MB86R11EVB is an evaluation board of LSI MB86R11 for graphics applications.
This manual describes hardware specifications of MB86R11EVB for engineers who evaluate MB86R11
basic function.
Trademarks
ARM is a registered trademark of ARM Limited in the EU and other countries.
Cortex is a trademark of ARM Limited in the EU and other countries.
The company names and brand names herein are the trademarks or registered trademarks of their
respective owners.
Notation
Term Description
MB86R11EVB
Generic term of MB86R11 evaluation board which is a set of MB86R11EVB-CPU01 (CPU
board), MB86R11EVB-BASE01 (Base board), and MB86R11EVB-OPT01 (Option board).
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• The contents of this document are subject to change without notice.
Customers are advised to consult with sales representatives before ordering.
• The information, such as descriptions of function and application circuit examples, in this document are
presented solely for the purpose of reference to show examples of operations and uses of FUJITSU
SEMICONDUCTOR device; FUJITSU SEMICONDUCTOR does not warrant proper operation of the device
with respect to use based on such information. When you develop equipment incorporating the device based
on such information, you must assume any responsibility arising out of such use of the information. FUJITSU
SEMICONDUCTOR assumes no liability for any damages whatsoever arising out of the use of the
information.
• Any information in this document, including descriptions of function and schematic diagrams, shall not be
construed as license of the use or exercise of any intellectual property right, such as patent right or copyright,
or any other right of FUJITSU SEMICONDUCTOR or any third party or does FUJITSU
SEMICONDUCTOR warrant non-infringement of any third-party's intellectual property right or other right
by using such information. FUJITSU SEMICONDUCTOR assumes no liability for any infringement of the
intellectual property rights or other rights of third parties which would result from the use of information
contained herein.
• The products described in this document are designed, developed and manufactured as contemplated for
general use, including without limitation, ordinary industrial use, general office use, personal use, and
household use, but are not designed, developed and manufactured as contemplated (1) for use accompanying
fatal risks or dangers that, unless extremely high safety is secured, could have a serious effect to the public,
and could lead directly to death, personal injury, severe physical damage or other loss (i.e., nuclear reaction
control in nuclear facility, aircraft flight control, air traffic control, mass transport control, medical life
support system, missile launch control in weapon system), or (2) for use requiring extremely high reliability
(i.e., submersible repeater and artificial satellite).
Please note that FUJITSU SEMICONDUCTOR will not be liable against you and/or any third party for any
claims or damages arising in connection with above-mentioned uses of the products.
• Any semiconductor devices have an inherent chance of failure. You must protect against injury, damage or
loss from such failures by incorporating safety design measures into your facility and equipment such as
redundancy, fire protection, and prevention of over-current levels and other abnormal operating conditions.
• Exportation/release of any products described in this document may require necessary procedures in
accordance with the regulations of the Foreign Exchange and Foreign Trade Control Law of Japan and/or US
export control laws.
• The company names and brand names herein are the trademarks or registered trademarks of their respective
owners.
All rights reserved, Copyright FUJITSU SEMICONDUCTOR LIMITED 2011
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Revision History
Date Ver. Contents
2011/1/13 1.0 Newly issued
2011/1/25 1.1
Table 9-1 Revised description
Added FPGA specifications
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Contents
1. Outline of MB86R11EVB..................................................................................... 1
1.2. General specifications ............................................................................................................................. 2
3. Details of hardware............................................................................................11
3.1. CPU board..............................................................................................................................................11
3.2. Base board............................................................................................................................................. 17
3.2.8. CAN .............................................................................................................................................. 27
3.3.3. CAN .............................................................................................................................................. 44
4.1. CPU – Base board I/F ........................................................................................................................... 53
4.2. Base – Option board I/F ........................................................................................................................ 58
5.2.5. FPGA signal timing....................................................................................................................... 72
6. Allocation of peripheral resource and I2C port.............................................. 73
7. Power system diagram..................................................................................... 74
8. Clock system diagram...................................................................................... 77
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1. Outline of MB86R11EVB
This chapter describes the outline of MB86R11EVB.
1.1. Composition
MB86R11EVB consists of following 3 evaluation boards:
MB86R11EVB-CPU01 (CPU board)
This board mounts MB86R11.
MB86R11EVB-BASE01 (Base board)
This board has external I/F and the power supply input part.
MB86R11EVB-OPT01 (Option board)
This board mounts only the external peripheral functions.
The pin of MB86R11 is multifunctional, and is switched by the external pin setting or the register setting.
In MB86R11EVB, to realize the switching of each resource according to the setting mode by an enable
control, the buffer is inserted between MB86R11 and each resource.
This board executes an enable control with FPGA, and has the selector function of Display and Capture.
This is a composition when 32bit bus is
connected.
When boot from NOR-FLASH is used, it
becomes a composition of 512Mbit 1 because
the bus is fixed to 16bit.
USB-A connector
(Exclusive use with USB-Function)
Mini-B connector
(Exclusive use with USB-Host)
160pin stack
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2.2. Hardware specifications of Base board
Table 2-2 shows the hardware specifications of Base board.
Table 2-2 Hardware specifications of Base board (1/2)
The CPU board has JTAG (CN1) and the ETM connector (CN2) for the ARM debugging.
Enable ETM probe (HLX600TP) and JTAG cable (HLX600JP) of YDC AdviceLUNA to be connected.
Table 3-6 ARM JT A G/ E T M
No. Item Model number Manufacturer QuantityRemarks
1 JTAG PS-20PE-D4T-B1 JAE 1
2 ETM 2-5767004-2 Tyco 1
2列20極
2列38極
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3.1.6. Selection of boot flash memory
The CPU board has the switch that selects the boot memory. It can select either of NOR-FLASH or
NAND-FLASH of the external memory.
Table 3-7 Slide switch
No. Item Model number Manufacturer QuantityRemarks
1 Slide switch MAS-D20A1 Fujisoku 1
SW1 (Selection of boot memory type)
MB86R11
NAND-FLASH
Table 3-8 SW1 setting
SW1 Boot memory type Remarks
MB86R11 side NAND-FLASH
The other side NOR-FLASH (Default) Default
NOR-FLASH
Cannot used
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3.1.7. Pin Multiplex Switch
The setting of each switch on CPU board is as follows.
Table 3-9 DIP SW
No. Item Model numbe r Manufacturer QuantityRemarks
1 DIP SW CHS-08B NIDEC COPAL
ELECTRONICS
SW2 (PLLMODE)
8 1
2
ON
Default
Table 3-10 SW2 setting
SW2 Signal Description Default
4:1 CRIPM[3:0] ON=0, OFF=1
SW[4, 3, 2, 1]=[ON, ON, ON, ON]=0000
SW[4, 3, 2, 1]=[OFF, OFF, OFF, OFF]=1111
5 PLLBYPASS OFF=PLL clock is not bypassed.
ON=PLL clock is bypassed.
