.............................................................. 54API List and Descriptions
4.3
Revision: 1.2
4
Revision: 1.2
AR-R5800 System
System Installation Guide
1 Introduction to AR-R5800
5
Revision: 1.2
AR-R5800 series is a 1U height, rack-mounted platform for networking appliance, e.g. VPN,
SSL, UTM or firewall. With Intel advanced Core 2 Quad / Duo / Pentium / Celeron CPU,
AR-R5800 is a powerful platform to satisfy different applications. By eight
10/100/1000Mbps LANs, the AR-R5800 is sufficient for the small to middle size business
security solution.
AR-R5800 series can be equipped with 2 x HDD for RAID 0/1 redundancy. Customers
don’t need to worry about data lost due to HDD defected problem. With LCM module,
users can easily understand system status. BIOS, GPIO and Jumper can control LAN
bypass feature. It provides flexibility to access Internet by user setting. It also has
standard PCIe x 8 slot. Customers can purchase suitable add-on card to meet their
appliance.
Key features:
1. Support Intel Core 2 Quad or Core 2 Duo or Pentium or Celeron CPU
2. Intel G41 + ICH7R Chipset to support RAID 0/1 redundancy
3. DDRIII DIMM x 2, up to 4GB memory
4. Intel 82574L 10/100/1000Mbps x 6 + 82541PI 10/100/1000Mbps x 2
5. Two pairs LAN ports support bypass feature (LAN 1/2 + LAN 3/4)
6. LAN bypass can be controlled by BIOS, GPIO and Jumper
7. CF socket, 2.5” HDD x 2, SATA II interface x 2
8. Console, VGA (pinhead), USB 2.0 x 4 (2 x connectors, 2 x pin head)
9. Support boot from LAN, console redirection
10. Support standard PCIe x 8 slot for feature expansion
11. LCM module to provide user-friendly interface
12. Standard 1U rack mount size
1.1 Specifications
Item Description
System AR-R5800
CPU Board AR-B5800
System Dimensions 442.4x371.5x44(mm)
1.2 Packing List
6
Revision: 1.2
Description Quantity
AR-R5800 system 1
Console Cable(RJ45) 1
Quick user manual 1
CD with Driver and Manual 1
SATA cable 2
USA or Europe or Japan or UK power
cord
Rack bracket 2
Screw for bracket (for Rack + HDD
bracket)
Power cord hook 1
1.3 System Dissection
(1) Dimensions
1
14
(2) Front Panel
7
LCM Module
Revision: 1.2
Reset
LEDs
Console
USB*2
Lan*8 Keypad
(3) Back Panel
PCIe x 8 slot Power Inlet
(4) System Configuration
8
Revision: 1.2
Item Description Quantity
9
Revision: 1.2
1 TOP COVER 1
2 POWER SUPPLY 1
3 POWER BRACKET 1
4 HDD BRACKET 1
5 BOTTOM BASE 1
6 1U EAR BRACKET 2
7 MEMBRANE 1
8 AR-B5800 1
9 SHEET FLOW 1
10 FAN 2
11 CPU SINK 1
12 CPU SINK BKT 2
13 INTERFACE BKT 1
14 FAN 2
15 RISER CAR & BKT 1
10
Revision: 1.2
2 Procedures of Assembly/Disassembly
2.1 2.5” HDD Installation
The following instructions will guide you to install 2.5” HDD step-by-step.
1. Unfasten 2 screws of chassis top cover and take off it.
2. Release HDD bracket by unfastening 4 screws.
11
Revision: 1.2
3. Take out HDD screws from packing bag.
4. Fix HDD with HDD bracket by 4 screws.
12
Revision: 1.2
5. Fix HDD with HDD bracket by 4 screws.
13
Revision: 1.2
6. Plug SATA power cable into motherboard.
7. The SATA power cable MUST go through below M/B power cable, please follow
below photo.
