Copyright 2011, KONTRON Technology A/S, ALL RIGHTS RESERVED.
No part of this document may be reproduced or transmitted in any form or by any means, electronically
or mechanically, for any purpose, without the express written permission of KONTRON Technology A/S.
Trademark Acknowledgement:
Brand and product names are trademarks or registered trademarks of their respective owners.
Disclaimer:
KONTRON Technology A/S reserves the right to make changes, without notice, to any product,
including circuits and/or software described or contained in this manual in order to improve design
and/or performance.
Specifications listed in this manual are subject to change without notice. KONTRON Technology
assumes no responsibility or liability for the use of the described product(s), conveys no license or title
under any patent, copyright, or mask work rights to these products, and makes no representations or
warranties that these products are free from patent, copyright, or mask work right infringement, unless
otherwise specified. Applications that are described in this manual are for illustration purposes only.
KONTRON Technology A/S makes no representation or warranty that such application will be suitable
for the specified use without further testing or modification.
Life Support Policy
KONTRON Technology’s PRODUCTS ARE NOT FOR USE AS CRITICAL COMPONENTS IN LIFE
SUPPORT DEVICES OR SYSTEMS WITHOUT EXPRESS WRITTEN APPROVAL OF THE GENERAL
MANAGER OF KONTRON Technology A/S.
As used herein:
Life support devices or systems are devices or systems which, (a) are intended for surgical implant into
body, or (b) support or sustain life and whose failure to perform, when properly used in accordance with
instructions for use provided in the labelling, can be reasonably expected to result in significant injury to
the user.
A critical component is any component of a life support device or system whose failure to perform can
be reasonably expected to cause the failure of the life support device or system, or to affect its safety or
effectiveness.
KTHM65 Users Guide
KTD-N0838-A Page 3
Document details
KONTRON Technology Technical Support and
Services
If you have questions about installing or using your KONTRON Technology Product, check this User’s
Manual first – you will find answers to most questions here. To obtain support, please contact your local
Distributor or Field Application Engineer (FAE).
Before Contacting Support: Please be prepared to provide as much information as possible:
• CPU Board
1. Type.
2. Part Number (find PN on label)
3. Serial Number if available (find SN on label)
• Configuration
1. CPU Type, Clock speed
2. DRAM Type and Size.
3. BIOS Revision (Find the Version Info in the BIOS Setup).
4. BIOS Settings different than Default Settings (Refer to the BIOS Setup Section).
• System
1. O/S Make and Version.
2. Driver Version numbers (Graphics, Network, and Audio).
3. Attached Hardware: Harddisks, CD-rom, LCD Panels etc.
Warranty
KONTRON Technology warrants its products to be free from defects in material and workmanship
during the warranty period. If a product proves to be defective in material or workmanship during the
warranty period, KONTRON Technology will, at its sole option, repair or replace the product with a
similar product.
Replacement Product or parts may include remanufactured or refurbished parts or components.
The warranty does not cover:
1. Damage, deterioration or malfunction resulting from:
A. Accident, misuse, neglect, fire, water, lightning, or other acts of nature, unauthorized product
modification, or failure to follow instructions supplied with the product.
B. Repair or attempted repair by anyone not authorized by KONTRON Technology.
C. Causes external to the product, such as electric power fluctuations or failure.
D. Normal wear and tear.
E. Any other causes which does not relate to a product defect.
2. Removal, installation, and set-up service charges.
Exclusion of damages:
KONTRON TECHNOLOGY LIABILITY IS LIMITED TO THE COST OF REPAIR OR REPLACEMENT
OF THE PRODUCT. KONTRON TECHNOLOGY SHALL NOT BE LIABLE FOR:
1. DAMAGE TO OTHER PROPERTY CAUSED BY ANY DEFECTS IN THE PRODUCT,
DAMAGES BASED UPON INCONVENIENCE, LOSS OF USE OF THE PRODUCT, LOSS OF
TIME, LOSS OF PROFITS, LOSS OF BUSINESS OPPORTUNITY, LOSS OF GOODWILL,
INTERFERENCE WITH BUSINESS RELATIONSHIPS, OR OTHER COMMERCIAL LOSS,
EVEN IF ADVISED OF THEIR POSSIBILITY OF SUCH DAMAGES.
2. ANY OTHER DAMAGES, WHETHER INCIDENTAL, CONSEQUENTIAL OR OTHERWISE.
3. ANY CLAIM AGAINST THE CUSTOMER BY ANY OTHER PARTY.
9.1 Main .............................................................................................................................................. 64
9.6 Save & Exit ................................................................................................................................... 127
10 AMI BIOS Beep Codes ...................................................................... 128
11 OS Setup ........................................................................................ 129
KTHM65 Users Guide
KTD-N0838-A Page 7
Display support
DVI-I - 2x DP - LVDS
DVI-I - 2x DP - LVDS - eDP
RAID
-
RAID 0/1/5/10
Intel® VT-d
-
Yes *
Introduction
Introduction
This manual describes the KTHM65/mITX board made by KONTRON Technology A/S.
The KTHM65 board is based on KTQM67/mITX design, where the chipset QM67 is replaced by HM65,
having less functionality. The KTHM65 support 2
4Core processor and the Celeron B810 2Core, see “Processor Support Table for more specific details.
The difference between the KTHM65/mITX and the KTQM67/mITX is specified in the following table:
Use of this Users Guide implies a basic knowledge of PC-AT hard- and software. This manual is
focused on describing the KTHM65 board’s special features and is not intended to be a standard PC-AT
textbook.
New users are recommended to study the short installation procedure stated in the following chapter
before switching-on the power.
All configuration and setup of the CPU board is either done automatically or manually by the user via
the CMOS setup menus. Only exception is the “Load Default BIOS Settings” Jumper.
nd
and 3rd generation Intel® i7 -, i5 -, i3 2Core and
Reactive Proactive - Reactive
KTHM65 Users Guide
KTD-N0838-A Page 8
Warning: Turn off PSU (Power Supply Unit) completely (no mains power connected to the
without 3.3V will damage the board within minutes.
!
!
Warning: When mounting the board to chassis etc. please notice that the board contains
without reasonable care. A damaged component can result in malfunction or no function at all.
Installation procedure
Note: To clear all BIOS settings, including Password protection, activate “Load Default BIOS Settings”
Jumper for ~10 sec (without power connected).
1 Installation procedure
1.1 Installing the board
To get the board running, follow these steps. If the board shipped from KONTRON has already
components like RAM, CPU and cooler mounted, then relevant steps below, can be skipped.
1. Turn off the PSU (Power Supply Unit)
2. Insert the DDR3 DIMM 204pin SODIMM module(s)
Be careful to push it in the slot(s) before locking the tabs. For a list of approved DDR3 SODIMMs
contact your Distributor or FAE. See also chapter “System Memory Support”.
3. Install the processor
The CPU is keyed and will only mount in the CPU socket in one way. Use suitable screwdriver to
open/ close the CPU socket. Refer to supported processor overview for details.
4. Cooler Installation
Use heat paste or adhesive pads between CPU and cooler and connect the Fan electrically to the
FAN_CPU connector.
5. Connecting Interfaces
Insert all external cables for hard disk, keyboard etc. A monitor must be connected in order to be
able change CMOS settings.
6. Connect and turn on PSU
Connect PSU to the board by the ATX/BTXPWR and the 4-pin ATX+12V connectors. Alternatively
use only the 4-pin ATX+12V connector if single voltage operation (+12V +/-5%) is requested.
7. Power Button
Depending on BIOS setting, the PWRBTN_IN must be toggled to start the Power supply; this is done
by shorting pins 16 (PWRBTN_IN) and pin 18 (GND) on the FRONTPNL connector (see Connector
description). A “normally open” switch can be connected via the FRONTPNL connector.
8. BIOS Setup
Enter the BIOS setup by pressing the <Del> key during boot up.
Enter Exit Menu and Load Optimal Defaults.
Refer to the “BIOS Configuration / Setup“ section of this manual for details on BIOS setup.
9. Mounting the board to chassis
When fixing the Motherboard on a chassis it is recommended using screws with integrated washer and
having diameter of ~7mm.
Note: Do not use washers with teeth, as they can damage the PCB and may cause short circuits.
PSU) or leave the Power Connectors unconnected while configuring the board. Otherwise
components (RAM, LAN cards etc.) might get damaged. If not using single 12V power input
make sure PSU has 3.3V monitoring watchdog (standard ATX PSU feature), running the board
components on both sides of the PCB which can easily be damaged if board is handled
KTHM65 Users Guide
KTD-N0838-A Page 9
ADVARSEL
When an interface/connector has a VCC (or other power) pin, which is directly connected to a power
Installation procedure
1.2 Requirement according to IEC60950
Users of KTHM65 should take care when designing chassis interface connectors in order to fulfil the
IEC60950 standard:
plane like the VCC plane:
To protect the external power lines of the peripheral devices, the customer has to take care about:
• That the wires have suitable rating to withstand the maximum available power.
• That the enclosure of the peripheral device fulfils the fire protecting requirements of IEC60950.
Lithium Battery precautions:
CAUTION!
Danger of explosion if battery is incorrectly
replaced.
Replace only with same or equivalent type
recommended by manufacturer.
Dispose of used batteries according
to the manufacturer’s instructions.
ADVARSEL!
Lithiumbatteri – Eksplosionsfare ved fejlagtig
håndtering.
Udskiftning må kun ske med batteri
af samme fabrikat og type.
Levér det brugte batteri tilbage til leverandøren.
VARNING
Explosionsfara vid felaktigt batteribyte.
Använd samma batterityp eller en ekvivalent
typ som rekommenderas av apparattillverkaren.
Kassera använt batteri enligt fabrikantens
instruktion.
VORSICHT!
Explosionsgefahr bei unsachgemäßem
Austausch der Batterie.
Ersatz nur durch den selben oder einen vom
Hersteller empfohlenen gleichwertigen Typ.
Entsorgung gebrauchter Batterien nach
Angaben des Herstellers.
Eksplosjonsfare ved feilaktig skifte av batteri.
Benytt samme batteritype eller en tilsvarende
type anbefalt av apparatfabrikanten.
Brukte batterier kasseres i henhold til
fabrikantens
instruksjoner.
VAROITUS
Paristo voi räjähtää, jos se on virheellisesti
asennettu.
Vaihda paristo ainoastaan laltevalmistajan
suosittelemaan
tyyppiin. Hävitä käytetty paristo valmistajan
ohjeiden
mukaisesti.
KTHM65 Users Guide
KTD-N0838-A Page 10
Form factor
KTHM65/mITX: miniITX (170,18 mm by 170,18 mm)
Processor
Support 2nd and 3rd Generation Intel® Core™ (Sandy Bridge M and Ivy Bridge M
Memory
• DDR3 SODIMM 204pin socket (2 sockets)
Chipset
Intel HM65 PCH (Platform Controller Hub)
Security
• Intel® Integrated TPM 1.2 support
Management
• Intel® Active Management Technology (Intel® AMT) 8.0
Audio
Audio, 7.1 Channel High Definition Audio Codec using the VIA 1708B codec
System Specification
2 System Specification
2.1 Component main data
The table below summarizes the features of the KTHM65/mITX embedded motherboard.
respectively) and Intel® Celeron® processors via Socket G2 (rPGA 988B ) ZIF Socket
• Intel® Core™ i7
• Intel® Core™ i5
• Intel® Core™ i3
• Intel® Celeron® B810
Up to 1333MHz system bus and 2/3/4/6MB internal cache.
•Support single and dual ranks DDR3 1066/1333/1600MT/s
(PC3-8500/PC3-10600/PC3-12800)
•Support system memory from 256MB and up to 2x 8GB
Notes: Less than 4GB displayed in System Properties using 32bit OS
(Shared Video Memory/PCI resources is subtracted)
• ECC not supported (PGA processors do not support ECC)
• On-board speaker (Electromagnetic Sound Generator like Hycom HY-05LF)
KTHM65 Users Guide
KTD-N0838-A Page 11
Video
Intel i3, i5 & i7 3rd Generation Mobile processors support Intel HD Graphics 4000.
I/O Control
Via ITE IT8516E Embedded Controller and Nuvoton W83627DHG I/O Controller (both
Peripheral
• Six USB 2.0 ports on I/O area
LAN
• 1x 10/100/1000Mbits/s LAN (ETHER1) using Intel® Lewisville 82579LM Gigabit
Expansion
•PCI-Express slot(s):
System Specification
(Note that triple independent pipes are not supported on HM65 chipset)
Intel i3, i5 & i7 2nd Generation Mobile processor supports Intel HD Graphics 3000.
Intel Celeron Processor B810 supports Intel HD Graphics.
Analogue VGA and digital display ports (DVI, 2x DP, LVDS) via the Mobile Intel ®
HM65 Chipset.
• VGA (analogue panel) via DVI-I (sharing DVI-I connector with DVI-D)
• DVI-D (sharing DVI-I connector with analogue VGA)
• DP (DisplayPorts) dual, comply with DisplayPort 1.1a specification.
• LVDS panel support up to 24 bit, 2 pixels/clock and 1920x1200.
• HDMI panel support via DP to HDMI Adapter Converter.
• Second VGA panel support via DP to VGA Adapter Converter
• Second DVI panel support via DP to DVI Adapter Converter
• Dual independent pipes for Mirror and Dual independent display support
via LPC Bus interface)
interfaces
Support
Capabilities
• Eight USB 2.0 ports on internal pinrows
• Two IEEE 1394a-2000 (up to 400M bits/s) on internal pinrows
• Four Serial ports (RS232) on internal pinrows
• Two Serial ATA-600 IDE interfaces
• Four Serial ATA-300 IDE interfaces
• RAID 0/1/5/10 support
• mSATA via mPCIe_0 connector
• PS/2 keyboard and mouse ports via pinrow
PHY connected to HM65 (AMT not supported)
• PXE Netboot supported.