6 PSMODE ON=PSMODE are reflected to the PLL clock frequency.
OFF=PSMODE are not reflected to the PLL clock frequency
7 VINTHI ON=The exception vectors are located at 0xFFFF_0000.
OFF=The exception vectors are located at 0x0000_0000.
The CPU board has the header pin that has the following functions.
Table 3-12 General-purpose pin header
No. Item Model number Manufacturer QuantityRemarks
1 General-purpose pin
header
Table 3-13 Jumper setting
CN Function Description Default
10 OSC Open (Fixed) Open
11 VRH0 Short= ADC is not used.
12 VRH1 Short= ADC is not used.
13 VRL0 Short= ADC is not used.
14 VRL1 Short= ADC is not used.
15 VIN0 Short= ADC is not used.
16 VIN1 Short= ADC is not used.
Note:
CN11-16 must "OPEN" when the ADC connector of the Option board is used.
FFC-2ASM1 HONDA TSUSHIN7 1 row, 2 poles
Short
Open= ADC is used.
Open= ADC is used.
Open= ADC is used.
Open= ADC is used.
Open= ADC is used.
Open= ADC is used.
Short
Short
Short
Short
Short
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3.2. Base board
The AC adaptor is connected to this board, and it supplies power to each board.
The signal of the Display, Capture, and External Bus are connected to FPGA, and an enable control is
performed for the buffer of each resource according to the mode that the user set.
3.2.1. FPGA
The FPGA of the Base board provides a selector function of Display and Capture and a buffer enable
control functions of each resource.
External Bus connects the following signals with FPGA:
lower 10 bits of address (A[11:1])
32 bits control signal (excluding the signal for NAND) of data
Table 3-14 FPGA
No. Item Model number Manufacturer QuantityRemarks
3 Configuration ROM S25FL032P0XMFI011 SPANSION 1 32Mbit
3.2.2. External Bus
The 256MB NAND-FLASH is connected to External Bus of the Base board.
To connect External Bus signals with customer's board, they are connected to the connector.
Refer to "4.3 Customer I/F" for detail.
Table 3-15 External Bus
No. Item Model number Manufacturer QuantityRemarks
1 NAND-FLASH MT29F2G08ABAEAWP MICRON 1
256MB (8bit×256Mbit)
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3.2.3. Display
The Base board has 2 ports (Display0 and Display1) as an image output interface, and is output with the
DVI connector. In addition, only the Diplay0 port has CVBS and the analog RGB connector for the analog
output.
The pin header of Display is described below.
Table 3-16 Display
No. Item Model number Manufacturer QuantityRemarks
No. Signal name I/O Description No. Signal name I/ODescription
1 V0 I 2 GND - Ground
3 V1 I 4 GND - Ground
5 V2 I 6 GND - Ground
7 V3 I 8 GND - Ground
9 V4 I 10 GND - Ground
11 V5 I 12 GND - Ground
13 V6 I 14 GND - Ground
15 V7 I 16 GND - Ground
17 CLK I 18 GND - Ground
19 - - 20 GND - Ground
(Remark) The physical pin assignment is the same as the audio general-purpose pin header.
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SW1 (DISP0_DAC_CTRL)
8 1
Set SW1[2:1]=[OFF, OFF] when I2C0 is used.
SW1 Signal Description
1 DSEL
2 BSEL
3 EDGE
HTPLG
Dual edge clock select / I2C Data
/
SDA
/
SCL
/
This pin is an open collector input/output.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C data line.
If the I2C bus is disabled (ISEL=ON), then this pin selects whether single clock
dual edge is used.
Dual Edge clock select:
DSEL=OFF:
IDCK+ latches input data on both falling and rising clock edges.
DSEL=ON:
IDCK+/IDCK- latches input data on only falling or rising clock edges.
In 24-/12-bit mode:
DSEL=OFF (dual edge):
IDCK+ is used to latch data on both falling and rising edges.
DSEL=ON (single edge):
IDCK+ latches 1st half data and IDCK- latches 2nd half data.
Input bus select / I2C clock.
This pin is an open collector input.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C clock input.
If the I2C is disabled (ISEL=ON), then this pin selects the input bus width.
Input Bus Select:
BSEL=OFF:
selects 24-bit input mode
BSEL=ON:
selects 12-bit input mode
Edge select / Hot Plug input.
If the I2C bus is enabled (ISEL=OFF), then this pin is used to monitor the "Hot
Plug" detect signal (Please refer to the DVI or VESA P&D and DFP standards).
This Input is ONLY 3.3V tolerant and has no internal de-bouncer circuit.
If I2C bus is disabled (ISEL=ON), then this pin selects the clock edge that will
latch the data. How the EDGE setting works depends on whether dual or single
edge latching is selected.
Dual Edge Mode (DSEL = OFF)
EDGE=ON:
the primary edge (first latch edge after DE is asserted) is the falling edge.
EDGE=OFF:
the primary edge (first latch edge after DE is asserted) is the rising edge.
(Note) In 24-bit Single Clock Dual Edge mode, EDGE is ignored.
Single Edge Mode (DSEL=ON)
EDGE=ON:
the falling edge of the clock is used to latch data.
EDGE=OFF:
the rising edge of the clock is used to latch data.
ON
Defaul
Default
(I2C mode)
OFF
OFF
OFF
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SW1 Signal Description
4 DKEN
7:5 CTL[1:3]
A[1:3]
DK[1:3]
8 ISEL
Refer to the data sheet of SiI164BCT64 for detail.
/
/
/
RST#
De-skewing enable.
I2C mode (ISEL=OFF)
DKEN pin must be set to OFF.
DK[3:1] pins are ignored and the De-skewing increments are selected through
the I2C interface.
Non I2C mode (ISEL=ON)
DKEN=ON:
then default De-skewing setting is used.
DKEN=OFF:
then DK[3:1] is used as the De-skewing setting.
The use of these multi-function inputs depends on the settings of ISEL and DKEN.
ISEL=ON, DKEN=ON:
General-Purpose Input CTL[1:3] pins are active, for backward compatibility.
These pins must be used to send DC signals only during the blanking time.
ISEL=ON, DKEN=OFF
DK[1:3] are active, these inputs are used to select the De-skewing setting for the
input bus.
ISEL=OFF, DKEN=OFF
A[1:3] are active, these bits are used to set the lower 3 bits of the I2C device
address.
