Texas instruments TMS320DM6467T Data Manual

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TMS320DM6467T

Digital Media System-on-Chip

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1 Digital Media System-on-Chip (DMSoC)

1.1 Features

• High-Performance Digital Media SoC – 1-GHz C64x+™ Clock Rate – 500-MHz ARM926EJ-S™ Clock Rate – Eight 32-Bit C64x+ Instructions/Cycle – 8000 C64x+ MIPS – Fully Software-Compatible With C64x /

ARM9™

– Industrial Temperature Devices Available

• Advanced Very-Long-Instruction-Word (VLIW) TMS320C64x+™ DSP Core

– Eight Highly Independent Functional Units

• Six ALUs (32-/40-Bit), Each Supports Single 32-Bit, Dual 16-Bit, or Quad 8-Bit Arithmetic per Clock Cycle

• Two Multipliers Support Four 16 x 16-Bit Multiplies (32-Bit Results) per Clock • Embedded Trace Buffer™ (ETB11™) With 4KB Cycle or Eight 8 x 8-Bit Multiplies (16-Bit Memory for ARM9 Debug Results) per Clock Cycle

– Load-Store Architecture With Non-Aligned

Support – 64 32-Bit General-Purpose Registers – Instruction Packing Reduces Code Size Transcode Operations – All Instructions Conditional • H.264, MPEG2, VC1, MPEG4 SP/ASP – Additional C64x+™ Enhancements • 150-MHz Video Port Interface (VPIF)

• Protected Mode Operation – Two 8-Bit SD (BT.656), Single 16-Bit HD

• Exceptions Support for Error Detection and Program Redirection

• Hardware Support for Modulo Loop Operation

• C64x+ Instruction Set Features – Byte-Addressable (8-/16-/32-/64-Bit Data) – 8-Bit Overflow Protection – Bit-Field Extract, Set, Clear – Normalization, Saturation, Bit-Counting – Compact 16-Bit Instructions – Additional Instructions to Support Complex

Multiplies

• C64x+ L1/L2 Memory Architecture – 32K-Byte L1P Program RAM/Cache (Direct

Mapped)

– 32K-Byte L1D Data RAM/Cache (2-Way

Set-Associative)

Please be aware that an important notice concerning availability, standard warranty, and use in critical applications of Texas Instruments semiconductor products and disclaimers thereto appears at the end of this data sheet.

PRODUCTION DATA information is current as of publication date. Products conform to specifications per the terms of the Texas Instruments standard warranty. Production processing does not necessarily include testingof all parameters.

– 128K-Byte L2 Unified Mapped RAM/Cache

(Flexible RAM/Cache Allocation)

• ARM926EJ-S Core – Support for 32-Bit and 16-Bit (Thumb®

Mode) Instruction Sets

– DSP Instruction Extensions and Single Cycle

MAC – ARM® Jazelle® Technology – EmbeddedICE-RT™ Logic for Real-Time

Debug

• ARM9 Memory Architecture – 16K-Byte Instruction Cache – 8K-Byte Data Cache – 32K-Byte RAM – 8K-Byte ROM

• Endianness: Little Endian for ARM and DSP

• Dual Programmable High-Definition Video Image Co-Processor (HDVICP) Engines

– Supports a Range of Encode, Decode, and

(BT.1120), or Single Raw (8-/10-/12-Bit) Video Capture Channels

– Two 8-Bit SD (BT.656) or Single 16-Bit HD

(BT.1120) Video Display Channels

• Video Data Conversion Engine (VDCE) – Horizontal and Vertical Downscaling – Chroma Conversion (4:2:2↔4:2:0)

• Two Transport Stream Interface (TSIF) Modules (One Parallel/Serial and One Serial Only)

– TSIF for MPEG Transport Stream – Simultaneous Synchronous or

Asynchronous Input/Output Streams – Absolute Time Stamp Detection – PID Filter With 7 PID Filter Tables – Corresponding Clock Reference Generator

(CRGEN) Modules for System Time-Clock

Recovery

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• External Memory Interfaces (EMIFs) – CIR With Programmable Data Encoding – Up to 400-MHz 32-Bit DDR2 SDRAM Memory • One Serial Peripheral Interface (SPI) With Two

Controller With 512M-Byte Address Space Chip-Selects (1.8-V I/O)

– Asynchronous16-Bit Wide EMIF (EMIFA)

With 128M-Byte Address Reach

• Flash Memory Interfaces – NOR (8-/16-Bit-Wide Data) – NAND (8-/16-Bit-Wide Data)

• Enhanced Direct-Memory-Access (EDMA) Controller (64 Independent Channels)

– Programmable Default Burst Size

• 10/100/1000 Mb/s Ethernet MAC (EMAC) – IEEE 802.3 Compliant (3.3-V I/O Only) – Supports MII and GMII Media Independent

Interfaces

– Management Data I/O (MDIO) Module

• USB Port With Integrated 2.0 PHY – USB 2.0 High-/Full-Speed Client – USB 2.0 High-/Full-/Low-Speed Host

(Mini-Host, Supporting One External Device)

• 32-Bit, 66-MHz, 3.3 V Peripheral Component Interconnect (PCI) Master/Slave Interface

– Conforms to PCI Specification 2.3

• Two 64-Bit General-Purpose Timers (Each Configurable as Two 32-Bit Timers)

• One 64-Bit Watch Dog Timer

• Three Configurable UART/IrDA/CIR Modules (One With Modem Control Signals)

– Supports up to 1.8432 Mbps UART – SIR and MIR (0.576 MBAUD)

• Master/Slave Inter-Integrated Circuit (I2C Bus™)

• Two Multichannel Audio Serial Ports (McASPs) – One Four Serializer Transmit/Receive Port – One Single DIT Transmit Port for S/PDIF

• 32-Bit Host Port Interface (HPI)

• VLYNQ™ Interface (FPGA Interface)

• Two Pulse Width Modulator (PWM) Outputs

• ATA/ATAPI I/F (ATA/ATAPI-6 Specification)

• Up to 33 General-Purpose I/O (GPIO) Pins (Multiplexed With Other Device Functions)

• On-Chip ARM ROM Bootloader (RBL)

• Individual Power-Saving Modes for ARM/DSP

• Flexible PLL Clock Generators

• IEEE-1149.1 (JTAG) BoundaryScan-Compatible

• 529-Pin Pb-Free BGA Package (ZUT Suffix), 0.8-mm Ball Pitch

• 0.09-mm/7-Level Cu Metal Process (CMOS)

• 3.3-V and 1.8-V I/O, 1.3-V Internal

• Applications: – Video Encode/Decode/Transcode/Transrate – Digital Media – Networked Media Encode/Decode – Video Imaging – Video Infrastructure – Video Conferencing

• Community Resources – TI E2E Community – TI Embedded Processors Wiki

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1.2 Description

The TMS320DM6467T (also referenced as DM6467T) leverages TI’s DaVinci™ technology to meet the networked media encode and decode application processing needs of next-generation embedded devices.

The DM6467T enables OEMs and ODMs to quickly bring to market devices featuring robust operating systems support, rich user interfaces, high processing performance, and long battery life through the maximum flexibility of a fully integrated mixed processor solution.

The dual-core architecture of the DM6467T provides benefits of both DSP and Reduced Instruction Set Computer (RISC) technologies, incorporating a high-performance TMS320C64x+ DSP core and an ARM926EJ-S core.

The ARM926EJ-S is a 32-bit RISC processor core that performs 32-bit or 16-bit instructions and processes 32-bit, 16-bit, or 8-bit data. The core uses pipelining so that all parts of the processor and memory system can operate continuously.

The ARM core incorporates:

• A coprocessor 15 (CP15) and protection module

• Data and program Memory Management Units (MMUs) with table look-aside buffers.

• Separate 16K-byte instruction and 8K-byte data caches. Both are four-way associative with virtual index virtual tag (VIVT).

The TMS320C64x+™ DSPs are the highest-performance fixed-point DSP generation in the TMS320C6000™ DSP platform. It is based on an enhanced version of the second-generation high-performance, advanced very-long-instruction-word (VLIW) architecture developed by Texas Instruments (TI), making these DSP cores an excellent choice for digital media applications. The C64x is a code-compatible member of the C6000™ DSP platform. The TMS320C64x+ DSP is an enhancement of the C64x+ DSP with added functionality and an expanded instruction set.

SPRS605B–JULY 2009–REVISED JULY 2010

Any reference to the C64x DSP or C64x CPU also applies, unless otherwise noted, to the C64x+ DSP and C64x+ CPU, respectively.

With performance of up to 8000 million instructions per second (MIPS) at a clock rate of 1 GHz, the C64x+ core offers solutions to high-performance DSP programming challenges. The DSP core possesses the operational flexibility of high-speed controllers and the numerical capability of array processors. The C64x+ DSP core processor has 64 general-purpose registers of 32-bit word length and eight highly independent functional units—two multipliers for a 32-bit result and six arithmetic logic units (ALUs). The eight functional units include instructions to accelerate the performance in video and imaging applications. The DSP core can produce four 16-bit multiply-accumulates (MACs) per cycle for a total of 4000 million MACs per second (MMACS), or eight 8-bit MACs per cycle for a total of 8000 MMACS. For more details on the C64x+ DSP, see the TMS320C64x/C64x+ DSP CPU and Instruction Set Reference Guide (literature number SPRU732).

The DM6467T also has application-specific hardware logic, on-chip memory, and additional on-chip peripherals similar to the other C6000 DSP platform devices. The DM6467T core uses a two-level cache-based architecture. The Level 1 program cache (L1P) is a 256K-bit direct mapped cache and the Level 1 data cache (L1D) is a 640K-bit 2-way set-associative cache. The Level 2 memory/cache (L2) consists of an 512K-bit memory space that is shared between program and data space. L2 memory can be configured as mapped memory, cache, or combinations of the two.

The peripheral set includes: a configurable video port; a 10/100/1000 Mb/s Ethernet MAC (EMAC) with a Management Data Input/Output (MDIO) module; a 4-bit transfer/4-bit receive VLYNQ interface; an inter-integrated circuit (I2C) Bus interface; a multichannel audio serial port (McASP0) with 4 serializers; a secondary multichannel audio serial port (McASP1) with a single transmit serializer; 2 64-bit general-purpose timers each configurable as 2 independent 32-bit timers; 1 64-bit watchdog timer; a configurable 32-bit host port interface (HPI); up to 33-pins of general-purpose input/output (GPIO) with

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programmable interrupt/event generation modes, multiplexed with other peripherals; 3 UART/IrDA/CIR interfaces with modem interface signals on UART0; 2 pulse width modulator (PWM) peripherals; an ATA/ATAPI-6 interface; a 66-MHz peripheral component interface (PCI); and 2 external memory interfaces: an asynchronous external memory interface (EMIFA) for slower memories/peripherals, and a higher speed synchronous memory interface for DDR2.

The Ethernet Media Access Controller (EMAC) provides an efficient interface between the DM6467T and the network. The DM6467T EMAC support both 10Base-T and 100Base-TX, or 10 Mbits/second (Mbps) and 100 Mbps in either half- or full-duplex mode; and 1000Base-TX (1 Gbps) in full-duplex mode with hardware flow control and quality of service (QOS) support.

The Management Data Input/Output (MDIO) module continuously polls all 32 MDIO addresses in order to enumerate all PHY devices in the system. Once a PHY candidate has been selected by the ARM, the MDIO module transparently monitors its link state by reading the PHY status register. Link change events are stored in the MDIO module and can optionally interrupt the ARM, allowing the ARM to poll the link status of the device without continuously performing costly MDIO accesses.

The PCI, HPI, I2C, SPI, USB2.0, and VLYNQ ports allow the DM6467T to easily control peripheral devices and/or communicate with host processors.

The DM6467T also includes a High-Definition Video/Imaging Co-processor (HDVICP) and Video Data Conversion Engine (VDCE) to offload many video and imaging processing tasks from the DSP core, making more DSP MIPS available for common video and imaging algorithms. For more information on the HDVICP enhanced codecs, such as H.264 and MPEG4, please contact your nearest TI sales representative.

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The rich peripheral set provides the ability to control external peripheral devices and communicate with external processors. For details on each of the peripherals, see the related sections later in this document and the associated peripheral reference guides.

The DM6467T has a complete set of development tools for both the ARM and DSP. These include C compilers, a DSP assembly optimizer to simplify programming and scheduling, and a Windows™ debugger interface for visibility into source code execution.

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JTAGInterface

SystemControl

PLLs/Clock

Generator

Input

Clock(s)

Power/Sleep

Controller

Multiplexing

ARMSubsystem

ARM926EJ-SCPU

16KB

I-Cache

32KBRAM

8KB

D-Cache

8KBROM

DSP Subsystem

C64x DSP CPU™

32KB

L1Pgm

128KBL2RAM

32KB

L1Data

HighDefinition

Video-Imaging

Coprocessor

(HDVICP0)

SwitchedCentralResource(SCR)

Peripherals

EDMA

I2C SPI

UART

SerialInterfaces

DDR2 MemCtlr (16b/32b)

AsyncEMIF/

NAND/

SmartMedia

ATA

Program/DataStorage

Watchdog

Timer

PWM

System

GeneralPurpose

Timer

USB2.0

PHY

VLYNQ

EMAC

With

MDIO

Connectivity

HPI

McASP

Video

PortI/F

PCI

(66MHz)

TSIF

HighDefinition

Video-Imaging

Coprocessor

(HDVICP1)

CRGEN VDCE

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1.3 Functional Block Diagram

Figure 1-1 shows the functional block diagram of the device.

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Figure 1-1. TMS320DM6467T Functional Block Diagram

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1 Digital Media System-on-Chip (DMSoC) ............ 1 7.1 Parameter Information ............................ 140

1.1 Features .............................................. 1

1.2 Description ........................................... 3

1.3 Functional Block Diagram ............................ 5

2 Revision History ......................................... 7

3 Device Overview ........................................ 9

3.1 Device Characteristics ............................... 9

3.2 Device Compatibility ................................ 11

3.3 ARM Subsystem .................................... 11

3.4 DSP Subsystem .................................... 15

3.5 Memory Map Summary ............................. 20

3.6 Pin Assignments .................................... 24

3.7 Terminal Functions ................................. 31

3.8 Device Support ..................................... 79

3.9 Documentation Support ............................ 81

4 Device Configurations ................................ 82

4.1 System Module Registers .......................... 82

4.2 Power Considerations .............................. 84

4.3 Clock Considerations ............................... 87

4.4 Boot Sequence ..................................... 94

4.5 Configurations At Reset ........................... 100

4.6 Configurations After Reset ........................ 103

4.7 Multiplexed Pin Configurations .................... 111

4.8 Debugging Considerations ........................ 133

5 System Interconnect ................................ 135

6 Device Operating Conditions ...................... 136

6.1 Absolute Maximum Ratings Over Operating Case Temperature Range (Unless Otherwise Noted)

..................................................... 136

6.2 Recommended Operating Conditions ............. 137

6.3 Electrical Characteristics Over Recommended Ranges of Supply Voltage and Operating

Temperature (Unless Otherwise Noted) .......... 138

7 Peripheral Information and Electrical

Specifications ......................................... 140

7.2 Recommended Clock and Control Signal Transition

Behavior ........................................... 141

7.3 Power Supplies .................................... 142

7.4 External Clock Input From DEV_MXI/DEV_CLKIN

and AUX_MXI/AUX_CLKIN Pins .................. 150

7.5 Clock PLLs ........................................ 154

7.6 Enhanced Direct Memory Access (EDMA3)

Controller .......................................... 163

7.7 Reset .............................................. 183

7.8 Interrupts .......................................... 194

7.9 External Memory Interface (EMIF) ................ 200

7.10 DDR2 Memory Controller ......................... 207

7.11 Video Port Interface (VPIF) ....................... 220

7.12 Transport Stream Interface (TSIF) ................ 228

7.13 Clock Recovery Generator (CRGEN) ............. 238

7.14 Video Data Conversion Engine (VDCE) .......... 241

7.15 Peripheral Component Interconnect (PCI) ........ 244

7.16 Ethernet MAC (EMAC) ............................ 250

7.17 Management Data Input/Output (MDIO) .......... 260

7.18 Host-Port Interface (HPI) Peripheral .............. 262

7.19 USB 2.0 [see Note] ............................... 270

7.20 ATA Controller ..................................... 280

7.21 VLYNQ ............................................ 295

7.22 Multichannel Audio Serial Port (McASP0/1)

Peripherals ........................................ 300

7.23 Serial Peripheral Interface (SPI) .................. 312

7.24 Universal Asynchronouse Receiver/Transmitter

(UART) ............................................ 327

7.25 Inter-Integrated Circuit (I2C) ...................... 334

7.26 Pulse Width Modulator (PWM) .................... 338

7.27 Timers ............................................. 340

7.28 General-Purpose Input/Output (GPIO) ............ 343

7.29 IEEE 1149.1 JTAG ................................ 346

8 Mechanical Packaging and Orderable

Information ............................................ 349

8.1 Thermal Data for ZUT ............................. 349

8.2 Packaging Information ............................ 349

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2 Revision History

This data manual revision history highlights the technical changes made to the SPRS605A device-specific data manual to make it an SPRS605B revision.

Scope: Applicable updates to the DM646xT DMSoC device family, specifically relating to the TMS320DM6467T device (Silicon Revision 3.0) which is now in the production data (PD) stage of development have been incorporated.

• USB 2.0 is now supported on -1G devices.

• Added, for clarification, the DDR2 Memory Controller speed of 400 MHz

SEE ADDITIONS/MODIFICATIONS/DELETIONS

Global

Section 3.1 Table 3-1, Characteristics of the DM6467T Processor

Device Characteristics

Section 3.5 Table 3-3, Memory Map Summary

Memory Map Summary

Section 3.7 Table 3-6, Oscillator/PLL Terminal Functions

Terminal Functions

Section 3.8 Figure 3-8, Device Nomenclature

Device Support

Section 6 Section 6.2, Recommended Operating Conditions

Device Operating Conditions

Section 7 Section 7.1.3, Timing Parameters and Board Routing Analysis

Peripheral Information and Electrical Specifications

Section 7.4.1 Figure 7-7, 33.3-MHz System Oscillator

Clock Input Option 1—Crystal

Section 7.4.2 Figure 7-9, 1.8-V LVCMOS-Compatible Clock Input

Clock Input Option 2—1.8-V LVCMOS-Compatible Clock Input • Updated/ Changed figure

• USB 2.0 is now supported on -1G devices. All references have been updated.

• Added, for clarification, the device-specific DDR2 Memory Controller speeds of 400 MHz

• Updated/Changed hardware features, peripherals, DDR2 Memory Controller

• Updated/Changed hardware features, peripherals, USB 2.0

• Updated/ Changed associated USB 2.0 footnote

• Updated/ Changed PCI Master Peripheral Accessibility for address range 0x2000 0000 to 0x2000 7FFF

• Updated/ Changed C64x+ PCI Data access to address range 0x3000 0000 to 0x3FFF FFFF

• Removed associated USB 2.0 footnote

Table 3-4, Configuration Memory Map Summary

• Updated/ Changed C64x+ Timer2 access to address range 0x01C2 1C00 to 0x01C2 1FFF

• Updated/ Changed C64x+ PLL Controller1 access to address range 0x01C4 0800 to 0x01C4 0BFF

• Updated/ Changed C64x+ PLL Controller2 access to address range 0x01C4 0C00 to 0x01C4 0FFF

• Updated/ Changed HPI, PCI, and VLYNQ Master Peripheral Accessibility for address range 0x01D0 2000 to 0x01DF FFFF

• Updated/ Changed HPI, PCI, and VLYNQ Master Peripheral Accessibility for address range 0x01E0 0000 to 0x01FF FFFF

• Updated/ Changed DEV_CVDDdescription

• Updated/ Changed AUX_CVDDdescription

Table 3-10, DDR2 Memory Controller Terminal Functions

• Updated/ Changed DDR_ZP tolerance from ±0.5% to ±5%

• Updated/ Changed DDR_ZN tolerance from ±0.5% to ±5%

• Updated figure

• Updated/ Changed DDR_ZP tolerance from ±0.5% to ±5%

• Updated/ Changed DDR_ZN tolerance from ±0.5% to ±5%

• Updated/ Changed second paragraph

• Updated/ Changed figure

Figure 7-8, 24-MHz Auxiliary Oscillator

• Updated/ Changed figure

Figure 7-10, 1.8-V LVCMOS-Compatible Clock Input

SPRS605B–JULY 2009–REVISED JULY 2010

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SEE ADDITIONS/MODIFICATIONS/DELETIONS

Section 7.10.1 Table 7-31, Switching Characteristics Over Recommended Operating Conditions for DDR2 Memory Controller

DDR2 Memory Controller Electrical Data/Timing

Section 7.15.3 Removed PCI Configuration Register table

PCI Peripheral Register Description(s)

Section 7.19 Updated Note

USB 2.0

Section 7.29 Updated/ Changed fourth paragraph

IEEE 1149.1 JTAG

• Added frequency parameter for clarification

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3 Device Overview

3.1 Device Characteristics

Table 3-1 provides an overview of the TMS320DM6467T SoC. The table shows significant features of the

device, including the capacity of on-chip RAM, peripherals, internal peripheral bus frequency relative to the C64x+ DSP, and the package type with pin count.

Table 3-1. Characteristics of the DM6467T Processor

HARDWARE FEATURES DM6467T

DDR2 Memory Controller DDR2 (Up to 400-MHz, 16/32-bit bus width) Asynchronous EMIF (EMIFA)

EDMA

Timers separate 32-bit timers)

UART control)

SPI 1 (supports 2 slave devices) I2C 1 (Master/Slave)

Multichannel Audio Serial Port (McASP) one DIT transmit only with 1 serializer for S/PDIF

10/100/1000 Ethernet MAC with Management Data Input/Output (MDIO)

Peripherals Not all peripherals pins are General-Purpose Input/Output Port (GPIO) Up to 33 pins

available at the same time (for more detail, see the Device Configurations section).

VLYNQ 1

PWM 2 outputs ATA 1 (ATA/ATAPI-6) PCI 1 (32-bit, 66 MHz) HPI 1 (16-/32-bit multiplexed address/data)

VDCE Clock Recovery Generator (CRGEN) 1

Power Sleep Controller (PSC) 1 (peripheral/module clock gating)

150-MHz Configurable Video Port Interface (VPIF) 1 8-/10-/12-bit raw video capture channel and

Transport Stream Interface (TSIF) 1 with serial-only input and output

USB 2.0

(1)

Asynchronous (8/16-bit bus width) RAM, Flash

(NOR, NAND)

64 independent channels

8 QDMA channels

2 64-Bit General Purpose (each configurable as 2

1 64-Bit Watchdog

3 (with SIR, MIR, CIR support and RTS/CTS flow

(UART0 Supports Modem Interface)

2 (one transmit/receive with 4 serializers,

output)

1 (with MII/GMII Interface)

1 [horizontal and vertical downscaling,

chroma conversion (4:2:2↔4:2:0)]

2 8-bit BT.656 capture channels or

1 16-bit Y/C capture channel or

2 8-bit BT.656 display channels or

1 16-bit Y/C display channel

MPEG transport stream interface

1 with 8-bit parallel or serial input and output

Each with corresponding clock recovery generator

(CRGEN) for external VCXO control.

High- and Full-Speed Device

High-, Full-, and Low-Speed Host

(1) USB2.0 is not supported on -1G parts that are dated prior to May 1, 2010. See the TMS320DM6467T Silicon Errata (Literature Number:

SPRZ307) for more details on how to decode the date from package markings.