• Wake On LAN (WOL) supported
o 1 slot PCIex16 (PCIe 2.0) ( also PCIe 2.0 when using Ivy Bridge CPU)
o 1 slot PCIex1 (PCIe 2.0),
o 1 slot miniPCI-Express (PCI Express or mSATA signals, no USB signals)
o 1 slot miniPCI-Express (PCI Express signals, no mSATA or USB signals)
• SMBus, compatible with ACCES BUS and I2C BUS, (via Feature connector)
• SPI bus routed to SPI connector
• DDC Bus routed to DVI-I connector
• 18 x GPIOs (General Purpose I/Os), (via Feature connector)
• DAC, ADC, PWM and TIMER (Multiplexed), (via Feature connector)
• WAKE UP / Interrupt Inputs (Multiplexed), (via Feature connector)
• 3 Wire Bus for GPIO Expansion (up to 152 GPIOs), (via Feature connector)
• 8 bit Timer output, (via Feature connector)
KTHM65 Users Guide
KTD-N0838-A Page 12
Hardware
• Smart Fan control system, support Thermal® and Speed® cruise for two on-board
Power
ATX/BTX (w. ATX+12V) PSU for full PCI/PCIe load.
Battery
Dispose of used batteries according to the manufacturer’s instructions.
BIOS
• Kontron Technology / AMI BIOS (EFI core version)
Operating
•WinXP (32b + 64b *)
System Specification
Monitor
Subsystem
Supply Unit
Fan connectors: CPU Fan (on-board) and System Fan (on-board)
•Smart Fan control system, support Speed® cruise for two off-board Fans
(Fan3/Fan4) via Feature Connector.
•Three thermal inputs: CPU Die temperature (precision +/- 3ºC), System
temperature (precision +/- 3ºC) and System Temperature External via Feature
Connector (precision +/- 1ºC).
• System Powergood Signal, (via Feature connector)
Alternatively: +12V single supply via ATX+12V (4-pole) connector, but with limitation to
power load (especially +5V for USB).
Exchangeable 3.0V Lithium battery for on-board Real Time Clock and CMOS RAM.
Manufacturer Panasonic / Part-number CR-2032L/BN, CR2032N/BN or CR-2032L/BE.
Approximate 6.2 years retention.
Current draw is 4.1µA when PSU is disconnected and 0 µA in S0 – S5.
CAUTION: Danger of explosion if the battery is incorrectly replaced. Replace
only with the same or equivalent type recommended by the manufacturer.
• Support for ACPI 3.0 ( Advanced Configuration and Power Interface), Plug & Play
o Suspend (S1 mode)
o Suspend To Ram (S3 mode)
o Suspend To Disk (S4 mode)
• “Always On” BIOS power setting
Systems
Support
• Vista (32b * + 64b *)
• Windows 7 (32b + 64b *)
• Linux
• VxWorks
• Windows Server 2003 r2 (32b * + 64b *)
• Windows Server 2008 r2 (32b * + 64b *)
• WES7 (32b + 64b)
*= Out Of The Box installation test only.
KTHM65 Users Guide
KTD-N0838-A Page 13
Environmental
Only Japanese brand Solid capacitors rated for 100 ºC used on board
System Specification
Conditions
Operating:
0°C – 60°C operating temperature (forced cooling). It is the customer’s
responsibility to provide sufficient airflow around each of the components to keep
them within allowed temperature range.
10% - 90% relative humidity (non-condensing)
Storage:
-20°C – 70°C; lower limit of storage temperature is defined by specification
restriction of on-board CR2032 battery. Board with battery has been verified for
storage temperature down to -40°C by Kontron.
All Peripheral interfaces intended for connection to external equipment are ESD/
EMI protected.
EN 61000-4-2:2000 ESD Immunity
EN55022:1998 class B Generic Emission Standard.
Safety:
IEC 60950-1: 2005, 2nd Edition
UL 60950-1
CSA C22.2 No. 60950-1
Product Category: Information Technology Equipment Including Electrical
Business Equipment
Product Category CCN: NWGQ2, NWGQ8
File number: E194252
Theoretical MTBF:
>268.956 / >131.729 hours @ 40ºC / 60ºC
Restriction of Hazardous Substances (RoHS):
KTHM65 is RoHS compliant.
Capacitor utilization:
No Tantalum capacitors on board
KTHM65 Users Guide
KTD-N0838-A Page 14
System Specification
2.2 System overview
The block diagram below shows the architecture and main components of the KTHM65. The key
component on the board is the Intel
Some components (PCI slots) are optional depending on board type.
®
QM67 (Cougar Point) Mobile Express Chipset.
More detailed block diagram on next page.
KTHM65 Users Guide
KTD-N0838-A Page 15
System Specification
KTHM65 Users Guide
KTD-N0838-A Page 16
Core™ i7
3.0
3.7 2 4
1333/1600
4
3540M
SR0X6
L1
105/35
3rd gen.
2.9
3.6 2 4
1333/1600
4
3520M
SR0MU
L1
105/35
2.8
3.8 4 8
1333/1600
8
3840QM
SR0UT
E1
105/45
2.7
3.7 4 8
1333/1600
8
3820QM
SR0MK
E1
105/45
2.7
3.7 4 8
1333/1600
6
3740QM
SR0UV
E1
105/45
2.6
3.6 4 8
1333/1600
6
3720QM
SR0ML
E1
105/45
2.4
3.4
4 6 1333/1600
6
3630QM
SR0UX
E1
105/45
2.3
3.3 4 8
1333/1600
6
3610QM
SR0MN
E1
105/45
2.3
3.3 4 8
1333/1600
6
3610QE*
SR0NP
E1
105/45
2.2
3.2
4 8 1333/1600
6
3632QM
SR0V0
E1
105/35
2.1
3.1 4 8
1333/1600
6
3612QM
SR0MQ
E1
105/35
Core™ i7
2.8
3.5 2 4
1066/1333
4
2640M
SR03R
J1
100/35
2nd gen.
2.7
3.4 2 4
1066/1333
4
2620M
SR03F
J1
100/35
2.5
3.6 4 8
1066/1333/1600
8
2860QM
SR02X
D2
100/45
2.5
3.5 4 8
1066/1333/1600
8
2920XM
SR02E
D2
100/55
2.4
3.5 4 8
1066/1333/1600
6
2760QM
SR02W
D2
100/45
2.3
3.4 4 8
1066/1333/1600
8
2820QM
SR012
D2
100/45
2.2
3.1 4 8
1066/1333
6
2670QM
SR02N
D2
100/45
2.2
3.4 4 8
1066/1333/1600
6
2720QM
SR014
D2
100/45
2.1
3.0 4 8
1066/1333/1600
6
2710QE*
SR02T
D2
100/45
2.0
2.9 4 8
1066/1333
6
2630QM
SR02Y
D2
100/45
Core™ i5
2.9
3.6
2 4 1333/1600
3
3380M
SR0X7
L1
105/35
3rd gen.
2.8
3.5 2 4
1333/1600
3
3360M
SR0MV
L1
105/35
2.7
3.4
2 4 1333/1600
3
3340M
SR0XA
L1
105/35
2.7
3.3 2 4
1333/1600
3
3610ME*
SR0QJ
L1
105/35
2.6
3.3 2 4
1333/1600
3
3320M
SR0MX
L1
105/35
2.6
3.2
2 4 1333/1600
3
3230M
SR0WY
L1
105/35
2.5
3.1 2 4
1333/1600
3
3210M
SR0MZ
L1
105/35
Core™ i5
2.6
3.3 2 4
1066/1333
3
2540M
SR044
J1
100/35
2nd gen.
2.5
3.2 2 4
1066/1333
3
2520M
SR048
J1
100/35
2.5
3.1 2 4
1066/1333
3
2510E*
SR02U
D2
100/35
2.3
2.9 2 4
1066/1333
3
2410M
SR04B
J1
100/35
System Specification
2.3 Processor Support Table
KTHM65 is designed to support the following PGA 988 processors (up to 60W power consumption):
nd
& 3rd generation Intel® Core™ i7 processor
2
nd
2
& 3rd generation Intel® Core™ i5 processor
nd
2
& 3rd generation Intel® Core™ i3 processor
Intel® Celeron® processor
In the following list you will find all CPU’s supported by the chipset in according to Intel but also other
CPU’s if successfully tested.
Embedded CPU’s are indicated bygreen text, successfully tested CPU’s are indicated by highlighted
text, successfully tested embedded CPU’s are indicated by green and highlighted text and failed
CPU’s are indicated by red text.
Some processors in the list are distributed from Kontron, those CPU’s are marked by an * (asterisk).
However please notice that this marking is only guide line and maybe not fully updated.
Processor
Brand
Clock
Speed
Turbo
GHz GHz
Speed
Cores
Threads
Bus
Speed
MHz MB
Cache
CPU
Number
sSpec
number
Stepping
Thermal
Design
Power
ºC/W
KTHM65 Users Guide
KTD-N0838-A Page 17
Core™ i3
2.6 - 2 4 1333/1600
3
3130M
SR0XC
L1
90/35
3rd gen.
2.5 - 2 4 1333/1600
3
3120M
SR0TX
L1
90/35
2.4 - 2 4 1333/1600
3
3120ME*
SR0QM
L1
105/35
2.4 - 2 4 1333/1600
3
3110M
SR0N2
L1
105/35
Core™ i3
2.4 - 2 4 1066/1333
3
2370M
SR0DP
J1
85/35
2nd gen.
2.3 - 2 4 1066/1333
3
2350M
SR0DN
J1
85/35
2.2 - 2 4 1066/1333
3
2330E*
SR02V
D2
100/35
2.2 - 2 4 1066/1333
3
2330M
SR04J
J1
85/35
2.2 - 2 4 1066/1333
3
2328M
SR0TC
J1
85/35
2.1 - 2 4 1066/1333
3
2312M
SR09S
J1
85/35
2.1 - 2 4 1066/1333
3
2310M
SR04R
J1
100/35
Celeron®
1.6 - 2 2 1066/1333
2
B810*
SR088
Q0
100/35
1.6 - 1 1 1066/1333
1.5
B710
100/35
System Specification
System Specification
Processor
Brand
Notes:
Using Ivy Bridge CPU increase Graphical performance (Intel ® HD Graphics 4000), and maybe also
increase CPU performance. PCIe x1, PCIe x2, PCIe x4, PCIe x8 and PCIe x16 are supported on the
PCIe x16 slot, however PCIe x2 is only supported when using 3rd generation Intel® Core™ processor
(Ivy Bridge). Using Ivy Bridge CPU do not implement support for 3 simultaneous displays, do not
implement support for USB 3.0 and do not implement support for PCIe 3.0. If any of these features are
required, then maybe KTQM77/mITX might be a solution.
When using Ivy Bridge CPU, make sure BIOS version is 10 or above.
Sufficient cooling must be applied to the CPU in order to remove the effect as listed in above table
(Thermal Guideline). The sufficient cooling is also depending on the maximum (worst-case) ambient
operating temperature and the actual load of processor.
The Kontron PN 1044-9447 is “Active Cooler for KTQM67/KTQM77”
capable of being used for processors (fully loaded) having Thermal
Guideline up to 45W @ 60ºC ambient temperature. MTBF is 70.000
hours @ 40ºC.
The Kontron PN 1052-6345 “Cooler Active KTQM67 35W 33mm
longlife” is capable of being used for processors (fully loaded) having
Thermal Guideline up to 35W @ 60ºC ambient temperature. It
support 1U and has long life (MTBF is 200.000 hours @ 60ºC).
All the processors in the list above, inclusive the Celeron processor, are supporting the Enhanced Intel®
SpeedStep® which is improved SpeedStep technology for faster transition between voltage (power
saving states) and frequency states with the result of improved power/performance balance.
Intel® Turbo Boost Technology 2.0 is supported by i5 and i7, as indicated in above list of processors,
and is enabling overclocking of all cores, when operated within the limits of thermal design power,
temperature and current.
Intel® vPro Technology and Intel AMT (Active Management Technology) are not supported by
KTHM65.
PCIex2 is only supported on the PCIex16 slot if using 3rd Generation Core2 CPU’s (Ivy Bridge).
Clock
Speed
Turbo
GHz GHz
Speed
Cores
Threads
Bus
Speed
MHz MB
Cache
CPU
Number
sSpec
number
Stepping
Thermal
Design
Power
ºC/W
KTHM65 Users Guide
KTD-N0838-A Page 18
Slot 1
Slot 0
Processor
frequency
Mill/s
MHz
MHz
MB/s
DDR3 1066
PC3-8500
1066
1066 or more
533
8533
DDR3 1333
PC3-10600
1333
1333 or more
666
10666
DDR3 1600
PC3-12800
1600
1333 max
666
10666
DDR3 1600
PC3-12800
1600
1600
800
12800
System Specification
KTHM65/mITX has two DDR3 SODIMM slots and
2.4 System Memory support
any of the two slots can be used in single RAM
configuration.
The sockets support the following memory features:
• 1.5V (only) 204-pin DDR3 SODIMM with gold-plated contacts
•From 256MB and up to 2x 8GB. (up to 2x4GB tested)
Notes:
Less than 4GB displayed in System Properties using 32bit OS
(Shared Video Memory/PCI resources is subtracted)
• SPD timings supported
• ECC not supported (PGA processors do not support ECC)
The installed DDR3 SODIMM should support the Serial Presence Detect (SPD) data structure. This
allows the BIOS to read and configure the memory controller for optimal performance. If non-SPD
memory is used, the BIOS will attempt to configure the memory settings, but performance and reliability
may be impacted.
