--- /dev/null
+#!/usr/bin/env python
+# -*- coding: utf-8 -*-
+#
+# Unix SMB/CIFS implementation.
+# Copyright (C) Kamen Mazdrashki <kamenim@samba.org> 2010
+# Copyright (C) Andrew Bartlett <abartlet@samba.org> 2016
+#
+# This program is free software; you can redistribute it and/or modify
+# it under the terms of the GNU General Public License as published by
+# the Free Software Foundation; either version 3 of the License, or
+# (at your option) any later version.
+#
+# This program is distributed in the hope that it will be useful,
+# but WITHOUT ANY WARRANTY; without even the implied warranty of
+# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+# GNU General Public License for more details.
+#
+# You should have received a copy of the GNU General Public License
+# along with this program. If not, see <http://www.gnu.org/licenses/>.
+#
+
+#
+# Usage:
+# export DC1=dc1_dns_name
+# export DC2=dc2_dns_name
+# export SUBUNITRUN=$samba4srcdir/scripting/bin/subunitrun
+# PYTHONPATH="$PYTHONPATH:$samba4srcdir/torture/drs/python" $SUBUNITRUN repl_move -U"$DOMAIN/$DC_USERNAME"%"$DC_PASSWORD"
+#
+
+import time
+
+
+from ldb import (
+ SCOPE_SUBTREE,
+ )
+
+import drs_base, ldb
+
+
+class DrsMoveObjectTestCase(drs_base.DrsBaseTestCase):
+
+ def setUp(self):
+ super(DrsMoveObjectTestCase, self).setUp()
+ # make sure DCs are synchronized before the test
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ self._net_drs_replicate(DC=self.dnsname_dc1, fromDC=self.dnsname_dc2, forced=True)
+ self.ou1_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU1")
+ self.ou1_dn.add_base(self.ldb_dc1.get_default_basedn())
+ ou1 = {}
+ ou1["dn"] = self.ou1_dn
+ ou1["objectclass"] = "organizationalUnit"
+ ou1["ou"] = self.ou1_dn.get_component_value(0)
+ self.ldb_dc1.add(ou1)
+
+ self.ou2_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU2")
+ self.ou2_dn.add_base(self.ldb_dc1.get_default_basedn())
+ ou2 = {}
+ ou2["dn"] = self.ou2_dn
+ ou2["objectclass"] = "organizationalUnit"
+ ou2["ou"] = self.ou2_dn.get_component_value(0)
+ self.ldb_dc1.add(ou2)
+
+ # disable automatic replication temporary
+ self._disable_inbound_repl(self.dnsname_dc1)
+ self._disable_inbound_repl(self.dnsname_dc2)
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+ def tearDown(self):
+ self.ldb_dc1.delete(self.ou1_dn, ["tree_delete:1"])
+ self.ldb_dc1.delete(self.ou2_dn, ["tree_delete:1"])
+ self._enable_inbound_repl(self.dnsname_dc1)
+ self._enable_inbound_repl(self.dnsname_dc2)
+ super(DrsMoveObjectTestCase, self).tearDown()
+
+ def _make_username(self):
+ return "DrsMoveU_" + time.strftime("%s", time.gmtime())
+
+ # now also used to check the group
+ def _check_obj(self, sam_ldb, obj_orig, is_deleted):
+ # search the user by guid as it may be deleted
+ guid_str = self._GUID_string(obj_orig["objectGUID"][0])
+ res = sam_ldb.search(base='<GUID=%s>' % guid_str,
+ controls=["show_deleted:1"],
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(res), 1)
+ user_cur = res[0]
+ # now check properties of the user
+ name_orig = obj_orig["cn"][0]
+ name_cur = user_cur["cn"][0]
+ dn_orig = obj_orig["dn"]
+ dn_cur = user_cur["dn"]
+ self.assertFalse("isDeleted" in user_cur)
+ self.assertEquals(name_cur, name_orig)
+ self.assertEquals(dn_cur, dn_orig)
+ return user_cur
+
+
+ def test_ReplicateMoveObject1(self):
+ """Verifies how a moved container with a user inside is replicated between two DCs.
