Information in this document is provided in connection with ADLINK products. No license,
express or implied, by estoppel or otherwise, to any intellectual property rights is granted by
this document. Except as provided in ADLINK´s Terms and Conditions of Sale for such products, ADLINK assumes no liability whatsoever, and ADLINK disclaims any express or implied
warranty , relating to sale and/or use of ADLINK products including liability or warranties relating to fitness for a particular purpose, merchantability, or infringement of any patent, copyright or other intellectual property right. If you intend to use ADLINK products in or as medical
devices, you are solely responsible for all required regulatory compliance, including, without
limitation, Title 21 of the CFR (US), Directive 2007/47/EC (EU), and ISO 13485 & 14971, if
any . ADL INK may make changes to specifications and pr oduct descriptio ns at any time, with out notice.
Trademarks
MS-DOS, Windows, Windows 95, Windows 98, Windows NT and Windows XP are trademarks of Microsoft Corporation. PS/2 is a trademark of International Business Machines, Inc.
Intel and Solid State Drive are trademarks of Intel Corporation. PC/104 is a registered trademark of the PC/104 Consortium. All other trademarks appearing in this document are the
property of their respective owners. CoreModule is a registered trademark, and ADLINK, Little Board, LittleBoard, MightyBoard, MightySystem, MilSystem, MiniModule, ReadyBoard,
ReadyBox, ReadyPanel, RuffSystem, and ReadySystem are trademarks of ADLINK Technology, Inc. All other marks are the property of their respective companies.
This document contains proprietary information protected by copyright. All rights are reserved.
No part of this manual may be reproduced by an y mechanical , electronic, or other means in any
form without prior written permission of the manufacturer
Audience
This manual provides reference only for computer design engineers, including but not limited
to hardware and software designers and applications engineers. ADLINK Technology, Inc.
assumes you are qualified to design and implement prototype computer equipment.
ii
LEC-BASE
Environmental Responsibility
ADLINK is committed to fulfill its social responsibility to global environmental preservation
through compliance with the European Union's Restriction of Hazardou s Subst ances (RoHS)
directive and Waste Electrical and Electronic Equipment (WEEE) directive. Environmental
protection is a top priority for ADLINK. We have enforced measures to ensure that our products, manufacturing processes, components, and raw materials have as litt le impact on the
environment as possible. When products are at their end of life, our customers are encouraged to dispose of them in accordance with the product disposal and/or recovery programs
prescribed by their nation or company.
Important Safety Instructions
For user safety, please read and follow all Instructions, WARNINGs, CAUTIONs, and
NOTEs marked in this manual and on the associated equipment before handling/operating
the equipment.
Read these safety instructions carefully.
Keep this manual for future reference.
Read the specifications section of this manual for detailed information on the operating
environment of this equipment.
Turn off power and unplug any power cords/cables when installing/mounting or un-install-
ing/removing equipment.
To avoid electrical shock and/or damage to equipment:
Keep equipment away from water or liquid sources;
Keep equipment away from high heat or high humidity;
Keep equipment properly ventilated (do not block or cover ventilation openings) ;
Make sure to use recommended voltage and power source settings;
Always install and operate equipment near an easily accessible electrical socket-
outlet;
Secure the power cord (do not place any object on/over the power cord);
Only install/attach and operate equipment on stable surfaces and/or recommended
mountings; and,
If the equipment will not be used for long periods of time, turn off the power source and unplug
the equipment.
Appendix A Technical Support ......................................................................................... 21
v
vi
1Overview
USB1_B
USB1_A
HDMI-J6
HDMI-R GB
SI L9022
Codec
TLV320AI
C23BPW
LAN
Transformer
314-pin Connector
USB0
USB2
USB1
USB 2.0
SPI1
Level Shift
buffers
HDMI
RGB 18/24-bit
Header
18/24-bit RGB TTL
GbE
RJ45
10/100/1000
SATA1
SATA Connector
eMMC/SD/SDIO 8-bit
Line OUT
Line IN
SPDIF
Header
SPI0
UART1 (4-pin)
UART3
(2
-pin)
UART4(2
-pin
)
DB9
Camera Input Control Signals
CAM3
I2C LCD
USB 2.0 OTG
PCIE_
A (x1
)
HDMI / (or DP)
Header
24-bit LVDS
SDMMC
SD/SDIO 4-bit
SDIO
CSI1 Camera Input
I
2
2
C CAM
I2S1
I2S1
I C GP
I2S2 / HDA
I2S3
SPDIF
Management Pins
MIC
DB9
UART2 (4-pin)
CAN1 (2-pin)
CSI0 Camera Input
LVDS 18/24-bit
Header
I2C HDMI_CTRL
USB 2.0
(4 ports)
PC1
Header
Vdd, BKL_EN, BKL_CTRL
Boot Select / Force Recovery
DIP switch (4)
Test point
Header
Watchdog Time Out
GPIO (12-pin)
miniPCIe x1
A Slot
PCIe x1 Slot
PCIE_WAKE#
Power ena ble /
disable jumper
DB9
DB9
Header
Header
USB HUB
SMSC
USB2514i
USB
1
_C
miniPCIe x1
B Slot
DB9 (Dual)
GPS
Neo6
USB1_D
G Sensor
MMA7660FCT
EEPROM 4K
RTC
VRTC
I2C_HDMI
LEC_BASE_blkDiag_b
CAM0
CAM1
This initial manual version presents a general overview of the LEC-BASE baseboard including
the signal definitions of the non-standard user interfaces on the board. After reviewing this document you should understand the following features of the LEC-BASE.