Memory Operating Frequencies
Regardless of the SODIMM type used, the memory frequency will either be equal to or less than the
processor system bus frequency. For example, if DDR3 1600 memory is used with a 1333 MHz system
bus frequency processor, the memory clock will operate at 666 MHz. The table below lists the resulting
operating memory frequencies based on the combination of SODIMMs and processors.
DIMM Type Module name
Memory Data
transfers
syst em bus
Resulting memory
clock frequency
Peak transfer rate
Notes: Kontron offers the following DDR3 204P SODIMM:
The KTHM65 equipped with Intel 2nd Gen i3, i5 or i7 processor, supports Intel HD Graphics 3000,
equipped with 3
to two graphical pipes) and equipped with Intel Celeron Processor B810 the Intel HD Graphics is
supported.
All KTHM65 version support analogue VGA and digital display ports (DVI, 2x DP, LVDS) via the Mobile
Intel ® HM65 Chipset. The Analogue VGA and DVI-D are sharing the DVI-I connector.
The DP interface supports the DisplayPort 1.1a specification. The PCH supports High-bandwidth Digital
Content Protection for high definition content playback over digital interfaces. The PCH also integrates
audio codecs for audio support over DP interfaces.
Up to two displays (any two display outputs) can be activated at the same time and be used to
implement dual independent display support or mirror display support. PCIe graphics cards can be used
to replace on-board graphics or in combination with on-board graphics.
2.5.1 Intel HD Graphics 4000
Features of the Intel HD Graphics 4000 build into the i3, i5 and i7 processors, includes:
•High quality graphics engine supporting
o DirectX11 and OpenGL 4.0 compliant
o Shader Model 5.0 support
o Intel ® Clear Video HD Technology
o Intel ® Quick Sync Video Technology
o Intel ® Flexible Display Interface (Intel ® FDI)
o Core frequency of 650 - 1150 (Turbo) MHz
o Memory Bandwidth up to 21.3 GB/s
o 16 3D Execution Units
o 1.62 GP/s and 2.7 GP/S pixel rate (eDP and DP outputs)
o Hardware Acceleration CVT HD and QSV
o Dynamic Video Memory Technology (DVMT) support up to 1720 MB
• DP0 and DP1
o 24/30 bit colours in WQXGA (2560x1600 pixels) and HDCP.
o DisplayPort standard 1.2
rd
Gen i3, i5 or i7 processor the Intel ® HD Graphics 4000 is supported (however only up
2.5.2 Intel® HD Graphics 3000
Features of the Intel HD Graphics 3000 build into the i3, i5 and i7 processors, includes:
•High quality graphics engine supporting
o DirectX10.1 and OpenGL 3.0 compliant
o Shader Model 4.1 support
o Intel ® Clear Video HD Technology
o Intel ® Quick Sync Video Technology
o Intel ® Flexible Display Interface (Intel ® FDI)
o Core frequency of 350 - 1300 (Turbo) MHz
o Memory Bandwidth up to 21.3 GB/s
o 12 3D Execution Units
o 1.62 GP/s and 2.7 GP/S pixel rate (eDP and DP outputs)
o Hardware Acceleration full MPEG2, full VC-1 and full AVC
o Dynamic Video Memory Technology (DVMT) support up to 1720 MB
• DP0 and DP1
o 24/30 bit colours in WQXGA (2560x1600 pixels) and HDCP.
o DisplayPort standard 1.1a
KTHM65 Users Guide
KTD-N0838-A Page 20
System Specification
2.5.3 LVDS and DVI
•LVDS panel Support, 18/24 bit colours in up to WUXGA (1920x1200 pixels) @60 Hz and
SPWG (VESA) colour coding. OpenLDI (JEIDA) colour coding is 18 bit with or without Dithering.
•DVI-I (Digital Visual Interface)
o Either DVI-A or DVI-D can be used via DVI-I connector
o DVI-A Analogue Display (CRT)
o 300 MHz Integrated 24-bit RAMDAC
o Up to QXGA (2048x1536 pixels) @ 75 Hz refresh
o DVI-D Digital Display up to WUXGA (1920x1200 pixels) @60 Hz
2.5.4 Graphics Adapters
Use of DP Adapter Converters can implement HDMI support or second VGA or DVI panel support.
The HDMI interface supports the HDMI 1.4a specification
including audio codec. However limitations to the resolution
apply: 2048x1536 (VGA), 1920x1200 (HDMI and DVI)
1051-7619 Cable DP Extender cable 200mm DP to VGA DP to HDMI DP to DVI-D
(when using two DP converters) PN 1045-5779 PN 1045-5781 PN 1045-5780
KTHM65 Users Guide
KTD-N0838-A Page 21
Operation
Power Supplied via
ATX + 12V
12V Only
Windows 7 32bit Idle
33W
36W
Windows 7 32bit 3Dmark 2003
70W-88W
72W-96W
Windows 7 32bit Intel Thermal Load
111W
111W
System Specification
2.6 Power Consumption
In order to ensure safe operation of the board, the ATX12V power supply must monitor the supply
voltage and shut down if the supplies are out of range – refer to the hardware manual for the actual
power supply specification. Please note, In order to keep the power consumption to a minimal level,
boards do not implement a guaranteed minimum load. In some cases, this can lead to compatibility
problems with ATX power supplies, which require a minimum load to stay in regulation.
The KTHM65 board is powered through the ATX/BTX connector and ATX+12V connector. Both
connectors must be used in according to the ATX12V PSU standard. However the KTHM65 also
supports single +12V via ATX+12V-4pin Power Connector, but power limitations apply to +5V, where
14x USB, LVDS panel or eDP panel, COM ports, LPT port and Frontpanel connector shares 9.5A.
ATX+12V-4pin power limitation is 145W, however more +12V power can be added via +12V and GND
terminals in the 24-pin power connector.
Warning: Hot Plugging power supply is not supported. Hot plugging might damage the board.
The requirements to the supply voltages are as follows:
Supply Min Max Note
VCC3.3 3.168V 3.432V
Vcc 4.75V 5.25V
+12V 11.4V 12.6V
–12V –13.2V –10.8V
-5V -5,50V -4.5V Not required for the KTHM65 board
Note: Listed power consumptions are inclusive 15 - 25W for PSU, HDD and DVD.
More detailed Static Power Consumption
On the following pages the power consumption of different boards in different configurations are listed.
For each configuration the power consumptions result are listed in 5 tables:
1- DOS, idle, mean
2- Windows7, Running 3DMARK 2005 & BiT 6, mean
3- S0, mean
4- S3, mean
5- S5, mean
Note: some S5 measurements have been carried out in two sub modes M3 and Moff. Only S5/M3 mode
maintains power to the circuits used for AMT and waking up the system via LAN, Keyboard and USB,
while both S5/M3 and S5/Moff maintain power to RTC, Power Button In circuit and CMOS data.
Should be ±4% for compliance with the ATX specification
Should be ±5% for compliance with the ATX specification.
Should be minimum 5.00V measured at USB connectors
in order to meet the requirements of USB standard.
Should be ±5% for compliance with the ATX specification
Should be ±10% for compliance with the ATX specification
Should be ±5% for compliance with the ATX specification
KTHM65 Users Guide
KTD-N0838-A Page 22
ATX supplies
KTHM65
PSU
Gnd
Current
Probe
Tektronix TDS5104B
System Specification
The principal test system and test equipment used
1. Tektronix TDS5104B
2. Tektronix TCPA300
3. Tektronix TCP312
4. Fluke 289
5. Fluke 179
6. ATX rail switch
Note: Power consumption of PSU (power loss), Monitor and HDD are not included.
The following six configurations (a – f) have been tested
a) Low Power Setup KTHM65/mITX ATX+12V PSU
b) Low Power Setup KTHM65/mITX +12V only PSU
Standard system configuration equipped with PCIex1 card, Internal graphics, 2x SATA disks, Intel i5
CPU, 1x SODIMM (1GB Modules), Monitor, Keyboard & Mouse. 1x 1-4GB USB Stick, 12V active
cooler (KT), PSU (Corsair 430W)
c) High Power Setup KTHM65/mITX ATX+12V PSU
d) High Power Setup KTHM65/mITX +12V only PSU
Standard system configuration equipped with PCIex1, PCIex16, miniPCIe WLAN, 4x SATA disks,
Intel i7 CPU, 2x SODIMM (1GB Modules), Monitor, Keyboard & Mouse, 4x 1-4GB USB Sticks, 12V
active cooler (KT), PSU (Corsair 430W).
Note: The tests were carried out using KTQM67/mITX, having extra Firewire controller and extra two
LAN controllers mounted. This makes the power consumption values a little bit higher than expected for
the KTHM65/mITX.
KTHM65 Users Guide
KTD-N0838-A Page 23
DOS Idle, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V
0,140
1,680
+12V P4
1,222
14,664
+5V
0,411
2,055
+3V3
0,557
1,838
-12V
0,035
0,42
5VSB
0,007
0,035
Total 20,7
Windows 7, mean
3DMARK2005 ( first scene ) & BiT 6
Current draw
[A]
Power consumption
[W]
+12V
0,165
1,980
+12V P4
3,250
39,000
+5V
0,450
2,250
+3V3
0,577
1,904
-12V
0,046
0,552
5VSB
0,007
0,035
Total 45,7
S0 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V
0,107
1,284
+12V P4
0,510
6,120
+5V
0,336
1,680
+3V3
0,576
1,901
-12V
0,043
0,516
5VSB
0,007
0,035
Total 11,5
S3 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
5VSB
0,218
1,090
Total 1,09
S5 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
5VSB
0,213
1,065
Total 1,07
System Specification
a) Low Power Setup KTHM65/mITX ATX+12V PSU
Supply
Supply
Supply
Supply
Supply
KTHM65 Users Guide
KTD-N0838-A Page 24
DOS Idle, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
1,721
20,652
Total 20,7
Windows 7, mean
3DMARK2005 ( first scene ) & BiT 6
Current draw
[A]
Power consumption
[W]
+12V P4
3,940
47,28
Total 47,3
S0 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
0,992
11,904
Total 11,9
S3 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
0,099
1,188
Total 1,19
S5 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
0,098
1,176
Total 1,18
System Specification
b) Low Power Setup KTHM65/mITX +12V only PSU
Supply
Supply
Supply
Supply
Supply
KTHM65 Users Guide
KTD-N0838-A Page 25
DOS Idle, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V
0,932
11,184
+12V P4
1,102
13,224
+5V
0,452
2,260
+3V3
0,553
1,825
-12V
0,036
0,432
5VSB
0,007
0,035
Total 29,0
Windows 7, mean
3DMARK2005 ( first scene ) & BiT 6
Current draw
[A]
Power consumption
[W]
+12V
1,355
16,260
+12V P4
4,663
55,956
+5V
0,474
2,370
+3V3
0,968
3,194
-12V
0,049
0,588
5VSB
0,007
0,035
Total 78,4
S0 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V
0,569
6,828
+12V P4
0,485
5,820
+5V
0,420
2,100
+3V3
0,964
3,812
-12V
0,049
0,588
5VSB
0,007
0,035
Total 18,6
S3 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
5VSB
0,226
1,130
Total 1,13
S5 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
5VSB
0,219
1,095
Total 1,10
System Specification
c) High Power Setup KTHM65/mITX ATX+12V PSU
Supply
Supply
Supply
Supply
Supply
KTHM65 Users Guide
KTD-N0838-A Page 26
DOS Idle, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
2,499
29,988
Total 30,0
Windows 7, mean
3DMARK2005 ( first scene ) & BiT 6
Current draw
[A]
Power consumption
[W]
+12V P4
6,712
80,544
Total 80,5
S0 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
1,615
19,38
Total 19,4
S3 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
0,104
1,248
Total 1,24
S5 Mode, Mean, No external load
Current draw
[A]
Power consumption
[W]
+12V P4
0,101
1,212
Total 1,21
System Specification
d) High Power Setup KTHM65/mITX +12V only PSU
Supply
Supply
Supply
Supply
Supply
KTHM65 Users Guide
KTD-N0838-A Page 27
DDR3 Slot 1
FEATURE
DVI-I
KBDMSE
PCIe x16
ATX/ BTXPWR
Audio
DDR3 Slot 0
USB13
USB12
FRONTPNL
LVDS
CDROM
AUDIO_HEAD
COM3
COM4
ATX+12V
FAN_SYS
FAN_CPU
ETH1
COM2
Load Default
mPCIe (*)
Sata1 Sata4 Sata2
USB9
USB8
USB11
USB10
COM1
PCIe x1
SPI recover
SPI
USB1
DP0
USB3
DP1
Note: Sata0/Sata1support up to 6GB/s and Sata2/Sata3/Sata4/Sata5 support up to 3GB/S.
System Temperature
Sensor( Q10)
Connector Location
Connector Locations
2.7 KTHM65/mITX – frontside
USB5
USB4
USB0
USB2
Sata0 Sata5 Sata3
(see note below)
BIOS Settings
KTHM65 Users Guide
KTD-N0838-A Page 28
LPT (*)
mPCIe1
XDP-CPU (*)
DVI-I
Audio
ETH1
USB1
DP0
USB3
DP1
mPCIe0
Connector Location
XDP-PCH (*)
below mPCIe1
(*) The XDP and LPT connectors are not supported and not mounted in volume production.
