3.20 Possible configurations for M.2 & Minicard –Modules 29
3.21 PCIe x16 Slot Configuration for Riser cards (only supported for D3433-S) 30
3.22 Fan Connectors 31
3.23 Rear Audio / Frontpanel Audio Connector 32
3.24 S/PDIF Connector 34
3.25 GPIO (Feature Connector) 35
3.26 Power Supply Connector (Multirail) 36
3.27 Additional Power Supply Connector (12V for Processor) 36
3.28 Power Supply Connectors (ATX Multirail or Single 12V Operation) 37
3.28.1
3.28.2
3.28.3
3.29 Chassis Intrusion 40
4
4.1
4.2
4.3
4.4
4.5
4.6
4.7
4.8
4.9
5
5.1
5.2
6
6.1
6.2
7
7.1
7.2
7.3
System Monitoring 41
D343x-S: Temperature Sensors and Fan Connectors (preliminary) 42
SystemGuard 43
SystemGuard - Details 44
SilentFanConfigManager – Customize System Monitoring Settings 45
Components for continous 24/7 operation @ +60°C 46
Capacitor Endurance Time Comparison 47
Temperature Reference Points D343x-S 48
Temperature Reference Points D343x-S (rear) 49
BMC – BIOS Default Settings D343x-S 50
Power Supply 51
ATX Power Supply 51
Typcial Power Consumption (to be added soon) 52
USB Implementation 53
USB Ports & USB Power Fuses (D3433-S) 53
USB Ports & USB Power Fuses (D3434-S) 55
Display Options 57
Summary: Video Output Options D343x-S 57
SilentFanConfig-Manager 76
Windows System-Monitoring API (BMCAPI) 77
Linux System-Monitoring Driver (“LM-Sensors”) To be added soon 77
Known Issues & Important Notes 78
Miscellaneous 79
a
Revision History:
V1.0 First Version 22.02.2016
Technical data are subject to change without prior notice. Fujitsu accepts no
responsibility with regards to technical or editorial mistakes or omissions.
a
SafetyInstructions
Do not connect or disconnect any cables or modules to or from any onboard connectors (except
for the rear I/O connectors) until the mainboard is completely powered down.
Any damage caused to the mainboard by misuse of the onboard connectors is excluded from the
standard warranty. Fujitsu Technology Solutions cannot be held liable for any damage that results
from incorrect use of any onboard connectors.
The system integrator is fully responsible for the usage of appropriate connectors and cables in
order to fulfill the technical requirements (electrical contact, durability, power/current levels,
signal integrity etc.)
Note: BIOS Setup option “WLAN” (for D3433-S and D3434) This option can be used to enable/disable Mini-PCIe WLAN modules.
(BIOS Setup option; default = Enabled).
a
Mandatory torque for mounting
screws: 0.25Nm +/- 0.05Nm
Max. torque must never be exceeded,
otherwise the mainboard (solder
nuts) may be damaged.
Note: Damaged solder nuts are not
covered by any warranty!
Module Assembly Kit (included in
mainboard shipment) contains
1metal spacers and 1 mounting
screws.
(spacer)
(mounting screw)
Solder nut for
Fullsize
Minicard
Solder nut for
Halfsize
Minicard
Interfaces & Connectors
3.17 m-SATA / Mini-PCIe Socket Assembly Note
a
Interfaces & Connectors
3.18 M.2 (Key M) – 2242 & 2260
D3433-S: M.2 cards with SATA or PCIe are supported. PCIe is connected via 2lanes.
D3434-S: M.2 SATA only supported.
a
Mandatory torque for mounting
M3 screw: 0.4Nm +/- 0.05Nm
Mandatory torque for mounting
spacer nut: 0.6Nm +/- 0.05Nm
Max. torque must never be exceeded,
otherwise the mainboard (solder
nuts) may be damaged.
Note: Damaged solder nuts are not
covered by any warranty!
Module Assembly Kit
(included in mainboard shipment)
contains 1metal spacer nut
and 1 mounting screw
(M3 x 3.5mm ,bolt head ø = 4.5mm).
