Sun[tm] Fire V60x and V65x LEDs
Front Panel LEDs
LED
|
Color
|
Function
|
Power
|
Green
|
This LED is controlled by software. It turns steady
when the server is powered up. Off when the system if off or in sleep
mode.
|
NIC1 and NIC2
|
Green
|
These LEDs are on when a good network link has been
established. They blink green to reflect network data activity.
|
System Status/Fault
|
Green/Amber
|
This LED can assume different states (green, amber,
steady, blinking) to indicate critical, non-critical, or degraded server
operation.
- Steady green: Indicates the system is operating normally
- Blinking green: Indicates the system is operating in a degraded condition.
- Blinking amber: Indicates the system is in a non-critical condition.
- Steady amber: Indicates the system is in a critical or non-recoverable
condition.
- Off: Indicates POST/system stop.
See Front-Panel
System Status LED for more details regarding this LED.
|
Hard Disk Drive Activity
|
Green
|
The Drive Activity LED on the front panel is used to
indicate drive activity from the onboard SCSI controller. The server Main
Board also provides a header, giving access to this LED for add-in IDE
or SCSI controllers.
- Blinking green (random): Hard disk activity
- Steady amber: Hard disk fault
- Off: No disk activity nor fault condition (or power is off).
|
System ID
|
Blue
|
The blue System Identification LED is used to help
identify a system for servicing when it is installed within a high density
rack or cabinet that is populated with several other similar systems.
The System ID LED is illuminated when the system ID button, located on
the front panel, is pressed. If activated by the front panel pushbutton,
the LED remains on until the pushbutton is depressed again. The LED also
illuminates when the server receives a remote System Identify command
from a remote management console. In this case, the LED turns off after
a timeout period. An additional blue System ID LED on the Main Board is
visible through the rear panel. It mirrors the operation of the front
panel LED.
|
Front-Panel System Status LED
Critical Condition
A critical condition or non-recoverable threshold crossing
is indicated with a continuous amber status LED and is associated with the following
events:
- Temperature, voltage, or fan critical threshold crossing.
- Power subsystem failure. The Baseboard Management Controller (BMC) asserts
this failure whenever it detects a power control fault (for example, the BMC
detects that the system power is remaining on even though the BMC has deasserted
the signal to turn off power to the system).
- The system is unable to power up due to incorrectly installed processor(s),
or processor incompatibility.
- A satellite controller such as the HSC, or another IMPI-capable device,
such as an add-in server management PCI card, sends a critical or non-recoverable
state, via the Set Fault Indication command to the BMC.
- Critical Event Logging errors, including System Memory Uncorrectable ECC
error and Fatal/Uncorrectable Bus errors, such as PCI SERR and PERR.
Non-Critical Condition
A non-critical condition is indicated with a blinking amber
status LED and signifies that at least one of the following conditions is present:
- Temperature, voltage, or fan non-critical threshold crossing.
- Chassis intrusion.
- Satellite controller sends a non-critical state, through the Set Fault Indication
command, to the BMC.
- A Set Fault Indication command from the system BIOS. The BIOS may use the
Set Fault Indication command to indicate additional, non-critical status such
as system memory or CPU configuration changes.
Degraded Condition
A degraded condition is indicated with a blinking green status
LED and signifies that at least one of the following conditions is present:
- Non-redundant power supply operation. This only applies
when the BMC is configured for a redundant power subsystem. The power unit
configuration is configured via OEM SDR records.
- A processor is disabled by FRB or BIOS.
- BIOS has disabled or mapped out some of the system memory.
Refer to the Sun Fire V60x and Sun Fire V65x servers Troubleshooting
Guide for information on how to isolate the server component responsible for
any of the critical, non-critical, or degraded conditions listed above.
Rear Panel LEDs
LED
|
Color
|
Function
|
Network Connection/
Network Activity
|
Green
|
This LED is on the left side of each NIC connector.
- Green = valid network connection.
- Blinking = transmit or receive activity.
|
Network Speed
|
Amber/Green
|
This LED is on the right side of the NIC connector.