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Table 3-1. Characteristics of the DM6467T Processor (continued)

HARDWARE FEATURES DM6467T

Size (Bytes) 248KB RAM, 8KB ROM

DSP

• 32KB L1 Program (L1P)/Cache (up to 32KB)

• 32KB L1 Data (L1D)/Cache (up to 32KB)

On-Chip Memory

CPU ID + CPU Rev ID Control Status Register (CSR.[31:16]) 0x1000 C64x+ Megamodule Revision ID Register (MM_REVID[15:0])

Revision (address location: 0x0181 2000) JTAG BSDL_ID

CPU Frequency MHz

Cycle Time ns

Voltage Core (V) 1.3 V (-1G)

PLL Options DEV_CLKIN frequency multiplier (PLLC2)

BGA Package 19 x 19 mm 529-Pin BGA (ZUT) Process Technology mm 0.09 mm

Product Status

(2) PRODUCTION DATA information is current as of publication date. Products conform to specifications per the terms of the Texas

Instruments standard warranty. Production processing does not necessarily include testing of all parameters.

(2)

Organization

JTAGID Register See Section 7.29.1, JTAG ID (JTAGID) Register (address location: 0x01C4 0028) Description(s)

I/O (V) 1.8 V, 3.3 V (-1G) DEV_CLKIN frequency multiplier (PLLC1)

(Between 27 – 35-MHz range)

(Between 27 – 35-MHz range) AUX_CLKIN frequency 24/48-MHz reference

Product Preview (PP), Advance Information (AI), PD or Production Data (PD)

• 128KB Unified Mapped RAM/Cache (L2) ARM

• 16KB I-cache

• 8KB D-cache

• 32KB RAM

• 8KB ROM

0x0000

DSP 1 GHz (-1G)

ARM926 500 MHz(-1G)

DSP 1.0 ns (-1G)

ARM926 2.0 ns (-1G)

x1 (Bypass), x14 to x32 (-1G)

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3.2 Device Compatibility

The ARM926EJ-S RISC CPU is compatible with other ARM9 CPUs from ARM Holdings plc. The C64x+ DSP core is code-compatible with the C6000™ DSP platform and supports features of the

C64xT DSP family.

3.3 ARM Subsystem

The ARM Subsystem is designed to give the ARM926EJ-S (ARM9) master control of the device. In general, the ARM is responsible for configuration and control of the device; including the DSP Subsystem, the VPSS Subsystem, and a majority of the peripherals and external memories.

The ARM Subsystem includes the following features:

• ARM926EJ-S RISC processor

• ARMv5TEJ (32/16-bit) instruction set

• Little endian operation

• Co-Processor 15 (CP15)

• MMU

• 16KB Instruction cache

• 8KB Data cache

• Write Buffer

• 32KB Internal Tightly-Coupled Memory (TCM) RAM (32-bit wide access)

• 8KB Internal ROM (ARM bootloader for non-EMIFA boot options)

• Embedded Trace Module and Embedded Trace Buffer (ETM/ETB)

• ARM Interrupt Controller

• PLL Controller

• Power and Sleep Controller (PSC)

• System Module

SPRS605B–JULY 2009–REVISED JULY 2010

3.3.1 ARM926EJ-S RISC CPU

The ARM Subsystem integrates the ARM926EJ-S processor. The ARM926EJ-S processor is a member of ARM9 family of general-purpose microprocessors. This processor is targeted at multi-tasking applications where full memory management, high performance, low die size, and low power are all important. The ARM926EJ-S processor supports the 32-bit ARM and 16 bit THUMB instruction sets, enabling the user to trade off between high performance and high code density. Specifically, the ARM926EJ-S processor supports the ARMv5TEJ instruction set, which includes features for efficient execution of Java byte codes, providing Java performance similar to Just in Time (JIT) Java interpreter, but without associated code overhead.

The ARM926EJ-S processor supports the ARM debug architecture and includes logic to assist in both hardware and software debug. The ARM926EJ-S processor has a Harvard architecture and provides a complete high performance subsystem, including:

• ARM926EJ -S integer core

• CP15 system control coprocessor

• Memory Management Unit (MMU)

• Separate instruction and data Caches

• Write buffer

• Separate instruction and data Tightly-Coupled Memories (TCMs) [internal RAM] interfaces

• Separate instruction and data AHB bus interfaces

• Embedded Trace Module and Embedded Trace Buffer (ETM/ETB)

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For more complete details on the ARM9, refer to the ARM926EJ-S Technical Reference Manual, available at http://www.arm.com

3.3.2 CP15

The ARM926EJ-S system control coprocessor (CP15) is used to configure and control instruction and data caches, Tightly-Coupled Memories (TCMs), Memory Management Unit (MMU), and other ARM subsystem functions. The CP15 registers are programmed using the MRC and MCR ARM instructions, when the ARM in a privileged mode such as supervisor or system mode.

3.3.3 MMU

The ARM926EJ-S MMU provides virtual memory features required by operating systems such as Linux®, Windows® CE, Ultron®, ThreadX®, etc. A single set of two level page tables stored in main memory is used to control the address translation, permission checks and memory region attributes for both data and instruction accesses. The MMU uses a single unified Translation Lookaside Buffer (TLB) to cache the information held in the page tables. The MMU features are:

• Standard ARM architecture v4 and v5 MMU mapping sizes, domains and access protection scheme.

• Mapping sizes are: – 1MB (sections) – 64KB (large pages) – 4KB (small pages) – 1KB (tiny pages)

• Access permissions for large pages and small pages can be specified separately for each quarter of the page (subpage permissions)

• Hardware page table walks

• Invalidate entire TLB, using CP15 register 8

• Invalidate TLB entry, selected by MVA, using CP15 register 8

• Lockdown of TLB entries, using CP15 register 10

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3.3.4 Caches and Write Buffer

The size of the Instruction Cache is 16KB, Data cache is 8KB. Additionally, the Caches have the following features:

• Virtual index, virtual tag, and addressed using the Modified Virtual Address (MVA)

• Four-way set associative, with a cache line length of eight words per line (32-bytes per line) and with two dirty bits in the Dcache

• Dcache supports write-through and write-back (or copy back) cache operation, selected by memory region using the C and B bits in the MMU translation tables.

• Critical-word first cache refilling

• Cache lockdown registers enable control over which cache ways are used for allocation on a line fill, providing a mechanism for both lockdown, and controlling cache corruption

• Dcache stores the Physical Address TAG (PA TAG) corresponding to each Dcache entry in the TAG RAM for use during the cache line write-backs, in addition to the Virtual Address TAG stored in the TAG RAM. This means that the MMU is not involved in Dcache write-back operations, removing the possibility of TLB misses related to the write-back address.

• Cache maintenance operations provide efficient invalidation of, the entire Dcache or Icache, regions of the Dcache or Icache, and regions of virtual memory.

The write buffer is used for all writes to a noncachable bufferable region, write-through region and write misses to a write-back region. A separate buffer is incorporated in the Dcache for holding write-back for cache line evictions or cleaning of dirty cache lines. The main write buffer has 16-word data buffer and a four-address buffer. The Dcache write-back has eight data word entries and a single address entry.

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3.3.5 Tightly Coupled Memory (TCM)

ARM internal RAM is provided for storing real-time and performance-critical code/data and the Interrupt Vector table. ARM internal ROM enables non-EMIFA boot options, such as NAND and UART. The RAM and ROM memories interfaced to the ARM926EJ-S via the tightly coupled memory interface that provides for separate instruction and data bus connections. Since the ARM TCM does not allow instructions on the D-TCM bus or data on the I-TCM bus, an arbiter is included so that both data and instructions can be stored in the internal RAM/ROM. The arbiter also allows accesses to the RAM/ROM from extra-ARM sources (e.g., EDMA or other masters). The ARM926EJ-S has built-in DMA support for direct accesses to the ARM internal memory from a non-ARM master. Because of the time-critical nature of the TCM link to the ARM internal memory, all accesses from non-ARM devices are treated as DMA transfers.

Instruction and Data accesses are differentiated via accessing different memory map regions, with the instruction region from 0x0000 through 0x7FFF and data from 0x10000 through 0x17FFF. The instruction region at 0x0000 and data region at 0x10000 map to the same physical 32-KB TCM RAM. Placing the instruction region at 0x0000 is necessary to allow the ARM Interrupt Vector table to be placed at 0x0000, as required by the ARM architecture. The internal 32-KB RAM is split into two physical banks of 16KB each, which allows simultaneous instruction and data accesses to be accomplished if the code and data are in separate banks.

3.3.6 Advanced High-Performance Bus (AHB)

The ARM Subsystem uses the AHB port of the ARM926EJ-S to connect the ARM to the Config bus and the external memories. Arbiters are employed to arbitrate access to the separate D-AHB and I-AHB by the Config Bus and the external memories bus.

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3.3.7 Embedded Trace Macrocell (ETM) and Embedded Trace Buffer (ETB)

To support real-time trace, the ARM926EJ-S processor provides an interface to enable connection of an Embedded Trace Macrocell (ETM). The ARM926ES-J Subsystem in the DM6467T also includes the Embedded Trace Buffer (ETB). The ETM consists of two parts:

• Trace Port provides real-time trace capability for the ARM9.

• Triggering facilities provide trigger resources, which include address and data comparators, counter, and sequencers.

The DM6467T trace port is not pinned out and is instead only connected to the Embedded Trace Buffer. The ETB has a 4KB buffer memory. ETB enabled debug tools are required to read/interpret the captured trace data.

3.3.8 ARM Memory Mapping

The ARM memory map is shown in Section 3.5, Memory Map Summary of this document. The ARM has access to memories shown in the following sections.

3.3.8.1 ARM Internal Memories

The ARM has access to the following ARM internal memories:

• 32KB ARM Internal RAM on TCM interface, logically separated into two 16KB pages to allow simultaneous access on any given cycle if there are separate accesses for code (I-TCM bus) and data (D-TCM) to the different memory regions.

• 8KB ARM Internal ROM

3.3.8.2 External Memories

The ARM has access to the following external memories:

• DDR2 Synchronous DRAM

• Asynchronous EMIF / NOR Flash / NAND Flash

• ATA

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3.3.8.3 DSP Memories

The ARM has access to the following DSP memories:

• L2 RAM

• L1P RAM

• L1D RAM

3.3.8.4 ARM-DSP Integration

DM6467T ARM and DSP integration features are as follows:

• DSP visibility from ARM’s memory map, see Section 3.5, Memory Map Summary, for details

• Boot Modes for DSP - see Device Configurations section, Section 4.4.1, DSP Boot, for details

• ARM control of DSP boot / reset - see Device Configurations section, Section 4.4.2.4, ARM Boot, for details

• ARM control of DSP isolation and powerdown / powerup - see Section 4, Device Configurations, for details

• ARM & DSP Interrupts - see Section 7.8.1, ARM CPU Interrupts, and Section 7.8.2, DSP Interrupts, for details

3.3.9 Peripherals

The ARM9 has access to all of the peripherals on the DM6467T device.

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3.3.10 PLL Controller (PLLC)

The ARM Subsystem includes the PLL Controller. The PLL Controller contains a set of registers for configuring DM6467T’s two internal PLLs (PLL1 and PLL2). The PLL Controller provides the following configuration and control:

• PLL Bypass Mode

• Set PLL multiplier parameters

• Set PLL divider parameters

• PLL power down

• Oscillator power down

The PLLs are briefly described in this document in the Clocking section. For more detailed information on the PLLs and PLL Controller register descriptions, see the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

3.3.11 Power and Sleep Controller (PSC)

The ARM Subsystem includes the Power and Sleep Controller (PSC). Through register settings accessible by the ARM9, the PSC provides two levels of power savings: peripheral/module clock gating and power domain shut-off. Brief details on the PSC are given in Section 7.3, Power Supplies. For more detailed information and complete register descriptions for the PSC, see the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

3.3.12 ARM Interrupt Controller (AINTC)

The ARM Interrupt Controller (AINTC) accepts device interrupts and maps them to either the ARM’s IRQ (interrupt request) or FIQ (fast interrupt request). The ARM Interrupt Controller is briefly described in this document in the Interrupts section. For detailed information on the ARM Interrupt Controller, see the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

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3.3.13 System Module

The ARM Subsystem includes the System module. The System module consists of a set of registers for configuring and controlling a variety of system functions. For details and register descriptions for the System module, see Section 4, Device Configurations and see the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

3.3.14 Power Management

DM6467T has several means of managing power consumption. There is extensive use of clock gating, which reduces the power used by global device clocks and individual peripheral clocks. Clock management can be utilized to reduce clock frequencies in order to reduce switching power. For more details on power management techniques, see Section 4, Device Configurations, Section 7, Peripheral and Electrical Specifications, and see the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

DM6467T gives the programmer full flexibility to use any and all of the previously mentioned capabilities to customize an optimal power management strategy. Several typical power management scenarios are described in the following sections.

3.4 DSP Subsystem

The DSP Subsystem includes the following features:

• C64x+ DSP CPU

• 32KB L1 Program (L1P)/Cache (up to 32KB)

• 32KB L1 Data (L1D)/Cache (up to 32KB)

• 128KB Unified Mapped RAM/Cache (L2)

• Little endian

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3.4.1 C64x+ DSP CPU Description

The C64x+ Central Processing Unit (CPU) consists of eight functional units, two register files, and two data paths as shown in Figure 3-1. The two general-purpose register files (A and B) each contain 32 32-bit registers for a total of 64 registers. The general-purpose registers can be used for data or can be data address pointers. The data types supported include packed 8-bit data, packed 16-bit data, 32-bit data, 40-bit data, and 64-bit data. Values larger than 32 bits, such as 40-bit-long or 64-bit-long values are stored in register pairs, with the 32 LSBs of data placed in an even register and the remaining 8 or 32 MSBs in the next upper register (which is always an odd-numbered register).

The eight functional units (.M1, .L1, .D1, .S1, .M2, .L2, .D2, and .S2) are each capable of executing one instruction every clock cycle. The .M functional units perform all multiply operations. The .S and .L units perform a general set of arithmetic, logical, and branch functions. The .D units primarily load data from memory to the register file and store results from the register file into memory.

The C64x+ CPU extends the performance of the C64x core through enhancements and new features. Each C64x+ .M unit can perform one of the following each clock cycle: one 32 x 32 bit multiply, one 16 x

32 bit multiply, two 16 x 16 bit multiplies, two 16 x 32 bit multiplies, two 16 x 16 bit multiplies with add/subtract capabilities, four 8 x 8 bit multiplies, four 8 x 8 bit multiplies with add operations, and four 16 x 16 multiplies with add/subtract capabilities (including a complex multiply). There is also support for Galois field multiplication for 8-bit and 32-bit data. Many communications algorithms such as FFTs and modems require complex multiplication. The complex multiply (CMPY) instruction takes for 16-bit inputs and produces a 32-bit real and a 32-bit imaginary output. There are also complex multiplies with rounding capability that produces one 32-bit packed output that contain 16-bit real and 16-bit imaginary values. The 32 x 32 bit multiply instructions provide the extended precision necessary for audio and other high-precision algorithms on a variety of signed and unsigned 32-bit data types.

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The .L or (Arithmetic Logic Unit) now incorporates the ability to do parallel add/subtract operations on a pair of common inputs. Versions of this instruction exist to work on 32-bit data or on pairs of 16-bit data performing dual 16-bit add and subtracts in parallel. There are also saturated forms of these instructions.

The C64x+ core enhances the .S unit in several ways. In the C64x core, dual 16-bit MIN2 and MAX2 comparisons were only available on the .L units. On the C64x+ core they are also available on the .S unit which increases the performance of algorithms that do searching and sorting. Finally, to increase data packing and unpacking throughput, the .S unit allows sustained high performance for the quad 8-bit/16-bit and dual 16-bit instructions. Unpack instructions prepare 8-bit data for parallel 16-bit operations. Pack instructions return parallel results to output precision including saturation support.

Other new features include:

• SPLOOP - A small instruction buffer in the CPU that aids in creation of software pipelining loops where multiple iterations of a loop are executed in parallel. The SPLOOP buffer reduces the code size associated with software pipelining. Furthermore, loops in the SPLOOP buffer are fully interruptible.

• Compact Instructions - The native instruction size for the C6000 devices is 32 bits. Many common instructions such as MPY, AND, OR, ADD, and SUB can be expressed as 16 bits if the C64x+ compiler can restrict the code to use certain registers in the register file. This compression is performed by the code generation tools.

• Instruction Set Enhancement - As noted above, there are new instructions such as 32-bit multiplications, complex multiplications, packing, sorting, bit manipulation, and 32-bit Galois field multiplication.

• Exceptions Handling - Intended to aid the programmer in isolating bugs. The C64x+ CPU is able to detect and respond to exceptions, both from internally detected sources (such as illegal op-codes) and from system events (such as a watchdog time expiration).

• Privilege - Defines user and supervisor modes of operation, allowing the operating system to give a basic level of protection to sensitive resources. Local memory is divided into multiple pages, each with read, write, and execute permissions.

• Time-Stamp Counter - Primarily targeted for Real-Time Operating System (RTOS) robustness, a free-running time-stamp counter is implemented in the CPU which is not sensitive to system stalls.

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For more details on the C64x+ CPU and its enhancements over the C64x architecture, see the following documents:

• TMS320C64x/C64x+ DSP CPU and Instruction Set Reference Guide (literature number SPRU732)

• TMS320C64x Technical Overview (literature number SPRU395)

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src2

.D1

.M1

.S1

.L1

long src

odd dst

src2

src1

even dst

odd dst

dst1

dst

src2

long src

DA1

ST1b

LD1b LD1a

ST1a

Data path A

Odd

file A

(A1, A3,

A5...A31)

Odd

file B

(B1, B3,

B5...B31)

.D2

src1

dst

src2

DA2

LD2a LD2b

src2

.M2

src1

dst1

.S2

src1

even dst

long src

odd dst

ST2a ST2b

long src

.L2

even dst

odd dst

src1

Data path B

Control Register

32 MSB 32 LSB

dst2

(A)

32 MSB 32 LSB

32 LSB

32 MSB

32 LSB

32 MSB

dst2

(B)

(B) (A)

(C)

Even

file A

(A0, A2,

A4...A30)

Even

file B

(B0, B2,

B4...B30)

(D)

A. On .M unit, dst2 is 32 MSB. B. On .M unit, dst1 is 32 LSB. C. On C64x CPU .M unit, src2 is 32 bits; on C64x+ CPU .M unit, src2 is 64 bits. D. On .L and .S units, odd dst connects to odd register files and even dst connects to even register files.

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Figure 3-1. TMS320C64x+™ CPU (DSP Core) Data Paths

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3.4.2 DSP Memory Mapping

The DSP memory map is shown in Section 3.5, Memory Map Summary. Configuration of the control registers for DDR2, EMIFA, and ARM Internal RAM is supported by the ARM. The DSP has access to memories shown in the following sections.

3.4.2.1 ARM Internal Memories

The DSP has access to the 32KB ARM Internal RAM on the ARM D-TCM interface (i.e., data only).

3.4.2.2 External Memories

The DSP has access to the following External memories:

• DDR2 Synchronous DRAM

• Asynchronous EMIF / NOR Flash

• ATA

3.4.2.3 DSP Internal Memories

The DSP has access to the following DSP memories:

• L2 RAM

• L1P RAM

• L1D RAM

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3.4.2.4 C64x+ CPU

The C64x+ core uses a two-level cache-based architecture. The Level 1 Program memory/cache (L1P) consists of 32 KB memory space that can be configured as mapped memory or direct mapped cache. The Level 1 Data memory/cache (L1D) consists of 32 KB that can be configured as mapped memory or 2-way set associated cache. The Level 2 memory/cache (L2) consists of a 128 KB RAM memory space that is shared between program and data space. L2 memory can be configured as mapped memory, cache, or a combination of both.

Table 3-2 shows a memory map of the C64x+ CPU cache registers for the device.

Table 3-2. C64x+ Cache Registers

HEX ADDRESS RANGE REGISTER ACRONYM DESCRIPTION

0x0184 0000 L2CFG L2 Cache configuration register 0x0184 0020 L1PCFG L1P Size Cache configuration register 0x0184 0024 L1PCC L1P Freeze Mode Cache configuration register 0x0184 0040 L1DCFG L1D Size Cache configuration register 0x0184 0044 L1DCC L1D Freeze Mode Cache configuration register

0x0184 0048 - 0x0184 0FFC - Reserved

0x0184 1000 EDMAWEIGHT L2 EDMA access control register

0x0184 1004 - 0x0184 1FFC - Reserved

0x0184 2000 L2ALLOC0 L2 allocation register 0 0x0184 2004 L2ALLOC1 L2 allocation register 1 0x0184 2008 L2ALLOC2 L2 allocation register 2

0x0184 200C L2ALLOC3 L2 allocation register 3

0x0184 2010 - 0x0184 3FFF - Reserved

0x0184 4000 L2WBAR L2 writeback base address register 0x0184 4004 L2WWC L2 writeback word count register 0x0184 4010 L2WIBAR L2 writeback invalidate base address register 0x0184 4014 L2WIWC L2 writeback invalidate word count register 0x0184 4018 L2IBAR L2 invalidate base address register

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Table 3-2. C64x+ Cache Registers (continued)

HEX ADDRESS RANGE REGISTER ACRONYM DESCRIPTION

0x0184 401C L2IWC L2 invalidate word count register

0x0184 4020 L1PIBAR L1P invalidate base address register 0x0184 4024 L1PIWC L1P invalidate word count register 0x0184 4030 L1DWIBAR L1D writeback invalidate base address register 0x0184 4034 L1DWIWC L1D writeback invalidate word count register 0x0184 4038 - Reserved 0x0184 4040 L1DWBAR L1D Block Writeback 0x0184 4044 L1DWWC L1D Block Writeback 0x0184 4048 L1DIBAR L1D invalidate base address register

0x0184 404C L1DIWC L1D invalidate word count register

0x0184 4050 - 0x0184 4FFF - Reserved

0x0184 5000 L2WB L2 writeback all register 0x0184 5004 L2WBINV L2 writeback invalidate all register 0x0184 5008 L2INV L2 Global Invalidate without writeback

0x0184 500C - 0x0184 5027 - Reserved

0x0184 5028 L1PINV L1P Global Invalidate

0x0184 502C - 0x0184 5039 - Reserved

0x0184 5040 L1DWB L1D Global Writeback 0x0184 5044 L1DWBINV L1D Global Writeback with Invalidate 0x0184 5048 L1DINV L1D Global Invalidate without writeback

0x0184 8000 - 0x0184 803C MAR0 - MAR15 Reserved (corresponds to byte address 0x0000 0000 - 0x0FFF FFFF)

0x0184 8040 MAR16

0x0184 8044 - 0x0184 80FC MAR17 - MAR63 Reserved (corresponds to byte address 0x1100 0000 - 0x3FFF FFFF)

0x0184 8100 MAR64 Reserved (corresponds to byte address 0x4000 0000 - 0x40FF FFFF) 0x0184 8104 MAR65 Reserved (corresponds to byte address 0x4100 0000 - 0x41FF FFFF)

0x0184 8108 - 0x0184 8124 MAR66 - MAR73 0x0184 8128 - 0x0184 812C MAR74 - MAR75 Reserved (corresponds to byte address 0x4A00 0000 - 0x4BFF FFFF) 0x0184 8130 - 0x0184 813C MAR76 - MAR79 0x0184 8140 - 0x0184 81FC MAR80 - MAR127 Reserved (corresponds to byte address 0x5000 0000 - 0x7FFF FFFF) 0x0184 8200 - 0x0184 82FC MAR128 - MAR191 0x0184 8300 - 0x0184 83FC MAR192 - MAR255 Reserved (corresponds to byte address 0xC000 0000 - 0xFFFF FFFF)

Memory Attribute Registers for ARM TCM (corresponds to byte address 0x1000 0000 - 0x10FF FFFF)

Memory Attribute Registers for EMIFA (corresponds to byte address 0x4200 0000 - 0x49FF FFFF)

Memory Attribute Registers for VLYNQ (corresponds to byte address 0x4C00 0000 - 0x4FFF FFFF)

Memory Attribute Registers for DDR2 (corresponds to byte address 0x8000 0000 - 0xBFFF FFFF)

3.4.3 Peripherals

The DSP has access/controllability of the following peripherals:

• HDVICP0/1

• EDMA

• McASP0/1

• 2 Timers (Timer0 and Timer1) that can each be configured as 1 64-bit or 2 32-bit timers

3.4.4 DSP Interrupt Controller

The DSP Interrupt Controller accepts device interrupts and appropriately maps them to the DSP’s available interrupts. The DSP Interrupt Controller is briefly described in this document in the Interrupts section. For more detailed on the DSP Interrupt Controller, see the TMS320C64x+ DSP Megamodule Reference Guide (literature number SPRU871).

