RC0402FR-0712KL

Texas Instruments

LAUNCHXL-F28379D Overview 2016-2019

Manufacturer: Texas Instruments

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Document overview

Manufacturer or author: Texas Instruments, Incorporated [SPRUI77,C]
PDF pages: 30

Technical content

1SPRUI77C–August 2016–Revised March 2019 Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview User's Guide SPRUI77C–August 2016–Revised March 2019 LAUNCHXL-F28379D Overview The C2000™ LAUNCHXL-F28379D LaunchPad™ is a complete low-cost development board for the Texas Instruments Delfino™ F2837xD devices. The LAUNCHXL-F28379D kit features all the hardware and software necessary to develop applications based on the F2837xD microcontrollers. This LaunchPad is based on the superset F28379D device, and easily allows users to migrate to lower feature set and/or lower pin count F2837x devices once the design needs are known. It offers an on-board JTAG debug tool allowing direct interface to a PC for easy programming, debugging, and evaluation. In addition to JTAG emulation, the USB interface provides a UART serial connection from the F28379D device to the host PC.

Introduction www.ti.com

2 SPRUI77C–August 2016–Revised March 2019

Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview Trademarks C2000, LaunchPad, Delfino, Code Composer Studio are trademarks of Texas Instruments. Windows is a registered trademark of Microsoft Corporation in the United States and/or other countries. All other trademarks are the property of their respective owners.

1 Introduction

Users can download an unrestricted copy of the latest version of Code Composer Studio™ IDE to write, download, and debug applications on the LAUNCHXL-F28379D board. The debugger is unobtrusive, allowing the user to run an application at full speed with hardware breakpoints and available single step execution while consuming no extra hardware resources. As shown in Figure 1, the LAUNCHXL-F28379D LaunchPad features include:

USB debugging and programming interface via a high-speed galvanically isolated XDS100v2 debug probe featuring a USB/UART connection
Superset TMS320F28379D device
Two user LEDs
Device reset pushbutton
Easily accessible device pins for debugging purposes or as sockets for adding customized extension boards
Dual 5 V quadrature encoder interfaces
CAN Interface with integrated transceiver
Boot selection switches
Differential Amplifier to provide buffered signals to ADCD for 16-bit mode
Optional SMA connection points P/N:SMA-J-P-H-ST-EM1
Four Sigma Delta demodulator inputs brought to the BP headers

can also provide power to the target MCU. isolation of the board from the PC. Figure 1. LAUNCHXL-F28379D Board Overview

2 Kit Contents

C2000 Delfino LaunchPad Board (LAUNCHXL-F28379D)
Mini USB-B Cable, 0.5m
Quick Start Guide

2.1 Revisions

Resistor R7 in the oscillator circuit is incorrectly placed or should not be installed. This resistor may impact startup time or robustness of the clocking circuit over the full operating range of the MCU or different physical layouts of this circuit. The probability is low that this resistor will have any impact on the functionality of this EVM as is not intended to be operated outside of Standard Temperature and Pressure in a lab or prototype environment. Do not use this circuit as reference. Follow the requirements for the Oscillator schematic as documented in the MCU Datasheet.
The SCIA pins routed to the XDS100 v2 are not valid SCI boot mode pins. In addition, the other boot- able SCI pins are not routed to any external connector. In other words, this LaunchPad is not capable of using the Boot to SCI boot mode. The TMDSCNCD28379D can be used to evaluate this feature. Revision 1.1:
ADCINA2 is shorted to VREFHIB. It is recommended that users avoid using the ADCINA2 channel.
The VIN+ signal of component U1 may be shorted to ADCINB4 and/or ADCINC4 due to variance in manufacturing tolerances. No issues have been reported, but the clearances violate manufacturing rules and a short may occur.
The silkscreen for the ADC channels on J3 and J7 are mixed up and some may be incorrect. Reference the schematic for the proper pin positions.

Installation www.ti.com

4 SPRUI77C–August 2016–Revised March 2019

J3 and J7 connectors are labeled incorrectly on the backside silkscreen. Refer the Rev 1.1 schematic for the proper signal locations on the connector Revision 2.0: A revision was made to resolve the layout issues present on revisions 1.1. In addition to the fixes for aforementioned issues, additional changes were made to the schematic and layout to improve available features and increase usability.
User LEDs and current limiting resistor values were changed to prevent the LEDs from being too bright to look at directly.
The CAN signal header J12 was shifted towards the center of the board and the silkscreen properly aligned. PGND was removed and replaced with GND for the proper grounding of the CAN signals.
J11 and J13 were removed and replaced with a 0Ω resistor selection tree for routing between the BoosterPack headers and the backside high-density connector J9. For more information on how to configure these resistors for the desired routing, see Section 5.5.
Additional EMIF1 signals were routed to J9 to enable SDRAM support. These signals are also routed to the BoosterPack headers. As such, these signals have a resistor selection network for routing the signals to either the BoosterPack headers, J9 or both. For the information on how to configure these resistors for the desired routing, see Section 5.5.
An additional jumper, J16, was added to the lower left corner of the board for an additional connection point for supplying +5 V externally.
ADC input signal conditioning circuit was updated for proper operation under additional operating conditions. C4 is now 180 pF; R60/R61 are changed to 10k-Ω and are placed between the VOUT signal of U13 to the VOCM of U1.
Backside silkscreen for J3 and J7 have been corrected and reflect the proper signals at the noted location on the connector.