Functional Block Diagram
Major Component (IC) Locations and Descriptions
Connector Locations and Descripti on s
Specifications
Non-Standard User Interface Signal Definitions (support is dependent on the specific
SMARC module; refer to the specific SMARC module manual for details)
1.1Block Diagram
Figure 1-1 presents a functional representation of the baseboard.
LEC-BASE
Overview 1
Figure 1-1: Functional Block Diagram
1.2Major Components (ICs)
Table 1-1 lists the major integrated circuits on the LEC-BASE, including a brief description of
each IC. Figure 1-2 shows the locations of the major ICs.
Table 1-1: Major Integrated Circuit Descriptions and Functions
Chip TypeMfg.ModelDescriptionFunction
G-Sensor (U4)Freescale
Semicondu
ctor
Touch Panel
Controller
(U18)
I2C, 2-wire
EEPROM
(U19)
CAN
Transceiver
(U25, U26)
I2S Audio
CODEC (U27)
Real Time
Clock (U36)
GPS Module
(U136)
Texas
Instruments
AtmelAT24C08C2-wire, 8Kb serial
Texas
Instruments
Texas
Instruments
MaximDS1337SI2C Serial Real-Time
u-bloxNEO-Q-0GPS Receiver,
MMA7660FC3-axis Orientation/
Motion Detection
Sensor, connected to
the I2C GP interface at
pins S48 and S49 of
the SMARC connector.
The I2C address is
0x4C/0x4D.
TSC2046Low-Voltage Touch
Controller, connected
to the SPIO interface
at pins P43, P44, P45,
and P46 of the
SMARC connector.
EEPROM, connected
to the I2C LCD
interface at pins S139
and S140 of the
SMARC connector.
The I2C address is
0xA8/0xA9.
SN65HVDA540QDRTransceiver for
Controller Area
Network, connected to
the CAN0 and CAN1
interfaces at pins
P143, P144, P145,
and P146 of the
SMARC connector.
TLV320AIC23BI2S Stereo Audio
CODEC, connected to
the I2S0 interface at
pins S39, S40, S41,
S42 of the SMARC
connector.
Clock, connected to
the I2C LCD interface
at pins S139 and S140
of the SMARC
connector. The I2C
address is 0xD0/0xD1.
connected over the
USB hub to the
SMARC connector at
pins P65 and P66.
Senses data
changes, product
orientation, and
gestures through
an interrupt (INT)
pin.
Senses 4-wire
resistive touch
screen.
Provides storage
for baseboard
parameters
through the I
LCD pins, S139
and S140, on the
SMARC module.
Provides up to 1
Mbps of
differential
transmit and
receive
capabilities for the
CAN controller in
the CPU.
Supports
data-transfer word
lengths of 16, 20,
24, and 32 bits
with sample rates
from 8kHz to
96kHz.
Provides
low-power clock/
calendar with two
programmable
time-of-day
alarms and a
programmable
square-wave
output
Provides
6-positioning
engine for parallel
time/frequency
space searches
1.3Interface Headers, Jumper Headers, Switches, LEDs, and Connectors
Table 1-2 describes the headers, switches, LEDs, and connectors for the LEC-BASE baseboard
shown in Figure 1-3.
Table 1-2: Header, Switch, LED, and Connector Descriptions
Header /
Connector#
AFB2 SD/eMMC Card60-pin terminal for eMMC card
AJ1 Audio Jack32-pin standard audio jack for three audio interfaces: Line
ANT1GPS Antenna3-pin, radio frequency, 50 ohm antenna for receiving GPS
CAM0Camera10-pin header for MIPI CSI1 camera
CAM1Camera10-pin header for MIPI CSI0 camera
CAM3Camera Control10-pin header for I2C clock/data signals on MIPI CSI
CAN1 (two
ports)
CN1Touch Screen4-pin, standard connector for 4-wire resistive touch
CN2 microSD12-pin, standard socket for microSD memory cards
CN4Cell Charger/Battery
CN5MiniDin DC Jack4-pin, female connector for additional power input for
COM1 (two
ports)
COM2 (two
ports)
GPIO1GPIO12-pin header for General Purpose IO
H25Battery29-pin header for smart battery connection
I2S1I2S Devices6-pin header for I2S devices such as audio CODECs,
I2S2I2S Devices6-pin header for I2S devices such as audio CODECs,
I2S3I2S Devices6-pin header for I2S devices such as audio CODECs,
J1SMARC Interface314-pin, MXM socket for Memory, Video, and I/O functions
J3TTL34-pin header for VGA LCD flat panel output
J6HDMI119-pin, standard HDMI micro connector
J8LVDS34-pin header for LVDS output
J9 (AFB1)Auxiliary Devices34-pin header for differential pair and data bit signals
J10I2C2-pin header for general purpose, level-shifted 3.3V, I2C
J11HDMI219-pin, standard HDMI micro connector
J12Battery2-pin header for RTC external battery
J14LVDS Control8-pin head er for LVDS panel and backlight control