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3.5 Memory Map Summary

Table 3-3 shows the memory map address ranges of the device. Table 3-4 depicts the expanded map of

the Configuration Space (0x0180 0000 through 0x0FFF FFFF). The device has multiple on-chip memories associated with its two processors and various subsystems. To help simplify software development a unified memory map is used where possible to maintain a consistent view of device resources across all bus masters.

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Table 3-3. Memory Map Summary

START END SIZE EDMA/

ADDRESS ADDRESS (Bytes) PERIPHERAL

0x0000 0000 0x0000 3FFF 16K ARM RAM0

0x0000 4000 0x0000 7FFF 16K ARM RAM1

0x0000 8000 0x0000 FFFF 32K ARM ROM (Instruction) 0x0001 0000 0x0001 3FFF 16K ARM RAM0 (Data) 0x0001 4000 0x0001 7FFF 16K ARM RAM1 (Data) 0x0001 8000 0x0001 FFFF 32K ARM ROM (Data) 0x0002 0000 0x000F FFFF 896K 0x0010 0000 0x003F FFFF 3M 0x0040 0000 0x004F FFFF 1M 0x0050 0000 0x005F FFFF 1M Reserved 0x0060 0000 0x006F FFFF 1M 0x0070 0000 0x007F FFFF 1M 0x0080 0000 0x0080 FFFF 64K 0x0081 0000 0x0081 7FFF 32K Reserved Hole (MPPA Disable) 0x0081 8000 0x0083 7FFF 128K L2 RAM/Cache 0x0083 8000 0x008F FFFF 800K Reserved 0x0090 0000 0x0092 FFFF 192K 0x0093 0000 0x009F FFFF 832K 0x00A0 0000 0x00DF FFFF 4M 0x00E0 0000 0x00E0 7FFF 32K L1PRAM/Cache 0x00E0 8000 0x00EF FFFF 992K Reserved 0x00F0 0000 0x00F0 7FFF 32K L1D RAM/Cache Reserved 0x00F0 8000 0x017F FFFF 9184K Reserved

0x0180 0000 0x01BB FFFF 3840K 0x01BC 0000 0x01BC 0FFF 4K ARM ETB Memory 0x01BC 1000 0x01BC 17FF 2K ARM ETB Registers 0x01BC 1800 0x01BC 18FF 256 ARM IceCrusher 0x01BC 1900 0x01BC 1BFF 768 Reserved 0x01BC 1C00 0x01BF FFFF 249K 0x01C0 0000 0x0FFF FFFF 228M CFG Bus Peripherals CFG Bus Peripherals CFG Bus Peripherals x

0x1000 0000 0x1000 FFFF 64K Reserved

0x1001 0000 0x1001 3FFF 16K ARM RAM0 (Data) ARM RAM0 (Data) x x x x x x x

0x1001 4000 0x1001 7FFF 16K ARM RAM1 (Data) ARM RAM1 (Data) x x x x x x x

0x1001 8000 0x1001 FFFF 32K ARM ROM (Data) ARM ROM (Data) x x x x x x x

0x1002 0000 0x10FF FFFF 16256K

0x1100 0000 0x113F FFFF 4M Reserved

0x1140 0000 0x114F FFFF 1M

0x1150 0000 0x115F FFFF 1M Reserved Reserved

0x1160 0000 0x116F FFFF 1M

0x1170 0000 0x117F FFFF 1M

0x1180 0000 0x1180 FFFF 64K

0x1181 0000 0x1181 7FFF 32K Reserved Hole (MPPA Disable)

0x1181 8000 0x1183 7FFF 128K L2 RAM/Cache L2 RAM/Cache L2 RAM/Cache x x x x x x

0x1183 8000 0x118F FFFF 800K Reserved Reserved Reserved

0x1190 0000 0x11DF FFFF 5M 0x11E0 0000 0x11E0 7FFF 32K L1P RAM/Cache L1P RAM/Cache L1P RAM/Cache x x x x x 0x11E0 8000 0x11EF FFFF 992K Reserved Reserved Reserved

ARM C64x+

(Instruction)

Reserved

Reserved Reserved

(2)

Reserved

CFG Space

(2)

Reserved

Video TSIF

Port (0/1)

MASTER PERIPHERAL ACCESSIBILITY

VDCE EMAC HPI PCI USB VLYNQ ATA

(3)x(3)

(1)

(3)

(1) These peripherals have their own DMA engine or master port interface to the DMSoC system bus and do not use the EDMA for data

transfers. The x symbol indicates that the peripheral has a valid connection through the device switch fabric to the memory region identified in the EDMA access column.

(2) MPPA should be used to disable the hole. For more information on MPPA, see the TMS320C64x+ DSP Megamodule Reference Guide

(SPRU871).

(3) The HPI's, PCI's, and VLYNQ's access to the configuration bus peripherals is limited, see Table 3-4, Configuration Memory Map

Summary for the details.

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Table 3-3. Memory Map Summary (continued)

START END SIZE EDMA/

ADDRESS ADDRESS (Bytes) PERIPHERAL

ARM C64x+

Video TSIF

Port (0/1)

MASTER PERIPHERAL ACCESSIBILITY

VDCE EMAC HPI PCI USB VLYNQ ATA

0x11F0 0000 0x11F0 7FFF 32K L1D RAM/Cache L1D RAM/Cache L1D RAM/Cache x x x x x

0x11F0 8000 0x11FF FFFF 992K Reserved Reserved Reserved

0x1200 0000 0x1FFF FFFF 224M

0x2000 0000 0x2000 7FFF 32K DDR2 Control DDR2 Control DDR2 Control

0x2000 8000 0x2000 FFFF 32K EMIFA Control EMIFA Registers EMIFA Registers

0x2001 0000 0x2001 7FFF 32K VLYNQ Control VLYNQ Registers VLYNQ Registers

Registers Registers Registers

Registers

Registers 0x2001 8000 0x200F FFFF 928K Reserved Reserved Reserved 0x2010 0000 0x2FFF FFFF 255M 0x3000 0000 0x3FFF FFFF 256M PCI Data PCI Data 0x4000 0000 0x403F FFFF 4M Reserved Reserved Reserved 0x4040 0000 0x4043 FFFF 256K 0x4044 0000 0x4047 FFFF 256K 0x4048 0000 0x404B FFFF 256K

0x404C 0000 0x404F FFFF 256K

0x4050 0000 0x405F FFFF 1M 0x4060 0000 0x4063 FFFF 256K Reserved Reserved Reserved 0x4064 0000 0x4067 FFFF 256K 0x4068 0000 0x406B FFFF 256K

0x406C 0000 0x406F FFFF 256K

0x4070 0000 0x41FF FFFF 25M 0x4200 0000 0x43FF FFFF 32M EMIFA Data (CS2) 0x4400 0000 0x45FF FFFF 32M EMIFA Data (CS3) 0x4600 0000 0x47FF FFFF 32M EMIFA Data (CS4) 0x4800 0000 0x49FF FFFF 32M EMIFA Data (CS5)

(4)

EMIFA Data (CS2)

(4)

EMIFA Data (CS3)

(4)

EMIFA Data (CS4)

(4)

EMIFA Data (CS5)

(4)

EMIFA Data (CS2)

(4)

EMIFA Data (CS3)

(4)

EMIFA Data (CS4)

(4)

EMIFA Data (CS5)

(4)

x x x x x x x x x x x x

x x x x 0x4A00 0000 0x4BFF FFFF 32M Reserved Reserved Reserved 0x4C00 0000 0x4FFF FFFF 64M VLYNQ (Remote Data) VLYNQ (Remote Data) VLYNQ (Remote Data) x x x x x x x

0x5000 0000 0x7FFF FFFF 768M Reserved Reserved Reserved

0x8000 0000 0x9FFF FFFF 512M DDR2 Memory DDR2 Memory DDR2 Memory x x x x x x x x x 0xA000 0000 0xBFFF FFFF 512M Reserved Reserved Reserved 0xC000 0000 0xFFFF FFFF 1G Reserved Reserved Reserved

(4) EMIFA CS0 and CS1 are not functionally supported on the DM6467T, and therefore, are not pinned out.

(1)

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Table 3-4. Configuration Memory Map Summary

START END SIZE

ADDRESS ADDRESS (Bytes)

0x0180 0000 0x0180 FFFF 64K C64x+ Interrupt Controller 0x0181 0000 0x0181 0FFF 4K C64x+ Powerdown Controller 0x0181 1000 0x0181 1FFF 4K C64x+ Security ID 0x0181 2000 0x0181 2FFF 4K C64x+ Revision ID 0x0182 0000 0x0182 FFFF 64K C64x+ EMC 0x0183 0000 0x0183 FFFF 64K Reserved 0x0184 0000 0x0184 FFFF 64K C64x+ Memory System

0x0185 0000 0x01BB FFFF 3520K Reserved 0x01BC 0000 0x01BC 00FF 256 0x01BC 0100 0x01BC 01FF 256 ARM ETB Memory 0x01BC 0200 0x01BC 0FFF 3.5K 0x01BC 1000 0x01BC 17FF 2K ARM ETB Registers 0x01BC 1800 0x01BC 18FF 256 ARM Ice Crusher 0x01BC 1900 0x01BF FFFF 255744 Reserved 0x01C0 0000 0x01C0 FFFF 64K EDMA CC EDMA CC 0x01C1 0000 0x01C1 03FF 1K EDMA TC0 EDMA TC0 0x01C1 0400 0x01C1 07FF 1K EDMA TC1 EDMA TC1 0x01C1 0800 0x01C1 0BFF 1K EDMA TC2 EDMA TC2 0x01C1 0C00 0x01C1 0FFF 1K EDMA TC3 EDMA TC3 0x01C1 1000 0x01C11FFF 4K Reserved Reserved 0x01C1 2000 0x01C1 23FF 1K Video Port 0x01C1 2400 0x01C1 27FF 1K Reserved Reserved 0x01C1 2800 0x01C12FFF 2K VDCE 0x01C1 3000 0x01C1 33FF 1K TSIF0 0x01C1 3400 0x01C1 37FF 1K TSIF1 0x01C1 3800 0x01C19FFF 26K Reserved Reserved 0x01C1 A000 0x01C1 A7FF 2K PCI Control Registers 0x01C1 A800 0x01C1 FFFF 22K Reserved Reserved 0x01C2 0000 0x01C2 03FF 1K UART0 x x x 0x01C2 0400 0x01C2 07FF 1K UART1 x x x 0x01C2 0800 0x01C2 0BFF 1K UART2 x x x 0x01C2 0C00 0x01C2 0FFF 1K Reserved Reserved x x x 0x01C2 1000 0x01C2 13FF 1K I2C x x x 0x01C2 1400 0x01C2 17FF 1K Timer0 Timer0 x x x 0x01C2 1800 0x01C2 1BFF 1K Timer1 Timer1 x x x 0x01C2 1C00 0x01C2 1FFF 1K Timer2 (Watchdog) x x x 0x01C2 2000 0x01C2 23FF 1K PWM0 x x x 0x01C2 2400 0x01C2 27FF 1K PWM1 x x x 0x01C2 2800 0x01C25FFF 14K Reserved Reserved x x x 0x01C2 6000 0x01C2 63FF 1K CRGEN0 x x x 0x01C2 6400 0x01C2 67FF 1K CRGEN1 x x x 0x01C2 6800 0x01C3 FFFF 102K Reserved Reserved x x x 0x01C4 0000 0x01C4 07FF 2K System Module System Module x x x 0x01C4 0800 0x01C4 0BFF 1K PLL Controller 1 x x x 0x01C4 0C00 0x01C4 0FFF 1K PLL Controller 2 x x x 0x01C4 1000 0x01C41FFF 4K Power and Sleep Controller Power and Sleep Controller x x x 0x01C4 2000 0x01C47FFF 24K Reserved Reserved x x x 0x01C4 8000 0x01C4 83FF 1K ARM Interrupt Controller Reserved x x x 0x01C4 8400 0x01C63FFF 111K Reserved Reserved x x x 0x01C6 4000 0x01C65FFF 8K USB2.0 Registers / RAM x x x

Reserved

ARM/EDMA C64x+

Reserved

MASTER PERIPHERAL

ACCESSIBILITY

HPI PCI VLYNQ

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Table 3-4. Configuration Memory Map Summary (continued)

START END SIZE

ADDRESS ADDRESS (Bytes)

0x01C6 6000 0x01C6 67FF 2K ATA x x x 0x01C6 6800 0x01C66FFF 2K SPI x x x 0x01C6 7000 0x01C6 77FF 2K GPIO x x x 0x01C6 7800 0x01C67FFF 2K HPI HPI x x x 0x01C6 8000 0x01C7 FFFF 96K Reserved Reserved x x x 0x01C8 0000 0x01C80FFF 4K EMAC Control Registers x x x 0x01C8 1000 0x01C81FFF 4K EMAC Control Module Registers x x x 0x01C8 2000 0x01C83FFF 8K EMAC Control Module RAM x x x 0x01C8 4000 0x01C8 47FF 2K MDIO Control Registers x x x 0x01C8 4800 0x01D00FFF 498K Reserved Reserved x x x 0x01D0 1000 0x01D0 13FF 1K McASP0 Registers McASP0 Registers x x x 0x01D0 1400 0x01D0 17FF 1K McASP0 Data Port McASP0 Data Port x x x 0x01D0 1800 0x01D0 1BFF 1K McASP1 Registers McASP1 Registers x x x 0x01D0 1C00 0x01D0 1FFF 1K McASP1 Data Port McASP1 Data Port x x x 0x01D0 2000 0x01DF FFFF 1016K Reserved Reserved 0x01E0 0000 0x01FF FFFF 2M Reserved Reserved

0x0200 0000 0x021F FFFF 2M Reserved Reserved

0x0220 0000 0x023F FFFF 2M Reserved Reserved

0x0240 0000 0x0FFF FFFF 220M Reserved Reserved

ARM/EDMA C64x+

Reserved

MASTER PERIPHERAL

ACCESSIBILITY

HPI PCI VLYNQ

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3.6 Pin Assignments

Extensive use of pin multiplexing is used to accommodate the largest number of peripheral functions in the smallest possible package. Pin multiplexing is controlled using a combination of hardware configuration at device reset and software programmable register settings. For more information on pin muxing, see Section 4.7, Multiplexed Pin Configurations, of this document.

3.6.1 Pin Map (Bottom View)

Figure 3-2 through Figure 3-7 show the bottom view of the package pin assignments in six quadrants (A,

B, C, D, E, and F).

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GP[4]/

STC_CLKIN

VP_DOUT1/

BTMODE1

VP_DOUT6/

DSPBOOT

VP_DOUT5/

PCIEN

VP_DOUT14/

TS1_PSTIN

VP_DOUT9/

TS1_ENAO

AHCLKR0

GP[3]/

AUDIO_CLK0

TOUT1U

VP_DOUT0/

BTMODE0

VP_DOUT3/

BTMODE3

VP_DOUT7

VP_DOUT15/

TS1_DIN

ACLKX0 ACLKR0

AMUTEIN0

GP[2]/

AUDIO_CLK1

TOUT1L

TINP0U

VP_DOUT4/

CS2BW

VP_DOUT12/

TS1_WAITO

AHCLKX0

AMUTE0

AFSR0 AFSX0

TOUT2

TINP1L

TINP0L

VP_DOUT2/

BTMODE2

ACLKX1 AHCLKX1

AXR0[3] AXR0[2]

GP[0]

RESET

TOUT0U TOUT0L

SPI_CLK

AXR1[0]

AXR0[0] AXR0[1]

GP[1]

DD33

VLYNQ_

CLOCK

VLYNQ_

SCRUN

SPI_CS1

SDA SCL

DD33

VLYNQ_TXD1 VLYNQ_TXD2 VLYNQ_TXD3

SPI_CS0

SPI_EN

1 2

MTCLK

VLYNQ_RXD2 VLYNQ_RXD3 VLYNQ_TXD0 SPI_SOMI

MTXD7 GMTCLK

VLYNQ_RXD1 VLYNQ_RXD0 SPI_SIMO

MTXD3 MTXD4

MTXD5

MTXD6

3 4 5 6 7 8

1 2 3 4 5 6 7 8

DD33

A B C

D E F

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Figure 3-2. Pin Map [Section A]

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A B C

D E F

VP_CLKIN3/

TS1_CLKO

VP_CLKO3/

TS0_CLKO

TS1_CLKIN

UCTS0/

USD0

VP_CLKIN0

VP_DIN4/

TS0_DOUT4/

TS1_WAITO

VP_DIN0/

TS0_DOUT0

VP_DIN8/

TS0_DIN0

VP_DOUT8/

TS1_WAITIN

VP_DOUT11/

TS1_DOUT

UDSR0/

TS0_PSTO/

GP[37]

URXD0/

TS1_DIN

VP_DIN5/

TS0_DOUT5/

TS1_EN_WAITO

VP_DIN1/

TS0_DOUT1

VP_DIN9/

TS0_DIN1

VP_CLKO2

VP_DOUT10/

TS1_PSTO

UDCD0/

TS0_WAITIN/

GP[38]

DD33

URTS0/ UIRTX0/

TS1_EN_WAITO

VP_DIN6/

TS0_DOUT6/

TS1_PSTIN

VP_DIN2/

TS0_DOUT2

VP_DIN10/

TS0_DIN2

VP_DOUT13/

TS1_EN_WAITO

VP_CLKIN2

URIN0/

GP[8]/

TS1_WAITIN

UDTR0/

TS0_ENAO/

GP[36]

UTXD0/

URCTX0/

TS1_PSTIN

VP_DIN7/

TS0_DOUT7/

TS1_DIN

VP_DIN3/

TS0_DOUT3

VP_DIN11/ TS0_DIN3

DD33

9 10

11 12 13 14 15 16

9 10 11 12 13 14 15 16

DD33

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Figure 3-3. Pin Map [Section B]

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VP_DIN12/

TS0_DIN4

VP_DIN15_

VP_VSYNC/

TS0_DIN7

TS0_CLKIN

URTS2/

UIRTX2/

TS0_PSTIN/

GP[41]

UCTS2/USD2/

CRG0_VCXI/

GP[42]/

TS1_PSTO

VP_DIN13_

FIELD/

TS0_DIN5

VP_CLKIN1

UTXD1/

URCTX1/

TS0_DOUT7/

GP[24]

DDR_D[23]

VP_DIN14_

VP_HSYNC/

TS0_DIN6

URTS1/

UIRTX1/

TS0_WAITO/

GP[25]

UTXD2/URCTX2/

CRG1_PO/

GP[40]/

CRG0_PO

DDR2

DDR_D[28] DDR_D[21] DDR_D[20]

UCTS1/USD1/

TS0_EN_WAITO/

GP[26]

URXD1/

TS0_DIN7/

GP[23]

DDR_D[31] DDR_D[29] DDR_D[22]

DDR_DQM[2]

PWM0/

CRG0_PO/

TS1_ENAO

17 18

19 20 21 22 23

17 18 19 20 21 22 23

A B C

D E F

PWM1/

TS1_DOUT

DDR_D[30] DV

DDR2

DDR_DQS[2]

DDR_D[19]DDR_DQS[2]DDR_DQS[3]DDR_DQM[3]V

DDR_DQS[3] DDR_D[27]DV

DDR2

DDR_D[24]

DDR_D[18]DDR_D[16]V

DDR2

DDR_A[10]DDR_D[17]DDR_D[26]

DDR_D[25]

DDR2

DDR_DQGATE2 DDR_A[1]DDR_A[3]DDR_DQGATE3

DDR_A[12]

DDR_BA[2] DDR_VREFV

DDR2

DDR_A[14]DDR_A[9]DDR_A[5]DDR_A[7]DDR_BA[0]V

DD33

DDR2

URXD2/

CRG1_VCXI/

GP[39]/

CRG0_VCXI

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Figure 3-4. Pin Map [Section C]

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MTXD0

MTXEN

MCRS

MCOL

MRCLK MRXD7

MRXD6

MRXD4

MRXD3

MRXD2

MRXDV

RFTCLK

MRXD1

MRXER

MDIO

MDCLK

DD33

1 2

3 4 5 6 7 8

1 2 3 4 5 6 7 8

A B C

D E F

DD33

PCI_AD0/

HD0/

EM_D0

PCI_AD2/

HD2/

EM_D2

PCI_AD4/

HD4/

EM_D4

DD33

PCI_AD9/

HD9/

EM_D9

PCI_CBE0

ATA_CS0//

GP[33]/

EM_A[18]

PCI_AD6/

HD6/

EM_D6

PCI_AD3/

HD3/

EM_D3

PCI_AD1/

HD1/

EM_D1

PCI_AD13/

HD13/

EM_D13

PCI_AD15/

HD15/

EM_D15

PCI_AD11/

HD11/

EM_D11

PCI_PAR/

/HAS

EM_DQM0

PCI_IDSEL/

HDDIR/

EM_R/W

PCI_AD18/

DD2/

HD18/

EM_A[2]

PCI_TRDY/

HHWIL/

EM_A[16]/(ALE)

PCI_AD7/

HD7/

EM_D7

PCI_AD5/

HD5/

EM_D5

PCI_AD10/

HD10/

EM_D10

PCI_AD8/

HD8/

EM_D8

PCI_AD12/

HD12/

EM_D12

PCI_AD24/

DD8/

HD24/

EM_A[8]

PCI_AD20/

DD4/

HD20/

EM_A[4]

PCI_FRAME

HINT//

EM_BA[0]

PCI_STOP

EM_WE

HCNTL0/

PCI_AD26/

DD10/ HD26/

EM_A[10]

PCI_CBE2

HDS2

EM_CS2

PCI_CBE1

ATA_CS1//

GP[32]/

EM_A[19]

PCI_AD14/

HD14/

EM_D14

PCI_PERR

HCS

EM_DQM1

PCI_AD22/

DD6/

HD22/

EM_A[6]

PCI_AD16/

DD0/

HD16/

EM_A[0]

PCI_AD21/

DD5/

HD21/

EM_A[5]

PCI_AD29/

DD13/ HD29/

EM_A[13]

PCI_AD17/

DD1/

HD17/

EM_A[1]