I2C Interface Select.
ISEL=OFF:
I2C interface is active.
ISEL=ON:
I2C is inactive and the chip configuration is read from the configuration
strapping pins.
This pin also acts as an asynchronous reset to the I2C interface controller.
(Note) When the I2C interface is active, DKEN must be set OFF.
Default
(I2C mode)
OFF
SW[7, 6, 5]
=A[1, 2, 3]
=[OFF, OFF, OFF]
I2C device address:
0111, A3, A2, A1
=0111000 (*1)
*1) ON="1", OFF="0"
OFF
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SW2 (DISP_DAC_CTRL1)
Set SW2[2:1]=[OFF, OFF] when I2C0 is used.
SW2 Signal Description
1 DSEL
2 BSEL
3 EDGE
HTPLG
Dual edge clock select / I2C Data
/
SDA
/
SCL
/
This pin is an open collector input/output.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C data line.
If the I2C bus is disabled (ISEL=ON), then this pin selects whether single clock
dual edge is used.
Dual Edge clock select:
DSEL=OFF:
IDCK+ latches input data on both falling and rising clock edges.
DSEL=ON:
IDCK+/IDCK- latches input data on only falling or rising clock edges.
In 24-/12-bit mode:
DSEL=OFF (dual edge):
IDCK+ is used to latch data on both falling and rising edges.
DSEL=ON (single edge):
IDCK+ latches 1st half data and IDCK- latches 2nd half data.
Input bus select / I2C clock.
This pin is an open collector input.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C clock input.
If the I2C is disabled (ISEL=ON), then this pin selects the input bus width.
Input Bus Select:
BSEL=OFF:
selects 24-bit input mode
BSEL=ON:
selects 12-bit input mode
Edge select / Hot Plug input.
If the I2C bus is enabled (ISEL=OFF), then this pin is used to monitor the "Hot
Plug" detect signal (Please refer to the DVI or VESA P&D and DFP standards).
This Input is ONLY 3.3V tolerant and has no internal de-bouncer circuit.
If I2C bus is disabled (ISEL=ON), then this pin selects the clock edge that will
latch the data. How the EDGE setting works depends on whether dual or single
edge latching is selected.
Dual Edge Mode (DSEL = OFF)
EDGE=ON:
the primary edge (first latch edge after DE is asserted) is the falling edge.
EDGE=OFF:
the primary edge (first latch edge after DE is asserted) is the rising edge.
(Note) In 24-bit Single Clock Dual Edge mode, EDGE is ignored.
Single Edge Mode (DSEL=ON)
EDGE=ON:
the falling edge of the clock is used to latch data.
EDGE=OFF:
the rising edge of the clock is used to latch data.
ON
Defaul
Default
(I2C mode)
OFF
OFF
OFF
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SW2 Signal Description
4 DKEN
7:5 CTL[1:3]
A[1:3]
DK[1:3]
8 ISEL
Refer to the data sheet of SiI164BCT64 for detail.
/
/
/
RST#
De-skewing enable.
I2C mode (ISEL=OFF)
DKEN pin must be set to OFF.
DK[3:1] pins are ignored and the De-skewing increments are selected through
the I2C interface.
Non I2C mode (ISEL=ON)
DKEN=ON:
then default De-skewing setting is used.
DKEN=OFF:
then DK[3:1] is used as the De-skewing setting.
The use of these multi-function inputs depends on the settings of ISEL and DKEN.
ISEL=ON, DKEN=ON:
General-Purpose Input CTL[1:3] pins are active, for backward compatibility.
These pins must be used to send DC signals only during the blanking time.
ISEL=ON, DKEN=OFF
DK[1:3] are active, these inputs are used to select the De-skewing setting for the
input bus.
ISEL=OFF, DKEN=OFF
A[1:3] are active, these bits are used to set the lower 3 bits of the I2C device
address.
I2C Interface Select.
ISEL=OFF:
I2C interface is active.
ISEL=ON:
I2C is inactive and the chip configuration is read from the configuration
strapping pins.
This pin also acts as an asynchronous reset to the I2C interface controller.
(Note) When the I2C interface is active, DKEN must be set OFF.
Default
(I2C mode)
OFF
SW[7,6,5]
=A[1, 2, 3]
=[ON, OFF, OFF]
I2C device address:
0111, A3, A2, A1
=0111001 (*1)
*1) ON="1", OFF="0"
OFF
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3.2.4. Capture
The Base board has 4 ports as an image output interface.
Capture0 can be input from DVI, NTSC, and the pin header, and Capture1 can be input from HD, NTSC,
and the pin header.
Capture2/3 can be input from NTSC and the pin header.The pin header of Capture is described below.
Table 3-19 Capture
No. Item Model number Manufacturer QuantityRemarks
No. Signal name I/O Description No. Signal name I/ODescription
1 V0 I 2 GND - Ground
3 V1 I 4 GND - Ground
5 V2 I 6 GND - Ground
7 V3 I 8 GND - Ground
9 V4 I 10 GND - Ground
11 V5 I 12 GND - Ground
13 V6 I 14 GND - Ground
15 V7 I 16 GND - Ground
17 CLK I 18 GND - Ground
19 - - 20 GND - Ground
(Remark) The physical pin assignment is the same as the audio general-purpose pin header.
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3.2.5. Ethernet
The Base board has 1 port (CN11) as the Ethernet interface for GbE.
Table 3-22 GbE
No. Item Model numbe r Manufacturer QuantityRemarks
1 GbE-PHY 88E1111-B2-BAB-C000 Marvell 1
2 LAN connector TM21R-5C88(50) HRS 1
3 Transformer H5007NL Pulse 1
4 Xtal CX-8045G 25MHz KYOCERA 1 25MHz
3.2.6. EEPROM
The EEPROM is connected to SPI0 of the Base board.
Table 3-23 EEPROM
No. Item Model number Manufacturer QuantityRemarks
1 EEPROM BR25S256F ROHM 1 256Kbit
3.2.7. I2S (AUDIO)
As for the Base board, I2C0 1ch is connected to the audio device as the audio interface. The audio device
is connected to interface (CN12, 13) for the connection of the microphone and the speaker.
I2C0 is connected to the audio device.
Table 3-24 I2S (AUDIO)
No. Item Model number Manufacturer QuantityRemarks
1 Audio CODEC WM8976 Wolfson 1
2 Audio mini-jack STX-2500-3N KYCON 2 φ3.5
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3.2.8. CAN
As for the Base board, CAN0 1ch is connected to the Dsub9 connector (CN14) as the CAN interface.