14
Revision: 1.2
8. Connect SATA cable and SATA power cable with HDD module.
9. Assemble top cover back by fastening the 2 screws.
15
2.2 CF Card Installation
1. Open the top cover (the same as above steps).
2. Push CF card into CF socket.
Revision: 1.2
3. Finish the CF card installation.
16
Revision: 1.2
2.3 Power Cord Hook Installation
1. Take out the hook from packing bag.
2. Install the hook from right side firstly.
3. Then install the hook by left side.
17
Revision: 1.2
2.4 PCIe Card Installation
1. Unfasten two screws of PCIe bracket and then take out the PCIe card bracket.
2. Release the PCIe dummy bracket.
18
Revision: 1.2
3. Fix the PCIe card with PCIe bracket.
4. Plug the PCIe module into PCIe slot following below direction.
19
Revision: 1.2
5. Fasten the 2 screws in order to firm the PCIe module.
20
Revision: 1.2
2.5 Rack Bracket Installation
1. Take out the screws and Rack bracket from packing bag.
2. Fixed the Rack bracket to Chassis by fastening 6 screws.
21
Revision: 1.2
AR-B5800 Board
Intel® Core™2 LGA775 PROCESSOR
Networking Board
Board Guide
Manual Rev.: 1.0
Book Number: AR-B5800-201
1.01.10
22
Revision: 1.2
1 Introduction
AR-B5800 is designed for rack-mounted platform for networking appliance, e.g. VPN, SSL,
UTM or firewall. With Intel advanced Core 2 Quad / Duo / Pentium / Celeron CPU,
AR-B5800 is a powerful platform to satisfy different applications. By eight
10/100/1000Mbps LANs, the AR-B5800 is sufficient for the small to middle size business
security solution.
AR-B5800 can install 2 x HDD for RAID 0/1 redundancy. Customers don’t need to worry
about data lost due to HDD defected problem. BIOS, GPIO and Jumper can control LAN
bypass feature. It provides flexibility to access Internet by user setting. It also has
standard PCIe x 8 slot. Customers can purchase suitable add-on card to meet their
appliance.
Key features:
1. Support Intel Core 2 Quad or Core 2 Duo or Pentium or Celeron CPU
2. Intel G41 + ICH7R Chipset to support RAID 0/1 redundancy
3. DDRIII DIMM x 2, up to 4GB memory
4. Intel 82574L 10/100/1000Mbps x 6 + 82541PI 10/100/1000Mbps x 2
5. Two pairs LAN ports support bypass feature (LAN 1/2 + LAN 3/4)
6. LAN bypass can be controlled by BIOS, GPIO and Jumper
7. CF socket, 2.5” HDD x 2, SATA II interface x 2
8. Console, VGA (pinhead), USB 2.0 x 4 (2 x connectors, 2 x pin head)
9. Support boot from LAN, console redirection
10. Support standard PCIe x 8 slot for feature expansion
23
Revision: 1.2
1.1 Specifications
CPU: a LGA775 socket for Intel Core2 Processors in the 775-Land LGA package.
DMA channels: 7.
Interrupt levels: 16 (24 APIC interrupts).
Chipset: Intel G41 express chipset 82G41 + 82801GR + W83627DHG-P.
Memory: provides two 240-pin DIMM sockets to support DDRIII 1066 non-ECC DIMM.
The
memory capability can up to 2GB.
VGA Controller: G41 GMCH integrated.
Analog Display Interface: 10-pin box header, and resolution up to 2048x1536@75Hz.
Serial ATA Interface: supports Two SATA devices, and data transfer rates up to
300MB/s per device.
Compact flash interface: supports TYPE-II compact flash card with UDMA supported.
USB2.0 interface: one stacked USB connector and two 10-pin pin header to support Six
USB2.0 compatible devices. All resettable fuses protected.
Ethernet interface: on-board six PCI express gigabit Ethernet controllers and two PCI gigabit
Ethernet controllers to support eight LAN ports. They provide a standard IEEE 802.3 Ethernet
interface for
1000BASE-T, 100BASE-TX, and 10BASE-T applications (802.3, 802.3u, and 802.3ab,
PCIE X8 interface: One PCI Express x8 slot.
Serial ports (RS232): One high-speed 16550 compatible UARTs ports with 16-byte
send/receive FIFOs.
COM1: RJ45 connector.
LCM interface: a 7-pin pin header could be used to LCM for chassis’ control panel.
General Purpose Input/Output: 8-bit, 3.3V TTL level, bidirectional, and software
and ‘CloseSerialPort( )’ for accessing the serial port
3. lcm.h
This file includes the declarations and macro definitions needed by lcm.c.
