1
Features
Utilizes the ARM7TDMI ARM® Thumb® Processor Core
High-performance 32-bit RISC Architecture
High-density 16-bit Instruction Set
Leader in MIPS/Watt
Embedded ICE (In-Circuit Emulation)
2K Bytes Internal RAM
Fully Programmable External Bus Interface (EBI)
Maximum External Address Space of 64M Bytes
Up to 8 Chip Selects
Software Programmable 8/16-bit External Data Bus
Multi-processor Interface (MPI)
High-performance External Processor Interface
512 x 16-bit Dual-port RAM
8-channel Peripheral Data Controller
8-level Priority, Individually Maskable, Vectored Interrupt Controller
5 External Interrupts, Including a High-priority, Low-latency Interrupt Request
58 Programmable I/O Lines
6-channel 16-bit Timer/Counter
6 External Clock Inputs
2 Multi-purpose I/O Pins per Channel
3 USARTs
2 Dedicated Peripheral Data Controller (PDC) Channels per USART
Support for up to 9-bit Data Transfers
Master/Slave SPI Interface
2 Dedicated Peripheral Data Controller (PDC) Channels
8- to 16-bit Programmable Data Length
4 External Slave Chip Selects
Programmable Watchdog Timer
Power Management Controller (PMC)
CPU and Peripherals Can be Deactivated Individually
IEEE 1149.1 JTAG Boundary Scan on All Active Pins
Fully Static Operation: 0 Hz to 25 MHz (12 MHz @ 1.8V)
1.8V to 3.6V Core Operating Voltage Range
2.7V to 5.5V I/O Operating Voltage Range
-40°C to +85°C Operating Temperature Range
Available in a 176-lead TQFP Package
Description
The AT91M63200 is a member of the Atmel AT91 16/32-bit microcontroller family
which is based on the ARM7TDMI processor core.
This processor has a high-performance 32-bit RISC architecture with a high-density
16-bit instruction set and very low power consumption. In addition, a large number of
internally banked registers result in very fast exception handling, making the device
ideal for real-time control applications. The AT91 ARM-based MCU family also fea-
tures Atmels high-density, in-system programmable, nonvolatile memory technology.
The AT91M63200 has a direct connection to off-chip memory, including Flash,
through the External Bus Interface.
The Multi-processor Interface (MPI) provides a high-performance interface with an
external coprocessor or a high bandwidth peripheral.
The AT91M63200 is manufactured using the Atmel high-density CMOS technology.
By combining the ARM7TDMI microcontroller core with on-chip SRAM, a multi-pro-
cessor interface and a wide range of peripheral functions on a monolithic chip, the
AT91M63200 provides a highly flexible and cost-effective solution to many compute-
intensive multi-processor applications.
AT91
ARM® Thumb®
Microcontrollers
AT91M63200
Summary
Rev. 1028CS01/00
AT91M63200
2
Pin Configuration
Table 1. AT91M63200 Pinout
Pin AT91M63200 Pin AT91M63200 Pin AT91M63200 Pin AT91M63200
1 GND 45 GND 89 GND 133 GND
2 GND 46 GND 90 GND 134 GND
3 NCS0 47 D8 91 PA19 / RXD1 135 MPI_D12
4 NCS1 48 D9 92 PA20 / SCK2 136 MPI_D13
5 NCS2 49 D10 93 PA21 / TXD2 137 MPI_D14
6 NCS3 50 D11 94 PA22 / RXD2 138 MPI_D15
