def test_slice_on_part(self):
self.disk.geometry.nheads = 24
self.disk.geometry.nsectors = 848
self.disk.geometry.blocksize = 512
self.disk.geometry.ncyl = 14089
part = Partition(2)
part.action = "create"
part.start_sector = 0
part.size = Size("50" + Size.gb_units)
part.part_type = "primary"
part.bootid = Partition.ACTIVE
self.disk.insert_children(part)
slice1 = Slice(1)
slice1.action = "create"
slice1.size = Size(str(GBSECTOR) + Size.sector_units)
slice1.start_sector = CYLSIZE
slice1.tag = const.V_USR
slice1.flag = 0
part.insert_children(slice1)
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def create(self, dry_run):
""" method to create a zvol.
"""
if not self.exists:
# check self.size. If it's a Size() object, convert it to a string
# ZFS expects
if isinstance(self.size, Size):
zvol_size = str(int(self.size.get(Size.mb_units))) + "M"
elif self.size == "max":
# Allocate 90 % of available space on pool to zvol.
# Size of zvol is capped to 90 % to avoid full zpool
# issues.
if self.parent is not None:
fs = Filesystem(self.parent.name)
fs_size = Size(fs.get("available"))
zvol_size = str(int(fs_size.get(Size.mb_units) * 0.9)) + \
"M"
self.size = Size(zvol_size)
else:
zvol_size = self.size
cmd = [ZFS, "create", "-p", "-V", zvol_size]
zfs_options = self.get_first_child(class_type=Options)
if zfs_options is not None:
cmd.extend(zfs_options.get_arg_list())
cmd.append(self.full_name)
if not dry_run:
Popen.check_call(cmd, stdout=Popen.STORE, stderr=Popen.STORE,
logger=ILN, env={"LC_ALL": "C"})
# check the "use" attribute
if self.use == "swap":
cmd = [SWAP, "-a",
os.path.join("/dev/zvol/dsk", self.full_name)]
Popen.check_call(cmd, stdout=Popen.STORE,
stderr=Popen.STORE, logger=ILN,
stderr_loglevel=logging.DEBUG)
elif self.use == "dump":
cmd = [DUMPADM, "-d",
os.path.join("/dev/zvol/dsk", self.full_name)]
if self.create_failure_ok:
results = (0, 1)
else:
results = (0,)
p = Popen.check_call(cmd, stdout=Popen.STORE,
stderr=Popen.STORE, logger=ILN,
stderr_loglevel=logging.DEBUG,
check_result=results)
if p.returncode == 1:
logger = logging.getLogger(ILN)
logger.warning("Unable to create dump Zvol "
"with size %s." % zvol_size)
def discover_slice(self, slc, blocksize):
""" discover_slices - method to discover a physical disk's slice
layout.
slc - slice object as discovered by ldm
blocksize - blocksize of the disk
"""
# store the attributes locally so libdiskmgt doesn't have to keep
# looking them up
slc_attributes = slc.attributes
new_slice = Slice(str(slc_attributes.index))
new_slice.action = "preserve"
new_slice.tag = slc_attributes.tag
new_slice.flag = slc_attributes.flag
new_slice.size = Size(str(slc_attributes.size) + Size.sector_units,
blocksize=blocksize)
new_slice.start_sector = long(slc_attributes.start)
new_slice.size_in_sectors = slc_attributes.size
stats = slc.use_stats
if "used_by" in stats:
new_slice.in_use = stats
return new_slice
def set_geometry(self, dma, new_disk):
""" set_geometry() - method to set the geometry of the Disk DOC object
from the libdiskmgt drive object.
dma - the drive's media attributes as returned by libdiskmgt
new_disk - Disk DOC object
"""
new_geometry = None
# If the disk has a GPT label (or no label), ncylinders will be
# None
if dma.ncylinders is None:
# XXX - libdiskmgt calculation of DM_NACCESSIBLE for GPT disks
# is broken, so we use DM_SIZE since we can access all blocks on
# the disk anyway because we don't need to worry about VTOC
# imposed cylinder alignment on disk size.
# Bugster CR: 7099417
new_disk.disk_prop.dev_size = Size(
str(dma.size) + Size.sector_units, dma.blocksize)
# set only the blocksize (not the cylinder size)
new_geometry = DiskGeometry(dma.blocksize, None)
# set the label of the disk, if possible
if dma.efi:
new_disk.label = "GPT"
new_geometry.efi = True
else:
new_disk.label = "VTOC"
# set the disk's volid
new_disk.volid = dma.label
ncyl = dma.ncylinders
nhead = dma.nheads
nsect = dma.nsectors
new_disk.disk_prop.dev_size = Size(
str(dma.naccessible) + Size.sector_units, dma.blocksize)
new_geometry = DiskGeometry(dma.blocksize, nhead * nsect)
new_geometry.ncyl = ncyl
new_geometry.nheads = nhead
new_geometry.nsectors = nsect
new_disk.geometry = new_geometry
return new_disk
def decimal_valid(edit_field, disk_win=None):
'''Check text to see if it is a decimal number of precision no
greater than the tenths place.
'''
text = edit_field.get_text().lstrip()
radixchar = locale.localeconv()['decimal_point']
if text.endswith(" "):
raise UIMessage(_('Only the digits 0-9 and %s are valid.') % radixchar)
vals = text.split(radixchar)
if len(vals) > 2:
raise UIMessage(_('A number can only have one %s') % radixchar)
try:
if len(vals[0]) > 0:
int(vals[0])
if len(vals) > 1 and len(vals[1]) > 0:
int(vals[1])
except ValueError:
raise UIMessage(_('Only the digits 0-9 and %s are valid.') % radixchar)
if len(vals) > 1 and len(vals[1]) > 1:
raise UIMessage(_("Size can be specified to only one decimal place."))
if disk_win is not None:
text = text.rstrip(radixchar)
if not text:
text = "0"
# encode user input per locale for floating point conversion
text = text.encode(get_encoding())
new_size = Size(str(locale.atof(text)) + Size.gb_units)
max_size = edit_field.data_obj.get_max_size()
# When comparing sizes, check only to the first decimal place,
# as that is all the user sees. (Rounding errors that could
# cause the partition/slice layout to be invalid get cleaned up
# prior to target instantiation)
new_size_rounded = round(new_size.get(Size.gb_units), 1)
max_size_rounded = round(max_size.get(Size.gb_units), 1)
if new_size_rounded > max_size_rounded:
locale_new_size = locale.format("%.1f", new_size_rounded)
locale_max_size = locale.format("%.1f", max_size_rounded)
msg = _("The new size ") + locale_new_size + \
_(" is greater than the available space ") + locale_max_size
raise UIMessage(msg)
return True
def test_update_vtoc(self):
slice1 = Slice(1)
slice1.action = "create"
slice1.size = Size("4" + Size.sector_units)
slice1.start_sector = 1
slice1.tag = const.V_BOOT
slice1.flag = const.V_RONLY
slice2 = Slice(2)
slice2.action = "create"
slice2.size = Size("8" + Size.sector_units)
slice2.start_sector = 10
slice2.tag = const.V_BACKUP
slice2.flag = const.V_RONLY
slice3 = Slice(3)
slice3.action = "preserve"
slice3.size = Size("20" + Size.sector_units)
slice3.start_sector = 20
slice3.tag = const.V_USR
slice3.flag = const.V_UNMNT
slices_list = [slice1, slice2, slice3]
extvtocp = C.pointer(cstruct.extvtoc())
c = extvtocp.contents
self.disk.geometry.ncly = 5
self.disk._update_vtoc_struct(extvtocp, slices_list, 10)
self.failIf(\
c.v_part[int(slice1.name)].p_size != slice1.size.sectors or \
c.v_part[int(slice1.name)].p_start != slice1.start_sector or \
c.v_part[int(slice1.name)].p_tag != slice1.tag or \
c.v_part[int(slice1.name)].p_flag != slice1.flag)
self.failIf(\
c.v_part[int(slice2.name)].p_size != slice2.size.sectors or \
c.v_part[int(slice2.name)].p_start != slice2.start_sector or \
c.v_part[int(slice2.name)].p_tag != slice2.tag or \
c.v_part[int(slice2.name)].p_flag != slice2.flag)
self.failIf(\
c.v_part[int(slice3.name)].p_size != slice3.size.sectors or \
c.v_part[int(slice3.name)].p_start != slice3.start_sector or \
c.v_part[int(slice3.name)].p_tag != slice3.tag or \
c.v_part[int(slice3.name)].p_flag != slice3.flag)
def set_geometry(self, dma, new_disk):
""" set_geometry() - method to set the geometry of the Disk DOC object
from the libdiskmgt drive object.
