TC3X7_V01 INFINEON | Alldatasheet
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User Manual Please read the Important Notice and Warnings at the end of this document V2.0 www.infineon.com Application Kit TC3X7 V2.0 2018-06 Hardware: Application Kit TC3X7 V2.0 About this document Scope and purpose The User Manual provide informatio n about using, configuration and connecting the Application Kit with Infineon AURIX™ TC3X7 device. This Application Kit Hardware Manual familiarizes you with the TriCore Evaluation Board and guides you through the initial configuration of the Application Kit. Intended audience Design, verfication, test and software engineers will use this document to ge t an understanding of the functionality and connections of the Application Kit.
User Manual TOC-2 V2.0 Hardware: Application Kit TC3X7 V2.0 Table of Contents Table of Contents
User Manual TOC-3 V2.0 Hardware: Application Kit TC3X7 V2.0 Table of Contents
User Manual 1-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Introduction 1I n t r o d u c t i o n We congratulate you on your purchase of the TriCore Evaluation Board. This kit is a versatile tool, providing quick access to the capabilities of TriCore's powerful architecture. Applications can be developed easily. The Evaluation Board is equipped with a variety of memories and peripherals for connection to the environment. There is also an interface for the On Chip Debugging Features (OCDS1 and DAP). The Evaluation Board allows easily the development of TriCore applications with the corresponding tools. Subsequently, the applications can be downloaded and can be tested with the powerful debugger software. This Application Kit Hardware Manual familiarizes you with the TriCore Evaluation Board and guides you through the initial configuration of the Application Kit. For detailed technical information about the TC3X7 (e.g. TC397) please refer to the User Manual of the used device.
User Manual 2-1 V2.0 Hardware: Application Kit TC3X7 V2.0
Features
2.1 Summary of Features
– Infineon’s TC3X7 (TC397, TC387) AURIX™ 2G Controller in LFBGA-292 Package – LCD XGA Display 320x240 –S D c a r d s l o t ( m i n i S D ) – High Speed CAN Transceiver (CAN FD capable) – USB to UART bridge – Ethernet Gigabit PHY –L I N T r a n s c e i v e r – Crystal 20MHz (default) or External Clock – USB miniWiggler JDS for easy debugging – 4 Low Power Status LEDs – RTC with alarm – Acoustic beeper – 100mm x 100mm Connectors The Application Kit TC3X7 offers a wide variety of connectors: – Standard power connector – Micro USB connector for ASC Interface (ASC0) and miniWiggler – RJ45 connector for Ethernet (if Gigabit Ethernet supported by assembled CPU) – 16-pin header for JTAG interface (OCDS) –1 0 - p i n h e a d e r f o r D A P – 10pin (2x5) Header for LIN Transceiver (LIN) – 10pin (2x5) Header for CAN High Speed Transceiver (CAN0) – two 40-pin connectors with I/O signals – mini SD card slot Components – Infineon’s Multi Voltage Safety Micro Processor Supply TLF35584QV – LED to validate power supply (5V or 3,3Volt) – LED indicating RESET (ESR0) active state – LED indicating activ miniWiggler JDS – LED switched via DAS software – Infineon’s High Speed CAN Transceiver TLE 9251V (CAN FD capable) – Infineon’s LIN-Transceiver TLE 7259-3GE – QSPI Real-Time Clock/Calendar with SRAM and unique MAC Id MCP79511 (if CPU not support I2C) – I2C Real-Time Clock/Calendar with SRAM and unique MAC Id MCP79411 (if CPU support I2C) – USB to UART bridge FT2232HL (FTDI) – Integrated 10/100/1000M Ethernet Precision Transceiver RTL8211FI-CG (Realtek) – Touch screen controller ADS7843 – 4 general purpose LEDs –R e s e t s w i t c h –W a k e s w i t c h – Xilinx CPLD XC9572XL
User Manual 2-2 V2.0 Hardware: Application Kit TC3X7 V2.0
2.2 Block Diagram
Figure 2-1 Application Kit TC3X7 Block Schematic Micro USB miniWiggler OCDS1 USB XTAL CAN Transceiver P20.8 or P10.3 P20.7 or P10.2 TC3X7 (TC397, TC387) TriCore CPU PLLCAN0 P14.0 P14.1
4 LED’s
(P13.0 up to P13.3) Multi Voltage Safety Micro Processor Supply TLF35584QV 5V or 3,3V version RGMII (P11, P12) PHY Twisted Pair RJ45 LIN LIN Transceiver P10.5 P10.6 Micro SD Card QSPI0 (P20) Serial to Paral lel converter XGA Display 320x240 with touch QSPI1 (P10) or SDMMC Acoustic Beeper P33.0 RTC I2C (P15) or QSPI 4 (P22) P33.7 WAKEUP WAKE QSPI2 (P15) QSPI2
User Manual 2-3 V2.0 Hardware: Application Kit TC3X7 V2.0
2.3 Placement
Figure 2-2 Application Kit TC 3X7 V2.0 Top Placement U101 Y201 U203 JP201 R166C105 C120 L103 Q104 C116 C121 U105 R130 BT101 U104 U201 X203 C209 D301 BU301 D302 U301 Y301 U206 X201 X301 U202 C107 C114 L101 L102 LS101 U102 X101 X102 X103 X205 Y101 Y102 X202 X302 U103 X204
User Manual 2-4 V2.0 Hardware: Application Kit TC3X7 V2.0 Figure 2-3 Application Kit TC3X7 V2.0 Bottom Placement LCD201 D103 D102 U205 U305 U303 U302 CB221 D101 D105 D106 D107D108D109D110 S101 S102 D104
User Manual 3-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information
3 Application Kit Information
3.1 Available Boards
The following boards are available: – Application Kit TC397 V2.0 with VEXT=5V – Application Kit TC397 V2.0 with VEXT=3,3V – Application Kit TC387 V2.0 with VEXT=5V – Application Kit TC387 V2.0 with VEXT=3,3V If the TLF35584 is stamped with VS1 then the board has VEXT=5V. If the TLF35584 is stamped with VS2 then the board has VEXT=3,3V. The used VEXT voltage can also be detected by the supply measurement of the AURIX™ device itself and os measureable on pin 2 of X102 and X103. Note: Only on Application Kit TC397 V2.0 with VEXT=3,3V is the SD card connected to the TC397 via SDMMC module and P10.2/3 is used for CAN. All other boards are using QSPI for SD card access and P20.7/8 for CAN.
3.2 Power Supply
All needed voltages are generated via Infineon’s Multi Voltage Safety Micro Processor Supply TLF35584QV and via the microcontroller itself (+1,25V). The supply device is available as two different devices: TLF35584QVVS1 -> +5V standby voltage, +5V TriCore supply (V_UC) TLF35584QVVS2 -> +3,3V standby voltage, +3,3V TriCore supply (V_UC) Dependent of the assembled device the board works with 5V or 3,3V IO. The TLF35584QV provide the following voltages: +3,3V or +5V for standby (connected to VEVRSB) +3,3V or +5V for TriCore (connected to VEXT) +5V communcation supply (used by CAN transceiver and acoustic beeper) +5V voltage reference (connected to VDDM and VAREFx) +3,3V via LDO directly from pre regulator (connected to VDDP3 and VFLEX and used by Ethernet PHY, display and SD card) Applying a stable supply voltage causes the power on reset after a short period. The LED (V_UC) indicate the status of the cpu voltage. A manual power on reset is executed by pressing the reset button. The Board has to be connected to a +3,5V to +40V DC power supply. The board can be powered directly by USB or by the power connector. In case that the voltage on the power connector is higher than the 5V from the USB then the board is powered by power connector.
3.2.1 Power via supply connector (X101)
The Board has to be connected to a +5,5V to +40V DC power supply. A supply with 6V and 800mA is sufficient. The pinout for the supply connector is shown in Figure 6-2. There can be used any standard power pack with a connector where the positive line is surrounded by the ground line.
User Manual 3-2 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information
3.2.2 Power via Micro USB (BU301)
The Board can also be powered by the Micro USB connector. The power consumption of the board is higher than 500mA. Use an USB port which can deliver 900mA (USB 3.0). Most USB hubs are not able to drive more than 100mA and can’t be used. Also it is possible to power the board with a cellular battery charger which has 5V output and use Micro USB for connecting. The pinout for the USB connector is shown in Figure 6-3.