(spacer nut)
(mounting screw)
Solder nut for
M.2
2242
Solder nut for
M.2
2260
Interfaces & Connectors
3.19 M.2 Socket Assembly Note
a
Solder nut for
M.2
2242
Solder nut for
M.2
2260
Solder nut for
Minicard
Halfsize
Solder nut for
Minicard
Fullfsize
M.2 2242 Module
Minicard
Fullfsize
Configuration
example:
Interfaces & Connectors
3.20 Possible configurations for M.2 & Minicard –Modules
Important Note:
Possible configurations:1.Minicard fullsize + M.2 -2242,2.Minicard Halfsize + M.2 –2260,3.Minicard Halfsize + M.2 –2242;Minicard Fullsize + M.2 –2260: Not supported!
a
Interfaces & Connectors
3.21 PCIe x16 Slot Configuration for Riser cards (only supported for D3433-S)
removed while the system is
powered. Mainboard may be
damaged!
Pin 1
Interfaces & Connectors
3.22 Fan Connectors
Fan speed control is supported for 4 pin (PWM) fans.
Fan3 can be changed from 4-pin mode to 3-pin controlled mode via BIOS Setup.
3-pin fans (voltage controlled) connected to Fan3 connector will always operate at full speed resp. 12V supply voltage!
Fan1 current: max. 2A continuous / 4A peak
Fan3 current: max. 1,2A
a
Pin
Signal
Pin
Signal
1
HDA Port 1 Left
2 Analog GND
3
HDA Port 1 Right
4FP Presence Detect
5
HDA Port 2 Right
6 Jack Sense Port 1
7
Jack Sense common
8 Key 9 HDA Port 2 Left
10
Jack Sense Port 2
Pin
Signal
Pin
Signal
1
Mic Left
2 Analog GND
3
Mic Right
4reserved
5
Headphone out Right
6 reserved
7
Analog GND
8 Key 9 Headphone out Left
10
reserved
Note: Front audio operating
mode (High Definition Audio
or Legacy Audio) selectable in
BIOS Setup
Interfaces & Connectors
3.23 Rear Audio / Frontpanel Audio Connector
Frontpanel Audio: High Definition Mode
Frontpanel Audio: Legacy Mode (AC97)
Note: In case of using this connector in AC97 = Legacy mode (BIOS Setting) take care for pin 7.
This pin is tied to GND. HP_ON# signaling on this pin is not supported.
a
Pin
Signal
A
Line input
Pin
Signal
A
Headphone output
Line IN (light blue)
Pin A
Headphone OUT (lime)
Pin A
Interfaces & Connectors
Rear Audio / Frontpanel Audio Connector
Rear Audio Connectors
Electrical input characteristics
Line: Stereo max. 1,2Vrms (Gain=0dB) input voltage
Electrical output characteristics
Headphone: Stereo max. 1,2 Vrms output voltage at 32Ohm load
System Speaker (via frontpanel connector): Mono, typ. 2W (RMS) at 4Ohm load
Mute Topology
When an outPut device (HeadPhone, HifiAmp...) is attached to an output jack, the following mute topology is required:
FrontOut mutes RearOut and MonoOut RearOut mutes MonoOut (frontpanel system speaker)
Remark: System beeps are only audible via the internal (frontpanel) system speaker. System beeps are also audible on the internal speaker if an external
device is plugged in.
a
Pin
Signal
1
VCC
2
SPDIF out
3
GND
Pin 1
Interfaces & Connectors
3.24 S/PDIF Connector
Note:
Standard connector bracket should directly
connect to SPDIF out and GND pins
(no signal converter required)
(Sample S/PDIF connector bracket)
a
Feature Connector: CompuPack R-DRK2-20-S3-SMT
(Note: Any 2mm pitch ribbon cable standard parts can be used)
1
GPI/O_0
GPI/O_1
2
3
GPI/O_2
GPI/O_3
4
5
GPI/O_4
GPI/O_5
6
7
GPI/O_6
GPI/O_7
8
9
VCC_3.3V
GND
10
11
VCC_3.3V
VCC_5Vaux
12
13
EN WLAN H (Input)
GND
14
15
WLAN LED+ (Output ~5mA)
GND
16
17
GND
VCC_5V
18
19
VCC_12V
VCC_12V
20
Note: Current max. 1.5 A per power pin!
Parameter
Range
GPI/O Input Low Voltage
-0.5V … 0.8V
GPI/O Input High Voltage
2V … 3.3V
GPI/O Output Low Voltage
max. 0.7V
GPI/O Output High Voltage
min. 2.5V
Note: max. load per GPI/O pin: 10mA
(overall current for all GPI/O pins must be < 85mA)
Each GPI/O pin has an integrated serial resistor of 150 Ohm
GPIO access is provided via the SM-Bus controller PCA9554A
3.27 Additional Power Supply Connector (12V for Processor)
a
Important Note:
If the Power Supply is changed from Multirail to
single 12V or vice versa, make sure to
disconnect the mainboard from any power at
least for 10 minutes!