JACK1DC Power6-pin, standard, right-angle 19V center-pin, DC power jack
JP2LCD Power Select3-pin, jumper header for LCD 3.3V (1-2) or 5V (2-3) power
JP3I2C Select3-pin, jumper header to select I2C_LCD (clock/data pair)
Signal / DeviceDescription
In (Blue), Line Out (Green), and MIC In (Pink)
signals
camera
CAN BusDual, 9-pin standard DB9 connectors for transmitting and
receiving Controller Area Network signals
controller (not for TTL USB-based touch screen controller
in Starter Kit)
12-pin header for 2-cell, raw lithium ion battery interface to
Supply
UARTDual, 9-pin standard DB9 connectors for RS232 serial
UARTDual, 9-pin standard DB9 connectors for RS232 serial
power the baseboard
auxiliary circuitry
ports
ports
baseband modems, and touch controllers
baseband modems, and touch controllers
baseband modems, and touch controllers (designated also
for HD Audio CODECs)
clock and data signals for the module
selection
for HDMI controller (1-2 default)
4Overview
LEC-BASE
Table 1-2: Header, Switch, LED, and Connector Descriptions (Continued)
JP4Battery Charger
Enable
JP5Cell Charger Present3-pin jumper header to accept charging (1-2 if cell present;
JP6Cell Charger Voltage3-pin jumper header for I2C voltage selection (pins 2-3 for
JP7Cell Protection IC, I2C
Signal Pair
JP8LCD/LVDS Select
(High = 1-2; Low = 2-3)
JP9LCD/LVDS Select
(High = 1-2; Low = 2-3)
JP10LVDS3-pin jumper header for selecting strobe for LVDS
JP11LVDS3-pin jumper header for powering ON/OFF LVDS
JP21DC-OUT3-pin jumper header to override (1-2) or not override (2-3)
LAN1Ethernet8-pin, standard RJ45 jack for Gigabit Ethernet port
LED1USBGreen LED indicating USB is operational
LED2Mini PCIE1Green LED indicating WAN
LED3Mini PCIE2Green LED indicating WAN
LED4nLIDGreen LED indicating active low LID signal is asserted
LED5nSLEEPGreen LED indicating active low SLEEP signal is asserted
LED6nBATLOWGreen LED indicating active low BATLOW signal is
LED7SATAGreen LED indicating SATA activity
LED8SD CardGreen LED indicating over current on SD card
LED9USBGreen LED indicating USB is operational
LED11Cell Protection ICGreen LED indicating battery pack conditions
3-pin jumper header for enabling the smart battery/cell
charger: ON (1-2) or OFF (2-3)
2-3 if cell not present)
2.5V or pins 1-2 for 3.3V) between cell and charger
3-pin header to allow Texas Instruments software to
communicate with the cell protection IC: 1=Data, 2=Clock,
and 3=GND
3-pin jumper header to make selection between LCD and
LVDS (JP9 Low and JP8 High = LVDS; JP9 High and JP8
Low = LCD; JP9 High and JP8 High = None)
3-pin jumper header to make selection between LCD and
LVDS (JP9 Low and JP8 High = LVDS; JP9 High and JP8
Low = LCD; JP9 High and JP8 High = None)
converter: rising edge 1-2, falling edge 2-3
controller: ON 1-2, OFF 2-3
3-pin jumper header for backlight power management to
select 3V (1-2) or 5V (2-3)
3-pin jumper header for panel power to select 3V (1-2) or
5V (2-3)
3-pin jumper header for backlight power management to
select 12V (1-2) or 5V (2-3)
3-pin jumper header tor selecting I2C_HDMI for HDMI
controller (2-3 Default)
and 8 (Pins 2-3 to ground boot_sel0; pins 1-2 to float
boot_sel0)
and 8 (Pins 2-3 to ground boot_sel1; pins 1-2 to float
boot_sel1)
and 8 (Pins 2-3 to ground boot_sel2; pins 1-2 to float
boot_sel2)
3-pin jumper header for Boot Select Switch SW1 pins 4
and 5 (Pins 2-3 to ground force_recover; pins 1-2 to float
force_recover)
3-pin jumper header for VIO 1.8V (1-2) [no other option is
valid, as defined by the SMARC specification]
power button (PWRON1) for automatic Power On testing
asserted
Overview 5
Table 1-2: Header, Switch, LED, and Connector Descriptions (Continued )
LED12Cell Protection ICGreen LED indicating battery pack conditions
LED13Cell Protection ICGreen LED indicating battery pack conditions
LED14Cell Protection ICGreen LED indicating battery pack conditions
LED15Cell Protection ICGreen LED indicating battery pack conditions
LED16PowerGreen LED indicating power asserted to baseboard
MINIPCIE1PCIE Mini Card52-pin, standard, right-angle socket for PCI Express Mini
Card
MINIPCIE2PCIE Mini Card52-pin, standard, right-angle socket for PCI Express Mini
Card
PC1TTL Panel Control6-pin header for control signals to flat panel display