- Off = 10 Mbps operation.
- Green = 100 Mbps operation.
- Amber = 1000 Mbps operation.
|
POST LEDs (four)
|
Multicolor
(Red/Green/Amber)
|
To help diagnose power-on self test (POST) failures,
a set of four bi-color diagnostic LEDs is located on the back edge of
the server Main Board. These LEDs are visible through holes in the rear
panel. Each of the four LEDs can have one of four states: Off, Green,
Red, or Amber. For detailed information on these LEDs, see POST
LED Indicators.
|
System ID
|
Blue
|
This LED is located on the Main Board and is visible
through holes in the rear panel. It can provide a mechanism for identifying
one system out of a group of identical systems. This can be particularly
useful if the server is used in a rack-mount chassis in a high-density,
multiple-system application. The LED is activated by depressing the front
panel System ID pushbutton or if the server receives a remote System Identify
command from a remote management console. If activated by the front panel
pushbutton, the LED remains on until the pushbutton is depressed again.
When the LED illuminates due to a remote System Identify command, the
LED turns off after a timeout period. An additional blue System ID LED
is located on the front panel that mirrors the operation of the rear Main
Board LED.
|
System Status/Fault
|
Green/Amber
|
This LED reflects the state of the System Status LED
on the front panel.
|
Power Supply
|
Green/Amber
|
This is a bi-color LED that can be on, off, green,
amber, or blinking, or combination thereof. See Rear
Panel Power Supply Status LED for more detailed information.
|
Rear Panel Power Supply Status LEDs
Power Supply LED State
|
Power Supply Condition
|
OFF
|
No AC power present to power supply
|
BLINKING GREEN
|
AC power present, but only the standby outputs are
on
|
GREEN
|
Power supply DC outputs on and OK
|
BLINKING AMBER
|
PSAlert# signal asserted, power supply on
|
AMBER
|
Power supply shutdown due to over current, over temperature,
over voltage, or undervoltage
|
AMBER or OFF
|
Power supply failed and AC fuse open or other critical
failure
|
Note - If redundant power supplies are used in
the Sun Fire V65x server, the power supply LEDs have the following meaning:
Both LEDs off = no power to power supplies or both power supplies bad
Both LEDs blinking green = power supplies receiving AC power, but server
is off
Both LEDs solid green = server is fully powered on and power supplies
are good
One LED solid green and one LED amber = AC power missing from one of the
power supplies
|
POST LED Indicators
To help diagnose POST failures, a set of four bi-color diagnostic
LEDs is located on the back edge of the server Main Board. Each of the four
LEDs can have one of four states: Off, Green, Red, or Amber.
The LED diagnostics feature consists of a hardware decoder
and four dual color LEDs. During boot block POST and post boot block POST, the
LEDs display all normal Port80 codes representing the progress of the BIOS POST.
Each POST code is represented by a combination of colors from the four LEDs.
The LEDs are in pairs of green and red. The POST codes are broken into two nibbles,
an upper and a lower nibble. Each bit in the upper nibble is represented by
a red LED and each bit in the lower nibble is represented by a green LED. If
both bits are set in the upper and lower nibble then both red and green LEDs
are lit, resulting in an amber color. Likewise, if both bits are clear then
the red and green LEDs are off.
During the POST process, each light sequence represents a
specific Port-80 POST code. If a system should hang during POST, the diagnostic
LEDs present the last test executed before the hang. When you read the LEDs,
observe them from the back of the system. The most significant bit (MSB) is
the leftmost LED, and the least significant bit (LSB) is the rightmost LED.