7 NLB/A0 51 D12 95 PA23 / SPCK 139 PB0/MPI_NOE
8 A1 52 D13 96 PA24/MISO 140 PB1/MPI_NLB
9 A2 53 D14 97 PA25/MOSI 141 PB2/MPI_NUB
10 A3 54 D15 98 PA26/NPCS0/NSS 142 PB3
11 A4 55 PB19/TCLK0 99 PA27/NPCS1 143 PB4
12 A5 56 PB20/TIOA0 100 PA28/NPCS2 144 PB5
13 A6 57 PB21/TIOB0 101 PA29/NPCS3 145 PB6
14 A7 58 PB22/TCLK1 102 MPI_A1 146 PB7
15 VDDIO 59 VDDIO 103 VDDIO 147 VDDIO
16 GND 60 GND 104 GND 148 GND
17 A8 61 PB23/TIOA1 105 MPI_A2 149 PB8
18 A9 62 PB24/TIOB1 106 MPI_A3 150 PB9
19 A10 63 PB25/TCLK2 107 MPI_A4 151 PB10
20 A11 64 PB26/TIOA2 108 MPI_A5 152 PB11
21 A12 65 PB27/TIOB2 109 MPI_A6 153 PB12
22 A13 66 PA0/TCLK3 110 MPI_A7 154 PB13
23 A14 67 PA1/TIOA3 111 MPI_A8 155 PB14
24 A15 68 PA2/TIOB3 112 MPI_A9 156 PB15
25 A16 69 PA3/TCLK4 113 MPI_NCS 157 PB16
26 A17 70 PA4/TIOA4 114 MPI_RNW 158 PB17/MCKO
27 A18 71 PA5/TIOB4 115 MPI_BR 159 NWDOVF
28 A19 72 PA6/TCLK5 116 MPI_BG 160 MCKI
29 VDDIO 73 VDDIO 117 VDDIO 161 VDDIO
30 GND 74 GND 118 GND 162 GND
31 A20/CS7 75 PA7/TIOA5 119 MPI_D0 163 PB18/BMS
32 A21/CS6 76 PA8/TIOB5 120 MPI_D1 164 JTAGSEL
33 A22/CS5 77 PA9/IRQ0 121 MPI_D2 165 TMS
34 A23/CS4 78 PA10/IRQ1 122 MPI_D3 166 TDI
35 D0 79 PA11/IRQ2 123 MPI_D4 167 TDO
36 D1 80 PA12/IRQ3 124 MPI_D5 168 TCK
37 D2 81 PA13/FIQ 125 MPI_D6 169 NTRST
38 D3 82 PA14/SCK0 126 MPI_D7 170 NRST
39 D4 83 PA15/TXD0 127 MPI_D8 171 NWAIT
40 D5 84 PA16/RXD0 128 MPI_D9 172 NOE/NRD
41 D6 85 PA17/SCK1 129 MPI_D10 173 NWE/NWR0
42 D7 86 PA18/TXD1/NTRI 130 MPI_D11 174 NUB/NWR1
43 VDDCORE 87 VDDCORE 131 VDDCORE 175 VDDCORE
44 VDDIO 88 VDDIO 132 VDDIO 176 VDDIO
AT91M63200
3
Pin Description
Table 2. AT91M63200 Pin Description
Module Name Function Type
Active
Level Comments
EBI
A0 - A23 Address Bus Output All valid after reset
D0 - D15 Data Bus I/O
CS4 - CS7 Chip Select Output High A23 - A20 after reset
NCS0 - NCS3 Chip Select Output Low
NWR0 Lower Byte 0 Write Signal Output Low Used in Byte Write option
NWR1 Lower Byte 1 Write Signal Output Low Used in Byte Write option
NRD Read Signal Output Low Used in Byte Write option
NWE Write Enable Output Low Used in Byte Select option
NOE Output Enable Output Low Used in Byte Select option
NUB Upper Byte Select (16-bit SRAM) Output Low Used in Byte Select option
NLB Lower Byte Select (16-bit SRAM) Output Low Used in Byte Select option
NWAIT Wait Input Input Low
BMS Boot Mode Select Input Sampled during reset
MPI
MPI_NCS Chip Select Input Low
MPI_RNW Read Not Write Signal Input
MPI_BR Bus Request From External
Processor Input High
MPI_BG Bus Grant To External Processor Output High
MPI_NOE Output Enable Input Low
MPI_NLB Lower Byte Select Input Low
MPI_NUB Upper Byte Select Input Low
MPI_A1 - MPI_A9 Address Bus Input
MPI_D0 - MPI_D15 Data Bus I/O
AIC IRQ0 - IRQ3 External Interrupt Request Input PIO controlled after reset
FIQ Fast External Interrupt Request Input PIO controlled after reset
Timer
TCLK0 - TCLK5 Timer External Clock Input PIO controlled after reset
TIOA0 - TIOA5 Multipurpose Timer I/O Pin A I/O PIO controlled after reset
TIOB0 - TIOB5 Multipurpose Timer I/O Pin B I/O PIO controlled after reset