PCI_SERR

HDS1

EM_OE

PCI_DEVSEL/

HCNTL1/

EM_BA[1]

PCI_AD25/

DD9/

HD25/

EM_A[9]

PCI_AD23/

DD7/

HD23/

EM_A[7]

PCI_AD31/

DD15/ HD31/

EM_A[15]

PCI_AD27/

DD11/ HD27/

EM_A[11]

PCI_CBE3

EM_CS3

HR/ /

PCI_AD19/

DD3/

HD19/

EM_A[3]

PCI_IRDY

HRDY//

EM_A[17]/(CLE)

RSV2RSV1

MTXD1 MTXD2

M M

DD33

MRXD5

DD33

MRXD0

DD33

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Figure 3-5. Pin Map [Section D]

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A B C

D E F

DD33

9 10

11 12 13 14 15 16

9 10 11 12 13 14 15 16

RSV7

TRST

TDI

GP[6]

TMS

AUX_CV

DEV_CV

DEV_DV

PCI_RSV3/

GP[19]/

EM_WAIT5/

(RDY5/ )

DIOR

BSY5

PCI_RSV1/

DA0/

GP[17]/

EM_A[20]

PCI_GNT

DMACK

EM_CS4

GP[12]/

PCI_AD28/

DD12/ HD28/

EM_A[12]

PCI_RSV5/

IORDY/

GP[21]/

EM_WAIT3/

(RDY3/ )BSY3

AUX_DV

DD18

DEV_DV

DD18

RSV5

TDO

AUX_DV

RTCK

PCI_RST/

DA2/

GP[13]/

EM_A[22]

PCI_AD30/

DD14/ HD30/

EM_A[14]

PCI_INTA

BSY2

EM_WAIT2/

(RDY2/ )

DEV_V

PLL1V

CLKOUT0

TCK

PCI_RSV2/

INTRQ/ GP[18]/

EM_RSV0

PCI_REQ

EM_CS5

DMARQ/

GP[11]/

GP[5]

PLL1V

DD18

EMU1

PLL2V

DEV_MXO

EMU0

GP[7]

PCI_RSV4/

GP[20]/

EM_WAIT4/

(RDY4/ )

DIOW

BSY4

PCI_CLK/

GP[10]

PCI_RSV0/

DA1/

GP[16]/

EM_A[21]

M M

DEV_MXI/

DEV_CLKIN

DD33

PLL2V

DD18

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Figure 3-6. Pin Map [Section E]

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DDR_A[2]

DDR_CLK

DDR_ZP

DDR_WE

DDR_CAS

DDR2

DDR_RAS

DDR2

DDR_A[11]

DDR_DQGATE0 DDR_CS DDR_DQGATE1 DDR_A[4] DDR_A[8]

DDR_D[7] DDR_A[13] DDR_D[15]

DDR_A[0]

DDR2

17 18

19 20 21 22 23

17 18 19 20 21 22 23

A B C

D E F

DDR2

DDR_D[4] DDR_D[6] DDR_D[13] DDR_D[14]

DDR_D[12]DDR_DQM[1]DDR_D[5]DDR_DQM[0]V

USB_V

DDA3P3

DDR_DQS[0]

DDR2

DDR_D[1]

DDR_D[11]USB_V

DD1P8

USB_

DDA1P2LDO

USB_R1POR

DDR_DQS[1]DDR_DQS[1]DDR_DQS[0]

DDR_D[2]

USB_V

SSREF

DDR_D[8]DDR_D[10]DDR_D[0]

DDR_D[3]

USB_

DRVVBUS/

GP[22]

DDR_D[9]

DDR2

RSV4RSV3USB_DNUSB_DPV

AUX_MXO

AUX_MXI/

AUX_CLKIN

RSV6

AUX_V

DDR_ODT0

DDR_A[6]

DDR_CLKDDR_ZN DDR_CKE

DDR_BA[1]

M M

DDR2

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Figure 3-7. Pin Map [Section F]

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3.7 Terminal Functions

The terminal functions tables (Table 3-5 through Table 3-32) identify the external signal names, the associated pin (ball) numbers along with the mechanical package designator, the pin type, whether the pin has any internal pullup or pulldown resistors, and a functional pin description. For more detailed information on device configuration, peripheral selection, multiplexed/shared pin, and see the Device Configurations section of this data manual.

SPRS605B–JULY 2009–REVISED JULY 2010

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Table 3-5. BOOT Terminal Functions

SIGNAL

NAME NO.

TYPE

(1)

ARM Boot Mode configuration bits. These pins are multiplexed between ARM boot mode and the Video Port Interface (VPIF). At reset, the boot mode inputs BTMODE[3:0] are sampled to determine the ARM boot configuration. See below the boot modes set by these inputs. For more details on the types of boot modes, see the Section 4.4.1, Boot Modes. After reset, these pins are Video port data outputs 3 through 0 (VP_DOUT[3:0]).

VP_DOUT0/ IPD

BTMODE0 DV

VP_DOUT1/ IPD

BTMODE1 DV

VP_DOUT2/ IPD

BTMODE2 DV

VP_DOUT3/ IPD

BTMODE3 DV

VP_DOUT4/ IPD

CS2BW DV

VP_DOUT5/ IPD

PCIEN DV

AB5 I/O/Z

AC4 I/O/Z

Y8 I/O/Z

AB6 I/O/Z 1110 SPI Boot

AA7 I/O/Z

AC6 I/O/Z

OTHER

(3)

DD33

(2)

DESCRIPTION

BOOT

BTMODE[3:0] ARM Boot Mode

0000 Emulation Boot (PCIEN = 0) 0001 Reserved

HPI Boot (16-Bit width) (if PCIEN = 0)

0010 or

PCI Boot without auto-initialization (if PCIEN = 1) HPI Boot (32-Bit width) (if PCIEN = 0)

0011 or

PCI Boot with auto-initialization (if PCIEN = 1)

0100

EMIFA Direct Boot (ROM/NOR) (PCIEN = 0) [error if PCIEN =

1; defaults to UART0] 0101 Reserved 0110 I2C Boot 0111 NAND Flash Boot (PCIEN = 0) [error if PCIEN = 1] 1000 UART0 Boot 1001 Reserved 1010 Reserved 1011 Reserved

1100 - 1101 Reserved

1111 Reserved

DEVICE CONTROL

EMIFA CS2 space data bus width. This pin is multiplexed between EMIFA control and the VPIF. At reset, the input state is sampled to set the EMIFA data bus width for the CS2 (boot) chip select region.

For an 8-bit-wide EMIFA data bus, CS2BW = 0. For a 16-bit-wide EMIFA data bus, CS2BW = 1.

After reset, this pin is video port data output 4 (VP_DOUT4). PCI Enable. This pin is multiplexed between PCI Control and the VPIF. At reset, the

input state is sampled to enable/disable the PCI interface pin multiplexing. Note: When PCI boot mode is not used, for proper device operation out of reset PCIEN must be "0".

0 = PCI pin function is disabled; EMIFA or HPI pin function enabled 1 = PCI pin function is enabled

After reset, this pin is video port data output 5 (VP_DOUT5).DSP boot source bit. This pin is multiplexed between DSP boot and the VPIF. At

reset, the input state is sampled to set the DSP boot source DSPBOOT.

VP_DOUT6/ IPD The DSP is booted by the ARM when DSPBOOT = 0.

DSPBOOT DV

AC5 I/O/Z

DD33

The DSP boots from EMIFA when DSPBOOT = 1 (and ARM HPI or PCI boot mode is not selected).

After reset, this pin is video port data output 6 (VP_DOUT6).

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal (2) IPD = Internal pulldown, IPU = Internal pullup. For more detailed information on pullup/pulldown resistors and situations where external

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

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Table 3-6. Oscillator/PLL Terminal Functions

SIGNAL

NAME NO.

DEV_MXI/

DEV_CLKIN

B15 I DEV_DV

DEV_MXO A15 O DEV_DV

DEV_DV

DEV_CV

DEV_V

DD18

AUX_MXI/ McASP1/0). If the internal oscillator is bypassed, this pin is the 1.8-V external

AUX_CLKIN oscillator clock input. When the peripheral is not used, AUX_MXI should be left as a

D15 S

E14 GND

E15 S

C15 GND

B17 I AUX_DV

AUX_MXO A17 O AUX_DV

AUX_DV

AUX_CV

AUX_V

PLL1V PLL2V

DD18

DD18 DD18

SS SS

D16 S

C16 GND

E16 S

C17 GND

B14 B16 C14 A16

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal (2) Specifies the operating I/O supply voltage for each signal (3) For more information, see the Recommended Operating Conditions table

TYPE

GND

(1)

OTHER

(2)

DESCRIPTION

OSCILLATOR, PLL

Crystal input DEV_MXI for DEV oscillator (system oscillator, between 27 MHz and 35 MHz, typically 33 MHz or 33.3 MHz). If the internal oscillator is bypassed, this pin

DD18

is the 1.8-V external oscillator clock input. Crystal output for DEV oscillator. If the internal oscillator is bypassed, DEV_MXO

DD18

should be left as a No Connect.

(3)

1.8-V power supply for DEV oscillator. If the internal oscillator is bypassed, DEV_DV

should still be connected to the 1.8-V power supply.

DD18

I/O ground for DEV oscillator. If the internal oscillator is bypassed, DEV_DV should be connected to ground VSS.

1.3-V power supply for DEV oscillator. If the internal oscillator is bypassed, DEV_CVDDshould be connected to the 1.3-V power supply (CVDD).

Ground for DEV oscillator. Connect to crystal load capacitors. Do not connect to board ground (VSS). If the internal oscillator is bypassed, DEV_VSSshould still be connected to ground VSS.

Crystal input for Auxiliary (AUX) oscillator (24/48 MHz for USB, and UART2/1/0 and

DD18

No Connect. Crystal output for AUX oscillator. If the internal oscillator is bypassed, AUX_MXO

should be left as a No Connect. When the peripheral is not used, AUX_MXO should

DD18

be left as a No Connect.

1.8-V power supply for AUX oscillator. If the internal oscillator is bypassed,

(3)

AUX_DV peripheral is not used, AUX_DV supply.

(3)

I/O ground for AUX oscillator. If the internal oscillator is bypassed, AUX_DV should be connected to ground (VSS). When the peripheral is not used, AUX_DV

should still be connected to the 1.8-V power supply. When the

DD18

should be connected to the 1.8-V power

DD18

should be connected to ground (VSS).

1.3-V power supply for AUX oscillator. If the internal oscillator is bypassed,

(3)

AUX_CVDDshould be connected to the 1.3-V power supply (CVDD). When the peripheral is not used, AUX_CVDDshould be connected to the 1.3-V power supply (CVDD).

Ground for AUX oscillator. Connect to crystal load capacitors. Do not connect to

(3)

board ground (VSS). If the internal oscillator is bypassed, AUX_VSSshould still be connected to ground (VSS). When the peripheral is not used, AUX_VSSshould be connected to ground (VSS).

(3)

1.8-V power supply for PLLs.

Ground for PLLs.

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Table 3-7. Clock Generator Terminal Functions

SIGNAL

NAME NO.

CLKOUT0 C13 O/Z DV

GP[3]/ IPD This pin is multiplexed between GPIO and the Audio Clock Selector. For the audio

AUDIO_CLK0 DV

GP[2]/ IPD This pin is multiplexed between GPIO and the Audio Clock Selector. For the audio

AUDIO_CLK1 DV

GP[4]/ IPD

STC_CLKIN DV

AB3 I/O/Z

AA4 I/O/Z

AC3 I/O/Z pin is the STC_CLKIN which can be used as an external clock source for the TSIF

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

(3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

DD33

(2) (3)

DESCRIPTION

CLOCK GENERATOR

Configurable output clock.

clock selector, this pin is the configurable AUDIO_CLK0 output.

clock selector, this pin is the configurable AUDIO_CLK1 output. This pin is multiplexed between GPIO and the TSIF Clock Selector. For TSIF, this

counters or as TSIF output clock.

Table 3-8. RESET and JTAG Terminal Functions

SIGNAL

NAME NO.

RESET W6 I Device reset.

POR D17 I Power-on reset.

TMS D12 I

TDO D13 O/Z JTAG test-port data output.

TDI E13 I JTAG test-port data input.

TCK B12 I JTAG test-port clock input.

RTCK C12 O/Z JTAG test-port return clock output.

TRST E12 I

EMU1 B13 I/O/Z Emulation pin 1

EMU0 A13 I/O/Z Emulation pin 0

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

(3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

RESET

IPU

DD33

IPU

DD33

JTAG

IPU JTAG test-port mode select input.

DD33

For proper device operation, do not oppose the IPU on this pin.

–

DD33

IPU

DD33

IPU

DD33

–

DD33

IPD JTAG test-port reset. For IEEE 1149.1 JTAG compatibility, see the IEEE 1149.1

DD33

JTAG compatibility statement portion of this data manual.

IPU

DD33

IPU

DD33

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Table 3-9. Asynchronous External Memory Interface (EMIFA) Terminal Functions

SIGNAL

NAME NO.

VP_DOUT4/ IPD

CS2BW DV

VP_DOUT6/ IPD

DSPBOOT DV

AA7 I/O/Z

AC5 I/O/Z The DSP is booted by the ARM when DSPBOOT = 0.

PCI_CBE2/

HDS2/ C4 I/O/Z

EM_CS2

PCI_CBE3/ This pin is multiplexed between PCI, HPI, and EMIFA.

HR/W A5 I/O/Z In EMIFA mode, this pin is Chip Select 3 output EM_CS3 (O/Z). Asynchronous

EM_CS3 memories (i.e., NOR Flash).

PCI_GNT/

DACK/ D10 I/O/Z

GP[12]/ EM_CS4

PCI_REQ/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DMARQ/ B9 I/O/Z In EMIFA mode, this pin is Chip Select 5 output EM_CS5 (O/Z).

GP[11]/ EM_CS5 This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_IDSEL/

HDDIR/ E8 I/O/Z

EM_R/W

PCI_SERR/

HDS1/ B2 I/O/Z

EM_OE

PCI_STOP/

HCNTL0/ D5 I/O/Z

EM_WE

PCI_PERR/

HCS/ C3 I/O/Z

EM_DQM1

PCI_PAR/

HAS/ D4 I/O/Z

EM_DQM0

PCI_INTA/ This pin is multiplexed between PCI and EMIFA.

EM_WAIT2/ C11 I/O/Z In EMIFA mode, this pin is wait state extension input 2 EM_WAIT2 (I).

(RDY2/BSY2) When used for EMIFA (NAND), this pin is the ready/busy 2 input (RDY2/BSY2).

PCI_RSV5/IORDY/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[21]/EM_WAIT3/ D11 I/O/Z In EMIFA mode, this pin is wait state extension input 3 EM_WAIT3 (I).

(RDY3/BSY3) When used for EMIFA (NAND), this pin is the ready/busy 3 input (RDY3/BSY3).

PCI_RSV4/DIOW/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[20]/EM_WAIT4/ A11 I/O/Z In EMIFA mode, this pin is wait state extension input 4 EM_WAIT4 (I).

(RDY4/BSY4) When used for EMIFA (NAND), this pin is the ready/busy 4 input (RDY4/BSY4).

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

EMIFA BOOT CONFIGURATION

EMIFA CS2 space data bus width. This pin is multiplexed between EMIFA control and the VPIF. At reset, the input state is sampled to set the EMIFA data bus width for the CS2 (boot) chip select region.

DD33

For an 8-bit-wide EMIFA data bus, CS2BW = 0. For a 16-bit-wide EMIFA data bus, CS2BW = 1.

After reset, this pin is video port data output 4 (VP_DOUT4). DSP boot source bit. This pin is multiplexed between DSP boot and the VPIF. At

reset, the input state is sampled to set the DSP boot source DSPBOOT.

DD33

The DSP boots from EMIFA when DSPBOOT=1. After reset, this pin is video port data output 6 (VP_DOUT6).

EMIFA FUNCTIONAL PINS: ASYNC

This pin is multiplexed between PCI, HPI, and EMIFA.

IPU In EMIFA mode, this pin is Chip Select 2 output EM_CS2 (O/Z). This is the chip

DD33

select used for EMIFA boot modes. Asynchronous memories (i.e., NOR Flash) or NAND flash.

IPU

DD33

This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

IPU In EMIFA mode, this pin is Chip Select 4 output EM_CS4 (O/Z). Asynchronous

DD33

memories (i.e., NOR Flash). This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

IPU

DD33

IPU This pin is multiplexed between PCI, ATA, and EMIFA.

DD33

In EMIFA mode, this pin is the read/write output EM_R/W (O/Z).

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In EMIFA mode, this pin is the output enable output EM_OE (O/Z).

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In EMIFA mode, this pin is the write enable output EM_WE (O/Z).

IPU

DD33

IPU

DD33

These pins are multiplexed between PCI, HPI, and EMIFA. In EMIFA mode, these pins are EM_DQM[1:0] and act as byte enables (O/Z).

IPU

DD33

IPU

DD33

IPU

DD33

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

(3) Specifies the operating I/O supply voltage for each signal

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Table 3-9. Asynchronous External Memory Interface (EMIFA) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_RSV3/DIOR/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[19]/EM_WAIT5/ E10 I/O/Z For EMIFA, this pin is wait state extension input 5 EM_WAIT5 (I).

(RDY5/BSY5) When used for EMIFA (NAND), this pin is the ready/busy 5 input (RDY5/BSY5).

PCI_FRAME/

HINT/ D6 I/O/Z

EM_BA[0]

PCI_DEVSEL/

HCNTL1/ B3 I/O/Z

EM_BA[1]

PCI_RSV2/INTRQ/ IPD

GP[18]/EM_RSV0 DV

B10 I/O/Z In EMIFA mode, this pin is reserved.

PCI_RST/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DA2/ C10 I/O/Z In EMIFA mode, this pin is address bit 22 output EM_A[22] (O/Z).

GP[13]/EM_A[22] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_RSV0/DA1/ IPD

GP[16]/EM_A[21] DV

PCI_RSV1/DA0/ IPD

GP[17]/EM_A[20] DV

A9 I/O/Z In EMIFA mode, this pin is address bit 21 output EM_A[21] (O/Z).

E9 I/O/Z In EMIFA mode, this pin is address bit 20 output EM_A[20] (O/Z).

PCI_CBE1/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

ATA_CS1/ C2 I/O/Z In EMIFA mode, this pin is address bit 19 output EM_A[19] (O/Z).

GP[32]/EM_A[19] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_CBE0/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

ATA_CS0/ F4 I/O/Z In EMIFA mode, this pin is address bit 18 output EM_A[18] (O/Z).

GP[33]/EM_A[18] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_IRDY/ This pin is multiplexed between PCI, HPI, and EMIFA.

HRDY/ A3 I/O/Z In EMIFA mode, this pin is address bit 17 output EM_A[17] (O/Z).

EM_A[17]/(CLE) When used for EMIFA (NAND), this pin is Command Latch Enable output (CLE).

PCI_TRDY/ This pin is multiplexed between PCI, HPI, and EMIFA.

HHWIL/ E6 I/O/Z For EMIFA, this pin is address bit 16 output EM_A[16] (O/Z).

EM_A[16]/(ALE) When used for EMIFA (NAND), this pin is Address Latch Enable output (ALE).

PCI_AD31/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD15/ A8 I/O/Z For EMIFA, this pin is address bit 15 output EM_A[15] (O/Z).

HD31/EM_A[15] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD30/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD14/ C9 I/O/Z For EMIFA, this pin is address bit 14 output EM_A[14] (O/Z).

HD30/EM_A[14] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD29/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD13/ B8 I/O/Z For EMIFA, this pin is address bit 13 output EM_A[13] (O/Z).

HD29/EM_A[13] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD28/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD12/ D9 I/O/Z For EMIFA, this pin is address bit 12 output EM_A[12] (O/Z).

HD28/EM_A[12] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD27/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD11/ A6 I/O/Z For EMIFA, this pin is address bit 11 output EM_A[11] (O/Z).

HD27/EM_A[11] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD26/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD10/ C8 I/O/Z For EMIFA, this pin is address bit 10 output EM_A[10] (O/Z).

HD26/EM_A[10] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD25/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD9/ B6 I/O/Z For EMIFA, this pin is address bit 9 output EM_A[9] (O/Z).

HD25/EM_A[9] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

IPU

DD33

This pin is multiplexed between PCI, HPI, and EMIFA. For EMIFA, this is the Bank Address 0 output EM_BA[0] (O/Z).

IPU When connected to a 16-bit asynchronous memory, this pin has the same

DD33

function as EMIF address pin 22 (EM_A[22]). When connected to an 8-bit asynchronous memory, this pin is the lowest order bit of the byte address.

This pin is multiplexed between PCI, HPI, and EMIFA. For EMIFA, this is the Bank Address 1 output EM_BA[1] (O/Z).

IPU When connected to a 16 bit asynchronous memory this pin is the lowest order bit

DD33

of the 16-bit word address. When connected to an 8-bit asynchronous memory, this pin is the second bit of the address.

This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

IPD

DD33

This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode). This pin is multiplexed between PCI ATA, GPIO, and EMIFA.

DD33

This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

IPU

DD33

IPU

DD33

IPU

DD33

IPU

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

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Table 3-9. Asynchronous External Memory Interface (EMIFA) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_AD24/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD8/ D8 I/O/Z For EMIFA, this pin is address bit 8 output EM_A[8] (O/Z).

HD24/EM_A[8] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD23/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD7/ B5 I/O/Z For EMIFA, this pin is address bit 7 output EM_A[7] (O/Z).

HD23/EM_A[7] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD22/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD6/ C7 I/O/Z For EMIFA, this pin is address bit 6 output EM_A[6] (O/Z).

HD22/EM_A[6] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD21/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD5/ C5 I/O/Z For EMIFA, this pin is address bit 5 output EM_A[5] (O/Z).

HD21/EM_A[5] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD20/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD4/ D7 I/O/Z For EMIFA, this pin is address bit 4 output EM_A[4] (O/Z).

HD20/EM_A[4] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD19/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD3/ A4 I/O/Z For EMIFA, this pin is address bit 3 output EM_A[3] (O/Z).

HD19/EM_A[3] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD18/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD2/ E7 I/O/Z For EMIFA, this pin is address bit 2 output EM_A[2] (O/Z).

HD18/EM_A[2] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD17/ This pin is multiplexed between PCI, ATA, HPI, and EMIFA.

DD1/ B4 I/O/Z For EMIFA, this pin is address bit 1 output EM_A[1] (O/Z).

HD17/EM_A[1] This signal is not available when ATA is enabled (i.e., EMIF NAND Flash mode).

PCI_AD16/

DD0/ C6 I/O/Z

HD16/EM_A[0]

TYPE

(1)

(2) (3)

OTHER

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

This pin is multiplexed between PCI, ATA, HPI, and EMIFA. For EMIFA, this pin is address bit 0 output EM_A[0] (O/Z), which is the least

IPD significant bit on a 32-bit word address.

DD33

When connected to a 16-bit asynchronous memory, this pin is the second bit of the address. For an 8-bit asynchronous memory, this pin is the third bit of the address.