dma - the drive's media attributes as returned by libdiskmgt
new_disk - Disk DOC object
"""
new_geometry = None
# If the disk has a GPT label (or no label), ncylinders will be
# None
if dma.ncylinders is None:
new_disk.disk_prop.dev_size = Size(str(dma.naccessible) +
Size.sector_units,
dma.blocksize)
# set only the blocksize (not the cylinder size)
new_geometry = DiskGeometry(dma.blocksize, None)
# set the label of the disk, if possible
if dma.efi:
new_disk.label = "GPT"
new_geometry.efi = True
else:
new_disk.label = "VTOC"
# set the disk's volid
new_disk.volid = dma.label
ncyl = dma.ncylinders
nhead = dma.nheads
nsect = dma.nsectors
new_disk.disk_prop.dev_size = Size(str(ncyl * nhead * nsect) +
Size.sector_units,
dma.blocksize)
new_geometry = DiskGeometry(dma.blocksize, nhead * nsect)
new_geometry.ncyl = ncyl
new_geometry.nheads = nhead
new_geometry.nsectors = nsect
new_disk.geometry = new_geometry
return new_disk
def test_initial_disk_selected_by_size(self):
'''Validate that initial disk matches size criteria'''
tc = TargetController(self.doc)
returned_disks = tc.initialize(image_size=Size("110GB"))
self.assertEqual(returned_disks[0].ctd, "c2t2d0",
"incorrect initial disk returned")
desired_disks = self._get_desired_disks()
self.assertEqual(desired_disks[0].ctd, "c2t2d0",
"incorrect initial disk selected")
def test_part_not_preserve(self):
part = Partition(1)
part.action = "create"
part.part_type = "primary"
part.bootid = Partition.ACTIVE
part.size = Size("2gb")
part2 = Partition(2)
part2.action = "destroy"
part2.part_type = "primary"
part2.bootid = 0
part2.size = Size("2gb")
self.disk.insert_children([part, part2])
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def validate(self):
'''Validate the size of the disk.'''
warning_txt = list()
disk = self.disk_detail.ui_obj.doc_obj
disk_size_gb = disk.disk_prop.dev_size.get(Size.gb_units)
max_vtoc_size_gb = Size(MAX_VTOC).get(Size.gb_units)
# Disk size warning should only be displayed if we are restricted to
# VTOC boot disks.
if not can_use_gpt and disk_size_gb > max_vtoc_size_gb:
warning_txt.append(self.disk_warning_too_big)
warning_txt = " ".join(warning_txt)
if warning_txt:
# warn the user and give user a chance to change
result = self.main_win.pop_up(DiskScreen.DISK_WARNING_HEADER,
warning_txt,
DiskScreen.CANCEL_BUTTON,
DiskScreen.CONTINUE_BUTTON)
if not result:
raise UIMessage() # let user select different disk
# if user didn't quit it is always OK to ignore disk size,
# that will be forced less than the maximum in partitioning.
warning_txt = list()
# We also need to warn the user if we need to relabel the disk from
# GPT to SMI-VTOC
if disk.label == "GPT" and not can_use_gpt and \
disk.disk_prop.dev_type != "iSCSI":
warning_txt.append(DiskScreen.DISK_WARNING_RELABEL)
warning_txt = " ".join(warning_txt)
if warning_txt:
# warn the user and give user a chance to change
result = self.main_win.pop_up(DiskScreen.DISK_WARNING_HEADER,
warning_txt,
DiskScreen.CANCEL_BUTTON,
DiskScreen.CONTINUE_BUTTON)
if not result:
raise UIMessage() # let user select different disk
# if user didn't Cancel it is OK to relabel the disk.
# This is one of the lesser known (and potentially dangerous)
# features of target controller: select_disk() with
# use_whole_disk=True can force a relabeling of the disk from GPT
# to VTOC is necessary for booting from the disk
disk = self.tc.select_disk(disk, use_whole_disk=True)[0]
# The DiskWindow object needs its disk reference updated too
self.disk_detail.set_disk_info(disk_info=disk)
def discover_partition(self, partition, blocksize):
""" discover_partition - method to discover a physical disk's
partition layout
partition - partition object as discovered by ldm
blocksize - blocksize of the disk
"""
# store the attributes locally so libdiskmgt doesn't have to keep
# looking them up
partition_attributes = partition.attributes
# partition name is ctdp path. Split the string on "p"
root_path, _none, index = partition.name.partition("p")
# create a DOC object for this partition. Set validate_children to
# False so the shadow code doesn't adjust the start sector or size for
# any children discovered
new_partition = Partition(index, validate_children=False)
new_partition.action = "preserve"
new_partition.part_type = partition_attributes.id
# check the partition's ID to set the partition type correctly
if partition_attributes.id == \
Partition.name_to_num("Solaris/Linux swap"):
try:
# try to call prtvtoc on slice 2. If it succeeds, this is a
# solaris1 partition.
slice2 = root_path + "s2"
cmd = [PRTVTOC, slice2]
run(cmd, stdout=Popen.DEVNULL)
except CalledProcessError:
# the call to prtvtoc failed which means this partition is
# Linux swap. To be sure, prtvtoc failure might also mean an
# unlabeled Solaris1 partition but we aren't going to worry
# about that for now. Displaying an unlabeled (and therefore
# unused) Solaris1 partition should not have any unforeseen
# consequences in terms of data loss.
new_partition.is_linux_swap = True
new_partition.size = Size(str(partition_attributes.nsectors) + \
Size.sector_units, blocksize=blocksize)
new_partition.start_sector = long(partition_attributes.relsect)
new_partition.size_in_sectors = partition_attributes.nsectors
# If the partition is an EFI system partition check to see if it
# is PCFS formatted. We only do this on EFI system partitions to save
# time since mounting can be slow.
if new_partition.is_efi_system:
ctdp = partition.name.rsplit('/', 1)[-1]
new_partition._is_pcfs_formatted = self.is_pcfs_formatted(ctdp)
return new_partition
def test_slice_on_part_not_preserve(self):
part = Partition(1)
part.action = "preserve"
part.part_type = "primary"
part.bootid = Partition.ACTIVE
part.size = Size("50" + Size.gb_units)
part.start_sector = 0
part2 = Partition(2)
part2.action = "preserve"
part2.part_type = "primary"
part2.bootid = 0
part2.size = Size("50" + Size.gb_units)
part2.start_sector = 50 * GBSECTOR + 50
self.disk.insert_children([part, part2])
slice1 = Slice(1)
slice1.action = "create"
slice1.size = Size(str(GBSECTOR) + Size.sector_units)
slice1.start_sector = CYLSIZE
slice2 = Slice(2)
slice2.action = "create"
slice2.size = Size(str(GBSECTOR) + Size.sector_units)
slice2.start_sector = CYLSIZE + GBSECTOR + 1
slice3 = Slice(3)
slice3.action = "destroy"
slice3.size = Size(str(GBSECTOR) + Size.sector_units)
slice3.start_sector = CYLSIZE + (2 * GBSECTOR + 2)
part.insert_children([slice1, slice2, slice3])
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def test_create_multiple_partitions(self):
part = Partition(2)
part.action = "create"
part.start_sector = 0
part.size = Size("20" + Size.gb_units)
part.part_type = "primary"
part.bootid = Partition.ACTIVE
part2 = Partition(4)
part2.action = "create"
part2.start_sector = 50 * GBSECTOR + 50
part2.size = Size("50" + Size.gb_units)
part2.part_type = "extended"
part2.bootid = 0
self.disk.insert_children([part, part2])
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def __init__(self, main_win, target_controller):
""" screen object containing the disk selection choice for the user
"""
global LOGGER
LOGGER = logging.getLogger(INSTALL_LOGGER_NAME)
super(DiskScreen, self).__init__(main_win)
if platform.processor() == "i386":
self.found_text = DiskScreen.FOUND_x86
self.proposed_text = DiskScreen.PROPOSED_x86
else:
self.found_text = DiskScreen.FOUND_SPARC
self.proposed_text = DiskScreen.PROPOSED_SPARC
self.gpt_found_text = DiskScreen.FOUND_GPT
self.gpt_proposed_text = DiskScreen.PROPOSED_GPT
disk_header_text = []
for header in DiskScreen.DISK_HEADERS:
header_str = fit_text_truncate(header[1],
header[0] - 1,
just="left")
disk_header_text.append(header_str)
self.disk_header_text = " ".join(disk_header_text)
self.max_vtoc_disk_size = (Size(MAX_VTOC)).get(Size.tb_units)
self.disk_warning_too_big = \
DiskScreen.DISK_WARNING_TOOBIG % self.max_vtoc_disk_size
self.disks = []
self.existing_pools = []
self.disk_win = None
self.disk_detail = None
self.num_targets = 0
self.td_handle = None
self._size_line = None
self.selected_disk_index = 0
self._minimum_size = None
self._recommended_size = None
self.engine = InstallEngine.get_instance()
self.doc = self.engine.data_object_cache
self.tc = target_controller