Kontron sub-supplier number. Please use the SN label on the
PCIe x16 slot which is the board SN matching the SN in BIOS.
KTHM65 is based
2.8 KTHM65/mITX – IO Bracket area
USB5
USB4
USB0
USB2
2.9 KTHM65/mITX - backside
on KTQM67 PCB
KTHM65 Users Guide
KTD-N0838-A Page 29
Connector Definitions
3 Connector Definitions
The following sections provide pin definitions and detailed description of all on-board connectors.
The connector definitions follow the following notation:
Column
name
Pin Shows the pin-numbers in the connector. The graphical layout of the connector definition
Signal The mnemonic name of the signal at the current pin. The notation “XX#” states that the
Type AI: Analogue Input.
Ioh: Typical current in mA flowing out of an output pin through a grounded load, while the
Pull U/D On-board pull-up or pull-down resistors on input pins or open-collector output pins.
Note Special remarks concerning the signal.
The abbreviation TBD is used for specifications which are not available yet or which are not sufficiently
specified by the component vendors.
Description
tables is made similar to the physical connectors.
signal “XX” is active low.
AO: Analogue Output.
I: Input, TTL compatible if nothing else stated.
IO: Input / Output. TTL compatible if nothing else stated.
IOT: Bi-directional tristate IO pin.
IS: Schmitt-trigger input, TTL compatible.
IOC: Input / open-collector Output, TTL compatible.
IOD: Input / Output, CMOS level Schmitt-triggered. (Open drain output)
NC: Pin not connected.
O: Output, TTL compatible.
OC: Output, open-collector or open-drain, TTL compatible.
OT: Output with tri-state capability, TTL compatible.
LVDS: Low Voltage Differential Signal.
PWR: Power supply or ground reference pins.
output voltage is > 2.4 V DC (if nothing else stated).
Iol: Typical current in mA flowing into an output pin from a VCC connected load, while the
output voltage is < 0.4 V DC (if nothing else stated).
KTHM65 Users Guide
KTD-N0838-A Page 30
1
TMDS Data 2-
Digital Red – (Link 1)
LVDS OUT
2 TMDS Data 2+
Digital Red + (Link 1)
LVDS OUT
3 TMDS Data 2/4 Shield
PWR
4
NC
NC
5
NC
NC
6 DDC Clock
DDC Clock
IO
2K2 7 DDC Data
DDC Data
IO
2K2 8 NC
NC
9 TMDS Data 1-
Digital Green – (Link 1)
LVDS OUT
10
TMDS Data 1+
Digital Green + (Link 1)
LVDS OUT
11
TMDS Data 1/3 Shield
PWR
12
NC
NC
13
NC
NC
14
+5V
Power for monitor when in standby
PWR
15
GND
PWR
16
Hot Plug Detect
Hot Plug Detect
I
17
TMDS Data 0-
Digital Blue – (Link 1) / Digital sync
LVDS OUT
18
TMDS Data 0+
Digital Blue + (Link 1) / Digital sync
LVDS OUT
19
TMDS Data 0/5 Shield
PWR
20
NC
NC
21
NC
NC
22
TMDS Clock Shield
PWR
23
TMDS Clock+
Digital clock + (Link 1)
LVDS OUT
24
TMDS Clock-
Digital clock - (Link 1)
LVDS OUT
C1
ANALOG RED
Analog output carrying the red color signal
O
/75R
C2
ANALOG GREEN
Analog output carrying the green color signal
O
/75R
C3
ANALOG BLUE
Analog output carrying the blue color signal
O
/75R
C4
ANALOG HSYNC
CRT horizontal synchronization output.
O
C5
ANALOG GND
Ground reference for RED, GREEN, and BLUE
PWR
C6
ANALOG GND
Ground reference for RED, GREEN, and BLUE
PWR
IO-Area Connectors
4 IO-Area Connectors
4.1 Display connectors (IO Area)
The KTHM65 provides one on-board DVI-I port (both digital and analogue), two on-board DP’s
(DisplayPort) and one on-board LVDS panel interface. Two graphic pipes are supported; meaning that
up to two independent displays can be implemented using any two of the above mentioned graphic
ports.
4.1.1 DVI Connector (DVI-I) (J41)
The DVI-I connector support DVI Digital output and DVI Analogue output.
Female socket, front view
Signal Description - DVI Connector:
Pin
Signal Description Type Pull U/D
Note: The +5V supply is fused by a 1.1A resettable fuse
KTHM65 Users Guide
KTD-N0838-A Page 31
19 17 15 13 11 9 7 5 3 1
20 18 16 14 12 10 8 6 4 2
Pin
Signal
Description
Type
Note
1
Lane 0 (p)
LVDS
2 GND
PWR
3 Lane 0 (n)
LVDS
4 Lane 1 (p)
LVDS
5 GND
PWR
6 Lane 1 (n)
LVDS
7 Lane 2 (p)
LVDS
8 GND
PWR
9 Lane 2 (n)
LVDS
10
Lane 3 (p)
LVDS
11
GND
PWR
12
Lane 3 (n)
LVDS
Internally pull down (1Mohm).
DDC channel on pin 15/17, If HDMI adapter used (3.3V)
14
Config2
(Not used)
O
Internally connected to GND
Aux Channel (+)
or DDC Clk
AUX (+) channel used by DP
DDC Clk used by HDMI
16
GND
PWR
Aux Channel (-)
or DDC Data
AUX (-) channel used by DP
DDC Data used by HDMI
18
Hot Plug
I Internally pull down (100Kohm).
19
Return
PWR
Same as GND
Fused by 1.5A resetable PTC fuse, common for DP0 and
DP1
IO-Area Connectors
4.1.2 DP Connectors (DP0/DP1) (J40/J39)
The DP (DisplayPort) connectors are based on standard DP type Foxconn 3VD51203-H7JJ-7H or
similar.
13 Config1
15 Aux Ch (p)
17 Aux Ch (n)
20 3.3V PWR
Aux or DDC
selection
I
Aux channel on pin 15/17 selected as default (when NC)
KTHM65 Users Guide
KTD-N0838-A Page 32
Signal
PIN
Type
Ioh/Iol
Note
MDI0+
MDI0-
MDI1+
MDI2+
MDI2-
MDI1-
MDI3+
MDI3-
8 7 6 5 4 3 2 1
IO-Area Connectors
4.2 Ethernet Connector
The KTHM65 support one channel of 10/100/1000Mb Ethernet (ETH1) based on Intel® Lewisville
82579LM Gigabit PHY.
In order to achieve the specified performance of the Ethernet port, Category 5 twisted pair cables must
be used with 10/100MB and Category 5E, 6 or 6E with 1Gb LAN networks.
The signals for the Ethernet ports are as follows:
Signal Description
MDI[0]+ / MDI[0]- In MDI mode, this is the first pair in 1000Base-T, i.e. the BI_DA+/- pair, and is
the transmit pair in 10Base-T and 100Base-TX.
In MDI crossover mode, this pair acts as the BI_DB+/- pair, and is the receive
pair in 10Base-T and 100Base-TX.
MDI[1]+ / MDI[1]- In MDI mode, this is the second pair in 1000Base-T, i.e. the BI_DB+/- pair, and
is the receive pair in 10Base-T and 100Base-TX.
In MDI crossover mode, this pair acts as the BI_DA+/- pair, and is the transmit
pair in 10Base-T and 100Base-TX.
MDI[2]+ / MDI[2]-
In MDI mode, this is the third pair in 1000Base-T, i.e. the BI_DC+/- pair.
In MDI crossover mode, this pair acts as the BI_DD+/- pair.
MDI[3]+ / MDI[3]-
Note: MDI = Media Dependent Interface.
Ethernet connector 1 (ETH1) is mounted together with USB Ports 4 and 5.
The pinout of the RJ45 connectors is as follows:
In MDI mode, this is the fourth pair in 1000Base-T, i.e. the BI_DD+/- pair.
In MDI crossover mode, this pair acts as the BI_DC+/- pair.
KTHM65 Users Guide
KTD-N0838-A Page 33
Note
Type
Signal
PIN
Signal
Type
Note
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB1-
USB1+
IO
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB0-
USB0+
IO
Signal
Description
IO-Area Connectors
4.3 USB Connectors (IO Area)
The KTHM65 contains two EHCI (Enhanced Host Controller Interface) host controllers (EHCI1 and
EHCI2) that support up to twelve USB 2.0 ports allowing data transfers up to 480Mb/s. Legacy
Keyboard/Mouse and wakeup from sleep states are supported. Over-current detection on all twelve
USB ports is supported. The following USB connectors are available in the IO Area.
USB Port 0 and 1 (via EHCI1) are supplied on the combined USB0, USB1 and DP0 connector.
USB Port 2 and 3 (via EHCI1) are supplied on the combined USB2, USB3 and DP1 connector.
USB Port 4 and 5 (via EHCI1) are supplied on the combined ETH1, USB4 and USB5 connector.
Note: It is required to use only HiSpeed USB cable, specified in USB2.0 standard:
4.3.1 USB Connector 0/1 (USB0/1)
USB Ports 0 and 1 are mounted together with DP0 port.
Note 1: In order to meet the requirements of USB standard, the 5V input supply must be at least 5.00V.
USB0+ USB0USB1+ USB1-
5V/SB5V
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow
wakeup on USB device activity. Protected by resettable 1A fuse covering both USB
ports.
KTHM65 Users Guide
KTD-N0838-A Page 34
Note
Type
Signal
PIN
Signal
Type
Note
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB3-
USB3+
IO
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB2-
USB2+
IO
Note
Type
Signal
PIN
Signal
Type
Note
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB5-
USB5+
IO
1 PWR
5V/SB5V
1 2 3 4 GND
PWR
IO
USB4-
USB4+
IO
Signal
Description
Signal
Description
IO-Area Connectors
4.3.2 USB Connector 2/3 (USB2/3)
USB Ports 2 and 3 are mounted together with DP1 port.
Note 1: In order to meet the requirements of USB standard, the 5V input supply must be at least 5.00V.
USB2+ USB2USB3+ USB3-
5V/SB5V
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow
wakeup on USB device activity. Protected by resettable 1A fuse covering both USB
ports.
4.3.3 USB Connector 4/5 (USB4/5)
USB Ports 4 and 5 are mounted together with ETH1 port.
Note 1: In order to meet the requirements of USB standard, the 5V input supply must be at least 5.00V.
USB4+ USB4USB5+ USB5-
5V/SB5V
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow wakeup
on USB device activity. Protected by resettable 1A fuse covering both USB ports.
KTHM65 Users Guide
KTD-N0838-A Page 35
Signal
Type
Note
TIP LINE1-L
IA
RING LINE1-R
IA
SLEEVE GND
PWR
TIP
FRONT-OUT-L
OA
SLEEVE GND
PWR
TIP MIC1-L
IA
RING MIC1-R
IA
SLEEVE GND
PWR
Signal
Description
Note
IO-Area Connectors
4.4 Audio Connector (IO Area)
The on-board Audio circuit implements 7.1+2 Channel High Definition Audio with UAA (Universal Audio
Architecture), featuring five 24-bit stereo DACs and three 20-bit stereo ADCs. The Following Audio
connector is available in IO Area.
Audio Speakers, Line-in and Microphone are available in the stacked audiojack connector.
RING FRONT-OUT-R OA
FRONT-OUT-L Front Speakers (Speaker Out Left).
FRONT-OUT-R Front Speakers (Speaker Out Right).
MIC1-L
MIC1-R Microphone 1 - Right Shared with Audio Header
LINE1-L Line 1 signal - Left Shared with Audio Header
LINE1-R Line 1 signal - Right
Microphone 1 - Left Shared with Audio Header
Shared with Audio Header
KTHM65 Users Guide
KTD-N0838-A Page 36
Note
Type
Signal
PIN
Signal
Type
Note
PWR
3V3
12
24 GND
PWR
PWR
+12V
11
23 5V
PWR
PWR
+12V
10
22 5V
PWR
PWR
SB5V
9
21 5V
PWR I P_OK
8
20 -5V
PWR 1
PWR
GND
7
19 GND
PWR
PWR
5V
6
18 GND
PWR
PWR
GND
5
17 GND
PWR
PWR
5V
4
16 PSON#
OC
PWR
GND
3
15 GND
PWR
PWR
3V3
2
14 -12V
PWR
PWR
3V3
1
13 3V3
PWR
Note
Type
Signal
PIN
Signal
Type
Note
PWR
GND
2 4
+12V
PWR 1
PWR
GND
1 3
+12V
PWR
1
P_OK is a power good signal and should be asserted high by the power supply to indicate
Internal Connectors
5 Internal Connectors
5.1 Power Connector (ATX/BTXPWR)
The KTHM65 is designed to be supplied from a standard ATX (or BTX) power supply. Alternatively
supplied by single +12V +/-5%). Use of BTX supply is not required for operation, but may be required to
drive high-power PCIe cards.
ATX/ BTX Power Connector (J43):
Note 1: -5V supply is not used on-board.
See chapter “Power Consumption” regarding input tolerances on 3.3V, 5V, SB5V, +12 and -12V (also
refer to ATX specification version 2.2).
ATX+12V-4pin Power Connector (J42):
Note 1: Use of the 4-pin ATX+12V Power Connector is required for operation.
Signal Description
P_OK
PS_ON# Active low open drain signal from the board to the power supply to turn on the power supply
Warning: Hot Plugging power supply is not supported. Hot plugging might damage the board.
that the +5VDC and +3.3VDC outputs are above the undervoltage thresholds of the power
supply. When this signal is asserted high, there should be sufficient energy stored by the
converter to guarantee continuous power operation within specification. Conversely, when
the output voltages fall below the undervoltage threshold, or when mains power has been
removed for a time sufficiently long so that power supply operation is no longer guaranteed,
P_OK should be de-asserted to a low state. The recommended electrical and timing
characteristics of the P_OK (PWR_OK) signal are provided in the ATX12V Power SupplyDesign Guide.
