Infineon Aurix TC275 Lite Kit 1 Series User manual

Microcontroller
Evaluation Board
For Aurix™TC275
Board User‘s Manual
Revision 01. June, 2020
Aurix™TC275 Lite Kit
Kit Version 1.1

Edition 01. June, 2020
Published by
Infineon Technologies AG
81726 Munich, Germany
© 2020 Infineon Technologies AG
All Rights Reserved.
Legal Disclaimer
The information given in this document shall in no event be regarded as a guarantee of conditions or
characteristics. With respect to any examples or hints given herein, any typical values stated herein and/or any
information regarding the application of the device, Infineon Technologies hereby disclaims any and all
warranties and liabilities of any kind, including without limitation, warranties of non-infringement of
intellectual property rights of any third party.
Information
For further information on technology, delivery terms and conditions and prices, please contact the nearest
Infineon Technologies Office (www.infineon.com).
Warnings
Due to technical requirements, components may contain dangerous substances. For information on the types
in question, please contact the nearest Infineon Technologies Office.
Infineon Technologies components may be used in life-support devices or systems only with the express
written approval of Infineon Technologies, if a failure of such components can reasonably be expected to
cause the failure of that life-support device or system or to affect the safety or effectiveness of that device or
system. Life support devices or systems are intended to be implanted in the human body or to support and/or
maintain and sustain and/or protect human life. If they fail, it is reasonable to assume that the health of the
user or other persons may be endangered.

Aurix™Lite-Kit V1.1
Revision June, 2020
Revision History
Page or Item
Subjects (major changes since previous revision)
Revision 2020,
June
Initial relased Version is V1.1
Trademarks of Infineon Technologies AG
AURIX™, C166™, CanPAK™, CIPOS™, CIPURSE™, EconoPACK™, CoolMOS™, CoolSET™,
CORECONTROL™, CROSSAVE™, DAVE™, EasyPIM™, EconoBRIDGE™, EconoDUAL™, EconoPIM™,
EiceDRIVER™, eupec™, FCOS™, HITFET™, HybridPACK™, I²RF™, ISOFACE™, IsoPACK™, MIPAQ™,
ModSTACK™, my-d™, NovalithIC™, OptiMOS™, ORIGA™, PRIMARION™, PrimePACK™, PrimeSTACK™,
PRO-SIL™, PROFET™, RASIC™, ReverSave™, SatRIC™, SIEGET™, SINDRION™, SIPMOS™,
SmartLEWIS™, SOLID FLASH™, TEMPFET™, thinQ!™, TRENCHSTOP™, TriCore™.
Other Trademarks
Advance Design System™ (ADS) of Agilent Technologies, AMBA™, ARM™, MULTI-ICE™, KEIL™,
PRIMECELL™, REALVIEW™, THUMB™, µVision™ of ARM Limited, UK. AUTOSAR™ is licensed by AUTOSAR
development partnership. Bluetooth™ of Bluetooth SIG Inc. CAT-iq™ of DECT Forum. COLOSSUS™,
FirstGPS™ of Trimble Navigation Ltd. EMV™ of EMVCo, LLC (Visa Holdings Inc.). EPCOS™ of Epcos AG.
FLEXGO™ of Microsoft Corporation. FlexRay™ is licensed by FlexRay Consortium. HYPERTERMINAL™ of
Hilgraeve Incorporated. IEC™ of Commission Electrotechnique Internationale. IrDA™ of Infrared Data
Association Corporation. ISO™ of INTERNATIONAL ORGANIZATION FOR STANDARDIZATION. MATLAB™ of
MathWorks, Inc. MAXIM™ of Maxim Integrated Products, Inc. MICROTEC™, NUCLEUS™ of Mentor Graphics
Corporation. Mifare™ of NXP. MIPI™ of MIPI Alliance, Inc. MIPS™ of MIPS Technologies, Inc., USA. muRata™
of MURATA MANUFACTURING CO., MICROWAVE OFFICE™ (MWO) of Applied Wave Research Inc.,
OmniVision™ of OmniVision Technologies, Inc. Openwave™ Openwave Systems Inc. RED HAT™ Red Hat, Inc.
RFMD™ RF Micro Devices, Inc. SIRIUS™ of Sirius Satellite Radio Inc. SOLARIS™ of Sun Microsystems, Inc.
SPANSION™ of Spansion LLC Ltd. Symbian™ of Symbian Software Limited. TAIYO YUDEN™ of Taiyo Yuden
Co. TEAKLITE™ of CEVA, Inc. TEKTRONIX™ of Tektronix Inc. TOKO™ of TOKO KABUSHIKI KAISHA TA.
UNIX™ of X/Open Company Limited. VERILOG™, PALLADIUM™ of Cadence Design Systems, Inc. VLYNQ™
of Texas Instruments Incorporated. VXWORKS™, WIND RIVER™ of WIND RIVER SYSTEMS, INC. ZETEX™
of Diodes Zetex Limited.
Last Trademarks Update 2011-02-24
EtherCAT® is registered trademark and patented technology, licensed by Beckhoff Automation GmbH, Germany.

Aurix™Lite-Kit V1.1
Table of Contents
Board Users Manual 4 Revision June, 2020
Table of Contents
1Introduction ......................................................................................................................6
1.1 Block Diagram....................................................................................................................7
2Hardware Description ......................................................................................................8
2.1 Power Supply.....................................................................................................................8
3Pinout of X1 and X2 connectors....................................................................................10
3.1 Shield2Go and MikroBus™ Pinout ...................................................................................11
3.2 Solderable Pin Bridges.....................................................................................................12
3.3 Arduino Compatible Connector.........................................................................................12
3.4 User Push Buttons, User LEDs and Potentiometer...........................................................13
4Debugging and USB Communication...........................................................................14
4.1 USB Connector ................................................................................................................14
4.2 Serial Connection to PC...................................................................................................14
4.3 Bootmode.........................................................................................................................14
4.4 Config Signals..................................................................................................................15
4.5 Infineon DAP Debug Connector (10-pin) ..........................................................................15
4.6 miniWiggler JDS...............................................................................................................16
5Reset ...............................................................................................................................16
5.1 CAN Transceiver..............................................................................................................16
5.2 Schematics.......................................................................................................................17
5.3 List of Material..................................................................................................................18
List of Figures
Figure 1 Block Diagram of the Aurix™ TC275 Lite Kit ......................................................................7
Figure 2 Aurix™ TC275 Lite Kit Board View from the Top ................................................................8
Figure 3 Power Supply Concept.......................................................................................................9
Figure 4 Signal mapping of the pin headers X1 and X2..................................................................10
Figure 5 Signal mapping of the pin headers for Microbus and Shield2Go Connector 1 and 2.........11
Figure 6 Mapping of Arduino Functions to Aurix™ Pin Functions ...................................................13

Aurix™Lite-Kit V1.1
Table of Contents
Board Users Manual 5 Revision June, 2020
List of Tables
Table 1 Overview of the Board Specification..................................................................................6
Table 2 Signal mapping of the 0 Ohm Pin Bridges .......................................................................12
Table 3 Aurix™ Pin Mapping for User LEDs.................................................................................13
Table 4 Debugger Pin Mapping for User LEDs.............................................................................14
Table 5 Aurix™ Push Buttons and Potentiometer.........................................................................14
Table 6 User Startup Modes ........................................................................................................14
Table 7 Config Signals.................................................................................................................15
Table 8 Pin Assignment of the DAP Debug Connector.................................................................15
Table 9 CAN Signals and Aurix™ TC275 Pin Mapping ................................................................17