PCIE1PCI Express36-pin, standard edge connector for x1 PCI Express
interface
PWM1Power Management14-pin header for Power Management signals
PWRON1Power On4-pin, push-button switch to turn on 12V to baseboard
PWRON2Power On4-pin, push-button switch to assert POWER_nBTN signal
for SMARC connector
SATA1SATA7-pin, standard Serial ATA connector with attached 15-pin
power connection
SD2SD Card SlotStandard slot connector for Secure Digital memory card
SIM1SIM SlotStandard slot connector for Subscriber Identity Module
SIM2SIM SlotStandard slot connector for Subscriber Identity Module
SPDIF1SPDIF-OUT Audio Standard connector for SPDIF digital audio interface
SPI0System Packet
Interface
SPI1System Packet
Interface
SW15Reset SwitchPush-button switch to warm reset the module
USBC1USB4-stack, standard USB 2.0 connector
USB1Micro-USBStandard connector for micro-USB interface, OTG
USB2USBStandard connector for single USB 2.0 interface
5-pin header for SPI interface
4-pin header for SPI interface
6Overview
JACK1
PWRON1
PWRON2
SD2
LED8
LED16
LED2
LED1
LED3
LED9
MINIPCIE1MINIPCIE2
LED7
CN2
H25
CN4
LAN1
COM1
COM2
CAN1
USBC1
USB2
USB1
SIM1
SIM2
JP13
SPI0
SPI1
PC1
CAM3
CAM1
CAM0
PCIE1
J3
J10
J12
LED6
LED5
LED4
J8
J14
AJ1
SPDIF1
JP12
CN1
I2S3
I2S2
I2S1
J11
J1
S1
P1
J6
J9
(AFB1)
AFB2
SATA 1
JP2
JP14
JP8
JP9
CN5
JP4
JP20
JP15
JP7
JP6
JP5
JP3
LED15
LED14
LED13
LED12
LED11
PWM1
JP21
JP10
JP11
ANT1
GPIO1
SW15
LEC-BASE_Baseboard_Top_Conn_c
JP19
JP18
JP17
JP16
Key:
AFB2 - Alternate Function Block 2
AJ1 - Audio Jack
ANT1 - GPS Antenna
CAM0 - Camera 0
CAM1 - Camera 1
CAM3 - Camera 3
CAN1 - Controller Area Network (Dual Ports)
CN1 - 4-wire Resistive Touch Controller
CN2 - microSD (8 bits)
CN4 - Cell Charger/Battery Supply
CN5 - MiniDin DC Jack
COM1 - UART (Dual Ports)
COM2 - UART (Dual Ports)
PC1 - TTL Panel Control
PCIE1 - PCI Express
PWM1 - Power Management
PWRON1 - Power On
PWRON2 - Power On
SATA1 - SATA
SD2 - SD Card Slot
SIM1 - SIM Slot
SIM2 - SIM Slot
SPDIF1 - SPDIF OUT
SPI0 - System Packet Interface
SPI1 - System Packet Interface
SW15 - Reset Switch
USBC1 - USB
USB1 - Micro USB
USB2 - USB
NOTE: The larger black pins
each represent pin 1
LAN1 - Ehternet
LED1 - USB
LED2 - Mini PCIE1
LED3 - Mini PCIE2
LED4 - nLID
LED5 - nSLEEP
LED6 - nBATLOW
LED7 - SATA
LED8 - SD Card (4 bits)
LED9 - USB
LED11 - Cell Protection IC
LED12 - Cell Protection IC
LED13 - Cell Protection IC
LED14 - Cell Protection IC
LED15 - Cell Protection IC
LED16 - Power
MINIPCIE1 - PCIe Mini Card
MINIPCIE2 - PCIe Mini Card
JP2 - LCD Power Select
JP3 - Select I2C_LCD for J11
Figure 1-3: Connector Locations (Top Side)
LEC-BASE
Overview 7
1.4Specifications
6.89" (175mm)
2.32" (59mm)
6.73" (171mm)
12.99" (330mm)
LEC-BASE_Top_MechDmn_b
1.4.1Physical Specifications
Table 1-3 lists the physical dimensions of the baseboard.
Table 1-3: Weight and Footprint Dimensions
ItemDimension
Weight0.42 kg (0.93 lb)
Height (overall)33.02 mm (1.30 inches)
Board thickness2.03 mm (0.08 inches)
Width175.00 mm (6.89 inches)
Length330.00 mm (12.99 inches)
1.4.2Mechanical Specifications
Overall height is measured from the upper board
surface to the top of the highest permanent
component on the upper board surface. This
measurement does not include the cooling solution,
which can vary. The cooling solution will probably
increase this dimension.
Figure 1-4: Mechanical Dimensions (Top Side)
8Overview
2Interface Signals
This section provides the pin signals for all the non-standard user interfaces on the LEC-BASE.
Signal definitions for standard interfaces such as SATA, USB, PCIe, and DB9 serial connectors
can be found in their respective specification data sheets.
NOTE: The tables in this section define pin sequence using the method in the following example: A 10-pin header with two rows of pins, using odd/even numbering, where pin 2 is directly
across from pin 1, is noted as 10 pins, 2 rows, odd/even pin sequence (1, 2).
2.1.1SD/eMMC (AFB2) Interface
Table 2-4 lists the pin signals of the SD Card ground plane socket, which provides 60-pins, 2
rows, odd/even pin sequence (1, 2) with 0.02" (0.50mm) pitch. These signals are connected to
the SD/eMMC interface at pins S26 through S36 of the SMARC connector over a 3.3 volt level
shifter.