4. serialport.c
This file includes the hardware dependent implementation of ‘InitSerialPort( )’, ‘WriteSerial( )’,
‘ReadSerial( )’ and ‘CloseSerialPort( )’ for accessing the serial port.
5. serialport.h
This file includes the declarations and macro definitions needed by serialport.c.
6. Makefile
This is the instruction script for GNU make system.
On Window platform:
1. LCM.cpp
The source code of the LCM demo program.
2. AR-B5800.h
The header of the APIs.
3. AR-B5800.lib and AR-B5800.dll
The API libraries.
51
Revision: 1.2
GPIO and Watchdog
On Linux platform:
1. sio_acce.c
The source code of the Watchdog and GPIO APIs for accessing the SuperIO.
2. sio_acce.h
This file includes the declarations of the APIs and macro definitions.
3. main.c
The source code of the utility.
4. Makefile
On Windows platform:
1. GPIO_Watchdog.cpp
GPIO and Watchdog demo program source code.
2. AR-B5800.h
The header file of the APIs.
3. AR-B5800.lib and AR-B5800.dll
The API libiaries.
LAN Bypass Subsystem
On Linux platform:
1. bypass.c
The source code of the APIs for setting up the bypass state.
2. bypass.h
This file includes the declarations of the APIs and macro definitions.
3. main.c
The source code of the utility.
4. Makefile
52
Revision: 1.2
On Windows platform:
1. LAN_Bypass.cpp
LAN_Bypass demo program source code.
2. AR-B5800.h
The header file of the APIs.
3. AR-B5800.lib and AR-B5800.dll
The API libiaries.
53
Revision: 1.2
4.3 API List and Descriptions
Type Definitions
Typedef char i8;
Typedef unsigned char u8;
Typedef short i16;
Typedef unsigned short u16;
Typedef unsigned long u32;
Typedef int i32;
LCD Control Module
1. i32 clrscrLcm( void )
Description: Clear the screen of the LCM.
Return value: 0 after the screen is cleared.
2. i32 cursorLcm( bool mode )
Description: According to the argument ‘mode’, show the cursor on the LCM screen or
eliminate the cursor on the LCM screen. The position of the cursor is unchanged.
mode = true, show the cursor.
mode = false, eliminate the cursor.
Return value: 0 after the cursor has been shown or eliminated.
3. i32 cursorActionLcm( i32 type)
Description: According to the argument ‘type’, move the cursor to the indicated position. The
displayed text is not altered.
type = HOME, move the cursor to row 0, column 0.
type = MOVERIGHT, move the cursor to the column which is to the right of its original
position if the original column < 15.
type = MOVELEFT, move the cursor to the column which is to the left of its original position if
the original column > 0.
type = MOVEBACK, move the cursor to the column which is to the left of its original position
and delete the character at the new position if the original
column > 0.
Return value: 0 after the cursor is moved.
54
Revision: 1.2
4. i32 displayLcm( bool mode )
Description: Show the text on the LCM screen or eliminate the text on the LCM screen. The
content of the text is not altered.
mode = true, show the text.
mode = false, eliminate the text.
Return value: 0 after the text has been shown or eliminated.
5. i32 getKeyLcm( void )
Description: Scan the LCM and return the identification of the pressed direction key.
Return value: ‘UP’ if the ‘up’ direction key is pressed.
‘RIGHT’ if the ‘right’ direction key is pressed.
‘LEFT’ if the ‘left’ direction key is pressed.
‘DOWN’ if the ‘down’ direction key is pressed.
‘NONE’ if none of the keys is pressed.
6. i32 getPositionLcm( i32 *row, i32 *column )
Description: Get the position of the cursor and write the coordinate to the memory pointed at
by arguments ‘row’ and ‘column’.
Return value: 0 if the request for the coordinate has been served.
7. i32 setPositionLcm( i32 row, i32 column )
Description: Set the position of the cursor according to the arguments ‘row’ and ‘column’.
Return value: 0 after the position has been set.
-1 if the argument ‘row’ or ‘column’ meets any of the following
conditions:
(1) row is not 0.
(2) row is not 1.
(3) column is less than 0.
(4) column is greater than 15.