self._target_discovery_completed = False
self._target_discovery_status = InstallEngine.EXEC_SUCCESS
self._image_size = None
self.iscsi = None
self._iscsi_target_discovery_completed = False
self._iscsi_target_discovery_status = InstallEngine.EXEC_SUCCESS
def on_exit_edit(edit_field, disk_win=None):
'''On exit, if the user has left the field blank, set the size to 0'''
text = edit_field.get_text()
if not text.strip():
text = "0"
enctext = text.encode(get_encoding())
# encode per locale for floating point conversion
edit_field.set_text("%.1f" % locale.atof(enctext))
part_order = disk_win.ui_obj.get_parts_in_use().index(edit_field.data_obj)
LOGGER.debug("Part being resized is at index: %s", part_order)
new_size_text = text.strip()
LOGGER.debug("Resizing text=%s", new_size_text)
# encode user input per locale for floating point conversion
enctext = new_size_text.encode(get_encoding())
new_size = Size(str(locale.atof(enctext)) + Size.gb_units)
old_size = edit_field.data_obj.size
new_size_byte = new_size.get(Size.byte_units)
old_size_byte = old_size.get(Size.byte_units)
precision = Size(UI_PRECISION).get(Size.byte_units)
if abs(new_size_byte - old_size_byte) > precision:
parent_doc_obj = edit_field.data_obj.doc_obj.parent
if isinstance(parent_doc_obj, Disk):
if isinstance(edit_field.data_obj.doc_obj, Partition):
resized_obj = parent_doc_obj.resize_partition(
edit_field.data_obj.doc_obj, new_size.get(Size.gb_units),
size_units=Size.gb_units)
else:
resized_obj = parent_doc_obj.resize_slice(
edit_field.data_obj.doc_obj, new_size.get(Size.gb_units),
size_units=Size.gb_units)
else:
resized_obj = parent_doc_obj.resize_slice(
edit_field.data_obj.doc_obj, new_size.get(Size.gb_units),
size_units=Size.gb_units)
if isinstance(resized_obj, Partition):
resized_obj.in_zpool = ROOT_POOL
else:
if resized_obj.in_zpool == ROOT_POOL:
resized_obj.tag = V_ROOT
if disk_win is not None:
disk_win.set_disk_info(ui_obj=disk_win.ui_obj)
disk_win.activate_index(part_order)
dump_doc("After resize")
def test_slice_not_preserve(self):
slice1 = Slice(1)
slice1.action = "create"
slice1.size = Size(str(GBSECTOR) + Size.sector_units)
slice1.start_sector = CYLSIZE
slice2 = Slice(2)
slice2.action = "create"
slice2.size = Size(str(GBSECTOR) + Size.sector_units)
slice2.start_sector = CYLSIZE + GBSECTOR + 1
slice3 = Slice(3)
slice3.action = "destroy"
slice3.size = Size(str(GBSECTOR) + Size.sector_units)
slice3.start_sector = CYLSIZE + (2 * GBSECTOR + 2)
self.disk.insert_children([slice1, slice2, slice3])
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def test_create_single_partition(self):
part = Partition(2)
part.action = "create"
part.start_sector = 0
part.size = Size("50" + Size.gb_units)
part.part_type = "primary"
part.bootid = Partition.ACTIVE
self.disk.insert_children(part)
t = instantiation.TargetInstantiation("test_ti")
try:
t.execute(dry_run=True)
except Exception as err:
self.fail(str(err))
def setUp(self):
self.engine = engine_test_utils.get_new_engine_instance()
self.doc = self.engine.data_object_cache.volatile
# create some DOC objects
self.target = Target(Target.DESIRED)
self.doc.insert_children(self.target)
self.disk = Disk("disk")
self.disk.ctd = "c8t1d0"
self.disk.disk_prop = DiskProp()
self.disk.disk_prop.dev_size = Size(str(200) + Size.gb_units)
self.disk.disk_prop.blocksize = BLOCKSIZE
self.disk.disk_prop.cylsize = CYLSIZE
self.disk.disk_geometry = DiskGeometry()
self.target.insert_children(self.disk)
def discover_gptpartition(self, partition, blocksize, efipart):
""" discover_gptpartition - method to discover a physical disk's GPT
partition layout.
# Note that libdiskmgmt terminology treats GPT partitions as slices
# as does the Solaris cXtYdZsN notation
# We shall refer to them as GPT partitions though, like the rest of
# the world does.
partition - object as discovered by ldm
blocksize - blocksize of the disk
efipart - DK_PART EFI cstruct
"""
# store the attributes locally so libdiskmgt doesn't have to keep
# looking them up
gpart_attributes = partition.attributes
new_gpart = GPTPartition(str(gpart_attributes.index))
new_gpart.action = "preserve"
new_gpart.size = Size(str(gpart_attributes.size) + Size.sector_units,
blocksize=blocksize)
new_gpart.start_sector = long(gpart_attributes.start)
new_gpart.size_in_sectors = gpart_attributes.size
stats = partition.use_stats
if "used_by" in stats:
new_gpart.in_use = stats
# EFI partition type GUID and p_flag not provided by libdiskmgt. Fall
# back on libefi provided DK_PART data.
new_gpart.part_type = '{%s}' % str(efipart.p_guid)
new_gpart.guid = copy.copy(efipart.p_guid)
new_gpart.uguid = copy.copy(efipart.p_uguid)
new_gpart.flag = efipart.p_flag
# If the partition is an EFI system partition check to see if it
# is PCFS formatted. We only do this on EFI system partition to save
# time since mounting can be slow.
if new_gpart.is_efi_system:
ctds = partition.name.rsplit('/', 1)[-1]
new_gpart._is_pcfs_formatted = self.is_pcfs_formatted(ctds)
return new_gpart
def __init__(self, methodName="runTest"):
unittest.TestCase.__init__(self, methodName)
# extract drive informtion to construct a bare-bones DOC object
dmd = diskmgt.descriptor_from_key(ALIAS, MASTER_CTD)
alias = diskmgt.DMAlias(dmd.value)
drive = alias.drive
dma = drive.media.attributes
if dma.ncylinders is None:
raise RuntimeError("Unable to process disk label. Please " +
"place a VTOC label on the disk.")
# get the maximum size of the disk
fd = os.open("/dev/rdsk/" + MASTER_CTD + "s2",
os.O_RDONLY | os.O_NDELAY)
try:
media_info = drive.DKMinfo()
fcntl.ioctl(fd, diskmgt.DKIOCGMEDIAINFO, C.addressof(media_info))
except IOError as error:
print 'ioctl failed: ', str(error)
raise
finally:
os.close(fd)
# set the basic geometry
self.disk = Disk(MASTER_CTD)
self.disk.ctd = MASTER_CTD
self.disk.disk_prop = DiskProp()
self.disk.disk_prop.dev_size = Size(
str(media_info.dki_capacity) + Size.sector_units)
self.disk_size = self.disk.disk_prop.dev_size.sectors
self.disk.geometry = DiskGeometry(dma.blocksize,
dma.nheads * dma.nsectors)
self.disk.geometry.ncyl = dma.ncylinders
self.disk.geometry.nhead = dma.nheads
self.disk.geometry.nsectors = dma.nsectors
self.target = Target(Target.DESIRED)
self.target.insert_children(self.disk)
def validate(self):
'''Validate the size of the disk.'''
warning_txt = []
disk = self.disk_detail.ui_obj.doc_obj
disk_size_gb = disk.disk_prop.dev_size.get(Size.gb_units)
max_size_gb = Size(MAX_VTOC).get(Size.gb_units)
if disk_size_gb > max_size_gb:
warning_txt.append(self.disk_warning_too_big)
warning_txt = " ".join(warning_txt)
if warning_txt:
# warn the user and give user a chance to change
result = self.main_win.pop_up(DiskScreen.DISK_WARNING_HEADER,
warning_txt,
DiskScreen.CANCEL_BUTTON,
DiskScreen.CONTINUE_BUTTON)
if not result:
raise UIMessage() # let user select different disk
def get_image_size(logger):
'''Total size of the software in the image is stored in the
.image_info indicated by the keywoard IMAGE_SIZE.
This function retrieves that value from the .image_file
The size recorded in the .image_file is in KB, other functions
in this file uses the value in MB, so, this function will
return the size in MB
Returns:
size of retrieved from the .image_info file in MB
'''
# Depending on how we are booted, get the .image_info file accordingly.
if is_net_booted(logger):
image_info_file = os.path.join(NetPrepareMediaTransfer.MEDIA_SOURCE,
IMAGE_INFO_FILENAME)
else:
image_info_file = os.path.join(PrepareMediaTransfer.MEDIA_SOURCE,
IMAGE_INFO_FILENAME)
img_size = 0
with open(image_info_file, 'r') as ih:
for line in ih:
(opt, val) = line.split("=")
if opt == IMAGE_SIZE_KEYWORD:
# Remove the '\n' character read from
# the file, and convert to integer
img_size = int(val.rstrip('\n'))
break
if (img_size == 0):
# We should have read in a size by now
logger.error("Unable to read the image size from %s", image_info_file)
raise RuntimeError
logger.debug("Read from %s size of %s" % (image_info_file, img_size))
return (Size(str(img_size) + Size.kb_units).get(Size.mb_units))
def discover_zpools(self, search_name=""):
""" discover_zpools - method to walk zpool list output to create Zpool
objects. Returns a logical DOC object with all zpools populated.