2)Requirement for ATX Multirail operation:
Operational state from the main PSU is off.
The mainboard checks
if
PIN10 and PIN11 = 0V
&
PIN 9 = 5V
only then the main PSU starts and the
mainboard is in ATX Multirail operating mode.
Interfaces & Connectors
3.28 Power Supply Connectors (ATX Multirail or Single 12V Operation)
3.28.1
(24 pin ATX connector)
(4 pin 12V connector for CPU power)
24 pin ATX connector:
1) Pin 14 (-12V) and pin 20 (-5V) are not required
2) Pin 9, Pin 10 & Pin11 are responsible for operational state
ATX Multirail Operation
a
Important Note (Single 12V mode):
The “output” pins (3.3V
out
, 5V
out
, 12V
out
)
provide power for drives or extra devices.
Maximum “output” power ratings:
+3.3V
out
: max. 4A
= combined output current of 3.3V
PCIe x16 and 3.3V
out
pins (1, 2, 12, 13)
+5V
out
: max. 9A
= combined output current of all USB
ports and +5V
out
pins (4, 6, 21, 22, 23)
+12V
out
: max. 6A
depends on output power of single
12V PSU! (12V
out
= pin 20)
2)Requirement for Single 12V operation:
IF
PIN10 and PIN11 = 12V
&
PIN 9 = 0V
only then the mainboard is in Single 12V
operating mode.
Interfaces & Connectors
3.28.2
Single 12V Operation
(24 pin ATX connector)
(4 pin 12V connector for CPU power)
For single 12V operation both connectors 24 pin and 4 pin are required!
24 pin ATX connector:
1) Pin 8, 9, 14, 16 (NC) must NOT be used in single 12V mode!
2) Pin 9, Pin 10 & Pin 11 are responsible for the operating mode
a
Important Note:
The switching / mode detection between ATX-
and single 12V- operating mode is different to
the mainboard D3243-S!!!
All four +12Vin pins must be
connected to the +12V supply
source.
Both GND pins (4-pin conn.) &
two GND pins (24-pin
connector) must be connected
to the supply source.
Interfaces & Connectors
3.28.3
Sample supply cabling for single 12V configuration:
e.g. processor 65W, additional graphics card, several SATA drives
+12V
GND
(Single 12V PSU)
Note: Each single pin of both connectors is capable of max. 8A!
All pins of the 4-pin connector must
be used due to peak current in Turbo Mode.
Single 12V Operation – Config
a
Pin
Signal
1
GND
2
Case open (low asserted)
3
Intrusion switch present (low asserted)
Note:
The intrusion supervision feature needs to be enabled in BIOS Setup first (Menu „Security“ „Cabinet
Monitoring“).
This BIOS option is only available if pin 3 („Intrusion Switch Present“) is connected to GND!
Note:
Chassis intrusion is active even if the system is switched off (S5 state) or
disconnected from mains power.
The intrusion event is monitored by the chipset (PCH) and stored in the BIOS
Eventlog during the next Boot.
A timestamp (Boot date/time) will be added then.
Note: This timestamp does not represent date/time of the intrusion event!
If a Supervisor Password is enabled in BIOS Setup, the system will stop
during BIOS POST if an intrusion event has been detected. In order to
continue, the Supervisor Password must be entered to confirm the intrusion
event.
The intrusion status can be easily monitored by using the BMCAPI (Windows):
PWM or 3-Wire
Selectable via BIOS Setup
Default = PWM)
Processor
(Fan1; PWM) 1)
Sensor “Memory”
Sensor “PCIe Graphics”
Note: Do not attach more than one fan per connector!
Remove or connect fans only when unit is powered off!