DESCRIPTION

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Table 3-9. Asynchronous External Memory Interface (EMIFA) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_AD15/ IPD

HD15/EM_D15 DV

PCI_AD14/ IPD

HD14 /EM_D14 DV

PCI_AD13/ IPD

HD13/EM_D13 DV

PCI_AD12/ IPD

HD12/EM_D12 DV

PCI_AD11/ IPD

HD11/EM_D11 DV

PCI_AD10/ IPD

HD10/EM_D10 DV

PCI_AD9/ IPD

HD9/EM_D9 DV

PCI_AD8/ IPD

HD8/EM_D8 DV

PCI_AD7/ IPD

HD7/EM_D7 DV

PCI_AD6/ IPD

HD6/EM_D6 DV

PCI_AD5/ IPD

HD5/EM_D5 DV

PCI_AD4/ IPD

HD4/EM_D4 DV

PCI_AD3/ IPD

HD3/EM_D3 DV

PCI_AD2/ IPD

HD2/EM_D2 DV

PCI_AD1/ IPD

HD1/EM_D1 DV

PCI_AD0/ IPD

HD0/EM_D0 DV

E5 I/O/Z

C1 I/O/Z

E4 I/O/Z

D3 I/O/Z

E3 I/O/Z

D2 I/O/Z

F5 I/O/Z

D1 I/O/Z

E2 I/O/Z

F3 I/O/Z

E1 I/O/Z

G5 I/O/Z

F2 I/O/Z

G4 I/O/Z

F1 I/O/Z

G3 I/O/Z

PCI_IRDY/ This pin is multiplexed between PCI, HPI, and EMIFA.

HRDY/ A3 I/O/Z In EMIFA mode, this pin is address bit 17 output EM_A[17] (O/Z).

EM_A[17]/(CLE) When used for EMIFA (NAND), this pin is Command Latch Enable output (CLE).

PCI_TRDY/ This pin is multiplexed between PCI, HPI, and EMIFA.

HHWIL/ E6 I/O/Z For EMIFA, this pin is address bit 16 output EM_A[16] (O/Z).

EM_A[16]/(ALE) When used for EMIFA (NAND), this pin is Address Latch Enable output (ALE).

PCI_INTA/ This pin is multiplexed between PCI and EMIFA.

EM_WAIT2/ C11 I/O/Z In EMIFA mode, this pin is wait state extension input 2 EM_WAIT2 (I).

(RDY2/BSY2) When used for EMIFA (NAND), this pin is the ready/busy 2 input (RDY2/BSY2).

IORDY/ This pin is multiplexed between ATA, GPIO, and EMIFA.

GP[21]/EM_WAIT3/ D11 I/O/Z In EMIFA mode, this pin is wait state extension input 3 EM_WAIT3 (I).

(RDY3/BSY3) When used for EMIFA (NAND), this pin is the ready/busy 3 input (RDY3/BSY3).

DIOW/ This pin is multiplexed between ATA, GPIO, and EMIFA.

GP[20]/EM_WAIT4/ A11 I/O/Z In EMIFA mode, this pin is wait state extension input 4 EM_WAIT4 (I).

(RDY4/BSY4) When used for EMIFA (NAND), this pin is the ready/busy 4 input (RDY4/BSY4).

DIOR/ This pin is multiplexed between ATA, GPIO, and EMIFA.

GP[19]/EM_WAIT5/ E10 I/O/Z For EMIFA, this pin is wait state extension input 5 EM_WAIT5 (I).

(RDY5/BSY5) When used for EMIFA (NAND), this pin is the ready/busy 5 input (RDY5/BSY5).

PCI_SERR/

HDS1/ B2 I/O/Z

EM_OE

TYPE

(1)

(2) (3)

OTHER

DD33

DESCRIPTION

These pins are multiplexed between PCI, HPI, and EMIFA.

DD33

For EMIFA mode, these pins are the 16-bit bidirectional data bus (EM_D[15:0]) [I/O/Z]. When EMIFA is configured for an 8-bit asynchronous memory, only EM_D[7:0]

DD33

pins are used.

EMIFA FUNCTIONAL PINS: NAND

IPU

DD33

IPU

DD33

IPU

DD33

IPU

DD33

IPU

DD33

IPU

DD33

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In EMIFA mode, this pin is the output enable output EM_OE (O/Z).

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Table 3-9. Asynchronous External Memory Interface (EMIFA) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_STOP/

HCNTL0/ D5 I/O/Z

EM_WE

PCI_CBE2/

HDS2/ C4 I/O/Z

EM_CS2

PCI_CBE3/ This pin is multiplexed between PCI, HPI, and EMIFA.

HR/W A5 I/O/Z In EMIFA mode, this pin is Chip Select 3 output EM_CS3 (O/Z). Asynchronous

EM_CS3 memories (i.e., NOR Flash).

PCI_AD15/ IPD

HD15/EM_D15 DV

PCI_AD14/ IPD

HD14 /EM_D14 DV

PCI_AD13/ IPD

HD13/EM_D13 DV

PCI_AD12/ IPD

HD12/EM_D12 DV

PCI_AD11/ IPD

HD11/EM_D11 DV

PCI_AD10/ IPD

HD10/EM_D10 DV

PCI_AD9/ IPD

HD9/EM_D9 DV

PCI_AD8/ IPD

HD8/EM_D8 DV

PCI_AD7/ IPD

HD7/EM_D7 DV

PCI_AD6/ IPD

HD6/EM_D6 DV

PCI_AD5/ IPD

HD5/EM_D5 DV

PCI_AD4/ IPD

HD4/EM_D4 DV

PCI_AD3/ IPD

HD3/EM_D3 DV

PCI_AD2/ IPD

HD2/EM_D2 DV

PCI_AD1/ IPD

HD1/EM_D1 DV

PCI_AD0/ IPD

HD0/EM_D0 DV

E5 I/O/Z

C1 I/O/Z

E4 I/O/Z

D3 I/O/Z

E3 I/O/Z

D2 I/O/Z

F5 I/O/Z

D1 I/O/Z

E2 I/O/Z

F3 I/O/Z

E1 I/O/Z

G5 I/O/Z

F2 I/O/Z

G4 I/O/Z

F1 I/O/Z

G3 I/O/Z

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In EMIFA mode, this pin is the write enable output EM_WE (O/Z). This pin is multiplexed between PCI, HPI, and EMIFA.

IPU In EMIFA mode, this pin is Chip Select 2 output EM_CS2 (O/Z). This is the chip

DD33

select used for EMIFA boot modes. Asynchronous memories (i.e., NOR Flash) or NAND flash.

IPU

DD33

These pins are multiplexed between PCI, HPI, and EMIFA.

DD33

For EMIFA mode, these pins are the 16-bit bidirectional data bus (EM_D[15:0]) [I/O/Z]. When EMIFA is configured for an 8-bit asynchronous memory, only EM_D[7:0]

DD33

pins are used.

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Table 3-10. DDR2 Memory Controller Terminal Functions

SIGNAL

NAME NO.

DDR_CLK M23 O/Z DV DDR_CLK L23 O/Z DV

DDR_CKE M20 O/Z DV

DDR_CS J20 O/Z DV

DDR_WE L20 O/Z DV DDR_RAS K19 O/Z DV DDR_CAS L21 O/Z DV

DDR_DQM[3] V20 O/Z DV DDR_DQM[2] Y23 O/Z DV DDR_DQM[1] F22 O/Z DV DDR_DQM[0] F20 O/Z DV DDR_DQS[3] U20 I/O/Z DV DDR_DQS[2] V22 I/O/Z DV DDR_DQS[1] D22 I/O/Z DV

DDR_DQS[0] D21 I/O/Z DV

DDR_DQS[3] V21 I/O/Z DV DDR_DQS[2] W23 I/O/Z DV DDR_DQS[1] D23 I/O/Z DV

DDR_DQS[0] E20 I/O/Z DV

DDR_ODT0 K20 O/Z DV

DDR_BA[2] P19 DDR_BA[1] M21 O/Z DV DDR_BA[0] N19

DDR_A[14] N23 DDR_A[13] H21 DDR_A[12] P20 DDR_A[11] K23 DDR_A[10] T23

DDR_A[9] N22 DDR_A[8] J23 DDR_A[7] N20 O/Z DV DDR_A[6] M22 DDR_A[5] N21 DDR_A[4] J22 DDR_A[3] R22 DDR_A[2] L22 DDR_A[1] R23 DDR_A[0] H23

TYPE

(1)

OTHER

DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2 DDR2

DDR2

DDR2 DDR2 DDR2

DDR2

(2) (3)

DESCRIPTION

DDR2 Memory Controller

DDR2 Clock DDR2 Differential clock DDR2 Clock Enable DDR2 Active low chip select DDR2 Active low Write enable DDR2 Row Access Signal output DDR2 Column Access Signal output

DDR2 Data mask outputs DDR_DQM[3]: For upper byte data bus DDR_D[31:24] DDR_DQM[2]: For DDR_D[23:16] DDR_DQM[1]: For DDR_D[15:8] DDR_DQM[0]: For lower byte DDR_D[7:0]

Data strobe input/outputs for each byte of the 32-bit data bus. They are outputs to the DDR2 memory when writing and inputs when reading. They are used to synchronize the data transfers. DDR_DQS[3] : For upper byte DDR_D[31:24] DDR_DQS[2]: For DDR_D[23:16] DDR_DQS[1]: For DDR_D[15:8] DDR_DQS[0]: For bottom byte DDR_D[7:0]

Complimentary data strobe input/outputs for each byte of the 32-bit data bus. They are outputs to the DDR2 memory when writing and inputs when reading. They are used to synchronize the data transfers. DDR_DQS[3] : For upper byte DDR_D[31:24] DDR_DQS[2]: For DDR_D[23:16] DDR_DQS[1]: For DDR_D[15:8] DDR_DQS[0]: For bottom byte DDR_D[7:0]

DDR2 on-die termination control

Bank address outputs (BA[2:0]).

DDR2 address bus

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Table 3-10. DDR2 Memory Controller Terminal Functions (continued)

SIGNAL

NAME NO.

DDR_D[31] Y20 DDR_D[30] W20 DDR_D[29] Y21 DDR_D[28] AA21 DDR_D[27] U21 DDR_D[26] T21 DDR_D[25] R20 DDR_D[24] T20 DDR_D[23] AB22 DDR_D[22] Y22 DDR_D[21] AA22 DDR_D[20] AA23 DDR_D[19] V23 DDR_D[18] U23 DDR_D[17] T22 DDR_D[16] U22 DDR_D[15] H22 DDR_D[14] G23 DDR_D[13] G22 DDR_D[12] F23 DDR_D[11] E23 DDR_D[10] C22

DDR_D[9] B22 DDR_D[8] C23 DDR_D[7] H20 DDR_D[6] G21 DDR_D[5] F21 DDR_D[4] G20 DDR_D[3] B21 DDR_D[2] C20 DDR_D[1] D20

DDR_D[0] C21 DDR_DQGATE0 J19 O/Z DV DDR_DQGATE1 J21 I DV DDR_DQGATE2 R19 O/Z DV DDR_DQGATE3 R21 I DV

DDR_VREF P23 S

DDR_ZP L19 O

DDR_ZN M19 O

(4) For more information, see the Recommended Operating Conditions table

(1)

TYPE

OTHER

I/O/Z DV

DDR2

DDR2 DDR2 DDR2 DDR2

(4)

(2) (3)

DDR2 data bus can be configured as 32 bits wide or 16 bits wide.

DDR2 strobe gate signal for lower-half data bus DDR2 strobe gate signal return for lower-half data bus DDR2 strobe gate signal for upper-half data bus DDR2 strobe gate signal return for upper-half data bus

(4)

Reference voltage input for the SSTL_18 IO buffers.

Impedance control for DDR2 outputs. This must be connected via a 50-Ω (±5% tolerance) resistor to VSS.

Impedance control for DDR2 outputs. This must be connected via a 50-Ω (±5% tolerance) resistor to DV

DDR2

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DESCRIPTION

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Table 3-11. Peripheral Component Interconnect (PCI) Terminal Functions

SIGNAL

NAME NO.

Notes: When PCI boot mode is not used, for proper device operation out of reset PCIEN must be "0".

The PCI pin functions are enabled when PCIEN = 1 (PCI mode). This can be done via an external PU on the PCIEN pin (AC6) or by setting the PCIEN bit (bit 2) in the PINMUX0 register to a "1" after device reset. For more details on the PCIEN pin, see Table 3-5, Boot Terminal Functions.

In PCI mode (PCIEN = 1), the internal pullups/pulldowns (IPUs/IPDs) are disabled on all PCI pins and it is recommended to have external pullup resistors on the PCI_RSV[5:0] pins. For more detailed information on external pullup/pulldown resistors, see Section 4.8.1, Pullup/Pulldown Resistors.

Also in PCI mode (PCIEN = 1), the internal pulldowns (IPDs) are disabled on the GP[5:7] pins. It is recommended to have external pullup resistors on the GP[5] pin when PCIEN = 1 and on GP[6:7] pins when PCIEN = 1 and VADJEN = 0.

PCI_CLK/GP[10] A10 I/O/Z

PCI_RST /DA2/ [IPD] This pin is multiplexed between the PCI, ATA, GPIO, and EMIFA.

GP[13]/EM_A[22] DV

PCI_IDSEL/ [IPU]

HDDIR/EM_R/W DV

PCI_DEVSEL / [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HCNTL1/EM_BA[1] DV

PCI_FRAME / [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HINT/EM_BA[0] DV

PCI_IRDY /HRDY/ [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

EM_A[17]/(CLE) DV

PCI_ TRDY /HHWIL/ [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

EM_A[16]/(ALE) DV

PCI_STOP / [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HCNTL0/EM_WE DV

PCI_SERR / [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HDS1/EM_OE DV

PCI_PERR / [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HCS/EM_DQM1 DV

PCI_PAR/ [IPU] This pin is multiplexed between PCI, HPI, and EMIFA.

HAS/EM_DQM0 DV

C10 I/O/Z

E8 I/O/Z In PCI mode, this pin is the PCI initialization device select, PCI_IDSEL

B3 I/O/Z

D6 I/O/Z

A3 I/O/Z

E6 I/O/Z

D5 I/O/Z

B2 I/O/Z

C3 I/O/Z

D4 I/O/Z

PCI_INTA /

EM_WAIT2/ C11 I/O/Z

(RDY2/BSY2)

PCI_REQ /

DMARQ/ B9 I/O/Z

GP[11]/EM_CS5

PCI_GNT /

DMACK/ D10 I/O/Z

GP[12]/EM_CS4

PCI_CBE3 / [IPU]

HR/W/EM_CS3 DV

PCI_CBE2 / [IPU]

HDS2/EM_CS2 DV

A5 I/O/Z In PCI mode, this pin is the PCI command/byte enable 3, PCI_CBE3

C4 I/O/Z In PCI mode, this pin is the PCI command/byte enable 2, PCI_CBE2

PCI_CBE1 / This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

ATA_CS1/ C2 I/O/Z In PCI mode, this pin is the PCI command/byte enable 1 PCI_CBE1

GP[32]/EM_A[19] (I/O/Z).

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

PCI

[IPU] This pin is multiplexed between PCI and GPIO.

DD33

In PCI mode, this pin is the PCI clock input PCI_CLK (I).

In PCI mode, this pin is PCI reset PCI_RST (I). This pin is multiplexed between PCI, ATA, and EMIFA.

DD33

(I).

In PCI mode, this pin is the PCI device select, PCI_DEVSEL (I/O/Z).

In PCI mode, this pin is the PCI cycle frame, PCI_FRAME (I/O/Z).

In PCI mode, this pin is the PCI initiator ready, PCI_IRDY (I/O/Z).

In PCI mode, this pin is the PCI target ready, PCI_ TRDY (I/O/Z).

In PCI mode, this pin is the PCI stop, PCI_STOP (I/O/Z).

In PCI mode, this pin is the PCI system error, PCI_SERR (I/O/Z).

In PCI mode, this pin is the PCI parity error, PCI_PERR (I/O/Z).

In PCI mode, this pin is the PCI parity, PCI_PAR (I/O/Z).

[IPU] This pin is multiplexed between the PCI and EMIFA.

DD33

In PCI mode, this pin is the PCI interrupt A, PCI_INTA (O/Z).

[IPU] This pin is multiplexed between the PCI, ATA, GPIO, and EMIFA.

DD33

In PCI mode, this pin is the PCI bus request, PCI_REQ (O/Z).

[IPU] This pin is multiplexed between the PCI, ATA, GPIO, and EMIFA.

DD33

In PCI mode, this pin is PCI bus grant, PCI_GNT (I). This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

(I/O/Z). This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

(I/O/Z).

[IPU]

DD33

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

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Table 3-11. Peripheral Component Interconnect (PCI) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_CBE0 / This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

ATA_CS0/ F4 I/O/Z In PCI mode, this pin is the PCI command/byte enable 0 PCI_CBE0

GP[33]/EM_A[18] (I/O/Z).

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

[IPU]

DD33

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Table 3-11. Peripheral Component Interconnect (PCI) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_AD31/DD15/ [IPD]

HD31/EM_A[15] DV

PCI_AD30/DD14/ [IPD]

HD30/EM_A[14] DV

PCI_AD29/DD13/ [IPD]

HD29/EM_A[13] DV

PCI_AD28/DD12/ [IPD]

HD28/EM_A[12] DV

PCI_AD27/DD11/ [IPD]

HD27/EM_A[11] DV

PCI_AD26/DD10/ [IPD]

HD26/EM_A[10] DV PCI_AD25/DD9/ [IPD]

HD25/EM_A[9] DV

PCI_AD24/DD8/ [IPD]

HD24/EM_A[8] DV

PCI_AD23/DD7/ [IPD]

HD23/EM_A[7] DV

PCI_AD22/DD6/ [IPD]

HD22/EM_A[6] DV

PCI_AD21/DD5/ [IPD]

HD21/EM_A[5] DV

PCI_AD20/DD4/ [IPD]

HD20/EM_A[4] DV

PCI_AD19/DD3/ [IPD]

HD19/EM_A[3] DV

PCI_AD18/DD2/ [IPU]

HD18/EM_A[2] DV

PCI_AD17/DD1/ [IPD]

HD17/EM_A[1] DV

PCI_AD16/DD0/ [IPD]

HD16/EM_A[0] DV

PCI_AD15/ [IPD]

HD15/EM_D15 DV

PCI_AD14/ [IPD]

HD14/EM_D14 DV

PCI_AD13/ [IPD]

HD13/EM_D13 DV

PCI_AD12/ [IPD]

HD12/EM_D12 DV

PCI_AD11/ [IPD]

HD11/EM_D11 DV

PCI_AD10/ [IPD]

HD10/EM_D10 DV

PCI_AD9/ [IPU]

HD9/EM_D9 DV

PCI_AD8/ [IPD]

HD8/EM_D8 DV

A8 I/O/Z

C9 I/O/Z

B8 I/O/Z

D9 I/O/Z

A6 I/O/Z

C8 I/O/Z

B6 I/O/Z

D8 I/O/Z

B5 I/O/Z

C7 I/O/Z

C5 I/O/Z

D7 I/O/Z

A4 I/O/Z

E7 I/O/Z

B4 I/O/Z

C6 I/O/Z

E5 I/O/Z

C1 I/O/Z

E4 I/O/Z

D3 I/O/Z

E3 I/O/Z

D2 I/O/Z

F5 I/O/Z

D1 I/O/Z

TYPE

(1)

OTHER

DD33

(2) (3)

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DESCRIPTION

These pins are multiplexed between PCI, ATA, HPI, and EMIFA. In PCI mode, these pins are the PCI address/data bus, PCI_AD[31:16] (I/O/Z).

These pins are multiplexed between PCI, HPI, and EMIFA. For PCI, these pins are PCI data/address bus, PCI_AD [15:0] (I/O/Z).

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Table 3-11. Peripheral Component Interconnect (PCI) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_AD7/ [IPD]

HD7/EM_D7 DV

PCI_AD6/ [IPD]

HD6/EM_D6 DV

PCI_AD5/ [IPD]

HD5/EM_D5 DV

PCI_AD4/ [IPD]

HD4/EM_D4 DV

PCI_AD3/ [IPD]

HD3/EM_D3 DV

PCI_AD2/ [IPD]

HD2/EM_D2 DV

PCI_AD1/ [IPD]

HD1/EM_D1 DV

PCI_AD0/ [IPD]

HD0/EM_D0 DV

PCI_RSV0/DA1/ [IPD]

GP[16]/EM_A[21] DV

PCI_RSV1/DA0/ [IPD]

GP[17]/EM_A[20] DV

PCI_RSV2/INTRQ/ [IPD]

GP[18]/EM_RSV 0 DV

E2 I/O/Z

F3 I/O/Z

E1 I/O/Z

G5 I/O/Z

F2 I/O/Z

G4 I/O/Z

F1 I/O/Z

G3 I/O/Z

A9 I/O/Z PCI reserved (I)

E9 I/O/Z PCI reserved (O/Z)

B10 I/O/Z PCI reserved (I)

PCI_RSV3/DIOR/

GP[19]/ E10 I/O/Z PCI reserved (O/Z)

EM_WAIT5

PCI_RSV4/DIOW/

GP[20]/ A11 I/O/Z PCI reserved (I/O/Z)

EM_WAIT4

PCI_RSV5/IORDY/

GP[21]/ D11 I/O/Z PCI reserved (I/O/Z)

EM_WAIT3

(1) In PCI mode (PCIEN = 1), it is recommended to have an external pullup resistor on this pin.

TYPE

(1)

OTHER

DD33

(2) (3)

These pins are multiplexed between PCI, HPI, and EMIFA. For PCI, these pins are PCI data/address bus [15:0] (I/O/Z)

DD33

(1)

DD33

[IPU]

DD33

[IPU]

DD33

[IPU]

DD33

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Table 3-12. EMAC [G]MII and MDIO Terminal Functions

SIGNAL

NAME NO.

RFTCLK H1 I Gigabit (GMII) reference transmit clock (125 MHz)

GMTCLK P2 O/Z GMII source asynchronous transmit clock

MTCLK R1 I [G]MII transmit clock input MTXD7 P1

MTXD6 N4 MTXD5 N3 MTXD4 N2 MTXD3 N1 MTXD2 M4 MTXD1 M1 MTXD0 L1

MTXEN L2 O/Z [G]MII transmit data enable output

MCOL L4 I [G]MII collision detect (sense) input

MCRS L3 I [G]MII carrier sense input

MRCLK K1 I [G]MII receive clock MRXD7 K2

MRXD6 K3 MRXD5 K4 MRXD4 J1 MRXD3 J2 MRXD2 J3 MRXD1 H2 MRXD0 G2

MRXDV J4 I [G]MII receive data valid input

MRXER H3 I [G]MII receive data error input

MDCLK G1 O/Z Management data serial clock output

MDIO H4 I/O/Z Management Data IO

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

(3) Specifies the operating I/O supply voltage for each signal

TYPE

O/Z

(1)

OTHER

(2) (3)

DESCRIPTION

EMAC [G]MII

IPD

DD33

IPD

DD33

- [G]MII transmit data [7:0]. For 1000 GMII operation, MTXD[7:0] are used. For 10/100

DD33

MII operation, only MTXD[3:0] are used.

DD33

IPD

DD33

IPD

DD33

IPU

DD33

IPU [G]MII receive data [7:0]. For 1000 GMII operation, MRXD[7:0] are used. For 10/100

DD33

MII operation, only MRXD[3:0] are used.

IPU

DD33

IPU

DD33

MDIO

IPU

DD33

IPU

DD33

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Table 3-13. VLYNQ Terminal Functions

SIGNAL

NAME NO.

VLYNQ_CLOCK U1 I/O/Z VLYNQ serial clock

VLYNQ_SCRUN U2 I/O/Z VLYNQ serial clock run request

VLYNQ_TXD3 T3 VLYNQ_TXD2 T2 VLYNQ_TXD1 T1 VLYNQ_TXD0 R4 VLYNQ_RXD3 R3 VLYNQ_RXD2 R2 VLYNQ_RXD1 P3 VLYNQ_RXD0 P4

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors.