Note - When comparing a diagnostic LED color string
from the server Main Board to those listed in the diagnostic LED decoder
in the following tables, the LEDs on the Main Board should be referenced
when viewed by looking into the system from the back. Reading the LEDs
from left to right, the most-significant bit is located on the left.
|
Boot Block POST Progress LED Code Table (Port 80h Codes)
POST Code
|
Diagnostic LED Decoder
(G = green, R = red, A = amber)
|
Description
|
|
MSB
|
|
|
LSB
|
|
10h
|
Off
|
Off
|
Off
|
R
|
The NMI is disabled. Start power-on delay. Initialization
code checksum verified.
|
11h
|
Off
|
Off
|
Off
|
A
|
Initialize the DMA controller, perform the keyboard
controller BAT test, start memory refresh, and enter 4 GB flat mode.
|
12h
|
Off
|
Off
|
G
|
R
|
Get start of initialization code and check BIOS header.
|
13h
|
Off
|
Off
|
G
|
A
|
Memory sizing.
|
14h
|
Off
|
G
|
Off
|
R
|
Test base 512K of memory. Return to real mode. Execute
any OEM patches and set up the stack.
|
15h
|
Off
|
G
|
Off
|
A
|
Pass control to the uncompressed code in shadow RAM.
The initialization code is copied to segment 0 and control will be transferred
to segment 0.
|
16h
|
Off
|
G
|
G
|
R
|
Control is in segment 0. Verify the system BIOS checksum.
If the system BIOS checksum is bad, go to checkpoint code E0h; otherwise,
going to checkpoint code D7h.
|
17h
|
Off
|
G
|
G
|
A
|
Pass control to the interface module.
|
18h
|
G
|
Off
|
Off
|
R
|
Decompression of the main system BIOS failed.
|
19h
|
G
|
Off
|
Off
|
A
|
Build the BIOS stack. Disable USB controller. Disable
cache.
|
1Ah
|
G
|
Off
|
G
|
R
|
Uncompress the POST code module. Pass control to the
POST code module.
|
1Bh
|
A
|
R
|
Off
|
R
|
Decompress the main system BIOS runtime code.
|
1Ch
|
A
|
R
|
Off
|
A
|
Pass control to the main system BIOS in shadow RAM.
|
E0h
|
R
|
R
|
R
|
Off
|
Start of recovery BIOS. Initialize interrupt vectors,
system timer, DMA controller, and interrupt controller.
|
E8h
|
A
|
R
|
R
|
Off
|
Initialize extra module if present.
|
E9h
|
A
|
R
|
R
|
G
|
Initialize floppy controller.
|
EAh
|
A
|
R
|
A
|
Off
|
Try to boot floppy diskette.
|
EBh
|
A
|
R
|
A
|
G
|
If floppy boot fails, initialize ATAPI hardware.
|
ECh
|
A
|
A
|
R
|
Off
|
Try booting from ATAPI CD-ROM drive.
|
EEh
|
A
|
A
|
A
|
Off
|
Jump to boot sector.
|
EFh
|
A
|
A
|
A
|
G
|
Disable ATAPI hardware.
|
POST Progress LED Code Table (Port 80h Codes)
POST Code
|
Diagnostic LED Decoder
(G = green, R = red, A = amber)
|
Description
|
|
MSB
|
|
|
LSB
|
|
20h
|
Off
|
Off
|
R
|
Off
|
Uncompress various BIOS modules.
|
22h
|
Off
|
Off
|
A
|
Off
|
Verify password checksum.
|
24h
|
Off
|
G
|
R
|
Off
|
Verify CMOS checksum.
|
26h
|
Off
|
G
|
A
|
Off
|
Read microcode updates from BIOS ROM.
|
28h
|
G
|
Off
|
R
|
Off
|
Initializing the processors. Set up processor registers.