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 6 Revision June, 2020
1 Introduction
This document describes the features and hardware details of the Aurix™Lite Kit Series-1 equipped with a
32-Bit Single-Chip Aurix™TriCore™-based Microcontroller Aurix™TC275 from Infineon Technologies AG.
It can be used with a range of development tools including Infineon’s free of charge Eclipse based IDE Aurix™
Development Studio or the Eclipse based “FreeEntryToolchain” from Hitecs/PLS/Infineon. Aurix™
Development Studio is a comprehensive environment, including C-Compiler and Multi-core Debugger, Infineon’s
low-level driver (iLLD), with no time and code-size limitations that enables editing, compiling and debugging
application code. The FreeEntryToolchain is a full C/C++ development environment which has a source-level
UDE debugger from PLS included and is also based on Infineon low-level driver (iLLD).
Table 1 Table 1 Overview of the Board Specificationshows the overview specifications of the whole board.
Table 1 Overview of the Board Specification
CPU Core Aurix™
Manufacturer Order No.
SAK-TC275TP-64F200W DB
Type
TC1.6P / TC1.6E
P Cores / Checker Cores /
E Cores / Checker Cores
2 / 1 /
1 / 1
Max Freq.
200 MHz
FPU
YES
Package
PG-LQFP176-22 package
External Crystal Freq.
20 MHz
Flash Memory Aurix™
4 Mbyte Flash
Data Memory Aurix™
384 kB usable for EEPROM emulation
Cache Aurix™
Instruction (P / E)
16 Kbyte / 8 Kbyte
Data (P / E)
8 Kbyte / -
SRAM Aurix™
Size TC1.6P (DSPR/PSPR)
120 Kbyte / 8 Kbyte 2)
Size TC1.6E (DSPR/PSPR)
112 Kbyte / 24 Kbyte 1), 2)
Size LMU
32 Kbyte
Debugger
Manufacturer Order No.
93LC46B-I/SN
External Flash Size
1 Kbyte
External Crystal Freq.
12 MHz
Debbug Connectors
USB3.0 or DAP
Board Dimensions
66,3 x 131,0 mm²
Power
On-Board Debugger Micro-AB USB interface
5V external powering
Connectors
Most Aurix™ pins available on expansion connectors (X1, X2)
Two Infineon Shield2Go connectors
Arduino compatible connectors for 3.3V
mikroBUS™ connector
Micro-USB connector
DAP Debug connector
CAN connector
Others
CAN transceiver TLE9251VSJ from Infineon
1 user push-button, 3 user LEDs
Reset push-button
Potentiometer (10kOhm) for variable analog input

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 7 Revision June, 2020
1) Address range starts at lowest address defined in the User’s Manual. For reference see the Memory Maps chapter of the User’s Manual.
2) To ensure the processor cores are provided with a constant stream of instructions the Instruction Fetch Units will speculatively fetch
instructions from the up to 64 bytes ahead of the current PC. If the current PC is within 64 bytes of the top of an instruction memory the
Instruction Fetch Unit may attempt to speculatively fetch instruction from beyond the physical range. This may then lead to error conditions
and alarms being triggered by the bus and memory systems. It is therefore recommended that the upper 64 bytes of any memory be unused
for instruction storage.
These boards are neither cost nor size optimized and do not serve as a reference design.
1.1 Block Diagram
The block diagram in Figure 1 shows the main components of the Aurix™Lite-Kit V1.1 and their
interconnections.
Figure 1 Block Diagram of the Aurix™TC275 Lite Kit

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 8 Revision June, 2020
2 Hardware Description
The following chapters give a detailed description of the board hardware and how it can be used. The different
assembly versions of the kits series are shown in Figure 2.
Figure 2 Aurix™TC275 Lite Kit Board View from the Top
2.1 Power Supply
The Aurix™TC275 Lite-Kit - V1.1 must be supplied by an external DC power supply, therefore using the micro
USB plug X4 is recommended.
The green Power LED D5 indicates the presence of the generated 3.3 V supply voltage.
If the board is powered via a USB plug, it’s not recommended to apply an additional power supply to one of the
power pins (VEXT, +5V, VDD_USB) on the pin headers X1, X2,the Arduino Power header X302, the Shield2GO
slots or the mikroBus™connectors, because there is no protection against reverse current into the external power
supply. These power pins can furthermore be used, to power an external circuit and therefore used as an output.
But care must be taken to not draw more current than USB can deliver. A PC as USB2.0 host typically can deliver
up to 500 mA current and USB3.0 up to 900mA. For best performance, we recommend to use USB3.0. If higher
currents are required and in order to avoid damages on the USB host, the use of an external USB power supply
unit, which is able to deliver higher currents, is possible.
Note: The LDO G1, that transfers the input voltage to 3.3V, has a maximum output current rating of 1A. Therefore,
if an external 5V USB power supply host is used, the maximum current consumption is limited to 1A. Do not apply
any additional voltage on the VEXT Pins, because they are directly connected to the output of the LDO G1 and
further backwards voltage can damage or destroy the LDO. Furthermore, do not apply multiple sources on the
power pins, otherwise you risk to damage and destroy the board.
However, more options are possible, but therefore, caution is necessary, to avoid any damage to the board and
your supplies. Please ensure that X4 is not supplied by any power source or PC, for all mentioned configurations
below. Otherwise, you risk to damage your source or PC.
Ensuring the mentioned points, following supply options are possible with a +5V power source:
Option 2: Supply +5V on either one of the +5V Pins at X302 Arduino power connector
Option 3: Supply +5V on either one of the VDD_USB Pins at X1 or X2 connector

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 9 Revision June, 2020
Figure 3 Power Supply Concept
Option 4: Note that for this option, the CAN Tranceiver is not working. By desoldering the resitstor R27
(size 0805 imp), you can use an external +3V3 source on either one of the VEXT pins at X1, X2 connectors
or the +3V3 pin on the X302 Arduino power connector, to power the board.
Note: Do not apply any voltage on the mentioned power pins, if the USB is plugged in. Furthermore, do not apply
multiple sources on the power pins, otherwise you risk to damage and destroy the board.

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 10 Revision June, 2020
3 Pinout of X1 and X2 connectors
The pin headers X1 and X2 can be used to extend the evaluation board or to perform measurements on the
Aurix™TC275. Figure 4 shows the available GPIOs / signals at these pin headers. The pin table is also printed
onto the bottom side of the PCB.
Pin Header X1
Pin Header X2
GND
1
2
VEXT
GND
1
2
VDD_USB
P33.11
3
4
P33.12
TXDCAN
P00.0
3
4
P00.1
RXDCAN
P33.13
5
6
P32.0
P00.2
5
6
P00.3
P23.1
7
8
P23.0
LED2
P00.6
7
8
P00.5
LED1
P23.3
9
10
P23.2
P00.8
9
10
P00.7
Button1
P23.5
11
12
P23.4
P00.10
11
12
P00.9
MRST
P22.1
13
14
P22.0
MTSR
P00.12
13
14
P00.11
P21.0
15
16
P22.2
SS
VAREF1
15
16
AN47
MDC
P21.2
17
18
P22.3
SCLK
AN46
17
18
AN45
P21.4
19
20
P21.3
MDIO
AN44
19
20
AN7
P20.10
21
22
P21.5
AN6
21
22
AN5
TXD2_S2G2
P20.0
23
24
P20.1
AN4
23
24
AN3
RXD2_S2G2
P20.3
25
26
ESR1_N
ESR1
AN2
25
26
AN1
ESR0
ESR0_N
27
28
P20.14
Potentiometer
AN0
27
28
P33.0
SDA0
P15.5
29
30
PORST_N
Reset
P33.1
29
30
P33.2
SCL0
P15.4
31
32
P11.12
P33.3
31
32
P33.4
CRSDV
P11.11
33
34
P11.10
CS_S2G2
P33.5
33
34
P33.6
RXD1
P11.9
35
36
P11.6
P33.7
35
36
P33.8
RXD1_S2G1
TXD0
P11.3
37
38
P11.2
CS_S2G1
TXD1_S2G1
P33.9
37
38
P33.10
VDD_USB
39
40
GND
VEXT
39
40
GND
Figure 4 Signal mapping of the pin headers X1 and X2