It is strongly recommended to use an ATX or BTX supply, in order to implement the
supervision of the 5V and 3V3 supplies. These supplies are not supervised on-board.
outputs. Signal must be pulled high by the power supply.
KTHM65 Users Guide
KTD-N0838-A Page 37
Pull
U/D
1 CONTROL
O - - 2 SENSE
I
-
4K7 3 +12V
PWR
- -
4 GND
PWR
- -
Pull
U/D
-
2 SENSE
I
-
4K7 3 +12V
PWR
- -
4 GND
PWR
- -
Internal Connectors
5.2 Fan Connectors (FAN_CPU) (J28) and (FAN_SYS) (J29)
The FAN_CPU is used for the connection of the FAN for the CPU.
The FAN_SYS can be used to power, control and monitor a fan for chassis ventilation etc.
The 4pin header is recommended to be used for driving 4-wire type Fan in order to implement FAN
speed control. 3-wire Fan is also possible, but no fan speed control is integrated.
4-pin Mode:
PIN Signal Type Ioh/Iol
Signal Description
CONTROL PWM signal for FAN speed control
SENSE Tacho signal from the fan for supervision. The signals shall be generated by an open
collector transistor or similar. On-board is a pull-up resistor 4K7 to +12V. The signal has to
be pulsed, typically twice per rotation.
12V +12V supply for fan. A maximum of 2000mA can be supplied from this pin.
GND Power Supply GND signal
3-pin Mode:
PIN Signal Type Ioh/Iol
Note
Note
Signal Description
SENSE Tacho signal from the fan for supervision. The signals shall be generated by an open
collector transistor or similar. On-board is a pull-up resistor 4K7 to +12V. The signal has to
be pulsed, typically twice per rotation.
12V +12V supply for fan. A maximum of 2000mA can be supplied from this pin.
GND Power Supply GND signal
KTHM65 Users Guide
KTD-N0838-A Page 38
Pull
U/D
1 KBDCLK
IOD
/14mA
2K7
2 KBDDAT
IOD
/14mA
2K7
3 MSCLK
IOD
/14mA
2K7
4 MSDAT
IOD
/14mA
2K7
5 5V/SB5V
PWR
- -
6
GND
PWR
- -
Signal
Description
Internal Connectors
5.3 PS/2 Keyboard and Mouse connector (KBDMSE) (J27)
Attachment of a PS/2 keyboard/mouse can be done through the pinrow connector KBDMSE (J27).
Both interfaces utilize open-drain signalling with on-board pull-up.
The PS/2 mouse and keyboard is supplied from SB5V when in standby mode in order to enable
keyboard or mouse activity to bring the system out from power saving states. The supply is provided
through a 1.1A resettable fuse.
PIN Signal Type Ioh/Iol
Signal Description – Keyboard & and mouse Connector (KBDMSE).
MSCLK Bi-directional clock signal used to strobe data/commands from/to the PS/2 mouse.
MSDAT Bi-directional serial data line used to transfer data from or commands to the PS/2 mouse.
KDBCLK Bi-directional clock signal used to strobe data/commands from/to the PC-AT keyboard.
KBDDAT
Available cable kit:
Bi-directional serial data line used to transfer data from or commands to the PC-AT
keyboard.
PN 1053-2384 Bracket Cable 6-Pin to PS2-Kbd-Mse
Note
KTHM65 Users Guide
KTD-N0838-A Page 39
Note
Type
Signal
PIN
Signal
Type
Note
Max. 0.5A
PWR
+12V
1 2 +12V
PWR
Max. 0.5A
Max. 0.5A
PWR
+12V
3 4 +12V
PWR
Max. 0.5A
Max. 0.5A
PWR
+12V
5 6 GND
PWR
Max. 0.5A
Max. 0.5A
PWR
+5V
7 8 GND
PWR
Max. 0.5A
Max. 0.5A
PWR
LCDVCC
9 10 LCDVCC
PWR
Max. 0.5A
2K2Ω, 3.3V
OT
DDC CLK
11
12 DDC DATA
OT
2K2Ω, 3.3V
3.3V level
OT
BKLTCTL
13
14 VDD ENABLE
OT
3.3V level
3.3V level
OT
BKLTEN#
15
16 GND
PWR
Max. 0.5A
LVDS
LVDS A0-
17
18 LVDS A0+
LVDS
LVDS
LVDS A1-
19
20 LVDS A1+
LVDS
LVDS
LVDS A2-
21
22 LVDS A2+
LVDS
LVDS
LVDS ACLK-
23
24 LVDS ACLK+
LVDS
LVDS
LVDS A3-
25
26 LVDS A3+
LVDS
Max. 0.5A
PWR
GND
27
28 GND
PWR
Max. 0.5A
LVDS
LVDS B0-
29
30 LVDS B0+
LVDS
LVDS
LVDS B1-
31
32 LVDS B1+
LVDS
LVDS
LVDS B2-
33
34 LVDS B2+
LVDS
LVDS
LVDS BCLK-
35
36 LVDS BCLK+
LVDS
LVDS
LVDS B3-
37
38 LVDS B3+
LVDS
Max. 0.5A
PWR
GND
39
40 GND
PWR
Max. 0.5A
Signal
Description
LVDS A0..A3
LVDS A Channel data
LVDS ACLK
LVDS A Channel clock
LVDS B0..B3
LVDS B Channel data
LVDS BCLK
LVDS B Channel clock
BKLTCTL
Backlight control (1), PWM signal to implement voltage in the range 0-3.3V
BKLTEN#
Backlight Enable signal (active low) (2)
VDD ENABLE
Output Display Enable.
VCC supply to the display. Power-on/off sequencing depending on selected (in BIOS
DDC CLK
DDC Channel Clock
Internal Connectors
5.4 Display connector (Internal)
The KTHM65 provides LVDS display connector.
For IO Area Display Connectors (DVI-I and two DP’s), see earlier section.
Two graphic pipes are supported; meaning that up to two independent displays can be implemented
using any two of display connectors (IO Area - and Internal connectors).
5.4.1 LVDS Flat Panel Connector (LVDS) (J20)
Note: The KTHM65 on-board LVDS connector supports single and dual channel, 18/24bit SPWG
panels up to the resolution 1600x1200 or 1920x1080 and with limited frame rate some
1920x1200.
LCDVCC
Notes: Windows API will be available to operate the BKLTCTL signal. Some Inverters have a limited
voltage range 0- 2.5V for this signal: If voltage is > 2.5V the Inverter might latch up. Some
Inverters generates noise on the BKLTCTL signal, resulting in making the LVDS transmission
failing (corrupted picture on the display). By adding a 1Kohm resistor in series with this signal,
mounted in the Inverter end of the cable kit, the noise is limited and the picture is stable.
If the Backlight Enable is required to be active high then, check the following BIOS Chipset
setting: Backlight Signal Inversion = Enabled.
setup) display type. 5V or 3.3V selected in BIOS setup. LCDVCC is shared with eDP
connector. Maximum load is 1A at both voltages.
KTHM65 Users Guide
KTD-N0838-A Page 40
Pull
U/D
1
GND
PWR - - 2
SATA* TX+
3
SATA* TX-
4
GND
PWR - - 5
SATA* RX-
6
SATA* RX+
7
GND
PWR - -
SATA* TX-
Host receiver differential signal pair
Internal Connectors
5.5 SATA (Serial ATA) Disk interface (J21 – J26)
The KTHM65 has an integrated SATA Host controller (PCH in the HM65 chipset) that supports
independent DMA operation on six ports. One device can be installed on each port for a maximum of six
SATA devices. A point-to-point interface (SATA cable) is used for host to device connections. Data
transfer rates of up to 6.0Gb/s (typically 600MB/s) on SATA0 and SATA1 and 3.0Gb/s (typically
300MB/s) on SATA2, SATA3, SATA4 and SATA5.
Note: Before installing OS on a SATA drive make sure the drive is not a former member of a RAID
system. If so some hidden data on the disk has to be erased.
The SATA controller supports:
AHCI (Advanced Host Controller Interface)
NCQ (Native Command Queuing). NCQ is for faster data access.
Hot Swap
Intel® Rapid Recover Technology
2 – 256TB volume (Data volumes only)
Capacity expansion
TRIM in Windows 7 (in AHCI). (TRIM is for SSD data garbage handling).
SATA connector pinning:
SATA0 (J21), SATA1 (J22), SATA2 (J23), SATA3 (J24), SATA4 (J25) and SATA5 (J26).
PIN Signal Type Ioh/Iol
The signals used for the primary SATA hard disk interface are the following:
Signal Description
SATA* RX+
SATA* RX-
SATA* TX+
“*” specifies 0, 1, 2, 3, 4, 5 depending on SATA port.
Available cable kit:
Host transmitter differential signal pair
PN 821035 Cable SATA 500mm
Note
KTHM65 Users Guide
KTD-N0838-A Page 41
Note
Type
Signal
PIN
Signal
Type
Note
1
PWR
5V/SB5V
1 2 5V/SB5V
PWR
1
IO
USB8-
3 4 USB9-
IO
IO
USB8+
5 6 USB9+
IO
PWR
GND
7 8 GND
PWR
NC
KEY
9 10 NC
NC
Internal Connectors
Connector Definitions
5.6 USB Connectors (USB)
The KTHM65 contains two EHCI (Enhanced Host Controller Interface) host controllers (EHCI1 and
EHCI2) that support up to twelve USB 2.0 ports allowing data transfers up to 480Mb/s. Legacy
Keyboard/Mouse and wakeup from sleep states are supported. Over-current detection on all twelve
USB ports is supported. The following USB ports are available on Internal Pinrows:
USB Port 6 and 7 doesn’t exist.
USB Port 8 and 9 (via EHCI2) are supplied on the USB8/9 internal pinrow connector.
USB Port 10 and 11 (via EHCI2) are supplied on the USB10/11 internal pinrow connector.
USB Port 12 and 13 (via EHCI2) are supplied on the USB12/13 internal pinrow connector.
Note: It is required to use only HiSpeed USB cable, specified in USB2.0 standard:
5.6.1 USB Connector 6/7
Doesn´t exist.
5.6.2 USB Connector 8/9 (USB8/9) (J10)
USB Ports 8 and 9 are supplied on the internal USB8/9 pinrow connector J10.
Signal Description
USB8+ USB8USB9+ USB9-
5V/SB5V
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow
wakeup on USB device activity. Protected by resettable 1A fuse covering both USB
ports.
KTHM65 Users Guide
KTD-N0838-A Page 42
Note
Type
Signal
PIN
Signal
Type
Note
1
PWR
5V/SB5V
1 2 5V/SB5V
PWR 1
IO
USB10-
3 4 USB11-
IO
IO
USB10+
5 6 USB11+
IO
PWR
GND
7 8 GND
PWR
NC
KEY
9 10 NC
NC
Note
Type
Signal
PIN
Signal
Type
Note
1
PWR
5V/SB5V
1 2 5V/SB5V
PWR 1
IO
USB12-
3 4 USB13-
IO
IO
USB12+
5 6 USB13+
IO
PWR
GND
7 8 GND
PWR
NC
KEY
9 10 NC
NC
Internal Connectors
5.6.3 USB Connector 10/11 (USB10/11) (J11)
USB Ports 10 and 11 are supplied on the internal USB10/11 pinrow connector J11.
Signal Description
USB10+ USB10USB11+ USB11-
5V/SB5V
5.6.4 USB Connector 12/13 (USB12/13) (J12)
USB Ports 12 and 13 are supplied on the internal USB12/13 pinrow connector J12.
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow
wakeup on USB device activity. Protected by resettable 1A fuse covering both USB
ports.
Signal Description
USB12+ USB12USB13+ USB13-
5V/SB5V
Note 1: In order to meet the requirements of USB standard, the 5V input supply must be at least 5.00V.
Available cable kit:
Differential pair works as Data/Address/Command Bus.
5V supply for external devices. SB5V is supplied during powerdown to allow
wakeup on USB device activity. Protected by resettable 1A fuse covering both USB
ports.
PN 821401 Bracket Dual USB Cable
KTHM65 Users Guide
KTD-N0838-A Page 43
initiated.
RI
Ring Indicator, indicates that the modem has received a ringing signal from the telephone line.
Note
Ioh/Iol
Type
Signal
PIN
Signal
Type
Ioh/Iol
Note
- I
DCD
1 2 DSR I - - I
RxD
3 4 RTS O O
TxD
5 6 CTS I - O
DTR
7 8 RI I - - PWR
GND
9 10 5V
PWR - 1
Internal Connectors
5.7 Serial COM1 – COM4 Ports (J15, J16, J17, J18)
Four RS232 serial ports are available on the KTHM65.
The typical definition of the signals in the COM ports is as follows:
Signal Description
Transmitted Data, sends data to the communications link. The signal is set to the marking
TxD
RxD Received Data, receives data from the communications link.
DTR
DSR Data Set Ready, indicates that the modem etc. is ready to establish a communications link.
RTS
CTS Clear To Send, indicates that the modem or data set is ready to exchange data.
DCD Data Carrier Detect, indicates that the modem or data set has detected the data carrier.
state (-12V) on hardware reset when the transmitter is empty or when loop mode operation is
Data Terminal Ready, indicates to the modem etc. that the on-board UART is ready to
establish a communication link.