+ This test should verify that:
+ - the OU is replicated properly
+ - the OU is renamed
+ - We verify that after replication,
+ that the user has the correct DN (under OU2)
+
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateMoveObject2(self):
+ """Verifies how a moved container with a user inside is not
+ replicated between two DCs as no replication is triggered
+ This test should verify that:
+ - the OU is not replicated
+ - the user is not replicated
+
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ # check user info on DC2 - should not be there, we have not done replication
+ ldb_res = self.ldb_dc2.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 0)
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+class DrsMoveBetweenTreeOfObjectTestCase(drs_base.DrsBaseTestCase):
+
+ def setUp(self):
+ super(DrsMoveBetweenTreeOfObjectTestCase, self).setUp()
+ # make sure DCs are synchronized before the test
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ self._net_drs_replicate(DC=self.dnsname_dc1, fromDC=self.dnsname_dc2, forced=True)
+ self.ou1_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU1")
+ self.ou1_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou1 = {}
+ self.ou1["dn"] = self.ou1_dn
+ self.ou1["objectclass"] = "organizationalUnit"
+ self.ou1["ou"] = self.ou1_dn.get_component_value(0)
+
+ self.ou2_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU2,OU=DrsOU1")
+ self.ou2_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou2 = {}
+ self.ou2["dn"] = self.ou2_dn
+ self.ou2["objectclass"] = "organizationalUnit"
+ self.ou2["ou"] = self.ou2_dn.get_component_value(0)
+
+ self.ou2b_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU2B,OU=DrsOU1")
+ self.ou2b_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou2b = {}
+ self.ou2b["dn"] = self.ou2b_dn
+ self.ou2b["objectclass"] = "organizationalUnit"
+ self.ou2b["ou"] = self.ou2b_dn.get_component_value(0)
+
+ self.ou2c_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU2C,OU=DrsOU1")
+ self.ou2c_dn.add_base(self.ldb_dc1.get_default_basedn())
+
+ self.ou3_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU3,OU=DrsOU2,OU=DrsOU1")
+ self.ou3_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou3 = {}
+ self.ou3["dn"] = self.ou3_dn
+ self.ou3["objectclass"] = "organizationalUnit"
+ self.ou3["ou"] = self.ou3_dn.get_component_value(0)
+
+ self.ou4_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU4,OU=DrsOU3,OU=DrsOU2,OU=DrsOU1")
+ self.ou4_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou4 = {}
+ self.ou4["dn"] = self.ou4_dn
+ self.ou4["objectclass"] = "organizationalUnit"
+ self.ou4["ou"] = self.ou4_dn.get_component_value(0)
+
+ self.ou5_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU5,OU=DrsOU4,OU=DrsOU3,OU=DrsOU2,OU=DrsOU1")
+ self.ou5_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou5 = {}
+ self.ou5["dn"] = self.ou5_dn
+ self.ou5["objectclass"] = "organizationalUnit"
+ self.ou5["ou"] = self.ou5_dn.get_component_value(0)
+
+ self.ou6_dn = ldb.Dn(self.ldb_dc1, "OU=DrsOU6,OU=DrsOU5,OU=DrsOU4,OU=DrsOU3,OU=DrsOU2,OU=DrsOU1")
+ self.ou6_dn.add_base(self.ldb_dc1.get_default_basedn())
+ self.ou6 = {}
+ self.ou6["dn"] = self.ou6_dn
+ self.ou6["objectclass"] = "organizationalUnit"
+ self.ou6["ou"] = self.ou6_dn.get_component_value(0)
+
+ # disable automatic replication temporary
+ self._disable_inbound_repl(self.dnsname_dc1)
+ self._disable_inbound_repl(self.dnsname_dc2)
+
+
+ def tearDown(self):
+ self.ldb_dc1.delete(self.ou1_dn, ["tree_delete:1"])
+ self._enable_inbound_repl(self.dnsname_dc1)
+ self._enable_inbound_repl(self.dnsname_dc2)
+ super(DrsMoveBetweenTreeOfObjectTestCase, self).tearDown()
+
+ def _make_username(self):
+ return "DrsTreeU_" + time.strftime("%s", time.gmtime())
+
+ # now also used to check the group
+ def _check_obj(self, sam_ldb, obj_orig, is_deleted):
+ # search the user by guid as it may be deleted
+ guid_str = self._GUID_string(obj_orig["objectGUID"][0])
+ res = sam_ldb.search(base='<GUID=%s>' % guid_str,
+ controls=["show_deleted:1"],
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(res), 1)
+ user_cur = res[0]
+ # now check properties of the user
+ name_orig = obj_orig["cn"][0]
+ name_cur = user_cur["cn"][0]
+ dn_orig = obj_orig["dn"]
+ dn_cur = user_cur["dn"]
+ self.assertFalse("isDeleted" in user_cur)
+ self.assertEquals(name_cur, name_orig)
+ self.assertEquals(dn_cur, dn_orig)
+ return user_cur
+
+
+ def test_ReplicateMoveInTree1(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - a complex OU tree can be replicated correctly
+ - the user is in the correct spot (renamed into) within the tree
+ on both DCs
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ self.ldb_dc1.add(self.ou2)
+ self.ldb_dc1.add(self.ou3)
+ self.ldb_dc1.add(self.ou4)
+ self.ldb_dc1.add(self.ou5)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou5_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateMoveInTree2(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - a complex OU tree can be replicated correctly
+ - the user is in the correct spot (renamed into) within the tree
+ on both DCs
+ - that a rename back works correctly, and is replicated
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ self.ldb_dc1.add(self.ou2)