"""
# create a logical element
logical = Logical("logical")
# set noswap and nodump to True until a zvol is found otherwise
logical.noswap = True
logical.nodump = True
# retreive the list of zpools
cmd = [ZPOOL, "list", "-H", "-o", "name"]
p = run(cmd)
# Get the list of zpools
zpool_list = p.stdout.splitlines()
# walk the list and populate the DOC
for zpool_name in zpool_list:
# if the user has specified a specific search name, only run
# discovery on that particular pool name
if search_name and zpool_name != search_name:
continue
self.logger.debug("Populating DOC for zpool: %s", zpool_name)
# create a new Zpool DOC object and insert it
zpool = Zpool(zpool_name)
zpool.action = "preserve"
logical.insert_children(zpool)
# check to see if the zpool is the boot pool
cmd = [ZPOOL, "list", "-H", "-o", "bootfs", zpool_name]
p = run(cmd)
if p.stdout.rstrip() != "-":
zpool.is_root = True
# get the mountpoint of the zpool
cmd = [ZFS, "get", "-H", "-o", "value", "mountpoint", zpool_name]
p = run(cmd)
zpool.mountpoint = p.stdout.strip()
# set the vdev_mapping on each physical object in the DOC tree for
# this zpool
self.set_vdev_map(zpool)
# for each zpool, get all of its datasets. Switch to the C locale
# so we don't have issues with LC_NUMERIC settings
cmd = [
ZFS, "list", "-r", "-H", "-o", "name,type,used,mountpoint",
zpool_name
]
p = run(cmd, env={"LC_ALL": "C"})
# walk each dataset and create the appropriate DOC objects for
# each. Skip the first line of list output, as the top level
# dataset (also the dataset with the same name as that of the
# zpool) may have a different mountpoint than the zpool.
for dataset in p.stdout.rstrip().split("\n")[1:]:
try:
name, ds_type, ds_size, mountpoint = dataset.split(None, 3)
except ValueError as err:
# trap on ValueError so any inconsistencies are captured
self.logger.debug("Unable to process dataset: %r" %
dataset)
self.logger.debug(str(err))
continue
# fix the name field to remove the name of the pool
name = name.partition(zpool_name + "/")[2]
if ds_type == "filesystem":
obj = Filesystem(name)
obj.mountpoint = mountpoint
elif ds_type == "volume":
obj = Zvol(name)
obj.size = Size(ds_size)
# check for swap/dump. If there's a match, set the zvol
# 'use' attribute and the noswap/nodump attribute of
# logical. The zpool name needs to be re-attached to the
# zvol name to match what was already parsed
if os.path.join(zpool_name, name) in self.swap_list:
obj.use = "swap"
logical.noswap = False
if os.path.join(zpool_name, name) in self.dump_list:
obj.use = "dump"
logical.nodump = False
obj.action = "preserve"
zpool.insert_children(obj)
return logical
def cylinder_boundary_adjustment(self, value):
""" cylinder_boundary_adjustment() - method to adjust a Partition or
Slice object's start_sector and size value to fall on cylinder
boundaries
value - DOC object to adjust
"""
# only make adjustments when the action is 'create'
if value.action != "create":
return value
# determine the cylsize based on the container object
if hasattr(self.container, "geometry"):
# container is a Disk object
cyl_boundary = self.container.geometry.cylsize
disk_size = self.container.disk_prop.dev_size.sectors
arch = self.container.kernel_arch
elif hasattr(self.container, "part_type"):
# container is a Partition object
cyl_boundary = self.container.parent.geometry.cylsize
disk_size = self.container.parent.disk_prop.dev_size.sectors
arch = self.container.parent.kernel_arch
# adjust the start_sector up to the next cylinder boundary
if value.start_sector % cyl_boundary != 0:
new_start_sector = ((value.start_sector / cyl_boundary) * \
cyl_boundary) + cyl_boundary
# adjust the size down by the same amount
difference = new_start_sector - value.start_sector
value.start_sector = new_start_sector
value.size = Size(str(value.size.sectors - difference) + \
Size.sector_units)
# check the start_sector of the object. If it starts at zero, adjust
# it to start at the first cylinder boundary instead so as not to
# clobber the disk label
if value.start_sector == 0:
value.start_sector = cyl_boundary
value.size = Size(str(value.size.sectors - cyl_boundary) + \
Size.sector_units)
# adjust the size down to the nearest end cylinder
if value.size.sectors % cyl_boundary != 0:
new_size = (value.size.sectors / cyl_boundary) * cyl_boundary
value.size = Size(str(new_size) + Size.sector_units)
# x86 specific check for slices and partitions
if arch == "x86":
if hasattr(value, "force"):
# The largest possible size for any slice (other than slice 2),
# is disk size - 4 cylinders. 1 cylinder for the MBR, 2
# cylinders for the VTOC label, and 1 cylinder for slice 8
max_cyl = 4
elif hasattr(value, "part_type"):
# The largest possible size for any partition is disk_size - 1
# cylinder (for the MBR)
max_cyl = 1
# adjust the value's size if it's larger than the cylinder maximum
if (disk_size - value.size.sectors) / cyl_boundary < max_cyl:
end_cylinder = ((disk_size / cyl_boundary) - max_cyl) * \
cyl_boundary
value.size = Size(str(end_cylinder) + Size.sector_units)
return value
def insert_partition(self, index, value):
""" insert_partition() - override method for validation of
Partition DOC objects.
the following checks are done as part of validation:
- Partition objects *must* have a part_type.
- the parent Disk object does not have whole_disk attribute set
- the start_sector of the slice is an int or long and is between 0 and
the container's maximum size
- if a partition is a logical partition, ensure there is an extended
partition somewhere in indexes 1-4
- no more than MAX_EXT_PARTS logical partitions
- logical partitions fall within the boundaries of the extended
partition
- Only one active primary partition
- primary partitions are not larger than the Disk
- no overlapping boundaries of the partition with any other partitions
already inserted
- no duplicate indexes
- the extended partition is at least 63 sectors in size and there is
only one extended partition specified
- none of the parent objects have an in_zpool or in_vdev attribute set
"""
# verify part_type is not None
if value.part_type is None:
self.set_error(self.PartitionTypeMissingError())
# verify the name of the partition is valid
if not (1 <= int(value.name) <= (FD_NUMPART + MAX_EXT_PARTS)):
self.set_error(
self.InvalidPartitionNameError(str(value.name),
self.container.ctd))
# fix the start_sector and size to align to cylinder boundaries for
# primary partitions
if value.is_primary:
value = self.cylinder_boundary_adjustment(value)
# check the bounds of the partition to be added.
if not (isinstance(value.start_sector, int) or \
isinstance(value.start_sector, long)):
self.set_error(self.InvalidPartitionStartSectorError())
if hasattr(self.container.disk_prop, "dev_size") and \
getattr(self.container.disk_prop, "dev_size") is not None:
if not (0 <= value.start_sector <= \
self.container.disk_prop.dev_size.sectors):
self.set_error(self.InvalidPartitionStartSectorError())
# verify that the Disk does not have 'whole_disk' set to 'true'
if self.container.whole_disk:
self.set_error(self.WholeDiskIsTrueError())
# if the partition is a logical partition, ensure there is a partition
# with part_type in Partition.EXTENDED_ID_LIST has already been
# inserted.
if value.is_logical:
extended_part = None
for partition in self._shadow:
if partition.is_extended:
if partition.part_type in partition.EXTENDED_ID_LIST:
extended_part = partition
if extended_part is None:
self.set_error(self.NoExtPartitionsError())
else:
# verify there are not more than MAX_EXT_PARTS
logical_list = [p for p in self._shadow if p.is_logical and \
p.action != "delete"]
if len(logical_list) >= MAX_EXT_PARTS:
self.set_error(self.TooManyLogicalPartitionsError())
# ensure this logical partition does not start too close to any
# previously inserted logical partitions.
# sort the logical list by start sector
slist = sorted(
logical_list,
lambda x, y: cmp(x.start_sector, y.start_sector))
# find the closest logical partition within the extended
# partition
closest_endpoint = 0
for logical in slist:
end_point = logical.start_sector + logical.size.sectors
if end_point < value.start_sector and \
end_point > closest_endpoint:
closest_endpoint = end_point
if closest_endpoint == 0:
# no logical partitions were found, so use the start of the
# extended partition, if the difference is smaller than the
# needed offset
diff = value.start_sector - extended_part.start_sector
if diff < LOGICAL_ADJUSTMENT and value.action == "create":
value.start_sector = extended_part.start_sector + \
LOGICAL_ADJUSTMENT
new_size = value.size.sectors - LOGICAL_ADJUSTMENT
value.size = Size(str(new_size) + Size.sector_units)
else:
diff = value.start_sector - closest_endpoint
# make sure there's at least 63 sectors between logical
# partitions
if diff < LOGICAL_ADJUSTMENT and value.action == "create":
value.start_sector += LOGICAL_ADJUSTMENT - diff
new_size = value.size.sectors - LOGICAL_ADJUSTMENT
value.size = Size(str(new_size) + Size.sector_units)
# check the bootid attibute on primary partitions for multiple active
# partitions
if value.is_primary and value.bootid == value.ACTIVE:
for partition in self._shadow:
# skip logical partitions
if partition.is_logical:
continue
# check the bootid attribute
if partition.bootid == value.ACTIVE:
self.set_error(
self.MultipleActivePartitionsError(partition.name))
p_start = value.start_sector
p_end = p_start + value.size.sectors - 1
# walk each inserted partition already in the shadow list to ensure the
# partition we're trying to insert doesn't cross boundaries.
for partition in self._shadow:
# start and end points of the partition to check
if partition.is_primary:
start = partition.start_sector
end = start + partition.size.sectors - 1
else:
# for logical partitions, there needs to be a buffer of
# LOGICAL_ADJUSTMENT on each end
start = partition.start_sector - LOGICAL_ADJUSTMENT
end = start + partition.size.sectors - 1 + LOGICAL_ADJUSTMENT
if value.is_primary:
# do not test logical partition boundaries for primary
# partitions
if partition.is_logical:
continue
else:
# verify the logical partition we're trying to insert fits
# within the extended partition "parent"
if partition.is_extended and partition.action != "delete":
if p_start < start or p_end > end:
self.set_error(self.LogicalPartitionOverlapError())
# do not test primary partition boundaries for logical
# partitions
if partition.is_primary:
continue
# check that the start sector of the partition we're trying to
# insert is not within another partition and the existing partition
# isn't inside the partition we're inserting. Primary partitions
# are only checked against other primary partitions and logical
# partitions are only checked aginst other logical partitions.
# Partitions marked for deletion should not be checked at all
if value.action != "delete" and partition.action != "delete":
if ((start <= p_start <= end) or (start <= p_end <= end)) or \
((p_start <= start <= p_end) or (p_start <= end <= p_end)):
self.set_error(
self.OverlappingPartitionError(partition.name,
value.name))
# check that a primary partition doesn't exceed the size of the Disk,
# if the dev_size is specified
if hasattr(self.container.disk_prop, "dev_size") and \
self.container.disk_prop.dev_size is not None and \
value.is_primary:
disk_size = self.container.disk_prop.dev_size.sectors
p_size = value.start_sector + value.size.sectors
# check that the name of the partition is not already in the list
if value.name in [p.name for p in self._shadow \
if p.action != "delete"]:
self.set_error(self.DuplicatePartitionNameError(value.name))
# if this is an extended partition, verify there are no other
# partitions of the same type. Also verify it's at least
# LOGICAL_ADJUSTMENT sectors in size
if value.is_extended:
for partition in self._shadow:
if partition.is_extended and partition.action != "delete":
self.set_error(self.TooManyExtPartitionsError())
if value.size.sectors < LOGICAL_ADJUSTMENT:
self.set_error(self.ExtPartitionTooSmallError())
# if the partition type is FAT16, make sure it's not larger than 4GB
fat16_list = [
value.name_to_num("FAT16 (Upto 32M)"),
value.name_to_num("FAT16 (>32M, HUGEDOS)"),
value.name_to_num("WIN95 FAT16(LBA)")
]
if value.part_type in fat16_list and value.action == "create":
if value.size.byte_value > Size.units["gb"] * 4:
self.set_error(self.FAT16PartitionTooLargeError())
# check to see if the container object has the same in_zpool attribute
if value.in_zpool is not None:
if getattr(self.container, "in_zpool") == value.in_zpool:
self.set_error(self.OverlappingPartitionZpoolError())
# check to see if the container object has the same in_vdev attribute
if value.in_vdev is not None:
if getattr(self.container, "in_vdev") == value.in_vdev:
self.set_error(self.OverlappingPartitionVdevError())
# insert the partition
ShadowList.insert(self, index, value)
def test_error_if_no_suitable_disk(self):
'''Validate error raised if "discovered targets" are too small'''
tc = TargetController(self.doc)
self.assertRaises(BadDiskError, tc.initialize,
image_size=Size("1TB"))
def _show(self):
'''Create a list of disks to choose from and create the window
for displaying the partition/slice information from the selected
disk
'''
self.wait_for_disks()
self.wait_for_iscsi_disk()
discovered_target = self.doc.persistent.get_first_child( \
name=Target.DISCOVERED)
LOGGER.debug(discovered_target)
if discovered_target is None:
self.center_win.add_paragraph(DiskScreen.NO_DISKS,
1,
1,
max_x=(self.win_size_x - 1))
return
self.disks = discovered_target.get_children(class_type=Disk)
if not self.disks:
self.center_win.add_paragraph(DiskScreen.NO_TARGETS,
1,
1,
max_x=(self.win_size_x - 1))
return
if self._image_size is None:
try:
self._image_size = Size(str(get_image_size(LOGGER)) + \
Size.mb_units)
LOGGER.debug("Image_size: %s", self._image_size)
except:
# Unable to get the image size for some reason, allow
# the target controller to use it's default size.
LOGGER.debug("Unable to get image size")
self._image_size = FALLBACK_IMAGE_SIZE
# initialize the target controller so the min/max size for the
# installation can be calculated. Explicitly do not want to select an
# initial disk at this time in case none of the disks discovered is
# usable. The target controller initialization needs to be done
# everytime we show the disk selection screen so the desired target
# node in the DOC can be re-populated with information from target
# discovery.
self.tc.initialize(image_size=self._image_size, no_initial_disk=True)
# Go through all the disks found and find ones that have enough space
# for installation. At the same time, see if any existing disk is the
# boot disk. If a boot disk is found, move it to the front of the list
num_usable_disks = 0
boot_disk = None
for disk in self.disks:
LOGGER.debug("size: %s, min: %s" % \
(disk.disk_prop.dev_size, self.minimum_size))
if disk.disk_prop.dev_size >= self.minimum_size:
if disk.is_boot_disk():
boot_disk = disk
num_usable_disks += 1
if boot_disk is not None:
self.disks.remove(boot_disk)
self.disks.insert(0, boot_disk)
if num_usable_disks == 0:
self.center_win.add_paragraph(DiskScreen.NO_DISKS,
1,
1,
max_x=(self.win_size_x - 1))
return
self.main_win.reset_actions()
self.main_win.show_actions()
y_loc = 1
self.center_win.add_text(DiskScreen.PARAGRAPH, y_loc, 1)
y_loc += 1
self.center_win.add_text(self.size_line, y_loc, 1)
y_loc += 2
self.center_win.add_text(self.disk_header_text, y_loc, 1)
y_loc += 1
self.center_win.window.hline(y_loc, self.center_win.border_size[1] + 1,
curses.ACS_HLINE,
textwidth(self.disk_header_text))
y_loc += 1
disk_win_area = WindowArea(4,
textwidth(self.disk_header_text) + 2, y_loc,
0)
disk_win_area.scrollable_lines = len(self.disks) + 1
self.disk_win = ScrollWindow(disk_win_area, window=self.center_win)
disk_item_area = WindowArea(1, disk_win_area.columns - 2, 0, 1)
disk_index = 0
len_type = DiskScreen.DISK_HEADERS[0][0] - 1
len_size = DiskScreen.DISK_HEADERS[1][0] - 1
len_boot = DiskScreen.DISK_HEADERS[2][0] - 1
len_dev = DiskScreen.DISK_HEADERS[3][0] - 1
len_notes = DiskScreen.DISK_HEADERS[4][0] - 1
for disk in self.disks:
disk_text_fields = []
dev_type = disk.disk_prop.dev_type
if dev_type is not None:
type_field = dev_type[:len_type]
type_field = ljust_columns(type_field, len_type)
else:
type_field = " " * len_type
disk_text_fields.append(type_field)
disk_size = disk.disk_prop.dev_size.get(Size.gb_units)
size_field = locale.format("%*.1f", (len_size, disk_size))
disk_text_fields.append(size_field)
if disk.is_boot_disk():
bootable_field = "+".center(len_boot)
else:
bootable_field = " " * (len_boot)
disk_text_fields.append(bootable_field)
#
# Information will be displayed in the device column with
# the following priority:
#
# First priority is to display receptacle information,
# if available. If receptacle information is displayed,
# ctd name will not be displayed.
#
# If receptacle information is not available, the ctd name
# will be displayed.
#
# Both items above can take as much as the 44 character wide
# column as needed.
#
# If the receptacle/ctd name is less than 30 characters,
# manufacturer information will be displayed in the left
# over space. There won't be a column heading for the
# manufacturer information.
#
device = disk.receptacle or disk.ctd
added_device_field = False
# is there enough room to display the manufacturer?
if (len_dev - len(device)) >= DiskScreen.VENDOR_LEN:
vendor = disk.disk_prop.dev_vendor
if vendor is not None:
dev_display_len = len_dev - DiskScreen.VENDOR_LEN
device_field = ljust_columns(device, dev_display_len)
disk_text_fields.append(device_field)
vendor_field = vendor[:DiskScreen.VENDOR_LEN - 1]
vendor_field = ljust_columns(vendor_field,
DiskScreen.VENDOR_LEN - 1)
disk_text_fields.append(vendor_field)
added_device_field = True
if not added_device_field:
device_field = device[:len_dev]
device_field = ljust_columns(device_field, len_dev)
disk_text_fields.append(device_field)
# display "<" or ">" if the disk is too big or too small
selectable = True
if disk.disk_prop.dev_size < self.minimum_size:
selectable = False
notes_field = DiskScreen.TOO_SMALL.center(len_notes)
disk_text_fields.append(notes_field)
elif disk.disk_prop.dev_size > Size(MAX_VTOC):
notes_field = DiskScreen.TOO_BIG.center(len_notes)
disk_text_fields.append(notes_field)
# check the blocksize of the disk. If it's not 512 bytes and we
# have an EFI firmware on x86, make the disk unselectable by the
# user. See PSARC 2008/769
elif platform.processor() == "i386" and \
disk.geometry.blocksize != 512:
firmware = SystemFirmware.get()
if firmware.fw_name == "uefi64":
selectable = False
notes_field = DiskScreen.INVALID_DISK.center(len_notes)
disk_text_fields.append(notes_field)
LOGGER.debug(
"marking disk %s unselectable as its "
"blocksize is not 512 bytes on an UEFI "
"firmware x86 system.", disk.ctd)
disk_text = " ".join(disk_text_fields)
disk_item_area.y_loc = disk_index
disk_list_item = ListItem(disk_item_area,
window=self.disk_win,
text=disk_text,
add_obj=selectable)
disk_list_item.on_make_active = on_activate
disk_list_item.on_make_active_kwargs["disk"] = disk
disk_list_item.on_make_active_kwargs["disk_select"] = self
disk_index += 1
self.disk_win.no_ut_refresh()
y_loc += 7
disk_detail_area = WindowArea(6, 70, y_loc, 1)
self.disk_detail = DiskWindow(disk_detail_area,
self.disks[0],
target_controller=self.tc,
window=self.center_win)
self.main_win.do_update()
self.center_win.activate_object(self.disk_win)
self.disk_win.activate_object(self.selected_disk_index, jump=True)
class MockTC(object):
''' Mocks the target controller '''
minimum_target_size = Size("3gb")
recommended_target_size = Size("6gb")
class DiskWindow(InnerWindow):
'''Display and edit disk information, including partitions and slices'''
STATIC_PARTITION_HEADERS = [(12, _("Primary"), _("Logical")),
(10, _(" Size(GB)"), _(" Size(GB)"))]
EDIT_PARTITION_HEADERS = [(13, _("Primary"), _("Logical")),
(10, _(" Size(GB)"), _(" Size(GB)")),
(7, _(" Avail"), _(" Avail"))]
STATIC_SLICE_HEADERS = [(13, _("Slice"), _("Slice")),
(2, "#", "#"),
(10, _(" Size(GB)"), _(" Size(GB)"))]
EDIT_SLICE_HEADERS = [(13, _("Slice"), _("Slice")),
(2, "#", "#"),
(10, _(" Size(GB)"), _(" Size(GB)")),
(7, _(" Avail"), _(" Avail"))]
ADD_KEYS = {curses.KEY_LEFT: no_action,
curses.KEY_RIGHT: no_action}
DEAD_ZONE = 3
SCROLL_PAD = 2
MIN_SIZE = None
REC_SIZE = None
SIZE_PRECISION = Size(UI_PRECISION).get(Size.gb_units)
DESTROYED_MARK = EditField.ASTERISK_CHAR
def __init__(self, area, disk_info, editable=False,
error_win=None, target_controller=None, **kwargs):
'''See also InnerWindow.__init__
disk_info (required) - Either a Disk or Partition object
containing the data to be represented. If a Partition objects is
provided, it will be used for displaying slice
data within that partition. If Disk has partition(s), those are
displayed. If not, but it has slices, then those are displayed. If
neither partition data nor slice data are available, a ValueError is
raised.