3.2.3 Multi Voltage Safety Micro Processor Supply TLF35584QV
The board has assembled the Safety Micro Processor Supply with the following Features: – High efficient multi voltage power supply chip – Serial step up and step down pre regulator for wide input voltage range from 3.0 to 40 V with full performance and low over all power loss – Low drop post regulator 5.0V/200mA for communication supply (named LDO_Com) – Low drop post regulator 3.3 V/600 mA (VS2) or 5.0V/600mA (VS1) for μC supply (named LDO_μC) – Provides enable, sync out signal and voltage monitoring (inside device to be added to reset function) for an optional external post regulator for core supply (not used) – Voltage reference 5.0 V +/- 1% for ADC supply, 150 mA current capability (named Volt_Ref) – Two trackers for sensor supply following voltage refe rence 150 mA current capability each (named Tracker 1 and Tracker 2, not used) – Standby regulator 3.3 V/10 mA (VS2) or 5.0 V/10 mA (VS1) (named LDO_Stby) – Independent voltage monitori ng block with reset function – Configurable functional and window watchdog –1 6 - b i t S P I – Safe state control with two safe state signals with programmable delay – Input voltage monitoring (over voltage switch off) – Green Product (RoHS compliant) – ISO26262 compliant –A E C Q u a l i f i e d The TLF35584 is connected to the CPU via QSPI2 and use QSPI2_SLSO1 (P14.2) as chip select. Via this spi connection the power supply will be configured (Watchdog, device states and soon). For more information see the data sheet of TLF35584. Note: The switch to FAILSAFE state is switched off by HW (R127 assembled). If you will use/evaluate all safety features of the TLF35584 make sure that R127 is not assembled and remove R127 if assembled. Make sure that you have a proper initialization of TLF35584 in your software and debugger in this case. If needed you can assemble JP201 (2 pin header). Then you can switch easily with a jumper.
3.3 Real Time Clock
The board is equipped with a RTC MCP79511 (if I2C is not supported by CPU) or MCP79411 (if I2C is supported by CPU) from Microchip. The device is powered from the standby voltage of the TLF35584 and is also powered when the TLF35584 is switched to standby mode. For backup when the TLF35584 is not powered then there is a small battery to hold the value inside the RTC. The MCP79511 is connected to the microcontroller via QSPI4, the MCP79411 is connected to the microcontroller via I2C on P15.4/P15.5. The RTC can trigger an SCU_REQ4 (P33.7) interrupt (activ low) with the alarms. Also an alarm from the RTC will wake-up (switch on) the board if the board is powered and the supply is switched off.
User Manual 3-3 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information T h e M C P 7 9 5 1 1 / M C P 7 9 4 1 1 c o n t a i n s a l s o a n u n i q u e I D i n t h e f o r m a t E U I - 4 8 . T h i s i d c a n b e u s e d a s m a c i d f o r ethernet if the assembled CPU support ethernet. For more information about the RTC please see the datasheet of MCP79511/MCP79411.
3.4 XGA Display
The board has an XGA Display with a resolution of 320x240. The display has an ILI9341 display controller. Please see the datasheet of the display controll er for the register of the controller. The display is connected to the the microcontroller via an SPI to Parallel converter (U201). The SPI to Parallel converter is based on a statemachine. This state machine is clocked with the clock of SPI, here then the state machine will go always in the idle state with a valid clock edge. The backgound light is switched on via port 15 pin 0. An high level on this port pin enable the backgound light.
3.4.1 Write a display register
A single write to any register can be done by a 32 bit transfer of SPI. Make sure that the SLSO08 is low during this 32 bit. Bit 31 must be transfered first. Bit 31 must be 0, this will be indicate a write access. Bit 30 must be 0, this will be indicate a single access. Bit 29...Bit 22 is the 8 bit register number which will be written Bit 21...Bit 6 is the 16bit value which will be written Bit 5...Bit 0 are dummy bits which are used to execute the write. To speedup the writing (e.g. write to ram of display contro ller) it is possible to make a endless transfer. This is done by this: first 10 bit transfer Bit 9 must be 0, this will be indicate a write access. Bit 8 must be 1, this will be indicate an endless transfer. Bit 7...Bit 0 is the 8 bit register number which will be written Now you need to transfer only 16bit values for the register s. With the first 16 bit value there is no action on the display. With the second value transfer is a write to the register started. This means after the last value you must make a dummy transfer to write the last value. The endless mode can only be leave by a rising edge of SCLK0 with SLSO08 set to high. This can be done by a dummy transfer to any other chip select or by a transfer from the touch controller.
3.4.2 Read a display register
A single read from any register can be done by a 32 bit transfer of SPI. Make sure that the SLSO08 is low during the complete transfer. first transfer has 16 bit: Bit 15 must be 1, this will be indicate a read access. Bit 14 must be 0, this will be indicate a single access. Bit 13...Bit 7 is the 8 bit register number which will be read Bit 5...Bit 0 are dummy bits to setup the register number. second transfer must have 26 bits: Bit 25...Bit 16 are dummy bits which are needed to readout the register value
User Manual 3-4 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information Bit 15...Bit 0 are dummy bits to transfer the readed value. To speedup the reading (e.g. reading from ram of display controller) it is possible to make a endless transfer. This is done by this: first 16 bit transfer: first transfer has 16 bit: Bit 15 must be 1, this will be indicate a read access. Bit 14 must be 1, this will be indicate an endless access. Bit 13...Bit 7 is the 8 bit register number which will be read Bit 5...Bit 0 are dummy bits to setup the register number. second 10 bit transfer: Bit 9...Bit 0 are dummy bits which are needed to readout the register value Now you need to transfer only 16bit values for the registers. With the each 16 bit transfer you get a value. With the last transfer you have dummy read which you don’t get the result. The endless mode can only be leave by a rising edge of SCLK0 with SLSO08 set to high. This can be done by a dummy transfer to any other chip select or by a transfer from the touch controller.
3.4.3 Touch controller
The touch of display is connected to an Touch controller ADS7843. This controller is connected via the QSPI0 and SLSO9 (P20.3) to the microcontroller. For more information about the delivered values from the touch controller please see the datasheet of ADS7348.
3.5 Micro SD card
The board has a slot to use the board with an micro SD card. If the board is assembled with TC397 and a TLF35584QVVS2 (3,3V version) then the SDMMC module is connected directly to the SD card. In this case R251 up to R256 are assembled instead of R261 up to R268. In all other cases the card can be used in SPI mode only. In this case the SD card is connected to QSPI1 with chip select 9 (P10.5) of QSPI1. Please see additional literature how to use a SD card in SPI mode.
3.6 LEDs
There are 8 LEDs on board: – D106 ESR0 (red) -> RESET LED indicate the reset state of the board – D105 V_UC (green) -> V_UC power supply indication – D104 SS2 (green) -> safe state signal 2 of TLF35584 – D302 ACT (green) -> on board miniWiggler JDS is ACTIV – D301 RUN (blue) -> Debug RUN mode (switched by DAS Server)
3.7 Clock
On the board is a fixed crystal with 20MHz assembled. You can change this by replacing Y101 (soldered).
3.8 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. For the pinout of USB socket see Figure 6-3.
User Manual 3-5 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information NOTE: Before connecting the board to the PC, make sure th at 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
3.8.1 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 3.8.2 miniWiggler JDS The miniWiggler JDS is a low cost debug tool which allows you access to the JTAG of the device. Make sure that you have the latest DAS release. Debugging is possible via the DAS Server ‘UDAS‘. Please contact your prefered 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 ACTIV LED. The status RUN LED 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 X301 (OCDS1) and X302 (DAP) if the ACTIV LED is on.
3.9 Beeper
The board has an electro-acoustic transducer which can be used for an acoustic output. The transducer is connected to pin P33.0 and needs a 2048Hz frequency.
3.10 MultiCAN
On the board is one CAN transceiver (CAN FD capable) connected to the CAN module 0 node 0 (P20.7 and P20.8) on TC3X7. Optional the CAN transceiver can be connected to CAN module 0 node 2 (P10.2 and P10.3). To do this remove resistor R269, R270 and assemble R257, R258 with 0R Resistor. For location of this resistors please see the Top Layer assembling Figure 7-5. Note: If the board is assembled with TC397 and TLF35584QVVS2 (3,3V version) then the SDMMC module is connected directly to the SD card. In this case P20.7 and P20.8 are used by the SDMMC and the transceiver is connected to P10.2 and P10.3. The transceiver is connected to an IDC10 plug. For the pinout of IDC10 plug see Figure 6-4. You can use a IDC female connector with crimpconnector, flat cable and SU B-D 9 plug with crimpconnector to have a 1:1 adapter to SUB-D 9.
3.11 LIN
On the board is one LIN transceiver connected to the ASCLIN2 (P10.5 and P10.6) on TC3X7. The transceiver are connected to one IDC10 plug. For the pinout of IDC10 plug see Figure 6-5. You can use a IDC female connector with crimpconnector, flat cable and SUB-D 9 plug with crimpconnector to have a 1:1 adapter to SUB-D 9.
3.12 Ethernet
The Application Kit provide a RJ45 connector (X204) for twisted pair ethernet connections.The board use a Realtek Integrated 10/100/1000M Ethernet Precision Transc eiver RTL8211FI-CG as physical interface device. For
User Manual 3-6 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Information more information about the ethernet modul see TC3X7 User’s Manual, about the PHY see the RTL8211F datasheet. For the pinout of RJ45 see Figure 6-6. For the connection between TriCore and PHY is used the RGMII.
3.13 Core current measurement
It is possible to measure the core (+1,25V) current with two ADC pins of the CPU. This can be done by synchronous measurement of AN36 and AN44. The pins are connected togheter by an 50mOhm resistor. The current can be calculated by the following formula: Icore = (VAN44 - VAN36) / 0,05. To get an valid result the measurement must be done synchronous.
3.14 Other peripherals
For all other peripherals there are no special plugs on the board. Many of the peripheral signals are available on the two standard connectors X102 and X103, see “Connector Pin Assignment” on Page 6-1.
3.15 Toggle LED’s
The status LED’s are low active and can be controlled by Software. Port 13 pin 0 up to pin 3 are connected to single LED’s (D107... D110) and powered by the normal microcontroller voltage.
3.16 Buttons
On the board are two buttons. The reset button (S101) will apply a warm power on reset to the device. The WAKE button (S102) will be used to enable/wakeup the TLF35584.
3.17 Debug System
3.17.1 OCDS1
The OCDS1 signals are connected to the IDC16 plug (X401). They work with the port supply of Microcontroller (+5V default or +3,3V). For pinout of the connector see Figure 6-7. You can connect any debugger to this connector. The signals /BRKIN and /BRKOUT are not connected. If you connect a debug hardware make sure that the miniWiggler JDS (see “miniWiggler JDS” on Page 3-5) is not activ (ACTIV LED is off) and on the DAP connector (X302) is no hardware connected or the hardware is tristated. If the ACTIV LED is on, then stop the active DAS Server ’UDAS’ and/or remove the USB connection to the PC.
3.17.2 DAP
The board comes with a DAP connector (X302). For pinout of this connector see Figure 6-8. You can connect a DAP hardware here. If you use this connector make sure that the miniWiggler JDS is not activ (ACTIV LED is off) and a connected OCDS1 hardware is disconnected or tristated.
User Manual 4-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Application Kit Configuration
4 Application Kit Configuration
The Application Kit has a fixed configuration which can be sligthly changed. For locating components see Figure 7-5 and Figure 7-6.
4.1 Default Pad State
The default pad state is that the internal pull-up device s on the I/O pins are enabled. This can be changed by assembling resistor R143 with 2K2 (drive P14.4 / HWCFG6 low). If the resistor R143 is assembled then all I/O pins are in tristate. Additonal you must make sure that R134 is also assembled with 10K that the EVRC is enabled properly in this case.
4.2 Bootmode
The bootmode is fixed set to Start-up mode is selected by Boot Mode Index. This can be changed to boot from pins and Internal Start from Flash by removing resistor R133 (drive P14.3 / HWCFG3 high) and assembling resistor R142 with 2K2 (drive P14.3 / HWCFG3 low). If the I/O pins are set to tristate per default (R143 assembled) then you must assemble also resistor R134 and resistor R272 with 10K to set the HWCFG pins to proper values.
User Manual 5-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Signal (on board used) Description
5 Signal (on board used) Description
For more information about the signals please see the user manual/datasheet for TC3X7 and/or the schematics of the board. All not mentioned signals are not used on the board and can be used outside if they are connected to the IO Connectors see Figure 6-1. Optional marked signals are used only if th ey are connected (default is that they are not used on the board).
5.1 Power Signals
5.2 Reset Signals
5.3 Config Signals
VCC_IN Supply Input (3,5V...40V) VIN Input Voltage of Power Supply Device GND Ground V_PREPEG Pre Regulator Voltage (~5,8V) +3V3 Supply Voltage (3,3V) +5V Supply Voltage (5V) V_UC Microcontroller Supply Voltage (5V or 3,3V depends on assembled TLF35584) VREF_5V Reference Supply Voltage (5V) QST Standby Supply Voltage (5V or 3,3V depends on assembled TLF35584) VDD Core Supply Voltage (1,25V) VDDM ADC Analog Part Supply Voltage (5V or 3,3V selectable via 1R resistors) VAREF1 ADC Reference Voltage 1 (5V or 3,3V selectable via 4R7 resistors) VAREF2 ADC Reference Voltage 2 (5V or 3,3V selectable via 4R7 resistors) VDD_USB Supply Voltage from USB (5V) VDD_FT Supply Voltage FT2232HL device (3,3V) Table 5-2 Reset Signals Short name Description /PORST Power On Reset /ESR0 External Service Request 0 (Hardware Reset) /ESR1 External Service Request 1 (Non Maskable Interrupt) Table 5-3 Config Signals Short name Description P14.5 HWCFG1 (EVR33OFF) P14.2 HWCFG2 (EVRCON) P14.4 HWCFG6 (Pins in tristate / Pins with pull-up)
User Manual 5-2 V2.0 Hardware: Application Kit TC3X7 V2.0 Signal (on board used) Description
5.4 Clock Signals
5.5 Debug Signals
5.6 Peripheral Signals
P14.3 HWCFG3 (Boot from pins / Boot from Flash BMI) P10.5 HWCFG4 (Boot from internal flash) P10.6 HWCFG5 (Boot from internal flash ) Table 5-4 Clock Signals Short name Description XTAL1 Crystal Oscillator Input XTAL2 Crystal Oscillator Output Table 5-5 Debug Signals Short name Description /TRST Test Reset DAP0 Device Access Port Line 0 / Test Data Clock (TCK) DAP1 Device Access Port Line 1 / Test Data Select (TMS) P21.6 Test Data Input (TDI) P21.7 DAP2 / TDO from debug connectors Table 5-6 Peripheral Signals Short name Description P14.1 ASCLIN0 Receive Input A P14.0 ASCLIN0 Transmit Output P10.6 ASCLIN2 Receive Input D P10.5 ASCLIN2 Transmit Output P15.4 I2C0 Serial Clock P15.5 I2C0 Serial Data Input C und Output P33.7 RTC Alarm Interrupt Input P20.7 CAN00 Receive Input B P20.8 CAN00 Transmit Output P10.2 CAN02 Receive Input E (optional) P10.3 CAN02 Transmit Output (optional) P11.0 Ethernet TXD3 Output P11.1 Ethernet TXD2 Output P11.2 Ethernet TXD1 Output Table 5-3 Config Signals (continued) Short name Description
User Manual 5-3 V2.0 Hardware: Application Kit TC3X7 V2.0 Signal (on board used) Description P11.3 Ethernet TXD0 Output P11.4 Ethernet TXCLK Output P11.5 Ethernet GREFCLK Input P11.6 Ethernet TCTL Output P11.7 Ethernet RXD3 Input A P11.8 Ethernet RXD2 Input A P11.9 Ethernet RXD1 Input A P11.10 Ethernet RXD0 Input A P11.11 Ethernet RCTL Input A P11.12 Ethernet RXCLK Input A P12.0 Ethernet Management Data Clock Output (MDC) P12.1 Ethernet Management Data Input/Output (MDIO) P10.8 Ethernet MD Interrupt Input P02.1 Ethernet MD Interrupt Input (optional) P14.2 QSPI2 Slave Select Output 1 for /SCS of TLF35584 P15.3 QSPI2 Master Clock Output for SCL of TLF35584 P15.6 QSPI2 Master Transmit Output for SDI of TLF35584 P15.7 QSPI2 Master Receive Input B for SDO from TLF35584 P14.3 Output for Watchdog Input of TLF35584 P33.8 SMU_FSP0 Output for Error Signal Input of TLF35584 P33.9 Input for Safe State Signal 1 from TLF35584 P20.6 QSPI0 Slave Select Output 8 for /CS of Display P20.3 QSPI0 Slave Select Output 9 for /CS of Touch P20.13 QSPI0 Master Clock Output for SCLK of Display and Touch P20.14 QSPI0 Master Transmit Output for SDI of Display and Touch P20.12 QSPI0 Master Receive Input A for SDO from Display and Touch P20.9 Interrupt Input from Touch /PENIRQ P15.0 PWM or static Output for Display Backlights P10.5 QSPI1 Slave Select Output 9 for /CS of SD card P10.2 QSPI1 Master Clock Output for SCLK of SD card P10.3 QSPI1 Master Transmit Output for SDI of SD card P10.1 QSPI1 Master Receive Input A for SDO from SD card P10.7 Interrupt Input from Card Detect Signal P02.0 Interrupt Input from Card Detect Signal (optional) P13[0...3] On board LED’s P33.0 PWM Signal for Acoustic beeper P23.1 QSPI4 Slave Select Output 6 for CS of MPC79511 (optional) P22.3 QSPI4 Master Clock Output for SCK of MPC79511 (optional) Table 5-6 Peripheral Signals (continued) Short name Description
User Manual 5-4 V2.0 Hardware: Application Kit TC3X7 V2.0 Signal (on board used) Description P22.0 QSPI4 Master Transmit Output for SI of MPC79511 (optional) P22.1 QSPI4 Master Receive Input B for SO from MPC79511 (optional) P15.1 SDMMC0 Clock Output for SD card (optional) P15.3 SDMMC0 Command Output for SD card (optional) P20.7 SDMMC0 Data 0 Input/Output for SD card (optional) P20.8 SDMMC0 Data 1 Input/Output for SD card (optional) P20.10 SDMMC0 Data 2 Input/Output for SD card (optional) P20.11 SDMMC0 Data 3 Input/Output for SD card (optional) Table 5-6 Peripheral Signals (continued) Short name Description
User Manual 6-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Connector Pin Assignment
6 Connector Pin Assignment
The Application Kit will be shipped with two 40 pin male (plug) connectors on top layer with a standard grid of 2,54mm.
6.1 I/O connectors TC387 and TC397
Figure 6-1 IO connectors for TC387 and TC397 - Pinout Note: VCC_IN is connected to X102 and X103 with a 0R re sistor which is not assembled by default to avoid shortcut to VEXT in case of measurement on the connector. If VCC_IN needed on X102 and X103 then assemble R113 with a resistor 0R size 0805. Pin 1 of X102 and X103 are always connected together.
6.2 Power connector pinout
Figure 6-2 Power connector pinout (Roka 520 2550) ( V C C _ I N ) 1 2 V _ U C P 1 4 . 54 0 3 9P 1 4 . 4 GND 3 4 GND P33.10 38 37 P33.9 P21.2 5 6 P21.3 P15.7 36 35 P15.6 P14.8 7 8 P14.7 P15.5 34 33 P15.4 P14.6 9 10 P20.0 P15.8 32 31 P15.2 P 2 1 . 41 1 1 2P 2 1 . 5 P 2 2 . 33 0 2 9P 2 2 . 2 P 0 2 . 01 3 1 4P 0 2 . 1 P 2 2 . 12 8 2 7P 2 2 . 0 P02.2 15 16 P02.3 P33.11 26 25 P23.4 P 0 2 . 41 7 1 8P 0 2 . 5 P 2 3 . 32 4 2 3P 2 3 . 2 P 0 2 . 61 9 2 0P 0 2 . 7 P 2 3 . 12 2 2 1P 2 3 . 0 P 0 2 . 82 1 2 2P 0 0 . 0 P 3 3 . 62 0 1 9P 3 3 . 8 P00.1 23 24 P00.2 P33.12 18 17 P33.1 P 0 0 . 32 5 2 6P 0 0 . 4 P 3 3 . 21 6 1 5P 3 3 . 3 P 0 0 . 52 7 2 8P 0 0 . 6 P 3 3 . 41 4 1 3P 3 3 . 5 P 0 0 . 72 9 3 0P 0 0 . 8 A N 0 1 2 1 1 A N 8 P00.9 31 32 P00.10 AN2 10 9 AN3 P00.11 33 34 P00.12 AN11 8 7 AN13 AN19 35 36 AN18 AN20 6 5 AN21 AN17 37 38 AN16 GND 4 3 GND AN25 39 40 AN24 V_UC 2 1 (VCC_IN) X102X103 +5,5V…+40V GND
User Manual 6-2 V2.0 Hardware: Application Kit TC3X7 V2.0 Connector Pin Assignment
6.3 USB connector pinout
Figure 6-3 USB connector pinout (Micro USB B-type)
6.4 CAN connector pinout
Figure 6-4 CAN connector pinout (IDC10)
6.5 LIN connector pinout
Figure 6-5 LIN connector pinout (IDC10) VCC GND ID 2 468 GND CANH CANL 13579 GND 2 468 GND BUS VIN opt 13579 GND
User Manual 6-3 V2.0 Hardware: Application Kit TC3X7 V2.0 Connector Pin Assignment
6.6 Ethernet connector pinout
Figure 6-6 Ethernet connector pinout (RJ45)
6.7 OCDS1 connector pinout
Figure 6-7 OCDS1 connector pinout (IDC16)
6.8 DAP connector pinout
Figure 6-8 DAP connector pinout (Samtec FTSH10) TDO 2 468 13579 10 12 14 16 11 13 15 TDI /TRST TCK TMS GND GND /PORST GND V_UC DAP0 2 468 13579 /TRST /PORST DAP2 DAP1 GND GND Key GND V_UC
User Manual 7-1 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout
7 Schematic and Layout
7.1 Known problems
No problems known.
7.2 Schematic
User Manual 7-2 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-1 Schematic - Project Overview D D C C B B A A
4 Infineon Technologies AG
Tel.: +49-89-234-0 08.05.2018 Number: Date: Sheet: of 2.0Revision: G:\\Technical_Support\\TriCore\\TriBoard\\EDA_DXP\\Application Kit\\Appl Kit TC3X7\\Appl Kit TC3X7 V2.X\\Appl Kit TC3X7 V20.prjFile: PORT[00..34] /ESR0 /PORST CPU and Power Supply CPU_supply.sch PORT[00..34] /ESR0 On Board Peripherals Peripherals.sch PORT[00..34] /PORST MiniWiggler and DAP OCDS.sch /ESR0 PORT[00..34] /PORST
User Manual 7-3 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-2 Schematic - CPU and Power Supply D D C C B B A A
1 Infineon Technologies AG
Tel.: +49-89-234-0 08.05.2018 Number: Date: Sheet: of 2.0Revision: G:\\Technical_Support\\TriCore\\TriBoard\\EDA_DXP\\Application Kit\\Appl Kit TC3X7\\Appl Kit TC3X7 V2.X\\CPU_supply.schFile: VDD / VDDSB G8 ESR1 G16ESR0 F16PORST G17 VEXT A2 VEXTOSC N20 VDD G13 VGATE1N (VCAP0) Y17 VDDOSC N19 XTAL1 M20XTAL2 M19 VSSOSC L20 VDD / VDDSB H7 VDD H14VDD N14 VDD P13 VDD N7 VDD P8 VEXT B3 VEXT W20 VEXT V19 VEVRSB T11 VDDP3 A19 VDDP3 B18 VDD D16VDD E15 VFLEX (VEXT) D5 VSSB2 VSSD4 VSSE5 VSST16 VSSU17 VSSW19 VSSY20 VSSA20 VSSB19 VSSD17 VSSE16 VSS / AGBTTX0N P10 VSS / AGBTTX0P P11 VSSP12 VSSN9 VSSP9 VSSN10 VSSN11 VSSN12 VSSM7 VSSM8 VSSM10 VSSM11 VSSM13 VSSM14 VSS / AGBTCLKN L7 VSSL8 VSSL9 VSSL10 VSSL11 VSSL12 VSSL13 VSS / AGBTERR L14 VSS / AGBTCLKP K7 VSSK8 VSSK9 VSSK10 VSSK11 VSSK12 VSSK13 NC / DAPE0K14 VSSJ7 VSSJ8 VSSJ10 VSSJ11 VSSJ13 VSSJ14 VSSH9 VSSH10 VSSH11 VSSH12 VSSG9 VSS / DAPE2G10 VSS / DAPE1G11 VSSG12 VGATE1P (VCAP1) W17 U101A TC3X7 V_UC VDD CB101 100n CB102 100n CB103 100n GND VDD VAREF1 VDDM CB110 3.3μF GND CB111 390nGND CB108 330n GND CB107 330n GND CB106 1μF GND R101 C102 10pF C101 10pF 1 2 Y101 20MHz GND GND R116 4K7 X101 POWER VCC_IN D101 MSS2P2 C114 100μF/40V CB112 100n GND GND V_PREREGVIN GND VIN QST N.C. 43 WDI16 QST5 VS145 WAK4 RSH47 PG1 41N.C.44 VST2 ENA3 AG1 6 SW2 42 FRE24 ROT17 INT18 SDO13 SCL14 QUC 30 QCO 31 SYN 19 QT1 33 QT2 32 VCI 26 SEC 23 EVC 21 SCS15 ERR20 BSG1 RSL48 STU25 DRG46 GND HS SDI12 SS111 SS210 QVR 29 AG2 7 AG3 8 AG4 28 AGS 9 TM 22 GST 27 PG2 40 N.C. 34 N.C. 35 N.C. 36 FB4 37 FB5 38 N.C. 39 C14 or newer U102 VREF_5V +5V S102 WAKE R102 100R S101 RESET GND R104 4K7 R105 10K C115 4,7μF/10VGNDGND V_UCR103 2K2 V_UC GND GND C108 1μF/10V GND C113 4,7μF/10V GND V_UC QT1 QT2 /ESR0 GND R115 100K /PORST GNDX11 VCC 10SCK8 VSS 5 SI6 MFP 9 X22 VBAT 3 CS4 SO7 U104 1 2 Y102 32.768Hz C103 10pF C104 12pFGND GND CB114 100n 31 32 33 34 35 36 37 38 39 40 X102 CON2X20 31 32 33 34 35 36 37 38 39 40 X103 CON2X20 R119 GND V_UC D105 LP T67K GND R118 220R R117 10K V_UC 3 2 Q106 BSS138N D106 LS T67K 3 2 Q103 BSS138N PORT[00..34] /PORST R111 10K R112 10K /ESR1 V_UCVIN_OPT GND P23.1 GND V_UCVIN_OPT GNDGND P14.2 + 1 - 2 LS101 BRT1615P-06 +5V GND R121 10K R123 4R7_opt R122 4R7 VREF_5V GND R134 10K_opt
32 Q105
P14.3 P14.2 C106 22μF/10V C109 4,7μF/10V C110 4,7μF/10V C111 4,7μF/10V C112 4,7μF/10V GND GND +3V3 R124 QST R110 100K GND R114 10K P33.8 P33.7 R125 1R_opt VREF_5V +3V3 3 2 Q102 BSS138N D102 SS26 VDD_USB L101 XAL5050-223MEB L102 XAL4030-472MEC R130 250mR 1,2,5,6 Q101 BSL606SN C107 47μF/40V GND GND GND D103 SS26 VIN GND P14.3 GND R142 2K2_opt R127 0RR128 20K GND +5V CB113 100n R129 470R D104 LP T67KGND D111 BAT54 R136 C118 100pF GND P15.8 P15.6 P15.7 R137 10K P22.3 P22.0 P22.1 R138 P33.9 R139 2K2 GND V_UC +3V3 CB104 1μFCB105 100n VDD C105 GND 1 8 4 5 Q104 GND V_UC L103 *C120 GND GND Q 1 GND6 SENSE/ADJ 2 BYP 4 IN8 EN5 GND HS U103 TLS205B0EJV33 GND V_UC C119 10μF C117 10nF +3V3 GND R120 0R_opt V_UC +3V3 P11.6 D9 P11.9 A9 P11.3 B10 P11.11 A8 P11.12 B8 P11.10 B9 P11.2 A10 P02.0B1 P02.1C2 P02.2C1 P02.3D2 P02.4D1 P02.5E2 P00.4J1 P00.5J2 P00.12L2 P00.9K2 P00.3H2 P00.0G1 P10.6 / HWCFG5 A4 P13.1 A12P13.0 B12 P13.3 A11 P10.1 B7 P13.2 B11 P10.5 / HWCFG4 B5 P10.2 A5 P10.3 A6P00.2H1 P00.1G2 P11.8 E7 P00.8K4 P00.7K1 P00.6J4 P02.6E1 P02.7F2 P02.8F1 P11.4 D10 P11.0 E10 P11.1 E9 P11.5 D8 P11.7 E8 P11.13 E6 P11.14 D7 P11.15 D6 P12.0 E12 P12.1 E11 P10.4 (NC) B6 P10.0 (NC) A7 P10.7 (NC) A3 P10.8 (NC) B4 P00.10 (NC)K5 P00.11 (NC)L1 P02.9 (NC)E4 P02.10 (NC)F5 P02.11 (NC)F4 P01.3 (NC)G5 P01.4 (NC)G4 P01.5 (NC)H5 P01.6 (NC)H4 P01.7 (NC)J5 U101B TC3X7 P15.3B17 P15.2C19 P15.5E14 P20.10E19 P20.14C20 P14.1A15 P14.0B16 P15.1A18 P15.0B20 P20.11E20 P20.12D19 P20.13D20 P20.8F20 P20.9E17 P15.4A17 P20.3G20 P20.6F17 P33.5 Y12 P20.7F19 P21.3J19 P21.2K19 P33.7 Y13 P22.3R19 P33.8 W14 P33.9 Y14 P33.10 W15 P21.4K20 P33.11 Y15 P21.5J20 P20.0H20 P22.0P20 P22.1P19 P22.2R20 P15.8D14 P15.7D15 P15.6A16 P33.12 W16 P23.1 U19 P33.4 W12 P33.6 W13 P14.7D13 P33.3 Y11 P22.4P16 P14.8A13 P33.1 Y10P33.0 W10 P33.2 W11 P33.13 (NC) Y16 P23.0 (NC) V20 P23.2 (NC) U20 P23.4 (NC) T20P23.3 (NC) T19 P20.1 (NC)G19 P32.3 (NC) Y19 P32.4 (NC) W18 P32.5 (NC) T15 P32.6 (NC) U15 P32.7 (NC) U16 P23.5 (NC) T17 P23.6 (NC) R17 P23.7 (NC) R16 P33.14 (NC) T14 P33.15 (NC) U14 P21.0 (NC)K17 P21.1 (NC)J17 P22.5P17 P22.6 (NC)N16 P22.7 (NC) N17 P22.8 (NC) M16 P22.9 (NC) M17 P22.10 (NC) L16 P22.11 (NC) L17 P14.9 (NC)D12 P14.10 (NC)D11 P34.3 (NC) U12P34.2 (NC) T12 P34.4 (NC) T13 P34.5 (NC) U13 P34.1 (NC) U11 P14.6B13 P32.2 (NC) Y18 U101C TC3X7 P10.1 P33.12 P00.0 AN1 (P34.0)U10 AN2 (AN0 / P40.0)W9 AN27 (AN13 / P41.1) V1 AN5 (AN1 / P40.1)Y9 AN8 (AN2 / P40.2)W8 AN10 (AN3 / P40.3)Y8 AN11 (AN4 / P40.4)W7 AN13 (AN5 / P40.5)W6 AN16 (AN6 / P40.6)W5 AN18 (AN7 / P40.7)W4 AN20 (AN9 / P40.9)Y3 AN21 (AN10 / P40.10)Y2 AN37 (AN18 / P41.6) P2 AN39 (AN19 / P41.7) P1 AN44 (AN20 / P41.8) N1 AN45 (AN21 / P41.9) N2 VSSM Y7VAREF1 (VAREF) Y6 VDDMY5 VSSM Y4 AN28 (AN14 / P41.2) U2 AN29 (AN15 / P41.3) U1 AN33 (AN16 / P41.4) R1 AN35 (AN17 / P41.5) R2 AN46 (AN22 / P41.10) M1 AN47 (AN23 / P41.11) M2 AN19 (AN8 / P40.8)W3 AN25 (AN11 / P40.11) W1 AN26 (AN12 / P41.0) V2 VSSM (NC)T2 VAREF2 (NC)T1 AN0 (NC)T10 AN3 (NC)U9 AN4 (NC)T9 AN6 (NC)T8 AN7 (NC)U8 AN9 (NC)U7 AN12 (NC)T7 AN14 (NC)U6 AN15 (NC)T6 AN22 (NC)T5 AN17 (NC)U5 AN23 (NC)R5 AN24 (NC) W2 AN30 (NC) T4 AN31 (NC) R4 AN32 (NC) P4 AN34 (NC) P5 AN36 (NC) N4 AN38 (NC) N5 AN40 (AN49/NC) M5 AN41 (AN48/NC) M4 AN42 (NC) L5 AN43 (NC) L4 U101D TC3X7 AN25(11)AN1 VAREF2 CB109 3.3μF GND VAREF1 TRST L19 TCK / DAP0 J16 TMS / DAP1 K16 P21.6 / TDI H17P21.7 / TDO / DAP2 H16 P20.2 / TESTMODE H19 P14.3 / HWCFG3_BMI B14 P14.4 / HWCFG6_HIGHZ B15 P14.2 / HWCFG2_EVR13 E13 P14.5 / HWCFG1_EVR33 A14 U101E TC3X7 P21.6 P21.7 DAP1 DAP0 /TRST P33.0 /ESR1 /ESR0 /PORST V_UC /PORST /PORST P14.5 R140 2K2 GND V_UC P14.4 GND R143 2K2_opt R133 4K7P14.3 V_UC V_UC R106 R107 R108 R109 D107 LB T673D108 LB T673D109 LB T673D110 LB T673 P13.3 P13.2 P13.1 P13.0 AN20(9) AN21(10) AN8(2) AN2(0) AN27(13) AN26(12) AN0 P23.0 AN1 P23.1 P34.1 P23.2 P34.2 P23.3 P34.3 P23.4 P22.4 R135 4R7_opt R126 4R7 VREF_5V +3V3 VAREF2 AN16(6) R144 AN17(14) AN28(14) AN3(6) R151 AN8(2) AN2 AN5(1) AN29/44(15) AN24(12) AN27(13) AN26(12) AN16(6) AN17(14) AN28(14) AN24(12) R150 AN0 R145 AN8(1) R153 *AN5(1) R152 AN3(6) R154 R155 AN2(0) AN16(6) R156 R146 AN16(13) P00.1 P00.2 P00.3 P00.4 P00.5 P00.6 P00.7 P00.8 P00.9 P00.12 P02.0 P02.1 P02.2 P02.3 P02.4 P02.5 P02.6 P02.7 P02.8 P14.0 P14.1 P14.7 P14.8 P15.0 P15.2 P15.3 P15.4 P15.5 P15.6 P15.7 P15.8 P14.2 P14.3 P14.4 P14.5 P14.6 P20.0 P20.6 P20.7 P20.8 P20.9 P20.12 P20.13 P20.14 P20.3 P12.0 P12.1 P21.4 P21.5 P22.0 P22.1 P22.2 P22.3 P33.0 P33.1 P33.2 P33.3 P33.4 P33.5 P33.6 P33.7 P33.8 P33.9 P33.10 P33.11 P23.1 P13.0 P13.1 P13.2 P13.3 P11.12 P11.11 P11.10 P11.9 P11.6 P11.3 P11.2 P10.2 P10.3 P10.5 P10.6 R157 R158 R159 R160 R161 P00.11 P00.10 P23.0 P23.2 P23.3 P23.4 P34.1 P34.2 P34.3 P22.4 XTAL2 XTAL1 P10.7 GND R166 0R05 VDD AN11(4) AN29/44(15) X11 VCC 8 SCL6 VSS 4 SDA5 MFP 7 X22 VBAT 3 U105 QST QST MFP MFP VBAT P15.5 P15.4 R147 V_UC R148 V_UC QST C121 10μF GND P21.3 P21.2 1K5 R106-109 R119 U102 3,3V TLF35584QVVS1 470R V_UC TLF35584QVVS2 680R 100R C122 47nFGND C123 47nFGND C124 47nFGND P33.8 P33.9 P33.10 P33.11 P02.0 P02.1 P02.2 P02.3 P02.4 P02.5 P02.6 P02.7 P02.8 P00.0 P00.1 P00.2 P00.3 P00.4 P00.5 P00.6 P00.7 P00.8 P00.9 P00.12 AN21(10) AN20(9) AN8(1) AN25(11) P22.3P22.2 P22.1P22.0 P15.7P15.6 P33.5 P15.2 P14.8 P14.6 P14.5 P20.0 P21.3 P33.6 AN24(12)P14.4 P33.1 P33.2P33.3 P33.4 P23.0 P23.1 P23.2 P23.3 P23.4 P00.10 P00.11 P33.12 P14.7 P15.3 P15.5P15.4 AN17(14) AN16(13) AN0 AN2 P21.2 P21.4 P21.5 P10.8 P20.10 P20.11 P15.1 R163 0RR164 C125 opt AN3(6) AN13(5) VDDAN13(5) AN11(4) AN18(7) AN19(8) AN19(8) AN18(7) AN29/44(15) R131 470R R132 10K V_UC P11.0 P11.1 P11.4 P11.5 P11.7 P11.8 TC397B TC387AURIX 2G NA TC377 TC367 TC337 R153-R161 NA NA R150-R152 R144-R146 Q104 L103 C105 C116 BSZ15DC02KD NA 22μF LTF5022T-3R3N2R5 NA NA NA 1μF 4,7μF10μFC120 MCP79511-I/MSNAU104 MCP79411-I/MS NAU105 1 2 JP201 opt R113 0R_opt VIN_OPTVCC_IN
User Manual 7-4 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-3 Schematic - On Board Peripherals D D C C B B A A
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Tel.: +49-89-234-0 08.05.2018 Number: Date: Sheet: of 2.0Revision: G:\\Technical_Support\\TriCore\\TriBoard\\EDA_DXP\\Application Kit\\Appl Kit TC3X7\\Appl Kit TC3X7 V2.X\\Peripherals.schFile: +5V R243 GND R246 120R R245 R247 0R GND 2 RXD 4CANH7 TXD 1 VCC 3 CANL6 STB8 VIO5 U206 TLE9251VSJ R244 V_UC X202 CAN0 GND PORT[00..34] CB221 100n GND PORT[00..34] GND R242 R240 CB220 100nGND C209 22μF/40V GND P10.5 P10.6 D201 BAT54-04 X203 LIN1 R241 10K VIN R239 0R_opt GND GND V_UC VIN VS P20.9 EN 2 INH8 BUS6 TXD 4 WK 3 RXD 1 VS7 GND 5 U205 TLE7259-3GE C210 GND DB11 DB22 DB33 DB44 GND5 VCC6 CS7 RS8 WR9 RD10 IM011 X+12 Y+13 X-14 Y-15 LEDA16 LEDK417 LEDK318 LEDK219 LEDK120 N.C.21 DB522 RST31 VCI32 VCC33 GND34 DB1023 DB1124 DB1225 DB1326 DB1427 DB1528 DB1629 DB1730 DB635 DB736 DB837 LCD201 ELT240320ATP D15 D10 D11 D12 D13 D14 3 2 Q201 BSS138N GND GND +3V3 +3V3 +3V3 /CS_TFT /WR /RD R208 10K R207 470R GND +3V3 GND VCC1 BUSY13 PENIRQ11 X+ 2 GND 6VCC10 Y+ 3 X- 4 Y- 5 IN3 7 IN4 8 VREF 9 DOUT12 DIN14 CS15 DCLK16 U202 ADS7843ECB205 100n C201 10uF CB204 100nGND V_UC GNDGND P20.3 P20.13 P20.14 P20.12 R203 22RR204 22RR205 22RR206 22R CB206 100nGND RS V_UC /ESR0_3V /LCD16 /ESR0 /ESR0_3V /ESR0_3V P15.0 VS +3V3 6 1 Q202A BSD235N 3 4 Q202B BSD235N GND GND R210 10K R211 10K +3V3 R209 10K /ESR0 R272 10K_opt R271 10K V_UCV_UC P20.7 P20.8 R257 *R258 *R269 *R270 P10.2 P10.3 R201 1K_opt R202 +3V3 GND IO140 IO241 IO342 IO4/GCK143 IO5/GCK244 IO6/GCK31 IO72 IO83 IO95 IO106 IO117 IO128 IO1312 IO1413 IO1514 IO1616 IO1718 IO18 19IO19 20IO20 21 VCCIO 26 TDI9 TMS10 IO039 TCK11 TDO24 IO33 38 GND 25 IO32 37 IO31/GTS1 36 IO30/GTS2 34 IO29/GSR 33 IO28 32 IO27 31 IO26 30 IO25 29 IO24 28 IO23 27 IO22 23 IO21 22 VCCINT 35VCCINT 15 GND 17GND 4 U201 XC9572XL-10VQ44I CB201 100n CB202 100n CB203 100n +3V3 GND P20.13 P20.14 P20.12 /LCD16 P20.6 D15 D10 D11 D12 D13 D14 /RD /WR RS /CS_TFT X201 PROG_opt +3V3 GND /LCD16 /ESR0_3V COM CD S X205 MICRO-SDGND VDD_SD R238 C211 10uF GND +3V3 P10.5 P10.2 P10.3 P10.1 MRST_SD /CS_SD MTSR_SD SCLK_SD /CD_SD /CD_SDP10.7 R250 4R7 DAT2 DAT3 CMD CLK DAT0 DAT1 R251 *R252 *R253 *R254 R265 *R266 *R267 *R268 R255 *R256 P20.10 P20.11 P15.3 P15.1 P20.7 P20.8 R261 *R262 *R263 *R264 R249 *P02.0 9 9 2 2 4 4 3 3 5 5 6 6 8 8 LYK LYKLYA LYA LGA LGALGK LGK SHIELD S 7 7 SC 10 C 1 X204 RJ45 C204 27pF C205 27pF GND GND R227 22R 1 3 Y201 NX3225SA-25MHz R228 22R R235 0R R236 P12.0 P12.1 R222 2K49/1% GNDGND C203 4,7μF GND GND CB208 100n +1V GND GND GND +3V3 CLKOUT35 LED032 LED133 LED234 XTAL_IN 36 XTAL_OUT 37 EPAD HS MDIN02 MDIP01 MDIO14 REG_OUT / LDO_OUT30 INTB / PMEB31 MDC13 TXC20 PHYRSTB 12 RSET 39 RTL8211F TXD018 TXD117 TXD216 TXD315 RXD025 RXD124 RXD223 RXD322 RXCTL26 TXCTL19 RXC27 MDIN15 MDIP14 MDIN27 MDIP26 MDIN310 MDIP39 AVDD103 DVDD_RG28 AVDD3311 DVDD1021 DVDD3329 AVDD108AVDD1038 AVDD3340 U203 RTL8211F GNDR224 510R C217 10n Shield GND GND +3V3 GND C213 100n C214 100n C215 100n C216 100n C212 1000pF/2KV +3V3 R221 4K7 R223 510R C208 100p GND C206 100p R226 4K7 R225 4K7 C207 100p MDI0_P MDI0_N MDI1_P MDI1_N MDI2_P MDI2_N MDI3_P MDI3_N L201 2,2μH/1A CB209 100n CB210 100n CB211 100n CB212 100n CB213 100n CB214 100n CB215 100n CB216 100n C202 4,7μF R274 opt R273 4K7 GND +3V3 R234 22R R230 4K7 R237 P10.8 +3V3 R229 1K5 +3V3 C219 opt GND R276 4K7 R275 opt R277 opt R278 opt R279 opt R282 opt R280 4K7 R281 4K7 R283 4K7 R284 4K7 C218 4,7μF P11.12 P11.10 P11.9 P11.8 P11.7 P11.11 P11.4 P11.3 P11.2 P11.1 P11.0 P11.6 R233 22RRN202 22R R232 22R C220 optGND /ESR0_3V R248 P11.5 P02.1 TC397B R261-R270 R251-R258 TC387 AURIX 2G TC377 TC367 TC337 R249 R238 R248 R237 330R NA NA NA NA NA NA 330R RN201 22R TC397B V_UC 3,3V 5V ANY ANY ANY 3,3V
User Manual 7-5 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-4 Schematic - miniWiggler JDS and Debug connectors D D C C B B A A
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Tel.: +49-89-234-0 08.05.2018 Number: Date: Sheet: of 2.0Revision: G:\\Technical_Support\\TriCore\\TriBoard\\EDA_DXP\\Application Kit\\Appl Kit TC3X7\\Appl Kit TC3X7 V2.X\\OCDS.schFile: TMS1 TDO3 CPUCLOCK5 TDI7 TRST9 TCK11 BRKIN13 N.C.15 VCC 2 GND 4 GND 6 PORST 8 BRKOUT 10 GND 12 OCDSE 14 KEY 16 X301 OCDS1 V_UC GND DAP0 DAP1 /TRST GND /PORST PORT[00..34] /PORST PORT[00..34] EECS63 EECLK62 EEDATA61 TEST13 SUSPEND36 OSCI2 DM7 GND1 VREGOUT49 RESET14 AGND10 OSCO3 DP8 REF6 GND5 VREGIN50 GND 11 VCCIO20 GND 15 VCCIO31 ADBUS0 16 ADBUS1 17 ADBUS2 18 ADBUS3 19 ADBUS4 21 ADBUS5 22 ADBUS6 23 ADBUS7 24 ACBUS0 26 ACBUS1 27 ACBUS2 28 BDBUS0 38 BCBUS0 48 BDBUS1 39 BCBUS1 52 BDBUS2 40 BCBUS2 53 BDBUS3 41 BDBUS4 43 BDBUS5 44 BDBUS6 45 BDBUS7 46 ACBUS3 29 ACBUS4 30 ACBUS5 32 ACBUS6 33 ACBUS7 34 BCBUS3 54 BCBUS4 55 BCBUS5 57 BCBUS6 58 BCBUS7 59 GND 25 GND 35 GND 47 GND 51 PWREN60 VCORE64 VCORE12 VCORE37 VCCIO42 VCCIO56 VPLL9 VPHY4 U301 FT2232HL VBUS 1 D+ 3D- 2 ID 4 GND 5 BU301 Micro USB GND R302 27R R303 27R R304 12K/1% C306 3,3uF VDD_FT L301 MMZ1608R300A CB301 100n GND R301 CB303 100n CB302 100n CB304 100n C301 10μ/6V GND VDD_FT R305 10K R307 opt R306 2K2 CB306 100n R308 1K_opt CB307 100n GND V_UC ADBUS0 ADBUS1 ADBUS2 ADBUS3 ADBUS4 ADBUS5 ADBUS6 ADBUS7 ACBUS0 ACBUS1 ACBUS3 R309 10K V_UC TMS /TRST DAP0 USR0 /RESET D301 LB T673 R311 100R VDD_FT /PORST ADBUS0 ADBUS1 ADBUS2 ADBUS3 ADBUS4 ADBUS6 /TRST_IN ACBUS1 ACBUS5 BDBUS0 BDBUS1 USR8 GND P14.0 R320 4K7 V_UC DAP1 TDI /TRST DAP0 DAP1 P14.1 P14.0 BDBUS0 BDBUS1 CB309 100n R312 680R D302 LP T67K VDD_FT VDD_FT R314 4K7 R316 10K R318 10K R317 10K R319 10K VDD_FT V_UC VDD_FT V_UC R315 10K V_UC R310 10K VDD_FT R321 opt R322 optGND GND GND GND 1 3 Y301 NX3225SA-12MHz C304 8pF C305 8pF VDD_FT GND GND R324 10K VDD_FT GND VDD_FT VDD_FT R325 10K OUT 3 GND2 IN1 U305 TLE4274GSV33 GND GND CB311 100n CB310 100n CB312 100n GND GND C302 4u7/6VGND CB305 100n VDD_FT GND L302 MMZ1608R300AC303 4u7/6V GND CB313 100n GND GND VDD_FT VDD_FT +1V8 /OE1 VCC 5 GND3 Y 4 U304 74LVC1G125 CB308 100n GND VDD_FT GND ACBUS4 ADBUS1 ADBUS2 R326 10K VDD_FT CB315 100n CB314 100n GND VDD_FT V_UC GNDR327 4K7 GND ADBUS2 ACBUS3 DIR5 VCCA1 VCCB 6 GND 2 B 4 U306 SN74LVC1T45DBV DIR5 VCCA1 VCCB 6 GND 2 B 4 U307 SN74LVC1T45DBV CB317 100n CB316 100n VDD_FT V_UC GNDR328 4K7 GND GND ACBUS5 GND ADBUS1 ACBUS5 ACBUS5 ACBUS4 P21.7 P21.7 P21.6 P21.6 ACBUS7 ACBUS7 ACBUS7 ACBUS3 R313 10K R329 0R_optR330 0R_opt ACBUS4 ORG 6DNC7 VCC8 CS 1 GND5 CLK 2 D 3 U302 93LC46B-I/SN 1A12 1Y1 18 1A24 1Y2 16 1A36 1Y3 14 1A48 1Y4 12 VCC 20 GND 10 2Y1 9 2Y2 7 2Y3 5 2Y4 3 G19 2A111 2A213 2A315 2A417 U303 SN74AHC244PW R336 P21.6 R335 P21.7R332 0R_opt R323 0R_opt FOR USING WIGGLER WITH JTAG: Assemble R329-R332 and R308 Remove R333-R336 Q301A BSD235N 3 4 Q301B BSD235N Q302A BSD235N 3 4 Q302B BSD235N Q303A BSD235N 3 4 Q303B BSD235N VDD_USB /PORST R331 0R_opt R334 0RACBUS2 VREF 1 GND 3 GND 5 KEY 7 GND 9 DAP12 DAP04 USER18 USER06 RESET10 X302 DAP V_UC DAP0 /TRST DAP1 P21.7 /PORST GND D303 BAT54
User Manual 7-6 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout
7.3 Layout
Figure 7-5 Component Plot Top Layer U101 Y201 U203 RN202 RN201 R248 R237 R236 R235 R233 R232 R230 R229 R228 R227 R222 L201 JP201 CB216 CB215 CB214 C218 C205 C204 C202 D303 R164 R163 C125 R270 R269 R268 R267 R266 R265 R264R263 R262R261 R258 R257 R256 R255 R254 R253 R252 R251 R238 R166C105 C120 L103 Q104 C116 C121 C124 C123 C122 R148 R147 U105 CB113 R128 R127 R115 R130 R134 BT101 U104 C117 U201 CB203 R204 R205 R211 X203 R241 R239 R210 R208 D201 C209 U307 U306 R336 R328 R327 R313 CB317 CB316 CB315 CB314 D301 R323 CB305 C302 R311 BU301 L301 D302 R301 CB301 R308 U301 Y301 Q303 Q302 Q301 R312 R320 R314 R319 R318R317 R316 R315 R310 R303 R302 CB302 R243 R244 R245 R247 CB206 R201 R246 CB205 R203 U206 R202 C201 R206 R207 CB204 R249 X201 X301 U202 CB202 C101 C102 C103 C104 C106 C107 C109 C110 C108 C114 CB101 CB102 CB103 CB110CB111 CB108 CB107 CB106 CB112 CB114 CB201 L101 L102 LS101 Q106 Q201 R101 R102 R103 R106 R107 R108 R109 R111 R112 R114 R116 R117 R120 R122 R123 R124 R125 U102 X101 X102 X103 X205 Y101 Y102 R209 X202 R272 X302 R271 R142 R138 C119 CB104 CB109 Q202 R126 R140 R143 R144 R145 R146 R150 R151 R153 R152 R154 R155R156 R157 R158 R159 R160 R161 U103CB105 R133 R135 R132 X204
User Manual 7-7 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-6 Component Plot Bottom Layer R113LCD201 R284 R283 R282 R281 R280 R279 R278 R277 R276 R275 R274 R273 R234 R226 R225 R224 R223 R221 CB213 CB212 CB211 CB210 CB209 CB208 C220 C219 C217 C216 C215 C214 C213 C212 C208 C207 C206 C203 R137 R136 D111 C118 Q105 R250 D103 D102 U205 R242 R240 CB220 C210 R332 R335 R334 R331 R330 R329 R326 U305 L302 CB313 C303 R304 C301 R325 R324 CB312 CB311 CB310 C305 C304 R322 R321 U304 U303 C306 R309 CB309 CB308 CB307 CB303 R307 U302 R306 R305 CB306 CB304 CB221 C211 C112 C113 C115 D101 D105 D106 D107D108D109D110 Q101 Q102 Q103 R104 R105 R110 R118 R119 R121 S101 S102 C111 D104 R129 R139 R131
User Manual 7-8 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout
7.4 Layout with Dimensioning
The following dimensions should be used for development of extension boards. Figure 7-7 Dimensioning (mm) U101 Y201 U203 RN202 RN201 R248 R237 R236 R235 R233 R232 R230 R229 R228 R227 R222 L201 JP201 CB216 CB215 CB214 C218 C205 C204 C202 D303 R164 R163 C125 R270 R269 R268 R267 R266 R265 R264R263 R262R261 R258 R257 R256 R255 R254 R253 R252 R251 R238 R166C105 C120 L103 Q104 C116 C121 C124 C123 C122 R148 R147 U105 CB113 R128 R127 R115 R130 R134 BT101 U104 C117 U201 CB203 R204 R205 R211 X203 R241 R239 R210 R208 D201 C209 U307 U306 R336 R328 R327 R313 CB317 CB316 CB315 CB314 D301 R323 CB305 C302 R311 BU301 L301 D302 R301 CB301 R308 U301 Y301 Q303 Q302 Q301 R312 R320 R314 R319 R318R317 R316 R315 R310 R303 R302 CB302 R243 R244 R245 R247 CB206 R201 R246 CB205 R203 U206 R202 C201 R206 R207 CB204 R249 X201 X301 U202 CB202 C101 C102 C103 C104 C106 C107 C109 C110 C108 C114 CB101 CB102 CB103 CB110CB111 CB108 CB107 CB106 CB112 CB114 CB201 L101 L102 LS101 Q106 Q201 R101 R102 R103 R106 R107 R108 R109 R111 R112 R114 R116 R117 R120 R122 R123 R124 R125 U102 X101 X102 X103 X205 Y101 Y102 R209 X202 R272 X302 R271 R142 R138 C119 CB104 CB109 Q202 R126 R140 R143 R144 R145 R146 R150 R151 R153 R152 R154 R155R156 R157 R158 R159 R160 R161 U103CB105 R133 R135 R132 X204
User Manual 7-9 V2.0 Hardware: Application Kit TC3X7 V2.0 Schematic and Layout Figure 7-8 Dimensioning (mil) The dimensioning is valid for all Application Kits. U101 Y201 U203 RN202 RN201 R248 R237 R236 R235 R233 R232 R230 R229 R228 R227 R222 L201 JP201 CB216 CB215 CB214 C218 C205 C204 C202 D303 R164 R163 C125 R270 R269 R268 R267 R266 R265 R264R263 R262R261 R258 R257 R256 R255 R254 R253 R252 R251 R238 R166C105 C120 L103 Q104 C116 C121 C124 C123 C122 R148 R147 U105 CB113 R128 R127 R115 R130 R134 BT101 U104 C117 U201 CB203 R204 R205 R211 X203 R241 R239 R210 R208 D201 C209 U307 U306 R336 R328 R327 R313 CB317 CB316 CB315 CB314 D301 R323 CB305 C302 R311 BU301 L301 D302 R301 CB301 R308 U301 Y301 Q303 Q302 Q301 R312 R320 R314 R319 R318R317 R316 R315 R310 R303 R302 CB302 R243 R244 R245 R247 CB206 R201 R246 CB205 R203 U206 R202 C201 R206 R207 CB204 R249 X201 X301 U202 CB202 C101 C102 C103 C104 C106 C107 C109 C110 C108 C114 CB101 CB102 CB103 CB110CB111 CB108 CB107 CB106 CB112 CB114 CB201 L101 L102 LS101 Q106 Q201 R101 R102 R103 R106 R107 R108 R109 R111 R112 R114 R116 R117 R120 R122 R123 R124 R125 U102 X101 X102 X103 X205 Y101 Y102 R209 X202 R272 X302 R271 R142 R138 C119 CB104 CB109 Q202 R126 R140 R143 R144 R145 R146 R150 R151 R153 R152 R154 R155R156 R157 R158 R159 R160 R161 U103CB105 R133 R135 R132 X204
User Manual RevisionHistory-1 V2.0 Hardware: Application Kit TC3X7 V2.0
Revision History
Page or Item Subjects (major changes since previous revision) V2.0, 2018-06 all Adapt to new board version V2.0 with Gigabit Ethernet
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