NOTE: The shaded table cells denote power or ground.
2.1.2Camera 0 (CAM0)
Table 2-5 lists the pin signals of the Camera0 header, which provides 10-pins, 2 rows, odd/even
pin sequence (1, 2) with 0.079" (2.00mm) pitch. These signals are connected directly to the MIPI
CSI camera interface at the SMARC connector.
Table 2-6 lists the pin signals of the Camera1 header, which prov id es 1 0- pins, 2 rows , od d/even
pin sequence (1, 2) with 0.079" (2.00mm) pitc h. These signals are connected to the camera
control signals at the SMARC connector.
Table 2-7 lists the pin signals of the Camera 3 header, which provides 10-pins, 2 rows, odd/even
pin sequence (1, 2) with 0.079" (2.00mm) pitc h. These signals are connected to the camera
control signals at the SMARC connector.
Table 2-7: Camera 3 Pin Signals (CAM3)
Pin #Signal
1CAM0_nPWR
2I2C_CAM_CLK_1.8V
3Not Connected
4I2C_CAM_DATA_1.8V
5Not Connected
6Not Connected
7CAM0_nRST_3V over the 3.3V level shifter
8Not Connected
95 Volt
10Not Connected
Interface Signals 11
2.1.5Controller Area Network (CAN1)
Table 2-8 and T able 2-9 list the pin signals of the Controller Area Network interface (CAN1A and
CAN1B), which provides standard dual DB9 connectors.
Table 2-8: Controller Area Network Signals (CAN1A)
Pin #Signal
1
2CAN1_H
3
4
5
6
7CAN1_L
8
9
NOTE: These pins are connected over the CAN transceiver to the CAN0 SMARC connector
interface (pins P143 and P144.)
Pin #Signal
1
2CAN2_H
3
4
5
6
7CAN2_L
8
9
Not Connected
Not Connected
Not Connected
GND
Not Connected
Not Connected
5 Volt
Table 2-9: Controller Area Network Signals (CAN1B)
Not Connected
Not Connected
Not Connected
GND
Not Connected
Not Connected
5 Volt
NOTE: These pins are connected over the CAN transceiver to the CAN1 SMARC connector
interface (pins P145 and P146.)
2.1.6Cell Charger/Battery Supply (CN4)
Table 2-10 lists the pin signals of the Cell Charger/Battery Supply header, which provides 12
pins in 2 rows, odd/even pin sequence (1, 2), and 0.079" (2.00mm) pitch.
Table 2-10: Cell Charger/Battery Supply (CN4)
Pin #Signal
1
2+VE
3
4
5
6
7
8
9
10
11
12
Therm1
Cell_4 (positive terminal of); connected to pins 2, 4, 6
+VE
Cell_3 (positive terminal of)
+VE
Cell_2
(positive terminal of)
-VE
Cell_1 (positive terminal of)
-VE
-VE (negative terminal of); connected to pins 8, 10, 12
-VE
12Interface Signals
LEC-BASE
2.1.7GPIO1
Table 2-11 lists the pin signals of the General Purpose IO header, which provides 12 pins in 2
rows, odd/even pin sequence (1, 2), and 0.079" (2.00mm) pitch. These pins are connected to
the SMARC connector over the 3.3 volt level shifter.
Ta bl e 2-11: General Purpose IO (GPIO1)
Pin #Signal
1
2
3
4
5
6
7
8
9
10
11
12
GPIO_28_3V (connected to SMARC pin P119)
CAM0_nPWREN_3V
(connected to SMARC pin P108)
GPIO_29_3V (connected to SMARC pin P112)
CAM1_nPWREN_3V
(connected to SMARC pin P109)
GPIO_177_3V (connected to SMARC pin P116)
CAM0_nRST_3V (connected to SMARC pin P110)
GPIO_54_3V (connected to SMARC pin P117)
CAM1_nRST_3V
(connected to SMARC pin P111)
GPIO_55_3V (connected to SMARC pin P113)
CAM_FLD_3V
(connected to SMARC pin P115)
GPIO_56_3V (connected to SMARC pin P114)
GPIO_27_3V (connected to SMARC pin P118)
NOTE: Signal names relative only to the LEC-3517 module.
2.1.8Smart Battery (H25)
Table 2-12 lists the pin signals of the Smart Battery header, which provides 9 pins in a single row
with 0.079" (2.00mm) pitch. These signals are connected to and controlled by the onboard
LTC1760 smart battery charger controller.
+VE (battery and charging voltage)
+VE (battery and charging voltage)
+VE (battery and charging voltage)
1760_SCL1
(I2C bus from LTC1760 charger controller)
1760_SDA1 (I2C bus from LTC1760 charger controller)
GND
GND
Interface Signals 13
2.1.9I2S1
Table 2-13 lists the pin signals of the I2S1 header, which provides 6 pins in a single row with
0.098" (2.50mm) pitch. These pins are connected to the SMARC connector over the 3.3 volt
level shifter.
Table 2-13: I2S1 Signals (I2S1)
Pin #Signal
1
2
3
4
5
6
VDD_3V3
MCBSP1_FSX_3V (connected to SMARC pin S39)
MCBSP1_DX_3V (connected to SMARC pin S40)
MCBSP1_DR_3V (connected to SMARC pin S41)
MCBSP1_CLKX_3V (connected to SMARC pin S42)
GND
NOTE: Shaded table cells denote power or ground.