(3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2) (3)

VLYNQ

IPU

DD33

IPU

DD33

O/Z VLYNQ transmit bus [3:0]

I VLYNQ receive bus [3:0]

–

DD33

IPD

DD33

DESCRIPTION

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Table 3-14. HPI Terminal Functions

SIGNAL

NAME NO.

HPI is enabled by the PINMUX0.HPIEN =1 (and PCIEN = 0 and ATAEN dependent for 16-/32-bit modes). For more detailed information on the HPI pin muxing, see Section 4.7.3.1, PCI, HPI, EMIFA, and ATA Pin Muxing.

PCI_PERR/

HCS / C3 I/O/Z

EM_DQM1

PCI_STOP/

HCNTL0/ D5 I/O/Z

EM_WE

PCI_DEVSEL/

HCNTL1/ B3 I/O/Z

EM_BA[1]

PCI_PAR/ HAS / IPU In HPI mode, this pin is the HPI address strobe, HAS (I).

EM_DQM0 DV

PCI_SERR/ IPU This pin is multiplexed between PCI, HPI, and EMIFA.

HDS1 /EM_OE DV

PCI_CBE2/ IPU This pin is multiplexed between PCI, HPI, and EMIFA.

HDS2 /EM_CS2 DV

PCI_CBE3/ IPU This pin is multiplexed between PCI, HPI, and EMIFA.

HR/W /EM_CS3 DV

D4 I/O/Z

B2 I/O/Z

C4 I/O/Z

A5 I/O/Z

PCI_TRDY/

HHWIL/ E6 I/O/Z

EM_A[16]/(ALE)

PCI_AD31/

DD15/ A8

HD31/EM_A[15]

PCI_AD30/

DD14/ C9

HD30/EM_A[14]

PCI_AD29/

DD13/ B8

HD29/EM_A[13]

PCI_AD28/

DD12/ D9

HD28/EM_A[12]

PCI_AD27/

DD11/ A6

HD27/EM_A[11]

PCI_AD26/

DD10/ C8

HD26/ EM_A[10]

PCI_AD25/

DD9/ B6

HD25/EM_A[9]

PCI_AD24/

DD8/ D8

HD24/EM_A[8]

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

Host-Port Interface (HPI)

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In HPI mode, this pin is the HPI active-low chip select input, HCS (I).

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In HPI mode, this pin is the HPI control input 0, HCNTL0 (I)

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In HPI mode, this pin is the HPI control input 1, HCNTL1 (I). This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

NOTE: The DM6467T HPI does not support the HAS feature. For proper HPI operation if the pin is routed out, it must be pulled up via an external resistor.

In HPI mode, this pin is the HPI data strobe input 1, HDS1 (I).

In HPI mode, this pin is the HPI data strobe input 2, HDS2 (I).

In HPI mode, this pin is the HPI host read/write select input, HR/W (I).

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

I/O/Z In HPI-32 mode, these pins are the HPI upper data bus, HD[31:16] (I/O/Z).

IPD

DD33

In HPI mode, this pin is the HPI half-word identification input control, HHWIL (I).

These pins are multiplexed between PCI, ATA, HPI, and EMIFA. In HPI-16 mode, the HD[31:16] pins are not used by the HPI .

(1) IPD = Internal pulldown, IPU = Internal pullup. For more detailed information on pullup/pulldown resistors and situations where external

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (2) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal (3) Specifies the operating I/O supply voltage for each signal

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SIGNAL

NAME NO.

PCI_AD23/

DD7/ B5

HD23/EM_A[7]

PCI_AD22/

DD6/ C7

HD22/EM_A[6]

PCI_AD21/

DD5/ C5

HD21/EM_A[5]

PCI_AD20/

DD4/ D7

HD20/EM_A[4]

PCI_AD19/

DD3/ A4

HD19/EM_A[3]

PCI_AD18/

DD2/ E7

HD18/EM_A[2]

PCI_AD17/

DD1/ B4

HD17/EM_A[1]

PCI_AD16/

DD0/ C6

HD16/EM_A[0]

PCI_AD15/

HD15/EM_D15

PCI_AD14/

HD14/EM_D14

PCI_AD13/

HD13/EM_D13

PCI_AD12/

HD12/EM_D12

PCI_AD11/

HD11/EM_D11

PCI_AD10/

HD10/EM_D10

PCI_AD9/

HD9/EM_D9

PCI_AD8/

HD8/EM_D8

PCI_AD7/

HD7/EM_D7

PCI_AD6/

HD6/EM_D6

PCI_AD5/

HD5/EM_D5

PCI_AD4/

HD4/EM_D4

PCI_AD3/

HD3/EM_D3

PCI_AD2/

HD2/EM_D2

PCI_AD1/

HD1/EM_D1

PCI_AD0/

HD0/EM_D0

SPRS605B–JULY 2009–REVISED JULY 2010

Table 3-14. HPI Terminal Functions (continued)

(1)

TYPE

I/O/Z In HPI-32 mode, these pins are the HPI upper data bus, HD[31:16] (I/O/Z).

I/O/Z In HPI-16 mode, these pins are the HPI data bus, HD[15:0] (I/O/Z).

OTHER

IPD

DD33

(2) (3)

DESCRIPTION

These pins are multiplexed between PCI, ATA, HPI, and EMIFA. In HPI-16 mode, the HD[31:16] pins are not used by the HPI .

These pins are multiplexed between PCI, HPI, and EMIFA. In HPI-32 mode, these pins are the HPI lower data bus, HD[15:0] (I/O/Z).

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Table 3-14. HPI Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_IRDY/

HRDY / A3 I/O/Z

EM_A[17]/(CLE)

PCI_FRAME/ IPU This pin is multiplexed between PCI, HPI, and EMIFA.

HINT /EM_BA[0] DV

D6 I/O/Z

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

IPU This pin is multiplexed between PCI, HPI, and EMIFA.

DD33

In HPI mode, this pin is the HPI host ready output from DSP to host, HRDY (O/Z).

In HPI mode, this pin is the HPI host interrupt output, HINT (O/Z).

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Table 3-15. USB Terminal Functions

SIGNAL

NAME NO.

TYPE

(1)

USB_DP A19 A I/O USB bidirectional Data Differential signal pair [positive/negative]. USB_DN A20 A I/O

USB_R1 D18 A I/O

USB_DRVVBUS/ IPD When this pin is used as USB_DRVVBUS (PINMUX0.VBUSDIS = 0), and the USB

GP[22] DV

USB_V

SSREF

USB_V

DDA3P3

USB_V

DD1P8

USB_V

DDA1P2LDO

B18 I/O/Z

C18 GND

F18 S

E18 S

E17 S

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal (4) For more information, see the Recommended Operating Conditions table

OTHER

(4)

DD33

(2) (3)

DESCRIPTION

USB 2.0

When the USB peripheral is not used, the USB_DP signal should be pulled up (high) and the USB_DN signal should be pulled down (low) via a 10-kΩ resistor.

USB current reference output. When the USB peripheral is used, this pin must be connected via a 10-kΩ ±1% resistor to USB_V When the USB peripheral is not used, this pin must be connected via a 10-kΩ resistor to USB_V

SSREF

This pin is multiplexed between USB and GPIO. Controller is operating as a Host (USBCTL.USBID = 0 and Session is in progress),

this signal is used by the USB Controler to enable the external VBUS charge pump. Ground for reference current. This pin must be connected via a 10-kΩ ±1% resistor

to USB_R1. When the USB peripheral is not used, the USB_V to VSS.

signal should be connected

SSREF

Analog 3.3 V power supply for USB PHY. When the USB peripheral is not used, the USB_V connected to DV

DD33

DDA3P3

signal should be

1.8-V I/O power supply for USB PHY. When the USB peripheral is not used, the USB_V to 1.8-V power supply.

signal should be connected

DD1P8

Core power supply LDO output for USB PHY. This pin must be connected via a 1-mF capacitor to VSS. When the USB peripheral is not used, the USB_V connected via a 1-mF capacitor to VSS.

DDA1P2LDO

signal should still be

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Table 3-16. Video-Port Interface (VPIF) Terminal Functions

SIGNAL

NAME NO.

VP_CLKIN0 AC13 I VPIF capture channel 0 input clock (I).

VP_CLKIN1 AB18 I VPIF capture channel 1 input clock (I).

VP_DIN15_VP_VSYNC/ IPD

TS0_DIN7 DV

VP_DIN14_VP_HSYNC/ IPD

TS0_DIN6 DV

VP_DIN13_FIELD/ IPD

TS0_DIN5 DV

VP_DIN12/

TS0_DIN4

VP_DIN11/

TS0_DIN3

VP_DIN10/ IPD These pins are multiplexed between the VPIF and TSIF0.

TS0_DIN2 DV

VP_DIN9/

TS0_DIN1

VP_DIN8/

TS0_DIN0

AC18 I When used for the VPIF, this pin is capture data bit 15 or the vertical sync

AA17 I When used for the VPIF, this pin is capture data bit 14 or the horizontal sync

AB17 I When used for the VPIF, this pin is capture data bit 13 or the field indicator

AC17

Y16

AA16 I

AB16

AC16

VP_DIN7/

TS0_DOUT7/ Y14

TS1_DIN

VP_DIN6/

TS0_DOUT6/ AA14

TS1_PSTIN

VP_DIN5/

TS0_DOUT5/ AB14

TS1_EN_WAITO

VP_DIN4/

TS0_DOUT4/ AC14

TS1_WAITO

VP_DIN3/

TS0_DOUT3

VP_DIN2/

TS0_DOUT2

VP_DIN1/

TS0_DOUT1

VP_DIN0/

TS0_DOUT0

Y15

AA15

AB15

AC15

VP_CLKIN2 Y10 I VPIF display channel 2 source input clock (I).

VP_CLKIN3/ IPD

TS1_CLKO DV

AC9 I/O/Z When used for VPIF, this pin is display channel 3 source clock, VP_CLKIN3

VP_CLKO2 AA9 O/Z VPIF display channel 2 output clock (O/Z).

TYPE

I/O/Z

(1)

OTHER

(2) (3)

VIDEO-PORT INTERFACE (VPIF) – CAPTURE

IPD

DD33

IPD

DD33

This pin is multiplexed between the VPIF and TSIF0.

DD33

input, VP_DIN15_VSYNC (I). This pin is multiplexed between the VPIF and TSIF0.

DD33

input, VP_DIN14_HSYNC (I). This pin is multiplexed between the VPIF and TSIF0.

DD33

input, VP_DIN13_FIELD (I).

When used for the VPIF, these pins are capture data bits, VP_DIN[12:8] (I).

IPD These pins are multiplexed between the VPIF, TSIF0, and TSIF1.

DD33

When used for the VPIF, these pins are capture data bits, VP_DIN[7:4] (I).

IPD These pins are multiplexed between the VPIF and TSIF0.

DD33

When used for the VPIF, these pins are capture data bits, VP_DIN[3:0] (I).

VIDEO-PORT INTERFACE (VPIF) – DISPLAY

IPD

DD33

This pin is multiplexed between the VPIF and TSIF1.

DD33

(I).

DD33

DESCRIPTION

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Table 3-16. Video-Port Interface (VPIF) Terminal Functions (continued)

SIGNAL

NAME NO.

VP_CLKO3/ -

TS0_CLKO DV

VP_DOUT15/

TS1_DIN

VP_DOUT14/

TS1_PSTIN

VP_DOUT13/

TS1_EN_WAITO

VP_DOUT12/

TS1_WAITO

VP_DOUT11/

TS1_DOUT

VP_DOUT10/

TS1_PSTO

VP_DOUT9/

TS1_ENAO

VP_DOUT8/

TS1_WAITIN

VP_DOUT7 AB7 O/Z

VP_DOUT6/

DSPBOOT

VP_DOUT5/

PCIEN

VP_DOUT4/

CS2BW

VP_DOUT3/ IPD

BTMODE3 DV

VP_DOUT2/

BTMODE2

VP_DOUT1/

BTMODE1

VP_DOUT0/

BTMODE0

TYPE

AC10 O/Z When used for VPIF, this pin is the display channel 3 output clock,

AB8 I/O/Z

AC7 I/O/Z

Y9 I/O/Z

AA8 I/O/Z

AB10 O/Z

AA10 O/Z

AC8 O/Z

AB9 O/Z

AC5

AC6

AA7

AB6 I/O/Z After reset, these pins are used by the VPIF as display data bits,

AC4

AB5

(1)

OTHER

IPD

DD33

SPRS605B–JULY 2009–REVISED JULY 2010

(2) (3)

DESCRIPTION

This pin is multiplexed between the VPIF and TSIF0. VP_CLKO3 (O/Z).

These pins are multiplexed between the VPIF and TSIF1. When used for the VPIF, these pins are display data bits, VP_DOUT[15:8] (O/Z).

This pin is video display data bit 7, VP_DOUT[7] (O/Z). Note: For proper device operation, do not oppose the IPD resistor on this

pin at reset (i.e., this pin should be low at the rising edge of RESET or POR).

These pins are multiplexed between the VPIF and boot configuration. VP_DOUT[6:0] (O/Z).

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Table 3-17. Transport Stream Interface 0 (TSIF0) Terminal Functions

SIGNAL

NAME NO.

TS0_CLKIN AC19 I TSIF0 receive clock input (I).

UCTS1/USD1/

TS0_EN_WAITO/ Y17 I/O/Z

GP[26]

URTS1/UIRTX1/ IPU When TSIF0 input is enabled (PINMUX0.PTSIMUX = 1x), in asynchronous

TS0_WAITO/GP[25] DV

URTS2/UIRTX2/ IPU

TS0_PSTIN/GP[41] DV

VP_DIN15_VP_VSYNC/

TS0_DIN7

VP_DIN14_VP_HSYNC/

TS0_DIN6

VP_DIN13_FIELD/

TS0_DIN5

VP_DIN12/

TS0_DIN4

VP_DIN11/

TS0_DIN3

VP_DIN10/

TS0_DIN2

VP_DIN9/

TS0_DIN1

VP_DIN8/

TS0_DIN0

AA18 I/O/Z

AC20 I/O/Z When TSIF0 input is enabled (PINMUX0.PTSIMUX = 1x), this pin is the

AC18

AA17

AB17

AC17

Y16

AA16

AB16

AC16

TS0_CLKIN AC19 I TSIF0 receive clock input (I).

UCTS1/USD1/

TS0_EN_WAITO/ Y17 I/O/Z

GP[26]

URTS2/UIRTX2/ IPU When TSIF0 input is enabled (PINMUX0.PTSIMUX = 1x), in

TS0_PSTIN/GP[41] DV

URXD1/ IPD When TSIF0 serial input mux mode is enabled (PINMUX0.PTSIMUX = 11), in

TS0_DIN7/GP[23] DV

AC20 I/O/Z

Y18 I/O/Z

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

TSIF0 PARALLEL INPUT (PINMUX0.PTSIMUX = 10)

IPD

DD33

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When TSIF0 input is enabled (PINMUX0.PTSIMUX = 1x), in synchronous

DD33

mode, this pin is the data enable indicator (I) or in asynchronous mode, this pin is the wait output (O/Z), TS0_EN_WAITO.

This pin is multiplexed between UART1, TSIF0, and GPIO.

DD33

mode, this pin is the wait output, TS0_WAITO (O/Z). This TSIF pin function is not used in synchronous mode.

This pin is multiplexed between UART2, TSIF0, and GPIO.

DD33

I/O/Z When TSIF0 parallel input mux mode is enabled (PINMUX0.PTSIMUX = 10),

IPD

DD33

packet start input indicator, TS0_PSTIN (I).

These pins are multiplexed between the VPIF and TSIF0. these pins are input data bits TS0_DIN[7:0] (I).

TSIF0 SERIAL INPUT (PINMUX0.PTSIMUX = 11)

IPD

DD33

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When TSIF0 input is enabled (PINMUX0.PTSIMUX = 1x), in synchronous

DD33

mode, this pin is the data enable indicator (I) or in asynchronous mode, this pin is the wait output (O/Z), TS0_EN_WAITO.

This pin is multiplexed between UART2, TSIF0, and GPIO.

DD33

synchronous/asynchronous modes, this pin is the packet start input indicator, TS0_PSTIN (I).

This pin is multiplexed between UART1, TSIF0, and GPIO.

DD33

synchronous/asynchronous modes, this pin is the serial input data bit (I), TS0_DIN7(I).

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Table 3-17. Transport Stream Interface 0 (TSIF0) Terminal Functions (continued)

SIGNAL

NAME NO.

VP_CLKO3/ -

TS0_CLKO DV

UDTR0/ IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

TS0_ENAO/GP[36] DV

AC10 O/Z When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

Y12 I/O/Z

UDSR0/

TS0_PSTO/ AB11 I/O/Z

GP[37]

UDCD0/

TS0_WAITIN/ AA11 I/O/Z

GP[38]

VP_DIN7/

TS0_DOUT7/ Y14

TS1_DIN

VP_DIN6/

TS0_DOUT6/ AA14

TS1_PSTIN

VP_DIN5/

TS0_DOUT5/ AB14

TS1_EN_WAITO

VP_DIN4/

TS0_DOUT4/ AC14

TS1_WAITO

VP_DIN3/

TS0_DOUT3

VP_DIN2/

TS0_DOUT2

VP_DIN1/

TS0_DOUT1

VP_DIN0/

TS0_DOUT0

VP_CLKO3/ -

TS0_CLKO DV

UDTR0/ IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

TS0_ENAO/GP[36] DV

UDSR0/ IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

TS0_PSTO/GP[37] DV

UDCD0/ IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), in asynchronous

TS0_WAITIN/GP[38] DV

UTXD1/URCTX1/ IPD When serial TSIF0 output is enabled (PINMUX0.PTSOMUX = 11), in

TS0_DOUT7/GP[24] DV

Y15

AA15

AB15

AC15

AC10 O/Z When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

Y12 I/O/Z

AB11 I/O/Z

AA11 I/O/Z

AB19 I/O/Z

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

TSIF0 PARALLEL OUTPUT (PINMUX0.PTSIMUX = 10)

This pin is multiplexed between the VPIF and TSIF0.

DD33

transmit clock output, TS0_CLKO (O/Z). This pin is multiplexed between UART0, TSIF0, and GPIO.

DD33

data enable indicator, TS0_ENAO (O/Z) in either synchronous/asynchronous modes.

This pin is multiplexed between UART0, TSIF0, and GPIO.

IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), this pin is the

DD33

packet start output indicator, TS0_PSTO (O/Z) in either synchronous/asynchronous modes.

This pin is multiplexed between UART0, TSIF0, and GPIO.

IPU When TSIF0 output is enabled (PINMUX0.PTSOMUX = 1x), in asynchronous

DD33

mode, this pin is the wait input, TS0_WAITIN (I). This TSIF pin function is not used in synchronous mode.

These pins are multiplexed between the VPIF, TSIF0, and TSIF1. When parallel TSIF0 output is enabled (PINMUX0.PTSOMUX = 10), and

the output data bits TS0_DOUT[7:4] (O/Z) in either

I/O/Z TSIF1 VPIF_DIN muxing is not enabled (TSSI_MUX ≠ 11), these pins are

IPD

DD33

synchronous/asynchronous modes.

These pins are multiplexed between the VPIF and TSIF0.

I/O/Z

IPD When parallel TSIF0 output is enabled (PINMUX0.PTSOMUX = 10), these

DD33

pins are the output data bits TS0_DOUT[3:0] (O/Z) in either synchronous/asynchronous modes.

TSIF0 SERIAL OUTPUT (PINMUX0.PTSIMUX = 11)

This pin is multiplexed between the VPIF and TSIF0.

DD33

transmit clock output, TS0_CLKO (O/Z). This pin is multiplexed between UART0, TSIF0, and GPIO.

DD33

data enable indicator, TS0_ENAO (O/Z) in either synchronous/asynchronous modes.

This pin is multiplexed between UART0, TSIF0, and GPIO.

DD33

packet start output indicator, TS0_PSTO (O/Z) in either synchronous/asynchronous modes.

This pin is multiplexed between UART0, TSIF0, and GPIO.

DD33

mode, this pin is the wait input, TS0_WAITIN (I). This TSIF pin function is not used in synchronous mode.

This pin is multiplexed between UART1, TSIF0, and GPIO.

DD33

synchronous/asynchronous modes, this pin is the serial output data bit, TS0_DOUT[7] (O/Z).

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Table 3-18. Transport Stream Interface 1 (TSIF1) Terminal Functions

SIGNAL

NAME NO.

TS1_CLKIN AC11 I TSIF1 receive clock input (I).

URXD0/ IPD

TS1_DIN DV

URTS0/UIRTX0/ IPU When TSIF1 input on UART0 muxing is enabled (PINMUX0.TSSIMUX = 01), in

TS1_EN_WAITO DV

UTXD0/URCTX0/ IPD

TS1_PSTIN DV

AB13 I When TSIF1 input on UART0 muxing is enabled (PINMUX0.TSSIMUX = 01), this

AA13 I/O/Z

Y13 I/O/Z When TSIF1 input on UART0 muxing is enabled (PINUMX0.TSSIMUX = 01), this

TS1_CLKIN AC11 I TSIF1 receive clock input (I).

VP_DOUT15/ IPD

TS1_DIN DV

VP_DOUT13/ IPD When TSIF1 input on VPIF DOUT muxing is enabled (PINMUX0.TSSIMUX = 10), in

TS1_EN_WAITO DV

VP_DOUT14/ IPD When TSIF1 input on VPIF DOUT muxing is enabled (PINMUX0.TSSIMUX = 10), in

TS1_PSTIN DV

AB8 I/O/Z When TSIF1 input on VPIF DOUT muxing is enabled (PINMUX0.TSSIMUX = 10),

Y9 I/O/Z

AC7 I/O/Z

TS1_CLKIN AC11 I TSIF1 receive clock input (I).

VP_DIN7/ This pin is multiplexed between VPIF, TSIF0, and TSIF1.

TS0_DOUT7/ Y14 I/O/Z When TSIF1 input on VPIF DIN muxing is enabled (PINMUX0.TSSIMUX = 11), in

TS1_DIN synchronous/asynchronous modes, this pin is the serial data input, TS1_DIN (I).

VP_DIN5/

TS0_DOUT5/ AB14 I/O/Z

TS1_EN_WAITO

VP_DIN6/

TS0_DOUT6/ AA14 I/O/Z

TS1_PSTIN

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

TSIF1 INPUT – UART0 MUXING (PINMUX0.TSSIMUX = 01)

IPD

DD33

This pin is multiplexed between UART0 and TSIF1.

DD33

pin is the serial data input, TS1_DIN (I). This pin is multiplexed between UART0 and TSIF1.

DD33

synchronous mode, this pin is the data enable indicator (I) or in asynchronous mode, this pin is the wait output, TS1_EN_WAITO (O/Z).

This pin is multiplexed between UART0 and TSIF1.

DD33

pin is the packet start indicator, TS1_PSTIN (I).

TSIF1 INPUT – VPIF DOUT MUXING (PINMUX0.TSSIMUX = 10)

IPD

DD33

This pin is multiplexed between VPIF and TSIF1.

DD33

this pin is the serial data input, TS1_DIN (I). This pin is multiplexed between VPIF and TSIF1.

DD33

synchronous mode, this pin is the data enable indicator (I) or in asynchronous mode, this pin is the wait output, TS1_EN_WAITO (O/Z).