headers (required) - List of tuples to populate the header of this
window with. The first item in each tuple should be the width of the
header, the second item should be the left side header.
editable (optional) - If True, the window will be created such that
data is editable.
target_controller(optional) - Target controller
'''
global LOGGER
LOGGER = logging.getLogger(INSTALL_LOGGER_NAME)
self.headers = None
self.orig_ext_part_field = None
self.orig_logicals_active = False
self.ext_part_field = None
self.error_win = error_win
self.editable = editable
self.win_width = None
self.left_win = None
self.right_win = None
self.list_area = None
self.edit_area = None
super(DiskWindow, self).__init__(area, add_obj=editable, **kwargs)
self.left_header_string = None
self.right_header_string = None
self._orig_data = None
self.disk_info = None
self.has_partition_data = False
self.key_dict[curses.KEY_LEFT] = self.on_arrow_key
self.key_dict[curses.KEY_RIGHT] = self.on_arrow_key
if self.editable:
self.key_dict[curses.KEY_F5] = self.change_type
self.tc = target_controller
self._ui_obj = None
self.ui_obj = disk_info
self.set_disk_info(ui_obj=self.ui_obj)
LOGGER.debug(self.ui_obj)
if platform.processor() == "sparc":
self.is_x86 = False
else:
self.is_x86 = True
@property
def ui_obj(self):
return self._ui_obj
@ui_obj.setter
def ui_obj(self, part):
''' create and set the value for ui_obj depending on type '''
if isinstance(part, Disk):
self._ui_obj = UIDisk(self.tc, parent=None, doc_obj=part)
elif isinstance(part, Partition):
self._ui_obj = UIPartition(self.tc, parent=None, doc_obj=part)
else:
# Must be a either a Disk or Partition. It's an error to be here
raise RuntimeError("disk_info object is invalid")
def _init_win(self, window):
'''Require at least 70 columns and 6 lines to fit current needs for
display of partitions and slices. Builds two inner ScrollWindows for
displaying/editing the data.
'''
if self.area.columns < 70:
raise ValueError("Insufficient space - area.columns < 70")
if self.area.lines < 6:
raise ValueError("Insufficient space - area.lines < 6")
self.win_width = (self.area.columns - DiskWindow.DEAD_ZONE
+ DiskWindow.SCROLL_PAD) / 2
super(DiskWindow, self)._init_win(window)
win_area = WindowArea(self.area.lines - 1, self.win_width, 2, 0)
win_area.scrollable_lines = self.area.lines - 2
self.left_win = ScrollWindow(win_area, window=self, add_obj=False)
self.left_win.color = None
self.left_win.highlight_color = None
win_area.x_loc = self.win_width + DiskWindow.DEAD_ZONE
win_area.scrollable_lines = 2 * MAX_EXT_PARTS
self.right_win = ScrollWindow(win_area, window=self, add_obj=False)
self.right_win.color = None
self.right_win.highlight_color = None
def set_disk_info(self, ui_obj=None, disk_info=None, no_part_ok=False):
'''Set up this DiskWindow to represent disk_info'''
if ui_obj is not None:
disk_info = ui_obj.doc_obj
elif disk_info is not None:
self.ui_obj = disk_info
else:
# Should never be this case
raise RuntimeError("Unable to find ui_obj or disk_info")
part_list = disk_info.get_children(class_type=Partition)
if part_list:
self.has_partition_data = True
else:
slice_list = disk_info.get_children(class_type=Slice)
if slice_list:
self.has_partition_data = False
else:
# No partitions and no slices
if no_part_ok:
if self.is_x86:
self.has_partition_data = True
else:
self.has_partition_data = False
else:
return
if self.has_partition_data:
if self.editable:
self.headers = DiskWindow.EDIT_PARTITION_HEADERS
self.list_area = WindowArea(1, self.headers[0][0] +
self.headers[1][0],
0, DiskWindow.SCROLL_PAD)
self.edit_area = WindowArea(1, self.headers[1][0], 0,
self.headers[0][0])
else:
self.headers = DiskWindow.STATIC_PARTITION_HEADERS
else:
if self.editable:
self.headers = DiskWindow.EDIT_SLICE_HEADERS
self.list_area = WindowArea(1, self.headers[0][0] +
self.headers[1][0] +
self.headers[2][0],
0, DiskWindow.SCROLL_PAD)
self.edit_area = WindowArea(1, self.headers[2][0], 0,
self.headers[0][0] +
self.headers[1][0])
else:
self.headers = DiskWindow.STATIC_SLICE_HEADERS
LOGGER.debug("have_partition: %s", self.has_partition_data)
LOGGER.debug(self.ui_obj)
self.ui_obj.add_unused_parts(no_part_ok=no_part_ok)
self.left_win.clear()
self.right_win.clear()
self.window.erase()
self.print_headers()
if self.editable:
self.active_object = None
self.build_edit_fields()
self.right_win.bottom = max(0, len(self.right_win.all_objects) -
self.right_win.area.lines)
if self.has_partition_data:
self.orig_ext_part_field = None
for obj in self.left_win.objects:
if (obj.data_obj.is_extended()):
self.orig_ext_part_field = obj
self.orig_logicals_active = True
break
else:
self.print_data()
def print_headers(self):
'''Print the headers for the displayed data.
header[0] - The width of this column. header[1] and header[2] are
trimmed to this size
header[1] - The internationalized text for the left window
header[2] - The internationalized text for the right window
'''
self.left_header_string = []
self.right_header_string = []
for header in self.headers:
left_header_str = header[1]
right_header_str = header[2]
# Trim the header to fit in the column width,
# splitting columns with at least 1 space
# Pad with extra space(s) to align the columns
left_header_str = fit_text_truncate(left_header_str,
header[0] - 1, just="left")
self.left_header_string.append(left_header_str)
right_header_str = fit_text_truncate(right_header_str,
header[0] - 1, just="left")
self.right_header_string.append(right_header_str)
self.left_header_string = " ".join(self.left_header_string)
self.right_header_string = " ".join(self.right_header_string)
LOGGER.debug(self.left_header_string)
self.add_text(self.left_header_string, 0, DiskWindow.SCROLL_PAD)
right_win_offset = (self.win_width + DiskWindow.DEAD_ZONE +
DiskWindow.SCROLL_PAD)
self.add_text(self.right_header_string, 0, right_win_offset)
self.window.hline(1, DiskWindow.SCROLL_PAD, curses.ACS_HLINE,
textwidth(self.left_header_string))
self.window.hline(1, right_win_offset, curses.ACS_HLINE,
textwidth(self.right_header_string))
self.no_ut_refresh()
def print_data(self):
'''Print static (non-editable) data.
Slices - fill the left side, then remaining slices on the right side.
If for some reason not all slices fit, indicate how many more slices
there area
Partitions - Put standard partitions on the left, logical partitions
on the right
'''
part_index = 0
data = self.ui_obj.get_parts_in_use()
if len(data) == 0:
return # should never be this case
if self.has_partition_data:
max_parts = MAX_PRIMARY_PARTS
else:
max_parts = min(len(data), self.left_win.area.lines)
win = self.left_win
y_loc = 0
for next_data in data:
LOGGER.debug("next_data: %s", next_data)
if y_loc >= max_parts:
if win is self.left_win:
win = self.right_win
y_loc = 0
max_parts = win.area.lines
else:
num_extra = len(data) - part_index
if self.has_partition_data:
more_parts_txt = _("%d more partitions") % num_extra
else:
more_parts_txt = _("%d more slices") % num_extra
win.add_text(more_parts_txt, win.area.lines, 3)
break
x_loc = DiskWindow.SCROLL_PAD
field = 0
win.add_text(next_data.get_description(), y_loc, x_loc,
self.headers[field][0] - 1)
x_loc += self.headers[field][0]
field += 1
if not self.has_partition_data:
win.add_text(str(next_data.name), y_loc, x_loc,
self.headers[field][0] - 1)
x_loc += self.headers[field][0]
field += 1
win.add_text(locale.format("%*.1f", (self.headers[field][0] - 1,
next_data.size.get(Size.gb_units))), y_loc, x_loc,
self.headers[field][0] - 1)
x_loc += self.headers[field][0]
y_loc += 1
field += 1
part_index += 1
self.right_win.use_vert_scroll_bar = False
self.no_ut_refresh()
def build_edit_fields(self):
'''Build subwindows for editing partition sizes
For slices, fill the left side, then the right (right side scrolling as
needed, though this shouldn't happen unless the number of slices on
disk exceeds 8 for some reason)
For partitions, fill the left side up to MAX_PRIMARY_PARTS,
and place all logical partitions on the right.