8. i32 showLcm( i32 length, u8 *info )
Description: Start from the current position of the cursor; print the text pointed at by ‘info’ to
the LCM screen. The number of characters to be printed is at most ‘length’. If the remaining
columns available for printing the text is less than ‘length’, the number of the characters to be
printed is:
16 – ( column number of the current position of the cursor ).
Return value: 0 after the text is printed.
55
Revision: 1.2
GPIO and Watchdog
GPIO
1. Syntax:
i32 setChDir( u8 val )
Description: Set the direction (Input/Output) of GPIO ports according to the parameter ‘val’.
Parameters: The parameter ‘val’ is an unsigned character. Each bit of *val corresponds to a
GPIO port. Bit 0 corresponds to GPIO0. Bit 1 corresponds to GPIO1. Bit 2 corresponds to
GPIO2, and so on. Setting a bit of ‘val’ as 0 configures the corresponding port as Output.
Setting a bit of ‘val’ as 1 configures the corresponding port as Input.
Return Value: If the function gets the configuration successfully, it returns 0. If any error, it
returns –1.
2. Syntax:
i32 getChDir( u8 *val )
Description: Get the direction (Input/Output) of GPIO ports and put the configuration at *val.
Parameters: The parameter ‘val’ points to an unsigned character. Each bit of *val corresponds
to a GPIO port. Bit 0 corresponds to GPIO0. Bit 1 corresponds to GPIO1. Bit 2 corresponds to
GPIO2, and so on. A ‘0’ bit at *val indicates the corresponding port is an Output port. A ‘1’ bit
at *val indicates the corresponding port is an Input port.
Return Value: If the function gets the configuration successfully, it returns 0. If any error, it
returns –1.
3. Syntax:
i32 getChLevel( u8 *val )
Description: Get the status value of GPIO ports 0~7 and put the value at *val.
Parameters: The parameter ‘val’ points to an unsigned character. If a GPIO port is configured
as an Output port, the bit at *val which corresponds to this port indicates this port is outputting
a ‘1’ or ‘0’. If a GPIO port is configured as an Input port, the corresponding bit at *val is always
‘1’.
56
Revision: 1.2
Return Value: If the function gets the values successfully, it returns 0. If any error, it
returns –1.
4.Syntax:
i32 setChLevel( u8 val )
Description: Set the status bits of GPIO Output ports according to the variable ‘val’. The status
bits at the ports which are configured as input will not be affected.
Parameters: The parameter ‘val’ is an unsigned character. If a GPIO port is configured as an
Output port, a ‘1’ bit at ‘val’ directs the corresponding port to output a ‘1’. A ‘0’ bit directs this
port to output a ‘0’. If a GPIO ports is configured as an Input port, the setting to these input port
is ignored.
Return Value: If the function sets the values successfully, it returns 0. If any error, it
returns –1.
Watchdog
1. Syntax:
u8 getWtdTimer(void)
Description: This function read the value of the watchdog time counter and return it to the
caller.
Parameters: None.
Return Value: This function return the value of the time counter and return it to the caller as an
unsigned integer.
2. Syntax:
void setWtdTimer( u8 val )
Description: This function sets the watchdog timer register to the value ‘val’ and starts to count
down. The value could be 0 ~ 255. The unit is second. Setting the timer register to 0 disables
the watchdog function and stops the countdown.
57
Revision: 1.2
Parameters: The parameter ‘val’ is the value to set to watchdog timer register. The range is 0 ~
255.
Return Value: None.
LAN Bypass Subsystem
1. void enableWdt(void)
Enable Watchdog Timer. (This timer is different from the System Watchdog timer, which is
configured by the API described in 6.2).
2. void disableWdt(void)
Disable Watchdog Timer.
3. void reloadWdt(void)
Reload Watchdog Timer.
4. void forceNormal(void)
Force the port to become normal state.
5. void forceBypass(void)
Force the port to become bypass state.
6. void setWdt4(void)
Set the watchdog timer to 4 seconds.
7. void setWdt8(void)
Set the watchdog timer to 8 seconds.
8. void setWdt16(void)
Set the watchdog timer to 16 seconds.
9. void setWdt32(void)
Set the watchdog timer to 32 seconds.
58
Loading...
+ hidden pages
You need points to download manuals.
1 point = 1 manual.
You can buy points or you can get point for every manual you upload.