Table 3-25 CAN
No. Item Model number Manufacturer QuantityRemarks
1 Transceiver SN65HVD234 TI 1
2 Dsub9 connector RDED-9P-LNA(4-40)(55) HRS 1
3 Switch G-12AP Nihon Kaiheiki 1
SW3 (CAN CH0)
CONNECT
CAN CH0
SW3 Description
CAN CH0 Bus termination is inactive.
CONNECT Bus termination is active. (default)
Figure 3-3 SW3 (CAN CH0) cir c ui t
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3.2.9. USART (UART)
As for the Base board, 2ch of USART0/1 is connected to the Dsub9 connector (CN15, CN17) and the
general-purpose pin header as the UART interface.
Table 3-26 UART
No. Item Model numbe r Manufacturer QuantityRemarks
1 Transceiver MAX3232CUE MAXIM 1 2port type
2 Dsub9 connector RDED-9P-LNA(4-40)(55) HRS 2
3 General-purpose pin
header
Table 3-27 Details of serial port
No.
1
Baud rate Software control
2
Data length Software control
3
Parity Software control
4
Stop bit Software control
5
Flow control N/A
6
Signal definition DTE Interlink cable
Item Contents Remarks
OQW-11-4.2-03PW Mac8 2 2 rows, 6 poles
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3.2.10. GPIO
MB86R11 has 126 channels as the GPIO interface. The GPIO interface of 10 channels is used in the Base
board. They are connected to a tact switch, LED, and a general-purpose connector. The 6 channels are used
for the tact switch, and the 4 channels are used for LED and the pin header.
In addition, GPIO19-21 is used for the power supply control of the SD card.
Table 3-28 GPIO
No. Item Model number Manufacturer QuantityRemarks
1 LED SML-310MT ROHM 4 Green
2 Tact switch SKRPABE010 ALPS ELECTRIC6
3 General-purpose
connector
OQW-11-4.2-03PW Mac8 1 2 row, 6 poles
Figure 3-4 GPIO circuit
Table 3-29 GPIO pin assignment
No Signal name I/O Description
1 GND - Ground
2 GPIO[11] IO LED0
3 GPIO[12] IO LED1
4 GPIO[13] IO LED2
5 GPIO[14] IO LED3
6 GND - Ground
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3.2.11. SDIO
The Base board mounts SD0 1ch as the SDIO interface, and is connected to the SD card slot (CN21).
The power supply to the SD card is controlled with the pin of MB86R11 (see Figure 3-).
Ta
ble 3-30 SDIO
No. Item Model number Manufacturer QuantityRemarks
1 SD card slot DM1AA-SF-PEJ HRS 1
No. SD power supply control pin SD cardRemarks
1 INT_A5 (GPIO19) SD CH0 0: PWR ON
2 INT_A6 (GPIO20) SD CH1 0: PWR ON (It is mounted on the Option board.)
3 INT_A7 (GPIO21) SD CH2 0: PWR ON (It is mounted on the Option board.)
Figure 3-5 SDIO circuit
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3.2.12. TS
The Base board has the TS interface. This interface is connected to pin header (CN23).
Table 3-31 TS
No. Item Model number Manufacturer QuantityRemarks
1 General-purpose pin
header
Table 3-32 TS connector
No Signal name I/O Description
1 D0 O
2 D1 O
3 D2 O
4 D3 O
5 D4 O
6 D5 O
7 D6 O
8 D7 O
9 TSCTL1 O
10 TSCTL2 O
11 GND - Ground
12 GND - Ground
13 CLK O
14 GND - Ground
(Remark) The physical pin assignment is the same as the general-purpose pin header.
OQW-11-4.2-07PW Mac8 1 2 rows, 14 poles
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3.2.13. MediaLB
This Base board has one connector (CN24) as the MediaLB interface.
Table 3-33 MediaLB
No. Item Model number Manufacturer QuantityRemarks
1 Connector for MOST
controller connection
Table 3-34 MOST debug connector pin assignment
No Signal name I/O Description
1 GND - Ground
2 MLBCLK IO
3 GND - Ground
4 MLBSIG IO
5 GND - Ground
6 MLBDAT IO
7 GND - Ground
8 N.C. -
9 GND - Ground
10 N.C. -
(Remark) The physical pin assignment is the same as the general-purpose pin header.
A3A-10PA-2SV(71) HRS 1 2 rows, 10 poles
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3.2.14. Pin Multiplex Switch
The pin of MB86R11 can be switched by MPXMODE[2:0] or the register setting.
In the Base board, the same setting as the register setting is set with an external switch.
Table 3-35 DIP SW
No. Item Model numbe r Manufacturer QuantityRemarks
1 DIP SW CHS-08B NIDEC COPAL
ELECTRONICS
SW10 (SW_CB)
SW10 switches the PIN mode of "PIN Group B and C" of MB86R11.
8 1
7
ON
Default
Table 3-36 SW10 setting
SW10 Group Description Default
3:1 B SW[3, 2, 1]=[ON, ON, OFF]: Mode1
SW[3, 2, 1]=[ON, OFF, OFF]: Mode3
SW[3, 2, 1]=[OFF, ON, OFF]: Mode5
Others: depended on setting of MPXMODE[2]
MPXMODE[2] =OFF: Mode0
MPXMODE[2] =ON: Mode2
The Caputure0-3 and the color space can be selected by the SW19[5:1] bits.
In addition, FPGA internal memory can be checked by the SW19[8:6].
8 1
ON
Default
Table 3-40 SW19 setting
SW19 Function Color Space Input Description Default
2:1 Capture 0
RGB 24bit CN5(DVI) SW[2, 1]=[ON, OFF] or
SW[2, 1]=[OFF, OFF]
NTSC 8bit YCbCr CN6 (CVBS) SW[2, 1]=[ON, ON]
RGB 24bit CN22 (PIN_HEADER)
NTSC 8bit YCbCr CN35 (PIN_HEADER)
NTSC/HD
8bit YCbCr
NTSC/HD
8bit YCbCr
CN8 (CVBS)
CN39 (HD_Y)
CN40 (HD_Pb)
CN41 (HD_Pr)
CN28 (PIN_HEADER) SW[3]=OFF
SW[2, 1]= [OFF, ON]
SW[3]=ON 3 Capture 1
SW[2, 1]
=[ON, ON]
ON
NTSC 8bit YCbCr CN9 (CVBS) SW[3]=ON 4 Capture 2
NTSC 8bit YCbCr CN29 (PIN_HEADER) SW[3]=OFF
NTSC 8bit YCbCr CN10 (CVBS) SW[3]=ON 5 Capture 3
NTSC 8bit YCbCr CN30 (PIN_HEADER) SW[3]=OFF
8:6 Memory
check
- - FPGA internal memory check
SW[8, 7, 6]=[ON, ON, OFF] (*1)
Group B=Mode0: 32bit access
Others:16bit access
*1) Memory access: MEM_XCS[1] is used. MEM_EA[26:12] are not used.