Sensor “Processor”
Sensor “PCH”
Fan 3 (PWM or 3-pin)
2) 3)
Sensor “CoreRegulator”
Sensor “Ambient”
System Monitoring
4.1 D343x-S: Temperature Sensors and Fan Connectors (preliminary)
a
System Monitoring Tool:
• Visualize processor and sensor
temperature data
• Display current speed for all
attached fans
• User can configure fan aging control
(menu “Special”)
• User can configure system watchdog
(menu “Special”)
User can adjust system behaviour via
“Silent PC / Performance PC” slider by
forced processor throttling
System Monitoring
4.2 SystemGuard
a
Temperature Sensors
Processor Sensor
1)
Sensor PCIe Graphics
Ambient Temperature
Core Voltage Regualtor Sensor
Memory Sensor
PCH Sensor
Sensor / Fan Matrix
Indicates which sensor influences the specific fan speed
Note: Characteristics for FAN1 is always dependent on the CPU
temperature – fully controlled by the system BIOS.
Due to safety reasons the influence of the CPU sensor for FAN1
cannot be disabled!
1) Note: The temperature value shown for the processor (digital „PECI“ measurement =Platform Environment Control
Interface) does NOT provide the absolute processor temperature, but it is a calculated value based on the relative PECI data.
(Note: Sample screenshot only; data may differ for specific mainboard model)
System Monitoring
4.3 SystemGuard - Details
a
System Monitoring
4.4 SilentFanConfigManager – Customize System Monitoring Settings
Windows-based System Management Configuration Tool
1. Windows-based configuration tool (SilentFanConfig) to create customized system monitoring settings like minimum fan speed and
temperature sensor influence. These customized settings are stored in a specific “SMCO” flash file.
2. DOS-based tool “SMCO” to flash the customized system monitoring settings (SMCO file) to the system BIOS of the target unit.
SilentFanConfig-Tool: SMCO-Tool SilentFanConfig-Tool +
Create specific system SMCO Flash File Flash SMCO file to SMCO-Tool =
monitoring settings mainboard BIOS SilentFanConfigManager
(any Windows-based PC) (each unit in production)
Note: New settings are written permanently to system BIOS.
Any BIOS update will not reset the new settings
SilentFanConfig V1.82.0 or higher required for D343x-S
Please see documentation in ZIP file (link below) for further details.
ftp://ftp.ts.fujitsu.com/pub/Mainboard-OEM-Sales/Products/Mainboards/Industrial&ExtendedLifetime/D343x-S_Mini-ITX/IndustrialTools_D343x-S/
a
Capacitor Endurance Time
Solid Electrolyte:
Fluid Electrolyte:
Operating Conditions:
Circulating air
(mainboard) max. 60°C
Usage 24h / 7 days
All onboard electrolyte
capacitors: Polymer type only
(= solid electrolyte)
Lx = effective endurance time
Lo = endurance time @ 105°C
(e.g. 2.000hrs)
to = 105°C
tx = capacitor surface temperature
(e.g. 68°C)
High Efficiency Processor
Core Voltage Regulator
for reduced thermal
dissipation loss
Note: Power Consumption
PCH P max ~ 4.1W
P idle ~ 0.7W
Extra Heatsink
on PCH
COM Driver with enhanced
operating temperature range
8-layer PCB for improved
signal quality within full
operating temperaturerange
Oscillator with enhanced
operating temperature range
System Monitoring
4.5 Components for continous 24/7 operation @ +60°C
a
System Monitoring
4.6 Capacitor Endurance Time Comparison
a
Battery max. 60/70°C 1)
PCH max. 95°C
(chip surface)
All capacitors max. 70°C
1) Note: Battery operation is specified in
temperature range up to 60°C. Operation
between 60°C and 70°C may result in:
- Higher self discharge rate
- Decline of specified characteristics
- Danger of leakage increases
Qscillator max. 70°C
Audio Codec max. 75°C
Reference Point Limit Temperatures (Component Surface) must not be exceeded!
Power MOS-FETs / MOS-FET
Drivers max. 100°C
Operating Conditions:
Circulating air
(mainboard) max. 60°C
Usage 24h / 7 days
TPM max. 70°C
Inductor max. 100°C
System Monitoring
4.7 Temperature Reference Points D343x-S
a
Super I/O max. 70°C
LAN max. 85°C
Reference Point Limit Temperatures (Component Surface) must not be exceeded!
Operating Conditions:
Circulating air
(mainboard) max. 60°C
Usage 24h / 7 days
LVDS Converter max. 85°C
COM Driver max. 70°C
COM Driver max. 70°C
Quartz max. 70°C
Quartz max. 70°C
SP-Caps max. 95°C
Note: Humidity should not
exceed 75% at 60°C
System Monitoring
4.8 Temperature Reference Points D343x-S (rear)
a
Sensors
PECI (Processor)
PCIe Graphics
Ambient
Core regulator
Memory
PCH
Fan1 (CPU)
X
X
Fan3
X
X X X
X
X
StartUp 1)
FullSpeed 2)
Alert 3)
Note
PECI (Processor)
n.a.
n.a.
n.a.