This pin is multiplexed between VPIF and TSIF1.

DD33

synchronous/asynchronous modes, this pin is the packet start indicator, TS1_PSTIN (I).

TSIF1 INPUT – VPIF DIN MUXING (PINMUX0.TSSIMUX = 11)

IPD

DD33

IPD

DD33

This pin is multiplexed between VPIF, TSIF0, and TSIF1.

IPD When TSIF1 input on VPIF DIN muxing is enabled (PINMUX0.TSSIMUX = 11), in

DD33

synchronous mode, this pin is the data enable indicator (I) or in asynchronous mode, this pin is the wait output, TS1_EN_WAITO (O/Z).

This pin is multiplexed between VPIF, TSIF0, and TSIF1.

IPD When TSIF1 input on VPIF DIN muxing is enabled (PINMUX0.TSSIMUX = 11), in

DD33

synchronous/asynchronous modes, this pin is the packet start indicator, TS1_PSTIN (I).

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Table 3-18. Transport Stream Interface 1 (TSIF1) Terminal Functions (continued)

SIGNAL

NAME NO.

VP_CLKIN3/ IPD When TSIF1 output is enabled (PINMUX0.TSSOMUX = 1x), in

TS1_CLKO DV

VP_DOUT11/ IPD When TSIF1 output on VPIF DOUT muxing is enabled (PINMUX0.TSSOMUX = 10),

TS1_DOUT DV

VP_DOUT9/ IPD When TSIF1 output on VPIF DOUT muxing is enabled (PINMUX0.TSSOMUX = 10),

TS1_ENAO DV

VP_DOUT10/ IPD When TSIF1 output on VPIF DOUT muxing is enabled (PINMUX0.TSSOMUX = 10),

TS1_PSTO DV

VP_DOUT8/ IPD When TSIF1 output on VPIF DOUT muxing is enabled (PINMUX0.TSSOMUX = 10),

TS1_WAITIN DV

VP_CLKIN3/ IPD When TSIF1 output is enabled (PINMUX0.TSSOMUX = 1x), in

TS1_CLKO DV

PWM1/ - When TSIF1 output on UART/PWM is enabled (PINMUX0.TSSOMUX = 11), in

TS1_DOUT DV

AC9 I/O/Z

AB10 I/O/Z

AC8 I/O/Z

AA10 I/O/Z

AB9 I/O/Z

AC9 I/O/Z

W18 I/O/Z

PWM0/

CRG0_PO/ W17 O/Z

TS1_ENAO

UCTS2/USD2/ This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1.

CRG0_VCX1/ IPU When TSIF1 output on UART/PWM is enabled (PINMUX0.TSSOMUX = 11), in

GP[42]/ DV

AC21 I/O/Z

TS1_PSTO TS1_PSTO (O/Z).

URIN0/GP[8]/ IPD When TSIF1 output on UART/PWM is enabled (PINMUX0.TSSOMUX = 11), in

TS1_WAITIN DV

Y11 I/O/Z

TYPE

(1)

OTHER

(2) (3)

TSIF1 OUTPUT – VPIF DOUT MUXING (PINMUX0.TSSOMUX = 10)

This pin is multiplexed between the VPIF and TSIF1.

DD33

synchronous/asynchronous modes, this pin is the transmit clock output, TS1_CLKO (O/Z).

This pin is multiplexed between the VPIF and TSIF1.

DD33

in synchronous/asynchronous modes, this pin is the serial data output, TS1_DOUT (O/Z).

This pin is multiplexed between the VPIF and TSIF1.

DD33

in synchronous/asynchronous modes, this pin is the data enable indicator, TS1_ENAO (O/Z).

This pin is multiplexed between the VPIF and TSIF1.

DD33

in synchronous/asynchronous modes, this pin is the packet start indicator output, TS1_PSTO (O/Z).

This pin is multiplexed between the VPIF and TSIF1.

DD33

in asynchronous mode, this pin is the wait indicator input, TS1_WAITIN (I). This TSIF pin function is not used in synchronous mode.

TSIF1 OUTPUT – UART/PWM MUXING (PINMUX0.TSSOMUX = 11)

This pin is multiplexed between the VPIF and TSIF1.

DD33

synchronous/asynchronous modes, this pin is the transmit clock output, TS1_CLKO (O/Z).

This pin is multiplexed between PWM1 and TSIF1.

DD33

synchronous/asynchronous modes, this pin is the serial data output, TS1_DOUT (O/Z).

This pin is multiplexed between PWM0, CRGEN0, and TSIF1.

- When TSIF1 output on UART/PWM is enabled (PINMUX0.TSSOMUX = 11), in

DD33

synchronous/asynchronous modes, this pin is the data enable indicator output, TS1_ENAO (O/Z)

synchronous/asynchronous modes, this pin is the packet start indicator output,

This pin is multiplexed between UART0, GPIO, and TSIF1.

DD33

asynchronous mode, this pin is the wait indicator input, TS1_WAITIN (I). This TSIF pin function is not used in synchronous mode.

DESCRIPTION

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Table 3-19. I2C Terminal Functions

SIGNAL

NAME NO.

SCL U5 I/O/Z

SDA U4 I/O/Z

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal (2) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2)

DESCRIPTION

I2C

- I2C clock output SCL. For proper device operation, this pin must be pulled up via

DD33

external resistor.

- I2C bidirectional data signal SDA. For proper device operation, this pin must be

DD33

pulled up via external resistor.

Table 3-20. SPI Terminal Functions

SIGNAL

NAME NO.

SPI_CLK V1 I/O/Z SPI clock

SPI_EN T5 I/O/Z SPI device enable

SPI_CS0 T4 I/O/Z SPI chip select 0

SPI_CS1 U3 I/O/Z SPI chip select 1

SPI_SOMI R5 I/O/Z SPI slave out, master in data pin

SPI_SIMO P5 I/O/Z SPI slave in, master out data pin

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

IPD

DD33

(2) (3)

DESCRIPTION

SPI

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Table 3-21. Multichannel Audio Serial Port (McASP) Terminal Functions

SIGNAL

NAME NO.

ACLKR0 AA2 I/O/Z McASP0 receive bit clock

AHCLKR0 AB2 I/O/Z McASP0 receive high-frequency master clock

AFSR0 Y3 I/O/Z McASP0 receive frame sync

ACLKX0 AA1 I/O/Z McASP0 transmit bit clock

AHCLKX0 Y1 I/O/Z McASP0 transmit high-frequency master clock

AFSX0 Y4 I/O/Z McASP0 transmit frame sync

AXR0[3] W3 AXR0[2] W4 AXR0[1] V4 AXR0[0] V3

AMUTE0 Y2 I/O/Z McASP0 mute output

AMUTEIN0 AA3 I McASP0 mute input

ACLKX1 W1 I/O/Z McASP1 transmit bit clock

AHCLKX1 W2 I/O/Z McASP1 transmit high-frequency master clock

AXR1[0] V2 I/O/Z McASP1 transmit data pin [0]

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2) (3)

McASP0

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

IPD

DD33

I/O/Z McASP0 transmit/receive data pins [3:0]

IPD

DD33

IPD

DD33

IPD

DD33

McASP1

IPD

DD33

IPD

DD33

IPD

DD33

DESCRIPTION

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Table 3-22. Clock Recovery Generator (CRGEN) Terminal Functions

SIGNAL

NAME NO.

URXD2/

CRG1_VCXI/ IPD

GP[39]/ DV

AB20 I/O/Z When CRGEN1 is enabled (PINMUX0.CRGMUX = 001), this pin is CRGEN1 input

CRG0_VCXI

UTXD2/ URCTX2/

CRG1_PO/ IPD

GP[40]/ DV

AA19 I/O/Z When CRGEN1 is enabled (PINMUX0.CRGMUX = 001), this pin is CRGEN1

CRG0_PO

UCTS2/ USD2/

CRG0_VCXI/ IPU

GP[42]/ DV

AC21 I/O/Z When CRGEN0 on UART2/PWM muxing is enabled (PINMUX0.CRGMUX = 10x),

TS1_PSTO

PWM0/ This pin is multiplexed between PWM0, CRGEN0, and TSIF1.

CRG0_PO/ W17 O/Z When CRGEN0 on UART2/PWM muxing is enabled (PINMUX0.CRGMUX = 10x),

TS1_ENAO this pin is CRGEN0 pulse width modulation output, CRG0_PO (O/Z).

URXD2/

CRG1_VCXI/ IPD

GP[39]/ DV

AB20 I/O/Z When CRGEN1 is enabled (PINMUX0.CRGMUX = x01), this pin is CRGEN1 input

CRG0_VCXI

UTXD2/ URCTX2/

CRG1_PO/ IPD

GP[40]/ DV

AA19 I/O/Z When CRGEN1 is enabled (PINMUX0.CRGMUX = x01), this pin is CRGEN1

CRG0_PO

UCTS2/ USD2/

CRG0_VCXI/ IPU

GP[42]/ DV

AC21 I/O/Z When CRGEN0 on UART2/PWM muxing is enabled (PINMUX0.CRGMUX = 10x),

TS1_PSTO

PWM0/ This pin is multiplexed between PWM0, CRGEN0, and TSIF1.

CRG0_PO/ W17 O/Z When CRGEN0 on UART2/PWM muxing is enabled (PINMUX0.CRGMUX = 10x),

TS1_ENAO this pin is CRGEN0 pulse width modulation output, CRG0_PO (O/Z).

URXD2/

CRG1_VCXI/ IPD

GP[39]/ DV

AB20 I/O/Z When CRGEN0 on UART2 muxing is enabled (PINMUX0.CRGMUX = 110), this

CRG0_VCXI

UTXD2/ URCTX2/

CRG1_PO/ IPD

GP[40]/ DV

AA19 I/O/Z When CRGEN0 on UART2 muxing is enabled (PINMUX0.CRGMUX = 110), this

CRG0_PO

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2) (3)

DESCRIPTION

CRGEN1 ONLY MODE (PINMUX0.CRGMUX = 001)

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

clock from external VCXO, CRG1_VCXI (I).

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

pulse width modulation output, CRG1_PO (O/Z).

CRGEN0 ONLY (UART2/PWM0 MUX) MODE (PINMUX0.CRGMUX = 100)

This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1.

DD33

this pin is CRGEN0 input clock from external VCXO, CRG0_VCXI (I).

–

DD33

CRGEN0 AND CRGEN1 MODE (PINMUX0.CRGMUX = 101)

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

clock from external VCXO, CRG1_VCXI (I).

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

pulse width modulation output, CRG1_PO (O/Z).

This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1.

DD33

this pin is CRGEN0 input clock from external VCXO, CRG0_VCXI (I).

–

DD33

CRGEN0 ONLY (UART2 MUX) MODE (PINMUX0.CRGMUX = 110)

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

pin is CRGEN0 input clock from external VCXO, CRG0_VCXI (I).

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

DD33

pin is CRGEN0 pulse width modulation output, CRG0_PO (O/Z).

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Table 3-23. UART0 Terminal Functions

SIGNAL

NAME NO.

Actual UART0 pin functions are determined by the PINMUX0 and PINMUX1 register bit settings. For more details, see

Section 4.7.3, Pin Multiplexing.

URXD0/ IPD When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

TS1_DIN DV

AB13 I

UTXD0/

URCTX0/ Y13 I/O/Z

TS1_PSTIN

URTS0 /

UIRTX0/ AA13 I/O/Z

TS1_EN_WAITO

UCTS0 / USD0 AC12 I/O/Z

UDTR0 /

TS0_ENAO/ Y12 I/O/Z

GP[36]

UDSR0 /

TS0_PSTO/ AB11 I/O/Z

GP[37]

UDCD0 /

TS0_WAITIN/ AA11 I/O/Z

GP[38]

URIN0 /GP[8]/ IPD

TS1_WAITIN DV

URXD0/ IPD When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

TS1_DIN DV

Y11 I/O/Z (PINMUX1.UART0CTL = 00) and TSIF1 output on UART/PWM muxing is not

AB13 I

UTXD0/

URCTX0/ Y13 I/O/Z

TS1_PSTIN

URTS0 /

UIRTX0/ AA13 I/O/Z

TS1_EN_WAITO

UCTS0 / IPU

USD0 DV

AC12 I/O/Z and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this

(1) IPD = Internal pulldown, IPU = Internal pullup. For more detailed information on pullup/pulldown resistors and situations where external

TYPE

(1)

OTHER

(2) (3)

UART0 WITH MODEM CONTROL (PINMUX1.UART0CTL = 00)

This pin is multiplexed between UART0 and TSIF1.

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 receive data, URXD0 (I).

This pin is multiplexed between UART0 and TSIF1.

IPD When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 transmit data, UTXD0 (O/Z).

This pin is multiplexed between UART0 and TSIF1.

IPU When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is the UART0 request-to-send signal, URTS0 (O/Z).

This pin is multiplexed between UART0 and TSIF1.

IPU When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is the UART0 clear-to-send signal, UCTS0 (I).

This pin is multiplexed between UART0, TSIF0, and GPIO.

IPU When UART0 UART with modem functional muxing is selected

DD33

(PINMUX1.UART0CTL = 00) and TSIF0 output muxing is not enabled (PINMUX0.PTSOMUX ≠ 1x), this pin is UART0 data-terminal-ready, UDTR0 (O/Z).

This pin is multiplexed between UART0, TSIF0, and GPIO.

IPU When UART0 UART with modem functional muxing is selected

DD33

(PINMUX1.UART0CTL = 00) and TSIF0 output muxing is not enabled (PINMUX0.PTSOMUX ≠ 1x), this pin is UART0 data-set-ready, UDSR0 (I).

This pin is multiplexed between UART0, TSIF0, and GPIO.

IPU When UART0 UART with modem functional muxing is selected

DD33

(PINMUX1.UART0CTL = 00) and TSIF0 output muxing is not enabled (PINMUX0.PTSOMUX ≠ 1x), this pin is UART0 data-carrier-detect, UDCD0 (I).

This pin is multiplexed between UART0, GPIO, and TSIF1. When UART0 UART with modem functional muxing is selected

DD33

enabled (PINMUX0.TSSOMUX ≠ 11), this pin is the UART0 ring indicator, URIN0 (I).

UART0 WITHOUT MODEM CONTROL (PINMUX1.UART0CTL = 01)

This pin is multiplexed between UART0 and TSIF1.

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 receive data, URXD0 (I).

This pin is multiplexed between UART0 and TSIF1.

IPD When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 transmit data, UTXD0 (O/Z).

This pin is multiplexed between UART0 and TSIF1.

IPU When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 request-to-send signal, URTS0 (O/Z).

When UART0 UART functional muxing is selected (PINMUX1.UART0CTL = 0x)

DD33

pin is UART0 clear-to-send signal, UCTS0 (I).

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Table 3-23. UART0 Terminal Functions (continued)

SIGNAL

NAME NO.

URXD0/ IPD

TS1_DIN DV

AB13 I When TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01),

UTXD0/

URCTX0/ Y13 I/O/Z

TS1_PSTIN

URTS0/

UIRTX0/ AA13 I/O/Z

TS1_EN_WAITO

UCTS0/ IPU

USD0 DV

AC12 I/O/Z and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

UART0 IrDA/CIR FUNCTION (PINMUX1.UART0CTL = 1x)

This pin is multiplexed between UART0 and TSIF1.

DD33

this pin is UART0 IrDA/CIR receive data, URXD0 (I). This pin is multiplexed between UART0 and TSIF1.

IPD When UART0 IrDA/CIR functional muxing is selected (PINMUX1.UART0CTL = 1x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 CIR transmit data, URCTX0 (O/Z).

This pin is multiplexed between UART0 and TSIF1.

IPU When UART0 IrDA/CIR functional muxing is selected (PINMUX1.UART0CTL = 1x)

DD33

and TSIF1 input on UART0 muxing is not enabled (PINMUX0.TSSIMUX ≠ 01), this pin is UART0 IrDA transmit data, UIRTX0 (O/Z).

When UART0 IrDA/CIR functional muxing is selected (PINMUX1.UART0CTL = 1x)

DD33

pin is UART0 IrDA transceiver control, USD0 (O/Z).

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Table 3-24. UART1 Terminal Functions

SIGNAL

NAME NO.

Actual UART1 pin functions are determined by the PINMUX0 and PINMUX1 register bit settings. For more details, see

Section 4.7.3, Pin Multiplexing.

URXD1/

TS0_DIN7/ Y18 I/O/Z

GP[23]

UTXD1/ This pin is multiplexed between UART1, TSIF0, and GPIO.

URCTX1/ IPD When UART1 UART functional muxing is selected (PINMUX1.UART1CTL = 0x)

TS0_DOUT7/ DV

AB19 I/O/Z

GP[24] UART1 transmit data, UTXD1 (O/Z).

URTS1 /UIRTX1/

TS0_WAITO/ AA18 I/O/Z

GP[25]

UCTS1 /USD1

TS0_EN_WAITO/ Y17 I/O/Z

GP[26]

URXD1/

TS0_DIN7/ Y18 I/O/Z

GP[23]

UTXD1/ This pin is multiplexed between UART1, TSIF0, and GPIO.

URCTX1/ IPD When UART1 UART functional muxing is selected (PINMUX1.UART1CTL = 0x)

TS0_DOUT7/ DV

AB19 I/O/Z

GP[24] UART1 transmit data, UTXD1 (O/Z).

URXD1/

TS0_DIN7/ Y18 I/O/Z

GP[23]

UTXD1/URCTX1/

TS0_DOUT7/ AB19 I/O/Z

GP[24]

URTS1/UIRTX1/

TS0_WAITO/ AA18 I/O/Z

GP[25]

UCTS1/USD1/

TS0_EN_WAITO/ Y17 I/O/Z

GP[26]

(1) IPD = Internal pulldown, IPU = Internal pullup. For more detailed information on pullup/pulldown resistors and situations where external

TYPE

(1)

OTHER

(2) (3)

UART1 WITH FLOW CONTROL (PINMUX1.UART1CTL = 00)

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPD When UART1 UART functional muxing is selected (PINMUX1.UART1CTL = 0x)

DD33

and TSIF0 serial input is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is UART1 receive data, URXD1 (I).

and TSIF0 serial output is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When UART1 UART with flow control muxing is selected (PINMUX1.UART1CTL =

DD33

00) and TSIF0 input is not enabled (PINMUX0.PTSIMUX ≠ 0x), this pin is UART1 request-to-send, URTS1 (O/Z).

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When UART1 UART with flow control muxing is selected (PINMUX1.UART1CTL =

DD33

00) and TSIF0 input is not enabled (PINMUX0.PTSIMUX ≠ 0x), this pin is UART1 clear-to-send, UCTS1 (I).

UART1 WITHOUT FLOW CONTROL (PINMUX1.UART1CTL = 01)

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPD When UART1 UART functional muxing is selected (PINMUX1.UART1CTL = 0x)

DD33

and TSIF0 serial input is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is UART1 receive data, URXD1 (I).

and TSIF0 serial output is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is

UART1 IrDA/CIR FUNCTION (PINMUX1.UART1CTL = 10)

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPD When UART1 IrDA/CIR functional muxing is selected (PINMUX1.UART1CTL = 10)

DD33

and TSIF0 serial input is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is UART1 receive data, URXD1 (I).

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPD When UART1 IrDA/CIR functional muxing is selected (PINMUX1.UART1CTL = 10)

DD33

and TSIF0 serial output is not enabled (PINMUX0.PTSOMUX ≠ 11), this pin is UART1 CIR transmit data, URCTX1 (O/Z).

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When UART1 IrDA/CIR functional muxing is selected (PINMUX1.UART1CTL = 10)

DD33

and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), this pin is UART1 IrDA transmit data, UIRTX1 (O/Z).

This pin is multiplexed between UART1, TSIF0, and GPIO.

IPU When UART1 IrDA/CIR functional muxing is selected (PINMUX1.UART1CTL = 10)

DD33

and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), this pin is UART1 IrDA tranceiver control, USD1 (O/Z).

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Table 3-25. UART2 Terminal Functions

SIGNAL

NAME NO.

Actual UART2 pin functions are determined by the PINMUX0 and PINMUX1 register bit settings. For more details, see

Section 4.7.3, Pin Multiplexing.

URXD2/ This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

CRG1_VCXI/ IPD When UART2 UART functional muxing is selected (PINMUX1.UART2CTL = 0x)

GP[39]/ DV

AB20 I/O/Z

CRG0_VCXI UART2 receive data, URXD2 (I).

UTXD2/

URCTX2/

CRG1_PO/ AA19 I/O/Z

GP[40]/

CRG0_PO

URTS2 /UIRTX2/

TS0_PSTIN/ AC20 I/O/Z

GP[41]

UCTS2 /USD2/ This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1.

CRG0_VCXI/ IPU When UART2 UART with flow control muxing is selected (PINMUX1.UART2CTL =

GP[42]/ DV

AC21 I/O/Z

TS1_PSTO UART2 clear-to-send, UCTS2 (I).

URXD2/ This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

CRG1_VCXI/ IPD When UART2 UART functional muxing is selected (PINMUX1.UART2CTL = 0x)

GP[39]/ DV

AB20 I/O/Z

CRG0_VCXI UART2 receive data, URXD2 (I).

UTXD2/

URCTX2/

CRG1_PO/ AA19 I/O/Z

GP[40]/

CRG0_PO

URXD2/ This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

CRG1_VCXI/ IPD When UART2 IrDA/CIR functional muxing is selected (PINMUX1.UART2CTL = 10)

GP[39]/ DV

AB20 I/O/Z

CRG0_VCXI UART2 receive data, URXD2 (I).

UTXD2/URCTX2/ This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

CRG1_PO/ IPD When UART2 IrDA/CIR functional muxing is selected (PINMUX1.UART2CTL = 10)

GP[40]/ DV

AA19 I/O/Z

CRG0_PO UART2 CIR transmit data, URCTX2 (O/Z).

URTS2/UIRTX2/

TS0_PSTIN/ AC20 I/O/Z

GP[41]

UCTS2/USD2/ This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1.

CRG0_VCXI/ IPU When UART2 IrDA/CIR functional muxing is selected (PINMUX1.UART2CTL = 10)

GP[42]/ DV

AC21 I/O/Z

TS1_PSTO pin is UART2 IrDA tranceiver control, USD2 (O/Z).

(1) IPD = Internal pulldown, IPU = Internal pullup. For more detailed information on pullup/pulldown resistors and situations where external

TYPE

(1)

OTHER

(2) (3)

UART2 WITH FLOW CONTROL (PINMUX1.UART2CTL = 00)

DD33

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

IPD When UART2 UART functional muxing is selected (PINMUX1.UART2CTL = 0x)

DD33

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is UART2 transmit data, UTXD2 (O/Z).

This pin is multiplexed between UART2, TSIF0, and GPIO.

IPU When UART2 UART with flow control muxing is selected (PINMUX1.UART2CTL =

DD33

00) and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), this pin is UART2 request-to-send, URTS2 (O/Z).

00) and TSIF1 output is not enabled (PINMUX0.PTSOMUX = 0x), this pin is

UART2 WITHOUT FLOW CONTROL (PINMUX1.UART2CTL = 01)

DD33

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is

This pin is multiplexed between UART2, CRGEN1, GPIO, and CRGEN0.

IPD When UART2 UART functional muxing is selected (PINMUX1.UART2CTL = 0x)

DD33

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is UART2 transmit data, UTXD2 (O/Z).