ON
ON
SW[8, 7, 6]
=[OFF, OFF, OFF]
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3.3. Option board
All functions of MB86R11 can be used by using the CPU board, the Base board, and the Option board.
The Option board has the Dual monitor function and the HDMI connector.
3.3.1. Display
The Option board mounts three DVI connectors as an image output interface.
The pin header of Display is described below.
Table 3-41 Display
No. Item Model number Manufacturer QuantityRemarks
This pin is an open collector input/output.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C data line.
If the I2C bus is disabled (ISEL=ON), then this pin selects whether single clock
dual edge is used.
Dual Edge clock select:
DSEL=OFF:
IDCK+ latches input data on both falling and rising clock edges.
DSEL=ON:
IDCK+/IDCK- latches input data on only falling or rising clock edges.
In 24-/12-bit mode:
DSEL=OFF (dual edge):
IDCK+ is used to latch data on both falling and rising edges.
DSEL=ON (single edge):
IDCK+ latches 1st half data and IDCK- latches 2nd half data.
Input bus select / I2C clock.
This pin is an open collector input.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C clock input.
If the I2C is disabled (ISEL=ON), then this pin selects the input bus width.
Input Bus Select:
BSEL=OFF:
selects 24-bit input mode
BSEL=ON:
selects 12-bit input mode
ON
Defaul
Default
(I2C mode)
OFF
OFF
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SW1 Signal Description
3 EDGE
HTPLG
4 DKEN
7:5 CTL[1:3]
A[1:3]
DK[1:3]
8 ISEL
Refer to the data sheet of SiI164BCT64 for detail.
/
/
/
/
RST#
Edge select / Hot Plug input.
If the I2C bus is enabled (ISEL=OFF), then this pin is used to monitor the "Hot
Plug" detect signal (Please refer to the DVI or VESA P&D and DFP standards).
This Input is ONLY 3.3V tolerant and has no internal de-bouncer circuit.
If I2C bus is disabled (ISEL=ON), then this pin selects the clock edge that will
latch the data. How the EDGE setting works depends on whether dual or single
edge latching is selected.
Dual Edge Mode (DSEL = OFF)
EDGE=ON:
the primary edge (first latch edge after DE is asserted) is the falling edge.
EDGE=OFF:
the primary edge (first latch edge after DE is asserted) is the rising edge.
(Note) In 24-bit Single Clock Dual Edge mode, EDGE is ignored.
Single Edge Mode (DSEL=ON)
EDGE=ON:
the falling edge of the clock is used to latch data.
EDGE=OFF:
the rising edge of the clock is used to latch data.
De-skewing enable.
I2C mode (ISEL=OFF)
DKEN pin must be set to OFF.
DK[3:1] pins are ignored and the De-skewing increments are selected through
the I2C interface.
Non I2C mode (ISEL=ON)
DKEN=ON:
then default De-skewing setting is used.
DKEN=OFF:
then DK[3:1] is used as the De-skewing setting.
The use of these multi-function inputs depends on the settings of ISEL and DKEN.
ISEL=ON, DKEN=ON:
General-Purpose Input CTL[1:3] pins are active, for backward compatibility.
These pins must be used to send DC signals only during the blanking time.
ISEL=ON, DKEN=OFF
DK[1:3] are active, these inputs are used to select the De-skewing setting for the
input bus.
ISEL=OFF, DKEN=OFF
A[1:3] are active, these bits are used to set the lower 3 bits of the I2C device
address.
I2C Interface Select.
ISEL=OFF:
I2C interface is active.
ISEL=ON:
I2C is inactive and the chip configuration is read from the configuration
strapping pins.
This pin also acts as an asynchronous reset to the I2C interface controller.
(Note) When the I2C interface is active, DKEN must be set OFF.
Default
(I2C mode)
OFF
OFF
SW[7, 6, 5]
=A[1, 2, 3]
=[OFF, OFF, OFF]
I2C device address:
0111, A3, A2, A1
=0111000 (*1)
*1) ON="1", OFF="0"
OFF
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SW2 (DISP1_DAC_CTRL)
Set SW1[2:1]=[OFF, OFF] when I2C1 is used.
SW2 Signal Description
1 DSEL
2 BSEL
3 EDGE
HTPLG
Dual edge clock select / I2C Data
/
SDA
/
SCL
/
This pin is an open collector input/output.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C data line.
If the I2C bus is disabled (ISEL=ON), then this pin selects whether single clock
dual edge is used.
Dual Edge clock select:
DSEL=OFF:
IDCK+ latches input data on both falling and rising clock edges.
DSEL=ON:
IDCK+/IDCK- latches input data on only falling or rising clock edges.
In 24-/12-bit mode:
DSEL=OFF (dual edge):
IDCK+ is used to latch data on both falling and rising edges.
DSEL=ON (single edge):
IDCK+ latches 1st half data and IDCK- latches 2nd half data.
Input bus select / I2C clock.
This pin is an open collector input.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C clock input.
If the I2C is disabled (ISEL=ON), then this pin selects the input bus width.
Input Bus Select:
BSEL=OFF:
selects 24-bit input mode
BSEL=ON:
selects 12-bit input mode
Edge select / Hot Plug input.
If the I2C bus is enabled (ISEL=OFF), then this pin is used to monitor the "Hot
Plug" detect signal (Please refer to the DVI or VESA P&D and DFP standards).
This Input is ONLY 3.3V tolerant and has no internal de-bouncer circuit.
If I2C bus is disabled (ISEL=ON), then this pin selects the clock edge that will
latch the data. How the EDGE setting works depends on whether dual or single
edge latching is selected.
Dual Edge Mode (DSEL = OFF)
EDGE=ON:
the primary edge (first latch edge after DE is asserted) is the falling edge.
EDGE=OFF:
the primary edge (first latch edge after DE is asserted) is the rising edge.
(Note) In 24-bit Single Clock Dual Edge mode, EDGE is ignored.
Single Edge Mode (DSEL=ON)
EDGE=ON:
the falling edge of the clock is used to latch data.
EDGE=OFF:
the rising edge of the clock is used to latch data.
ON
Defaul
Default
(I2C mode)
OFF
OFF
OFF
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SW2 Signal Description
4 DKEN
7:5 CTL[1:3]
A[1:3]
DK[1:3]
8 ISEL
Refer to the data sheet of SiI164BCT64 for detail.