These settings are fixed by the BIOS (depends on the
individual installed processor) and cannot be changed via
SilentFanConfig-Manager.
Ambient
45°C
60°C
68°C
These settings are implemented for the current
BIOS version and may be changed for upcoming
BIOS versions!
Default minimum fan speed = 30% (all fans).
Core Regulator
50°C
75°C
80°C
Memory
40°C
60°C
65°C
PCH
50°C
60°C
70°C
PCIe Graphics
40°C
60°C
65°C
System Monitoring
4.9 BMC – BIOS Default Settings D343x-S
The default system monitoring settings like fan speed, sensor influence, and Alert temperatures are fixed by the system BIOS.
All relevant settings can be customized by system builders via the SilentFanConfig-Manager tool kit.
“X” indicates that this specific sensor influences the speed of this specific fan
1) If the sensor temperature is below “StartUp” the fan rotates a its defined minimum fan speed
2) Between “StartUp” and “FullSpeed” the fan speed increases linear
3) If the sensor temperature achieves “Alert”, the system can provide a warning (e.g. via SystemGuard tool)
a
Connectors for ATX (Multirail) Power Supply
(1) 24 pin connector (ATX layout)
(2) 4 pin connector (+12V, GND)
Note: The +12V supply (up to 12A) for processor and chipset is provided via the 4 pin
connector! Onboard voltage regulators convert the +12V input power to the appropriate
processor / chipset supply voltages.
(3) Processor Core Voltage Regulator: High Efficiency design for enhanced
power saving and less thermal dissipation loss.
Power Supply Requirements
for onboard components (worst case incl. processor & memory; w/o USB devices;
w/o PCIe cards, w/o M.2 / mSATA / SATA drives)
Source 1)
Voltage
Min. PS
Load
Max.Voltage
Tolerance
Mainboard
Capacitive
Load
Max. Mainboard
Current
ATX Power
Supply
+ 12V
0.05A
± 5 %
1.300µF
8A/12A 2)
- 12V
0A --
not used
+ 5V
0.2A
± 5 %
900µF
3A
+ 3.3V
0A
± 5 %
350µF
0.5A
+ 5Vaux
0A
+5 % / -3%
330µF
0.5A
12V only PSU
+12V
0A
± 5 %
1.300µF
8A/12A 2)
1) ATX PSU or 12V only DC Supply
2) Max. Cont. Current = 8A; max. Surge Current = 10A (< 100sec) / 12A (< 10ms)
The power supply must support the minimum load
conditions as mentioned in the left chart.
(3)
(2)
(1)
5 Power Supply
5.1 ATX Power Supply
a
Power Supply
5.2 Typcial Power Consumption (to be added soon)
a
Description
USB Port #
Common Fuse
Max. Current
per Port
Note
USB 3.0
Frontpanel
#2 / #3
2A
900mA
USB 2.0
Internal
#6 / #7
2A
500mA
for internal
devices 1)
USB 3.0
Stick Socket 1)
#13
900mA
for internal
devices 1)
USB 3.0 Rear
(right)
(USB/USB/LAN)
#0 / #1
2A
900mA
USB 3.0 Rear
(left)
(USB/USB/LAN)
#4 / #5
2A
900mA
USB 2.0 Rear
#9 / #10 / #12 / #11
2A
500mA
USB 2.0
mSATA / mPCIe 1)
#8
(not fused)
500mA
for internal
devices
1)
#2 / #3
USB Ports:
#13
#6 / #7
#8
6 USB Implementation
6.1 USB Ports & USB Power Fuses (D3433-S)
D3433-S: There is one USB controller (xHCI) for all USB ports
1) Note: These “internal” ports do not provide “Windows Device Eject”
a
#11
#12
#10
#9
#5
#4
#1
#0
USB Implementation
Rear USB Ports for D3433-S:
a
Description
USB Port #
Common Fuse
Max. Current
per Port
Note
USB 3.0
Frontpanel
#2 / #3
2A
900mA
USB 2.0
Internal
#6 / #7
2A
500mA
for internal
devices 1)
USB 3.0 Rear
(right)
(USB/USB/LAN)
#0 / #1
2A
900mA
USB 2.0 Rear
(left)
(USB/USB/LAN)
#4 / #5
2A
500mA
USB 2.0 Rear
#9
2A
500mA
USB 2.0
mPCIe 1)
#8
(not fused)
500mA
for internal
devices
1)
USB Ports:
#2 / #3
#6 / #7
#8
USB Implementation
6.2 USB Ports & USB Power Fuses (D3434-S)
D3434-S: There is one USB controller (xHCI) for all USB ports