USART
SCK0 - SCK2 External Serial Clock I/O PIO controlled after reset
TXD0 - TXD2 Transmit Data Output Output PIO controlled after reset
RXD0 - RXD2 Receive Data Input Input PIO controlled after reset
SPI
SPCK SPI Clock I/O PIO controlled after reset
MISO Master In Slave Out I/O PIO controlled after reset
MOSI Master Out Slave In I/O PIO controlled after reset
NSS Slave Select Input Low PIO controlled after reset
NPCS0 - NPCS3 Peripheral Chip Select Output Low PIO controlled after reset
PIO PA0 - PA29 Programmable I/O Port A I/O Input after reset
PB0 - PB27 Programmable I/O Port B I/O Input after reset
WD NWDOVF Watchdog Timer Overflow Output Low Open drain
Clock MCKI Master Clock Input Input Schmitt trigger
MCKO Master Clock Output Output
Reset NRST Hardware Reset Input Input Low Schmitt trigger, internal pull-up
AT91M63200
4
Figure 1. Pin Configuration (Top View)
JTAG/ICE
JTAGSEL Selects between JTAG and ICE Mode Input High enables IEEE 1149.1 JTAG
boundary scan.
Low enables ARM Standard ICE
debug.
TMS Test Mode Select Input Schmitt trigger, internal pull-up
TDI Test Data In Input Schmitt trigger, internal pull-up
TDO Test Data Out Output
TCK Test Clock Input Schmitt trigger, internal pull-up
NTRST Test Reset Input Input Low Schmitt trigger, internal pull-up
Power
VDDIO I/O Power Power 3V or 5V nominal supply
VDDCORE Core Power Power 2.0V or 3V nominal supply
GND Ground Ground
Emulation NTRI Tristate Mode Enable Input Low Sampled during reset
Table 2. AT91M63200 Pin Description (Continued)
Module Name Function Type
Active
Level Comments
1
44
176 133
132
89
45 88
AT91M63X00
176-Lead TQFP
AT91M63200
5
Block Diagram
Figure 2. AT91M63200
ARM7TDMI Core
Embedded
ICE
Reset
EBI: External
Bus Interface
Internal RAM
2/8K Bytes
ASB
Controller
AIC: Advanced
Interrupt Controller
AMBA Bridge
TC: Timer
Counter
Block 0
TC0
TC1
TC2
USART0
USART1 2 PDC
Channels
2 PDC
Channels
PMC: Power
Management
Controller
APB
ASB
P
I
O
P
I
O
NRST
D0-D15
A1-A19
A0/NLB
NRD/NOE
NWR0/NWE
NWR1/NUB
NWAIT
NCS0-NCS3
MPI_A1-MPI_A9
MPI_D0-MPI_D15
MPI_NCS
MPI_RNW
MPI_BR
MPI_BG
PB19/TCLK0
PB22/TCLK1
PB25/TCLK2
PB20/TIOA0
PB21/TIOB0
PB23/TIOA1
PB24/TIOB1
PB26/TIOA2
PB27/TIOB2
MCKI
PB17/MCKO
PA10/IRQ1
PA11/IRQ2
PA12/IRQ3
PA13/FIQ
PA14/SCK0
PA15/TXD0
PA16/RXD0
PA17/SCK1
PA18/TXD1/NTRI
PA19/RXD1
PB11
PB12
PB13
PB14
PB15
PB16
TMS
TDO
TDI
TCK
NTRST
USART2 2 PDC
Channels
PA20/SCK2
PA21/TXD2
PA22/RXD2
SPI: Serial
Peripheral
Interface
WD: Watchdog
Timer
NWDOVF
TC: Timer
Counter
Block 1
TC0
TC1
TC2
PA0/TCLK3
PA3/TCLK4
PA6/TCLK5
PA1/TIOA3
PA2/TIOB3
PA4/TIOA4
PA5/TIOB4
PA7/TIOA5
PA8/TIOB5
PB10
PB4
PB5
PB6
PB7
PB8
PB9
PB3
MPI: Multi-
Processor
Interface
PB0/MPI_NOE
PB1/MPI_NLB
PB2/MPI_NUB
P
I
O
Clock
PA9/IRQ0
PA24/MISO
PA25/MOSI
PA26/NPCS0/NSS
PA27/NPCS1
PA23/SPCK
PA28/NPCS2
PA29/NPCS3
A20/CS7
A21/CS6
A22/CS5
A23/CS4
PB18/BMS
Chip ID
PIOA: Parallel I/O
Controller A
PIOB: Parallel I/O
Controller B
EBI User
Interface
2 PDC
Channels
JTAG
AT91M63200
6
Architectural Overview