2.1.10I2S2
Table 2-14 lists the pin signals of the I2S2 header, which provides 6 pins in a single row with
0.098" (2.50mm) pitch. These pins are connected to the SMARC connector over the 3.3 volt
level shifter.
Table 2-14: I2S2 Signals (I2S2)
Pin #Signal
1
2
3
4
5
6
VDD_3V3
MCBSP2_FSX_3V (connected to SMARC pin S43)
MCBSP2_DX_3V (connected to SMARC pin S44)
MCBSP2_DR_3V (connected to SMARC pin S45)
MCBSP2_CLKX_3V (connected to SMARC pin S46)
GND
NOTE: Shaded table cells denote power or ground.
2.1.11I2S3
Table 2-15 lists the pin signals of the I2S3 header, which provides 6 pins in a single row with
0.098" (2.50mm) pitch. These pins are connected to the SMARC connector over the 3.3 volt
level shifter.
Table 2-15: I2S3 Signals (I2S3)
Pin #Signal
1
2
3
4
5
6
NOTE: Shaded table cells denote power or ground.
VDD_3V3
MCBSP3_FSX_3V (connected to SMARC pin S50)
MCBSP3_DX_3V (connected to SMARC pin S51)
MCBSP3_DR_3V (connected to SMARC pin S52)
MCBSP3_CLKX_3V (connected to SMARC pin S53)
GND
14Interface Signals
LEC-BASE
2.1.12Alternate Function Block 1 (J9)
Table 2-16 lists the pin signals of the Alternate Function Block 1 header which provides 34-pins,
2 rows, odd/even pin sequence (1, 2) with 0.079" (2.0mm) pitch. These pins are connected
dirctly to the SMARC connector.
Table 2-16: Alternate Function Block 1 Interface Pin Signals (J9)
Pin #Signal
1
2VDD_5V
3
4GND
5
6
7
8
9
10GND
11
12
13
14
15GND
16GND
17
18
19GND
20
21
22GND
23
24
25
26
27
28GND
29GND
30
31
32
33
34GND
VDD_5V
AFB0_OUT (connected to SMARC pin S17)
GND
AFB_DIFF0+ (connected to SMARC pin S62)
AFB1_OUT
AFB_DIFF0AFB2_OUT
GND
AFB_DIFF1+ (connected to SMARC pin S65)
AFB3_IN
AFB_DIFF1-
AFB4_IN (connected to SMARC pin S21)
AFB_DIFF2+
AFB_DIFF2AFB5_IN
GND
AFB_DIFF3+
AFB6_PTIO
AFB_DIFF3AFB7_PTIO
AFB_DIFF4+
AFB8_PTIO
AFB_DIFF4AFB9_PTIO
(connected to SMARC pin S18)
(connected to SMARC pin S63)
(connected to SMARC pin S19)
(connected to SMARC pin S20)
(connected to SMARC pin S66)
(connected to SMARC pin S68)
(connected to SMARC pin S69)
(connected to SMARC pin S22)
(connected to SMARC pin S71)
(connected to SMARC pin S23)
(connected to SMARC pin S72)
(connected to SMARC pin S24)
(connected to SMARC pin S74)
(connected to SMARC pin S55)
(connected to SMARC pin S75)
(connected to SMARC pin S56)
NOTE: The shaded table cells denote ground or power.
Interface Signals 15
2.1.13I2C (J10)
Table 2-17 lists the pin signals of the I2C header, which provides 2 pins with 0.049" (1.25mm)
pitch. These pins are connected to the SMARC connector over the 3.3 volt level shifter.
Table 2-17: I2C Signals (J10)
Pin #Signal
1
2
I2C_GP_DAT_3V (connected to SMARC pin S48)
I2C_GP_CK_3V (connected to SMARC pin S49)
2.1.14Battery (J12)
Table 2-18 lists the pin signals of the battery header, which provides 2 pins with 0.049"
(1.25mm) pitch.
Table 2-18: Battery Signals (J12)
Pin #Signal
1
2
V_RTC
GND
NOTE: Shaded table cells denote power or ground.
2.1.15LVDS Con trol (J14)
Table 2-19 lists the pin signals of the Smart Battery header, which provides 8 pins in two rows
with odd/even pin sequence (1,2) and 0.01" (2.54mm) pitch.
Table 2-19: LVDS Control Signals (J14)
Pin #Signal
1
2
3
4GND
5
6GND
7
8
GND
PNLPWR (display supply voltage, selectable with JP13)
LVDS_BKL_CTRL (backlight control, selectable with JP12)
LCD_nEN (backlight enable)
Not Connected
BLPWR
(backlight supply voltage, selectable with JP14)
NOTE: Shaded table cells denote ground.
2.1.16TTL Panel Control (PC1)
Table 2-20 lists the pin signals of the TTL Panel Control header, which provides 6 pins in a single row with 0.098" (2.50mm) pitch. These pins are connected directly to the display control pins
at the SMARC connector.