1) Note: These “internal” ports do not provide “Windows Device Eject”
a
#1
#5
#0
#4
#9
USB Implementation
Rear USB Ports for D3434-S:
a
7 Display Options
7.1 Summary: Video Output Options D343x-S
Up to three independent displays supported (D3434-S: max. two displays)
Supports Clone Mode, Extended Desktop and Collage Mode (combine 2 or 3 displays to one screen)
Support of 4K display technology via DisplayPort output
DisplayPort is compatible with
DVI-D is compatible with
DVI to HDMI
DP to HDMI
– adapter and (active) DVI to VGA - adapter
– adapter,
DP to DVI
– adapter and
DP to VGA
Second DisplayPort can be used as DP, eDP or LVDS (via onboard DP to LVDS converter)
eDP and LVDS can be used simultanously
Note: LVDS pinning is compatible to D2703-S /
D2963-S / D3003-S / D3313-S / D3243-S
D3433-S / D3434-S
40.
39.
Display Options
7.3 LVDS Connector Details
a
Backlight Inverter Connector: JST PHR-8
Backlight Brightness Control:
Provides a variable DC voltage between 0V and 4V via an RC filter (10kOhm / 20uF; buffered output).
Alternatively a PWM control is available, please see related jumper setting.
Basically the brightness level can be selected by BIOS Setup, but it is also accessible
from Windows OS.
If this control signal is used, the system integrator is responsible for the implementation of a backlight
converter that fits to the control output voltage range.
Backlight On/Off Control:
Active High, 3.3V Note: Polarity can be changed via BIOS Setup
LVDS Backlight Brightness Control Jumper
(Select analog or PWM output)
1. 8.
Display Options
7.4 Backlight Inverter Connector Details
a
There are 9 default LVDS settings available
BIOS Setup – Advanced –LVDS Config Select
Note: Option 10 (LVDS adjusted Parameters)
becomes visible after running the “LVDS Tool”
for implementing customized LVDS settings
once.
Important note:
“Non-EDID Support” must be set to
<Enabled> for standard LVDS displays
w/o DDC (EDID) interface!
Display Options
7.5 LVDS Timing & Screen Resolution
a
LVDS Mode:
The correct mode must be set for the attached LVDS panel.
Note: This setting is also required if customized LVDS timings are
implemented (LVDS tool)!
LVDS Brightness:
Set the level for the „Backlight Brightness Pin“.
Typical voltage level (analog mode) resp. PWM level:
Preliminary (not yet implemented):
The LVDS brightness level can be adjusted in BIOS Setup or via
Windows 7 / Windows 8.1 Mobility Center (<Windows key> + <X>)
Display Options
LVDS Timing & Screen Resolution
a
POST Screen Mode:
Default setting = Graphic Mode (800 x 600).
For panels < 800 x 600 mode could be changed to <Text Mode> in
order to enable full BIOS POST screen resp. full BIOS Setup screen
(otherwise some portion of the screen may be cut off)
Display Options
LVDS Timing & Screen Resolution
a
The LVDS tool (DOS-based) allows to flash specific
LVDS settings to the system BIOS of D343x-S.
The LVDS tool needs a panel-specific
EDID configuration file based on the spec data
of the LVDS panel.
Note: Sample configuration EDID files
are available in the LVDS Tool kit.
For adjusting EDID files the “Phoenix EDID tool”
Is required (see link below).
LVDS tool ≥ V2.2.1 must be used to implement customized LVDS settings
Note:
The onboard LVDS converter switches automatically between single channel and dual channel mode.
The reference resolution is 1366 x 800 pixels. If H > 1366 or V > 800, the scaler switches to dual channel mode.
Otherwise, LVDS will operate in single channel mode.