Select least featured processor as the BSP.
|
2Ah
|
G
|
Off
|
A
|
Off
|
Go to Big Real mode.
|
2Ch
|
G
|
G
|
R
|
Off
|
Decompress INT13 module.
|
2Eh
|
G
|
G
|
A
|
Off
|
Keyboard controller test: The keyboard controller input
buffer is free. Next, the BAT command will be issued to the keyboard controller.
|
30h
|
Off
|
Off
|
R
|
R
|
Swap keyboard and mouse ports, if needed.
|
32h
|
Off
|
Off
|
A
|
R
|
Write command byte 8042: The initialization after the
keyboard controller BAT command test is done. The keyboard command byte
will be written next.
|
34h
|
Off
|
G
|
R
|
R
|
Keyboard Init: The keyboard controller command byte
is written. Next, the pin 23 and 24 blocking and unblocking commands will
be issued.
|
36h
|
Off
|
G
|
A
|
R
|
Disable and initialize the 8259 programmable interrupt
controller.
|
38h
|
G
|
Off
|
R
|
R
|
Detect configuration mode, such as CMOS clear.
|
3Ah
|
G
|
Off
|
A
|
R
|
Chipset initialization before CMOS initialization.
|
3Ch
|
G
|
G
|
R
|
R
|
Init system timer: The 8254 timer test is over. Starting
the legacy memory refresh test next.
|
3Eh
|
G
|
G
|
A
|
R
|
Check refresh toggle: The memory refresh line is toggling.
Checking the 15 second on/off time next.
|
40h
|
Off
|
R
|
Off
|
Off
|
Calculate CPU speed.
|
42h
|
Off
|
R
|
G
|
Off
|
Init interrupt vectors: Interrupt vector initialization
is done.
|
44h
|
Off
|
A
|
Off
|
Off
|
Enable USB controller in chipset.
|
46h
|
Off
|
A
|
G
|
Off
|
Initialize SMM handler. Initialize USB emulation.
|
48h
|
G
|
R
|
Off
|
Off
|
Validate NVRAM areas. Restore from backup if corrupted.
|
4Ah
|
G
|
R
|
G
|
Off
|
Load defaults in CMOS RAM if bad checksum or CMOS clear
jumper is detected.
|
4Ch
|
G
|
A
|
Off
|
Off
|
Validate date and time in RTC.
|
4Eh
|
G
|
A
|
G
|
Off
|
Determine number of microcode patches present.
|
50h
|
Off
|
R
|
Off
|
R
|
Load microcode to all CPUs.
|
52h
|
Off
|
R
|
G
|
R
|
Scan SMBIOS GPNV areas.
|
54h
|
Off
|
A
|
Off
|
R
|
Early extended memory tests.
|
56h
|
Off
|
A
|
G
|
R
|
Disable DMA.
|
58h
|
G
|
R
|
Off
|
R
|
Disable video controller.
|
5Ah
|
G
|
R
|
G
|
R
|
8254 timer test on channel 2.
|
5Ch
|
G
|
A
|
Off
|
R
|
Enable 8042. Enable timer and keyboard IRQs. Set video
mode: Initialization before setting the video mode is complete. Configuring
the monochrome mode and color mode settings next.
|
5Eh
|
G
|
A
|
G
|
R
|
Initialize PCI devices and motherboard devices. Pass
control to video BIOS. Start serial console redirection.
|
60h
|
Off
|
R
|
R
|
Off
|
Initialize memory test parameters.
|
62h
|
Off
|
R
|
A
|
Off
|
Initialize AMI display manager module. Initialize support
code for headless system if no video controller is detected.
|
64h
|
Off
|
A
|
R
|
Off
|
Start USB controllers in chipset.
|
66h
|
Off
|
A
|
A
|
Off
|
Set up video parameters in BIOS data area.
|
68h
|
G
|
R
|
R
|
Off
|
Activate ADM: The display mode is set. Displaying the
power-on message next.
|
6Ah
|
G
|
R
|
A
|
Off
|
Initialize language module. Display splash logo.
|
6Ch
|
G
|
A
|
R
|
Off
|
Display sign on message, BIOS ID, and processor information.
|
6Eh
|
G
|
A
|
A
|
Off
|
Detect USB devices.
|
70h
|
Off
|
R
|
R
|
R
|
Reset IDE Controllers.
|
72h
|
Off
|
R
|
A
|
R
|
Displaying bus initialization error messages.
|
74h
|
Off
|
A
|
R
|
R
|
Display setup message: The new cursor position has
been read and saved. Displaying the hit setup message next.