/
/
/
RST#
De-skewing enable.
I2C mode (ISEL=OFF)
DKEN pin must be set to OFF.
DK[3:1] pins are ignored and the De-skewing increments are selected through
the I2C interface.
Non I2C mode (ISEL=ON)
DKEN=ON:
then default De-skewing setting is used.
DKEN=OFF:
then DK[3:1] is used as the De-skewing setting.
The use of these multi-function inputs depends on the settings of ISEL and DKEN.
ISEL=ON, DKEN=ON:
General-Purpose Input CTL[1:3] pins are active, for backward compatibility.
These pins must be used to send DC signals only during the blanking time.
ISEL=ON, DKEN=OFF
DK[1:3] are active, these inputs are used to select the De-skewing setting for the
input bus.
ISEL=OFF, DKEN=OFF
A[1:3] are active, these bits are used to set the lower 3 bits of the I2C device
address.
I2C Interface Select.
ISEL=OFF:
I2C interface is active.
ISEL=ON:
I2C is inactive and the chip configuration is read from the configuration
strapping pins.
This pin also acts as an asynchronous reset to the I2C interface controller.
(Note) When the I2C interface is active, DKEN must be set OFF.
Default
(I2C mode)
OFF
SW[7, 6, 5]
=A[1, 2, 3]
=[ON, OFF, OFF]
I2C device address:
0111, A3, A2, A1
=0111001 (*1)
*1) ON="1", OFF="0"
OFF
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SW3 (DISP2_DAC_CTRL)
8 1
Set SW3[2:1]=[OFF, OFF] when I2C1 is used.
SW3 Signal Description
1 DSEL
2 BSEL
3 EDGE
HTPLG
Dual edge clock select / I2C Data
/
SDA
/
SCL
/
This pin is an open collector input/output.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C data line.
If the I2C bus is disabled (ISEL=ON), then this pin selects whether single clock
dual edge is used.
Dual Edge clock select:
DSEL=OFF:
IDCK+ latches input data on both falling and rising clock edges.
DSEL=ON:
IDCK+/IDCK- latches input data on only falling or rising clock edges.
In 24-/12-bit mode:
DSEL=OFF (dual edge):
IDCK+ is used to latch data on both falling and rising edges.
DSEL=ON (single edge):
IDCK+ latches 1st half data and IDCK- latches 2nd half data.
Input bus select / I2C clock.
This pin is an open collector input.
If I2C bus is enabled (ISEL=OFF), then this pin is the I2C clock input.
If the I2C is disabled (ISEL=ON), then this pin selects the input bus width.
Input Bus Select:
BSEL=OFF:
selects 24-bit input mode
BSEL=ON:
selects 12-bit input mode
Edge select / Hot Plug input.
If the I2C bus is enabled (ISEL=OFF), then this pin is used to monitor the "Hot
Plug" detect signal (Please refer to the DVI or VESA P&D and DFP standards).
This Input is ONLY 3.3V tolerant and has no internal de-bouncer circuit.
If I2C bus is disabled (ISEL=ON), then this pin selects the clock edge that will
latch the data. How the EDGE setting works depends on whether dual or single
edge latching is selected.
Dual Edge Mode (DSEL = OFF)
EDGE=ON:
the primary edge (first latch edge after DE is asserted) is the falling edge.
EDGE=OFF:
the primary edge (first latch edge after DE is asserted) is the rising edge.
(Note) In 24-bit Single Clock Dual Edge mode, EDGE is ignored.
Single Edge Mode (DSEL=ON)
EDGE=ON:
the falling edge of the clock is used to latch data.
EDGE=OFF:
the rising edge of the clock is used to latch data.
ON
Defaul
Default
(I2C mode)
OFF
OFF
OFF
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SW3 Signal Description
4 DKEN
7:5 CTL[1:3]
A[1:3]
DK[1:3]
8 ISEL
Refer to the data sheet of SiI164BCT64 for detail.
/
/
/
RST#
De-skewing enable.
I2C mode (ISEL=OFF)
DKEN pin must be set to OFF.
DK[3:1] pins are ignored and the De-skewing increments are selected through
the I2C interface.
Non I2C mode (ISEL=ON)
DKEN=ON:
then default De-skewing setting is used.
DKEN=OFF:
then DK[3:1] is used as the De-skewing setting.
The use of these multi-function inputs depends on the settings of ISEL and DKEN.
ISEL=ON, DKEN=ON:
General-Purpose Input CTL[1:3] pins are active, for backward compatibility.
These pins must be used to send DC signals only during the blanking time.
ISEL=ON, DKEN=OFF
DK[1:3] are active, these inputs are used to select the De-skewing setting for the
input bus.
ISEL=OFF, DKEN=OFF
A[1:3] are active, these bits are used to set the lower 3 bits of the I2C device
address.
I2C Interface Select.
ISEL=OFF:
I2C interface is active.
ISEL=ON:
I2C is inactive and the chip configuration is read from the configuration
strapping pins.
This pin also acts as an asynchronous reset to the I2C interface controller.
(Note) When the I2C interface is active, DKEN must be set OFF.
Default
(I2C mode)
OFF
SW[7, 6, 5]
=A[1, 2, 3]
=[OFF, ON, OFF]
I2C device address:
0111, A3, A2, A1
=0111010 (*1)
*1) ON="1", OFF="0"
OFF
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3.3.2. I2S (AUDIO)
The Option board has 3 channels as an audio interface.
This interface is connected to audio mini-jack and the general-purpose pin header for the connection of the
microphone and the speaker.
Table 3-42 I2S (AUDIO)
No. Item Model number Manufacturer QuantityRemarks
1 Audio CODEC WM8976 Wolfson 1
2 Audio mini-jack STX-2500-3N KYCON 2 φ3.5
3 Audio speaker FFC-2ASM1 HONDA TSUSHIN1 1 row, 2 poles
4 General-purpose pin
header
Table 3-43 I2S2 / 3 connector
No Signal name I/O Description
1 GND - Ground
2 GND - Ground
3 ECLK I
4 SCK B
5 WS B
6 SDI I
7 SDO O
8 GND - Ground
(Remark) The physical pin assignment is the same as the general-purpose pin header.
OQW-11-4.2-04PW Mac8 2 2 rows, 8 poles
Table 3-44 I2S1/ I2S2/ I2S3 connector list
No Function CH Description
1 Microphone 1 CN4 pin jack
Speaker
2 1 CN5 pin jack
3
4 Pin header 2 CN19
5 Pin header 3 CN21
1 CN39 pin header
1Pin: Rch
2Pin: Lch
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3.3.3. CAN
The Option board has 1 channel as the CAN interface. This interface is connected to Dsub9 connector
(CN6).