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 11 Revision June, 2020
3.1 Shield2Go and MikroBus™Pinout
The pin connectors for the Shield2Go Connectors 1 and 2 and the mikroBus™can be used to extend the
evaluation board or to perform measurements on the Aurix™TC275. Figure 5 shows the available signals at
these connectors. The pin table is also printed onto the top and bottom side of the Aurix™TC275 Lite-Kit.
Shield2Go Connector 1
Shield2Go Connector 2
Aurix™
Pins
Aurix™
Pins
1
+5V
5V
Aurix
Pins
1
+5V
5V
Aurix
Pins
2
AN16
AN1
RX
P33.8
10
2
AN18
AN1
RX
P20.3
10
3
AN17
AN2
TX
P33.9
11
3
AN19
AN2
TX
P20.0
11
4
P13.22)
SDA
RST/GPIO
2
P20.9
12
4
P13.22)
SDA
RST/GPIO2
P20.10
12
5
P13.12)
SCL
GPIO1
P32.2
13
5
13.12)
SCL
GPIO1
P32.3
13
6
GND
GND
CS
P11.2
14
6
GND
GND
CS
P11.10
14
7
VEXT
3V3
SCLK
P10.21)
15
7
VEXT
3V3
SLCK
P10.21)
15
8
P00.4
INT/GPIO3
MOSI
P10.31)
16
8
P10.8
INT/GPIO3
MOSI
P10.31)
16
9
P20.12
PWM/GPIO4
MISO
P10.11)
17
9
P20.13
PWM/GPIO4
MISO
P10.11)
17
mikroBus™Connector
1
AN26
AN
PW
M
P2.8
16
2
P10.6
RST
INT
P10.7
15
3
P10.0
CS
RX
P15.1
14
4
P10.21)
SCK
TX
P15.0
13
5
P10.11)
MISO
SCL
P13.12)
12
6
P10.31)
MOSI
SDA
P13.22)
11
7
VEXT
3.3V
5V
+5V
10
8
GND
GND
GND
GND
9
Figure 5 Signal mapping of the pin headers for Microbus and Shield2Go Connector 1 and 2
Note:
1) The SPI buses MOSI, MISO and SCK are shared on the Shield2GOs-, mikroBus™- and Arduino connectors.
2)The I2C buses SCL and SDA are shared on the Shield2GOs, mikroBus™and Arduino connectors and are additionally connected with analog Inputs AN24
and AN25. You can not use I2C and analog reading functions of AN24/AN25 simultanously.

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 12 Revision June, 2020
3.2 Solderable Pin Bridges
Some resistor bridges enable/disable or changing functions of specific signals in Table 2.
To disable the signals, the resistors have to be removed. To enable, the resistor has to be assembled.
For example: Desoldering the intialy assembled resistor R33, disables the Potentiometer and the analog Signal
AN0 of the Aurix, making it usable for other purposes.
Table 2 Signal mapping of the 0 Ohm Pin Bridges
Resistor
Res.
Assembled
Signal
Size
(imperial)
Comment
R31
1kΩ
no
P14.3 (Aurix)
0402
Assemble if needed, but overboots
then P10.5/P10.6
R37
0Ω
yes
XTAL2 (Aurix)
0805
Serial resistor to reduce oscillator
aplitude if needed.
R39_opt
0Ω
no
USR0 (ADBUS6) (Debug)
1210
Placeholder, do not assemble
R40_opt
0Ω
no
USR8 (ACBUS5) (Debug)
1210
Placehoder, do not assemble
3.3 Arduino Compatible Connector
The mapping of GPIOs and Aurix™pin functions to Arduino compatible functions can be found in Figure 5. The
Arduino compatible connector supports
SPI interface (SPI_xxx)
I2C interface (I2C_xxx)
UART interface (UART_xxx)
PWM signal outputs (PWM0-13)
ADC input (ADC0-5)
Interrupt input (INT0-1)
Note that all pins are cabable of offering more functions than mentioned in Figure 5. For more information about
all pin functions, we want to refer you to the Aurix™TCX27X family datasheet (page 13 ff).

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 13 Revision June, 2020
Figure 6 Mapping of Arduino Functions to Aurix™Pin Functions
The Aurix™TC275 Lite-Kit works with 3.3V logic levels. Therefore, any board that works with 5V logic levels,
cannot be used.
Analog input signals ADC0-5 are limited to a voltage which is smaller or equal than VAREF2 with
VAREF2 = VDDM = 3.3V. Primarily, ADC0 to ADC3 should be used as analog input, because there is no
additional circuit connected to these pins, whereas ADC4 and ADC5 have additional circuitry. Parallel operation
of I2C and ADC4 / ADC5 is not possible, because they share the same pins at the Arduino connector X301 and
X303.
3.4 User Push Buttons, User LEDs and Potentiometer
The Aurix™TC275 Lite-Kit provides one user push button, a reset button, two LEDs and one potentiometer.
Additionally, LED3 can be used for visualizing an emergency stop function at ESR0 (emergency service request).
The LEDs D1 and D2 can be used for visualizing activietes at the ADBUS7 and ADBUS4 tracks of the Debugger.
The port pins used can be found in Table 3, Table 4 and Table 5.
Table 3 Aurix™Pin Mapping for User LEDs
Name
Aurix™Pin
Color
Active
LED1
P00.5
green
Low-active (pull against GND)
LED2
P00.6
green
Low-active (pull against GND)
LED3
ESR0
red
Low-active (pull against GND)

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 14 Revision June, 2020
Table 4 Debugger Pin Mapping for User LEDs
Name
Debugger Pin
Color
Active
D1
ADBUS7
green
Low-active (pull against GND)
D2
ADBUS4
green
Low-active (pull against GND)
Table 5 Aurix™ Push Buttons and Potentiometer
Name
Aurix™Pin
Active
Button1
P00.7
Low-active (pull against GND)
Reset
/PORST
Low-active (pull against GND)
R32 (10kΩ)*
AN0
-
*Note: Desoldering resistor R33, enables AN0 for other functions, but disables the Potentiometer functionality.
.
4 Debugging and USB Communication
The Aurix™TC275 Lite-Kit supports debugging via 2 different channels:
On-board debug probe via the the microUSB X4
10-pin DAP Connector
4.1 USB Connector
The USB connector is used for connection to a PC. Via the USB it is possible to power the board, using the
ASCLIN0 as serial connection via USB and Debugging via DAS.
NOTE: Before connecting the board to the PC, make sure that the actual DAS software is installed on
the PC.
For actual DAS software please contact your local FAE.
The software can also be found on: DAS website
4.2 Serial Connection to PC
After the first connection of USB to a PC the needed driver will be installed automatically. During this there will
be created a new COM port on PC. This COM port can be used to communicate with the board via ASCLIN0 of
the device. Per default the ASCLIN0 is used on P14.0 and P14.1 (e.g. Generic Bootstrap Loader).
4.3 Bootmode
Table 6 User Startup Modes 1)2)
HWCFG[5...3]
Type of Boot
2
3
4
XX1
Start-up mode is selected by Boot Mode Index
X
X
OFF
110
Internal Start from Flash
OFF
OFF
ON
100
Alternate Boot Mode, Generic Bootstrap Loader on fail
(P14.0/P14.1)
ON
OFF
ON

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 15 Revision June, 2020
000
Generic Bootstrap Loader (P14.0/P14.1)
ON
ON
ON
1) The shadowed line indicates the default setting.
2) ’x’ represents the don’t care state.
4.4 Config Signals
Table 7 Config Signals
Short
Name
Description
Comment
P14.3
HWCFG3 (Boot from pins / Boot from Flash BMI)
Resistor R31(1kΩ/0402 imp) can be assembled
and therefore would pull HWCFG against GND.
Take care, because this overrides P10.5/P10.6
P14.5
HWCFG1 (EVR33OFF / EVR33ON)
Resistor R30 (1kΩ/0402 imp) pulls signal
against GND and is assembled initially.
P10.5
HWCFG4 (see boot configuration Table 6)
-
P10.6
HWCFG5 (see boot configuration Table 6)
-
4.5 Infineon DAP Debug Connector (10-pin)
Infineon’s 10-pin Device Access Port Debug Connector (DAP) is a two-wire tool access port for microcontrollers
and similar devices. It allows robust high speed connections over a long cable for automotive applications. The
pin assignment of the DAP Debug Connector is shown in Table 8. The board comes with a DAP connector. You
can connect a DAP hardware here. If you use this connector make sure that the miniWiggler JDS is not activ
(LED D2 is off). For more information, we refer you to the DAP Connector Manual.
Table 8 Pin Assignment of the DAP Debug Connector
Pin
Name
Aurix™Pin
Direction
Description
1
VREF
VDDP3/
VEXT
O
Supply voltage from the target system. The voltage has to be
strong enough to supply the target side of the level shifters within
the tool hardware up to about 20 Mhz DAP operating frequency.
The required supply current is in the range of 5 mA, mainly
caused by signal switching. It can be reduced by lowering
frequency and capacitance. Beyond 20 MHz the tool hardware
has to supply the level shifter from another source and use this
pin just as a voltage reference
2
DAP1
TMS
IO
DAP: Data pin.
SPD
IO
SPD: Data pin.
UART
IO
Single-wire UART. Serial communication interface (e.g. used for
Bootstrap Loader BSL).
3
GND
GND
Recommended pin for signal return of DAP1 for high frequency
impedance matching.
4
DAP0
TCK
I
DAP: Clock.
SUP
I
SPD: Optional user pin value for feedback into the target system.
Otherwise reserved
5
GND
GND
Recommended pin for signal return of DAP0 for high frequency
impedance matching.
6
DAP2
P21.7
IO
DAP: Optional second data pin.
USER0
IO/O
Generic signal that can be used for non specified functions.

