prevent
you
from
applying
all
nondisruptive
SE
patches
if
one
or
more
of
the
SE
patches
came
after
this
channel
patch
in
the
patch
application
sequence.
Patches
for
each
major
LIC
component
have
their
own
sequence
for
patch
application.
This
means
that
disruptive
patches
belonging
to
one
LIC
component
no
longer
stand
as
an
obstacle
to
the
concurrent
application
of
nondisruptive
patches
belonging
to
another
LIC
component
as
long
as
the
patches
in
question
are
not
otherwise
defined
as
corequisite
for
each
other.
CFCC
Enhanced
Patch
Apply
The
CFCC
patch
apply
process
is
enhanced
to
eliminate
the
need
for
a
Power
On
Reset
(POR)
of
the
System
z9
to
apply
a
disruptive
CFCC
patch.
CFCC
enhanced
patch
apply
provides
you
the
ability
to:
v
Selectively
apply
the
new
patch
to
one
of
possibly
several
CFs
running
on
a
System
z9.
For
example,
if
you
have
a
CF
that
supports
a
test
parallel
sysplex
and
a
CF
that
supports
a
production
parallel
sysplex
on
the
same
System
z9,
you
have
the
ability
to
apply
a
disruptive
patch
to
only
the
test
CF
without
affecting
the
production
CF.
After
you
have
completed
testing
of
the
patch,
it
can
be
applied
to
the
production
CF
as
identified
in
the
example.
v
Allow
all
other
LPARs
on
the
System
z9
where
a
disruptive
CFCC
patch
will
be
applied
to
continue
to
run
without
being
impacted
by
the
application
of
the
disruptive
CFCC
patch.
The
enhanced
patch
apply
does
not
change
the
characteristics
of
a
concurrent
CFCC
patch,
but
does
significantly
enhance
the
availability
characteristics
of
a
disruptive
CFCC
patch
by
making
it
much
less
disruptive.
Note:
Any
POR
of
the
servers
will
result
in
the
disruptive
patch
being
applied
to
CF
partitions.
Dynamic
Capacity
Upgrade
on
Demand
The
System
z9
includes
a
function
to
dynamically
increase
the
number
of
CPs,
ICFs,
IFLs,
IFAs
or
zIIPs
without
an
intervening
IPL.
A
logical
partition
(LPAR)
may
be
defined
with
both
an
initial
and
reserved
amount
of
logical
CPs.
This
enables
a
definition
where
the
number
of
logical
CPs
for
a
logical
partition
is
greater
than
the
number
of
physical
CPs
installed
on
the
model.
These
reserved
CPs
are
automatically
in
a
deconfigured
state
at
partition
activation
and
can
be
brought
online
at
any
future
time
via
the
SCP
operator
command
if
the
requested
resource
is
available.
To
prepare
for
a
nondisruptive
upgrade,
a
Logical
Partition
simply
needs
to
be
defined
and
activated
in
advance
with
an
activation
profile
indicating
reserved
CPs.
This
helps
ensure
that
any
planned
logical
partition
can
be
as
large
as
the
possible
physical
machine
configuration,
nondisruptively.
The
following
example
assumes
a
nondisruptive
concurrent
CP
upgrade
from
an
8-Way
to
a
9-Way
Server.
C
P
0
C
P
0
C
P
1
C
P
1
C
P
2
C
P
2
C
P
3
C
P
3
C
P
4
C
P
4
C
P
5
C
P
5
C
P
6
C
P
6
C
P
7
C
P
7
S
A
P
S
A
P
S
A
P
S
A
P
8 - Way
9 - Way
Active
Reserved
Concurrent
PU Upgrade
(No IPLs)
P
U
8
C
P
8
P
U
9
P
U
9
2-62
PR/SM
Planning
Guide
Содержание Z9
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Страница 43: ...ZVSE ZVM Figure 1 1 Characteristics of Logical Partitions Chapter 1 Introduction to Logical Partitions 1 17...
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Страница 195: ...Figure 3 23 Security Page Image Profile Chapter 3 Determining the Characteristics of Logical Partitions 3 69...
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Страница 274: ...Printed in USA SB10 7041 03...