Request To Send, indicates to the modem etc. that the on-board UART is ready to exchange
data.
The pinout of Serial ports COM1 (J15), COM2 (J16), COM3 (J17) and COM4 (J18) is as follows:
Note 1: The COM1, COM2, COM3 and COM4 5V supply is fused with common 1.1A resettable fuse.
DB9 adapter cables (PN 821016 200mm long and 821017 100mm long) are available for implementing
standard COM ports on chassis.
Available cable kit (DB9 adapter cables):
PN 821017 - 100 mm or PN 821016 - 200 mm
KTHM65 Users Guide
KTD-N0838-A Page 44
PIN
Signal
Type
Note
1 CD_Left
IA 1 2 CD_GND
IA 3 CD_GND
IA 4 CD_Right
IA
1
Signal
Description
not
Internal Connectors
5.8 Audio Connectors
The on-board Audio circuit implements 7.1+2 Channel High Definition Audio with UAA (Universal Audio
Architecture), featuring five 24-bit stereo DACs and three 20-bit stereo ADCs.
The following Audio connectors are available as Internal connectors.
5.8.1 CDROM Audio Input (CDROM) (J3)
CD-ROM audio input may be connected to this connector or it can be used as secondary line-in signal.
Note 1: The definition of which pins are used for the Left and Right channels is not a worldwide
accepted standard. Some CDROM cable kits expect reverse pin order.
CD_Left
CD_Right
CD_GND Analogue GND for Left and Right CD.
Left and right CD audio input lines or secondary Line-in.
(This analogue GND is
shorted to the general digital GND on the board).
5.8.2 Line2 and Mic2
Line2 and Mic2 are accessible via Feature Connector, see Feature connector description.
KTHM65 Users Guide
KTD-N0838-A Page 45
Note
Type
Signal
PIN
Signal
Type
Note
AO
LFE-OUT
1 2 CEN-OUT
AO
PWR
AAGND
3 4 AAGND
PWR 1
AO
FRONT-OUT-L
5 6 FRONT-OUT-R
AO 1
PWR
AAGND
7 8 AAGND
PWR
AO
REAR-OUT-L
9 10 REAR-OUT-R
AO
AO
SIDE-OUT-L
11
12 SIDE-OUT-R
AO
PWR
AAGND
13
14 AAGND
PWR 1
AI
MIC1-L
15
16 MIC1-R
AI 1
PWR
AAGND
17
18 AAGND
PWR 1 LINE1-L
19
20 LINE1-R
1
NC
NC
21
22 AAGND
PWR
PWR
GND
23
24 NC
NC O SPDIF-OUT
25
26 GND
PWR
Internal Connectors
5.8.3 Audio Header Connector (AUDIO_HEAD) (J31)
Note 1: Shared with Audio Stack connector
Signal Description
FRONT-OUT-L Front Speakers (Speaker Out Left).
FRONT-OUT-R Front Speakers (Speaker Out Right).
REAR-OUT-L
REAR-OUT-R
SIDE-OUT-L Side speakers (Surround Out Left)
SIDE-OUT-R
CEN-OUT
LFE-OUT Subwoofer Speaker (Low Freq. Effect Out).
NC No connection
MIC1
LINE1 Line 1 signals
F-SPDIF-OUT S/PDIF Output
AAGND Audio Analogue ground
Available cable kit:
Rear Speakers (Surround Out Left).
Rear Speakers (Surround Out Right).
Side speakers (Surround Out Right)
Center Speaker (Center Out channel).
MIC Input 1
PN 821043 Cable, Audio Open-End (300 mm)
KTHM65 Users Guide
KTD-N0838-A Page 46
Pull
U/D
Ioh/
Iol
Ioh/
Iol
Pull
U/D
- -
PWR
USB6/7_5V
1 2 USB6/7_5V
PWR - - - - USB6-
3 4 USB7-
- - - - USB6+
5 6 USB7+
- - - -
PWR
GND
7 8 GND
PWR - - - -
NC
NC
9 10 LINE2-L
- - - -
PWR
+5V
11
12 +5V
PWR - - - 25/25mA
O
SATA_LED#
13
14 SUS_LED
O
7mA - - - PWR
GND
15
16 PWRBTN_IN#
I 1K1
4K7 - I
RSTIN#
17
18 GND
PWR - - - -
PWR
SB3V3
19
20 LINE2-R
- - - -
PWR
AGND
21
22 AGND
PWR - - - -
AI
MIC2-L
23
24 MIC2-R
AI - -
5V supply for external devices. SB5V is supplied during powerdown to allow wakeup
Internal Connectors
5.9 Front Panel Connector (FRONTPNL) (J19)
Note
Signal Description
USB10/11_5V
USB1+/USB1- Universal Serial Bus Port 1 Differentials: Bus Data/Address/Command Bus.
USB3+/USB3- Universal Serial Bus Port 3 Differentials: Bus Data/Address/Command Bus.
+5V
on USB device activity. Protected by resettable 1.1A fuse covering both USB ports.
Maximum load is 1A or 2A per pin if using IDC connector flat cable or crimp terminals
respectively.
Type Signal PIN Signal Type
Note
SATA_LED# SATA Activity LED (active low signal). 3V3 output when passive.
SUS_LED Suspend Mode LED (active high signal). Output 3.3V via 470Ω.
PWRBTN_IN#
RSTIN#
LINE2
MIC2
SB3V3 Standby 3.3V voltage
AGND Analogue Ground for Audio
Note: In order to meet the requirements of USB standard, the 5V input supply must be at least 5.00V.
Available cable kit:
Power Button In. Toggle this signal low to start the ATX / BTX PSU and boot the
board.
Reset Input. When pulled low for a minimum 16ms, the reset process will be initiated.
The reset process continues even though the Reset Input is kept low.
Line2 is second stereo Line signals
MIC2 is second stereo microphone input.
PN 821042 Cable Front Panel Open-End, 300 mm
KTHM65 Users Guide
KTD-N0838-A Page 47
Pull
U/D
Pull
U/D
2
2M/ - I
CASE_OPEN#
1 2 SMBC
/4mA
10K/ 1 - 25/25mA O S5#
3 4 SMBD
/4mA
10K/ 1 - 25/25mA
O
PWR_OK
5 6 EXT_BAT
PWR - - - O FAN3OUT
7 8 FAN3IN
I - - - -
PWR
SB3V3
9 10 SB5V
PWR - - -
IOT
GPIO0
11
12 GPIO1
IOT - -
IOT
GPIO2
13
14 GPIO3
IOT - -
IOT
GPIO4
15
16 GPIO5
IOT - -
IOT
GPIO6
17
18 GPIO7
IOT - - -
PWR
GND
19
20 GND
PWR - - - I GPIO8
21
22 GPIO9 I - - I
GPIO10
23
24 GPIO11
I - - I GPIO12
25
26 GPIO13
IOT - -
IOT
GPIO14
27
28 GPIO15
IOT - -
IOT
GPIO16
29
30 GPIO17
IOT - - -
PWR
GND
31
32 GND
PWR - - - 8/8mA
O
EGCLK
33
34 EGCS#
O
8/8mA
-
- 8/8mA EGAD
35
36 TMA0 O - PWR
+12V
37
38 GND
PWR - - - O FAN4OUT
39
40 FAN4IN
I - - - -
PWR
GND
41
42 GND
PWR - - - -
PWR
GND
43
44 S3#
O
25/25mA
-
Internal Connectors
5.10 Feature Connector (FEATURE) (J30)
Note
Notes: 1. Pull-up to +3V3Dual (+3V3 or SB3V3).
2. Pull-up to on-board Battery.
3. Pull-up to +3V3.
Available cable kit:
Ioh/Iol Type Signal PIN Signal Type Ioh/Iol
PN 1052-5885 Cable, Feature 44pol 1 to1, 300mm
Note
KTHM65 Users Guide
KTD-N0838-A Page 48
Signal
Description
CASE OPEN, used to detect if the system case has been opened. This signal’s status
is readable, so it may be used like a GPI when the Intruder switch is not required.
PoWeR OK, signal is high if no power failures are detected. (This is not the same as
the P_OK signal generated by ATX PSU).
(EXTernal BATtery) option for connecting + terminal of an external primary cell battery
charging and can be used with/without the on-board battery installed.
General Purpose Inputs / Output. These Signals may be controlled or monitored
through the use of the KT-API-V2 (Application Programming Interface).
Internal Connectors
CASE_OPEN#
SMBC SMBus Clock signal
SMBD SMBus Data signal
S3# S3 sleep mode, active low output, optionally used to deactivate external system.
S5# S5 sleep mode, active low output, optionally used to deactivate external system.
PWR_OK
EXT_BAT
FAN3OUT FAN 3 speed control OUTput, 3.3V PWM signal can be used as Fan control voltage.
FAN3IN FAN3 Input. 0V to +3V3 amplitude Fan 3 tachometer input.
FAN4OUT FAN 4 speed control OUTput, 3.3V PWM signal can be used as Fan control voltage.
FAN4IN FAN4 Input. 0V to +3V3 amplitude Fan 3 tachometer input.
SB3V3 Max. load is 0.75A (1.5A < 1 sec.)
SB5V StandBy +5V supply.
GPIO0..17
EGCLK Extend GPIO Clock signal
EGAD Extend GPIO Address Data signal
EGCS# Extend GPIO Chip Select signal, active low
TMA0 Timer Output
+12V Max. load is 0.75A (1.5A < 1 sec.)
Available Temperature Sensor cable kit (for System Fan Temperature Cruise, selected in BIOS):
Based on Maxim DS18B20, Accurate to ±0.5ºC over the range of -10ºC to +85ºC
Feature connector 3.3V (Pin 9), GND (Pin 19) and GPIO16 (Pin 29)
(2.5 - 4.0 V) (– terminal connected to GND). The external battery is protected against
PN1053-4925 Cable Temperature Sensor - 44P, 400 mm
KTHM65 Users Guide
KTD-N0838-A Page 49
GPIO0
DAC0/GPJ0
AO/IOS
GPIO1
DAC1/GPJ1
AO/IOS
GPIO2
DAC2/GPJ2
AO/IOS
GPIO3
DAC3/GPJ3
AO/IOS
GPIO4
PWM2/GPA2
O8/IOS
GPIO5
PWM3/GPA3
O8/IOS
GPIO6
PWM4/GPA4
O8/IOS
GPIO7
PWM5/GPA5
O8/IOS
GPIO8
ADC0/GPI0
AI/IS
GPIO9
ADC1/GPI1
AI/IS
GPIO10
ADC2/GPI2
AI/IS
GPIO11
ADC3/GPI3
AI/IS
GPIO12
ADC4/WUI28/GPI4
AI/IS/IS
GPIO13
RI1#/WUI0/GPD0
IS/IS/IOS
GPIO14
RI2#/WUI1/GPD1
IS/IS/IOS
GPIO15
TMRI0/WUI2/GPC4
IS/IS/IOS
GPIO16
TMRI1/WUI3/GPC6
IS/IS/IOS
GPIO17
L80HLAT/BAO/WUI24/GPE0
O4/O4/IS/IOS
Internal Connectors
GPIO in more details.
The GPIO’s are controlled via the ITE IT8516F Embedded Controller. Each GPIO has 100pF to ground,
clamping Diode to 3V3 and has multiplexed functionality. Some pins can be DAC (Digital to Analogue
Converter output), PWM (Pulse Width Modulated signal output), ADC (Analogue to Digital Converter
input), TMRI (Timer Counter Input), WUI (Wake Up Input), RI (Ring Indicator Input) or some special
function.
Signal IT8516F pin name Type Description
Feature Break-out board:
PN 820978 Feature BOB (Break-Out-Board)
KTHM65 Users Guide
KTD-N0838-A Page 50
Jumper (in default position)
J37 pin 1
J37
pin1-2
pin2-3
X
-
Don’t use. (Board do not boot with jumper in this position)
The “Load Default BIOS Settings” Jumper (J37) can be used to recover from incorrect BIOS settings. As
an example, incorrect BIOS settings coursing no display to turn on can be erased by the Jumper.
The Jumper has 3 positions: Pin 1-2, Pin2-3 (default position) and not mounted.
Warning
Don’t leave the jumper in position 1-2,
otherwise if power is disconnected,
the battery will fully deplete within a
few weeks.
BIOS version 12 and above:
Description
To Load Default BIOS Settings, inclusive erasing password:
1. Turn off power completely (no SB5V).
2. Remove the Jumper completely from J37.
3. Turn on power.
4. Motherboard beeps fast 20 times and turns off.
5. Turn off power.
6. Move the Jumper back to position 2-3 (default position).
7. Turn on power (use the Power On Button if required to boot).
Motherboard might automatically reboot a few times. Wait until booting is completed.
BIOS version below 12:
Description
To Load Default BIOS Settings, exclusive erasing Password and RTC:
1. Turn off power completely (no SB5V).
2. Move the Jumper to pin 1-2 for ~10 seconds.
3. Move the Jumper back to position 2-3 (default position).
4. Turn on power (use the Power On Button if required to boot).
5. Motherboard might automatically reboot a few times. Wait until booting is completed.
KTHM65 Users Guide
KTD-N0838-A Page 51
Internal Connectors
The SPI Recover Jumper (J4) is used to select BIOS Recovery Flash
5.12 SPI Recover Jumper (J4)
instead of BIOS Default Flash. By default the J4 is not installed.
It is recommended that Jumper is plugged to J4 only in case the
Default BIOS is corrupted, so that board is malfunctioning and do not
boot, or the Recovery BIOS is requested to be upgraded in order to have
sufficient or same support as the default BIOS.