Table 2-20: LVDS Control Signals (PC1)
Pin #Signal
1
2
3
4Not Connected
5Not Connected
6LCD_RESET (Active Low)
LCD_DE (connected over the 3.3 volt level shifter)
LCD_BKLT_PWM
LCD_VDD_EN
16Interface Signals
LEC-BASE
2.1.17Power Management (PW1)
Table 2-21 lists the pin signals of the Power Management header, which provides 14 pins in 2
rows, odd/even pin sequence (1, 2), and 0.079" (2.00mm) pitch. These pins are connected
directly to the Power Management pins at the SMARC connector.
Table 2-22 lists the pin signals of the System Packet Interface 0 header, which provides 5 pins in
a single row with 0.098" (2.50mm) pitch. These pins are connected to the SMARC connector
over the 3.3 volt level shifter.
Table 2-22: System Packet Interface 0 Signals (SPI0)
Pin #Signal
1
2
3
4
5
SPI2_CLK_3V (connected to SMARC pin P56)
SPI2_SOMI_3V (connected to SMARC pin P57)
SPI2_SIMO_3V (connected to SMARC pin P58)
SPI2_CS0_3V
SPI2_CS1_3V
(connected to SMARC pin P54)
(connected to SMARC pin P55)
NOTE: The signals for this header are defined by the module CPU as “SPI2”, but the header is
labelled “SPI0” on the board.
2.1.19SPI1
Table 2-23 lists the pin signals of the System Packet Interface 1 header, which provides 4 pins in
a single row with 0.098" (2.50mm) pitch. These pins are connected to the SMARC connector
over the 3.3 volt level shifter.
Table 2-23: System Packet Interface 1 Signals (SPI1)
Pin #Signal
1
2
3
4
SPI1_CS0_3V (connected to SMARC pin P43)
SPI1_CLK_3V (connected to SMARC pin P44)
SPI1_SOMI_3V (connected to SMARC pin P45)
SPI1_SIMO_3V
(connected to SMARC pin P46)
Interface Signals 17
2.1.20LVDS
Table 2-24 lists the pin signals of the LVDS header which provides 34-pins, 2 rows, odd/even p in
sequence (1, 2) with 0.079" (2.0mm) pitch. These pins are connected directly to the LVDS interface at the SMARC connector.
Table 2-24: LVDS Interface Pin Signals (J8)
Pin #SignalDescription
1I2C_LCD_DATSystem Management Data
2I2C_LCD_CKSystem Management Clock
3
4
5GNDGround
6LVDS_A0NData Negative Output
7LVDS_A0PData Positive Output
8LCD_BLPWM_3VBacklight PWM(3.3V)
9LVDS_A1NData Negative Output
10LVDS_A1PData Positive Output
11LVDS_BL_ENBacklight Enable, if supported
12LVDS_A2PData Positive Output
13L VDS_A2NData Negative Output
14eDP_HPDDisplay Port Control
15LVDS_CKNClock Negative
16LVDS_CKPClock Positive
17
18LVDS_A3PData Positive Output
19L VDS_A3NData Negative Output
20
21LCD_DUAL_PCKLCD Dual Display Pixel Clock
22LCD_BKLTPWM_5VLCD Backlight Power Management (5V)
23
24LCD_BKEN_5VLCD Backlight Enable (5V)
25SEL68Connected over 4.7 KOhm to GND
26
27R/LConnected over 4.7 KOhm to 3.3V
28NCNot Connected
29
30VDD_3V33.3V Supply
31U/DConnected over 4.7 KOhm to 3.3V
32
33REVConnected over 4.7 KOhm to 3.3V
34
PNL_PWRPanel Power [JP2 (1-2) for 5V, (2-3) for 3.3V]
PNL_PWRPanel Power [JP2 (1-2) for 5V, (2-3) for 3.3V]
PNL_PWRPanel Power [JP2 (1-2) for 5V, (2-3) for 3.3V]
GNDGround
GNDGround
GNDGround
GNDGround
VDD_5V5V Supply
GNDGround
NOTE: The shaded table cells denote power or ground.
18Interface Signals
LEC-BASE
2.1.21TTL
Table 2-25 lists the pin signals of the TTL header which provides 34-pins, 2 rows, odd/even pin
sequence (1, 2) with 0.079" (2.0mm) pitch. These pins are connected directly to the LCD interface at the SMARC connector .