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 16 Revision June, 2020
Pin
Name
Aurix™Pin
Direction
Description
7
KEY (GND
in cable)
GND
-
If the recommended connector with keying shroud is not used,
this pin provides another option to enforce polarization. In that
instance this pin is removed from the target connector and the
associated jack in the cable connector closed with a plastic pin for
example.
8
DAP3
/TRST
IO
DAP: Optional third data pin.
USER1
IO/I
Generic signal that can be used for non-specified functions.
(DAPEN)
I
Optional indicator that the tool is connected. This can be used to
enable the DAP interface of the device
9
GND
GND
Supply ground.
10
RESET
/PORST
IO
Target reset signal. Open drain active low signal. May be used bi-
directionally to drive or sense the target reset signal. Usually
driven by the tool to reset the target system. The target system is
responsible for providing a pull-up to VREF on this signal to
establish a logic one. The resistor shall not have a value less than
1 kOhms.
4.6 miniWiggler JDS
The miniWiggler JDS is a low cost debug tool which allows you access to the DAP of the device. Make sure that
you have the latest DAS release. Debugging is possible via the DAS Server ‘UDAS‘. Please contact your
preferred debug vendor for support of DAS. If you have connected the board to the PC and there runs the DAS
server, then a working connection is visible via the green LED D2 (ADBUS4). The status LED D1
(ADBUS7/green) is switched on/off through the DAS Server, depending on the used debugger (client).
IMPORTANT: Make sure that there is no or a tristated connection on the DAP connector if the LED D1 is
on.
5 Reset
The power on reset input pin (/PORST) of the Aurix™TC27x family is a bi-directional input/output intended for
external triggering of power-related resets. If the PORST pin remains asserted after a power event then the reset
will be extended until it is deasserted. This does not replace the ESR pins functional reset. An internal pull-up
resistor (2.2kΩ) keeps the PORST# pin high during normal operation. A low level at this pin will force a hardware
reset. In case of a MCU internal reset the PORST# pin will drive a low signal.
A reset signal can be issued by
the on-board Reset Button (“RESET”)
the on-board debug IC FT2232HL (IC1.27 –ACBUS1)
the on-board DAP connector (DAP.10)
the Arduino Power Header (X302.3, “/PORST”)
the pin header X1 (X1.30, “/PORST”)
An Aurix™ internal circuit always ensures a save Power-on-Reset. Aurix™TC275 Lite-Kit does not require any
additional external components to generate a reset signal during power-up. For more informations, please refer
to the Aurix™ TC27X Datasheet or User Manual.
5.1 CAN Transceiver
The Aurix™ TC275 Lite-Kit provides a CAN interface via the CAN connector. The TLE9251V is the latest
Infineon high-speed CAN transceiver generation, used inside HS CAN networks for automotive and also for
industrial applications. It is designed to fulfill the requirements of ISO 11898-2 (2016) physical layer specification
and respectively also the SAE standards J1939 and J2284. The CAN buses (signals CANH, CANL) are
terminated with by a 120Ohm resistor. The transceiver is connected to the TriCore™ device. To use the CAN
pins see Table 9.

Aurix™Lite-Kit V1.1
Hardware Description
Board Users Manual 17 Revision June, 2020
Table 9 CAN Signals and Aurix™TC275 Pin Mapping
Signal
Name
Pin No. at CAN Pin
Header
Aurix ™Pin, Aurix™ Function
Ass. Reg./
I/O Line
CANH
1
-
-
CANL
2
-
-
CAN_TX
-
P20.8, CAN node 0 output
TXDCAN0
CAN_RX
-
P20.7, CAN node 0 input
RXDCAN0B
5.2 Schematics

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B B
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30.06.2020 15:18:13Date: Sheet of Time:
©Infineon Technologies AG 2020. All Rights Reserved.
Author: -
01_Revision_History.SchDoc
Infineon Technologies AG
Infineon Technologies AG
-
V1.1
Title
Size: Rev.
A3 Document Name
01_Revision_History.SchDoc
Rel.
-
Variant Aurix™TC275 Lite-Kit
Default_Assembly Approved <Appr.>
-
-
SVN Revision: da75247807cb30a8ab86d75f81b360f14d63d5c9
Aurix™TC275 Lite-Kit
V1.1
12/2019
Infineon Technologies AG
Infineon Technologies AG
-
THE INFORMATION GIVEN IN THIS DOCUMENT IS GIVEN FOR ILLUSTRATING PURPOSES ONLY.
THE RECIPIENT OF THIS DOCUMENT MUST VERIFY ANY FUNCTION DESCRIBED HEREIN IN THE
REAL APPLICATION. INFINEON TECHNOLOGIES HEREBY DISCLAIMS ANY AND ALL
WARRANTIES AND LIABILITIES OF ANY KIND (INCLUDING WITHOUT LIMITATION
WARRANTIES OF NON-INFRINGEMENT OF INTELLECTUAL PROPERTY RIGHTS OF ANY THIRD
PARTY) WITH RESPECT TO ANY AND ALL INFORMATION GIVEN IN THIS DOCUMENT.
LEGAL DISCLAIMER
01
Page
Cover Sheet / Revision History
Schematics Page Name
03
02
Index
04
OCDS
05
06
07
08
09
10
Revision History
Author DescriptionDateRev. Page(s)Rel.
Default_Assembly
V1.0 Eval Board12/2019 R.B.
Power_a_Connector
CPU

