##// END OF EJS Templates
push: propagate --new-branch and --ssh options when pushing subrepos...
push: propagate --new-branch and --ssh options when pushing subrepos Up until now the all the push command options were ignored when pushing subrepos. In particular, the fact that the --new-branch command was not passed down to subrepos made it not possible to push a repo when any of its subrepos had a new branch, even if you used the --new-branch option of the push command. In addition the error message was confusing since it showed the following hint: "--new-branch hint: use 'hg push --new-branch' to create new remote branches". However using the --new_branch flag did not fix the problem, as it was ignored when pushing subrepos. This patch passes the --new-branch and --ssh flags to every subrepo that is pushed. Issues/Limitations: - All subrepo types get these flags, but only the mercurial subrepos use them. - It is no longer possible to _not_ pass down these flags to subrepos when pushing: * An alternative would be to introduce a --subrepos flag that should be used to pass down these flags to the subrepos. * If we did this, it could make sense to make the --force flag respect this new --subrepos flag as well for consistency's sake. - Matt suggested that the ssh related flags could also be passed down to subrepos during pull and clone. However it seems that it would be the "update" command that would need to get those, since subrepos are only pulled on update. In any case I'd prefer to leave that for a later patch.

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manifest.py
204 lines | 7.6 KiB | text/x-python | PythonLexer
# manifest.py - manifest revision class for mercurial
#
# Copyright 2005-2007 Matt Mackall <mpm@selenic.com>
#
# This software may be used and distributed according to the terms of the
# GNU General Public License version 2 or any later version.
from i18n import _
import mdiff, parsers, error, revlog, util
import array, struct
class manifestdict(dict):
def __init__(self, mapping=None, flags=None):
if mapping is None:
mapping = {}
if flags is None:
flags = {}
dict.__init__(self, mapping)
self._flags = flags
def flags(self, f):
return self._flags.get(f, "")
def set(self, f, flags):
self._flags[f] = flags
def copy(self):
return manifestdict(self, dict.copy(self._flags))
class manifest(revlog.revlog):
def __init__(self, opener):
self._mancache = None
revlog.revlog.__init__(self, opener, "00manifest.i")
def parse(self, lines):
mfdict = manifestdict()
parsers.parse_manifest(mfdict, mfdict._flags, lines)
return mfdict
def readdelta(self, node):
r = self.rev(node)
return self.parse(mdiff.patchtext(self.revdiff(self.deltaparent(r), r)))
def readfast(self, node):
'''use the faster of readdelta or read'''
r = self.rev(node)
deltaparent = self.deltaparent(r)
if deltaparent != revlog.nullrev and deltaparent in self.parentrevs(r):
return self.readdelta(node)
return self.read(node)
def read(self, node):
if node == revlog.nullid:
return manifestdict() # don't upset local cache
if self._mancache and self._mancache[0] == node:
return self._mancache[1]
text = self.revision(node)
arraytext = array.array('c', text)
mapping = self.parse(text)
self._mancache = (node, mapping, arraytext)
return mapping
def _search(self, m, s, lo=0, hi=None):
'''return a tuple (start, end) that says where to find s within m.
If the string is found m[start:end] are the line containing
that string. If start == end the string was not found and
they indicate the proper sorted insertion point. This was
taken from bisect_left, and modified to find line start/end as
it goes along.
m should be a buffer or a string
s is a string'''
def advance(i, c):
while i < lenm and m[i] != c:
i += 1
return i
if not s:
return (lo, lo)
lenm = len(m)
if not hi:
hi = lenm
while lo < hi:
mid = (lo + hi) // 2
start = mid
while start > 0 and m[start - 1] != '\n':
start -= 1
end = advance(start, '\0')
if m[start:end] < s:
# we know that after the null there are 40 bytes of sha1
# this translates to the bisect lo = mid + 1
lo = advance(end + 40, '\n') + 1
else:
# this translates to the bisect hi = mid
hi = start
end = advance(lo, '\0')
found = m[lo:end]
if s == found:
# we know that after the null there are 40 bytes of sha1
end = advance(end + 40, '\n')
return (lo, end + 1)
else:
return (lo, lo)
def find(self, node, f):
'''look up entry for a single file efficiently.
return (node, flags) pair if found, (None, None) if not.'''
if self._mancache and self._mancache[0] == node:
return self._mancache[1].get(f), self._mancache[1].flags(f)
text = self.revision(node)
start, end = self._search(text, f)
if start == end:
return None, None
l = text[start:end]
f, n = l.split('\0')
return revlog.bin(n[:40]), n[40:-1]
def add(self, map, transaction, link, p1=None, p2=None,
changed=None):
# apply the changes collected during the bisect loop to our addlist
# return a delta suitable for addrevision
def addlistdelta(addlist, x):
# start from the bottom up
# so changes to the offsets don't mess things up.
for start, end, content in reversed(x):
if content:
addlist[start:end] = array.array('c', content)
else:
del addlist[start:end]
return "".join(struct.pack(">lll", start, end, len(content)) + content
for start, end, content in x)
def checkforbidden(l):
for f in l:
if '\n' in f or '\r' in f:
raise error.RevlogError(
_("'\\n' and '\\r' disallowed in filenames: %r") % f)
# if we're using the cache, make sure it is valid and
# parented by the same node we're diffing against
if not (changed and self._mancache and p1 and self._mancache[0] == p1):
files = sorted(map)
checkforbidden(files)
# if this is changed to support newlines in filenames,
# be sure to check the templates/ dir again (especially *-raw.tmpl)
hex, flags = revlog.hex, map.flags
text = ''.join("%s\0%s%s\n" % (f, hex(map[f]), flags(f))
for f in files)
arraytext = array.array('c', text)
cachedelta = None
else:
added, removed = changed
addlist = self._mancache[2]
checkforbidden(added)
# combine the changed lists into one list for sorting
work = [(x, False) for x in added]
work.extend((x, True) for x in removed)
# this could use heapq.merge() (from python2.6+) or equivalent
# since the lists are already sorted
work.sort()
delta = []
dstart = None
dend = None
dline = [""]
start = 0
# zero copy representation of addlist as a buffer
addbuf = util.buffer(addlist)
# start with a readonly loop that finds the offset of
# each line and creates the deltas
for f, todelete in work:
# bs will either be the index of the item or the insert point
start, end = self._search(addbuf, f, start)
if not todelete:
l = "%s\0%s%s\n" % (f, revlog.hex(map[f]), map.flags(f))
else:
if start == end:
# item we want to delete was not found, error out
raise AssertionError(
_("failed to remove %s from manifest") % f)
l = ""
if dstart is not None and dstart <= start and dend >= start:
if dend < end:
dend = end
if l:
dline.append(l)
else:
if dstart is not None:
delta.append([dstart, dend, "".join(dline)])
dstart = start
dend = end
dline = [l]
if dstart is not None:
delta.append([dstart, dend, "".join(dline)])
# apply the delta to the addlist, and get a delta for addrevision
cachedelta = (self.rev(p1), addlistdelta(addlist, delta))
arraytext = addlist
text = util.buffer(arraytext)
n = self.addrevision(text, transaction, link, p1, p2, cachedelta)
self._mancache = (n, map, arraytext)
return n