LUMINARY MICRO LM3S2965 User Guide

Stellaris® LM3S2965

Evaluation Board

USER’S MANUAL

EK-LM3S2965-05 Copyright © 2007-2008 Luminary Micro, Inc.

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Luminary Micro, Inc.
108 Wild Basin, Suite 350
Austin, TX 78746
Main: [phone]
Fax: [phone]
http://www.luminarymicro.com

2 October 28, 2008

Stellaris® LM3S2965 Evaluation Board

Table of Contents

Chapter 1: Stellaris® LM3S2965 Evaluation Board .......................................................................................7

Features..............................................................................................................................................................8

Block Diagram ....................................................................................................................................................9

Evaluation Kit Contents ....................................................................................................................................10

Evaluation Board Specifications ................................................................................................................... 10

CAN Device Board Specifications.................................................................................................................10

Features of the LM3S2965 Microcontroller.......................................................................................................10

Chapter 2: Hardware Description.................................................................................................................. 13

LM3S2965 Evaluation Board............................................................................................................................13

LM3S2965 Microcontroller Overview......................................................................... ... ... .... ... ... ... ................13

CAN Module........................... ... ... .... ... ....................................... ... ... .............................................................13

Clocking........................................................................................................................................................13

Reset.............................................................................................................................................................13

Power Supplies.............................................................................................................................................14

Debugging..................................................................................................................................................... 14

USB Functions.................... .... ... ... ....................................... ... ... .... ... ... ... ..........................................................15

USB Overview........................... ... ....................................... ... .... ... ... ... .... ......................................................15

USB to JTAG/SWD... ....................................... ... ... ... .... ... ....................................... ... ... ... .... .........................15

Virtual COM Port........................................................................................................................................... 15

Serial Wire Out.............................................................................................................................................. 15

Organic LED Display ........................................................................................................................................15

Features........................................................................................................................................................ 15

Control Interface ...........................................................................................................................................16

Power Supply................................................................................................................................................ 16

Design Guidelines.................................. ... .... ... ... ... ....................................... ... ... .... ... ... ... .............................16

Further Reference.........................................................................................................................................16

Other Peripherals............. ... ....................................... ... .... ... ... ... .......................................................................16

Speaker.........................................................................................................................................................16

Push Switches ............. ... .... ... ... ....................................... ... ... .... ... ... ... ..........................................................16

User LED ............... ....................................... ... ... ... ....................................... ... ... .... ......................................16

Bypassing Peripherals............................................................... .... ...................................... .............................16

Interfacing to the EVB....................................................................................................................................... 17

Using the In-Circuit Debugger Interface ........................................................................................................... 17

Chapter 3: CAN Device Board Hardware Description.................................................................................19

Device Overview...............................................................................................................................................19

Power Supply................................................................................................................................................ 19

Programming and Debugging...... .... ... ... ... .... ... ... ... ... .... ... ... ... .... ... ... ... .... ......................................................19

Interfacing.....................................................................................................................................................19

Appendix A: Schematics................................................................................................................................21

Appendix B: Connection Details...................................................................................................................27

Component Locations.......................................................................................................................................27

Evaluation Board Dimensions........................................................................................................................... 28

October 28, 2008 3

I/O Breakout Pads ............................................................................................................................................28

Recommended Connectors.............................................................. ... ....................................... ......................29

ARM Target Pinout ...........................................................................................................................................30

References ....................................................................................................................................................... 31

Appendix C: Contact Information ................................................................................................................. 33

4 October 28, 2008

Stellaris® LM3S2965 Evaluation Board

List of Figures

Figure 1-1. Stellaris LM3S2965 Evaluation Board Layout.................................................................................7

Figure 1-2. Stellaris LM3S2110 CAN Device Board.......................................................................................... 8

Figure 1-3. LM3S2965 Evaluation Board Block Diagram..................................................................................9

Figure 1-4. LM3S2110 CAN Device Board Block Diagram ...............................................................................9

Figure 2-1. ICD Interface Mode .......................................................................................................................18

Figure A-1. LM3S2965 Evaluation Board (sheet 1 of 4) ..... ... ... ....................................... ... .... ... ......................22

Figure A-2. LM3S2965 Evaluation Board (sheet 2 of 4) ..... ... ... ....................................... ... .... ... ......................23

Figure A-3. LM3S2965 Evaluation Board (sheet 3 of 4) ..... ... ... ....................................... ... .... ... ......................24

Figure A-4. LM3S2965 Evaluation Board (sheet 4 of 4) ..... ... ... ....................................... ... .... ... ......................25

Figure A-5. PLD Schematic.............................................................................................................................. 26

Figure B-1. Component Locations ................................................................................................................... 27

Figure B-2. LM3S2965 Evaluation Board Dimensions........................ ... .... ... ...................................... .... ... ...... 28

Figure B-3. LM3S2110 CAN Device Board Dimensions..................................................................................28

Figure B-4. LM3S2110 CAN Device Board Connections.................................................................................30

October 28, 2008 5

List of Tables

Table 2-1. Stellaris LM3S2965 Evaluation Board Hardware Debugging Configurations ... .... ... ... ...... .... ... ... ... 14

Table 2-2. Isolating On-Board Hardware........................................................................................................17

Table B-1. I/O Breakout Pads.........................................................................................................................29

Table B-2. Recommended Connectors................. ... ... .... ... ............................................................................. 29

Table B-3. 20-Pin JTAG/SWD Configuration..................................................................................................31

6 October 28, 2008

USB Device

Interface

CAN bus connector

40 pin I /O

break-out

header

34 pin I /O
break-out
header

Navigation

Switches

Select swi tch

Stat us LED

Speaker

Debug-out LE D

Reset sw it ch

Power LED

OLED Gr aphics

Display

JTAG/SWD

input and

output

Stellaris

TM

LM3S2965

Microcontroller

In-circuit Debug
Interface

CHAPTER 1

Stellaris® LM3S2965 Evaluation Board

The Stellaris® LM3S2965 Evaluation Board is a compact and versatile evaluation platform for the
Stellaris LM3S296 5 ARM® Cortex™-M3-based microcontroller. The evaluation kit demonstrates a
complete controller area network (CAN) using two Stellaris microcontrollers. The main evaluation
board (EVB) configures a Stellaris LM3S2965 microcontroller as a CAN host. A small CAN device
board, linked with a ribbon cable, uses a Stellaris LM3S2110 microcontroller. The function of each
board is fully configurable in software.

You can use the board either as an evaluation platform or as a low-cost in-circuit debug interface
(ICDI). In debug interface mode, the on-board microcontroller is bypassed, allowing for
programming or debugging of an external target. The kit is also comp atible with high-perfo rmance
external JTAG debuggers.