The AT91M63200 architecture consists of two main buses,
the Advanced System Bus (ASB) and the Advanced
Peripheral Bus (APB). The ASB is designed for maximum
performance. It interfaces the processor with the on-chip
32-bit memories and the external memories and devices by
means of the External Bus Interface (EBI). The APB is
designed for accesses to on-chip peripherals and is opti-
mized for low power consumption. The AMBA Bridge pro-
vides an interface between the ASB and the APB.
An on-chip Peripheral Data Controller (PDC) transfers data
between the on-chip USARTs/SPI and the on- and off-chip
memories without processor intervention. Most importantly,
the PDC removes the processor interrupt handling over-
head and significantly reduces the number of clock cycles
required for a data transfer. It can transfer up to 64K contig-
uous bytes without reprogramming the starting address. As
a result, the performance of the microcontroller is
increased and the power consumption reduced.
The AT91M63200 peripherals are designed to be easily
programmable with a minimum number of instructions.
Each peripheral has a 16K byte address space allocated in
the upper 3M bytes of the 4G byte address space. Except
for the interrupt controller, the peripheral base address is
the lowest address of its memory space. The peripheral
register set is composed of control, mode, data, status and
interrupt registers.
To maximize the efficiency of bit manipulation, frequently
written registers are mapped into three memory locations.
The first address is used to set the individual register bits,
the second resets the bits and the third address reads the
value stored in the register. A bit can be set or reset by writ-
ing a one to the corresponding position at the appropriate
address. Writing a zero has no effect. Individual bits can
thus be modified without having to use costly read-modify-
write and complex bit manipulation instructions.
All of the external signals of the on-chip peripherals are
under the control of the parallel I/O controller. The PIO con-
troller can be programmed to insert an input filter on each
pin or generate an interrupt on a signal change. After reset,
the user must carefully program the PIO Controller in order
to define which peripheral signals are connected with off-
chip logic.
The ARM7TDMI processor operates in little-endian mode
in the AT91M63200 microcontroller. The processors inter-
nal architecture and the ARM and Thumb instruction sets
are described in the ARM7TDMI datasheet. The memory
map and the on-chip peripherals are described in detail in
the datasheet entitled AT91M63200 Datasheet (Literature
No. 1028). Electrical and mechanical characteristics are
documented in a datasheet entitled AT91M63200 Electri-
cal and Mechanical Characteristics (Literature No. 1090).
The ARM Standard In-Circuit-Emulation debug interface is
supported via the ICE port of the AT91M63200 via the
JTAG/ICE port when JTAGSEL is low. IEEE JTAG bound-
ary scan is supported via the JTAG/ICE port when JTAG-
SEL is high.