3 Installation

The F28379D LaunchPad is supported in Code Composer Studio.

3.1 Code Composer Studio

3.1.1 Download the Required Software

Code Composer Studio IDE is available for free without any restriction when used with the XDS100v2 debug probe on the C2000 LaunchPad. The software can be downloaded from the C2000 LaunchPad page at ti.com/launchpad. At this site, you can also download a copy of c2000Ware that includes drivers, examples, and other support software needed to get started.

3.1.2 Install the Software

Once downloaded, install Code Composer Studio and the C2000Ware package.

3.1.3 Install the Hardware

After Code Composer Studio is installed, plug the supplied USB cable into the C2000 LaunchPad board and into an available USB port on your computer. Windows® will automatically detect the hardware and ask you to install software drivers. Let Windows run a search for the drivers and automatically install them. After Windows successfully installs the drivers for the integrated XDS100v2 debug probe, your LaunchPad is now ready for use.

www.ti.com Getting Started With the LAUNCHXL-F28379D 5SPRUI77C–August 2016–Revised March 2019 Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview

4 Getting Started With the LAUNCHXL-F28379D

4.1 Getting Started

The first time the LAUNCHXL-F28379D board is powered-on a demo application will automatically start. Connect the LAUNCHXL-F28379D to a free USB port using the included mini-USB cable. The demo application will start with LEDs D9 and D10 blinking to show the device is active. If your board does not start the demo application, try setting switch S1 in the following positions and resetting the board: 1-UP, 2- UP, 3-DOWN.

4.2 Demo Application, ADC Sampling

The LAUNCHXL-F28379D includes a pre-programmed TMS320F28379D device. When the LaunchPad is powered via USB, the demo starts with an LED blink sequence. After a few seconds the device switches into an ADC sample mode. Every 1 second the ADC samples pin ADCIN14 and the sampled data is represented as follows: If the sample is above mid-scale (2048), the blue LED D10 will illuminate. If the sample is below mid-scale, the red LED D9 will illuminate. In addition to the LED indicators, ADC sample information is also displayed on your PC through the USB/UART connection. To view the UART information on your PC, first determine the COM port associated with the LaunchPad. To do this in Windows, right click on My Computer and click on Properties. In the dialog box that appears, click on the Hardware tab and open Device Manager. Look for an entry under Ports (COM & LPT) titled "USB Serial Port (COMX)", where X is a number. Remember this number for when you open a serial terminal. The demo applications UART data was written and debugged using PuTTY, and for the best user experience we recommend you use PuTTY to view the UART data. PuTTY can be downloaded from the following URL: Open your serial terminal program and open the COM port you found previously in device manager with the following settings: 115200 Baud, 8 data bits, no parity, 1 stop bit. After opening the serial port in your serial terminal, reset the LaunchPad with the reset push button S3 and observe the serial terminal to see the TI logo in ASCII art.

4.3 Program and Debug the ADC Sample Demo Application

The project and associated source code for the C2000 Delfino LaunchPad demo is included in the C2000Ware software package and should automatically be found by the TI Resource Explorer in Code Composer Studio. In the resource explorer, navigate C2000Ware to find the device_support\\f2837xd\\examples folder. Expand this item and LAUNCHXL-F28379D, then select the LaunchPad Demo Application. Follow the steps in the main pane of the resource explorer to import, build, debug, and run this application.

4.4 Using Other C2000Ware Examples

Including the LaunchPad demo example described above, C2000Ware provides many examples demonstrating a majority of the features of the F2837x MCU. Most examples are configured by default to use the TMDSCNDC28379D ControlCARD, which has a different on-board clocking circuit. As such, some examples may not work as intended without minor modification. To make this easier on the designer, compiler switch has been added to automatically pick the proper clock configuration based on adding "_LAUNCHXL_F28379D" as a predefined symbol in the project properties. Refer to Section 8for more information on how and where to define this symbol.

5 Hardware Configuration

The F28379D LaunchPad provides users with several options for configuring the board.

6 SPRUI77C–August 2016–Revised March 2019

5.1 ADC Resolution

The F28379D had 4 independent 16-bit/12-bit ADCs. The resolution of each ADC is SW selectable. ADCA, ADCB, and ADCC are all routed to the BoosterPack headers for use with different booster packs. mode with Differential Ended (DE) inputs.

5.2 Power Domain

that provide different methods for powering the device. the BoosterPack headers or through J10. Table 1. Supplying the LaunchPad With 3.3 V

1 Yes Yes Yes No Not Isolated

2 No No Don't Care Yes Isolated

BoosterPack Headers or J16. Table 2 describes these various configurations. disconnected, 5 V must be supplied through an external connection on the BoosterPack headers or J16. supply 3.3 V to the device in an isolated configuration, see Table 1. Table 2. Supplying the LaunchPad With 5 V

1 Yes Yes No No Yes Not Isolated

2 No No Yes No Don't Care Isolated

3 No No No Yes Don't Care Isolated

5.3 Boot Mode Selection

S1 correspond to those shown in Table 3. Table 3. Positions of Signals Present on Switch S1

1 GPIO84

2 GPIO72

3 TRSTn

ROM section of the TMS320F2837xD Dual-Core Delfino Microcontrollers Technical Reference Manual.

5.4 Connecting a BoosterPack

the GPIO and analog signals. The pinout of the connectors can be found in Section 5.

5.5 GPIO Routing Between BoosterPack and I/O Expansion Headers

I2C. Some of the signals present on J9 are also available on the BoosterPack expansion headers. be adjusted accordingly. Placing the jumper between position 1 and position 2 will route the signal to J9. Placing the jumper between position 2 and position 3 will route the signal to the BoosterPack headers. document in Section 6.2,or located in the C2000Ware directory. Table 4. Revision 2.0: Resistor Selection for Routing Dual-Mapped Signals

8 SPRUI77C–August 2016–Revised March 2019

6 LAUNCHXL-F28379D Hardware

6.1 Device Pin Out

Microcontrollers Data Manual. (2) This signal is also routed to the IO expansion header, J9. For information on how to configure this signal, see Section 5.5. Table 5. F28379D LaunchPad Pin Out and Pin Mux Options - J1, J3 Microcontrollers Data Manual. (2) This signal is also routed to the IO expansion header, J9. For information on how to configure this signal, see Section 5.5. Table 6. F28379D LaunchPad Pin Out and Pin Mux Options - J4, J2

Microcontrollers Data Manual. (2) This signal is also routed to the IO expansion header, J9. For information on how to configure this signal, see Section 5.5. Table 7. F28379D LaunchPad Pin Out and Pin Mux Options - J5, J7 Microcontrollers Data Manual. Table 8. F28379D LaunchPad Pin Out and Pin Mux Options - J8, J6

10 SPRUI77C–August 2016–Revised March 2019

6.2 Schematics

Figure 2. P01_Block Diagram

Figure 3. P02_XDS100v2

12 SPRUI77C–August 2016–Revised March 2019

Figure 4. P03_Power

14 SPRUI77C–August 2016–Revised March 2019

Figure 7. P06_BoosterPack Headers Figure 8. P07_F28379D-PWR

Figure 9. P08_F28379D-IO1

16 SPRUI77C–August 2016–Revised March 2019

Figure 10. P09_F28379_IO2

Figure 11. P10_EX-Headers

18 SPRUI77C–August 2016–Revised March 2019

6.3 PCB Layout

PCB layout for both LAUNCHXL-F28379D Revision 2.0 and Revision 1.1 can be found in C2000Ware. Figure 12. Top Figure 13. GND Figure 14. Route1 Figure 15. Route2 Figure 16. VDD Figure 17. Bottom Figure 18. Top Silkscreen Overlay Figure 19. Bottom Silkscreen Overlay

Figure 20. Top Pad Master Figure 21. Bottom Pad Master

LAUNCHXL-F28379D Hardware www.ti.com

20 SPRUI77C–August 2016–Revised March 2019

6.4 Bill of Materials (BOM)

Table 9 lists the LAUNCHXL-F28379D bill of materials. Table 9. LAUNCHXL-F28379D Bill of Materials

Description

(Digi-Key) Manufacturer Part Number Digi-Key) Digi-Key Part Number (Digi-Key)

1 PCB LAUNCHXL-

rev2.0

1 PCB 6 layers,red

soldermask,wihte silkscreen,130*59mm, ENIG,Launchxl-F28379D Rev2.0 pcb

2 MCU TMS320F28379DZ

1 U14 Texas

IC, MCU 32BIT 1024KB,TMS320F28379 DZWTT, BGA-337,SMD,customer supply YES Lead Free Reach Not Affected Jun-2016 Non-Stock IC MCU 32BIT 1MB FLASH 337NFBGA TMS320F28379DZ WTT TMS320F28379DZ WTT-ND

3 Memory 93LC56BT-I/OT 1 U8 Microchip

IC,EEPROM Serial- Microwire 2K-Bit 128 x 16 2MHz,93LC56BT- I/OT,SOT-23-6,SMD YES Lead Free Reach Not Affected Jan-2017 Active IC EEPROM 2KBIT 2MHZ SOT23-6 93LC56BT-I/OT 93LC56BT-I/OTCT- ND

4 Power

IC ?V-Ref Precision 3V 10mA 8-Pin VSSOP T/R YES Lead Free Reach Not Affected Jun-2016 Active IC VREF SERIES 3V 8VSSOP REF5030IDGKT 296-24501-1-ND

5 DC-DC LMR62421XMFE/N

1 U12 Texas

Up 2.7V to 5.5V 5-Pin SOT-23 T/R ,CUSTOMER SUPPLY YES Lead Free Reach Not Affected Jun-2016 Active IC REG BST SEPIC ADJ 2.1A SOT23 LMR62421XMFE/ NOPB LMR62421XMFE/N OPBCT-ND

6 DC-DC TPS62080ADSGT 1 U4 Texas

ADJ 1.2A 8WSON YES Lead Free Reach Not Affected Jun-2016 Active IC REG BUCK ADJ 1.2A SYNC 8WSON TPS62080ADSGT 296-30360-1-ND

7 DC-DC TPS62162DSGT 1 U17 Texas

3.3V 1A 8WSON YES Lead Free Reach Not Affected Jun-2016 Active IC REG BUCK 3.3V 1A SYNC 8WSON TPS62162DSGT 296-29897-1-ND

8 Amplifier THS4531IDGKR 1 U1 Texas

Jun-2016 Active IC OPAMP DIFF 27MHZ RRO 8VSSOP THS4531IDGKR 296-30342-1-ND

9 Amplifier OPA350EA/250 2 U11,U19 Texas

Jun-2016 Active IC OPAMP GP 38MHZ RRO 8VSSOP OPA350EA/250 OPA350EACT-ND

10 Logic TXB0106PWR 1 U2 Texas

IC, 6-bit bidirectional voltage-level translator with auto-direction sensing and ±15-kV ESD protection, TXB0106PWR, TSSOP- 16, SMD,Cusomer Supply YES Lead Free Reach Not Affected Jun-2016 Active IC 6BIT NON-INV TRANSLTR 16TSSOP TXB0106PWR 296-23759-1-ND

11 Logic SN74LVC2G07DBV

1 U9 Texas

T/R,CUSTOMER SUPPLY YES Lead Free Reach Not Affected Jun-2016 Active IC BUFF/DVR DL NON-INV SOT23-6 SN74LVC2G07DBV R 296-13494-1-ND

www.ti.com LAUNCHXL-F28379D Hardware 21SPRUI77C–August 2016–Revised March 2019 Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview Table 9. LAUNCHXL-F28379D Bill of Materials (continued) (Digi-Key) Manufacturer Part Number Digi-Key) Digi-Key Part Number (Digi-Key)

12 Interface FT2232HQ-REEL 1 U6 FTDI, Future

IC,Dual High Speed USB to Multipurpose UART/FIFO IC,FT2232HQ- REEL,QFN-64,SMD YES Lead Free Reach Not Affected Jan-2017 Active IC USB HS DUAL UART/FIFO 64-QFN FT2232HQ-REEL 768-1025-1-ND

13 Interface SN65HVD234DR 1 U3 Texas

IC CAN transceiver 3.3V 8-SOIC YES Lead Free Reach Not Affected Jun-2016 Active IC CAN TRANSCEIVER 3.3V 8-SOIC SN65HVD234DR 296-27991-1-ND

14 Isolator ISO7231CDWR 1 U7 Texas

16SOIC,CUSTOMER SUPPLY YES Lead Free Reach Not Affected Jun-2016 Active DGTL ISO 2.5KV GEN PURP 16SOIC ISO7231CDWR 296-38966-1-ND

15 Isolator ISO7240CDWR 1 U5 Texas

16SOIC,CUSTOMER SUPPLY YES Lead Free Reach Not Affected Jun-2016 Active DGTL ISO 2.5KV GEN PURP 16SOIC ISO7240CDWR 296-38555-1-ND

16 Thick film

RC0402JR-070RL 4 R15, R33, R43, R44 Yageo RES,0R,±5%,1/16W, SMD0402 YES Lead Free Reach Not Affected Dec-2015 Active RES SMD 0.0Ω JUMPER 1/16W 0402 RC0402JR-070RL 311-0.0JRCT-ND

17 Thick film

2 R59, R62 Yageo RES,49R9,±1%,1/16W,

Jan-2017 Active RES SMD 49.9 Ω 1% 1/16W 0402 RC0402FR- 0749R9L 311-49.9LRCT-ND

18 Thick film

RC0402FR-071KL 13 R3,R13, R22, R23, R29, R36, R37, R40, R41, R48, R49, R50, R51 Yageo RES,1K,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 1K Ω 1% 1/16W 0402 RC0402FR-071KL 311-1.00KLRCT-ND

19 Thick film

RC0402FR-072KL 4 R56, R57, R63, R64 Yageo RES,2K,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 2K Ω 1% 1/16W 0402 RC0402FR-072KL 311-2KLRCT-ND

20 Thick film

RC0402FR-072K2L 6 R2, R6, R8, R9, R10, R31 Yageo RES,2K2,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 2.2K Ω 1% 1/16W 0402 RC0402FR-072K2L 311-2.20KLRCT-ND

21 Thick film

RC0402FR-0710KL 7 R12, R14, R35, R42, R45,R60, R61 Yageo RES,10K,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 10K Ω 1% 1/16W 0402 RC0402FR-0710KL 311-10.0KLRCT-ND

22 Thick film

RC0402FR-0712KL 1 R24 Yageo RES,12K,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 12K Ω 1% 1/16W 0402 RC0402FR-0712KL 311-12.0KLRCT-ND

23 Thick film

1 R17 Yageo RES,30K1,±1%,1/16W,

Jan-2017 Active RES SMD 30.1K Ω 1% 1/16W 0402 RC0402FR- 0730K1L 311-30.1KLRCT-ND

24 Thick film

1 R55 Yageo RES,39K2,±1%,1/16W,

Jan-2017 Active RES SMD 39.2K Ω 1% 1/16W 0402 RC0402FR- 0739K2L 311-39.2KLRCT-ND

25 Thick film

1 R47 Yageo RES,100K,±1%,1/16W,

Jan-2017 Active RES SMD 100K Ω 1% 1/16W 0402 RC0402FR- 07100KL 311-100KLRCT-ND

LAUNCHXL-F28379D Hardware www.ti.com

22 SPRUI77C–August 2016–Revised March 2019

26 Thick film

RC0402FR-071ML 1 R7 Yageo RES,1M,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 1M Ω 1% 1/16W 0402 RC0402FR-071ML 311-1.00MLRCT- ND

27 Thick film

RC0603JR-070RL 6 R67,R69, R71,R73, R75,R77 Yageo RES,0R,±5%,1/10W, SMD0603 YES Lead Free Reach Not Affected Dec-2015 Active RES SMD 0.0Ω JUMPER 1/10W 0603 RC0603JR-070RL 311-0.0GRCT-ND

28 Thick film

RL0603FR-070R1L 2 R11,R52 Yageo RES,0R1,±1%,1/10W, SMD0603 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 0.1 Ω 1% 1/10W 0603 RL0603FR-070R1L 311-.10QCT-ND

29 Thick film

1 R34 Yageo RES,120R,±1%,1/10W,

Jan-2017 Active RES SMD 120 Ω 1% 1/10W 0603 RC0603FR- 07120RL 311-120HRCT-ND

30 Thick film

2 R4, R5 Yageo RES,820R,±1%,1/16W,

Jan-2017 Active RES SMD 820 Ω 1% 1/16W 0402 RC0402FR- 07820RL 311-820LRCT-ND

31 Thick film

6 R1,R26,R

27,R38,R 39, R46 Yageo RES,680R,±1%,1/16W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 680 Ω 1% 1/16W 0402 RC0402FR- 07680RL 311-680LRCT-ND

32 Thick film

ERJ-2RKF1783X 1 R53 Panasonic Electronic Components RES, 178K Ω, 1%, 1/10W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 178K Ω 1% 1/10W 0402 ERJ-2RKF1783X P178KLCT-ND

33 Thick film

ERJ-2RKF6492X 1 R54 Panasonic Electronic Components RES, 64.9K Ω, 1%, 1/10W, SMD0402 YES Lead Free Reach Not Affected Jan-2017 Active RES SMD 64.9K Ω 1% 1/10W 0402 ERJ-2RKF6492X P64.9KLCT-ND

34 Thick film

2 R58, R65 Vishay Dale RES SMD 12 Ω 5%

Dec-2015 Active RES SMD 12 Ω 5% 1/16W 0402 CRCW040212R0JN ED 541-12JCT-ND

35 Ceramic

2 C20, C82 Murata

CAP,100PF,±5%,C0G, 50V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 100PF 50V C0G/NP0 0402 GRM1555C1H101J A01D 490-5922-1-ND

36 Ceramic

1 C40 Murata

CAP,180PF,±5%,C0G, 50V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 180PF 50V C0G/NP0 0402 GRM1555C1H181J A01D 490-3231-1-ND

37 Ceramic

1 C25 Murata

CAP,820PF,±5%,C0G, 50V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 820PF 50V C0G/NP0 0402 GRM1555C1H821J A01D 490-3242-1-ND

38 Ceramic

6 C50, C51,

C52, C53, C54, C55 Murata Electronics North America CAP,1NF,±10%,X7R, 50V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 1000PF 50V X7R 0402 GRM155R71H102K A01D 490-1303-1-ND

39 Ceramic

1 C83 Murata

CAP,220NF,±10%,X5R, 10V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 0.22UF 10V X5R 0402 GRM155R61A224K E19D 490-3910-1-ND

40 Ceramic

5 C6, C7,

C19, C21,C22 Murata Electronics North America CAP,1UF,±10%,X5R,6.3 V,SMD0402 ?suffix J stand for 330mm reel ? YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 1UF 6.3V X5R 0402 GRM155R60J105K E19D 490-1320-1-ND

www.ti.com LAUNCHXL-F28379D Hardware 23SPRUI77C–August 2016–Revised March 2019 Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview (Digi-Key) Manufacturer Part Number Digi-Key) Digi-Key Part Number (Digi-Key)

41 Ceramic

14 C2, C27,

C29, C42, C46, C47, C48, C49, C71, C72, C75, C76, C77, C78 Murata Electronics North America CAP,2.2UF,±20%,X5R, 6.3V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 2.2µF 6.3V X5R 0402 GRM155R60J225M E15D 490-4519-1-ND

42 Ceramic

5 C68, C69,

C70, C79, C81 Murata Electronics North America CAP,10UF,±20%,X5R, 6.3V,SMD0603 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 10µF 6.3V X5R 0603 GRM188R60J106M E47D 490-3896-1-ND

43 Ceramic

3 C23,C38,

CAP,22UF,±20%,X5R, 6.3V,SMD0603 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 22µF 6.3V X5R 0603 GRM188R60J226M EA0D 490-7611-1-ND

44 Ceramic

2 C41, C44 Murata

CAP,10UF,±10%,X7R, 25V,SMD1210 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 10µF 25V X7R 1210 GRM32DR71E106K A12L 490-1867-1-ND

45 Ceramic

35 C1, C5,

C9, C12, C13, C14, C16, C24, C28, C30, C31, C32, C33, C34, C35, C36, C37, C39, C43, C56, C57, C58, C59, C60, C61, C62, C63, C64, C65, C66, C67, C73, C74,C84, C85 Murata Electronics North America CAP,100NF(0.1uf),±10% ,X5R,10V,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 0.1µF 10V X5R 0402 GRM155R61A104K A01D 490-1318-1-ND

46 Ceramic

1 C45 Murata

CAP,22UF,±10%,X5R, 25V,SMD1210 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 22µF 25V X5R 1210 GRM32ER61E226K E15L 490-3889-1-ND

47 Ceramic

3 C8, C10,

CAP,4.7UF,±20%,X5R, 6.3V,SMD0402 fix PN add D?20151023? YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 4.7µF 6.3V X5R 0402 GRM155R60J475M E47D 490-5915-1-ND

48 Ceramic

1 C15 Murata

CAP,3.3uF,±10%,X5R, 10V,SMD0603 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 3.3µF 10V X5R 0603 GRM188R61A335K E15D 490-6411-1-ND

49 Ceramic

4 C3,C4,C1

7,C18 Murata Electronics North America CAP,36pF,±5%,C0G,50V ,SMD0402 YES Lead Free Reach Not Affected Jun-2016 Active CAP CER 36PF 50V C0G/NP0 0402 GRM1555C1H360J A01D 490-5937-1-ND

50 Inductor LQH3NPN1R0NJ0L 1 L8 Murata

FIXED IND 1µH 1.62A

40 MΩ SMD,±30%

Jun-2016 Active FIXED IND 1µH 1.62A

40 MΩ SMD

LQH3NPN1R0NJ0L 490-5342-1-ND

51 Inductor CDRH2D18/HPNP-

1 L7 Sumida America

Components Inc. Power inductor,magnetic shielded,2.2µH,1.6A,0.06 Ω,3.0X3.0X1.8mm,SMD YES Lead Free Reach Not Affected Jun-2016 Active FIXED IND 2.2µH 1.9A 60 MΩ SMD CDRH2D18/HPNP- 2R2NC 308-2295-2-ND

LAUNCHXL-F28379D Hardware www.ti.com

24 SPRUI77C–August 2016–Revised March 2019

52 Inductor CDRH3D16/HPNP-

1 L6 Sumida America

Components Inc. Power Inductor,Magnetic shielded,3.3µH,1.4A,0.08 5Ω,3.8X3.8X1.6mm,SMD YES Lead Free Reach Not Affected Jun-2016 Non-Stock FIXED IND 3.3µH 1.8A 85 MΩ SMD CDRH3D16/HPNP- 3R3NC 308-1981-1-ND

53 Ferrite Bead BLM15AG601SN1D 2 L1, L2 Murata

Bead,600Ω@100MHz,±2 5%,300mA,0.6Ω,SMD04 YES Lead Free Reach Not Affected Jun-2016 Active FERRITE BEAD 600 Ω 0402 1LN BLM15AG601SN1D 490-1006-1-ND

54 Ferrite Bead BLM15PD600SN1D 2 L3, L4 Murata

Bead,60Ω@100MHz,±25 %,1700mA,0.06Ω,SMD0 402 YES Lead Free Reach Not Affected Jun-2016 Active FERRITE BEAD 60 Ω 0402 1LN BLM15PD600SN1D 490-5201-1-ND

55 Ferrite Bead BKP1005EM221-T 2 L5, L11 Taiyo Yuden FERRITE BEAD 220 Ω

0402,±25% YES Lead Free Reach Not Affected Jun-2016 Active FERRITE BEAD 220 Ω 0402 1LN BKP1005EM221-T 587-3290-1-ND

56 LED 150080VS75000 2 D1, D4 Wurth Electronics

Inc. LED, Bright GREEN , 570nm,20mA,SMD,0805 YES Lead Free Reach Not Affected Jan-2017 Active LED GREEN CLEAR

0805 SMD

150080VS75000 732-4986-1-ND

57 LED 150080BS75000 2 D7, D10 Wurth Electronics

Inc. LED, BLUE ,470NM, 20mA,SMD,0805 YES Lead Free Reach Not Affected Jan-2017 Active LED BLUE CLEAR 150080BS75000 732-4982-1-ND

58 LED 150080SS75000 2 D8, D9 Wurth Electronics

Inc. LED, SUPPER RED ,630NM,20mA, SMD,0805 YES Lead Free Reach Not Affected Jan-2017 Active LED RED CLEAR 150080SS75000 732-4985-1-ND

59 Diode 1N5819HW-7-F 1 D3 Diodes

Diode,Schottky Diode,1N5819HW-7- F,40V,1A,SOD- 123,SMD,-65~125,TR YES Lead Free Reach Not Affected Jan-2017 Active DIODE SCHOTTKY 40V 1A SOD123 1N5819HW-7-F 1N5819HW-FDICT- ND 60 Polyswitch MF-MSMF050-2 1 F1 Bourns Inc. PTC RESETTABLE .50A 15V 1812 YES Lead Free Reach Not Affected Jan-2017 Active PTC RESETTABLE .50A 15V 1812 MF-MSMF050-2 MF-MSMF050-2CT- ND 61 Crystal ABLS2-12.000MHZ- D4Y-T

1 Q3 Abracon LLC Crystal 12MHz ±30ppm

(Tol) ±30ppm (Stability) 18pF FUND 50Ω 2-Pin HC-49/US SMD T/R YES Lead Free REACH AFFECTE D Jan-2017 Active CRYSTAL 12.0000MHZ 18PF SMD ABLS2-12.000MHZ- D4Y-T 535-9869-1-ND

62 Crystal ATS100B-E 1 Q1 CTS-Frequency

Crystal 10.0000MHz 30ppm 18pF 60 Ω -40°C - 85°C Through Hole HC49/US YES Lead Free Reach Not Affected Jan-2017 Active CRYSTAL 10.0000MHZ 18PF T/H ATS100B-E CTX919-ND

63 Pin Header P6E02A-602530-B1 6 JP1, JP2,

JP3, JP4, JP5, JP6 Connector,Pin Header,Straight,Male,1x 2Pin,2.54MM pitch,6.00,3.00,Gold Flash 1u, black,DIP,alt_code:1507 1705

64 Pin Header P6E03A-602530-B1 3 J10,J12,J

Connector,Pin Header,Straight,Male,1x 3Pin,2.54MM pitch,6.00,3.00,Gold Flash 1u, black,DIP,alt_code:1507 1706

www.ti.com LAUNCHXL-F28379D Hardware 25SPRUI77C–August 2016–Revised March 2019 Submit Documentation Feedback Copyright © 2016–2019, Texas Instruments Incorporated LAUNCHXL-F28379D Overview (Digi-Key) Manufacturer Part Number Digi-Key) Digi-Key Part Number (Digi-Key)

65 Pin Header P101-1*05SGF-

2 QEP_A,

QEP_B Connector,Pin Header,Straight,Male,1x 5Pin,2.54MM pitch,6.06,3.00,Gold Flash 1u, black,DIP

66 Pin Header P101-2*04SGF-

1 J21 Connector,Pin

Header,Straight,Male,2x 4Pin,2.54MM pitch,6.06,3.00,Gold Flash 1u, black,DIP

67 Pin Socket CRD-081413-A-G 4 (J1,J3),(J

2?J4),(J5 ?J7),(J6? J8) Connector,Pin Socket,Straight,Female,2 x10Pin,2.54MM pitch,8.51,9.91,Gold Flash 10u, black,DIP upgrade MPN. old part- >CRD-081413-G-A

68 USB

1 CON1 Mill-Max

Corp. Connector,MiniUSB B port,5 position,Right Angle,Gold flash 30u,black,SMD YES Lead Free Reach Not Affected Jan-2017 Active CONN RECEPT MINI- USB TYPE B SMT 897-43-005-00- 100001 ED90341CT-ND

69 BTB

0.4V(51)

1 J9 Hirose Electric

0.4MM SMD GOLD TR YES Lead Free Reach Not Affected Dec-2015 Active CONN HDR 60POS 0.4MM SMD GOLD DF40C-60DP- 0.4V(51) H11628CT-ND

70 Shunt MJ501-EOGF-B-K 5 JP1,JP2,J

P3,JP4,J Connector,Shunt,open type 2Pin,2.54MM Pitch,6MM Height,Gold Flash 1u,black,Bulk

71 Tactile Switch B3F-3152 1 S3 Omron

SPST-NO 0.05A 24V YES Lead Free Reach Not Affected Dec-2015 Active SWITCH TACTILE SPST-NO 0.05A 24V B3F-3152 SW410-ND

72 DIP Switch 219-3MST 1 S1 CTS

Switch, DIP Switches,3 Position,2.54MM Pitch,black housing,white plunger,SMD YES Lead Free Reach Not Affected Jun-2016 Active SWITCH SLIDE DIP SPST 100MA 20V 219-3MST CT2193MST-ND

References www.ti.com

26 SPRUI77C–August 2016–Revised March 2019

7 References

The following documents describe the C2000 devices. Copies of these documents are available on the Internet at http://www.ti.com/c2000 and www.ti.com/c2000-launchpad, or click on the links below: 1. TMS320F2837xD Dual-Core Delfino™ Microcontrollers Data Manual (SPRS880) 2. TMS320F28379D, TMS320F28377D, TMS320F28376D, TMS320F28375D, TMS320F28374D Delfino Microcontrollers Silicon Errata (SPRZ412) 3. TMS320F2837xD Dual-Core Delfino Microcontrollers Technical Reference Guide (SPRUHM8) 4. TMS320C28x Extended Instruction Sets Technical Reference Manual (SPRUHS1) 5. TMS320C28x Instruction Set Simulator Technical Overview (SPRU608) 6. TMS320C28x Optimizing C/C++ Compiler v6.1 User's Guide (SPRU514) 7. TMS320C28x Assembly Language Tools v6.1 User's Guide (SPRU513)

8 Frequently Asked Questions (FAQ)

Can other programming and debug tools (such as an XDS510 debug probe) be used with the C2000 LaunchPad? While a user could potentially connect an external debug probe to the F28379D device present on the LaunchPad, it would require some rework of the board. It is recommended that users who want to use an external debug probe, purchase a controlCard and docking station that includes an external JTAG connector. 2. What versions of Code Composer Studio can be used to develop software for the C2000 LaunchPad? It is highly recommend that novice users develop applications with at least Code Composer Studio v6. The drivers, examples, and other associated software are tailored to make the user experience as smooth as possible in Code Composer Studio v6. 3. Why can’t I connect to the LaunchPad in Code Composer Studio? There are a number of things that could cause this and they all have an easy fix.

Is S1 switch 3 in the down position? This is the TRST pin that enables and disables JTAG functionality on the chip. This switch must be in the up position for the debug probe to be able to connect.
Are both power LEDs lit? The board has two power domains because of the isolated JTAG interface. For low-voltage application development, JTAG isolation is not needed and the power domains can be combined to allow for convenience (that is, the board can be powered completely through the USB). Ensure that jumpers are placed on the posts of JP1 and JP2.
Are drivers correctly installed for the XDS100v2 present on the LaunchPad? Right click on My Computer and select properties. Navigate to the Hardware tab in the dialog box and open the device manager. Scroll to the bottom of the list and expand the USB Serial Bus controllers item. Are there two entries for TI XDS100 Channel A/B? If not, try unplugging and replugging in the board. Does Windows give you any messages in the system tray? In Device Manger, do either of the entries have a yellow exclamation mark over their icon? If so, try reinstalling the drivers. 4. Why is the serial connection not working?
Are you using the correct COM port? Right click on My Computer and select properties. Navigate to the Hardware tab in the dialog box and open the device manager. Scroll to Ports (COM & LPT) and expand this entry. Is there a USB Serial Port listed? If so, read the COM number to the right of the entry; this is the COM number you should be using.
Are you using the correct baud rate? Most, if not all, of the examples are configured for a baud rate of 115200 when the CPU is running at 200 MHz. If you have changed the PLL settings or written your own application you may have to recalculate the baud rate for your specific application. For information on how to do this, see the TMS320F2837xD Delfino Microcontrollers Technical Reference Guide. 5. Why is my program operating at half the frequency of what I expected?
By default many of the C2000Ware examples are configured to operate on the TMDSCNCD28379D which has a different clocking circuit, where the external clock is 20 MHz instead of 10 MHz as found on this EVM.
A compiler switch was added to various functions to allow a user to change the clocking configuration based on the status of a predefined symbol.
To ensure the PLL is correctly configured for the LAUNCHXL-F28379D, Add "_LAUNCHXL_F28379D" to the predefined symbols list.
Access the Predefined symbols list by accessing the Project Properties, Navigating to Build » C2000 Compiler » Advanced Options » Predefined Symbols. Figure 22 shows the Project Properties selection tree and the symbol added to the pre-define list.

Frequently Asked Questions (FAQ) www.ti.com

28 SPRUI77C–August 2016–Revised March 2019

Revision History

NOTE: Page numbers for previous revisions may differ from page numbers in the current version.

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Product Information

RC0402FR-0712KL specifications and overview.

Summary

LAUNCHXL-F28379D Overview 2016-2019

Description

LAUNCHXL-F28379D Overview 2016-2019

Source title RC0402FR-0712KL Datasheet(PDF) - Texas Instruments

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