Table 2-25: TTL Video Interface Pin/Signal Descriptions (J3)
Pin #SignalDescription
1FP0Flat Panel 0 – data output, Blue0 (24-bit)
2FP16Flat Panel 16 – data output, Red0 (24-bit)
3FP1Flat Panel 1 – data output, Blue1 (24-bit)
4FP17Flat Panel 17 – data output, Red1 (24-bit)
5FP2 Flat Panel 2 – data output, Blue0 (18-bit); Blue2 (24-bit)
6FP18Flat Panel 18 – data output, Red0 (18-bit), Red2 (24-bit)
7FP3Flat Panel 3 – data output, Blue1 (18-bit); Blue3 (24-bit)
8FP19Flat Panel 19 – data output, Red1 (18-bit), Red3 (24-bit)
9FP4Flat Panel 4 – data output, Blue2 (18-bit); Blue4 (24-bit)
10FP20Flat Panel 20 – data output, Red2 (18-bit), Red4 (24-bit)
11FP5Flat Panel 5 – data output, Blue3 (18-bit); Blue5 (24-bit)
12FP21Flat Panel 21 – data output, Red3 (18-bit), Red5 (24-bit)
13FP6Flat Panel 6 – data output, Blue4 (18-bit); Blue6 (24-bit)
14FP22Flat Panel 22 – data output, Red4 (18-bit), Red6 (24-bit)
15FP7Flat Panel 7 – data output, Blue5 (18-bit); Blue7 (24-bit)
16FP23Flat Panel 23 – data output, Red5 (18-bit), Red7 (24-bit)
17FP8Flat Panel 8 – data output, Green0 (24-bit)
18VSYNCVertical Sync
19FP9Flat Panel 9 – data output, Green1 (24-bit)
20HSYNCHorizontal Sync
21FP10Flat Panel 10 – da ta output, Green0 (18-bit), Green2 (24-bit)
22LCD_PCLKPixel Clock – This signal provides the clock for transferri ng digital pixel data
23FP11Flat Panel 11 – data output, Green1 (18-bit), Green3 (24-bit)
24
25FP12Flat Panel 12 – da ta output, Green2 (18-bit), Green4 (24-bit)
26
27FP13Flat Panel 13 – da ta output, Green3 (18-bit), Green5 (24-bit)
28
29FP14Flat Panel 14 – da ta output, Green4 (18-bit), Green6 (24-bit)
30
31FP15Flat Panel 15 – da ta output, Green5 (18-bit), Green7 (24-bit)
32
33
34
VDD_5V5 Volt Supply
VDD_5V5 Volt Supply
VDD_5V5 Volt Supply
LCD_3V33.3 Volt Supply
LCD_3V33.3 Volt Supply
GNDGround
GNDGround
NOTE: The shaded table cells denote power or ground.
Interface Signals 19
20Interface Signals
Appendix A Technical Support
Contact us should you require any service or assistance.
ADLINK Technology, Inc.
Address: 9F, No.166 Jian Yi Road, Zhonghe District
New Taipei City 235, Taiwan
ᄅקؑխࡉ৬ԫሁ 166 ᇆ 9 ᑔ
Tel: +886-2-8226-5877
Fax: +886-2-8226-5717
Email: service@adlinktech.com
Ampro ADLINK Technology, Inc.
Address: 5215 Hellyer Avenue, #110, San Jose, CA 95138, USA
Tel: +1-408-360-0200
Toll Free: +1-800-966-5200 (USA only)
Fax: +1-408-360-0222
Email: info@adlinktech.com
ADLINK Technology (China) Co., Ltd.
Address: Ϟ⍋Ꮦ⌺ϰᮄᓴ∳催⾥ᡔು㢇䏃 300 ো(201203)
300 Fang Chun Rd., Zhangjiang Hi-Tech Park,
Pudong New Area, Shanghai, 201203 China
Tel: +86-21-5132-8988
Fax: +86-21-5132-3588
Email: market@adlinktech.com
ADLINK Technology, Inc. provides a number of methods for contacting Technical Support listed
in Table A-1 below. Requests for support through Ask an Expert are given the high est prior itie s,
and usually will be addressed within one working day.
ADLINK Ask an Expert – This is a comprehensive support center designed to meet all
your technical needs. This service is free and available 24 hours a day through the
ADLINK web site at http://www.adlinktech.com/AAE/
base of Frequently Asked Questions, which will help you with the common information
requested by most customers. This is a good source of information to look at first for your
technical solutions. However, you must register online if you wish to use the Ask a Question feature.
ADLINK strongly suggests that you register with the web site. By creating a profile on the
ADLINK web site, you will have a portal page called “My ADLINK”, unique to you with
access to exclusive services and account information.
Personal Assistance – You may also request personal assistance by creating an Ask an
Expert account and then going to the Ask a Question feature. Requests can be submitted 24 hours a day, 7 days a week. You will receive immediate confirmation that your
request has been entered. Once you have submitted your r equest, yo u m ust log in to go
to the My Question area where you can check status, update your request, and access
other features.
Download Service – This service is also free and available 24 hours a day at
http://www.adlinktech.com
. For certain downloads such as technical documents and sof t-
ware, you must register online before you can log in to this service.
. This includes a searchable data-
LEC-BASE
Table A-1: Technical Support Contact Information
MethodContact Information
Ask an Experthttp://www.adlinktech.com/AAE/
Web Si tehttp://www.adlinktech.com
Standard Mail
21
Table A-1: Technical Support Contact Information (Continued)
ADLINK Technology Beijing
Address:࣫ҀᏖ⍋⎔Ϟഄϰ䏃 1 োⲜ߯ࡼ E ᑻ 801 ᅸ(100085)
Rm. 801, Power Creative E, No. 1 Shang Di East Rd.
Beijing, 100085 China
Tel: +86-10-5885-8666
Fax: +86-10-5885-8626
Email: market@adlinktech.com
ADLINK Technology Shenzhen
Address:⏅ഇᏖቅ⾥ᡔು催ᮄϗ䘧᭄ᄫᡔᴃು
A1 2 ὐ C (518057)
2F, C Block, Bldg. A1, Cyber-Tech Zone, Gao Xin Ave. Sec. 7
High-Tech Industrial Park S., Shenzhen, 518054 China
Tel: +86-755-2643-4858
Fax: +86-755-2664-6353
Email: market@adlinktech.com