In case Default BIOS seems corrupted then it is recommend to first trying
to use the Load Default BIOS Settings Jumper, see previous page.
When using customised BIOS it is recommended to upgrade both the
Default BIOS and the Recovery BIOS with the Customised BIOS.
4. When BIOS upgrade is completed then turn off power completely (inclusive Standby +5V).
5. Wait minimum 10 seconds.
6. Turn on power. System will automatically reboot 4-5 times within 1 minute.
7. If boot succeed then remove "SPI Recover Jumper".
Upgrade first Default BIOS and then Recovery BIOS with Customised BIOS procedure:
1. Reboot.
2. Upgrade the BIOS (fx. execute Upd.bat).
3. When BIOS upgrade is completed then turn off power completely (inclusive Standby +5V).
4. Wait minimum 10 seconds.
5. Turn on power. System will automatically reboot 4-5 times within 1 minute.
6. Install "SPI Recover Jumper"(J4).
7. Upgrade the BIOS (fx. execute UpdRec.bat).
8. When BIOS upgrade is completed then turn off power completely (inclusive Standby +5V).
9. Wait minimum 10 seconds.
10. Turn on power. System will automatically reboot 4-5 times within 1 minute.
11. Remove "SPI Recover Jumper".
Note: It is not recommended to upgrade both Default BIOS and Recovery BIOS without rebooting and
verification in between, unless you are sure that BIOS and tools works correctly. Otherwise there is a
risk that both BIOS will be corrupted at the same time with the result that board cannot be recovered.
KTHM65 Users Guide
KTD-N0838-A Page 52
Note
Pull U/D
Ioh/Iol
Type
Signal
PIN
Signal
Type
Ioh/Iol
Pull U/D
Note
- CLK
1 2 SB3V3
PWR - - - I CS0#
3 4 ADDIN
IO /10K
10K/
- NC
5 6 NC
- - -
10K/
IO
MOSI
7 8 ISOLATE#
IO 100K
- IO
MISO
9
10
GND
PWR - -
CLK
Serial Clock
Internal Connectors
5.13 SPI Connector (SPI) (J5)
The SPI Connector is normally not used. If however a SPI BIOS is connected via the SPI Connector
then the board will try to boot on it.
Signal Description
SB3V3
CS0# CS0# Chip Select 0, active low.
ADDIN ADDIN input signal must be NC.
MOSI Master Output, Slave Input
ISOLATE#
MISO Master Input, Slave Output
3.3V Standby Voltage power line. Normally output power, but when Motherboard is
turned off then the on-board SPI Flash can be 3.3V power sourced via this pin.
The ISOLATE# input, active low, is normally NC, but must be connected to GND when
loading SPI flash. Power Supply to the Motherboard must be turned off when loading
SPI flash. The pull up resistor is connected via diode to 5VSB.
KTHM65 Users Guide
KTD-N0838-A Page 53
Note
Type
Signal
PIN
Signal
Type
Note
+12V
B1
A1
NC
+12V
B2
A2
+12V
+12V
B3
A3
+12V
GND
B4
A4
GND
SMB_CLK
B5
A5
NC
SMB_DATA
B6
A6
NC
GND
B7
A7
NC
+3V3
B8
A8
NC
NC
B9
A9
+3V3
SB3V3
B10
A10
+3V3
WAKE#
B11
A11
RST#
NC
B12
A12
GND
GND
B13
A13
PCIE_x16 CLK
PEG_TXP[0]
B14
A14
PCIE_x16 CLK#
PEG_TXN[0]
B15
A15
GND
GND
B16
A16
PEG_RXP[0]
CLKREQ
B17
A17
PEG_RXN[0]
GND
B18
A18
GND
PEG_TXP[1]
B19
A19
NC
PEG_TXN[1]
B20
A20
GND
GND
B21
A21
PEG_RXP[1]
GND
B22
A22
PEG_RXN[1]
PEG_TXP[2]
B23
A23
GND
PEG_TXN[2]
B24
A24
GND
GND
B25
A25
PEG_RXP[2]
GND
B26
A26
PEG_RXN[2]
PEG_TXP[3]
B27
A27
GND
PEG_TXN[3]
B28
A28
GND
GND
B29
A29
PEG_RXP[3]
NC
B30
A30
PEG_RXN[3]
CLKREQ
B31
A31
GND
GND
B32
A32
NC
PEG_TXP[4]
B33
A33
NC
PEG_TXN[4]
B34
A34
GND
GND
B35
A35
PEG_RXP[4]
Slot Connectors
6 Slot Connectors (PCIe, miniPCIe, PCI)
6.1 PCIe Connectors
The KTHM65 support one (x16) (16-lane) PCI Express port, one x1 PCI Express port and two miniPCI
Express ports.
The 16-lane (x16) PCI Express (PCIe 2.0) port can be used for external PCI Express cards inclusive
graphics card. It is located nearest the CPU. Maximum theoretical bandwidth using 16 lanes is 16 GB/s.
PCIe x1, PCIe x2, PCIe x4, PCIe x8 and PCIe x16 are supported; however PCIe x2 is only supported
when using 3rd generation Intel® Core™ processor (Ivy Bridge).
The two miniPCIe (PCIe 2.0) is located on the backside of the board.
The 1-lane (x1) PCI Express (PCIe 2.0) can be used for any PCIex1 cards inclusive “Riser PCIex1 to
PCI Dual flexible card“.
6.1.1 PCI-Express x16 Connector (PCIe x16)
KTHM65 Users Guide
KTD-N0838-A Page 54
GND
B36
A36
PEG_RXN[4]
PEG_TXP[5]
B37
A37
GND
PEG_TXN[5]
B38
A38
GND
GND
B39
A39
PEG_RXP[5]
GND
B40
A40
PEG_RXN[5]
PEG_TXP[6]
B41
A41
GND
PEG_TXN[6]
B42
A42
GND
GND
B43
A43
PEG_RXP[6]
GND
B44
A44
PEG_RXN[6]
PEG_TXP[7]
B45
A45
GND
PEG_TXN[7]
B46
A46
GND
GND
B47
A47
PEG_RXP[7]
CLKREQ
B48
A48
PEG_RXN[7]
GND
B49
A49
GND
PEG_TXP[8]
B50
A50
NC
PEG_TXN[8]
B51
A51
GND
GND
B52
A52
PEG_RXP[8]
GND
B53
A53
PEG_RXN[8]
PEG_TXP[9]
B54
A54
GND
PEG_TXN[9]
B55
A55
GND
GND
B56
A56
PEG_RXP[9]
GND
B57
A57
PEG_RXN[9]
PEG_TXP[10]
B58
A58
GND
PEG_TXN[10]
B59
A59
GND
GND
B60
A60
PEG_RXP[10]
GND
B61
A61
PEG_RXN[10]
PEG_TXP[11]
B62
A62
GND
PEG_TXN[11]
B63
A63
GND
GND
B64
A64
PEG_RXP[11]
GND
B65
A65
PEG_RXN[11]
PEG_TXP[12]
B66
A66
GND
PEG_TXN[12]
B67
A67
GND
GND
B68
A68
PEG_RXP[12]
GND
B69
A69
PEG_RXN[12]
PEG_TXP[13]
B70
A70
GND
PEG_TXN[13]
B71
A71
GND
GND
B72
A72
PEG_RXP[13]
GND
B73
A73
PEG_RXN[13]
PEG_TXP[14]
B74
A74
GND
PEG_TXN[14]
B75
A75
GND
GND
B76
A76
PEG_RXP[14]
GND
B77
A77
PEG_RXN[14]
PEG_TXP[15]
B78
A78
GND
PEG_TXN[15]
B79
A79
GND
GND
B80
A80
PEG_RXP[15]
CLKREQ
B81
A81
PEG_RXN[15]
NC
B82
A82
GND
Slot Connectors
KTHM65 Users Guide
KTD-N0838-A Page 55
Note
Type
Signal
PIN
Signal
Type
Note
WAKE#
1
2
+3V3
PWR
NC
NC
3
4
GND
PWR
NC
NC
5
6
+1.5V
PWR 1
CLKREQ#
7
8
NC
NC
PWR
GND
9
10
NC
NC PCIE_mini CLK#
11
12
NC
NC PCIE_mini CLK
13
14
NC
NC
PWR
GND
15
16
NC
NC
NC
NC
17
18
GND
PWR
NC
NC
19
20
W_Disable#
2
PWR
GND
21
22
RST#
PCIE_RXN
23
24
+3V3 Dual
PWR
PCIE_RXP
25
26
GND
PWR
PWR
GND
27
28
+1.5V
PWR
PWR
GND
29
30
SMB_CLK
PCIE_TXN
31
32
SMB_DATA
PCIE_TXP
33
34
GND
PWR
PWR
GND
35
36
NC
NC
PWR
GND
37
38
NC
NC
PWR
+3V3 Dual
39
40
GND
PWR
PWR
+3V3 Dual
41
42
NC
NC
PWR
GND
43
44
NC
NC
CLK_MPCIE
45
46
NC
NC DATA_MPCIE
47
48
+1.5V
PWR RST_MPCIE#
49
50
GND
PWR 3 SEL_MSATA
51
52
+3V3 Dual
PWR
Slot Connectors
6.1.2 miniPCI-Express mPCIe0 (J34)
The miniPCI Express port mPCIe0 is located on the backside.
Beside miniPCIe cards the mPCIe0 also supports mSATA SSD cards.
Note: no USB signals are available.
Note 1: 10K ohm pull-up to 3V3.
Note 2: 2K2 ohm pull-up to 3V3 Dual.
Note 3: 100K ohm pull-up to 1V8 (S0 mode)
KTHM65 Users Guide
KTD-N0838-A Page 56
Note
Type
Signal
PIN
Signal
Type
Note
WAKE#
1
2
+3V3
PWR
NC
NC
3
4
GND
PWR
NC
NC
5
6
+1.5V
PWR 1
CLKREQ#
7
8
NC
NC
PWR
GND
9
10
NC
NC PCIE_mini CLK#
11
12
NC
NC PCIE_mini CLK
13
14
NC
NC
PWR
GND
15
16
NC
NC
NC
NC
17
18
GND
PWR
NC
NC
19
20
W_Disable#
2
PWR
GND
21
22
RST#
PCIE_RXN
23
24
+3V3 Dual
PWR
PCIE_RXP
25
26
GND
PWR
PWR
GND
27
28
+1.5V
PWR
PWR
GND
29
30
SMB_CLK
PCIE_TXN
31
32
SMB_DATA
PCIE_TXP
33
34
GND
PWR
PWR
GND
35
36
NC
NC
NC
NC
37
38
NC
NC
NC
NC
39
40
GND
PWR
NC
NC
41
42
NC
NC
NC
NC
43
44
NC
NC
NC
NC
45
46
NC
NC
NC
NC
47
48
+1.5V
PWR
NC
NC
49
50
GND
PWR
NC
NC
51
52
+3V3
PWR
Slot Connectors
6.1.3 miniPCI-Express mPCIe1 (J35)
The miniPCI Express port mPCIe1 is located on the backside.
Note: no USB or mSATA signals are available.
Note 1: 10K ohm pull-up to 3V3 Dual.
Note 2: 2K2 ohm pull-up to 3V3 Dual.
KTHM65 Users Guide
KTD-N0838-A Page 57
Note
Type
Signal
PIN
Signal
Type
Note
PWR
+12V
B1
A1
GND
PWR
PWR
+12V
B2
A2
+12V
PWR
PWR
+12V
B3
A3
+12V
PWR
PWR
GND
B4
A4
GND
PWR
SMB_CLK
B5
A5
CL_CLK
SMB_DATA
B6
A6
CL_RST
PWR
GND
B7
A7
SMB_ALERT
PWR
+3V3
B8
A8
CL_DATA
2 JTAG_TEST#
B9
A9
+3V3
PWR
PWR
3V3 Dual
B10
A10
+3V3
PWR
WAKE#
B11
A11
RST#
NC
NC
B12
A12
GND
PWR
PWR
GND
B13
A13
PCIE_CLK_P
PCIE_TXP
B14
A14
PCIE_CLK_N
PCIE_TXN
B15
A15
GND
PWR
PWR
GND
B16
A16
PCIE_RXP
1
CLK_REQ
B17
A17
PCIE_RXN
PWR
GND
B18
A18
GND
PWR
Connector Definitions
Slot Connectors
6.1.4 PCI-Express x1 Connector (PCIe x1) (J36)
The KTHM65 support one PCIe x1.
Note 1: 10K ohm pull-up to 3V3 Dual.
Note 2: 4K7 ohm pull-down to GND.
KTHM65 Users Guide
KTD-N0838-A Page 58
On-board Connectors
Mating Connectors / Cables
Manufacturer
Type no.
Manufacturer
Type no.
FAN_CPU
Foxconn
HF2704E-M1
AMP
1375820-4 (4-pole)
FAN_SYS
AMP
1470947-1
AMP
1375820-3 (3-pole)
Molex
22-23-2061
Molex
22-01-2065
KT 1046-3381
KT 1053-2384
Foxconn
HF1104E
Molex
50-57-9404
Molex
70543-0038
Hon Hai
LD1807V-S52T
Molex
67489-8005
Kontron
KT 821035 (cable kit)
ATXPWR
Molex
44206-0002
Molex
5557-24R
ATX+12V-4pin
Lotes
ABA-POW-003-K02
Molex
39-01-2045
Don Connex
C44-40BSB1-G
Don Connex
A32-40-C-G-B-1
Kontron
KT 910000005
Kontron
KT 821515 (cable kit)
Kontron
KT 821155 (cable kit)
Wuerth
61201020621
Molex
90635-1103
Kontron
KT 821016 (cable kit)
Kontron
KT 821017 (cable kit)
USB68/9,
10/11, 12/13
AUDIO_HEAD
Molex
87831-2620
Molex
51110-2651
Kontron
KT 821043 (cable kit)
Pinrex
512-90-24GBB3
Molex
90635-1243
Kontron
KT 821042 (cable kit)
FEATURE
Foxconn
HS5422F
Don Connex
A05c-44-B-G-A-1-G
Onboard/mating connector
7 On-board - & mating connector types
The Mating connectors / Cables are connectors or cable kits which are fitting the On-board connector.