Table 3-45 CAN
No. Item Model number Manufacturer QuantityRemarks
1 Transceiver SN65HVD234 TI 1
2 Dsub9 connector RDED-9P-LNA(4-40)(55) HRS 1
3 Switch G-12AP Nihon Kaiheiki 1
3.3.4. USART (UART)
The Option board has 3 channels (ch2-ch4) as the UART interface. This interface is connected to the
general-purpose pin header.
The correspondence of the UART channel and the connector is as follows.
Ch2=CN18
Ch3=CN20
Ch4=CN22
Table 3-46 UART
No. Item Model number Manufacturer QuantityRemarks
1 General-purpose pin
header
OQW-11-4.2-03PW Mac8 3 2 rows, 6 poles
Table 3-47 USART2-4 pin header
No Signal name I/O Description
1 TX O Transmission data
2 RX I Reception data
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3.3.5. LIN
The Option board has 1 channel (USART ch5) as the LIN interface. This interface is connected to 2pin
connector (CN28).
The interface of LIN Host and Function can be switched by setting CN27.
The power supply to the BAT power pin of the LIN transceiver can select either of the following 2 methods
by jumper pin (CN25):
Supply the power by the Option board.
Input the power from header pin (CN26).
The USART5_SCK signal is connected to sleep pin (Low active) of the device.
Table 3-48 LIN
No. Item Model number Manufacturer QuantityRemarks
1 Transceiver TJA1020T NXP 1
2 Connector B2B-PH-SM4-TB JST 1 2 poles
Table 3-49 LIN connector pin assignment
No Signal name I/O Description
1 GND - Ground
2 LIN_BUS0 IO LIN signal
Table 3-50 Jumper setting
CN Function Description Default
25 LIN PWR 1-2: It is connected to EML (+5V).
2-3: It is connected to USR (external VCC).
27 LIN Host/Function select Short=Host
Open=Function
1-2
Open
Figure 3-6 LIN circuit of Option board (Sel ecti o n of L IN PW R an d Host/ F unction)
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3.3.6. SDIO
The Option board has 2 channels of Ch1 (CN31) and Ch2 (CN32) as the SDIO interface. This interface is
connected to the SD card slot.
The power supply to the SD card is controlled with the pin of MB86R11 (see Figure 3-).
Ta
ble 3-51 SDIO
No. Item Model number Manufacturer QuantityRemarks
1 SD card slot DM1AA-SF-PEJ HRS 2
No. SD power supply control pin SD card Remarks
1 INT_A5 (GPIO19) SD CH0 0: PWR ON (It is mounted on the Base board.)
2 INT_A6 (GPIO20) SD CH1 0: PWR ON
3 INT_A7 (GPIO21) SD CH2 0: PWR ON
Figure 3-7 SDIO circuit of Option b oar d
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3.3.7. PWM
The Option board has 12 channels as the PWM interface. This interface is connected to the pin header
(CN29 and CN30). CN29 is connected with CR integrating circuit, and CN30 is not connected with it.
Table 3-52 PWM
No. Item Model number Manufacturer QuantityRemarks
1 Register 1.1kΩ ROHM 12
1 Capacitor 0.01µF Murata
Manufacturing
2 General-purpose pin
header
OQW-11-4.2-07PW Mac8 2 2 rows, 14 poles
Table 3-53 PWM connector pin assignment
No Signal name I/O Description
1 PWM0 O PWM CH0
2 PWM 1 O PWM CH1
3 PWM 2 O PWM CH2
4 PWM 3 O PWM CH3
5 PWM 4 O PWM CH4
6 PWM 5 O PWM CH5
7 PWM 6 O PWM CH6
8 PWM 7 O PWM CH7
9 PWM 8 O PWM CH8
10 PWM 9 O PWM CH9
11 PWM 10 O PWM CH10
12 PWM 11 O PWM CH11
13 GND - Ground
14 GND - Ground
(Remark) The physical pin assignment is the same as the general-purpose pin header.
12
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3.3.8. IrDA
The Option board has general-purpose connector (CN24) as the IrDA.
Table 3-54 IrDA
No. Item Model number Manufacturer QuantityRemarks
1 General-purpose
connector
Table 3-55 IrDA connector pin assignment
No Signal name I/O Description
1 XIN I
2 IRTX O
3 IRRX1 I
4 ID0 I
5 ID1 I
6 ID2 I
7 ID3 I
8 IRSL0 O
9 IRSL1 O
10 IRSL2 O
11 GND - Ground
12 GND - Ground
(Remark) The physical pin assignment is the same as the general-purpose pin header.
OQW-11-4.2-06PW Mac8 1 2 rows, 12 poles
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3.3.9. IDE
The Option board has ATA2.5inch connector (CN33) as the IDE interface. The connection specification is
Host.
Table 3-56 IDE
No. Item Model number Manufacturer QuantityRemarks
1 ATA connector WCAW-20-2-22PW MAC8 1
Table 3-57 IDE connector pin assignment
No Signal name I/O Description NoSignal name I/ODescription
1 XDRESET O 23 XDIOW O
2 GND - Ground 24 GND - Ground
3 DD7 B 25 XDIOR O
4 DD8 B 26 GND - Ground
5 DD6 B 27 DIORDY I
6 DD9 B 28 CSEL I
7 DD5 B 29 XDDMACK O
8 DD10 B 30 GND - Ground
9 DD4 B 31 DINTRQ I
10 DD11 B 32 XIOCS16 O
11 DD3 B 33DA1 O
12 DD12 B 34 XCBLID O
13 DD2 B 35DA0 O
14 DD13 B 36 DA2 O
15 DD1 B 37XDCS0 O
16 DD14 B 38 XDCS1 O
17 DD0 B 39XDASP I
18 DD15 B 40 GND - Ground
19 GND - Ground 41 +5V -
20 N.C. - 42+5V -
21 DDMARQ I 43GND - Ground
22 GND - Ground 44 N.C. -
(Remark) The physical pin assignment is the same as the general-purpose pin header.
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3.3.10. SPI-FLASH (Quad)
The Option board has the SPI-FLASH (Quad) interface. This interface is connected to the SPI-FLASH of
32Mbit and the general-purpose pin header.
Table 3-58 SPI-FLASH (Quad)
No. Item Model number Manufacturer QuantityRemarks
1 SPI-FLASH (Quad) S25FL064P Spansion 1 64Mbit
3.3.11. SPI-FLASH (Single)
The Option board has 32Mbit as SPI-FLASH (Single).