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©Infineon Technologies AG 2020. All Rights Reserved.
Author: -
02_OCDS.SchDoc
Infineon Technologies AG
Infineon Technologies AG
-
V1.1
Title
Size: Rev.
A3 Document Name
02_OCDS.SchDoc
Rel.
-
Variant Aurix™TC275 Lite-Kit
Default_Assembly Approved <Appr.>
-
-
SVN Revision: da75247807cb30a8ab86d75f81b360f14d63d5c9
ADBUS0 16
ADBUS1 17
ADBUS2 18
ADBUS3 19
ADBUS4 21
ADBUS5 22
ADBUS6 23
ADBUS7 24
ACBUS0 26
ACBUS1 27
ACBUS2 28
ACBUS3 29
BDBUS0 38
BDBUS1 39
BDBUS2 40
BDBUS3 41
BDBUS4 43
BDBUS5 44
BDBUS6 45
BDBUS7 46
BCBUS0 48
BCBUS1 52
BCBUS2 53
BCBUS3 54
GND
1
GND
5
GND
11
GND
15
AGND
10
VCCIO 31 VCCIO 20
VPHY 4
VPLL 9
VCORE 12
OSCI
2
DM
7DP
8
RESET_N
14
EECS
63
EECLK
62
EEDATA
61
TEST
13
USB Interface
PWREN_N
60
Misc Signal Group
EEPROM Interface
Channel A
Channel B
FT2232HL
DUAL HIGH SPEED USB
GND
25
GND
35
GND
47
GND
51
VCORE 37 VCORE 64
VCCIO 42 VCCIO 56
VREGIN 50
VREGOUT 49
ACBUS4 30
ACBUS5 32
ACBUS6 33
ACBUS7 34
BCBUS4 55
BCBUS5 57
BCBUS6 58
BCBUS7 59
OSCO
3
SUSPEND_N
36
REF
6
UART /FIFO IC
+1.8V +3.3V
IC1
FT2232HL
C9 100nF
C10 100nF
C12 100nF
C8 100nF
C7 100nF
C6 100nF
C1 100nF
GND
GND
+1V8
C11
3.3uF
GND GND
C3
100nF C4 100nF
GND
L1
MMZ1608R300ATA00
12
C2
4.7uF
R7 12k
R6 1k
13 24
Y1
C14
8pF
VDD_USB
GND
1
2
3
4
5
MP1
MP2
MP3
MP4
MP5
MP6
X4
ZX62-AB-5PA(31)
VSS
5
CLK 2
DO
4
CS 1
VCC 8
DI 3
NC1
6
NC2
7
U5
93LC46B-I/SN
C19
100nF
R17
2.2k
GND
GND
1OE_N
1
1Y1 18
1Y2 16
1Y3 14
1Y4 12
GND 10
2Y1 9
2Y2 7
2Y3 5
2Y4 3
VCC 20
1A1
2
1A2
4
1A3
6
1A4
8
2A1
11
2A2
13
2A3
15
2A4
17
2OE_N
19
U1
VEXT
C15
8pF
GND
GND
GND
C13
100nF
VEXT
GND
GND
USR0
/RESET /PORST
GND
GND
VEXT VEXT
VEXT
VEXT
VEXT
VEXTVEXT
VEXT
OE_N
1
VCC
5GND 3
A
2Y4
U2
C17
100nF
GND
C16
100nF
GND GND
GND
C18
100nF GND
VEXT
DAP1
VEXT
VEXT
GND
ADBUS0
ADBUS6
ACBUS1
ACBUS4
ADBUS1
ACBUS5
ADBUS2
C21
100nF GND
VEXT
C20
100nF
GND
GND
VEXT
R1
100R
+1V8
VEXT
P21.7
R5 22R
R4 22R
C100
100nF
R106
1MEG
GND GND
VEXT
P14.1
P14.0
ADBUS0
ADBUS1
ADBUS3 ADBUS0 ACBUS5
ACBUS5
GND
ADBUS2
ADBUS2
ACBUS3
ACBUS3
ACBUS7
ACBUS7
ACBUS4
ACBUS1
ADBUS6
ADBUS7
ADBUS7
ADBUS4
ADBUS4
ADBUS4
ACBUS2
ACBUS2 /TRST
USR8
GND
R39_opt
0R
R40_opt 0R
LEDs of OCDSOCDS
Signal Network Switches
DAP0
BDBUS0
BDBUS1
USB Connector
External Flash Unit
12
C5
4.7uF
L2
MMZ1608R300ATA00
R2
100R
R3
10k
R8
10k
R14
10k
R12
10k
R11
10k
R9
10k
R19
4.7k
R18
4.7k
VCCA
1
A
3B4
GND 2 DIR
5
VCCB 6
0
1
U4
SN74LVC1T45DBVR
VCCA
1
A
3B4
GND 2 DIR
5
VCCB 6
0
1
U3
SN74LVC1T45DBVR
1 2
D4 BAT54-02LRH
VEXT
1 2
D1
Green
1 2
D2
Green
R7 should be at
least +/-1 %
R39_opt/R40_opt are not
assembled, but may be assembled
when needed. Take care of
functionallity then.
PIC101 PIC102
COC1
PIC201
PIC202
COC2
PIC301
PIC302
COC3
PIC401
PIC402
COC4
PIC501
PIC502
COC5
PIC601 PIC602
COC6
PIC701 PIC702
COC7
PIC801 PIC802
COC8
PIC901 PIC902
COC9
PIC1001 PIC1002
COC10
PIC1101 PIC1102
COC11
PIC1201 PIC1202
COC12
PIC1301
PIC1302
COC13
PIC1401
PIC1402
COC14
PIC1501
PIC1502
COC15
PIC1601 PIC1602
COC16
PIC1701 PIC1702
COC17
PIC1801 PIC1802
COC18
PIC1901
PIC1902
COC19
PIC2001 PIC2002
COC20
PIC2101 PIC2102
COC21
PIC10001
PIC10002
COC100
PID101 PID102
COD1
PID201 PID202
COD2
PID401 PID402
COD4
PIIC101
PIIC102
PIIC103
PIIC104
PIIC105
PIIC106
PIIC107
PIIC108
PIIC109
PIIC1010 PIIC1011
PIIC1012
PIIC1013
PIIC1014
PIIC1015
PIIC1016
PIIC1017
PIIC1018
PIIC1019
PIIC1020
PIIC1021
PIIC1022
PIIC1023
PIIC1024
PIIC1025
PIIC1026
PIIC1027
PIIC1028
PIIC1029
PIIC1030
PIIC1031
PIIC1032
PIIC1033
PIIC1034
PIIC1035
PIIC1036
PIIC1037
PIIC1038
PIIC1039
PIIC1040
PIIC1041
PIIC1042
PIIC1043
PIIC1044
PIIC1045
PIIC1046
PIIC1047
PIIC1048
PIIC1049 PIIC1050
PIIC1051
PIIC1052
PIIC1053
PIIC1054
PIIC1055
PIIC1056
PIIC1057
PIIC1058
PIIC1059
PIIC1060
PIIC1061
PIIC1062
PIIC1063
PIIC1064
COIC1
PIL101 PIL102
COL1
PIL201 PIL202
COL2
PIR101 PIR102
COR1
PIR201 PIR202
COR2
PIR301
PIR302
COR3
PIR401 PIR402
COR4
PIR501 PIR502
COR5
PIR601 PIR602
COR6
PIR701 PIR702
COR7
PIR801 PIR802
COR8
PIR901
PIR902
COR9
PIR1101 PIR1102
COR11
PIR1201 PIR1202
COR12
PIR1401 PIR1402
COR14
PIR1701 PIR1702
COR17
PIR1801
PIR1802
COR18
PIR1901
PIR1902
COR19
PIR390opt01 PIR390opt02
COR390opt
PIR400opt01 PIR400opt02
COR400opt
PIR10601
PIR10602
COR106
PIU101
PIU102
PIU103
PIU104
PIU105
PIU106
PIU107
PIU108
PIU109
PIU1010
PIU1011
PIU1012
PIU1013
PIU1014
PIU1015
PIU1016
PIU1017
PIU1018
PIU1019
PIU1020
COU1
PIU201
PIU202
PIU203
PIU204
PIU205
COU2
PIU301
PIU302
PIU303 PIU304
PIU305
PIU306
COU3
PIU401
PIU402
PIU403 PIU404
PIU405
PIU406
COU4
PIU501
PIU502
PIU503 PIU504
PIU505
PIU506
PIU507
PIU508
COU5
PIX401
PIX402
PIX403
PIX404
PIX405
PIX40MP1
PIX40MP2
PIX40MP3
PIX40MP4
PIX40MP5
PIX40MP6
COX4
PIY101
PIY102
PIY103
PIY104
COY1
PIC902
PIC1002 PIC1102
PIC1202
PIIC1012 PIIC1037 PIIC1049 PIIC1064
PID402
NL0PORST
PID401 PIU107
NL0RESET
PIU109
NL0TRST
PIIC1027
PIU1013
NLACBUS1
PIIC1028
PIU1011
NLACBUS2
PIIC1029
PIU403
NLACBUS3
PIIC1030
PIR901
PIU201
NLACBUS4
PIIC1032
PIR1802
PIU1015
PIU305
NLACBUS5
PIIC1034
PIR1902
PIU405
NLACBUS7
PIIC1016
PIR801
PIU102
NLADBUS0
PIIC1017
PIU202
NLADBUS1
PIIC1018
PIU204
PIU303
NLADBUS2
PIIC1019 PIR802
NLADBUS3
PIIC1021
PIR201
PIR301
PIU101
PIU1019
NLADBUS4
PIIC1023
PIU108
NLADBUS6
PIIC1024
PIR101
NLADBUS7
PIU1018
NLDAP0
PIU304
NLDAP1
PIC101
PIC202 PIC301 PIC401 PIC502
PIC601
PIC701
PIC801
PIC901
PIC1001 PIC1101
PIC1201
PIC1301
PIC1402 PIC1502
PIC1601
PIC1701 PIC1801
PIC1901
PIC2001 PIC2101
PIC10001
PIIC101 PIIC105 PIIC1010 PIIC1011
PIIC1013
PIIC1015 PIIC1025 PIIC1035 PIIC1047 PIIC1051
PIR701
PIR1801
PIR1901
PIR390opt02
PIR400opt02
PIR10602
PIU1010
PIU203
PIU302
PIU402
PIU505
PIX405
PIY102 PIY104
PIX404
PIU507
PIU506
PIU1017
PIU1016
PIU1014 PIU106
PIU104
PIU103
PIR1701
PIU504
PIR501 PIX402
PIR401 PIX403
PIIC1063 PIR1101
PIU501
PIIC1062
PIR1201
PIU502
PIIC1061
PIR1401
PIR1702
PIU503
PIIC1060
PIIC1059
PIIC1058
PIIC1057
PIIC1055
PIIC1054
PIIC1053
PIIC1052
PIIC1048
PIIC1046
PIIC1045
PIIC1043
PIIC1044
PIIC1040
PIIC1041
PIIC1036
PIIC1033
PIIC1026
PIIC1022
PIIC1014 PIR601
PIIC108 PIR402
PIIC107 PIR502
PIIC106 PIR702
PID201 PIR202
PID101 PIR102
PIC10002
PIR10601
PIX40MP1
PIX40MP2
PIX40MP3
PIX40MP4
PIX40MP5
PIX40MP6
PIC1501
PIIC103
PIY101
PIC1401
PIIC102
PIY103
PIC402 PIC501
PIIC104
PIL201
PIC201 PIC302
PIIC109
PIL102
PIIC1039
NLP1400
PIIC1038
NLP1401
PIU404
NLP2107
PIR390opt01 PIU1012
NLUSR0
PIR400opt01 PIU105
NLUSR8
PIX401
PIC102
PIC602
PIC702
PIC802
PIC1302
PIC1602
PIC1702 PIC1802
PIC1902
PIC2002 PIC2102
PID102
PID202
PIIC1020 PIIC1031 PIIC1042 PIIC1050 PIIC1056
PIL101 PIL202
PIR302
PIR602
PIR902
PIR1102
PIR1202
PIR1402
PIU1020
PIU205
PIU301 PIU306
PIU401 PIU406
PIU508