The highlighted cable kits are included in the “KTQM67 Cable & Driver Kit” PN 826598, in different
quantities depending on type of connector. For example there is 4 x 821017 COM cables and 6 x
821035 SATA cables.
Connector
KBDMSE
CDROM
SATA
LVDS
COM1,2, 3, 4
FRONTPNL
Kontron
Pinrex 512-90-10GBB2 Kontron
KT 821401 (cable kit)
Note: Only one connector will be mentioned for each type of on-board connector even though several
types with same fit, form and function are approved and could be used as alternative. Please also notice
that standard connectors like DVI, DP, PCIe, miniPCIe, PCI, Audio Jack, Ethernet and USB is not
included in the list.
Blue text for settings that can be changed. White text for actual setting to be changed via the control keys
(Black text for settings that cannot be changed via control keys)
9 BIOS
The BIOS Setup is used to view and configure BIOS settings for the board. The BIOS Setup is
accessed by pressing the <Del> -key after the Power-On Self-Test (POST) memory test begins and
before the operating system boot begins.
The BIOS settings will be loaded automatically when loading “Restore Default” see “Save & Exit” menu.
In this Users Guide the default settings are indicated by bold. Please notice that “Restore User
Defaults” might have different set of default values.
9.1 Main
BIOS Vendor
Core Version
Compliancy
BIOS Version
Build Date and Time
EC Firmware Version
Board Information
Product Name
PCB ID
Serial #
Part #
Boot Count
System Date
System Time
Access Level
American Megatrends
4.6.5.3
UEFI 2.3; PI 1.2
15
12/19/2013 07:42:40
V1.21 07/05/13
KTHM65/mITX
02
01057774
64120100
10973
[Fri 12/27/2013]
[12:32:43]
Administrator
switch between elements.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
The following table describes the changeable settings:
set to ‘Force to 2.5GT/s’ for
Downstream Ports, this sets an
upper limit on Link operational
speed by restricting the values
advertised by the Upstream
component in its training
sequences. Ehen ‘Auto’ is
selected HW initialized data
will be used.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
Function Selection Description
Target Link Speed
Auto
Force to 2.5GT/s
Force to 5.0GT/s
If supported by hardware and set to ‘Force to
2.5GT/s’ for Downstream Ports, this sets an
upper limit on Link operational speed by
restricting the values advertised by the
Upstream component in its training sequences.
Ehen ‘Auto’ is selected HW initialized data will
be used.
Linux (OS optimized for HyperThreading Technology) and
Disabled for other OS (OS not
optimized for
Hyper-Threading Technology).
When Disabled only one thread
per enabled core is enabled.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
Hyper-threading
(Note1)
Active Processor Cores
Limit CPUID Maximum
Execute Disable Bit
Intel Virtualization
Technology
Note1: Not present when using Intel Celeron B810 CPU.
Disabled
Enabled
All
1
Disabled
Disabled
Enabled
Disabled
Enabled
Enabled for Windows XP and Linux (OS
optimized for Hyper-Threading Technology) and
Disabled for other OS (OS not optimized for
Hyper-Threading Technology). When Disabled
only one thread per enabled core is enabled.
Number of cores to enable in each processor
package.
Disabled for Windows XP
XD can prevent certain classes of malicious
buffer overflow attacks when combined with
supporting OS (Windows Server 2003 SP1,
Windows XP SP2, SuSE Linux 9.2, RedHat
Enterprise 3 Update 3.)
When enabled, a VMM can utilize the additional
hardware capabilities provided by Vanderpool
Technology.
KTHM65 Users Guide
KTD-N0838-A Page 72
BIOS - Advanced
Notes:
Intel HT Technology (Hyper Threading Technology) is a performance feature which allows one core on
the processor to appear like 2 cores to the operating system. This doubles the execution resources
available to the O/S, which potentially increases the performance of your overall system.
Intel VT-x Technology (Virtualization Technology) Previously codenamed "Vanderpool", VT-x represents
Intel's technology for virtualization on the x86 platform. In order to support “Virtualization Technology”
the CPU must support VT-x and the BIOS setting “Intel Virtualization Technology” must be enabled.
Intel SMX Technology (Safer Mode Extensions Technology) is a part of the Trusted Execution
Technology.
Automatic acoustic management (AAM) is a method for reducing acoustic emanations in AT Attachment
(ATA) mass storage devices, such as ATA hard disk drives and ATAPI optical disc drives. AAM is an
optional feature set for ATA/ATAPI devices; when a device supports AAM, the acoustic management
parameters are adjustable through a software or firmware user interface.
The ATA/ATAPI sub-command for setting the level of AAM operation is an 8-bit value from 0 to 255.
Most modern drives ship with the vendor-defined value of 0x00 in the acoustic management setting.
This often translates to the max-performance value of 254 stated in the standard. Values between 128
and 254 (0x80 - 0xFE) enable the feature and select most-quiet to most-performance settings along that
range. Though hard drive manufacturers may support the whole range of values, the settings are
allowed to be banded so many values could provide the same acoustic performance.
Enabled
Disabled
Option to Enable or Disable Automatic Acoustic
Management.
S.M.A.R.T. (Self-Monitoring, Analysis and Reporting Technology; often written as SMART) is a
monitoring system for computer hard disk drives to detect and report on various indicators of reliability,
in the hope of anticipating failures.
System Temperature
System Temperature Ext
CPU Temperature
System Fan Speed
System Temperature Ext Type
Fan Cruise Control
Fan Settings Fan Min limitFan Max limit
CPU Fan Speed
Fan Cruise Control
Fan Settings Fan Min limitFan Max limit
Watchdog Function
: 30ºC/86ºF
: 24ºC/75ºF
: 49.10ºC/120ºF
: 1543 RPM
[ OneWire @ GPIO16]
[Thermal]
35
0
100
: 1374 RPM
[Thermal]
50
0
100
0
Thermal: does regulate fan
speed according to specified
temperature.
Speed: does regulate according
to specified RPM.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
KTHM65 Users Guide
KTD-N0838-A Page 88
Minimum PWM %, can be used to make sure
limit.
Maximum PWM %, can be used to limit the fan
BIOS - Advanced
Function Selection Description
System Temperature Ext
Type
(note1)
Fan Cruise Control
(System Fan)
Fan Settings
(System Fan)
Fan Min limit
(System Fan) (note5) 0 (note6)
Fan Max limit
(System Fan) (note5)
Fan Cruise Control
(CPU Fan)
Fan Settings
(CPU Fan)
Disabled
LM75 @ 0x90
OneWire @ GPIO16
Disabled
Thermal (note2)
Speed
30 – 90 (note2,note3)
1000 – 9999 (note4)
100
(note6)
Disabled
Thermal
Speed
30 – 90 (note3)
1000 – 9999 (note4)
Disabled = Full speed.
Thermal: Regulate according to specified ºC.
Speed: Regulate according to specified RPM.
Minimum PWM %, can be used to make sure
fan is always active. Make sure Min limit < Max
limit.
Maximum PWM %, can be used to limit the fan
noise. Make sure Min limit < Max limit.
Disabled = Full speed.
Thermal: Regulate according to specified ºC.
Speed: Regulate according to specified RPM.
Fan Min limit
(CPU Fan) (note7) 0 (note6)
Fan Max limit
(CPU Fan) (note7)
Watchdog Function 0 - 255 (note8)
Note1: Only visible if external temperature sensor like PN1053-4925 “Cable Temperature Sensor - 44P,
400 mm” is connected.
Note2: Only visible if external temperature sensor is connected and if System Temperature Ext Type is
not Disabled.
Note3: ºC (if Fan Cruise Control = Thermal) use either digit keys to enter value or +/- keys to
increase/decrease value. Don’t use mix of digit keys and +/- keys.
Note4: RPM (if Fan Cruise Control = Speed) use either digit keys to enter value or +/- keys to
increase/decrease value by 100. Don’t use mix of digit keys and +/- keys.
Note5: Only visible if external temperature sensor is connected and if System Fan Cruise Control is
Thermal.
Note6: Use number keys to enter value.
Note7: Only visible if CPU Fan Cruise Control is Thermal.
Note8: Seconds, use digit keys to enter value. Value 0 means Watchdog is disabled. Refer to “KT-APIV2 User Manual” to control the Watchdog via API or refer to “KT-API-V2 User Manual DLL” how to
control Watchdog via Windows DLL.
100
(note6)
fan is always active. Make sure Min limit < Max
noise. Make sure Min limit < Max limit.
0 = Disabled.
Enter the service interval in seconds before
system will reset.
Refer to manual how to reload the timer.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
Function Selection Description
Delay Startup
Note1: To enter number use digit keys and/or +/- keys.
The delay initiates if the value is different from 0, starts at the earliest possible point of the BIOS boot.
For some add-on devices the BIOS boot is too fast for proper detection. In other words, the setting is
meant as a possible fix to Add-on device detection problems.
The “Console Redirection Settings” Menus are only available if related “Console Redirection” is
Enabled. A different menu is available for Serial Port for Out-of-Band Management, see next page.
Console Redirection Settings
Terminal Type
Bits per second
Data Bits
Parity
Stop Bits
Flow Control
VT-UTF8 Combo Key Support
Recorder Mode
Resolution 100x31
Legacy OS Redirection Resolution
Putty Keypad
Redirection After BIOS POST
ASCII char set. VT100: ASCII
char set. VT100+: Extends
VT100 to support color,
function keys, etc. VT-UTF8:
Uses UTF8 encoding to map
Unicode chars onto 1 or more
bytes.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
KTHM65 Users Guide
KTD-N0838-A Page 95
BIOS - Advanced
Function Selection Description
Emulation: ANSI: Extended ASCII char set.
VT100: ASCII char set. VT100+: Extends
VT100 to support color, function keys, etc. VTUTF8: Uses UTF8 encoding to map Unicode
chars onto 1 or more bytes.
Select serial port transmission speed. The
speed must be matched on the other side. Long
or noisy lines may require lower speeds.
Data Bits
A parity bit can be sent with the data bits to
detect some transmission errors.
Even: parity bit is 0 if the num of 1’s in the data
bits is even.
Odd: parity bit is 0 if the num of 1’s in the data
bits is odd.
Mark: parity bit is always 1.
Space: parity bit is always 0.
Mark/Space do not allow error detection.
Stop bits indicate the end of a serial data
packet. (A start bit indicates the beginning).
The standard setting is 1 stop bit.
Communication with slow devices may require
more than 1 stop bit.
Flow control can prevent data loss from buffer
overflow. When sending data, if the receiving
buffers are full, a ´stop´ signal can be sent to
stop the data flow. Once the buffers are empty,
a ´start ‘signal can be sent to re-start the flow.
Hardware flow control uses two wires to send
start/stop signals.
Enable VT-UTF8 Combination Key Support for
ANSI/VT100 terminals.
On this mode enabled only text will be send.
This is to capture Terminal data.
Enables or disables extended terminal
resolution.
On Legacy OS, the Number of Rows and
Columns supported redirection.
Select FunctionKey and KeyPad on Putty.
The settings specify if BootLoader is selected
than Legacy console redirection is disabled
before booting to Legacy OS. Default value is
Always Enable which means Legacy console
Redirection is enabled for Legacy OS.
When “Serial Port for Out-of-Band Management/Windows Emergency Management Services (EMS)” >
“Console Redirection” is enabled:
Terminal Type
Bits per second
Flow Control
Data Bits
Parity
Stop Bits
[VT-UTF8]
[115200]
[None]
8
None
1
Management Services (EMS)
allows for remote management
of a Windows Server OS
through a serial port.
↑↓ : Select Item
Enter: Select
+/- : Change Opt.
F1: General Help
F2: Previous Values
F3: Optimized Defaults
F4: Save & Exit
ESC: Exit
Out-of-Band Mgmt Port
Terminal Type
Bits per second
Flow Control
COM0
COM1
COM2
COM3
COM4 (Pci
Bus0,Dev0,
Func0) (Disabled)
VT100
VT100+
VT-UTF8
ANSI
9600
19200
57600
115200
None
Hardware RTS/CTS
Software Xon/Xoff
Microsoft Windows Emergency Management
Services (EMS) allows for remote management
of a Windows Server OS through a serial port.
VT-UTF8 is the preferred terminal type for outof-band management. The next best choice is
VT100+ and then VT100. See above, in
Console Redirection Settings page, for more
Help with Terminal Type/Emulation.
Select serial port transmission speed. The
speed must be matched on the other side. Long
or noisy lines may require lower speeds.
Flow control can prevent data loss from buffer
overflow. When sending data, if the receiving
buffers are full, a ´stop´ signal can be sent to
stop the data flow. Once the buffers are empty,
a ´start ‘signal can be sent to re-start the flow.
Hardware flow control uses two wires to send
start/stop signals.
Turbo Mode
CPU C3 Report
CPU C6 Report
CPU C7 Report
Config TDP LOCK
Long duration power limit
Long duration maintained
Short duration power limit
ACPI T State