+ self.ldb_dc1.add(self.ou2b)
+ self.ldb_dc1.add(self.ou3)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou3_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ new_dn3 = ldb.Dn(self.ldb_dc1, "OU=%s" % self.ou3_dn.get_component_value(0))
+ new_dn3.add_base(self.ou2b_dn)
+ self.ldb_dc1.rename(self.ou3_dn, new_dn3)
+
+ ldb_res = self.ldb_dc1.search(base=new_dn3,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou1_dn)
+ self.ldb_dc1.rename(user_moved_dn, new_dn)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateMoveInTree3(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - a complex OU tree can be replicated correctly
+ - the user is in the correct spot (renamed into) within the tree
+ on both DCs
+ - that a rename back works correctly, and is replicated
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ self.ldb_dc1.add(self.ou2)
+ self.ldb_dc1.add(self.ou2b)
+ self.ldb_dc1.add(self.ou3)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou3_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ new_dn3 = ldb.Dn(self.ldb_dc1, "OU=%s" % self.ou3_dn.get_component_value(0))
+ new_dn3.add_base(self.ou2b_dn)
+ self.ldb_dc1.rename(self.ou3_dn, new_dn3)
+
+ ldb_res = self.ldb_dc1.search(base=new_dn3,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_moved_dn, new_dn)
+
+ self.ldb_dc1.rename(self.ou2_dn, self.ou2c_dn)
+ self.ldb_dc1.rename(self.ou2b_dn, self.ou2_dn)
+ self.ldb_dc1.rename(self.ou2c_dn, self.ou2b_dn)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ self.assertEquals(user_cur["parentGUID"], user_moved_orig["parentGUID"])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateMoveInTree3b(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - a complex OU tree can be replicated correctly
+ - the user is in the correct spot (renamed into) within the tree
+ on both DCs
+ - that a rename back works correctly, and is replicated
+ - that a complex rename suffle, combined with unrelated changes to the object,
+ is replicated correctly. The aim here is the send the objects out-of-order
+ when sorted by usnChanged.
+ - confirm that the OU tree and (in particular the user DN) is identical between
+ the DCs once this has been replicated.
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ self.ldb_dc1.add(self.ou2)
+ self.ldb_dc1.add(self.ou2b)
+ self.ldb_dc1.add(self.ou3)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ msg = ldb.Message()
+ msg.dn = new_dn
+ msg["description"] = ldb.MessageElement("User Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ # The sleep(1) calls here ensure that the name objects get a
+ # new 1-sec based timestamp, and so we select how the conflict
+ # resolution resolves.
+ self.ldb_dc1.rename(self.ou2_dn, self.ou2c_dn)
+ time.sleep(1)
+ self.ldb_dc1.rename(self.ou2b_dn, self.ou2_dn)
+ time.sleep(1)
+ self.ldb_dc1.rename(self.ou2c_dn, self.ou2b_dn)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]), new_dn)
+
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ msg = ldb.Message()
+ msg.dn = self.ou2b_dn
+ msg["description"] = ldb.MessageElement("OU2b Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+ self.assertEquals(user_cur["parentGUID"][0], user_moved_orig["parentGUID"][0])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateMoveInTree4(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - an OU and user can be replicated correctly, even after a rename
+ - The creation and rename of the OU has been combined with unrelated changes to the object,
+ The aim here is the send the objects out-of-order when sorted by usnChanged.
+ - That is, the OU will be sorted by usnChanged after the user that is within that OU.
+ - That will cause the client to need to get the OU first, by use of the GET_ANC flag
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # check user info on DC1
+ print "Testing for %s with GUID %s" % (username, self._GUID_string(user_orig["objectGUID"][0]))
+ self._check_obj(sam_ldb=self.ldb_dc1, obj_orig=user_orig, is_deleted=False)
+
+ self.ldb_dc1.add(self.ou2)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou2_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username)
+ self.assertEquals(len(ldb_res), 1)
+
+ user_moved_orig = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved_orig, is_deleted=False)
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateAddInOU(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - an OU and user can be replicated correctly
+ - The creation of the OU has been combined with unrelated changes to the object,
+ The aim here is the send the objects out-of-order when sorted by usnChanged.
+ - That is, the OU will be sorted by usnChanged after the user that is within that OU.
+ - That will cause the client to need to get the OU first, by use of the GET_ANC flag
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ msg = ldb.Message()
+ msg.dn = self.ou1_dn
+ msg["description"] = ldb.MessageElement("OU1 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_orig, is_deleted=False)
+
+ self.assertEquals(user_cur["parentGUID"], user_orig["parentGUID"])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateAddInMovedOU(self):
+ """Verifies how an object is replicated between two DCs.