'''
data = self.ui_obj.get_parts_in_use()
if self.has_partition_data:
max_left_parts = MAX_PRIMARY_PARTS
else:
if len(data) == 0:
return # should never be this case
max_left_parts = min(len(data), self.left_win.area.lines)
part_iter = iter(data)
try:
next_part = part_iter.next()
self.objects.append(self.left_win)
for y_loc in range(max_left_parts):
self.list_area.y_loc = y_loc
self.create_list_item(next_part, self.left_win, self.list_area)
next_part = part_iter.next()
self.objects.append(self.right_win)
for y_loc in range(self.right_win.area.scrollable_lines):
self.list_area.y_loc = y_loc
self.create_list_item(next_part, self.right_win,
self.list_area)
next_part = part_iter.next()
if len(data) > max_left_parts:
self.right_win.use_vert_scroll_bar = True
except StopIteration:
if len(self.right_win.all_objects) <= self.right_win.area.lines:
self.right_win.use_vert_scroll_bar = False
self.right_win.no_ut_refresh()
else:
raise ValueError("Could not fit all partitions in DiskWindow")
self.no_ut_refresh()
def create_list_item(self, next_part, win, list_area):
'''Add an entry for next_part (a Partition or Slice) to
the DiskWindow
'''
list_item = ListItem(list_area, window=win, data_obj=next_part)
list_item.key_dict.update(DiskWindow.ADD_KEYS)
edit_field = EditField(self.edit_area, window=list_item,
numeric_pad=" ",
validate=decimal_valid,
on_exit=on_exit_edit,
error_win=self.error_win,
add_obj=False,
data_obj=next_part)
edit_field.right_justify = True
edit_field.validate_kwargs["disk_win"] = self
edit_field.on_exit_kwargs["disk_win"] = self
edit_field.key_dict.update(DiskWindow.ADD_KEYS)
self.update_part(part_field=list_item)
return list_item
def update_part(self, part_info=None, part_field=None):
'''Sync changed partition data to the screen.'''
if part_field is None:
if part_info is None:
raise ValueError("Must supply either part_info or part_field")
part_field = self.find_part_field(part_info)[1]
elif part_info is None:
part_info = part_field.data_obj
elif part_field.data_obj is not part_info:
raise ValueError("part_field must be a ListItem associated with "
"part_info")
if not isinstance(part_field, ListItem):
raise TypeError("part_field must be a ListItem associated with "
"part_info")
if self.has_partition_data:
desc_text = part_info.get_description()
else:
desc_length = self.headers[0][0] - 1
desc_text = "%-*.*s %s" % (desc_length, desc_length,
part_info.get_description(),
part_info.name)
part_field.set_text(desc_text)
edit_field = part_field.all_objects[0]
edit_field.set_text(locale.format("%.1f",
part_info.size.get(Size.gb_units)))
self.mark_if_destroyed(part_field)
self._update_edit_field(part_info, part_field, edit_field)
self.update_avail_space(part_info=part_info)
if self.has_partition_data:
if part_info.is_extended():
self.ext_part_field = part_field
def _update_edit_field(self, part_info, part_field, edit_field):
'''If the partition/slice is editable, add it to the .objects list.
If it's also the part_field that's currently selected, then activate
the edit field.
'''
if part_info.editable():
part_field.objects = [edit_field]
active_win = self.get_active_object()
if active_win is not None:
if active_win.get_active_object() is part_field:
part_field.activate_object(edit_field)
else:
edit_field.make_inactive()
part_field.objects = []
part_field.active_object = None
def mark_if_destroyed(self, part_field):
'''Determine if the partition/slice represented by part_field has
changed such that its contents will be destroyed.
'''
part_info = part_field.data_obj
destroyed = part_info.modified()
self.mark_destroyed(part_field, destroyed)
def mark_destroyed(self, part_field, destroyed):
'''If destroyed is True, add an asterisk indicating that the
partition or slice's content will be destroyed during installation.
Otherwise, clear the asterisk
'''
y_loc = part_field.area.y_loc
x_loc = part_field.area.x_loc - 1
if part_field in self.right_win.objects:
win = self.right_win
else:
win = self.left_win
if destroyed:
win.window.addch(y_loc, x_loc, DiskWindow.DESTROYED_MARK,
win.color_theme.inactive)
else:
win.window.addch(y_loc, x_loc, InnerWindow.BKGD_CHAR)
def update_avail_space(self, part_number=None, part_info=None):
'''Update the 'Avail' column for the specified slice or partition.
If no number is given, all avail columns are updated
'''
if part_number is None and part_info is None:
self._update_all_avail_space()
else:
self._update_avail_space(part_number, part_info)
def _update_all_avail_space(self):
'''Update the 'Avail' column for all slices or partitions.'''
idx = 0
for item in self.left_win.objects:
self.update_avail_space(idx)
idx += 1
for item in self.right_win.objects:
self.update_avail_space(idx)
idx += 1
y_loc = idx - len(self.left_win.objects)
if self.has_partition_data:
x_loc = self.headers[0][0] + self.headers[1][0] + 1
field = 2
else:
x_loc = (self.headers[0][0] + self.headers[1][0] +
self.headers[2][0] + 1)
field = 3
if y_loc > 0:
self.right_win.add_text(" " * self.headers[field][0],
y_loc, x_loc)
def _update_avail_space(self, part_number=None, part_info=None):
'''Update the 'Avail' column for the specified slice or partition.'''
if part_number is None:
win, item = self.find_part_field(part_info)
elif part_number < len(self.left_win.objects):
win = self.left_win
item = win.objects[part_number]
else:
win = self.right_win
item = win.objects[part_number - len(self.left_win.objects)]
if self.has_partition_data:
x_loc = self.headers[0][0] + self.headers[1][0] + 1
field = 2
else:
x_loc = (self.headers[0][0] + self.headers[1][0] +
self.headers[2][0] + 1)
field = 3
y_loc = item.area.y_loc
part = item.data_obj
max_space = part.get_max_size()
max_space = locale.format("%*.1f", (self.headers[field][0],
max_space.get(Size.gb_units)))
win.add_text(max_space, y_loc, x_loc)
def find_part_field(self, part_info):
'''Given a PartitionInfo or SliceInfo object, find the associated
ListItem. This search compares by reference, and will only succeed
if you have a handle to the exact object referenced by the ListItem
'''
for win in [self.left_win, self.right_win]:
for item in win.objects:
if item.data_obj is part_info:
return win, item
raise ValueError("Part field not found")
def reset(self, dummy=None):
'''Reset ui_obj to value found from Target Discovery.
Meaningful only for editable DiskWindows
'''
if not self.editable:
return
doc = InstallEngine.get_instance().doc
# "reset" the desired target
reset_obj = None
if isinstance(self.ui_obj, UIDisk):
reset_obj = (self.tc.reset_layout(disk=self.ui_obj.doc_obj))[0]
else:
# reset the partition by removing the modified Partition, and
# resetting it with the partition found during target discovery.
discovered_obj = self.ui_obj.discovered_doc_obj
desired_disk = get_desired_target_disk(doc)
desired_part = get_solaris_partition(doc)
desired_disk.delete_partition(desired_part)
part_copy = deepcopy(discovered_obj)
desired_disk.insert_children(part_copy)
# get the updated reference
reset_obj = get_solaris_partition(doc)
dump_doc("After doing reset")
self.set_disk_info(disk_info=reset_obj)
self.activate_solaris_data()
def activate_solaris_data(self):
'''Find the Solaris Partition / ZFS Root Pool Slice and activate it.
