;
; Compaq SMART Array Array Controller
;
BOARD
 ID="CPQ4020"
 NAME="Compaq SMART Array Controller"
 MFR="Compaq"
 CATEGORY="MSD"
 SLOT=EISA
 LENGTH=330
 READID=YES
 AMPERAGE=2310
 BUSMASTER=200
 VERSION=1.21
 REV=0
 IOCHECK=INVALID
 DISABLE=UNSUPPORTED
IOPORT(1)=0zCC0h
INCLUDE="CPQ4020.OVL"

BEGINOVL

GROUP="Controller Characteristics"

FUNCTION="Operating System"
TYPE="MSD,DSKCTL"
HELP="The operating system that you select determines how the
Compaq SMART Array Controller distributes data across the
physical disks of this logical drive.  The optimum distribution scheme
is selected to maximize performance for your operating system.  By
distributing data, the Compaq SMART Array Controller is
able to service multiple requests for data at the same time."
CHOICE="NetWare 3.11 or later"
CHOICE="UNIX/XENIX"
CHOICE="MS OS/2 as published by Compaq - any version"
CHOICE="Other OS/2 - Version 1.2 or earlier"
CHOICE="MS OS/2 - Version 1.3"
CHOICE="Other OS/2 - Version 1.3x"
CHOICE="Other OS/2 - Version 2.x or later"
CHOICE="Banyan VINES"
CHOICE="MS DOS 5.0 or later"
CHOICE="MS Windows NT 3.1"
CHOICE="MS Windows NT 3.5x"
CHOICE="MS Windows NT 3.5x - Maximum Boot Size"

FUNCTION=""
TYPE="MSD,DSKCTL"
SHOW=NO
CHOICE=""

FUNCTION="Bus Master Interface"
TYPE="MSD,DSKCTL;BMIC"
HELP="Bus Master interrupts are used by device drivers
written specifically for the SMART Controller.
Boards that use level-sensitive interrupts may share this
interrupt for multiple devices."
CHOICE="IRQ 15"
LINK
IRQ=15
SHARE="DARRAY"
TRIGGER=LEVEL
INIT=IOPORT(1)LOC(7-2)100000
CHOICE="IRQ 14"
LINK
IRQ=14
SHARE="DARRAY"
TRIGGER=LEVEL
INIT=IOPORT(1)LOC(7-2)010000
CHOICE="IRQ 11"
LINK
IRQ=11
SHARE="DARRAY"
TRIGGER=LEVEL
INIT=IOPORT(1)LOC(7-2)000100
CHOICE="IRQ 10"
LINK
IRQ=10
SHARE="DARRAY"
TRIGGER=LEVEL
INIT=IOPORT(1)LOC(7-2)001000

FUNCTION="Controller Order"
TYPE="MSD,DSKCTL;CTLID"
HELP="When adding a controller to a configured system, you can
either place it at the end of the controller order or reorder the
controllers.  Reordering changes the current drive letter assignments
for all drives on the system.  To avoid changing the drive letter
assignments when you add a controller to a configured system, place
it at the end of the controller order and DO NOT CREATE A PRIMARY
PARTITION on any of the added disks."
RESOURCE="CNTRORD",UNIQUE
CHOICE="First"
LINK
MEMBER="CNTRORD","1"
SHARE=NO
CHOICE="Second"
LINK
MEMBER="CNTRORD","2"
SHARE=NO
CHOICE="Third"
LINK
MEMBER="CNTRORD","3"
SHARE=NO
CHOICE="Fourth"
LINK
MEMBER="CNTRORD","4"
SHARE=NO
CHOICE="Fifth"
LINK
MEMBER="CNTRORD","5"
SHARE=NO
CHOICE="Sixth"
LINK
MEMBER="CNTRORD","6"
SHARE=NO
CHOICE="Seventh"
LINK
MEMBER="CNTRORD","7"
SHARE=NO
CHOICE="Eighth"
LINK
MEMBER="CNTRORD","8"
SHARE=NO