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30.06.2020 15:18:14Date: Sheet of Time:
©Infineon Technologies AG 2020. All Rights Reserved.
Author: -
03_Power_a_Connector.SchDoc
Infineon Technologies AG
Infineon Technologies AG
-
V1.1
Title
Size: Rev.
A3 Document Name
03_Power_a_Connector.SchDoc
Rel.
-
Variant Aurix™TC275 Lite-Kit
Default_Assembly Approved <Appr.>
-
-
SVN Revision: da75247807cb30a8ab86d75f81b360f14d63d5c9
PWM_4
PWM_7
PWM_5
PWM_6
PWM_2
TX
RX
ARDUINO Compatible Connectors
/PORST
VEXT
VEXT
P02.4
P02.3
P02.0
RX
TX
SDA0/AN24
SCL0/AN25
SPICLK
MISO
MOSI
P10.5
P02.7
SPICLK
MISO
MOSI
PWM_9
PWM_8
GND
AREF
P02.5
P02.1
P10.4
P02.6
SS0/PWM_10
PWM_3
AN39
AN38
AN37
ADC0
ADC1
ADC2
ADC3
ADC4/SDA0
ADC5/SCL0
VSS
101
VDD 68
VDD 123
VDD 24
VDDFL3
155
VFLEX
164
VEXT
25
VEXT
69
VEXT
99
VEXT
153
Core Supply 1.3V
External 3.3V/5V
Flex Power
Supply 3.3V/5V
Digital
Flash Power
Supply 3.3V
VGATE1P 85
Gate Control
External
Digital Power Supply
Digital Ground
VDD/VDDSB 10
EPAD 177
U6A
VDDM 54
VSSM 53
VAGND2 27
VAREF1 52
VAGND1 51
VAREF2 26
Analog Power Supply
U6E
XTAL1
102
XTAL2
103 VDDP3 104
Power Supply 1.3V
Main Oscillator
Power Supply 3.3V
VDD 100
VDDP3 154
U6B
VEXTVDDP3
12
Y2
GND
VDD+1V3VEXT
23
1
Q2
VDD
VEXT
VEXT
VDDFL3
GND
VAREF1
VDDM
GND
LED2
LED1
Reset Circuit of AURIX TC275
Buttons & LEDs
2mA LED
2mA LED
VEXT
R21
680R
R23
680R
C22
100nF
1
23
4BUTTON1 P00.7
FSM2JSMA
GND
GND
PORST_N
121
P20_2/TESTMODE_N
118
ESR0_N 122
ESR1_N 120
General Control
U6C
/ESR0
LED1
LED2
P00.5
P00.6
P00.7
AN0
GND
VEXT
1
2 3
R32
10k
Potentiometer
C42
330nF
GND GND
Arduino Connector & X1/X2
Power & Power LED
1
I
3Q2
GND/ADJ
G1
C24
10uF
GNDGNDGND
VEXT
LED3
2mA LED
VAREF2
GND
VEXT
R10
4.7k
1 2
LED3 ESR0
Red
R24
680R
VEXT
/ESR0
VEXT
GND
R36
1k
Power
Power of the AURIX TC275
+5V
GNDR25 1.2R
R28 6.8R
R29 6.8R
R22 0R
GND GND
C39
22uF
VDD
C36100nF
GND
VDD
R20
2.2k
VEXT
VAREF1
GND
VAREF2
GND
AURIX TC275 Capacitors
GND
VEXT
GND
GND
5V
3V3
RESET
IOREF
+5V
NC
AN36
+3V3
GND
C28
47nF
12
LED1
Green
12
LED2
Green
C45
100nF
1
2 3
4
Reset
FSM2JSMA
GND GND
VEXT
R26
2.2k /PORST
GND
Potentiometer
AREF
Potentiometer
P00.0
P00.2
AN44
AN46
AN0
AN2
AN4
AN6
P33.1
P33.3
P33.5
P33.7
TXD1_S2G1
VAREF1
P00.3
P00.5
P00.7
P00.9
P00.11
AN45
AN47
AN3
AN5
AN7
AN1
P33.0
P33.2
P33.4
P33.6
RXD1_S2G1
GND
VEXT
/ESR1
GND
P33.11
P33.13
P23.1
P23.3
P23.5
P32.0
P23.0
P23.2
P23.4
VEXT DAP1
GND
DAP0
P21.7
/TRST
/PORST
VAREF2
ADC5/SCL0
ADC4/SDA0
AN
RST
CS
SCK
MISO
MOSI
3.3V
GND
PWM
INT
RX
TX
SCL
SDA
5V
GND
MIKROBUS
AN26_MB
SDA0/AN24
SCL0/AN25
SDA0/AN24
SCL0/AN25
VDD_USB +5V
+5VVEXT
GNDGND
RXD0_MB
TXD0_MB TX Mikrobus
RX Mikrobus
SPICLK
MISO
MOSI
SPICLK
MISO
MOSI
SS_MB
SS Mikrobus RST_MB
Reset Mikrobus PWM_MB PWM Mikrobus
INT_MB Interrupt Mikrobus
ADC Mikrobus
1
2
3
4
5
6
7
8
917
16
15
14
13
12
11
10
5V
AN1
AN2
SDA
SCL
GND
3V3
INT/GPIO3
PWM/GPIO4
RX
TX
RST/GPIO2
GPIO1
CS
SCLK
MOSI
MISO
PASSIVE
S2G2
Shield2Go-2
1
2
3
4
5
6
7
8
9 17
16
15
14
13
12
11
10
5V
AN1
AN2
SDA
SCL
GND
3V3
INT/GPIO3
PWM/GPIO4
RX
TX
RST/GPIO2
GPIO1
CS
SCLK
MOSI
MISO
PASSIVE
S2G1
Shield2Go-1
SCL0/AN25
SCL0/AN25
SDA0/AN24
SDA0/AN24
VEXT
VEXT
+5V
+5V
GND
GND
SPICLK SPICLK
MISO
MOSI MOSI
MISO
SPICLK SPICLK
MISO
MOSI MOSI
MISO
RXD1_S2G1
TXD1_S2G1
TXD2_S2G2
RXD2_S2G2
RST_S2G1
RST_S2G2
GPIO1_S2G1
GPIO1_S2G2
CS_S2G1
CS_S2G2
AN1_S2G1
AN2_S2G1
AN1_S2G2
AN2_S2G2
PWM_S2G1
PWM_S2G2
Button1
P20.10 P20.1
P22.0
P22.2
Mikrobus
Shield2GO Connectors
P22.1
P21.0 P22.3P21.2 P21.3
P21.5
P21.4
/ESR0 /PORST P20.14
TXD2_S2G2 /ESR1RXD2_S2G2
INT_S2G1
INT_S2G2
P00.6
P00.8
P00.10
P00.12
P15.4
P11.11
P11.9
P11.3 P11.6
P15.5 P11.12
VEXT
P33.12
MTSR
SS
SCLK
MDIO
GND
VDD_USB
CS_S2G2
P00.1
P33.10
GND
+5V
1 2
3 4
5 6
X300
GND
MOSI
+5V
/PORST
SPICLK
MISO
CS_S2G1
C43
330nF
C25
330nF
C29100nF C30100nF C31100nF C32100nF C33100nF C34100nF C35100nF C262.2uF C272.2uF
C23100nF
C37100nF C38100nF
C41100nF
C44
10pF
C40
10pF
1 2
9
3 4
7
5 6
8
10
DAP
GPEC214-0502B009C1BC
1 2
D5
Green
1 2
3 4
5 6
7 8
910
11 12
13 14
15 16
17 18
19 20
21 22
23 24
25 26
27 28
29 30
31 32
33 34
35 36
37 38
39 40
X1
68691-440HLF
1 2
3 4
5 6
7 8
9 10
11 12
13 14
15 16
17 18
19 20
21 22
23 24
25 26
27 28
29 30
31 32
33 34
35 36
37 38
39 40
X2
68691-440HLF
1
2
3
4
5
6
X301
1
2
3
4
5
6
7
8
X304
1
2
3
4
5
6
7
8
9
10
X303
SSQ-110-03-F-S
1
2
3
4
5
6
7
8
X302
VEXT
VEXT
R13
0R
R27
0R
R33
0R
R34
0R R35
0R
R37
0R
R38
0R
SDA0
SCL0
CRSDV
RXD1
TXD0
Reset
RXDCANTXDCAN
VDD_USB
GND
Note: 0 Ohm resistors (R13/R27)
should have >1000 mW, due to
tolerances of the resistor and the
max. current of 1000mA of the LDO.
P= R*I^2
Use CCU6 or GTM
Signal for creating
PWM Signal for LEDs
2.2kOhm pull-up >
internall pull-down
PIBUTTON1 P000701
PIBUTTON1 P000702 PIBUTTON1 P000703
PIBUTTON1 P000704
COBUTTON1 P0007
PIC2201
PIC2202
COC22
PIC2301
PIC2302
COC23
PIC2401
PIC2402
COC24
PIC2501 PIC2502
COC25
PIC2601
PIC2602
COC26
PIC2701
PIC2702
COC27
PIC2801
PIC2802
COC28
PIC2901
PIC2902
COC29
PIC3001
PIC3002
COC30
PIC3101
PIC3102
COC31
PIC3201
PIC3202
COC32
PIC3301
PIC3302
COC33
PIC3401
PIC3402
COC34
PIC3501
PIC3502
COC35
PIC3601
PIC3602
COC36
PIC3701
PIC3702
COC37
PIC3801
PIC3802
COC38
PIC3901
PIC3902
COC39
PIC4001 PIC4002
COC40
PIC4101
PIC4102
COC41
PIC4201
PIC4202
COC42
PIC4301
PIC4302
COC43
PIC4401 PIC4402
COC44
PIC4501
PIC4502
COC45
PID501
PID502
COD5
PIDAP01 PIDAP02
PIDAP03 PIDAP04
PIDAP05 PIDAP06
PIDAP07 PIDAP08
PIDAP09 PIDAP010
CODAP
PIG101
PIG102 PIG103
COG1
PILED101
PILED102
COLED1
PILED201
PILED202
COLED2
PILED3 ESR001
PILED3 ESR002
COLED3 ESR0
PIMIKROBUS01
PIMIKROBUS02
PIMIKROBUS03
PIMIKROBUS04
PIMIKROBUS05
PIMIKROBUS06
PIMIKROBUS07
PIMIKROBUS08 PIMIKROBUS09
PIMIKROBUS010
PIMIKROBUS011
PIMIKROBUS012
PIMIKROBUS013
PIMIKROBUS014
PIMIKROBUS015
PIMIKROBUS016
COMIKROBUS
PIQ201
PIQ202 PIQ203
COQ2
PIR1001
PIR1002
COR10
PIR1301 PIR1302
COR13
PIR2001
PIR2002
COR20
PIR2101
PIR2102
COR21
PIR2201 PIR2202
COR22
PIR2301
PIR2302
COR23
PIR2401
PIR2402
COR24
PIR2501 PIR2502
COR25
PIR2601
PIR2602
COR26
PIR2701 PIR2702
COR27
PIR2801 PIR2802
COR28
PIR2901 PIR2902
COR29
PIR3201
PIR3202 PIR3203
COR32
PIR3301 PIR3302
COR33
PIR3401
PIR3402
COR34
PIR3501 PIR3502
COR35
PIR3601
PIR3602
COR36
PIR3701 PIR3702
COR37
PIR3801 PIR3802
COR38
PIReset01
PIReset02 PIReset03
PIReset04
COReset
PIS2G101
PIS2G102
PIS2G103
PIS2G104
PIS2G105
PIS2G106
PIS2G107
PIS2G108
PIS2G109
PIS2G1010
PIS2G1011
PIS2G1012
PIS2G1013
PIS2G1014
PIS2G1015
PIS2G1016
PIS2G1017
COS2G1
PIS2G201
PIS2G202
PIS2G203
PIS2G204
PIS2G205
PIS2G206
PIS2G207
PIS2G208
PIS2G209
PIS2G2010
PIS2G2011
PIS2G2012
PIS2G2013
PIS2G2014
PIS2G2015
PIS2G2016
PIS2G2017
COS2G2
PIU6010
PIU6024
PIU6025
PIU6068
PIU6069
PIU6085
PIU6099
PIU60101
PIU60123
PIU60153
PIU60155
PIU60164
PIU60177
COU6A
PIU60100
PIU60102
PIU60103 PIU60104
PIU60154
COU6B
PIU60118 PIU60120
PIU60121 PIU60122
COU6C
PIU6026
PIU6027
PIU6051
PIU6052
PIU6053
PIU6054
COU6E
PIX101 PIX102
PIX103 PIX104
PIX105 PIX106
PIX107 PIX108
PIX109 PIX1010
PIX1011 PIX1012
PIX1013 PIX1014
PIX1015 PIX1016
PIX1017 PIX1018
PIX1019 PIX1020
PIX1021 PIX1022
PIX1023 PIX1024
PIX1025 PIX1026
PIX1027 PIX1028
PIX1029 PIX1030
PIX1031 PIX1032
PIX1033 PIX1034
PIX1035 PIX1036
PIX1037 PIX1038
PIX1039 PIX1040
COX1
PIX201 PIX202
PIX203 PIX204
PIX205 PIX206
PIX207 PIX208
PIX209 PIX2010
PIX2011 PIX2012
PIX2013 PIX2014
PIX2015 PIX2016
PIX2017 PIX2018
PIX2019 PIX2020
PIX2021 PIX2022
PIX2023 PIX2024
PIX2025 PIX2026
PIX2027 PIX2028
PIX2029 PIX2030
PIX2031 PIX2032
PIX2033 PIX2034
PIX2035 PIX2036
PIX2037 PIX2038
PIX2039 PIX2040
COX2
PIX30001 PIX30002
PIX30003 PIX30004
PIX30005 PIX30006
COX300
PIX30101
PIX30102
PIX30103
PIX30104
PIX30105
PIX30106
COX301
PIX30201
PIX30202
PIX30203
PIX30204
PIX30205
PIX30206
PIX30207
PIX30208
COX302
PIX30301
PIX30302
PIX30303
PIX30304
PIX30305
PIX30306
PIX30307
PIX30308
PIX30309
PIX303010
COX303
PIX30401
PIX30402
PIX30403
PIX30404
PIX30405
PIX30406
PIX30407
PIX30408
COX304
PIY201
PIY202
COY2
PIC3902
PIQ202 PIR3501
PIC2402
PIG102 PIR2701
PIC2301
PIG103
PIMIKROBUS010
PIR1302
PIR2201
PIS2G101
PIS2G201
PIX30002
PIX30208
PILED3 ESR001
PIR1001
PIU60122
PIX1027
NL0ESR0
PIU60120
PIX1026
NL0ESR1
PIC4502
PIDAP010
PIR2601
PIReset03
PIReset04 PIU60121
PIX1030
PIX30005
PIX30203
NL0PORST
PIDAP08
NL0TRST
PIC2802
PIR3302
PIX2027
NLAN0
PIX2026
NLAN1
PIS2G102
NLAN10S2G1
PIS2G202
NLAN10S2G2
PIX2025
NLAN2
PIS2G103
NLAN20S2G1
PIS2G203
NLAN20S2G2
PIX2024
NLAN3
PIX2023
NLAN4
PIX2022
NLAN5
PIX2021
NLAN6
PIX2020
NLAN7
PIMIKROBUS01
NLAN260MB
PIX30104
NLAN36
PIX30103
NLAN37
PIX30102
NLAN38
PIX30101
NLAN39
PIX2019
NLAN44
PIX2018
NLAN45
PIX2017
NLAN46
PIX2016
NLAN47
PIS2G1014
PIX1038
NLCS0S2G1
PIS2G2014
PIX1034
NLCS0S2G2
PIDAP04
NLDAP0
PIDAP02
NLDAP1
PIBUTTON1 P000701
PIBUTTON1 P000702
PIC2201
PIC2302 PIC2401
PIC2501
PIC2601 PIC2701
PIC2801
PIC2901 PIC3001 PIC3101 PIC3201 PIC3301 PIC3401 PIC3501 PIC3602
PIC3702 PIC3802
PIC3901
PIC4001
PIC4102
PIC4201 PIC4301
PIC4401
PIC4501
PID501
PIDAP03
PIDAP05
PIDAP07
PIDAP09
PIG101
PIMIKROBUS08 PIMIKROBUS09
PIR3203
PIReset01
PIReset02
PIS2G106
PIS2G206
PIU6027
PIU6051
PIU6053
PIU60101 PIU60177
PIX101
PIX1040
PIX201
PIX2040
PIX30006
PIX30206
PIX30207
PIX30307
PIS2G1013
NLGPIO10S2G1
PIS2G2013
NLGPIO10S2G2
PIMIKROBUS015
NLINT0MB
PIS2G108
NLINT0S2G1
PIS2G208
NLINT0S2G2
PIMIKROBUS05
PIS2G1017
PIS2G2017
PIX30001
PIX30305
NLMISO
PIMIKROBUS06
PIS2G1016
PIS2G2016
PIX30004
PIX30304
NLMOSI
PIX30201
PIU60118
PIR3702
PIU60103
PIR3202
PIR3301
PIR2202 PIX30205
PIQ201
PIU6085
PILED3 ESR002
PIR2402
PILED202
PIR2301
PILED102
PIR2101
PID502
PIR3601
PIC4402 PIR3701
PIY202
PIC4002 PIU60102
PIY201
PIX203
NLP0000
PIX204
PIX2011
NLP0001
NLP00010
PIX205
NLP0002
PIX206
NLP0003
PILED101
PIX208
NLP0005
PILED201
PIX207
NLP0006
PIBUTTON1 P000703
PIBUTTON1 P000704
PIC2202
PIR2001
PIX2010
NLP0007
PIX209
NLP0008
PIX2012
NLP0009
PIX2014
NLP00011
PIX2013
NLP00012
PIX30403
NLP0200
PIX30404
NLP0201
PIX30406
NLP0203
PIX30408
NLP0204
PIX30407
NLP0205
PIX30301
NLP0206
PIX30302
NLP0207
PIX30405
NLP1004
PIX30303
NLP1005
PIX1037
NLP1103
PIX1036
NLP1106
PIX1035
NLP1109
PIX1033
NLP11011
PIX1032
NLP11012
PIX1031
NLP1504
PIX1029
NLP1505
PIX1024
PIX1021
NLP2001
NLP20010
PIX1028
NLP20014
PIX1015
NLP2100
PIX1017
NLP2102
PIX1020
NLP2103
PIX1019
NLP2104
PIX1022
NLP2105
PIDAP06
NLP2107
PIX1014
NLP2200
PIX1013
NLP2201
PIX1016
NLP2202
PIX1018
NLP2203
PIX108
NLP2300
PIX107
NLP2301
PIX1010
NLP2302
PIX109
NLP2303
PIX1012
NLP2304
PIX1011
NLP2305
PIX106
NLP3200
PIX2028
NLP3300
PIX2029
PIX2038
NLP3301
NLP33010
PIX2030
NLP3302
PIX2031
NLP3303
PIX2032
NLP3304
PIX2033
NLP3305
PIX2034
NLP3306
PIX2035
NLP3307
PIX103
NLP33011
PIX104
NLP33012
PIX105
NLP33013
PIMIKROBUS016
NLPWM0MB
PIS2G109
NLPWM0S2G1
PIS2G209
NLPWM0S2G2
PIMIKROBUS02
NLRST0MB
PIS2G1012
NLRST0S2G1
PIS2G2012
NLRST0S2G2
PIX30401
NLRX
PIMIKROBUS014
NLRXD00MB
PIS2G1010
PIX2036
NLRXD10S2G1
PIS2G2010
PIX1025
NLRXD20S2G2
PIMIKROBUS012
PIS2G105
PIS2G205
PIX30106
PIX303010
NLSCL00AN25
PIMIKROBUS011
PIS2G104
PIS2G204
PIX30105
PIX30309
NLSDA00AN24
PIMIKROBUS04
PIS2G1015
PIS2G2015
PIX30003
PIX30306
NLSPICLK
PIMIKROBUS03
NLSS0MB
PIX30402
NLTX
PIMIKROBUS013
NLTXD00MB
PIS2G1011
PIX2037
NLTXD10S2G1
PIS2G2011
PIX1023
NLTXD20S2G2
PIC2602
PIR2801 PIU6052
PIX2015
PIC2702
PIR2901
PIU6026
PIX30308
PIC3302 PIC3402 PIC3502 PIC3601 PIC4101
PIR3502
PIU6010
PIU6024
PIU6068
PIU60100
PIU60123
PIR1301
PIX1039
PIX202
PIR3401
PIU60155
PIC2502
PIR2501 PIU6054
PIC4202 PIC4302
PIR3801
PIU60104
PIU60154
PIC2902 PIC3002 PIC3102 PIC3202
PIC3701 PIC3801
PIDAP01
PIMIKROBUS07
PIQ203
PIR1002
PIR2002
PIR2102
PIR2302
PIR2401
PIR2502
PIR2602
PIR2702
PIR2802
PIR2902
PIR3201
PIR3402
PIR3602
PIR3802
PIS2G107
PIS2G207
PIU6025
PIU6069
PIU6099
PIU60153
PIU60164
PIX102
PIX2039
PIX30202
PIX30204