PDC: Peripheral Data Controller
The AT91M63200 has an 8-channel PDC dedicated to the
three on-chip USARTs and to the SPI. One PDC channel is
connected to the receiving channel and one to the transmit-
ting channel of each peripheral.
The user interface of a PDC channel is integrated in the
memory space of each USART channel and in the memory
space of the SPI. It contains a 32-bit address pointer regis-
ter and a 16-bit count register. When the programmed data
is transferred, an end-of-transfer interrupt is generated by
the corresponding peripheral. See the USART section and
the SPI section for more details on PDC operation and pro-
gramming.
Power Supplies
The AT91M63200 has two kinds of power supply pins:
VDDCORE pins, which power the chip core
VDDIO pins, which power the I/O lines
This allows core power consumption to be reduced by sup-
plying it with a lower voltage than the I/O lines. The
VDDCORE pins must never be powered at a voltage
greater than the supply voltage applied to the VDDIO pins.
Typical supported voltage combinations are shown in the
following table:
Pins Typical Supply Voltages
VDDCORE 3.0V or 3.3V 3.0V or 3.3V 2.0V
VDDIO 5.0V 3.0V or 3.3V 3.0V or 3.3V
AT91M63200
7
EBI: External Bus Interface
The EBI generates the signals that control the access to
the external memory or peripheral devices. The EBI is fully
programmable and can address up to 64M bytes. It has
eight chip selects and a 24-bit address bus, the upper four
bits of which are multiplexed with a chip select.
The 16-bit data bus can be configured to interface with 8-
or 16-bit external devices. Separate read and write control
signals allow for direct memory and peripheral interfacing.
The EBI supports different access protocols, allowing sin-
gle clock cycle memory accesses.
The main features are:
External memory mapping
Up to 8 chip select lines
8- or 16-bit data bus
Byte write or byte select lines
Remap of boot memory
Two different read protocols
Programmable wait state generation
External wait request
Programmable data float time
MPI: Multi-Processor Interface
The AT91M63200 features a second bus interface that is
dedicated to parallel data exchange with an external pro-
cessing device. The MPI features a 1K byte dual-port RAM
memory and memory access arbitration logic. The ARM
processor core and the external processor can both read
and write to the dual-port RAM memory.
AIC: Advanced Interrupt Controller
The AT91M63200 has an 8-level priority, individually
maskable, vectored interrupt controller. This feature sub-
stantially reduces the software and real-time overhead in
handling internal and external interrupts.
The interrupt controller is connected to the NFIQ (fast inter-
rupt request) and the NIRQ (standard interrupt request)
inputs of the ARM7TDMI processor. The processors NFIQ
line can only be asserted by the external fast interrupt
request input: FIQ. The NIRQ line can be asserted by the
interrupts generated by the on-chip peripherals and the
external interrupt request lines: IRQ0 to IRQ3.
An 8-level priority encoder allows the customer to define
the priority between the different NIRQ interrupt sources.
Internal sources are programmed to be level sensitive or
edge triggered. External sources can be programmed to be
positive or negative edge triggered or high- or low-level
sensitive.
PIO: Parallel I/O Controller
The AT91M63200 features 58 programmable I/O lines. 14
pins on the AT91M63200 are dedicated as general pur-
pose I/O pins. Other I/O lines are multiplexed with on-chip
peripheral I/O signals in order to optimize the use of avail-
able package pins. The I/O lines are controlled by two sep-
arate and identical PIO controllers (PIOA and PIOB). Each
PIO controller also provides an internal interrupt signal to
the Advanced Interrupt Controller (AIC).
USART: Universal
Synchronous/Asynchronous
Receiver/Transmitter
The AT91M63200 provides three identical, full-duplex, uni-
versal synchronous/asynchronous receiver/transmitters
that interface to the APB and are connected to the Periph-
eral Data Controller.