The scaler supports clock rates up to 105Mhz; LVDS displays with clock rates > 105Mhz are not supported
Display Options
7.6 LVDS Tool
a
Display Options
7.7 LVDS – Influence on Graphics Output (prelim.)
When LVDS support is enabled in BIOS Setup, this has some effect on the support of the other graphics output ports (DVI-D, DisplayPort).
Furthermore, the setting “Secure Boot” also influences the supported graphics output modes.
a
Display SizeTFTPixelInverter
10.4"NEC NL6448BC33-63D640 x 480NEC 104PW201
12.1"AUO G121SN01-V0800 x 600Green-C&C GH093A-ROHS
12.1"LG-Philips LB121S03-TL01800 x 600Green-C&C GH001HB-ROHS
15"Sharp LQ150X1LW71N1024 x 768TDK CXA-0349
15"AUO G150XG01V01024 x 768Green-C&C GH001A-ROHS
17"AUO M170EG01-VD1280 x 1024Green-C&C GH053A-ROHS
19"Sharp LQ190E1LW011280 x 1024Power Systems PS-DA0412-05
19"AUO M190EG011280 x 1024GH053(A1)-ROHS
Sample cabling diagrams for following LVDS displays & related inverters are available:
Note: SystemGuard V4.07 (or higher) required for D3433-S, D3434-S
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Mainboard Tools
Industrial Tools
9.5 SilentFanConfig-Manager
- Windows-based configuration tool to implement customized fan
characteristics and temperature parameters. Includes DOS-based
tool "SMCO" to flash the configuration file permanently into the system BIOS.
- BMC-Management-Controller to access and adjust System Monitoring parameters like
fan speed and temperatures. This API also provides access to the mainboard watchdog, the 8Bit GPIO interface and
the intrusion feature of the mainboard.
9.7 Linux System-Monitoring Driver (“LM-Sensors”) To be added soon
- BMC-Management-Controller to access and adjust System Monitoring parameters like
fan speed and temperatures. This driver also provides access to the mainboard watchdog.
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Win7 (x32/x64)
legacy
Win7 (x32)
UEFI
Win7 (x64)
UEFI
Win8.x (x32/x64)
Legacy
Win8.x (x32/x64)
UEFI
Win10 (x32/x64)
Legacy
Win10 (x32/x64)
UEFI
TPM 2.0 Support
No
No
YES 1)
No
YES
No
YES
10 Known Issues & Important Notes
10.1 USB 2.0 / MS Windows 7
Skylake provides no longer native USB 2.0 support for MS Windows 7 --> PS/2 keyboard/mouse for OS setup recommended
Note:
Intel removed the EHCI USB controller, which is replaced by the xHCI USB controller.
MS Windows 7 only provides inbox driver support for EHCI; the xHCI USB device driver must be installed first before any USB port can be used when running
MS Windows 7.
A BIOS workaround for this USB issue is available from BIOS R1.10.0.
10.2 TPM2.0 / MS Windows 7
All Fujitsu Skylake-based mainboards provide TPM V2.0. as recommended for MS Windows 10.
1) MS Hotfix required: Update to add support for TPM 2.0 in Windows 7 and Windows Server 2008: https://support.microsoft.com/en-us/kb/2920188
As TPM 2.0 is not supported by MS Windows 7 (except for 64Bit/UEFI), TPM should be disabled in BIOS Setup then
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11 Miscellaneous
11.1 Battery Lifetime
The typical battery lifetime is designed for 5 years.
Note: If the system is never in G3 mode or if the S0 “working” temperature is lower than 70°C, this may result
in much higher battery lifetime.
If the mainboard is just stored (no operating voltage attached), the typical battery lifetime is also 5 years.
Due to tolerances of the installed battery, the effective battery lifetime may be in the range of 4.5 years – 6 years
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Miscellaneous
11.2
The onboard realtime clock is approved for an accuracy
of +/-30ppm (= max. 75sec deviation per month).
The RTC crystal itself is specified with +/-10ppm
(= max. 26 seconds deviation per month).
Each year of ageing adds around +/-3ppm on top of this.
RealTime Clock (RTC) Accuracy
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Miscellaneous
11.3 System Watchdog (WD)
Mainboards provide full BIOS POST-, Operating System Boot-, and Operating System-Runtime watchdog supervision.