+ This test should verify that:
+ - an OU and user can be replicated correctly
+ - The creation of the OU has been combined with unrelated changes to the object,
+ The aim here is the send the objects out-of-order when sorted by usnChanged.
+ - That is, the OU will be sorted by usnChanged after the user that is within that OU.
+ - That will cause the client to need to get the OU first, by use of the GET_ANC flag
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+ self.ldb_dc1.add(self.ou2)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ self.ldb_dc1.rename(self.ou2_dn, self.ou2b_dn)
+
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_moved = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be valid user
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved, is_deleted=False)
+
+ self.assertEquals(user_cur["parentGUID"], user_moved["parentGUID"])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+
+ def test_ReplicateAddInConflictOU_time(self):
+ """Verifies how an object is replicated between two DCs, when created in an ambigious location
+ This test should verify that:
+ - Without replication, two conflicting objects can be created
+ - force the conflict resolution algorithm so we know which copy will win
+ (by sleeping while creating the objects, therefore increasing that timestamp on 'name')
+ - confirm that the user object, created on DC1, ends up in the right place on DC2
+ - therefore confirm that the conflict algorithm worked correctly, and that parentGUID was used.
+
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+ # Now create two, conflicting objects. This gives the user
+ # object something to be under on both DCs.
+
+ # We sleep between the two adds so that DC1 adds second, and
+ # so wins the conflict resoution due to a later creation time
+ # (modification timestamp on the name attribute).
+ self.ldb_dc2.add(self.ou2)
+ time.sleep(1)
+ self.ldb_dc1.add(self.ou2)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ # Now that we have renamed the user (and so bumpted the
+ # usnChanged), bump the value on the OUs.
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc2.modify(msg)
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_moved = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be under the OU2 from DC1
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved, is_deleted=False)
+
+ self.assertEquals(user_cur["parentGUID"], user_moved["parentGUID"])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+ def test_ReplicateAddInConflictOU2(self):
+ """Verifies how an object is replicated between two DCs, when created in an ambigious location
+ This test should verify that:
+ - Without replication, two conflicting objects can be created
+ - force the conflict resolution algorithm so we know which copy will win
+ (by changing the description twice, therefore increasing that version count)
+ - confirm that the user object, created on DC1, ends up in the right place on DC2
+ - therefore confirm that the conflict algorithm worked correctly, and that parentGUID was used.
+ """
+ # work-out unique username to test with
+ username = self._make_username()
+
+ self.ldb_dc1.add(self.ou1)
+
+ # create user on DC1
+ self.ldb_dc1.newuser(username=username,
+ userou="ou=%s" % self.ou1_dn.get_component_value(0),
+ password=None, setpassword=False)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_orig = ldb_res[0]
+ user_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+
+ # Now create two, conflicting objects. This gives the user
+ # object something to be under on both DCs. We create it on
+ # DC1 1sec later so that it will win the conflict resolution.
+
+ self.ldb_dc2.add(self.ou2)
+ time.sleep(1)
+ self.ldb_dc1.add(self.ou2)
+
+ new_dn = ldb.Dn(self.ldb_dc1, "CN=%s" % username)
+ new_dn.add_base(self.ou2_dn)
+ self.ldb_dc1.rename(user_dn, new_dn)
+
+ # Now that we have renamed the user (and so bumpted the
+ # usnChanged), bump the value on the OUs.
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc1.modify(msg)
+
+ msg = ldb.Message()
+ msg.dn = self.ou2_dn
+ msg["description"] = ldb.MessageElement("OU2 Description", ldb.FLAG_MOD_REPLACE, "description")
+ self.ldb_dc2.modify(msg)
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ ldb_res = self.ldb_dc1.search(base=self.ou1_dn,
+ scope=SCOPE_SUBTREE,
+ expression="(samAccountName=%s)" % username,
+ attrs=["*", "parentGUID"])
+ self.assertEquals(len(ldb_res), 1)
+ user_moved = ldb_res[0]
+ user_moved_dn = ldb_res[0]["dn"]
+
+ # trigger replication from DC1 to DC2
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
+ # check user info on DC2 - should be under the OU2 from DC1
+ user_cur = self._check_obj(sam_ldb=self.ldb_dc2, obj_orig=user_moved, is_deleted=False)
+
+ self.assertEquals(user_cur["parentGUID"], user_moved["parentGUID"])
+
+ # delete user on DC1
+ self.ldb_dc1.delete('<GUID=%s>' % self._GUID_string(user_orig["objectGUID"][0]))
+
+ # trigger replication from DC1 to DC2, for cleanup
+ self._net_drs_replicate(DC=self.dnsname_dc2, fromDC=self.dnsname_dc1, forced=True)
git.samba.org / metze / samba / wip.git / commitdiff