|
76h
|
Off
|
A
|
A
|
R
|
Ensure timer keyboard interrupts are on.
|
78h
|
G
|
R
|
R
|
R
|
Extended background memory test start.
|
7Ah
|
G
|
R
|
A
|
R
|
Disable parity and NMI reporting.
|
7Ch
|
G
|
A
|
R
|
R
|
Test 8237 DMA controller: The DMA page register test
passed. Performing the DMA controller 1 base register test next.
|
7Eh
|
G
|
A
|
A
|
R
|
Initialize 8237 DMA controller: The DMA controller
2 base register test passed. Programming DMA controllers 1 and 2 next.
|
80h
|
R
|
Off
|
Off
|
Off
|
Enable mouse and keyboard: The keyboard test has started.
Clearing the output buffer and checking for stuck keys. Issuing the keyboard
reset command next
|
82h
|
R
|
Off
|
G
|
Off
|
Keyboard interface test: A keyboard reset error or
stuck key was found. Issuing the keyboard controller interface test command
next.
|
84h
|
R
|
G
|
Off
|
Off
|
Check stuck key enable keyboard: The keyboard controller
interface test is complete. Writing the command byte and initializing
the circular buffer next.
|
86h
|
R
|
G
|
G
|
Off
|
Disable parity NMI: The command byte was written and
global data initialization has completed. Checking for a locked key next.
|
88h
|
A
|
Off
|
Off
|
Off
|
Display USB devices.
|
8Ah
|
A
|
Off
|
G
|
Off
|
Verify RAM size: Checking for a memory size mismatch
with CMOS RAM data next.
|
8Ch
|
A
|
G
|
Off
|
Off
|
Lock out PS/2 keyboard/mouse if unattended start is
enabled.
|
8Eh
|
A
|
G
|
G
|
Off
|
Initialize boot devices: The adapter ROM had control
and has now returned control to the BIOS POST. Performing any required
processing after the option ROM returned control.
|
90h
|
R
|
Off
|
Off
|
R
|
Display IDE mass storage devices.
|
92h
|
R
|
Off
|
G
|
R
|
Display USB mass storage devices.
|
94h
|
R
|
G
|
Off
|
R
|
Report the first set of POST errors To Error Manager.
|
96h
|
R
|
G
|
G
|
R
|
Boot password check: The password was checked. Performing
any required programming before Setup next.
|
98h
|
A
|
Off
|
Off
|
R
|
Float processor initialize: Performing any required
initialization before the coprocessor test next.
|
9Ah
|
A
|
Off
|
G
|
R
|
Enable Interrupts 0, 1, 2: Checking the extended keyboard,
keyboard ID, and NUM Lock key next. Issuing the keyboard ID command next.
|
9Ch
|
A
|
G
|
Off
|
R
|
Initialize FDD devices. Report second set of POST errors
to error messager.
|
9Eh
|
A
|
G
|
G
|
R
|
Extended background memory test end.
|
A0h
|
R
|
Off
|
R
|
Off
|
Prepare and run setup: Error manager displays and logs
POST errors. Waits for user input for certain errors. Execute setup.
|
A2h
|
R
|
Off
|
A
|
Off
|
Set base expansion memory size.
|
A4h
|
R
|
G
|
R
|
Off
|
Program chipset setup options, build ACPI Tables, and
build INT15h E820h table
|
A6h
|
R
|
G
|
A
|
Off
|
Set display mode.
|
A8h
|
A
|
Off
|
R
|
Off
|
Build SMBIOS table and MP tables.
|
AAh
|
A
|
Off
|
A
|
Off
|
Clear video screen.
|
ACh
|
A
|
G
|
R
|
Off
|
Prepare USB controllers for operating system.
|
AEh
|
A
|
G
|
A
|
Off
|
One beep to indicate end of POST. No beep if silent
boot is enabled.
|
000h
|
Off
|
Off
|
Off
|
Off
|
POST completed. Passing control to INT 19h boot loader
next.
|
|