FUNCTION="Transfer Mode"
TYPE=""
HELP="This function tells the controller how to communicate
with the drives. Synchronous has the highest performance and
can be used with Compaq certified drives. Other drives may be
more susceptible to noise which can lead to data loss. Asynchronous
mode should be used with these drives. Automatic Detection allows the
controller to select the best transfer method based on the drives connected.
Firmware versions earlier than 1.86 use synchronous mode if all drives are
Compaq certified, otherwise they use asynchronous mode. Firmware version
1.86 and later uses synchronous mode when Automatic Detection is selected."
CHOICE="Automatic Detection"
CHOICE="Synchronous"
CHOICE="Asynchronous"

FUNCTION="Online Recovery Server Status"
SHOW=EXP
HELP="This function indicates if this controller is able to partcipate
in Online Recovery. A primary controller controls the local storage device,
while a recovery controller is able to adopt a storage device from another
system which has had a online recovery event occur."
CHOICE="Disabled"
CHOICE="Primary"
CHOICE="Recovery"

FUNCTION="Firmware Revision"
TYPE=""
HELP="This function indicates the revision of the controller firmware."
CHOICE=""
LINK
INIT=IOPORT(1) LOC(0) 1 | 0

ENDGROUP

GROUP="Drive Characteristics"

FUNCTION="Logical Drive 1"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 2"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 3"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 4"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 5"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 6"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 7"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="Logical Drive 8"
TYPE=""
HELP="Each Logical Drive on the SMART Controller
appears as a physical drive to your operating system.  To configure
a logical drive, the number of physical drives and fault tolerance
must be specified."
CHOICE=""

FUNCTION="On-line Spare Drive(s)"
TYPE=""
HELP="The Online Spare Drive is an extra disk that is used as
a temporary replacement when one of the disks in a fault tolerant
configuration fails.
\n\nWhen a disk fails, data is automatically copied from the other
drives in the logical drive to the On-line Spare Drive to restore
fault tolerant operation.
\n\nTo configure an On-line Spare Drive, you must select a method
of fault tolerance for the logical drive and have at least one unused
drive available.
\n\nThe On-line Spare Drive may be used as an interim replacement drive
for any logical drive."
CHOICE=""

FUNCTION="Unused Drives"
TYPE=""
HELP="Unused Drives shows any physical drives not assigned
to a logical drive or to On-line Spare Drives.
\n\nTo use these drives, increase the number of drives assigned
to a logical drive or configure another logical drive.
\n\nTo increase the number of unused drives, you must decrease
the number of drives assigned to a logical drive or physically
install more drives."
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

FUNCTION=""
TYPE=""
SHOW=NO
CHOICE=""

ENDGROUP

GROUP="Array Accelerator Status"

FUNCTION="Logical Drive 1"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 2"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 3"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 4"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 5"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 6"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 7"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

FUNCTION="Logical Drive 8"
CHOICE=""
HELP="The array accelerator is used to increase the performance
of the controller.  Logical drives using Distributed Data Guarding
will see the largest performance gain although all methods of
fault tolerance will benefit under many conditions.
\n\nInstead of writing data directly to a disk, data is stored
more quickly in RAM on the controller.  This data is written to disk
when the controller is not busy.  This data can also be read much more
quickly from RAM than from the disk.
\n\nArray Accelerator memory is mirrored to increase reliability
and is backed up by batteries which last from 4 to 8 days without primary
system power."

ENDGROUP

GROUP="Advanced Feature"

FUNCTION="Reset Configuration"
TYPE=""
SHOW=EXP
CHOICE="Not Reset"
CHOICE="Reset"
HELP="This function is used to clear the controller's configuration and
should only be used in exterme circumstances. ALL DATA WILL ON THE DRIVES
ATTACHED TO THIS CONTROLLER WILL BE LOST!  You must complete Step 5 to
save and clear the configuration."

ENDGROUP

ENDOVL