint.pprint(self.depToPkg)
return (reslist, self.depToPkg)