This reference manual describes in detail the hardware on the 56F8346 Evaluation
Module.
Note: The 56F8346EVM board may have an obsolete part number, DSP56F836EVM.
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cale Semiconductor,
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Audience
This document is intended for application developers who are creating software for
devices using the Motorola 56F8346 part.
Organization
This manual is organized into two chapters and two appendixes.
•Chapter 1,Introduction
provides an overview of the EVM and its features.
•Chapter 2, Technical Summary - describes in detail the 56F8346 hardware.
•Appendix A, 56F8346EVM Schematics - contains the schematics of the
56F8346EVM.
Appendix B, 56F8346EVM Bill of Material - provides a list of the materials used on the
•
56F8346EVM board
.
Suggested Reading
More documentation on the 56F8346 and the 56F8346EVM kit may be found at URL:
www.motorola.com/semiconductors
MOTOROLAPrefacevii
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Notation Conventions
This manual uses the following notational conventions:
Term or ValueSymbolExamplesExceptions
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cale Semiconductor,
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Active High
Signals
(Logic One)
Active Low
Signals
(Logic Zero)
Hexadecimal
Values
Decimal ValuesNo special symbol
Binary ValuesBegin with the letter
NumbersConsidered positive
Blue TextLinkable on-line...refer to Chapter 7, License
BoldReference sources,
No special symbol
attached to the
signal name
Noted with an
overbar in text and
in most figures
Begin with a “$”
symbol
attached to the
number
“b” attached to the
number
unless specifically
noted as a negative
value
paths, emphasis
A0
CLKO
WE
OE
$0FF0
$80
10
34
b1010
b0011
5
-10
...see:
http://www.motorola.com/
semiconductors
...
In schematic drawings,
Active Low Signals may be
noted by a backslash: /WE
Voltage is often shown as
positive: +3.3V
Definitions, Acronyms, and Abbreviations
Definitions, acronyms and abbreviations for terms used in this document are defined
below for reference.
A/D
Analog-to-Digital; a method of converting Analog signals to Digital
values
ADCAnalog-to-Digital Converter; a peripheral on the 56F8346 part
CANController Area Network; serial communications peripheral and method
CiA
D/A
CAN in Automation; an international CAN user’s group that coordinates
standards for CAN communications protocols
Digital-to-Analog; a method of converting Digital values to an Analog
form
DSPDigital Signal Processor or Digital Signal Processing
viii56F8346EVM User ManualMOTOROLA
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56F8346
EOnCE
Hybrid controller with motor control peripherals
Enhanced On-Chip Emulation; a debug bus and port created by Motorola
to enable a designer to create a low-cost hardware interface for a
professional quality debug environment
EVM
Evaluation Module; a hardware platform which allows a customer to
evaluate the silicon and develop his application
FlexCAN
GPIO
Flexable CAN Interface Module; a peripheral on the 56F8346 part
General Purpose Input and Output port on Motorola’s family of hybrid
controllers; does not share pin functionallity with any other peripheral on
the chip and can only be set as an input, output or level-sensitive
interrupt input
IC
JTAG
LED
Integrated Circuit
Joint Test Action Group; a bus protocol/interface used for test and debug
Light Emitting Diode
LQFPLow-profile Quad Flat Package
MPIO
Multi Purpose Input and Output port on Motorola’s family of hybrid
controllers; shares package pins with other peripherals on the chip and
can function as a GPIO
OnCE
TM
On-Chip Emulation, a debug bus and port created by Motorola to allow a
means for low-cost hardware to provide a professional-quality debug
environment
PCB
PLL
Printed Circuit Board
Phase Locked Loop
PWMPulse Width Modulation
QuadDec
RAM
R/C
ROM
Quadrature Decoder; a peripheral on the 56F8346 part
Random Access Memory
Resistor/Capacitor Network
Read-Only Memory
SCI
Serial Communications Interface; a peripherial on Motorola’s family of
hybrid controllers
SPI
Serial Peripheral Interface; a peripheral on Motorola’s family of hybrid
controllers
The following sources were referenced to produce this manual:
[1] DSP56800E Reference Manual, DSP56800ERM/D; Motorola
[2] 56F8300 Peripheral User Manual, MC56F8300UM/D; Motorola
[3] 56F8346 Technical D ata , MC56F8346/D; Motorola
[4] CiA Draft Recommendation DR-303-1, Cabling and Connector Pin
Assignment, Version 1.0, CAN in Automation
[5] CAN Specification 2.0B, BOSCH or CAN in Automation
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x56F8346EVM User ManualMOTOROLA
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Chapter 1
Introduction
The 56F8346EVM is used to demonstrate the abilities of the 56F8346 and to provide a
hardware tool allowing the development of applications that use the 56F8346.
The 56F8346EVM is an evaluation module board that includes a 56F8346 part, peripheral
expansion connectors, a CAN interface, 512KB of external memory and a pair of daughter
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card connectors. The daughter card expansion connectors are for signal monitoring and
user feature expandability.
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The 56F8346EVM is designed for the following purposes:
•Allowing new users to become familiar with the features of the 56800E
architecture. The tools and examples provided with the 56F8346EVM facilitate
evaluation of the feature set and the benefits of the family.
•Serving as a platform for real-time software development. The tool suite enables
the user to develop and simulate routines, download the software to on-chip or
on-board RAM, run it, and debug it using a debugger via the JTAG/Enhanced
OnCE (EOnCE) port. The breakpoint features of the EOnCE port enable the user
to easily specify complex break conditions and to execute user-developed software
at full speed until the break conditions are satisfied. The ability to examine and
modify all user-accessible registers, memory and peripherals through the EOnCE
port greatly facilitates the task of the developer.
•Serving as a platform for hardware development. The hardware platform enables
the user to connect external hardware peripherals. The on-board peripherals can be
disabled, providing the user with the ability to reassign any and all of the hybrid
controller's peripherals. The EOnCE port's unobtrusive design means that all
memory on the board and on the chip is available to the user.
MOTOROLAIntroduction1-1
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1.1 56F8346EVM Architecture
The 56F8346EVM facilitates the evaluation of various features present in the 56F8346
part. The 56F8346EVM can be used to develop real-time software and hardware products
based on the 56F8346. The 56F8346EVM provides the features necessary for a user to
write and debug software, demonstrate the functionality of that software and interface
with the user’s application-specific device(s). The 56F8346EVM is flexible enough to
allow a user to fully exploit the 56F8346’s features to optimize the performance of his
product, as shown in Figure 1-1.
56F8346
Program Memory
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DSub
25-Pin
cale Semiconductor,
128Kx16-bit
SRAM
Data Memory
128Kx16-bit
SRAM
Memory
Expansion
Connector
Memory
Daughter Card
Connector
Reset Logic
Mode/IRQ Logic
JTAG
Connector
Parallel
JTAG
Interface
8.00MHz
Crystal
Address,
Data &
Control
RESET
MODE/IRQ
JTAG/EOnCE
XTAL/
EXTAL
SPI #0
SCI #0
SCI #1
Timer C
Timer D
PWMA
ADCA
QuadDec #0
PWMB
ADCB
QuadDec #1
FlexCAN
+3.3V & GND
+3.3VA & AGND
+3.0Vref
4-Channel
10-Bit D/A
TM
1-Wire
64-Bit ID
RS-232
Interface
Peripheral
Expansion
Connectors
CAN Interface
Debug LEDs
PWM LEDs
Power Supply
+3.3V, +3.3VA, +5V &
+3.0VA
D/A
Header
DSub
9-Pin
Peripheral
Daughter Card
Connector
CAN Bus
Header
CAN Bus
DaisyChain
Optional
Frees
Figure 1-1. Block Diagram of the 56F8346EVM
1.2 56F8346EVM Configuration Jumpers
Sixteen jumper groups, (JG1-JG16), shown in Figure 1-2, are used to configure various
features on the 56F8346EVM board. Table 1-1 describes the default jumper group
settings.
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56F8346EVM Configura tio n Jump er s
JG1
JG11
JG5
JG2
1
3
1
3
J5
JG11
J19
J20
J18
J17
JG15
1
JG16
3
3
1
PC0
PC1
PC2
PC3
PD6
PD7
PWMA0
PWMA1
PWMA2
PWMA3
PWMA4
PWMA5
JG15
JG16
J10 J11
JG12
2
4
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JG7
JG13
J14
J9
J21
J15 J16
J1
U1
JG2
JG1
Y1
JG12
J12
JG7
U4
LED3
JG14
JG3
JG13
S3
S2S1
P2
RESET
IRQA
1
3
JG14
J6
JG5
JG6
DSP56F836EVM
U2
U3
JG10
JTAG
J3
J13
JG4
U11
P1
IRQB
J7
J8
J2
S/N
JG9
U10
P3
JG4
JG3
3
4
JG6
2
1
JG10
JG9
Figure 1-2. 56F8346EVM Jumper Reference
Table 1-1. 56F8346EVM Default Jumper Options
Jumper
Group
Comment
JG1Use on-board EXTAL crystal input for the device’s osc il lator1–2
JG2Use on-board XTAL crystal input for the device’s oscillator1–2
JG3Enable Internal Boot Mo de1–2
JG4Enable A0 - A19 for external memory accessesNC
JG8SPI #0 Daisy Chain (Optional--not populated on board by default)NC
JG9Enable on-board Parallel JTAG Host/Target InterfaceNC
JG10Connect Analog Ground to Digital Grou ndNC
JG11CAN termination selected1–2
JG12Pass RXD0 & TXD0 to RS-232 level converter1–2 & 3–4
JG13Enable Crystal Mode1–2
JG14Pass Temperature Diode to ANA71–2
JG15User Jumper #01–2
JG16User Jumper #11–2
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1.3 56F8346EVM Connections
An interconnection diagram is shown in Figure 1-3 for connecting the PC and the external
+12.0V DC/AC power supply to the 56F8346EVM board.
Parallel Extension
Cable
56F8346EVM
PC-compatible
Computer
P1
Connect cable
to Parallel/Printer port
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Figure 1-3. Connecting the 56F8346EVM Cables
External
+12V
Power
P3
with 2.1mm,
receptacle
connector
Perform the following steps to connect the 56F8346EVM cables:
1. Connect the parallel extension cable to the Parallel port of the host computer.
2. Connect the other end of the parallel extension cable to P1, shown in Figure 1-3,
on the 56F8346EVM board. This provides the connection which allows the host
computer to control the board.
3. Make sure that the external +12V DC, 1.2A power supply is not plugged into a
+120V AC power source.
cale Semiconductor,
4. Connect the 2.1mm output power plug from the external power supply into P3,
shown in Figure 1-3, on the 56F8346EVM board.
Frees
5. Apply power to the external power supply. The green Power-ON LED, LED13,
will illuminate when power is correctly applied.
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Chapter 2
Technical Summary
The 56F8346EVM is designed as a versatile hybrid controller development card for
developing real-time software and hardware products to support a new generation of
applications in servo and motor control, digital and wireless messaging, digital answering
machines, feature phones, modems, and digital cameras. The power of the 16-bit
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56F8346, combined with the on-board 128K × 16-bit external program/data static RAM
(SRAM), 128K × 16-bit external data/program SRAM, RS-232 interface, CAN interface,
Daughter Card Expansion interface and parallel JTAG interface, makes the 56F8346EVM
ideal for developing and implementing many motor controlling algorithms, as well as for
learning the architecture and instruction set of the 56F8346 processor.
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The main features of the 56F8346EVM, with board and schematic reference designators
include:
•56F8346FV60, a 16-bit +3.3V/+2.5V Digital Signal Processor operating at 60MHz
[U1]
•External fast static RAM (FSRAM) memory, configured as:
— 128K×16-bit of memory [U2] with 0 wait state at 60MHz via CS0
— 128K×16-bit of memory [U3] with 0 wait state at 60MHz via CS1/CS2
•1-Wire Serial 64-Bit Unique ID [U6]
•Optional 4-Channel 10-bit Serial D/A, SPI for real-time user data display [U5]
•8.00MHz crystal oscillator for hybrid controller frequency generation [Y1]
•Optional external oscillator frequency input connectors [JG1 and JG2]
•Joint Test Action Group (JTAG) port interface connector for an external debug
Host Target Interface [J3]
•On-board Parallel JTAG Host Target Interface, with a connector for a PC printer
port cable [P1], including a disable jumper [JG9]
•RS-232 interface for easy connection to a host processor [U4 and P2], with a
disable jumper [JG7]
•CAN interface for high speed, 1.0Mbps, FlexCAN communications [U16 and J5]
MOTOROLATechnical Summary2-1
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•CAN bypass and bus termination [J6 and JG11]
•Peripheral Daughter Card Expansion Connector, to allow the user to connect his
own SCI, SPI or GPIO compatible peripheral to the hybrid controller[J1]
•Memory Daughter Card Expansion Connector, to allow the user to connect his own
memory or memory device to the hybrid controller [J2]
•Connector to allow the user to connect his own SCI #0 / MPIO-compatible
peripheral [J16]
•Connector to allow the user to connect his own SCI #1 / MPIO-compatible
peripheral [J17]
•Connector to allow the user to connect his own SPI #0 / MPIO-compatible
peripheral [J14]
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•Connector to allow the user to connect his own SPI #1 / MPIO-compatible
peripheral [J15]
•Connector to allow the user to connect his own PWMA-compatible peripheral
[J10]
•Connector to allow the user to connect his own PWMB-compatible peripheral [J11]
•Connector to allow the user to connect his own CAN physical layer peripheral
[J21]
•Connector to allow the user to connect his own Timer A / Encoder #0-compatible
peripheral [J18]
•Connector to allow the user to connect his own Timer C-compatible peripheral
[J19]
•Connector to allow the user to connect his own Timer D-compatible peripheral
[J20]
•Connector to allow the user to attach his own A/D port A-compatible peripheral
[J12]
•Connector to allow the user to attach his own A/D port B-compatible peripheral
[J13]
•On-board power regulation from an external +12V DC-supplied power input [P3]
•Light Emitting Diode (LED) power indicator [LED13]
•Six on-board real-time user debugging LEDs [LED1-6]
•Six on-board Port A PWM monitoring LEDs [LED7-12]
•Address Range (EMI_MODE) Boot MODE selector [JG4]
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•Clock MODE (CLKMODE) Boot selector [JG13]
•Temperature Sense Diode to ANA7 selector [JG14]
•Manual RESET push-button [S1]
56F8346
•Manual interrupt push-button for IRQA
•Manual interrupt push-button for IRQB
[S2]
[S3]
•General purpose jumper on GPIO PE4 [JG15]
•General purpose jumper on GPIO PE7 [JG16]
2.1 56F8346
The 56F8346EVM uses a Motorola DSP56F836FV60 part, designated as U1 on the board
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cale Semiconductor,
and in the schematics. This part will operate at a maximum external bus speed of 60MHz.
A full description of the 56F8346, including functionality and user information, is
provided in these documents:
•56F8346 Technical Data Sheet, (56F8346/D): Electrical and timing specifications,
pin descriptions, device specific peripheral information and package descriptions
(this document)
•56F8300 Peripheral User Manual, (MC56F8300UM/AD): Detailed description of
peripherals of the 56F8300 family of devices
•DSP56800E Reference Manual, (DSP56800ERM/D): Detailed description of the
56800E family architecture, 16-bit core processor, and the instruction set
Refer to these documents for detailed information about chip functionality and operation.
They can be found on this URL:
www.motorola.com/semiconductors
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MOTOROLATechnical Summary2-3
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2.2 Program and Data Memory
The 56F8346EVM contains two 128Kx16-bit Fast Static RAM banks. SRAM bank 0 is
controlled by CS0 and SRAM bank 1 is controlled by CS1 and CS2. This provides a total
of 256Kx16-bit of external memory.
2.2.1 SRAM Bank 0
SRAM bank 0, which is controlled by CS0, uses a 128K×16-bit Fast Static RAM (GSI
GS72116, labeled U2) for external memory expansion; see the FSRAM schematic
diagram in Figure 2-1. CS0 can be configured to use this memory bank as 16-bit program
memory, data memory, or both. Additionally, CS0 can be configured to assign this
memory’s size and starting address to any modulo address space.
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This memory bank will operate with zero wait state access while the 56F8346 is running at
60MHz and can be disabled by removing the jumper at JG5.
56F8346
A0-A16
D0-D15
RD
WR
PS/CS0
+3.3V
Jumper Pin 1-2:
Enable SRAM
Jumper Removed:
Disable SRAM
JG5
1
2
Figure 2-1. Schematic Diagram of the External CS0 Memory Interface
GS72116
A0-A16
DQ0-DQ15
OE
WE
CE
2.2.2 SRAM Bank 1
SRAM bank 1, which is controlled by CS1 and CS2, uses a 128K×16-bit Fast Static RAM
(GSI GS72116, labeled U3) for external memory expansion; see the FSRAM schematic
diagram in Figure 2-2. Using CS1 and CS2, this memory bank can be configured as byte
(8-bit) or word (16-bit) accessable program memory, data memory, or both. Additionally,
CS1 and CS2 can be configured to assign this memory’s size and starting address to any
modulo address space.
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Program and Data Memory
This memory bank will operate with zero wait state access while the 56F8346 is running at
60MHz and can be disabled by removing the jumpers at JG6.
56F8346
A0-A16
D0-D15
RD
WR
DS/CS1
PD0/CS2
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Jumper Pin 1-2:
Enable SRAM Low Byte
Jumper Pin 3-4:
Enable SRAM High Byte
JG6
1
3
2
4
GS72116
A0-A16
DQ0-DQ15
OE
WE
LB
HB
CE
Figure 2-2. Schematic Diagram of the External CS1/CS2 Memory Interface
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2.3 1-Wire 64-Bit ID
A unique ID for each 56F8346EVM board is provided by the use of a 64-bit 1-Wire ID
device, Dallas Semiconductor DS2401P, designated as U6; see Figure 2-3. The device’s
1-Wire interface connects to GPIO Port E 6 (PE6) through a zero ohm resistor. The 64-Bit
ID in the 1-Wire part can be used to uniquely identify the 56F8346EVM board via
software to external devices. Since the SPI #0 port and GPIO Port E are multiplexed on
the 56F8346, the GPIO Port bit 7 must be selected in software and the data bit-banged on
the 1-Wire interface. The 1-Wire ID port can be isolated from the hybrid controller, via the
MISO0 signal, by removing R84.
5.1K
+3.3V
1-Wire 64-Bit ID
1-W DATA
56F8346
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R84
MISO0/PE7
0 ohm
Figure 2-3. 1-Wire 64-Bit ID Block Diagram
cale Semiconductor,
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RS-232 Serial Communications
2.4 RS-232 Serial Communications
The 56F8346EVM provides an RS-232 interface by the use of an RS-232 level converter,
Maxim MAX3245EEAI, designated as U4. Refer to the RS-232 schematic diagram in
Figure 2-4. The RS-232 level converter transitions the SCI UART’s +3.3V signal levels
to RS-232-compatible signal levels and connects to the host’s serial port via connector P2.
Flow control is not provided, but could be implemented using uncommitted GPIO signals.
The SCI0 port signals can be isolated from the RS-232 level converter by removing the
jumpers in JG12, reference Table 2-1. The pinout of connector P2 is listed in Table 2-3.
The RS-232 level converter/transceiver can be disabled by placing a jumper at JG7.
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56F8346
TXD0
RXD0
Jumper Removed:
Enable RS-232
Jumper Pin 1-2:
Disable RS-232
JG12
1
3
2
4
+3.3V
JG7
1
2
Figure 2-4. Schematic Diagram of the RS-232 Interface
.
Table 2-1. SPI0 Jumper Options
RS-232
Level Converter
Interface
T1in
R1out
FORCEOFF
JG12
T1out
R1in
P2
1
6
2
7
3
8
4
9
x
5
Pin #SignalPin #Signal
1TXD02RS-232 TXD
3RXD04RS-232 RXD
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.
Table 2-2. RS-232 Serial Connector Description
P2
Pin #SignalPin #Signal
1Jumper to 6 & 46Jumper to 1 & 4
2TXD7Jumper to 8
3RXD8Jumper to 7
4Jumper to 1 & 69N/C
5GND
2.5 Clock Source
The 56F8346EVM uses an 8.00MHz crystal, Y1, connected to its External Crystal Inputs,
EXTAL and XTAL. To achieve its 120MHz maximum internal operating frequency, the
56F8346 uses its internal PLL to multiply the input frequency by 15. An external
oscillator source can be connected to the hybrid controller by using the oscillator bypass
connectors, JG1 and JG2; see Figure 2-5. If the input frequency is above 8MHz, then the
EXTAL input should be jumpered to ground by adding a jumper between JG1 pins 2 and
3. The input frequency would then be injected on JG2’s pin 2. If the input frequency is
below 4MHz, then the input frequency can be injected on JG1’s pin 2.
EXTERNAL
OSCILLATOR
HEADERS
JG1
1
2
3
8.00MHz
JG2
1
2
56F8346
EXTAL
XTAL
Figure 2-5. Schematic Diagram of the Clock Interface
2.6 Operating Mode
The 56F8346EVM provides three BOOT MODE selection jumpers, EXTBOOT,
EMI_MODE and CLKMODE, to provide boot-up MODE options.
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Operating Mode
2.6.1 EXTBOOT
The 56F8346EVM provides an External/Internal Boot Mode jumper, JG3. This jumper is
used to select the internal or external memory operation of the hybrid controller as it exits
RESET. Refer to the 56F8300 Peripheral User Manual and the 56F8346 Technical Data sheet for a complete description of the chip’s operating modes. Table 2-3 shows the
two External Boot operation modes available on the 56F8346.
Table 2-3. EXTBOOT Operating Mode Selection
Operating ModeJG3Comment
01–2Bootstrap from internal memory (GND)
3No JumperBootstrap from external memory (+3.3V)
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2.6.2 EMI_MODE
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The 56F8346EVM provides an EMI Boot Mode jumper, JG4. This jumper is used to
select the external memory addressing range operating mode of the hybrid controller as it
exits RESET. The user can select between a 64K address space or a 1M address space.
Refer to the 56F8300 Peripheral User Manual and the 56F8346 Technical Data sheet
for a complete description of the chip’s operating modes. Table 2-4 shows the two EMI
operation modes available on the 56F8346.
Table 2-4. EMI Operating Mode Selection
Operating ModeJG4Comment
V11–2A0 - A15 (64K) available for external memory bus (GND)
V2No JumperA0 - A19 (1M) available for external memory bus (+3.3V)
2.6.3 CLKMODE
The 56F8346EVM provides an Clock Boot Mode jumper, JG13. This jumper is used to
select the type of clock source being provided to the hybrid controller as it exits RESET.
The user can select between the use of a crystal or an oscillator as the clock source for the
hybrid controller. Refer to the 56F8300 Peripheral User Manual and the 56F8346 Technical Data sheet for a complete description of the chip’s operating modes. Table 2-5
shows the two CLKMODE operation modes available on the 56F8346.
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Freescale Semiconductor, Inc.
Table 2-5. EMI Operating Mode Selection
Operating ModeJG13Comment
Crystal1–2Enable the external clock drive logic so an external
crystal can be used as the input clock source. (GND)
OscillatorNo JumperDisable the external clock drive logic. Use oscillator
input on XTAL and Ground on EXTAL. (3.3V)
2.7 Debug LEDs
Six on-board Light-Emitting Diodes, (LEDs), are provided to allow real-time debugging
for user programs. These LEDs will allow the programmer to monitor program execution
without having to stop the program during debugging; refer to Figure 2-6. Table 2-6
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describes the control of each LED.
cale Semiconductor,
Frees
Table 2-6. LED Control
Controlled by
User LEDColorSignal
LED1REDPort C Bit-0
LED2YELLOWPort C Bit-1
LED3GREENPort C Bit-2
LED4REDPort C Bit-3
LED5YELLOWPort D Bit-6
LED6GREENPort D Bit-7
Setting PC0, PC1, PC2, PC3, PD6 or PD7 to a Logic One value will turn on the associated
LED.
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Debug Support
56F8346
PC0
PC1
PC2
PC3
PD6
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PD7
INVERTING BUFFER
+3.3V
RED LED
YELLOW LED
GREEN LED
RED LED
YELLOW LED
GREEN LED
Figure 2-6. Schematic Diagram of the Debug LED Interface
2.8 Debug Support
The 56F8346EVM provides an on-board Parallel JTAG Host Target Interface and a JTAG
interface connector for external Target Interface support. Two interface connectors are
provided to support each of these debugging approaches. These two connectors are
designated the JTAG connector and the Host Parallel Interface Connector.
cale Semiconductor,
Frees
MOTOROLATechnical Summary2-11
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2.8.1 JTAG Connector
The JTAG connector on the 56F8346EVM allows the connection of an external Host
Target Interface for downloading programs and working with the 56F8346’s registers.
This connector is used to communicate with an external Host Target Interface which
passes information and data back and forth with a host processor running a debugger
program. Table 2-7 shows the pin-out for this connector.
Table 2-7. JTAG Connector Description
J3
Pin #SignalPin #Signal
1TDI2GND
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cale Semiconductor,
Frees
3TDO4GND
5TCK6GND
7NC8KEY
9RESET
11+3.3V12NC
13DE
10TMS
14TRST
When this connector is used with an external Host Target Interface, the parallel JTAG
interface should be disabled by placing a jumper in jumper block JG9. Reference
The Parallel JTAG Interface Connector, P1, allows the 56F8346 to communicate with a
Parallel Printer Port on a Windows PC; reference Figure 2-7. Using this connector, the
user can download programs and work with the 56F8346’s registers. Table 2-9 shows the
pin-out for this connector. When using the parallel JTAG interface, the jumper at JG9
should be removed, as shown in Table 2-8.
DB-25 Connector
TDI
TDO
P_TRST
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Jumper Removed:
Enable JTAG I/F
Jumper Pin 1-2:
Disable JTAG I/F
TMS
TCK
P_RESET
P_DE
JG9
Figure 2-7. Block Diagram of the Parallel JTAG Interface
Two on-board push-button switches are provided for external interrupt generation, as
cale Semiconductor,
shown in Figure 2-8. S2 allows the user to generate a hardware interrupt for signal line
IRQA
. S3 allows the user to generate a hardware interrupt for signal line IRQB. These two
switches allow the user to generate interrupts for his user-specific programs.
TRST19GND
20GND
Frees
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S2
+3.3V
56F8346
10K
IRQA
0.1µF
+3.3V
Reset
S3
0.1µF
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Figure 2-8. Schematic Diagram of the User Interrupt Interface
10K
IRQB
2.10 Reset
Logic is provided on the 56F8346 to generate an internal Power-On RESET. Additional
reset logic is provided to support the RESET signals from the JTAG connector, the
Parallel JTAG Interface and the user RESET push-button, S1; refer to Figure 2-9.
JTAG_RESET
RESET
PUSHBUTTON
MANUAL RESET
cale Semiconductor,
S1
JTAG_TAP_RESET
RESET
TRST
Frees
Figure 2-9. Schematic Diagram of the RESET Interface
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cale Semiconductor,
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2.11 Power Supply
The main power input to the 56F8346EVM, +12V DC at 1.2A, is through a 2.1mm coax
power jack. This input power is rectified to provide a DC supply input. This allows a user
the option to use a +12V AC power supply. A 1.2Amp power supply is provided with the
56F8346EVM; however, less than 500mA is required by the EVM. The remaining current
is available for custom control applications when connected to the Daughter Card
connectors. The 56F8346EVM provides +5.0V DC regulation for the CAN interface and
additional regulators. The 56F8346EVM provides +3.3V DC voltage regulation for the
hybrid controller, memory, D/A, ADC, parallel JTAG interface and supporting logic; refer
to Figure 2-11. Additional voltage regulation logic provides a low noise +3.0V DC
voltage reference to the hybrid controller’s A/D V
V
voltage can be provided by the +3.3V A supply on the board by removing U15 and
REFH
adding a 10 ohm resistor at R83. A jumper, JG10, and resistor, R2, is provided to allow the
analog and digital grounds to be isolated on the 56F8346EVM board. This allows the
analog ground reference point to be provided on a custom board attached to the
56F8346EVM’s Daughter Card connectors. By removing R2, the AGND reference is
disconnected from the 56F8346EVM’s digital ground. By placing a jumper in JG10, the
AGND is reconnected to the 56F8346EVM’s digital ground. Power applied to the
56F8346EVM is indicated with a Power-ON LED, referenced as LED13. Optionally, the
user can provide the +2.5 DC voltage needed by the hybrid controller’s core on connector
J22 and disable the on-chip CORE voltage regulator by moving the resistor at R97 to R96.
Additonally, four zero ohm resistors or shorting wires must be added at R92, R93, R94
and R95 to allow the external +2.5V DC to pass to the 56F8346.
+12V DC/AC
Input
P3
Bridge
Rectifier
+5.0V
Regulator
Power
Condition
+3.3V
Regulator
. Optionally, the device’s A/D
REFH
+5.0V DC
+3.3V DC
V
56F8346EVM
CAN
56F8346
& PLL
DD_IO
Parts
Power ON
+2.5V DC
Ext In
Regulator
Regulator
J22
1
2
+3.3V
U15
+3.0V
R92-R95
+3.3VA DC
R83
+3.0V A DC
10Ω
56F8346
V
Core
DD
56F8346
ADC
A
56F8346
V
REFH
Figure 2-10. Schematic Diagram of the Power Supply
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Daughter Card Connectors
2.12 Daughter Card Connectors
The EVM board contains two daughter card expansion connectors. One connector, J1,
contains the device’s peripheral port signals. The second connector, J2, contains the
hybrid controller’s external memory bus signals.
The device’s peripheral port signals are connected to the Peripheral Daughter Card
Expansion connector, J1. The Peripheral Daughter Card connector is used to connect a
hybrid controller’s daughter card or a user-specific daughter card to the device’s
peripheral port signals. The Peripheral Port Daughter Card connector is a 100-pin
high-density connector with signals for the IRQs, RESET, SPI, SCI, PWM, ADC and
Quad Timer ports. Table 2-10 shows the Peripheral Daughter Card connector’s
The hybrid controller’s external memory bus signals are connected to the Memory
Daughter Card Expansion connector, J2. Table 2-11 shows the port signal-to-pin
assignments.
2.13 Serial 10-bit 4-channel D/A Converter (Optional)
The 56F8346EVM board contains the provions for a user to provide a serial 10-bit,
4-channel D/A converter connected to the 56F8346’s SPI #0 port. The output pins are
uncommitted and are connected to a 4X2 header, J4, to allow easy user connections. Refer
to Figure 2-11 for the D/A connections and Table 2-12 for the header’s pin out. The
D/A’s output full-scale range value can be set to a value from +0.0V to +2.4V by a
trimpot, R37. If this trimpot is preset to +2.05V, it would provide approximately +2mV
per step. If another device must be used with SPI #0’s MISO signal and with the D/A
converter on the board, the daisy-chain jumper, JG8, can be used to extend or isolate the
serial chain.
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cale Semiconductor,
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56F8436
MOSI0
MISO0
SCLK0
SS0
RSTO
JG8
MAX5251
DIN
DOUT
12
SCLK
CS
CL
D/A 0
D/A 1
D/A 2
D/A 3
V
REF
+3.3V A
D/A Connector
R37
Figure 2-11. Serial 10-bit, 4-Channel D/A Converter
The 56F8346 has two independent groups of dedicated PWM units. Each unit contains six
PWM and three Phase Current sense inputs. One PWM unit has four Fault input lines,
while the other has three Fault input lines. PWM group A’s PWM lines are connected to a
set of six PWM LEDs via inverting buffers. The buffers are used to isolate and drive the
device’s PWM group A’s outputs to the PWM LEDs. The PWM LEDs indicate the status
of PWM group A signals; refer to Figure 2-12. PWM Group A and B signals are routed
out to headers, J10 and J11 respectively, and to the peripheral daughter card connector for
easy use by the end user.
56F8346
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PWMA0
PWMA1
PWMA2
PWMA3
PWMA4
PWMA5
PWMA0
PWMA1
PWMA2
PWMA3
PWMA4
PWMA5
cale Semiconductor,
Frees
LED7
LED8
LED9
LED10
LED11
LED12
LED
Buffer
Yellow LED
Green LED
Yellow LED
Green LED
Yellow LED
Green LED
Figure 2-12. PWM Group A Interface and LEDs
+3.3V
Phase A Top
Phase A Bottom
Phase B Top
Phase B Bottom
Phase C Top
Phase C Bottom
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CAN Interface
2.15 CAN Interface
The 56F8346EVM board contains a CAN physical-layer interface chip that is attached to
the FlexCAN port’s CAN_RX and CAN_TX pins on the 56F8346EVM. The EVM board
uses a Philips high-speed, 1.0Mbps, physical layer interface chip,PCA82C250. Due to the
+5.0V operating voltage of the CAN interface chip, a pull-up to +5.0V is required to level
shift the Transmit Data output line from the 56F8346. The CANH and CANL signals pass
through inductors before attaching to the CAN bus connectors. A primary, J5, and
daisy-chain, J6, CAN connector are provided to allow easy daisy-chaining of CAN
devices. CAN bus termination of 120 ohms can be provided by adding a jumper to JG11.
Refer to Table 2-13 for the CAN connector signals and Figure 2-13 for a connection
diagram.
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cale Semiconductor,
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56F8346
CAN_TX
CAN_RX
+5.0V
1K
CAN Transceiver
TXD
CANH
CANL
RXD
PCA82C250T
120
J5
4
5
3
J6
4
5
3
Figure 2-13. CAN Interface
Table 2-13. CAN Header Description
JG11
1
2
CAN Bus
Connector
Daisy-Chain CAN
Connector
CAN Bus
Terminator
J5 and J6
Pin #SignalPin #Signal
1NC2NC
3CANL4CANH
5GND6NC
7NC8NC
9NC10NC
MOTOROLATechnical Summary2-23
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2.16 Software Feature Jumpers
The 56F8346EVM board contains two software feature jumpers that allow the user to
select “User-Defined” software features. Two GPIO port pins, PE4 and PE7, are pulled
high or low with 10K ohm resistors on JG16 and JG17. Attaching a jumper between pins 1
and 2 will place a high or 1 on the port pin. Attaching a jumper between pins 2 and 3 will
place a low or 0 on the port pin; see Figure 2-14.
56F8346
JG15
1
SCLK0/PE4
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SS0
/PE7
2
JG16
1
2
3
3
Figure 2-14. Software Feature Jumpers
cale Semiconductor,
10K
10K
10K
10K
+3.3V
+3.3V
User Jumper
#0
User Jumper
#1
Frees
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Peripheral Expansi on Conn ector s
2.17 Peripheral Expansion Connectors
The EVM board contains a group of Peripheral Expansion Connectors used to gain access
to the resources of the 56F8346. The following signal groups have Expansion Connectors:
•External Memory Address Bus/General Purpose Port A (bits 0-7)/General Purpose
Port E (bits2&3)/General Purpose Port B (bit 0)
•External Memory Data Bus/General Purpose Port F (bits 0-7)
•External Memory Control/General Purpose Port D (bits 0 and 1)
•Encoder #0/Timer Channel A
•Encoder #1/Serial Peripheral Interface Port #1/Timer Channel B/General Purpose
Port C (bits 0-3)
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cale Semiconductor,
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•Timer Channel C
•Timer Channel D
•A/D Input Port A
•A/D Input Port B
•Serial Communications Port 0/General Purpose Port E (bits 0 and 1)
•Serial Communications Port 1/General Purpose Port D (bits 6 and 7)
•Serial Peripheral Interface Port #0/General Purpose Port E (bits 4-7)
•PWM Port A
•PWM Port B
2.17.1 Address Bus Expansion Connector
The Address bus expansion connector contains the 56F8346’s 17 external memory
address signal lines. Address lines A6 & A7 can also be used as GPIO Port E lines (bits 2
and 3). Address lines A8 - A15, can also be used as GPIO Port A lines (bits 0-7). Address
line A16 is an MPIO signal, which can be configured as A16 or GPIO Port B bit 0. Refer
to Table 2-14 for the Address bus connector information.
Table 2-14. External Memory Address Bus Connector Description
J7
Pin #SignalPin #Signal
1A02A1
MOTOROLATechnical Summary2-25
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Table 2-14. External Memory Address Bus Connector Description
The Data bus expansion connector contains the 56F8346’s 16 external memory data signal
lines. Refer to Table 2-15 for the Data bus connector information. Data lines D7 - D14,
can also be used as GPIO Port F lines (bits 0-7).
Table 2-15. External Memory Address Bus Connector Description
2.17.3 External Memory Control Signal Expansion Connector
The External Memory Control Signal connector contains 56F836’s external memory
control signal lines. CS2 and CS3 are MPIO signals, which can be configured as GPIO
Port D lines (bits 0 & 1). Refer to Table 2-16 for the names of these signals.
Table 2-16. External Memory Control Signal Connector Description
2.17.4 Encoder #0 / Quad Timer Channel A Expansion Connector
The Encoder #0 / Quad Timer Channel A port is an MPIO port attached to the Timer A
expansion connector. This port can be configured as a Quadrature Decoder interface port
or as a Quad Timer port. Refer to Table 2-17 for the signals attached to the connector.
The Encoder #1 / SPI #1 port is an MPIO port attached to the SPI #1 expansion connector.
This port can be configured as a Quadrature Decoder interface port, a Serial Peripherial
Interface, Quad Timer port or General Purpose I/O port. Refer to Table 2-18 for the
signals attached to the connector.
The Timer Channel C port is a Quad Timer port attached to the Timer C expansion
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cale Semiconductor,
connector. Refer to Table 2-19 for the signals attached to the connector.
Table 2-19. Timer Channel C Connector Description
J19
Pin #SignalPin #Signal
1TC02NC
3GND4+3.3V
2.17.7 Timer Channel D Expans ion Connector
The Timer Channel D port is a Quad Timer attached to the Timer D expansion connector.
Refer to Table 2-20 for the signals attached to the connector.
Frees
Table 2-20. Timer Channel D Connector Description
J20
Pin #SignalPin #Signal
1TD02TD1
3GND4+3.3V
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Peripheral Expansi on Conn ector s
2.17.8 A/D Port A Expansion Connector
The 8-channel Analog to Digital conversion port A is attached to this connector. Refer to
Table 2-21 for connection information. There is an RC network on each of the Analog
Port A input signals; referenceFigure 2-15.
Table 2-21. A/D Port A Connector Description
J12
Pin #SignalPi n #Signal
1AN02AN1
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cale Semiconductor,
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3AN24AN3
5AN46AN5
7AN68AN7
9GNDA10+VREFH
100 ohm
Analog Input
To Device’s Analog Port
0.0022uF
Figure 2-15. Typical Analog Input RC Filter
MOTOROLATechnical Summary2-29
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2.17.9 A/D Port B Expansion Connector
The 8-channel Analog-to-Digital conversion port B is attached to this connector. Refer to
Table 2-22 for connection information. There is an RC network on each of the Analog
Port A input signals; see Figure 2-15.
Table 2-22. A/D Port B Connector Description
J13
Pin #SignalPin #Signal
1AN82AN9
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3AN104AN11
5AN126AN13
7AN148AN15
9GNDA10+VREFH
2.17.10 Serial Communications Port #0 Expansion Connector
The Serial Communications Port #0 is an MPIO port attached to the SCI #0 expansion
connector. This port can be configured as a Serial Communications Interface or as a
General Purpose I/O port. Refer to Table 2-23 for connection information.
Table 2-23. SCI #0 Connector Description
J16
Pin #SignalPin #Signal
1TXD0/PE02RXD0/PE1
3GND4+3.3V
5GND6+5.0V
2.17.11 Serial Communications Port #1 Expansion Connector
The Serial Communications Port #1 is an MPIO port attached to the SCI #1 expansion
connector. This port can be configured as a Serial Communications Interface or as a
General Purpose I/O port. Refer to Table 2-24 for connection information.
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Peripheral Expansi on Conn ector s
Table 2-24. SCI #1 Connector Description
J17
Pin #SignalPin #Signal
1TXD1/PD62RXD1/PD7
3GND4+3.3V
5GND6+5.0V
2.17.12 Serial Peripheral Interface #0 Expansion Connector
The Serial Peripheral Interface #0 is an MPIO port attached to this connector. This port
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can be configured as a Serial Peripheral Interface or as a General Purpose I/O port. Refer
to Table 2-25 for the connection information.
cale Semiconductor,
Frees
Table 2-25. SPI #0 Connector Description
J14
Pin #SignalPin #Signal
1MOSI0/PE52MISO0/PE6
3SCLK0/PE44SS0
5GND6+3.3V
/PE7
2.17.13 FlexCAN Expansion Connector
The FlexCAN port is attached to this connector. Refer to Table 2-26 for connection
information.
Table 2-26. CAN Connector Description
J21
Pin #SignalPin #Signal
1CAN_TX2 GND
3CAN_RX4 GND
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2.17.14 PWM Port A Expansion Connector
The PWM port A is attached to this connector. Refer to Table 2-27 for connection
information.
Table 2-27. PWM Port A Connector Description
J10
Pin #SignalPin #Signal
1PWMA02PWMA1
3PWMA24PWMA3
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5PWMA46PWMA5
7FAULTA08FAULTA1
9FAULTA210NC
11ISA012ISA1
13ISA214GND
2.17.15 PWM Port B Expansion Connector
The PWM port B is attached to this connector. Refer to Table 2-28 for connection
information.
Table 2-28. PWM Port B Connector Description
J11
Pin #SignalPin #Signal
1PWMB02PWMB1
3PWMB24PWMB3
5PWMB46PWMB5
7FAULTB08FAULTB1
9FAULTB210FAULTB3
11ISB012ISB1
13ISB214GND
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Test Points
2.18 Test Points
The 56F8346EVM board has a total of seven test points:
1.2 Amp power supply 2-16
1-Wire Serial 64- Bit Unique ID 2-1
4-Channe l 10-bit Serial D/A 2-1
56F8300 Peripheral User Manual 2-3
56F8346 Technical Data 2-3
8.00MHz crystal oscillator 2-1
A
A/D viii
ADC viii
Analog-to-Digital
A/D viii
Analog-to-Digital Converter
ADC viii
C
CAN viii
bus termination 2-2
bypass 2-2
interface 2-1
CAN in Auto mation
CiA viii
CAN physical layer peripheral 2-2
CiA viii
Connector
Address bus 2-25
Data bus 2-26
Controller Area Network
CAN viii
D
D/A viii
D/A converter 2-21
Daughter Card Expansion
interface 2-1
Debugging 2-10
Digital Signal Processor or Digital Signal Processing
DSP viii
Digital-to-Analog
D/A viii
DSP viii
DSP56800E Reference Manual 2-3
E
Enhanced On-Chip Emulation
EOnCE ix
EOnce ix
Evaluation Module
EVM ix
EVM ix
External Memory Control Signal 2-27
External oscillator frequency input 2-1
PWM ix
PWM ix
PWMA-compatible peripheral 2-2
PWMB-compatible peripheral 2-2
R
R/C ix
RAM ix
Random Access Memory
RAM ix
Read-Only Memory
ROM ix
real-time debugging 2-10
Resistor/Capacitor Network
R/C ix
ROM ix
RS-232 2-1
level converter 2-7
schematic diagram 2-7
S
SCI ix
SCI/MPIO-compatible peripher al 2-2
Serial Communications Interface
SCI ix
Serial Peripheral Interface
SPI ix
SPI ix
SPI/MPIO-compatible peripheral 2-2
SRAM ix
external data 2-1
external program 2-1
Static Random Access Memory
SRAM ix
T
Timer-compatible peripheral 2-2
U
UART ix
Universal Asynchronous Receiver/Transmitter
UART ix
W
Wait State
WS ix
WS ix
Q
QuadDec ix
Quadrature Decoder
interface port 2-27
QuadDec ix
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3-20-1, Minami-Azabu Minato-ku, Tokyo 106-8573 Japan
81-3-3440-3569
ASIA/PACIFIC:
Motorola Semiconductors H.K. Ltd.;
Silicon Harbour Centre, 2 Dai King Street,
Tai Po Industrial Estate, Tai Po, N.T., Hong Kong
852-26668334
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TECHNICAL INFORMATION CENTER:
1-800-521-6274
HOME PAGE:
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cale Semiconductor,
Information in this document is provided solely to enable system and software
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Motorola reserves the right to make changes without further notice to any products
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and its officers, employees, subsidiaries, affiliates, and distributors harmless
against all claims, costs, damages, and expenses, and reasonable attorney fees
arising out of, directly or indirectly, any claim of personal injury or death associated
with such unintended or unauthorized use, even if such claim alleges that Motorola
was negligent regarding the design or manufacture of the part.
Frees
Motorola and the Stylized M Logo are registered in the U.S. Patent and Trademark
Office. digital dna is a trademark of Motorola, Inc. This product incorporates
SuperFlash® technology licensed from SST. All other product or service names are
the property of their respective owners. Motorola, Inc. is an Equal
Opportunity/Affirmative Action Employer.