This evaluation kit enables quick evaluation, prototype development, and creation of application­specific designs for CAN. The kit also includes extensive source-code examples, allowing you to
start building C code applications quickly.

Figure 1-1. Stellaris LM3S2965 Evaluation Board Layou t

October 28, 2008 7

Stellaris® LM3S2965 Evaluation Board

User swi tches

CAN bus connector

I/ O break- out
headers

Power LED

Reset sw it ch

Stat us LED

JTAG/SWD

input

Stellaris

TM

LM3S2110

Microcontroller

Figure 1-2. Stellaris LM3S2110 CAN Device Board

Features

The Stellaris LM3S2965 Evaluation Kit includes the following features:

 Stellaris LM3S2965 microcontroller with fully-integrated CAN module
 Standalone CAN device board using Stellaris LM3S2110 microcontroller
 Simple setup; USB cable provides serial communication, debugging, and power
 OLED graphics display with 128 x 96 pixel resolution
 User LED, navigation switches, and select pushbuttons
 Magnetic speaker
 LM3S2965 I/O available on labeled break-out pads
 Standard ARM® 20-pin JTAG debug connector with input and output modes
 USB interface for debugging and power supply

8 October 28, 2008

Block Diagram

USB

USB

Stellaris

LM3S2965

Microcontroller

Dual
USB

Device

Controller

I

/

O

S

i

g

n

a

l

s

OLED Display

128 x 96

Debug

I/O Signal Break-out

JTAG/SWD

Output/Input

USB Ca ble

Reset

+3.3V

Regulator

SWD/JTAG

Mux

UART0

T

a

r

g

e

t

C

a

b

l

e

CAN PHY CAN0CAN

Switch

Nav

Switch

Speaker

LED

LM3S2965 CA N

Evaluation Board

I/O Signal Break-out

I/O Signal Break-out

I/O Sign al Break-out

USB

Stellaris

LM3S2110

Microcontroll er

I/O Signals

Debug

I/O Signal Break-out

I/O Si gnal Break-ou t

JTAG/SWD
Input

+3.3V

Regulator

CAN PHY CAN0CAN

Switch

LED

LM3S2110

CAN Device

Board

Reset

Switch

Figure 1-3. LM3S2965 Evaluation Board Block Diagram

Stellaris® LM3S2965 Evaluation Board

Figure 1-4. LM3S2110 CAN Device Board Block Diagram

October 28, 2008 9

Stellaris® LM3S2965 Evaluation Board

Evaluation Kit Contents

The evaluation kit contains everything needed to develop and run applications for Stellaris
microcontrollers including:

 LM3S2965 evaluation board (EVB)
 LM3S2110 CAN device board
 USB cable
 20-pin JTAG/SWD target cable
 10-pin CAN cable
 CD containing:

– A supported version of one of the following:

• Keil™ RealView® Microcontroller Development Kit (MDK-ARM)

• IAR Embedded Workbench

• Code Sourcery GCC development tools

• Code Red Technolog ies development tools

– Complete documentation
– Quickstart guide
– Quickstart source code
– Stellaris® Firmware Development Package with example source code

Evaluation Board Specifications

 Board supply voltage: 4.37–5.25 Vdc from USB connector
 Boar d su pp ly curre nt : 120 mA typ (fully active, CPU at 50 MHz)

200 mA (fully active, with sound)

 Break-out power output: 3.3 Vdc (60 mA max), 12 Vdc (15 mA max)
 Dimensions: 4.1” x 2.45” x 0.7” (LxWxH)

CAN Device Board Specifications

 Board supply voltage: 4.0-5.0 Vdc from CAN connector
 Boar d su pp ly curre nt : 40 mA typical
 Dimensions: 2.45” x 1.60” (LxW)

Features of the LM3S2965 Microcontroller

 32-bit RISC performance using ARM® Cortex™-M3 v7M architecture

– 50-MHz operation
– Hardware-division and single-cycle-multiplication
– Integrated Nested Vectored Interrupt Controller (NVIC)
– 27 interrupt channels with eight priority levels

 256-KB single-cycle flash

10 October 28, 2008

Stellaris® LM3S2965 Evaluation Board

 64-KB single-cycle SRAM
 Four general-purpose 32-bit timers
 Controller area network (CAN) module
 Three fully programmable 16C550-type UARTs
 Four 10-bit channels (inputs) when used as single-ended inputs
 Three independent integrated analog comparators
 Two I

2

C modules

 Three PWM generator blocks

– One 16-bit counter
– Two comparat or s
– One PWM generator
– One dead-band generator

 Two QEI modules with position integrator for tracking encoder position
 Two synchronous serial interfaces (SSIs)
 3 to 56 GPIOs, depending on user configuration
 On-chip low drop-out (LDO) voltage regulator

October 28, 2008 11

Stellaris® LM3S2965 Evaluation Board

12 October 28, 2008

CHAPTER 2

Hardware Description

In addition to a microcontroller, the Stellaris LM3S2965 evaluation board includes a range of useful
peripherals and an integrated ICDI. This chapter describes how these peripherals operate and
interface to the microcontroller.

LM3S2965 Evaluation Board

LM3S2965 Microcontroller Overview

The heart of the EVB is a Stellaris LM3S2965 ARM Cortex-M3-based microcontroller. The
LM3S2965 offers 256-KB flash memory, 50-MHz operation, a CAN module, and a wide range of
peripherals. Refer to the LM3S2965 data sheet (order number DS-LM3S2965) for complete device
details.

The LM3S2965 microcontroller is factory programmed with a quickstart demo program. The
quickstart program resides in the LM3S2965 on-chip flash memo ry and runs each time power is
applied, unless the quickstart has been replaced with a user progr am.

CAN Module

A key feature of the LM3S2965 is its CAN module that enables highly reliable communications at
up to 1 Mbits/s. The LM3S2965 evaluation board includes a standard CAN transceiver and a
10-pin CAN connector whose signal assignments follow a commonly used CAN standard. A
simple adaptor (not included in the kit) can be used to allow the us e of st andard DB-9 CAN cables.

Clocking

Reset

An on-board 120-ohm resistor provides bus termination. This resistor can be removed if the board
is not a network endpoint.

The CAN transceiver is configured in hardware to support speeds up to 1 Mbits/s. A resistor can
be added to reduce the transceiver's drive slew-rate for slower data rates over longer distances.

The LM3S2965 microcontroller has three on-chip oscillators, two are implemented on the EVB. A

8.0-MHz crystal completes the LM3S2965’s main internal clock circuit. An intern al PLL, configured
in software, multiples this clock to 50-MHz for core and peripheral timing. At initial power on, the
microcontroller operates directly from a 12-MHz internal oscillator.

The LM3S2965 microcontroller shares its external reset input with the OLED display. In the EVB,
reset sources are gated through the CPLD, though in a typical application a simple wired-OR
arrangement is sufficient.

Reset is asserted (active low) under any one of three conditions:

 Power-on reset
 Reset push switch SW1 held down
 Internal debug mode—By the USB device controller (U5 FT2232) when instructed by

debugger

October 28, 2008 13

Hardware Description

Power Supplies

The LM3S2965 is powered from a +3.3-V supply. A low drop-out (LDO) regulator regulates +5-V
power from the USB cable to +3.3-V. +3.3-V power is available for powering external circuits.

A +15-V rail is available when the OLED display is active. The speaker and OLED display boost­converter operate directly from the +5-V rail.

Debugging

Stellaris microcontrollers support programming and debugging using either JTAG or SWD. JTAG
uses the signals TCK, TMS, TDI, and TDO. SWD requires fewer signals (SWCLK, SWDIO, and,
optionally, SWO, for trace). The debugger determines which debug protocol is used.

Debugging Modes

The LM3S2965 evaluation board supports a range of hardware debugging configurations. Table
summarizes these.

Table 2-1. Stellaris LM3S2965 Evaluation Board Hardware Debugging Configurations

Mode Debug Function Use Selected by

1 Internal ICDI Debug on-board LM3S2965

2 ICDI out to JTAG/SWD header The EVB is used as a USB

3 In from JTAG/SWD header For users who prefer an

Modes 2 and 3 automatically detect the presence of an exter nal deb ug cable . When the d ebugg er
software is connected to the EVB's USB controller, the EVB automatically selects Mode 2 and
illuminates the red Debug Out LED. ICDI out (Mode 2) can be used to program and debug the
small LM3S2110 CAN device board included in the kit.

Debug In Considerations

Debug Mode 3 supports evaluation boa rd debug ging using an external d ebug interface. Mode 3 is
automatically selected when a device such as a Segger J-Link or Keil ULINK is connected.

Boards marked Revision C or later automatically configure pin 1 to be a 3.3-V reference, if an
external debugger is connected. To determine the revision of your board, locate the product
number on the bottom of the board; for example, EK-LM3S2965-C. The last character of the
product number identifies the board revision.

microcontroller over USB
interface.

to SWD/JTAG interface to
an external target.

external debug interface
(ULINK, JLINK, etc.) with the
EVB.

Default mode

Connecting to an external
target and starting debug
software. The red Debug
Out LED will be ON.

Connecting an external
debugger to the JTAG/SWD
header

A configuration or board-level change may be necessary when using an external debug interface
with revisions A and B of this evaluation board. Because the evaluation board suppo rts both debug
out and debug in modes, pin 1 of the 20-pin JTAG/SWD header is, by default, not connected to
+3.3 V. Consequently, devices requiring a voltage on pin 1 to power their line buffers may not
work.

14 October 28, 2008

Two solutions exist. Some debugger interfaces (such as ULINK) have an internal power jumper
that, in this case, should be set to internal +3.3-V power. Refer to debugger interface
documentation for full details. However, if your debugger interface does not have a selectable
power source, it may be necessary to inst a ll a 0-Ω re sistor on th e e v aluatio n b oar d to route p ower
to pin 1. Refer to the schematics and board drawing in the appendix of this manual for the location
of this resistor.

USB Functions

USB Overview

An FT2232 device from Future Technology Devices International Ltd manages USB-to-serial
conversion. The FT2232 is factory configured by Luminary Micro to implement a JTAG/SWD port
(synchronous serial) on channel A and a Virtual COM Port (VCP) on channel B. This feature
allows two simultaneous communications links between the host computer and the target device
using a single USB cable. Separate Windows drivers for each function are provided on the
Documentation and Software CD.

A small serial EEPROM holds the FT2232 configuration data. The EEPROM is not accessible by
the LM3S2965 microcontroller.

For full details on FT2232 operation, go to www.ftdichip.com.

Stellaris® LM3S2965 Evaluation Board

USB to JTAG/SWD

The FT2232 USB device performs JT AG/SWD serial operations under th e control of the debugger.
A CPLD (U4) multiplexes SWD and JTAG functions and, when working in SWD mode, provides
direction control for the bidirectional data line.

Virtual COM Port

The Virtual COM Port (VCP) allows Windows applications (such as HyperTerminal) to
communicate with UART0 on the LM3S2965 over USB. Once the FT2232 VCP driver is installed,
Windows assigns a COM port number to the VCP channel.

Serial Wire Out

The evaluation board supports the Cortex-M3 serial-wire output (SWO) trace capabilities. Under
debugger control, the CPLD can route the SWO datastream to the virtual communication port
(VCP) transmit channel. The debugger can then decode and interpret the trace information
received from the VCP. The normal VCP connection to UART0 is interrupted when using SWO.
Not all debuggers support SWO. Refer to the Stellaris LM3S3748 data sheet for additional
information on the trace port interface unit (TPIU).

Organic LED Display

The EVB features an Organic LED (OLED) graphics display with 128 x 64 pixel resolution. OLED
is a new technology that offers many advantages over LCD display technology.

Features

 RiT P14201 series display
 128 colu mn s by 96 row s
 High-contrast (typ. 500:1)
 Excellent brightness (120 cd/m

October 28, 2008 15

2

)

Hardware Description

 Fast response

Control Interface

The OLED display has a built-in controller IC with synchronous serial and parallel interfaces.
Synchronous serial (SSI) is used on the EVB as it requires fewer microcontroller pins. Data cannot
be read from the OLED controller; only one data line is necessary. Stellaris® Firmware
Development Package (included on the Documentation and Software CD) contains complete
drivers with source-code for the OLED display.

Power Supply

A +15-V supply is needed to bias the OLED display. A FAN5331 device from Fairchild combines
with a few external components to complete a boost converter. A few external components
complete the switching power supply. When the OLED display is operating, a small amount of
power can be drawn from the +12-V rail to power other devices.

Design Guidelines

The OLED display has a lifetime of about 13,000 hours. It is also prone to degradation due to
burn-in, similar to CRT and plasma displays. The quickstart application includes both a screen
saver and a power-down mode to extend display life. These factors should be considered when
developing EVB applications that use the OLED display.

Further Reference

For additional information on the RiT OLED display, visit www.ritekdisplay.com.

Other Peripherals

Speaker

A small, magnetic audio transducer connects through a MOSFET to PD1/PWM1, allowing a range
of options for generating simple and complex tones. Use of the +5-V rail reduces switching noise
on the +3.3-V rail.

Push Switches

The EVB has five general-purpose input switches. Four are arranged in a navigation-style
configuration. The fifth functions as a Select switch.

User LED

A user LED (LED1) is provided for general use. The LED is connected to PG2/PWM0, allowing the
option of either GPIO or PWM control (brightness control). Refer to the Quickstart Application
source code for an example of PWM control.

Bypassing Peripherals

Excluding CAN and JTAG, the EVB’s on-board peripheral circuits require 13 GPIO lines. This
leaves 40 GPIO lines and 4 ADC channels immediately available for connection to external
circuits. If an application requires more GPIO lines the on-board hardware can be disconnected.
The EVB is populated with 3 jumper links, which can be cut with a knife to isolate on-board
hardware. The process can be reversed by installing 0603- 0-ohm chip resistors.

16 October 28, 2008

Stellaris® LM3S2965 Evaluation Board

Important: The quickstart application will not run if one or more jumpers are removed.
Table 2-2. Isolating On-Board Hardware

MCU Pin MCU Assignment To Isolate, Remove...

Pin 26 PA0/U0RX Virtual COM port receive JP1
Pin 27 PA1/U0TX Virtual COM port transmit JP2
Pin 16 PG3/PWM1 Sound JP5
Pin 31 PA5/SSI0TX OLED display data in JP7
Pin 28 PA2/SSI0CLK OLED display clock JP6
Pin 22 PC7/C2- OLED display data/control select JP3
Pin 29 PA3/SSI0FSS OLED display chip select JP4
Pin 46 PF5 Down switch JP8
Pin 43 PF6 Left switch JP9
Pin 58 PF4 Up switch JP10
Pin 42 PF7 Right switch JP11
Pin 41 PG4 Select switch JP12
Pin 47 PG2/PWM0 User LED JP13
Pin 23 PC6/C2+ Enable +15 V JP14

Interfacing to the EVB

An array of accessible I/O signals makes it easy to interface the EVB to external circuits. All
LM3S2965 I/O lines (except those with both JTAG and SWD functions) are brought out to 0.1”
pitch pads. For quick reference, silk-screened labels on the PCB show primary pin functions.

Table B-1 on page 29 has a complete list of I/O signals as well as recommended connectors.
Most LM3S2965 I/O signals are +5-V tolerant. Refer to the LM3S2965 data sheet for detailed

electrical specifications.

Using the In-Circuit Debugger Interface

The Stellaris LM3S2965 Evaluation Kit can operate as an In-Circuit Debugger Interface (ICDI).
ICDI acts as a USB to the JTAG/SWD adaptor, allowing debugging of any external target board
that uses a Stellaris microcontroller. See “Debugging Modes” on page 14 for a description of how
to enter Debug Out mode.

October 28, 2008 17

Hardware Description

Evaluation Board

Target

Board

Stellaris

MCU

Target

Cable

`

USB

PC with IDE/
debugger

Stellaris

MCU

TC K/SWC LK by pas s es t he
on- board m ic roc ont roller

JT AG or SWD c onnec t s t o t he
ext ernal m icroc on troller

Connec t ing Pin 18 t o GN D s ets

ext ernal debug m ode

Figure 2-1. ICD Interface Mode

The debug interface operates in either serial-wire debug (SWD) or full JTAG mode, depending on
the configuration in the debugger IDE.

The IDE/debugger does not distinguish between the on-EVB Stellaris microcontroller and an
external Stellaris microcontroller. The only requirement is that the correct Stellaris device is
selected in the project configuration.

18 October 28, 2008

CHAPTER 3

CAN Device Board Hardware Description

The CAN device board uses a S tellaris LM3S2110 microcontroller to demonstrate a complete
two-node network. The board can be used with the main LM3S2965 evaluation board or as a
standalone board.

Device Overview

The Stellaris LM3 S2110 ARM Cortex-M3-based microcontroller has 64-KB flash memory, 25-MHz
operation, a CAN module, and a wide range of peripherals. For complete device details, see the
LM3S2110 data sheet (order number DS-LM3S2110).

The LM3S2110 microcontroller is factory programmed with a quickstart demonstration program
that adds a remote volume control feature to the quickstart application. The quickstart program
resides in the LM3S2110 on-chip flash memory and runs each time power is applied, unless the
quickstart has been replaced with a user program.

Power Supply

The CAN device board receives +5.0-V power from the CAN bus and should not be connected to
a CAN bus that ha a power wire voltage of greater than 10.0 V. If the bus is unpowered, a +5.0-V
local power supply must be provided. The LM3S2110 is powered from a +3.3-V rail, supplied by a
low drop-out (LDO) regulator. +3.3-V power is available for powering external circuits.

Programming and Debugging

A standard two-way header supports both JTAG And SWD programming and debugging using
either the main LM3S2965 board in ICDI out mode or a full-featured debug interface.

Interfacing

Two push switches and an LED implement a very simple user interface. The board’s capabilities
are easily expanded using the I/O breakout headers . For breakout header signal assignments see
Figure B-4.‚ “LM3S2110 CAN Device Board Connections,” on page 30.

October 28, 2008 19

CAN Device Board Hardware Description

20 October 28, 2008

APPENDIX A

Schematics

Schematics for the Stellaris LM3S2965 Evaluation Board follow.

October 28, 2008 21

1

P

2

3

4

5

6

I/O Breakou t Headers

40 39 41 42

Stellaris Microcontroller with CAN

A A

PA0/U0RX
PA1/U0TX
PA2/SSI0CLK
PA3/SSI0FSS
PA4/SSI0RX
PA5/SSI0TX
PA6/I2CSCL
PA7/I2CSDA

INT_TCK

TMS/SWDIO

PC2/TDI

PC3/TDO

B B

MCURSTn

Y2

C C

1 2

8.00MHz
C31
18PF

C32
18PF

PC4/PhA0
PC5/C1+
PC6/C2+
PC7/C2-

PE0/SSI1CLK
PE1/SSI1FSS
PE2/SSI1RX
PE3/SSI1TX

ADC0
ADC1
ADC2
ADC3

OSC32IN
OSC32OUT

History

Revision Date Description

0 May 7, 07 Prototype release
A May 12, 07 First Production Release
B Jun 29, 07 Improve SWD out feature
C Sept 28, 07 Change to RiT 128x96 OLED display

D D

1

U1

26

PA0/U0RX

27

PA1/U0TX

28

PA2/SSI0CLK

29

PA3/SSI0FSS

30

PA4/SSI0RX

31

PA5/SSI0TX

34

PA6/I2C1SCL

35

PA7/I2C1SDA

80

PC0/TCK/SWCLK

79

PC1/TMS/SWDIO

78

PC2/TDI

77

PC3/TDO/SWO

25

PC4/PhA0

24

PC5/C1+

23

PC6/C2+

22

PC7/C2-

72

PE0/SSI1CLK

73

PE1/SSI1FSS

74

PE2/SSI1RX

75

PE3/SSI1TX

1

ADC0

2

ADC1

5

ADC2

6

ADC3

64

RST

48

MOSCin

49

MOSCout

52

OSC32in

53

OSC32out

50

WAKE

51

HIB

65

CMOD0

76

CMOD1

9

GND

15

GND

21

GND

33

GND

39

GND

45

GND

54

GND

57

GND

63

GND

69

GND

82

GND

87

GND

94

GND

4

AGND

97

AGND

LM3S2965

2

PB0/CCP0
PB1/CCP2

PB2/I2C0SCL

PB3/I2C0SDA

PB4/C0­PB5/C1-

PB6/C0+

PB7/TRST

PD0/CAN0RX
PD1/CAN0TX

PD2/U1RX
PD3/U1TX

PD4/CCP3
PD5/CCP4

PD6/FAULT

PD7/IDX0

PF0/CAN1RX
PF1/CAN1TX

PF2/PWM4
PF3/PWM5

PG0/U2RX

PG1/U2TX
PG2/PWM0
PG3/PWM1

PG4
PG5/CCP5
PG6/PhA1
PG7/PHB1

PH0/PWM2
PH1/PWM3

PH2/IDX1

PH3/PhB0

AVDD
AVDD

VDD33
VDD33
VDD33

VDD33
VDD33
VDD33
VDD33
VDD33

VBAT

LDO

VDD25
VDD25
VDD25
VDD25

PB0/CCP0

66

PB1/CCP2

67

PB2/I2C0SCL

70

PB3/I2CSDA

71

PB4/C0-

92

PB5/C1-

91

PB6/C0+

90
89

10

PD0/CAN0RX

11

PD1/CAN0TX

12

PD2/U1RX

13

PD3/U1TX

95

PD4/CCP3

96

PD5/CCP4

99

PD6/FAULT

100

PD7/IDX0

47

PF0/CAN1RX

61

PF1/CAN1TX
PF2/PWM4

60

PF3/PWM5

59

PF4

58

PF4

PF5

46

PF5

43

PF6

PF6

42

PF7

PF7

19

PG0/U2RX

18

PG1/U2TX

17

PG2/PWM0

16

PG3/PWM1

41

PG4

40

PG5/CCP5

37

PG6/PHA1
PG7/PHB1

36
86

PH0/PWM2

85

PH1/PWM3

84

PH2/IDX1

83

PH3/PHB0

3
98

8
20
32

44
56
68
81
93

55
7

14
38
62
88

3

+3.3V

R25
10K

PB7/TRST

1
4

JP15

8

ERRATA: Rev 0 and Rev A boards have

in 36 connected to +3.3V. Pin 36 should

be connected to break-out pad #12.

+3.3V

C3

0.1UF

+3.3V

C6

0.01UFC70.01UF

C10

0.01UF

C11

0.1UF

C8

0.1UF

C12

4.7UF

CAN Transceiver

U2

CANH

TXD

CANL

RXD
RS

VCC

GND2VREF

SN65HVD1050D

C9

0.1UF

4

7
6

3
5

PB5/C1- PB6/C0+
PD4/CCP3
PD6/FAULT

PD2/U1RX
PG3/PWM1

PC7/C2­PC5/C1+
PG7/PHB1
PA1/U0Tx PA2/SSI0CLK
PA3/SSI0FSS PA4/SSI0RX
PA5/SSI0TX
PA7/I2CSDA

21

CAN Port

+5V

C2

0.1UF

R1
120R

PA0/U0Rx

PA1/U0Tx

PA2/SSI0CLK

PA3/SSI0FSS

PC7/C2-

PA5/SSI0TX

PG4

PG2/PWM0

PF4

PF5

PF6

PF7

PG3/PWM1

PC6/C2+

P1

GND
CANL
GND

Header 5X2

Pin-out enables straight-through
connection to a CAN DB-9M.

1 2
3 4
5 6
7 8
9 10

JP1

JP2

JP6

JP4

JP3

JP7

JP12

JP13

JP10

JP8

JP9

JP11

JP5

JP14

PB4/C0­PD5/CCP4
PD7/IDX0
ADC0ADC1
ADC2ADC3
PD0/CAN0RX
PD1/CAN0TX
PD3/U1TX
PG2/PWM0
PG0/U2RXPG1/U2TX
PC6/C2+
PC4/PhA0
PA0/U0Rx

PA6/I2CSCL
PG6/PHA1

CANH
+BUSPWR

VCP_RX

VCP_TX

OLEDCLK

OLEDCSn

OLEDDC

OLEDDIN

SELECT_SWn

LED

UP_SWn

DOWN_SWn

LEFT_SWn

RIGHT_SWn

SOUND

EN+15V

+3.3V

D1

MBR0520

5

+15V

PB7/TRST
PH1/PWM3
PH3/PHB0
PC3/TDO

PE1/SSI1FSS
PB1/CCP2

PF1/CAN1TX
PF3/PWM5
OSC32OUT
PF0/CAN1RX

+5V

C1

4.7UF

PG4
PG5/CCP5

73 74

On-board Peripheral Signals

Jumpers can be removed to
free GPIO lines as required.

Drawing Title:

Fury CAN Evaluation Board

Page Title:

LM3S2965 Micro and CAN Host

Document Number:

Size

B

9/28/2007 1 4

+5V+3.3V

PH0/PWM2
PH2/IDX1
PC2/TDI
PE3/SSI1TX
PE2/SSI1RX
PE0/SSI1CLK
PB2/I2C0SCLPB3/I2CSDA

PB0/CCP0
PF2/PWM4
PF4
OSC32IN
PF5PF6
PF7

1

6

RevSheetDate:

of

C

1

A A

+5V

R3

2.2

D2
MBR0520

SOUND

R6
10K

B B

BZ1

NFT-03A

Q1
NDS331N

Speaker Circuit

C C

D D

1

2

+5V

U8

5

VIN

C16

4.7UF

EN+15V

R8
10K

SHDNn4GND

FAN5331

+15V 50mA Power Supply for OLED Display

L1
NR4018T100M

10uH

SW

3

D3

MBR0520

R5

C19

200K

R7

17.8K

120pF

1

3

FB

2

4

C17

4.7UF

+15V

C14

0.1UF

OLEDCSn
MCURSTn

OLEDDC

OLEDCLK
OLEDDIN

5

U3

1

NC

2

VCIR

3

VCOMH

4

LVSS

5

VSS

6

BS1

7

BS2

8

IREF

9

CSn

10

RESn

11

D/Cn

12

R/Wn

13

E

14

D0/SCLK

15

D1/SDIN

16

D2

17

D3

18

D4

19

D5

20

D6

21

D7

22

VDDIO

23

VDD

24

VCC

25

NC

OLED-RIT-128X96
RGS13128096WH000

+3.3V

+3.3V

C15

0.1UF

C13

4.7UF

R2
200K

+15V

C18

0.1UF

6

128x96 OLED Graphics Display

+3.3V

Reset

SW1

SW-B3S1000

Select

SW2

SW-B3S1000

Up

SW3

SW-B3S1000

Down

SW4

SW-B3S1000

Left

SW5

SW-B3S1000

Right

SW6

SW-B3S1000

2

R9
10K

C34
OMIT

RESET_SWn

SELECT_SWn

UP_SWn

DOWN_SWn

LEFT_SWn

RIGHT_SWn

LED

DBGOUTLED

3

R10
330

R11
330

+3.3V

R12
330

Status LEDsUser Switches

4

LED1
Green

LED2
Green

LED3
Green

User

Debug Out

Power

Drawing Title:

Fury CAN Evaluation Board

Page Title:

OLED display, Switches and Audio

Document Number:

Size

B

9/28/2007 2 4

5

2

6

RevSheetDate:

of

C

1

FB1

1

USB Interface

P2

5V D- D+ ID G

6

123

U6

8

VCC

7

NC

6

ORG

5

GND

CAT93C46

1K 64X16

54819-0519

C23

0.01UF

CS
SK
DI

DO

1
2
3
4

1 2

6.00MHz
C4
27PF

475

Y1

+5V+5V

R16
10K

USBSH

R13 27
R14 27

R17

1.5K

C5
27PF

USB+5V JP16

A A

USB+5V

60ohm @ 100 MHz

B B

C C

D D

JP17

2

USB Device Controller

U5

C22

6

3V3OUT

0.1UF

8

USBDM

7

USBDP

R15

1.5K

48

EECS

1

EESK

2

EEDATA

47

TEST

43

XTIN

44

XTOUT

4

+5V

RESET#

5

RSTOUT#

9

GND

18

GND

25

GND

34

GND

45

AGND

FT2232D

Channel A : JTAG / SW Debug
Channel B : Virtual Com Port

USB +5V to +3.3V 500mA Power Supply

U7

1
6

C29

4.7UF

2

2

VIN1
VIN2

GND

LP8345ILD-3.3

VOUT

SENSE

NC

GND

ADBUS0
ADBUS1
ADBUS2
ADBUS3
ADBUS4
ADBUS5
ADBUS6
ADBUS7

ACBUS0
ACBUS1
ACBUS2
ACBUS3

SI/WUA

BDBUS0
BDBUS1
BDBUS2
BDBUS3
BDBUS4
BDBUS5
BDBUS6
BDBUS7

BCBUS0
BCBUS1
BCBUS2
BCBUS3

SI/WUB

PWREN#

VCC

VCC
VCCIOA
VCCIOB

AVCC

4
5

3

7

3

+3.3V

R4

4.7K

TCK

24

TDI/DI

23

TDO/DO

22

TMS/OUTEN

21
20

SRSTN

19
17

DBG_JTAG_EN

16
15

13
12
11
10

+3.3V

40
39
38
37
36
35
33
32

30
29
28
27
26

41

3
42
14
31

46

C28

0.1UF

3

SWO_EN

+3.3V

R22
330

+3.3V+5V

C30

4.7UF

VCP_RX

C24

0.1UF

INT_TCK

RESET_SWn

+3.3v

C25

0.1UF

+3.3V

C20

0.1UF

C26

0.1UF

4

Debug Interface Logic

C21

0.1UF

+3.3V

R26

4.7K

C33

MODE is reserved

0.1UF

+5V

C27

0.1UF

4

44
45
46
47
48

2
3
4
7
8

9
10
14

for future use.

13

37

19

43

GND

GND

CLK1/I18CLK2/I

A0/GOE0
A1
A2
A3
A4
A5
A6
A7
A8
A9
A10
A11
A12

MODE
VCP_TX_SWO

CLK3/I42CLK0/I

Bank 0 Bank 1

GND (Bank 0)5VCCO (Bank 0)

A1315A1416A15

6

17

PC2/TDI

TMS/SWDIO

TCK/SWCLK

PC3/TDO

+3.3V

25

11

TMS

TCK

GND (Bank 1)29VCCO (Bank 1)

30

TCK/SWCLK

PC3/TDO

+3.3V

1

12

TDI

TDO35VCC

41

PC2/TDI

TMS/SWDIO

5

36

VCC

B1339B1440B15/GOE1

5

B0
B1
B2
B3
B4
B5
B6
B7
B8

B9
B10
B11
B12

R18
27

R20
27

R21
27

R23
27

PLD_TCK
PLD_TMS
PLD_TDI
PLD_TDO

+3.3V

U4
LC4032V-75TN48C

20

PC2/TDI

21
22
23

PC3/TDO

24

TARGETCABLEn

26
27
28
31
32
33
34
38

TMS/SWDIO
TCK/SWCLK

TP1
TP2
TP3

PLD JTAG TEST POINTS

TP4
TP5
TP6

DBGOUTLED

VCP_TX

PB7/TRST
MCURSTn

JTAG/SWD Interface
Input/Output

P3

R19
27

XTDI
XTMS
XTCK

XTDO

1 2
3 4
5 6
7 8
9 10
11 12
13 14
15 16
17 18
19 20

Header 10X2

TARGETCABLEn

Drawing Title:

Fury CAN Evaluation Board

Page Title:

USB, Debugger Interfaces and Power

Document Number:

Size

B

9/28/2007 3 4

6

+3.3v

R24

4.7K

3

6

RevSheetDate:

of

C

1

N

Power Rail Break-out

A A

B B

C C

+5VBUSD+5V D+3.3V

J100

34 43
J103

1
J106

35
J109

33
J112

60
J115

36
J121

2

DGND

OTE: Some LM3S2110 pins are
no-connects. These pins have been brought
out to pads to allow other Stellaris CAN
devices to be used instead of LM3S2110.

D+3.3V

R103
68K

DGND

C100

0.1UF

JTAG/SWD Interface

D+3.3V

P101

1 2

DTDI
DTMS
DTCK

DTDO

D D

1

3 4
5 6
7 8
9 10
11 12
13 14
15 16
17 18
19 20

Header 10X2

2

Y100

1 2

8.00MHz
C103
18PF

DGND DGND

DGND

2

17
18
19
20
21
22
23
24

53
52
16
15
14
13

47
50
49
51

3
4
5
6

DRSTn

J101
J104
J107
J110
J113
J116
J119
J122

J124
J126
J128
J130
J132
J134

J136
J138
J140
J142

J145
J147
J149
J151

C104
18PF

DTCK
DTMS
DTDI
DTDO

37
38
42

J163
J164
J118

DGND

3

CAN Microcontroller

U100

26

PA0/U0RX

27

PA1/U0TX

28

PA2/SSI0CLK

29

PA3/SSI0FSS

30

PA4/SSI0RX

31

PA5/SSI0TX

34

PA6/CCP1

35

nc

80

PC0/TCK/SWCLK

79

PC1/TMS/SWDIO

78

PC2/TDI

77

PC3/TDO/SWO

25

PC4

24

PC5/C1+

23

PC6/C2+

22

PC7/C2-

72

PE0

73

PE1

74

nc

75

nc

1

nc

2

nc

5

nc

6

nc

64

RST

48

MOSCin

49

MOSCout

52

OSC32in

53

OSC32out

50

WAKE

51

HIB

65

CMOD0

76

CMOD1

9

GND

15

GND

21

GND

33

GND

39

GND

45

GND

54

GND

57

GND

63

GND

69

GND

82

GND

87

GND

94

GND

4

AGND

97

AGND

LM3S2110

CAN Device Evaluation Board

3

PB0/CCP0
PB1/CCP2

PB2/I2C0SCL

PB3/I2C0SDA

PB4/C0­PB5/C1-

PB6/C0+

PB7/TRST

PD0/CAN0RX
PD1/CAN0TX

PD2
PD3

PD4/CCP3

PD5

PD6/FAULT

PD7/C0o

PF0/PWM0
PF1/PWM1

PG0
PG1

PH0
PH1

AVDD
AVDD

VDD33
VDD33
VDD33

VDD33
VDD33
VDD33
VDD33
VDD33

VBAT

LDO

VDD25
VDD25
VDD25
VDD25

4

D+3.3V

R104
68K

66
67
70
71
92
91
90
89

10
11
12
13
95
96
99
100

47
61
60

PF2

59

nc

58

nc

46

nc

43

nc

42

nc

19
18
17

nc

16

nc

41

nc

40

nc

37

nc

36

nc

86
85
84

nc

83

nc

3
98

8
20
32

44
56
68
81
93

55
7

14
38
62
88

DPF0
DPF1
DPF2

D+3.3V

DGND

J102
J105
J108
J111
J114
J117
J120
J123

J125
J127
J129
J131
J133
J135

J137
J139
J141
J143
J144
J146
J148
J150

J152
J153
J154
J155
J156
J157
J158
J165
J159
J160
J161
J162

C102

0.1UF

C107

0.01UF

C111

0.01UF

46
45
48
61
62
59
58

7
8
64
63
66
65

31
44
41
40
39
30
29
28

12
11
10
9
27
26
25
32
57
56
55
54

C108

0.01UF

C112

0.1UF

DGND

4

C109

0.1UF

C113

4.7UF

D+3.3V

DGND

JP101

C110

0.1UF

CAN Transceiver

U101

1
4

8

SN65HVD1050D

DGNDDGND

CANH

TXD

CANL

RXD
RS

VCC

GND2VREF

+5VBUS

5

DPF0

DPF1

DRSTn

R100

DPF2

330

R101

D+3.3V

330

R102

D+5V

DGND

C101

0.1UF

120R

DGND

Pin-out enables straight-through
connection to a CAN DB-9M.

7
6

3
5

+5V to +3.3V 500mA Power Supply

JP100

5

C105

4.7UF

DGND

U102

1

VIN1

6

VIN2

2

GND

LP8345ILD-3.3

GND
DCANL
GND

Up

SW100

SW-B3S1000

Down

SW101

SW-B3S1000

Reset

SW102

SW-B3S1000

Status

LED100
Green

DGND

Power

LED101
Green

DGND

CAN Port

P100

1 2
3 4
5 6
7 8
9 10

Header 5X2

4

VOUT

5

SENSE

3

NC

7

GND

Drawing Title:

Page Title:

Document Number:

Size

B

9/28/2007 4 4

6

DGND

DCANH

+5VBUS

D+3.3VD+5V

C106

4.7UF

DGNDDGND DGND

Fury CAN Evaluation Board
CAN Device using LM3S2110

4

of

6

RevSheetDate:

C

A B C D E F G H

1

VCP_TX

SWO_EN

2

FTDI_TCK XTCK

FTDI_TDI_DO U0TX

3

FTDI_TDO_DI

I90

34
10
45

46

47

I3

I91
I7

I6

I89

A
B

S

S

I18

FTDI_TMS

48

I4

4

FTDI_DBG

FTDIJTAGEN

5

FTDI_SRSTn

4

I5

3

I37

I9

DQ

B
A

FTDI_DBG

JTAGEN

I20

SWDEN

I36

FTDI_DBG

S

B

DBGOUT

I105

A

I85

I109

I92

I16

JTAGEN

I111

I35

S

I112

B
A

I17

DBGOUT

I96

6

I99

C

I100

I95

INTDBG

I102

7

RSTSW

RC

EXTCABLEn TVCC

8

HIBn

14

26

16

9

I15

I104

I74

I115

I13

I108

DRVEN

Luminary Micro, Inc.
Fury Evaluation Kit
JTAG Logic with Auto Mode Detect, Hibernate and TVcc Control
Sept 28, 2007

44

41

I87

32

24

21

40

I8

31

33

38

15

1

ITCK

I86

2

I2

I42

XTDO

XTDI

XTMS

DBGLED

3

4

5

6

I70

I106

I107

TEST

TRSTn

MCURSTn

7

7

I114

8

A B C D E F G H

APPENDIX B

Connection Details

This appendix contains the following sections:

 Component Locations
 Evaluation Board Dimensions
 I/O Breakout Pads
 ARM Target Pinout
 References

Component Locations

Figure B-1. Component Locations

October 28, 2008 27

Evaluation Board Dimensions

Figure B-2. LM3S2965 Evaluation Board Dimensions

Figure B-3. LM3S2110 CAN Device Board Dimensions

I/O Breakout Pads

The LM3S2965 EVB has 57 I/O pads, 15 power pads, and 2 crystal connections, for a total of 74
pads. Connection can be made by soldering wires directly to these pads, or by using 0.1” pitch
headers and sockets.

28 October 28, 2008

Note: In Table B-2, an asterisk (*) by a signal name (also on the EVB PCB) indicates the signal is
normally used for on-board functions. Normally, you should cut the associated jumper (JP1-15)
before using an assigned signal for external interfacing.

Table B-1. I/O Breakout Pads

Stellaris® LM3S2965 Evaluation Board

Description

GND 40 39 +3.3 V +12 V 41 42 +5 V
PB5/C1- 38 37 PB6/C0+ GND 43 44 GND
PD4/CCP3 36 35 PB4/C0- PB7/TRST
PD6/FAULT 34 33 PD5/CCP4 PH1/PWM3 47 48 PH2/IDX1
ADC1 30 29 ADC0 PC3/TDO 51 52 PE3/SSI1TX
ADC3 28 27 ADC2 GND 53 54 PE2/SSI1RX
GND 26 25 PD0/CAN0RX PE1/SSI1FSS 55 56 PE0/SSI1CLK
PD2/U1RX 24 23 PD1/CAN0TX PB3/I2CSDA 57 58 PB2/I2C0SCL
PG3/PWM1*2221PD3/U1TX PB1/CCP2 59 60 GND
GND 20 19 PG2/PWM0* PF1/CAN1TX 61 62 PB0/CCP0
PG1/U2TX 18 17 PG0/U2RX PF3/PWM5 63 64 PF2/PWM4
PC7/C2-*1615PC6/C2+* OSC32OUT 65 66 PF4*
PC5/C1+ 14 13 PC4/PHA0 PF0/CAN1RX 67 68 OSC32IN
GND 12 11 PA0/U0RX* PF6*6970PF5*

Pad

No.

Pad

No.

Description Description

Pad
No.

Pad
No.

45 56 PH0/PWM2

Description

PA1/U0TX*109PA2/SSI0CLK* PG4*7172PF7*
PA3/SSI0FSS*8 7PA4/SSI0RX PG5/CCP5 73 74 GND
PA5/SSI0TX*65PA6/I2CSCL
PA7/I2C1SDA 43PG6/PHA1
GND 21+3.3V

Recommended Connectors

Connection can be made by soldering wires directly to pads or using 0.1” pitch headers and
sockets.

Table B-2. Recommended Connectors

Pins 1-40 (2 x 20 way) PCB Socket Sullins PPPC202LFBN-RC Digikey S7123-ND

Cable Socket 3M 89140-0101 Digikey MKC40A-ND
Pin Header Sullins PEC20DAAN Digikey S2012E-20-ND

October 28, 2008 29

Table B-2. Recommended Connectors

Pins 41-74 (2 x 17 way) PCB Socket Sullins PPPC172LFBN-RC Digikey S7120-ND

Cable Socket 3M 89134-0101 Digikey MKC34A-ND
Pin Header Sullins PEC17DAAN Digikey S2012-17-ND

Figure B-4. LM3S2110 CAN Device Board Connections

ARM Target Pinout

In ICDI input and output mode, the Stellaris LM3S2965 Evaluation Kit supports ARM’s standard
20-pin JTAG/SWD configuration. The same pin configuration can be used for debugging over
serial-wire debug (SWD) and JTAG interfaces. The debugger software, running on the PC,
determines which interface protocol is used.

30 October 28, 2008

Stellaris® LM3S2965 Evaluation Board

The Stellaris target board should have a 2x10 0.1” pin header with signals as indicated in
Table B-3. This applies to both external Stellaris MCU t argets (Debug output mode) and to exter nal
JTAG/SWD debuggers (Debug input mode).

Table B-3. 20-Pin JT AG/SWD Configuration

Function Pin Pin Function

VCC (optional) 1 2 nc
nc 3 4 GND

TDI 56GND
TMS 78GND
TCK 910GND
nc 11 12 GND
TDO 13 14 GND

nc 15 16 GND
nc 17 18 GND
nc 19 20 GND

ICDI does not control RST
implemented as commands over JTAG/SWD, so these signals are not necessary.

It is recommended that connections be made to all GND pins; however, both targets and external
debug interfaces must connect pin 18 and at least one other GND pin to GND.

References

In addition to this document, the following references are included on the Stellaris Family
Development Kit documentation CD-ROM and are also available for do wnload at
www.luminarymicro.com:

 Stellaris LM3S2965 Evaluation Kit Quickst art Guide for appropriate tool kit (s ee “Evaluation Kit

Contents,” on page 10)

 Stellaris LM3S2965 Read Me First for the CAN Evaluation Kit
 Stellaris Family Peripheral Driver Library
 Stellaris Family Peripheral Driver Library User’s Manual, publication PDL-LM3S2965
 Stellaris LM3S2965 Data Sheet, publication DS-LM3S2965

Additional references include:

(device reset) or TRST (test reset) signals. Both reset functions are

 Future Technology Devices Incorporated FT2232C Datasheet
 Information on development tool being used:

– RealView MDK web site, www.keil.com/arm/rvmdkkit.asp
– IAR Embedded Workbench web site, www.iar.com

October 28, 2008 31

– Code Sourcery GCC development tools web site,

www.codesourcery.com/gnu_toolchains/arm

– Code Red Technologies development tools web site,

www.code-red-tech.com

32 October 28, 2008

APPENDIX C

Contact Information

Company Information

Luminary Micro, Inc. designs, markets, and sells ARM Cortex-M3-based microcontr ollers (MCUs).
Austin, Texas-based Luminary Micro is the lead partner for the Cortex-M3 processor, delivering the
world's first silicon implementation of the Cortex-M3 processor. Luminary Micro's introduction of
the Stellaris® family of products provides 32-bit performance for the same price as current 8- and
16-bit microcontroller designs. With entry-level pricing at $1.00 for an ARM technology-based
MCU, Luminary Micro's Stellaris product line allows for standardization that eliminates future
architectural upgrades or software tool changes.

Luminary Micro, Inc.
108 Wild Basin, Suite 350
Austin, TX 78746
Main: [phone]
Fax: [phone]
http://www.luminarymicro.com

Support Information

For support on Luminary Micro products, contact:
[e-mail]

[phone], ext. 3

October 28, 2008 33

34 October 28, 2008