The main features are:
Programmable baud rate generator
Parity, framing and overrun error detection
Line break generation and detection
Automatic echo, local loopback and remote loopback
channel modes
Multi-drop mode: address detection and generation
Interrupt generation
Two dedicated peripheral data controller channels
5-, 6-, 7-, 8- and 9-bit character length
SPI: Serial Peripheral Interface
The AT91M63200 features an SPI, which provides commu-
nication with external devices in master or slave mode.
The SPI has four external chip selects that can be con-
nected to up to 15 devices. The data length is programma-
ble, from 8- to 16-bit.
As for the USART, a 2-channel PDC is used to move data
directly between memory and the SPI without CPU inter-
vention for maximum real-time processing throughput.
AT91M63200
8
TC: Timer/Counter
The AT91M63200 features two identical Timer/Counter
blocks, each containing three identical 16-bit timer counter
channels. Each channel can be independently
programmed to perform a wide range of functions,
including frequency measurement, event counting, interval
measurement, pulse generation, delay timing and pulse
width modulation.
Each Timer/Counter channel has 3 external clock inputs, 5
internal clock inputs, and 2 multi-purpose input/output sig-
nals that can be configured by the user. Each channel
drives an internal interrupt signal that can be programmed
to generate processor interrupts via the Advanced Interrupt
Controller (AIC).
Each Timer Counter block features two global registers that
act upon all three TC channels. The Block Control Register
allows the three channels to be started simultaneously with
the same instruction. The Block Mode Register defines the
external clock inputs for each Timer/Counter channel,
allowing them to be chained.
WD: Watchdog Timer
The AT91M63200 features an internal watchdog timer,
which can be used to guard against system lock-up if the
software becomes trapped in a deadlock.
PMC: Power Management Controller
The Power Management Controller allows optimization of
power consumption. The PMC enables/disables the clock
inputs to most of the peripherals as well as to the ARM pro-
cessor core.
When the ARM core clock is disabled, the current instruc-
tion is processed before the clock is stopped. The clock
can be re-enabled by any enabled interrupt or by a hard-
ware reset.
When a peripheral clock is disabled, the clock is immedi-
ately stopped. When the clock is re-enabled, the peripheral
resumes action where it left off.
Due to the static nature of the design, the contents of the
on-chip RAM and registers for which the clocks are dis-
abled remain unchanged.
SF: Special Function
The AT91M63200 provides registers that implement the
following special functions:
Chip identification
RESET status
AT91M63200
9
Ordering Information
Max Speed
(MHz)
Operating
Power Supply Range Ordering Code
RAM
(Bytes) Package
Operating
Temperature Range
25 2.7V to 3.6V (Core)
2.7V to 5.5V (I/Os)
AT91M63200-25AC 2K TQFP 176 Commercial
(0°C to 70°C)
AT91M63200-25AI Industrial
(-40°C to 85°C)
12 1.8V to 3.6V (Core)
2.7V to 3.6V (I/Os)
AT91M63200-12AC-1.8 Commercial
(0°C to 70°C)
AT91M63200-12AI-1.8 Industrial
(-40°C to 85°C)
AT91M63200
10
Package Outline TQFP 176
Table 3. Common Dimensions (mm)
Symbol Min Nom Max
c0.09 0.2
c1 0.09 0.16
L 0.45 0.6 0.75
L1 1.00 REF
R2 0.08 0.2
R1 0.08
S0.2
θ0°3.5°7°
θ10°
θ211°12°13°
θ311°12°13°
A1.6
A1 0.05 0.15
A2 1.35 1.4 1.45
Tolerances of form and position
aaa 0.2
bbb 0.2
Table 4. Lead Count Dimensions
Pin
Count Version D/E
BSC
D1/E1
BSC
bb1
e
BSC ccc ddd
Min Nom Max Min Nom Max
176 A 26.0 24.0 0.17 0.22 0.27 0.17 0.2 0.23 0.50 0.10 0.08
AT91M63200
11
Figure 3. 176-lead TQFP Package
PIN 1
DDD
EEE
FF
GGG
θ2
θ3
6
/
5 5 
θ
FFF
θ1
© Atmel Corporation 2000.
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1028CS01/00/5M