Power On Init BIOS POST OS Boot OS running “BIOS POST Watchdog
1)
”“BIOS Boot Watchdog 1)” “OS Watchdog”
1) 2)
POST-WD-timeout = 120sec. BOOT-WD-timeout OS-WD-timeout (max. 255 minutes)
(fix defined by BMC firmware) (according to BIOS Setup) (according to specific WD software agent)
OS started. If the watchdog has been enabled by BIOS (timeout
set to xy minutes in BIOS Setup) it must be switched off or
retriggered (continuously) by a specific OS application (=WD software
agent), otherwise the system will be reset after xy minutes (= BOOT WD-timeout) respectively after nn minutes (repetitive OS-WD-timeout).
If the watchdog is enabled in BIOS Setup (timeout set to xy minutes) and the
system hangs during OS boot, the system will be reset after xy minutes.
BIOS checks at the end of POST if the watchdog must be switched off (timeout set to 0
in BIOS Setup) or retriggered according to the timeout setting in BIOS Setup (1 - 255 minutes)
BMC initializes watchdog (fixed timeout = 2 minutes; no user setting possible). If the operator runs BIOS Setup
the watchdog is set on hold. Additional PCI/PCEe extensions cards that provide an Option ROM may cause
a system reset due to BIOS POST watchdog timeout, if the user activates any menu within the Option ROM
for more than 2 minutes!
1) Note: All three watchdogs are physical identical, but they are handled from different application levels
2) As the SystemGuard tool offers access to the watchdog it can be used as “WD software agent” to retrigger the watchdog during OS runtime
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Miscellaneous
System Watchdog (WD)
How to handle the different watchdog levels
BIOS POST Watchdog
o Nouser interaction possible – POST Watchdog is always enabled!
o Use “WD software agent” to stop or retrigger the watchdog during OS runtime
Note: This “agent” needs to be provided by the customer, dependent on his needs.
For easy access to the watchdog functions, the Windows API (BMCAPI) or the related Linux driver (lm-sensors) can be used:
o For easy testing, the SystemGuard tool provides access to the OS Watchdog. After enabling the Watchdog, SystemGuard retriggers the WD
continuously. In case the system freezes, SystemGuard does no longer provide the retrigger signal and the watchdog resets the system after the timeout.
Note: When SystemGuard is closed, the WD is stopped in order to avoid a unwanted system reset!
Note: Make sure not to use any DOS memory manager like
himem.sys
BootStick
or
DosFlash.bat
tool can be used:
emm386!
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Miscellaneous
BIOS Update / BIOS Recovery
Windows-based BIOS update (Deskflash tool)
Required BIOS file:
o Dxxxx-Sx.R1.x.y.DFI.exe (Windows executable flash tool)
Copy file from FTP (link see above), rename
Doubleclick to start BIOS update and follow instructions on the screen.
DOS-based BIOS Recovery (DOS-bootable USB stick)
Required BIOS files:
o EfiFlash.exe (DOS flash tool)
o DosFlash.bat (batch file)
o Dxxxx-S1.upd (flash file)
o Dxxxx-S1.rom --> Important: These files must be located in the root directory of the USB stick!
Copy the *.ROM file (included in the ZIP file) to the root directory of a FAT32 formatted bootable USB stick.
Power off the mainboard, insert the USB stick, set the jumper to Recovery Mode (see picture), then turn on
the mainboard.
You will hear short beeps while the BIOS is recovered. Wait until you hear a series of "long-long-short-short"
beeps. Then turn off the mainboard and move the jumper back to the standard position.
The Recovery process can take a few minutes.
Note: BIOS Recovery should only be used to repair a corrupted BIOS.
All customized data except for OEM SLP data will be reset.
filename.$xe
to
filename.exe
and copy to target system (e.g. Windows desktop).
11.5 BIOS/CMOS: Reset Defaults
Set BIOS Setup to Defaults (“Clear CMOS”): Power off system, set Jumper to “Recovery”, power on system and wait until picture appears on screen.
Power off again and set jumper to previous position. CMOS settings should now be reset to default mode. (For this procedure no BIOS update/ USB stick is required!).
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Miscellaneous
11.6 BIOS integrated HW Diagnostic Tool
Starting with the D323x mainboards, there is a hardware test module integrated in the system BIOS.
In order to run the tool, please select “Diagnostic Program” as boot device and follow the instructions on the screen.
This test module analyzes CPU, Memory and HDD.
11.7 BIOS integrated Erase Disk Tool
All Industrial Mainboard include the BIOS tool “EraseDisk” for easy and secure deletion of any data on the harddisk
Detailed information about Erase Disk is available here: