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include or header files, application examples, target boards, evaluation boards, engineering samples
of IC’s etc.), its performance and any consequential damages, on the use of the Product in
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Fujitsu Microelectronics Europe GmbH disclaims all warranties and liabilities for the performance of
the Product and any consequential damages in cases of unauthorised decompiling and/or reverse
engineering and/or disassembling. Note, the SK-91465X-100PMC and all its deliverables are intended and must only be used in an evaluation laboratory environment.
1. Fujitsu Microelectronics Europe GmbH warrants that the Product will perform substantially in
accordance with the accompanying written materials for a period of 90 days form the date of
receipt by the customer. Concerning the hardware components of the Product, Fujitsu
Microelectronics Europe GmbH warrants that the Product will be free from defects in material
and workmanship under use and service as specified in the accompanying written materials
for a duration of 1 year from the date of receipt by the customer.
2. Should a Product turn out to be defect, Fujitsu Microelectronics Europe GmbH´s entire liability
and the customer´s exclusive remedy shall be, at Fujitsu Microelectronics Europe GmbH´s
sole discretion, either return of the purchase price and the license fee, or replacement of the
Product or parts thereof, if the Product is returned to Fujitsu Microelectronics Europe GmbH in
original packing and without further defects resulting from the customer´s use or the transport.
However, this warranty is excluded if the defect has resulted from an accident not attributable
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customer or any other third party not relating to Fujitsu Microelectronics Europe GmbH.
3. To the maximum extent permitted by applicable law Fujitsu Microelectronics Europe GmbH
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and its suppliers´ liability is restricted to intention and gross negligence.
NO LIABILITY FOR CONSEQUENTIAL DAMAGES
To the maximum extent permitted by applicable law, in no event shall Fujitsu
Microelectronics Europe GmbH and its suppliers be liable for any damages whatsoever
(including but without limitation, consequential and/or indirect damages for personal
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loss of information, or any other monetary or pecuniary loss) arising from the use of
the Product.
Should one of the above stipulations be or become invalid and/or unenforceable, the remaining
stipulations shall stay in full effect
The SK-91465X-100PMC is a multifunctional evaluation board for the Fujitsu 32-bit FR60
Flash microcontroller series MB91F465XA.
It can be used stand-alone for software development and testing or as a simple target board
to work with the emulator system.
The board allows the designer immediately to start software development before his own
final target system is available.
1.2 Features
Supports Fujitsu's MB91F465XA MCU with embedded FlexRay interface in LQFP100
package
Can be used with the MB2198 Emulator System with the Socket Adapter Board
EMA-MB91F465X-NLS-100M20 and the Adapter Board EMA-MB91V460A-00x
together with the MB91V460A-100 FlexRay extension board
12V unregulated external DC power supply
5V and 3.3V onboard voltage regulators
Power-LEDs for all supply voltages
Onboard voltage supervisor monitors both supply voltages
In-Circuit serial Flash programming
All resources available for evaluation
All MCU pins routed to edge connectors
4 MHz main crystal
32 kHz crystal for sub clock operation
Two RS232 or LIN, one RS232, two CAN and two FlexRay interfaces (Channel A, B)
are usable simultaneously
Supports Power switching via FlexRay transceiver
8 User LEDs
optional: alphanumeric standard LC-Display connectable instead of LEDs
Reset button, Reset LED
6 User buttons
This board must only be used for test applications
The SK-91F465X-100PMC supports the FUJITSU 32-bit Flash microcontroller
MB91F465XA.
The Starter Kit can be used as a stand-alone development platform, or with the emulation
system.
This User Guide is describing PCB version V1.1. The PCB version is printed at the TOP side
of the starter kit between Header X5 and MB91F465XA MCU [U1].
1.3.1 MCU Clocks
The board is supplied with a 4MHz crystal as the main oscillation clock for the MCU. Using
the internal PLL of the MCU, internal clock rates up to 100MHz can be achieved. The MCU
sub clock is connected to a 32.768 kHz crystal.
1.3.2 MCU Operating Mode
The operating mode of the microcontroller can be selected with the Dip-switch S1.
1.3.3 FlexRay Physical Layer
The connection to the physical layer of the FlexRay bus with 9-pin D-Sub connectors (X3
and X7) is realized with AMS8221B transceiver, it is also possible to deselect the termination
network connected to the channels. The transceivers provides differential transmit and
receive capability between FlexRay-controller and FlexRay-bus.
1.3.4 CAN Bus
Two high-speed CAN-transceivers (TLE6250GV33) are available to connect all available onchip CAN-controllers to 9-pin D-Sub connectors (X1 and X2). The transceivers provides
differential transmit and receive capability between CAN-controller and CAN-bus.
1.3.5 RS-232 and LIN
RS-232 and LIN signals are shared on the 9-pin D-Sub connectors (X8 and X12). It can be
selected, if RS-232 or LIN will be used. D-Sub X6 is connected to RS232.
Three RS-232 transceivers and two LIN transceivers are available, to connect the on-chip
USARTs to the 9-pin D-Sub connectors.
The RS-232 transceivers generate the adequate RS-232 levels for receive (RXD) and
transmit (TXD) lines. The RTS signal can be shortcut to CTS using jumpers (some PC
software needs this connection, when a 1:1 cable is used).
Either the DTR line or the RTS line of X1, X4 or X8 connectors can be selected to generate
a system reset.
The LIN transceivers (TLE7259) generate the adequate levels to drive the bus line in LINsystems for automotive and industrial applications.
1.3.6 I²C
Two additional pull-up resistors R24 and R25 can be connected to the I²C bus lines by
setting the according Jumpers (JP18, JP22).
All pins of the microcontroller except the oscillator pins X0/1(A) are connected to the edge
connectors X4 and X5 and are directly available to the user. Furthermore, most signals are
available on the VG96 connector J1.
1.3.8 User Buttons
There are five push buttons on board, which can be connected to input-ports of the
microcontroller. Some ports may support additional functions like external interrupts (INT0,
INT1 and INT2), trigger for the Reload Timer or Input-Capture (TIN0 / ICU0, TIN2 / ICU2)
and analogue trigger (ATGX). Button SW7 issues a local wake up request to the Flexray
physical layers (AMS8221B). One additional button is reserved as System-Reset-button to
reset the MCU, but it is possible to disconnect the RST-port with JP14.
1.3.9 User LEDs and optional LCD
Eight user-LEDs are connected via two pull-down resistor networks to port P27_D0 P27_D3 and to port P16_D0 - P16_D3. Parallel to the LEDs, the connector J2 can be used
to connect a standard alphanumeric display. The resistor networks RN1 and RN2 can be
removed, to free the ports.
1.3.10 Power Supply
The on-board step-down switching regulators allow the user to connect an unregulated DC
input voltage of +12V (max. 2600 mA) to the starter-kit. The switching regulator provide the
voltages of 5V (1.6A), 3.3V (1.6A) on the starter kit. The switching regulators are short circuit
protected and provide a thermal shutdown.
Remove the board carefully from the shipping carton.
First check if there are any damages before power on the starter kit.
To supply the starter kit, use the delivered In-Plug AC-DC Adapter (UPA 2000). Select the
AC plug adapter suitable for your country power sockets
Figure 2-1: AC plug adapter
and insert this adapter into the connection terminal on the AC-DC adapter.
Figure 2-2: AC plug adapter selection
Check the selected output DC voltage of the AC-DC In-Plug adapter at the voltage selection
key. It should be 12V! Change the output voltage only in a powered-down condition!
Figure 2-3: DC voltage selection
Select the low voltage adapter suitable to the power connector X13 at the SK-91465X100PMC and plug it to the connecting socket in the right orientation (+ connected to shield
and GND connected to centre pin).
Now connect the DC low voltage adapter to the Starter kit and plug in the In-Plug Power
Supply to a power socket. The SK-91465X-100PMC can be turned on with the on board
power switch S2.
For the power supply of the SK-91465XA-100PMC a DC input voltage of 12V is
recommended. The positive voltage (+) must be connected to the shield, and ground
(GND) must be connected to the centre of the connector X13!
After power-on of the SK-91465X-100PMC, the two red power-on LEDs D25 (5V) and D24
(3.3V) should be light. The LED D10 should light and the reset LED D1 should be off.
This chapter describes all jumpers and switches that can be modified on the evaluation
board. The default setting (MB91F465XA Series) is shown with a grey shaded area.
3.1 Operating Mode (S1)
The DIP-switch S1 is used to set the operating mode of the MCU. Ensure that the mode pin
settings correspond to the operation-mode of the application. For more detailed information
please check the Hardware-Manual of the microcontroller.
The onboard voltage regulator (U9) provide stabilized 5V and 3.3V supplies to the MCU and
peripherals. Even though they are thermally protected against overload, care must be taken
when supplying current for additional circuitry.
The LIN Vs line can be connected directly to the input supply of the board by JP40 and
JP60. In this case, the input voltage to the board has to be suitable for the connected bus
devices (mostly around 12V). Since there is a protection diode between Vin and Vs, it is not
possible to power the board over the LIN bus.
JP63 Selects the MCU IO and peripherals Vcc voltage (V_ALL = 3.3V or 5V)
JP64 Selects the MCU Core voltage regulator input voltage (3.3V / V_ALL)
JP52 Connects the Board voltage to V_ALL. Can be used for current measurement of
whole board.
JP55 Connects the MCU Io voltage (V_MCU) to V_ALL. Can be used for current
measurement of MCU.
JP25 Selects the Gate input voltage of MOSFET Q2 (Vin / INHx)
JP40 Connects Vs (Pin 1 of X8) to Vin
JP60 Connects Vs (Pin 1 of X12) to Vin
JP1 Selects Vcc of CAN A (Pin 3 of U2) (5V or V_ALL)
JP11 Selects Vcc of CAN B (Pin 3 of U4) (5V or V_ALL)
Jumper Setting Description
1 - 2 MCU / Peripherals @ 5V (Vcc) JP63
(Vcc 5V / 3V)
JP64
(VDD5R
3V/V_ALL)
2 - 3 MCU / Peripherals @ 3.3V (Vcc)
1 - 2 Supply to Core voltage regulator same as JP63
selection(V_ALL)
2 - 3 Supply to Core voltage regulator is 3.3V
Closed Power supply VBoard connected to V_ALL JP52
Closed Vs of LIN A is powered by the board (Vin) JP40
Open No voltage supply to Vs of LIN A
Closed Vs of LIN B is powered by the board (Vin)
Open No voltage supply to Vs of LIN B
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SK-91465X-100PMC User Guide
Chapter 3 Jumpers and Switches
Jumper Setting Description
JP1
(CAN A Vcc)
1 - 2 Vcc of CAN A is supplied with 5V
2 - 3 Vcc of CAN A is supplied with V_ALL
1 - 2 Vcc of CAN B is supplied with 5V JP11
(CAN B Vcc)
2 - 3 Vcc of CAN B is supplied with V_ALL
Default: grey
Table 3-2: Power supply jumper settings
Power measurements:
Via JP52 it is possible to measure the power consumption of the whole board.
Via JP55 the consumption of MCU Vcc pins can be measured.
For VDD5R consumption measurements JP64 must be used.
3.2.1 Power switching by FlexRay physical layer
This board supports power switching by FlexRay physical layer (X9, X11).
For this reason the Vcc voltage (Selected by JP63) is controlled by a MOSFET (Q2).
12V level at the Gate pin will pass the Vcc voltage to the board. Connecting 0V at the Gate
pin the MOSFET (Q2) switch off the Vcc power supply of the board.
JP25 selects if Vin (12V) or the FlexRay physical layer INHx pins are connected to the Gate
pin. JP27 selects if INHx pin of FlexRay Physical layer channel A or channel B is used for
power switching. JP19 and JP31 selects if INH1 or INH2 pins (channel A / B).
Jumper Setting Description
1-2 Gate of MOSFET (Q2) connected to Vin
JP25
2-3
Gate of MOSFET (Q2) connected to INH pin
of FlexRay transceiver (X9, X1)
1-2 INHx-A connected to JP25
JP27
3-4 INHx-B connected to JP25
1-2 Select Channel A INH1
JP19
2-3 Select Channel A INH2
1-2 Select Channel B INH1
JP31
2-3 Select Channel B INH2
Default: grey
Table 3-3: Jumper Settings FlexRay power switching
SK-91465X-100PMC User Guide
Chapter 3 Jumpers and Switches
3.4 UART”A”
One RS232-transceiver (U5, X6) can be connected to one of the microcontroller’s UART
interfaces.
JP26, JP29 connect UART 3 to the RS232-transceiver (U1, X3)
JP24 Some programs (e.g. Terminals) need a connection between CTS and RTS
Jumper Setting Description
JP26 (UART”A”RxD)
Closed SIN4 of the MCU is connected to UART”A”
Open SIN4 of the MCU is not connected to UART”A”
JP29 (UART”A”TxD)
Closed SOT4 of the MCU is connected to UART”A”
Open SOT4 of the MCU is not connected to UART”A”
Closed RTS and CTS of X6 are connected
JP24 (RTS-CTS)
Open RTS and CTS of X6 are not connected
Default: grey
Table 3-5: UART “A” jumper settings
3.5 UART”B” / LIN “A”
One RS232-transceiver (U7) or one LIN-transceiver (U6) can be connected to one of the
microcontroller’s UART interfaces. Connect to D-Sub X8 corresponding RS232 or LIN cable.
By default RS232 is selected to X8.
JP42 Selects if RS232 or LIN is connected to SIN7 of MCU
JP44 Selects if RS232 or LIN is connected to SOT7 of MCU
JP40 Selects if UARTB or LINA is connected to pin2 of X8
JP49 Some programs (e.g. Terminals) need a connection between CTS and RTS
JP37 Enable LIN-Transceiver
JP32 Selects LIN Master mode
JP38 Connects Vs (Pin 1 of X8) to Vin
Jumper Setting Description
JP42
(UART B / LIN A)
JP44
(UART B / LIN A)
1-2 SIN7 of the MCU is connected to U7 (RS232)
2-3 SIN7 of the MCU is connected to U6 (LIN)
1-2 SOT7 of the MCU is connected to U7 (RS232)
2-3 SOT7 of the MCU is connected to U6 (LIN)
1-2 BUS Signal (LINA) is connected to pin2 of X8 JP40
One RS232-transceiver (U10) or one LIN-transceiver (U8) can be connected to one of the
microcontroller’s UART interfaces. Connect to D-Sub X12 corresponding RS232 or LIN
cable. By default RS232 is selected to X12.
JP67 Selects if RS232 or LIN is connected to SIN6 of MCU
JP68 Selects if RS232 or LIN is connected to SOT6 of MCU
JP65 Selects if UARTC or LINB is connected to pin2 of X12
JP69 Some programs (e.g. Terminals) need a connection between CTS and RTS
JP57 Enable LIN-Transceiver
JP54 Selects LIN Master mode
JP60 Connects Vs (Pin 1 of X12) to Vin
Jumper Setting Description
JP67
(UART C / LIN B)
JP68
(UART C / LIN B)
1-2 SIN6 of the MCU is connected to U10 (RS232)
2-3 SIN6 of the MCU is connected to U8 (LIN)
1-2 SOT6 of the MCU is connected to U10 (RS232)
2-3 SOT6 of the MCU is connected to U8 (LIN)
1-2 BUS Signal (LINB) is connected to pin2 of X12 JP65
SK-91465X-100PMC User Guide
Chapter 3 Jumpers and Switches
Jumper Setting Description
Closed Vs of LIN B is powered by the board JP60
(VBAT_B)
Open No voltage supply to Vs of LIN B
Default: grey
Table 3-7: UART “C”/ LIN “B” jumper settings
3.7 CAN “A”
One high-speed CAN-transceiver can be connected to the microcontroller’s CAN interface.
JP5, JP8connects a CAN-port to the CAN-transceiver (U2, X1).
If the CAN interface is not used then the jumpers should be left open.
Jumper Setting Description
JP5 (CAN”A”RxD)
JP8 (CAN”A”TxD)
Default: grey
Closed RX4 of the MCU is connected to CAN”A” (X1)
Open RX4 of the MCU is not connected to CAN”A”
Closed TX4 of the MCU is connected to CAN”A” (X1)
Open TX4 of the MCU is not connected to CAN”A”
Table 3-8: CAN “A” jumper settings
3.8 CAN “B”
One high-speed CAN-transceiver can be connected to the microcontroller’s CAN interface.
JP15, JP16 connects a CAN-port to the CAN-transceiver (U4, X2).
If the CAN interface is not used then the jumpers should be left open.
One FlexRay transceiver (X9, X7) can be connected to one of the microcontroller’s FlexRay
interface (one channel). In addition further pins of the MCU can be connected to the FlexRay
transceiver for Error-read out feature and power supply switching.
JP45 Connects FlexRay transceiver TXD pin to microcontroller FlexRay TXDA pin
JP46 Connects FlexRay transceiver TXEN pin to microcontroller FlexRay TXENA pin
JP48 Connects FlexRay transceiver RXD pin to microcontroller FlexRay RXDA pin
JP41 Selects FlexRay transceiver STBN pin to Vio or microcontroller pin.
JP61 Selects FlexRay transceiver EN pin to Vio or microcontroller pin.
JP47 Connects FlexRay transceiver ERRN pin to microcontroller pin.
Jumper Setting Description
JP45
(TXDA)
JP46
(TXENA)
JP48
(RXDA)
JP41
(STBN-A)
JP61
(EN-A)
JP47
(ERRN-A)
Default: grey
Closed TXDA of the MCU is connected to FR-A
Open TXDA of the MCU is not connected to FR-A
Closed TXENA of the MCU is connected to FR-A
Open TXENA of the MCU is not connected to FR-A
Closed
Open
1-2
2-3
1-2
2-3
Closed
Open
RXDA of the MCU is connected to FR-A
RXDA of the MCU is not connected to FR-A
STBN of the FR-A is connected to Vio-A.
STBN of the FR-A is connected to MCU pin.
EN of the FR-A is connected to Vio-A.
EN of the FR-A is connected to MCU pin.
ERRN of the FR-A is connected to MCU pin.
ERRN of the FR-A is not connected to MCU pin.
SK-91465X-100PMC User Guide
Chapter 3 Jumpers and Switches
3.10 FlexRay “Channel B” (FR-B)
One FlexRay transceiver (X11, X3) can be connected to one of the microcontroller’s FlexRay
interface (one channel). In addition further pins of the MCU can be connected to the FlexRay
transceiver for Error-read out feature and power supply switching.
JP58 Connects FlexRay transceiver TXD pin to microcontroller FlexRay TXDA pin
JP59 Connects FlexRay transceiver TXEN pin to microcontroller FlexRay TXENA pin
JP62 Connects FlexRay transceiver RXD pin to microcontroller FlexRay RXDA pin
JP43 Selects FlexRay transceiver STBN pin to Vio or microcontroller pin.
JP66 Selects FlexRay transceiver EN pin to Vio or microcontroller pin.
JP51 Connects FlexRay transceiver ERRN pin to microcontroller pin.
Jumper Setting Description
JP58
(TXDB)
JP59
(TXENB)
JP62
(RXDB)
JP43
(STBN-B)
JP66
(EN-B)
JP51
(ERRN-B)
Default: grey
Closed TXDB of the MCU is connected to FR-B
Open TXDB of the MCU is not connected to FR-B
Closed TXENB of the MCU is connected to FR-B
Open TXENB of the MCU is not connected to FR-B
Closed
Open
1-2
2-3
1-2
2-3
Closed
Open
RXDB of the MCU is connected to FR-B
RXDB of the MCU is not connected to FR-B
STBN of the FR-B is connected to Vio-B.
STBN of the FR-B is connected to MCU pin.
EN of the FR-B is connected to Vio-B.
EN of the FR-B is connected to MCU pin.
ERRN of the FR-B is connected to MCU pin.
ERRN of the FR-b is not connected to MCU pin.
In addition to the internal Power-On reset, the microcontroller can be reset by an external
reset circuit (Voltage Monitor) and also by a RS232 interface.
JP28, 50, 71 As well the DTR-line as the RTS-Line of UART”A” or UART “B” or
UART “C”can be used to generate a system reset.
JP72 This jumper selects whether the DTR/RTS line from UART”A” or UART”B”
or UART “C”will generate a system reset.
JP13 This solder jumper selects between normal (immediate) reset and delayed reset.
In delayed reset mode, the reset button has to be held down for 2 sec before a
reset is generated to avoid accidental resets.
JP14 Open this jumper if no external Reset shall be generated.
In this case only the internal reset is active (e.g.: power-on)
JP33The signal on the DTR/RTS line can be negated with this jumper. Remove the jumper in order to disable the RS232 reset circuit.
Jumper Setting Description
JP28 (DTR / RTS “A”)
JP50 (DTR / RTS “B”)
JP71 (DTR / RTS “C”)
JP72 (UART”A”/”B/C”)
(Reset imm./delayed)
JP14 (Main Reset)
JP33 (Polarity)
Default: grey
1-2 DTR of UART”A” is selected
2-3 RTS of UART”A” is selected
1-2 DTR of UART”B” is selected
2-3 RTS of UART”B” is selected
1-2 DTR of UART”C” is selected
2-3 RTS of UART”C” is selected
1-2 UART”A” is used to generate Reset
3-4 UART”B” is used to generate Reset
5-6 UART”C” is used to generate Reset
1-2 Reset is applied immediately when SW6 is pressed JP13
2-3 Reset is applied when SW6 is pressed >2sec
Closed External Reset generation is active
Open No external Reset generation
1-2 No negation for the DTR/RTS signal
2-3 DTR/RTS signal is negated
JP28, JP33, JP50, JP71 and JP72 default setting is
open.
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SK-91465X-100PMC User Guide
Chapter 3 Jumpers and Switches
Note 2:
While a reset signal is asserted the red Reset-LED D1
is lit.
During normal operation, this LED should be off!
If JP33 (Polarity) is set, JP72 and either JP28 or JP50
or JP71 have to be set, too.
If the reset LED is steadily on, check the power supply
input voltage and the settings for the reset-generation
by UART.
3.12 Buttons SW1, SW2, SW3, SW4, SW5, SW6, SW7
JP4, JP6, JP9, JP10, JP12
Five user push buttons SW1-SW5 can be connected to the microcontroller.
JP14 External reset circuit and button SW6 can be connected to the microcontroller.
JP70 Button SW7 can be connected to FlexRay Transceiver Local WAKE pin.
Jumper Setting Description
JP4(SW1)
Closed Pin 74 (INT0) of the MCU is connected to “SW1”
Open No connection to the microcontroller
JP6 (SW2)
JP9 (SW3)
JP10 (SW4)
JP12 (SW5)
JP14(Reset)
JP70 (WAKE)
Default: grey
Closed Pin 77 (INT1) of the MCU is connected to “SW2”
Open No connection to the microcontroller
Closed Pin 53 (ATGX) of the MCU is connected to “SW3”
Open No connection to the microcontroller
Closed Pin 2 (ICU0/TIN0) of the MCU is connected to “SW4”
Open No connection to the microcontroller
Closed Pin 4 (ICU2/TIN2) of the MCU is connected to “SW5”
Open No connection to the microcontroller
Closed INITX is connected to the reset IC and SW6
Open No connection to INITX
1-2 WAKE of FlexRay Transceiver Ch. A is connected to SW7
3-4 WAKE of FlexRay Transceiver Ch. B is connected to SW7
In order to program the Flash-ROM synchronously special third-party soft- and hardware has
to be used, e.g. GALEP-4 from www.conitec.de. This tool is not available for free.
A dedicated Flash programming socket (J4) is provided on the evaluation-board for direct
connection to this programmer.
The following figure shows the power connection jack of the starter kit. This connector is
used to connect an external unregulated DC power supply voltage (12V DC max. 2600mA).
Shield is connected to positive voltage supply (+)
Centre is connected to ground (GND)
Figure 5-1: Power Connector
5.2 Edge connector (X4, X5)
All pins (except oscillator Pins) of the microcontroller are directly connected to X4 and X5 as
follows:
Connector MCU Pins
X4 (1 – 50) 1 – 50
X25 (51 – 100) 51 – 100
Table 5-1: MCU Pin Connectors
The odd pin numbers are located on the one side and the even pin numbers are located on
the other side of the connector.
Three 9-pin D-Sub female connectors are used for the serial interfacesUART4 (X6),
LIN/UART6 (X12) and LIN/UART7(X8).
Take care, that the RS232 as well as the LIN signals are shared at the connectors and have
to be selected by jumpers.
Figure 5-2: UART Connector
Pin Number Pin Signal Description
1 +VBat Power from LIN bus
2
3 RXD RS-232 receive input
4 DTR Connected to DSR (pin 6)
5 GND Ground normally used for RS232 connection
6 DSR Connected to DTR (pin 4)
7 RTS Can be connected with CTS by jumper
8 CTS Can be connected with RTS by jumper
9 LGND Ground normally used for LIN connection
Shield GND Ground
TXD RS-232 transmit output
LIN Bi-directional LIN-interface
Table 5-2: UART Connector Signals
Note:
Connector X6 is connected to RS232, only.
Connector X8 and X12 can be connected to RS232 or
Two 9-pin D-Sub male connectors are used for the CAN interfaces CAN0 and CAN4.
Figure 5-3: CAN Connector
Pin Number Pin Signal Description
1 NC Not used
2 CANL LOW-level CAN voltage input/output
3 GND Ground
4 NC Not used
5 NC Not used
6 NC Not used
7 CANH HIGH-level CAN voltage input/output
8 NC Not used
9 NC Not used
Shield GND Ground
Table 5-3: CAN Connector Signals
5.5 FlexRay Connector (X3, X7)
Two 9-pin D-Sub male connectors are used for the two FlexRay channels A and B.
Figure 5-4: FlexRay Connector
Pin Number Pin Signal Description
1 NC Not used
2 BM Bus line Minus
3 GND Ground
4 NC Not used
5 User Connected to Jumper (CH-A: JP30; CH-B: JP17)
6 NC Not used
7 BP Bus line Plus
8 NC Not used
9 NC Not used
Eight LEDs are supplied for user applications. In order to disconnect the LEDs from the
related microcontroller port (Port 16_D0..D3, P27_D0..D3), the resistor networks RN1 and
RN2 can be removed.
Instead of the user-LEDs an alphanumeric LC-Display (optional) can be connected.
The following control signals are provided:
There is a Flash-programming socket on the starter kit which makes it possible to program
the Flash MCU with a special programming adapter. Mode pins and reset signal is also
available at this connector.
Figure 5-5: In Circuit Programming Connector
Pin Number Pin Signal Description
1 NC Not used
2 NC Not used
3 MD0 MCU mode-pin 0
4 MD2 MCU mode-pin 2
5 INITX MCU reset signal
6 SIN4 UART4 receive data
7 SOT4 UART4 transmit data
8 SCK4 UART4 clock
9 VCC Board supply voltage
The following product pollution control information is provided according to SJ/T11364-2006
Marking for Control of Pollution caused by Electronic Information Products.
1.电子信息产品污染控制标志说明 Explanation of Pollution Control Label
This symbol to be added to all EIO sold to China, indicates the product contains hazardous
materials in excess of the limits established by the Chinese standard SJ/T11363-2006
Requirements for Concentration Limits for Certain Hazardous Substances in Electronic
Information Products. The number in the symbol is the Environment-friendly Use Period
(EFUP), which indicates the period, starting from the manufacturing date, during which the
toxic or hazardous substances or elements contained in electronic information products will
not leak or mutate under normal operating conditions so that the use of such electronic
information products will not result in any severe environmental pollution, any bodily injury or
damage to any assets, the unit of the period is “Year”.
In order to maintain the declared EFUP, the product shall be operated normally according to
the instructions and environmental conditions as defined in the product manual, and periodic
maintenance schedules specified in Product Maintenance Procedures shall be followed
strictly.
Consumables or certain parts may have their own label with an EFUP value less than the
product. Periodic replacement of those consumables or parts to maintain the declared EFUP
shall be done in accordance with the Product Maintenance Procedures.
This product must not be disposed of as unsorted municipal waste, and must be collected
separately and handled properly after decommissioning.
Please note: The designation of 10 years EFUP is not to be equated with the durability, useduration or any warranty-claims of the product.
产品中有毒有害物质或元素的名称及含量
Table of hazardous substances name and concentration