'''
if self.editable:
solaris_part = self.ui_obj.get_solaris_data()
if solaris_part is None:
LOGGER.debug("No Solaris data, activating default")
self.activate_object()
self.right_win.scroll(scroll_to_line=0)
return
disk_order = self.ui_obj.get_parts_in_use().index(solaris_part)
LOGGER.debug("solaris disk at disk_order = %s", disk_order)
self.activate_index(disk_order)
def make_active(self):
'''On activate, select the solaris partition or ZFS root pool,
instead of defaulting to 0
'''
self.set_color(self.highlight_color)
self.activate_solaris_data()
def on_arrow_key(self, input_key):
'''
On curses.KEY_LEFT: Move from the right win to the left win
On curses.KEY_RIGHT: Move from the left to the right
'''
if (input_key == curses.KEY_LEFT and
self.get_active_object() is self.right_win and
len(self.left_win.objects) > 0):
active_object = self.right_win.get_active_object().area.y_loc
if (active_object >= len(self.left_win.objects)):
active_object = len(self.left_win.objects) - 1
self.activate_object(self.left_win)
self.left_win.activate_object(active_object)
return None
elif (input_key == curses.KEY_RIGHT and
self.get_active_object() is self.left_win and
len(self.right_win.objects) > 0):
active_line = (self.left_win.active_object +
self.right_win.current_line[0])
active_object = None
force_to_top = False
for obj in self.right_win.objects:
if obj.area.y_loc >= active_line:
active_object = obj
off_screen = (self.right_win.current_line[0] +
self.right_win.area.lines)
if active_object.area.y_loc > off_screen:
force_to_top = True
break
if active_object is None:
active_object = 0
self.left_win.activate_object(-1, loop=True)
self.activate_object(self.right_win)
self.right_win.activate_object_force(active_object,
force_to_top=force_to_top)
return None
return input_key
def no_ut_refresh(self, abs_y=None, abs_x=None):
'''Refresh self, left win and right win explicitly'''
super(DiskWindow, self).no_ut_refresh()
self.left_win.no_ut_refresh(abs_y, abs_x)
self.right_win.no_ut_refresh(abs_y, abs_x)
def change_type(self, dummy):
'''Cycle the type for the currently active object, and
update its field
'''
LOGGER.debug("changing type")
part_field = self.get_active_object().get_active_object()
part_info = part_field.data_obj
part_order = self.ui_obj.get_parts_in_use().index(part_info)
old_obj = part_info.discovered_doc_obj
old_type = list()
if old_obj is not None:
if self.has_partition_data:
old_type.append(old_obj.part_type)
else:
if old_obj.in_zpool is not None:
old_type.append(old_obj.in_zpool)
else:
in_use = part_info.doc_obj.in_use
if in_use is not None:
if in_use['used_name']:
old_type.append((in_use['used_name'])[0])
LOGGER.debug("extra type to cycle: %s", old_type)
part_info.cycle_type(extra_type=old_type)
self.set_disk_info(ui_obj=self.ui_obj, no_part_ok=True)
self.activate_index(part_order)
return None
def create_extended(self, ext_part_field):
'''If this is the original extended partition, restore the original
logical partitions. Otherwise, create a single unused logical
partition.
'''
if not ext_part_field.data_obj.modified():
self.right_win.clear()
self.orig_logicals_active = True
logicals = deepcopy(self._orig_data.get_logicals())
self.disk_info.partitions.extend(logicals)
for idx, logical in enumerate(logicals):
self.list_area.y_loc = idx
self.create_list_item(logical, self.right_win, self.list_area)
if self.right_win not in self.objects:
self.objects.append(self.right_win)
self.right_win.activate_object_force(0, force_to_top=True)
self.right_win.make_inactive()
self.right_win.no_ut_refresh()
else:
# Leave old data be, create new Unused logical partition
if self.right_win not in self.objects:
self.objects.append(self.right_win)
self.append_unused_logical()
def activate_index(self, obj_index):
'''Activate the object at the specified index '''
if obj_index < len(self.left_win.objects):
LOGGER.debug("activating in left_win")
self.left_win.activate_object(obj_index)
self.activate_object(self.left_win)
self.right_win.scroll(scroll_to_line=0)
else:
activate = obj_index - len(self.left_win.objects)
LOGGER.debug('activating in right win')
self.right_win.activate_object_force(activate, force_to_top=True)
self.activate_object(self.right_win)
left_active = self.left_win.get_active_object()
if left_active is not None:
left_active.make_inactive()
def append_unused_logical(self):
'''Adds a single Unused logical partition to the right window'''
new_part = self.disk_info.append_unused_logical()
self.list_area.y_loc = len(self.right_win.all_objects)
bottom = self.list_area.y_loc - self.right_win.area.lines + 1
self.right_win.bottom = max(0, bottom)
self.create_list_item(new_part, self.right_win, self.list_area)
scroll = len(self.right_win.all_objects) > self.right_win.area.lines
self.right_win.use_vert_scroll_bar = scroll
self.right_win.no_ut_refresh()
def _show(self):
'''Create a list of disks to choose from and create the window
for displaying the partition/slice information from the selected
disk
'''
self.wait_for_disks()
discovered_target = self.doc.persistent.get_first_child( \
name=Target.DISCOVERED)
LOGGER.debug(discovered_target)
if discovered_target is None:
self.center_win.add_paragraph(DiskScreen.NO_DISKS,
1,
1,
max_x=(self.win_size_x - 1))
return
self.disks = discovered_target.get_children(class_type=Disk)
if not self.disks:
self.center_win.add_paragraph(DiskScreen.NO_TARGETS,
1,
1,
max_x=(self.win_size_x - 1))
return
if self._image_size is None:
try:
self._image_size = Size(str(get_image_size(LOGGER)) + \
Size.mb_units)
LOGGER.debug("Image_size: %s", self._image_size)
except:
# Unable to get the image size for some reason, allow
# the target controller to use it's default size.
LOGGER.debug("Unable to get image size")
self._image_size = FALLBACK_IMAGE_SIZE
# initialize the target controller so the min/max size for
# the installation can be calculated. Explicitly do not
# want to select an initial disk at this time in case
# none of the disks discovered is usable. The target controller
# initialization needs to be done everytime we show the disk selection
# screen so the desired target node in the DOC can be re-populated
# with information from target discovery.
self.tc.initialize(image_size=self._image_size, no_initial_disk=True)
# Go through all the disks found and find ones that have
# enough space for installation. At the same time, see if any
# existing disk is the boot disk. If a boot disk is found, move
# it to the front of the list
num_usable_disks = 0
boot_disk = None
for disk in self.disks:
LOGGER.debug("size: %s, min: %s" % \
(disk.disk_prop.dev_size, self.minimum_size))
if disk.disk_prop.dev_size >= self.minimum_size:
if disk.is_boot_disk():
boot_disk = disk
num_usable_disks += 1
if boot_disk is not None:
self.disks.remove(boot_disk)
self.disks.insert(0, boot_disk)
if num_usable_disks == 0:
self.center_win.add_paragraph(DiskScreen.NO_DISKS,
1,
1,
max_x=(self.win_size_x - 1))
return
self.main_win.reset_actions()
self.main_win.show_actions()
y_loc = 1
self.center_win.add_text(DiskScreen.PARAGRAPH, y_loc, 1)
y_loc += 1
self.center_win.add_text(self.size_line, y_loc, 1)
y_loc += 2
self.center_win.add_text(self.disk_header_text, y_loc, 1)
y_loc += 1
self.center_win.window.hline(y_loc, self.center_win.border_size[1] + 1,
curses.ACS_HLINE,
textwidth(self.disk_header_text))
y_loc += 1
disk_win_area = WindowArea(4,
textwidth(self.disk_header_text) + 2, y_loc,
0)
disk_win_area.scrollable_lines = len(self.disks) + 1
self.disk_win = ScrollWindow(disk_win_area, window=self.center_win)
disk_item_area = WindowArea(1, disk_win_area.columns - 2, 0, 1)
disk_index = 0
len_type = DiskScreen.DISK_HEADERS[0][0] - 1
len_size = DiskScreen.DISK_HEADERS[1][0] - 1
len_boot = DiskScreen.DISK_HEADERS[2][0] - 1
len_dev = DiskScreen.DISK_HEADERS[3][0] - 1
len_mftr = DiskScreen.DISK_HEADERS[4][0] - 1
for disk in self.disks:
disk_text_fields = []
if disk.disk_prop is None or disk.disk_prop.dev_type is None:
continue
type_field = disk.disk_prop.dev_type[:len_type]
type_field = ljust_columns(type_field, len_type)
disk_text_fields.append(type_field)
disk_size = disk.disk_prop.dev_size.get(Size.gb_units)
size_field = locale.format("%*.1f", (len_size, disk_size))
disk_text_fields.append(size_field)
if disk.is_boot_disk():
bootable_field = "+".center(len_boot)
else:
bootable_field = " " * (len_boot)
disk_text_fields.append(bootable_field)
device_field = disk.ctd[:len_dev]
device_field = ljust_columns(device_field, len_dev)
disk_text_fields.append(device_field)
vendor = disk.disk_prop.dev_vendor
if vendor is not None:
mftr_field = vendor[:len_mftr]
mftr_field = ljust_columns(mftr_field, len_mftr)
else:
mftr_field = " " * len_mftr
disk_text_fields.append(mftr_field)
selectable = True
if disk.disk_prop.dev_size < self.minimum_size:
note_field = self.too_small_text
selectable = False
elif disk_size > Size(MAX_VTOC).get(Size.gb_units):
note_field = self.too_big_warn
else:
note_field = ""
disk_text_fields.append(note_field)
disk_text = " ".join(disk_text_fields)
disk_item_area.y_loc = disk_index
disk_list_item = ListItem(disk_item_area,
window=self.disk_win,
text=disk_text,
add_obj=selectable)
disk_list_item.on_make_active = on_activate
disk_list_item.on_make_active_kwargs["disk"] = disk
disk_list_item.on_make_active_kwargs["disk_select"] = self
disk_index += 1
self.disk_win.no_ut_refresh()
y_loc += 7
disk_detail_area = WindowArea(6, 70, y_loc, 1)
self.disk_detail = DiskWindow(disk_detail_area,
self.disks[0],
target_controller=self.tc,
window=self.center_win)
self.main_win.do_update()
self.center_win.activate_object(self.disk_win)
self.disk_win.activate_object(self.selected_disk_index)