Table 3-59 SPI-FLASH (Single)
No. Item Model numbe r Manufacturer QuantityRemarks
The Option board has 3 channels (Ch2-Ch4) as the I2C interface. This interface is connected to the
general-purpose pin header.
I2C2-I2C3 and I2C3-I2C4 can be looped by the jumper pin.
The correspondence of the I2C channel and the connector is as follows.
Ch2=CN14
Ch3=CN15
Ch4=CN16
Table 3-60 I2C
No. Item M o del number Manufacturer QuantityRemarks
1 General-purpose pin
header
Table 3-61 I2C pin assignment
No Signal name I/O Description
1 SCL IO SCL
2 SDA IO SDA
3 GND - Ground
Table 3-62 I2C setting
CN Function Description
37 I2C2-I2C3 SCL
38 I2C2-I2C3 SDA
40 I2C3-I2C4 SCL
41 I2C3-I2C4 SDA
FFC-3ASM1 HONDA TSUSHIN3 1 row, 3 poles
Short=Loop-back
Open=Normal
Short= Loop-back
Open= Normal
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3.3.13. General-purpose ADC
The Option board has general-purpose connector (CN1) as the general-purpose ADC interface.
This interface is connected to the operational amplifier.
The operational amplifier power supply connects +3.3V with the plus side, and connects GND with the
minus side.
Set value of SW_CB[3:1](Base Board SW10) Read attribute : ON=”L”
G_C(bit8-6)
SW_CB[6:4](Base BoardのSW10) set value Read attribute : ON=”L”
G_D(bit11-9)
SW_ED[1](Base Board SW11) set value SW_ED[1]=ON(mode0) : ”000”, OFF(mode5) : ”101”
G_E(bit14-12)
SW_ED[6:4](Base Board SW11) set value Read attribute : ON=”L”
G_F(bit18-16)
SW_GF[3:1](Base Board SW12) set value Read attribute : ON=”L”
G_G(bit21-19)
SW_GF[6:4](Base Board SW12) set value Read attribute : ON=”L”
G_H(bit24-22)
SW_IH[3:1](Base Board SW14) set value Read attribute : “ON”=”L”
G_I(bit27-25)
SW_IH[6:4](Base Board SW14) set value Read attribute : ON=”L”
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5.2.4. DEVICE_SEL register
DEVICE_SEL(08h)
Bit 31 30 29 28 27 26 25 24
R/W R
Initial 0000_0000
Name Reserved
Bit 23 22 21 20 19 18 17 16
R/W R R
Initial 000_0000 x
Name Reserved
bit 15 14 13 12 11 10 9 8
R/W R
Initial xxxx_xxxx
Name DEVICE_SEL
bit 7 6 5 4 3 2 1 0
R/W R R R R
Initial
0000 x 0 xx
MPXMODE[2]
Name
Reserved SELFLReservedMPXMODE[1:0]
MPXMODE[1:0](bit1-0)
MPXMODE[1:0](CPU Board SW3) set value Read attribute : ON=”H”
SELFL(bit2)
SELFL(CPU Board SW1) set value Read attribute : NOR=”L”
DEVICE_SEL(bit15-8)
DEVICE_SEL(Base Board SW19) set value Read attribute : ON=”L”
MPXMODE[2](bit16)
MPXMODE[2](CPU Board SW3) set value Read attribute : ON=”H”
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5.2.5. ACC_TEST register
ACC_TEST(0C~FF)
bit 31 30 29 28 27 26 25 24
R/W R/W
Initial 0000_0000
Name ACC_TEST
bit 23 22 21 20 19 18 17 16
R/W R/W
Initial 0000_0000
Name ACC_TEST
Bit 15 14 13 12 11 10 9 8
R/W R/W
Initial 0000_0000
Name ACC_TEST
Bit 7 6 5 4 3 2 1 0
R/W R/W
Initial
Name
ACC_TEST(bit31-0)
Access Test register.
Setting of the SW19(DEVICE_SEL) bit[8:6]=[ON,ON,OFF].
The access except the above setting is “Hi-Z”.
Address is 1 word. It is overwrited when writing at a different address.
The frequency of MEM_CLK is 100MHz less.
The half word and word can be access.
FPGA is the connection of MEM_EA[11:1]. MEM_EA[26:12] is not decode.
The register of 00-08h address can be read any time.
The judgment of the 16bit/32bit connection of the Ex-bus width uses MPXMODE[2].
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and I2C port
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Evaluation Board
6. Allocation of peripheral resource and I2C port
MB86R11EVB has the I2C port of 5 channels. Ch0 and Ch1 of I2C are allocated in the control of the
peripheral resource.
The slave address must not overlap if you use the port allocated in the peripheral resource for the interface
with the outside.
Table 6-1 Allocation of peripheral resource and I2C port
I2C port
CH0
CAP0_VDEC
CAP1_VDEC
DISP0_VDAC
DISP0_DVI - 0111000 Low order 3 bits are variable.
Peripheral resource
Group Slave address
Control 0100000
VBI 0010000
Control 0100001
VBI 0010010
-
0101010 ALSB=0
Remarks
ALSB=0
ALSB=1
DISP1_DVI - 0111001 Low order 3 bits are variable.
AMP(AUDIO)
CAP2_VDEC
CAP3_VDEC
CH1
AMP(AUDIO)
DISP0_DVI - 0111000
DISP1_DVI - 0111001
DISP2_DVI - 0111010
CH2
CH3
CH4
-
Control 0100000
VBI 0010000
Control 0100001
VBI 0010010
-
0011010
ALSB=0
ALSB=1
0011010
Low order 3 bits are variable.
Low order 3 bits are variable.
Low order 3 bits are variable.
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9. Allocation of peripheral resource
and I2C port
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7. Power system diagram
The power system diagram is shown as follows.
Figure 7-1 Power system diagram of Base board
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10. Power system diagram
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MB86R11
MB86R11EVB Hardware Manual
Evaluation Board
The power supply of +5V and +3.3V is supplied from the Base board to CPU board through the stack
connector.
Figure 7-2 Power system diagram of CPU board
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10. Power system diagram
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MB86R11
MB86R11EVB Hardware Manual
Evaluation Board
The power supply of +5V and +3.3V is supplied from the Base board to Option board through the stack
connector.
Figure 7-3 Power system diagram of Option board
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10. Power system diagram
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MB86R11
MB86R11EVB Hardware Manual
Evaluation Board
8. Clock system diagram
The clock system diagram of MB86R11EVB is shown as follows.
Figure 8-1 Clock system diagram of MB86R11EVB
77
11. Clock system diagram
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