UART2 IrDA/CIR FUNCTION (PINMUX1.UART2CTL = 10)

DD33

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is

and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), this pin is the

This pin is multiplexed between UART2, TSIF0, and GPIO.

IPU When UART2 IrDA/CIR functional muxing is selected (PINMUX1.UART2CTL = 10)

DD33

and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), this pin is UART2 IrDA transmit data, UIRTX2 (O/Z).

and CRGEN0 on TSIF0 output is not enabled (PINMUX0.TSSOMUX = 0x), this

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Table 3-26. PWM Terminal Functions

SIGNAL

NAME NO.

PWM0/

CRG0_PO/ W17 O/Z

TS1_ENAO

PWM1/ –

TS1_DOUT DV

W18 O/Z When not overridden by TSIF1 output muxing (PINMUX0.TSSOMUX ≠ 11), this pin

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal (2) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

OTHER

(2)

DESCRIPTION

PWM0

This pin is multiplexed between PWM0, CRGEN0, and TSIF1.

– When not overridden by CRGEN or TSIF1 output muxing (PINMUX0.CRGMUX ≠

DD33

10x and PINMUX0.TSSOMUX ≠ 11), this pin is the pulse width modulation 0 output, PWM0 (O/Z).

PWM1

This pin is multiplexed between PWM1 and TSIF1.

DD33

is the pulse width modulation 1 output, PWM1 (O/Z).

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Table 3-27. Timer 0, Timer 1, and Timer 2 Terminal Functions

SIGNAL

NAME NO.

TINP0L Y7 I/O/Z

TINP0U AA6 I/O/Z

TOUT0L W8 I/O/Z

TOUT0U W7 I/O/Z

TINP1L Y6 I/O/Z

TOUT1L AA5 I/O/Z

TOUT1U AB4 I/O/Z

TOUT2 Y5 I/O/Z Watchdog timer output.

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

Timer 0

IPD Timer0 lower input. This pin is the Timer0 input for 64-mode operation. For 32-bit

DD33

timer operation, this pin is the input for the Timer0 lower 32-bit counter.

IPD Timer0 upper input. For 32-bit timer operation, this pin is the input for the Timer0

DD33

upper 32-bit counter. Not used for Timer0 64-mode operation.

IPD Timer0 lower output. This pin is the Timer0 output for 64-mode operation. For 32-bit

DD33

timer operation, this pin is the output for the Timer0 lower 32-bit counter.

IPD Timer0 upper output. For 32-bit timer operation, this pin is the output for the Timer0

DD33

upper 32-bit counter. Not used for Timer0 64-mode operation.

Timer 1

IPD Timer1 lower input. This pin is the Timer1 input for 64-mode operation. For 32-bit

DD33

timer operation, this pin is the input for the Timer1 lower 32-bit counter.

IPD Timer1 lower output. This pin is the Timer1 output for 64-mode operation. For 32-bit

DD33

timer operation, this pin is the output for the Timer1 lower 32-bit counter.

IPD Timer1 upper output. For 32-bit timer operation, this pin is the output for the Timer1

DD33

upper 32-bit counter. Not used for Timer1 64-mode operation.

WATCHDOG TIMER (Timer 2)

IPD

DD33

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Table 3-28. ATA Terminal Functions

SIGNAL

NAME NO.

ATA is enabled by the PINMUX0.ATAEN =1 (and PCIEN = 0). For more detailed information on the ATA pin muxing, see Section 4.7.3.1, PCI, HPI, EMIFA, and ATA Pin Muxing.

PCI_CBE0/ ATA_CS0 / F4 I/O/Z

GP[33]/EM_A[18]

PCI_CBE1/ ATA_CS1 / C2 I/O/Z

GP[32]/EM_A[19]

PCI_RSV4/ DIOW / IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA. GP[20]/EM_WAIT4 DV

PCI_RSV3/ DIOR / IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA. GP[19]/EM_WAIT5 DV

PCI_RSV5/IORDY/ IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA. GP[21]/EM_WAIT3 DV

A11 I/O/Z

E10 I/O/Z

D11 I/O/Z

PCI_RST/

DA2/ C10 I/O/Z

GP[13]/EM_A[22]

PCI_RSV0/DA1/ IPD This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[16]/EM_A[21] DV

PCI_RSV1/DA0/ IPD This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[17]/EM_A[20] DV

PCI_RSV2/INTRQ/ IPD This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

GP[18]/EM_RSV0 DV

A9 I/O/Z

E9 I/O/Z

B10 I/O/Z

PCI_REQ/

DMARQ/ B9 I/O/Z

GP[11]/EM_CS5

PCI_GNT/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DMACK / D10 I/O/Z When ATA is enabled, this pin is the ATA DMA acknowledge output, DMACK

GP[12]/EM_CS4 (O/Z).

PCI_IDSEL/ This pin is multiplexed between PCI, ATA, and EMIFA.

HDDIR/ E8 I/O/Z When ATA is enabled, this pin is the data direction indicator for external buffer

EM_R/W control, HDDIR (O/Z).

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

ATA

IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

When ATA is enabled, this pin is ATA chip select 0 output, ATA_CS0 (O/Z).

IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

When ATA is enabled, this pin is ATA chip select 1 output, ATA_CS1 (O/Z).

When ATA is enabled, this pin is the ATA write strobe output, DIOW (O/Z).

When ATA is enabled, this pin is the ATA read strobe output, DIOR (O/Z).

When ATA is enabled, this pin is ATA I/O ready, IORDY (I).

IPD This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

When ATA is enabled, this pin is ATA address bit 2, DA2 (O/Z).

When ATA is enabled, this pin is ATA address bit 1, DA1 (O/Z).

When ATA is enabled, this pin is ATA address bit 0, DA0 (O/Z).

When ATA is enabled, this pin is the ATA interrupt request input, INTRQ (I).

IPU This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DD33

When ATA is enabled, this pin is the ATA DMA request input, DMARQ (I).

IPU

DD33

IPU

DD33

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Table 3-28. ATA Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_AD31/

DD15/ A8

HD31/ EM_A[15]

PCI_AD30/

DD14/ C9

HD30/EM_A[14]

PCI_AD29/

DD13/ B8

HD29/EM_A[13]

PCI_AD28/

DD12/ D9

HD28/EM_A[12]

PCI_AD27/

DD11/ A6

HD27/EM_A[11]

PCI_AD26/

DD10/ C8

HD26/EM_A[10]

PCI_AD25/

DD9/ B6

HD25/EM_A[9]

PCI_AD24/

DD8/ D8

HD24/EM_A[8]

PCI_AD23/

DD7/ B5

HD23/EM_A[7]

PCI_AD22/

DD6/ C7

HD22/EM_A[6]

PCI_AD21/

DD5/ C5

HD21/EM_A[5]

PCI_AD20/

DD4/ D7

HD20/EM_A[4]

PCI_AD19/

DD3/ A4

HD19/EM_A[3]

PCI_AD18/

DD2/ E7

HD18/EM_A[2]

PCI_AD17/

DD1/ B4

HD17/EM_A[1]

PCI_AD16/

DD0/ C6

HD16/EM_A[0]

(1)

TYPE

I/O/Z When ATA is enabled, these pins are the ATA 16-bit bidirectional data bus,

OTHER

IPD

DD33

(2) (3)

These pins are multiplexed between PCI, ATA, HPI, and EMIFA. DD[15:0] (I/O/Z).

DESCRIPTION

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Table 3-29. General Purpose Input/Output (GPIO) Terminal Functions

SIGNAL

NAME NO.

The DM6467T device does not support GP[47:43], GP[35:34], GP[31:27], GP[15:14], and GP[9] signals (not pinned out). GP[7:0] pins have dedicated ARM926 and DSP interrupts. When PCI is used, GP[19:16] pins are reserved.

GP[0] W5 I/O/Z GP[0] (I/O/Z). This pin is general-purpose input/output 0.

GP[1] V5 I/O/Z GP[1] (I/O/Z). This pin is general-purpose input/output 1.

GP[2]/ IPD This pin is multiplexed between GPIO and the audio clock selector.

AUDIO_CLK1 DV

GP[3]/ IPD This pin is multiplexed between GPIO and the audio clock selector.

AUDIO_CLK0 DV

GP[4]/ IPD

STC_CLKIN DV

AA4 I/O/Z

AB3 I/O/Z

AC3 I/O/Z When the STC source clock input is disabled (PINMUX0.STCCK = 0), this pin is

GP[5] B11 I/O/Z This pin is GP[5] (I/O/Z).

GP[6] E11 I/O/Z This pin is GP[6] (I/O/Z).

GP[7] A12 I/O/Z This pin is GP[7] (I/O/Z).

URIN0/GP[8]/ IPD When UART0 UART with modem functional muxing is not selected

TS1_WAITIN DV

Y11 I/O/Z

GP[9] n/a – – GP[9] is not pinned out on this device.

PCI_CLK/GP[10] A10 I/O/Z

PCI_REQ/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DMARQ/ B9 I/O/Z When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1,

GP[11]/EM_CS5 PINMUX0.ATAEN = 0), this pin is GP[11] (I/O/Z).

PCI_GNT/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DMACK/ D10 I/O/Z When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1,

GP[12]/EM_CS4 PINMUX0.ATAEN = 0), this pin is GP[12] (I/O/Z).

PCI_RST/ This pin is multiplexed between PCI, ATA, GPIO, and EMIFA.

DA2/ C10 I/O/Z When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1,

GP[13]/EM_A[22] PINMUX0.ATAEN = 0), this pin is GP[13] (I/O/Z).

GP[14:15] n/a – – GP[14:15] are not pinned out on this device.

PCI_RSV0/DA1/

GP[16]/ A9 I/O/Z

EM_A[21]

PCI_RSV1/DA0/ IPD

GP[17]/EM_A[20] DV

E9 I/O/Z

PCI_RSV2/

INTRQ/ IPD

GP[18]/ DV

B10 I/O/Z

EM_RSV0

PCI_RSV3/DIOR/

GP[19]/ E10 I/O/Z

EM_WAIT5

TYPE

(1)

(2) (3)

OTHER

DESCRIPTION

GPIO

IPD

DD33

IPD

DD33

When audio clock 1 is disabled (PINMUX0.AUDCK1 = 0), this pin is GP[2] (I/O/Z).

When audio clock 0 is disabled (PINMUX0.AUDCK0 = 0), this pin is GP[3] (I/O/Z). This pin is multiplexed between GPIO and the TSIF clock selector.

DD33

GP[4] (I/O/Z).

IPD

DD33

IPD

DD33

IPD

DD33

This pin is multiplexed between UART0, GPIO, and TSIF1.

DD33

(PINMUX1.UART0CTL = 00) and TSIF1 output on UART/PWM muxing is not enabled (PINMUX0.TSSOMUX ≠ 11), this pin is GP[8] (I/O/Z).

IPU This pin is multiplexed between PCI and GPIO.

DD33

When PCI is disabled (PINMUX0.PCIEN = 0), this pin is GP[10] (I/O/Z).

IPU

DD33

IPU

DD33

IPD

DD33

IPD

DD33

These pins are multiplexed between PCI, ATA, GPIO, and EMIFA. When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1, PINMUX0.ATAEN = 0), these pins are GP[16:19] (I/0/Z). When PCI mode is enabled

DD33

(PINMUX0.PCIEN = 1), these pins are reserved.

IPU

DD33

pullup/pulldown resistors are required, see Section 4.8.1, Pullup/Pulldown Resistors. (3) Specifies the operating I/O supply voltage for each signal

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Table 3-29. General Purpose Input/Output (GPIO) Terminal Functions (continued)

SIGNAL

NAME NO.

PCI_RSV4/

DIOW/ IPU

GP[20]/ DV

A11 I/O/Z EM_WAIT4 PCI_RSV5/

IORDY/ IPU

GP[21]/ DV

D11 I/O/Z EM_WAIT3

USB_DRVVBUS/ IPD This pin is multiplexed between USB and GPIO.

GP[22] DV

B18 I/O/Z

URXD1/ This pin is multiplexed between UART1, TSIF0, and GPIO.

TS0_DIN7/ Y18 I/O/Z When UART1 GPIO muxing is selected (PINMUX1.UART1CTL = 11) and TSIF0

GP[23] serial input is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is GP[23] (I/O/Z).

UTXD1/

URCTX1/ IPD

TS0_DOUT7/ DV

AB19 I/O/Z When UART1 GPIO muxing is selected (PINMUX1. UART1CTL = 11) and TSIF0

GP[24]

URTS1/

UIRTX1/ IPD

TS0_WAITO/ DV

AA18 I/O/Z

GP[25]

UCTS1/USD1/

TS0_EN_WAITO/ Y17 I/O/Z

GP[26]

GP[27:31] n/a – – GP[27:31] are not pinned out on this device.

PCI_CBE1/

ATA_CS1/ IPU

GP[32]/ DV

C2 I/O/Z

EM_A[19]

PCI_CBE0/

ATA_CS0/ IPU

GP[33]/ DV

F4 I/O/Z

EM_A[18]

GP[34:35] n/a – – GP[34:35] are not pinned out on this device.

UDTR0/

TS0_ENAO/ Y12 I/O/Z

GP[36]

UDSR0/

TS0_PSTO/ AB11 I/O/Z

GP[37]

UDCD0/

TS0_WAITIN/ AA11 I/O/Z

GP[38]

URXD2/

CRG1_VCXI/ IPD

GP[39]/ DV

AB20 I/O/Z

CRG0_VCXI

UTXD2/URCTX2/

CRG1_PO/ IPD

GP[40]/ DV

AA19 I/O/Z

CRG0_PO

URTS2/UIRTX2/

TS0_PSTIN/ AC20 I/O/Z

GP[41]

UCTS2/USD2/

CRG0_VCXI/ IPU

GP[42]/ DV

AC21 I/O/Z (PINMUX1.UART2CTL = x1) and CRGEN0 on UART2/PWM muxing is not enabled

TS1_PSTO

TYPE

(1)

(2) (3)

OTHER

DD33

These pins are multiplexed between PCI, ATA, GPIO, and EMIFA.

DESCRIPTION

When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1, PINMUX0.ATAEN = 0), these pins are GP[20:21] (I/0/Z).

DD33

When not used for USB (PINMUX0.VBUSDIS = 1), this pin is GP[22] (I/O/Z).

IPD

DD33

This pin is multiplexed between UART1, TSIF0, and GPIO.

DD33

serial input is not enabled (PINMUX0.PTSIMUX ≠ 11), this pin is GP[24] (I/O/Z).

These pins are multiplexed between UART1, TSIF0, and GPIO. When UART1 GPIO muxing is selected (PINMUX1.UART1CTL = 11) and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), these pins are GP[25:26] (I/O/Z).

These pins are multiplexed between PCI, ATA, GPIO, and EMIFA.

IPU

DD33

When 32-bit HPI mode is enabled (PINMUX0.PCIEN = 0, PINMUX0.HPIEN = 1, PINMUX0.ATAEN = 0), these pins are GP[32:33] (I/O/Z).

DD33

IPU

DD33

These pins are multiplexed between UART0, TSIF0, and GPIO.

IPU When UART0 UART with modem functional muxing is not selected

DD33

(PINMUX1.UART0CTL ≠ 00) and TSIF0 output muxing is not enabled (PINMUX0.PTSOMUX ≠ 1x), these pins are GP[36:38] (I/O/Z).

IPU

DD33

These pins are multiplexed between UART2, CRGEN1, GPIO, and CRGEN0. When UART2 UART GPIO muxing is selected (PINMUX1.UART2CTL = 11) and CRGEN0/1 are not enabled (PINMUX0.CRGMUX ≠ x01, 110), these pins are GP[39:40] (I/O/Z).

DD33

This pin is multiplexed between UART2, TSIF0, and GPIO.

IPU When UART2 UART without flow control or GPIO muxing is selected

DD33

(PINMUX1.UART2CTL = x1) and TSIF0 input is not enabled (PINMUX0.PTSIMUX = 0x), this pin is GP[41] (I/O/Z).

This pin is multiplexed between UART2, CRGEN0, GPIO, and TSIF1. When UART2 UART without flow control or GPIO muxing is selected

DD33

(PINMUX0.CRGMUX ≠ 10x) and TSIF1 output is not enabled (PINMUX0.TSSOMUX = 0x), this pin is GP[42] (I/O/Z).

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Table 3-29. General Purpose Input/Output (GPIO) Terminal Functions (continued)

SIGNAL

NAME NO.

GP[43:47] n/a – – GP[43:47] are not pinned out on this device.

TYPE

(1)

OTHER

(2) (3)

SPRS605B–JULY 2009–REVISED JULY 2010

DESCRIPTION

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Table 3-30. Reserved Terminal Functions

SIGNAL

NAME NO.

RSV1 A1 Reserved. For proper device operation, this pin must be tied directly to VSS. RSV2 A2 Reserved. For proper device operation, this pin must be tied directly to VSS. RSV3 A22 Reserved. For proper device operation, this pin must be tied directly to VSS. RSV4 A23 Reserved. (Leave unconnected, do not connect to power or ground.) RSV5 D14 Reserved. (Leave unconnected, do not connect to power or ground.) RSV6 F17 Reserved. For proper device operation, this pin must be tied directly to CVDD. RSV7 G16 Reserved. For proper device operation, this pin must be tied directly to CVDD.

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal

TYPE

(1)

OTHER DESCRIPTION

RESERVED

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Table 3-31. Supply Terminal Functions

SIGNAL

NAME NO.

B7 F8

F9 F10 F11 F12 F13 F14 F15 F16

DD33

M3 S

V8 V17

W9 W10 W11 W12 W13 W14 W15 W16

AA12

B20 E21 G17 G19

DDR2

H17

J17

K17 K21 P21 R17

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal

TYPE

(1)

OTHER DESCRIPTION

SUPPLY VOLTAGE PINS

3.3-V I/O supply voltage (see the Power-Supply Decoupling section of this data manual)

1.8-V DDR2 I/O supply voltage (see the Power-Supply Decoupling section of this data manual)

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Table 3-31. Supply Terminal Functions (continued)

SIGNAL

NAME NO.

DDR2

R18 T18 T19 U19

W21

AA20

G10 G11 G12 G13 G14 G15

H14 H15 H16

K10 K11 K13 K14 K15 K16

P10 P11 P13 P14 P15

TYPE

G8 G9

H7 H8 H9

J7 J8

J9 J10 J11 J13 S J14 J15 J16

(1)

OTHER DESCRIPTION

1.8-V DDR2 I/O supply voltage (see the Power-Supply Decoupling section of this data manual)

1.3-V core supply voltage (-1G devices) (see the Power-Supply Decoupling section of this data manual)

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NAME NO.

SIGNAL

R10 R11 R13 R14 R15

T10 T11 T13 T14 T15

U10 U14 U15 U16

V10 V11 V12 V13 V14 V15 V16

Table 3-31. Supply Terminal Functions (continued)

(1)

TYPE

OTHER DESCRIPTION

1.3-V core supply voltage (-1G devices) (see the Power-Supply Decoupling section of this data manual)

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Table 3-32. Ground Terminal Functions

SIGNAL

NAME NO.

A14 A18 A21

B19 B23 C19 D19 E19 E22

F19

G18

H10 H11 H12 H13

(1) I = Input, O = Output, Z = High impedance, S = Supply voltage, GND = Ground, A = Analog signal

H18 GND Ground pins H19

J5 J12 J18

K12 K18 K22

L9 L10 L11 L12 L13 L14 L15 L16 L17

TYPE

(1)

OTHER DESCRIPTION

GROUND PINS

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NAME NO.

SIGNAL

L18 M2 M5 M6 M7 M8 M9

M10 M11 M12 M13 M14 M15 M16 M17 M18

N10 N11 N12 N13 N14 N15 N16 N17 N18

P12 P16 P17 P18 P22

R12 R16

T12 T16 T17

U11 U12

Table 3-32. Ground Terminal Functions (continued)

(1)

TYPE

GND Ground pins

OTHER DESCRIPTION

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Table 3-32. Ground Terminal Functions (continued)

SIGNAL

NAME NO.

U13 U17 U18

V18

V19 W19 W22

Y19 GND Ground Pins

AB1

AB12 AB21 AB23

AC1 AC2

AC22 AC23

TYPE

(1)

OTHER DESCRIPTION

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3.8 Device Support

3.8.1 Development Support

TI offers an extensive line of development tools for the TMS320DM646x DMSoC platform, including tools to evaluate the performance of the processors, generate code, develop algorithm implementations, and fully integrate and debug software and hardware modules. The tool's support documentation is electronically available within the Code Composer Studio™ Integrated Development Environment (IDE).

The following products support development of TMS320DM646x SoC-based applications:

Software Development Tools:

Code Composer Studio™ Integrated Development Environment (IDE): including Editor C/C++/Assembly Code Generation, and Debug plus additional development tools Scalable, Real-Time Foundation Software (DSP/BIOS™), which provides the basic run-time target

software needed to support any SoC application.

Hardware Development Tools:

Extended Development System (XDS™) Emulator For a complete listing of development-support tools for the TMS320DM646x DMSoC platform, visit the

Texas Instruments web site on the Worldwide Web at http://www.ti.com uniform resource locator (URL). For information on pricing and availability, contact the nearest TI field sales office or authorized distributor.

SPRS605B–JULY 2009–REVISED JULY 2010

3.8.2 Device and Development-Support Tool Nomenclature

To designate the stages in the product development cycle, TI assigns prefixes to the part numbers of all DSP devices and support tools. Each DSP commercial family member has one of three prefixes: TMX, TMP, or TMS (e.g.,TMX320DM6467TZUT). Texas Instruments recommends two of three possible prefix designators for its support tools: TMDX and TMDS. These prefixes represent evolutionary stages of product development from engineering prototypes (TMX/TMDX) through fully qualified production devices/tools (TMS/TMDS).

Device development evolutionary flow: TMX Experimental device that is not necessarily representative of the final device's electrical

specifications.

TMP Final silicon die that conforms to the device's electrical specifications but has not completed

quality and reliability verification.

TMS Fully-qualified production device. Support tool development evolutionary flow:

TMDX Development-support product that has not yet completed Texas Instruments internal

qualification testing.

TMDS Fully qualified development-support product. TMX and TMP devices and TMDX development-support tools are shipped against the following

disclaimer: "Developmental product is intended for internal evaluation purposes." TMS devices and TMDS development-support tools have been characterized fully, and the quality and

reliability of the device have been demonstrated fully. TI's standard warranty applies.

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PREFIX

TMS

320 DM6467T

ZUT

TMX = Experimental device TMS = Qualified device

DEVICE FAMILY

32 320 = TMS320™ DSP familyor

PACKAGE TYPE

(A)

ZUT = 529-pin plastic BGA, with Pb-Free soldered balls [Green]

C64x+™ DSP:

DM6467T

DEVICE

A. BGA = Ball Grid Array B. For actual device part numbers (P/Ns) and ordering information, see the TI website (http://www.ti.com)

DEVICE SPEED RANGE

(C)

1 = 1-GHz DSP, 500-MHz ARM9, 150-MHz VPIF, 400-MHz DDR2

TEMPERATURE RANGE

( )( )

SILICON REVISION

Blank = Revision 3.0

Blank= 0° C to 85° C, Commercial Temperature

D =-40° C to 85° C, Industrial Temperature

TMX

Blank = Revision 3.0

TMS

TMS320DM6467T

SPRS605B–JULY 2009–REVISED JULY 2010

Predictions show that prototype devices (TMX or TMP) have a greater failure rate than the standard production devices. Texas Instruments recommends that these devices not be used in any production system because their expected end-use failure rate still is undefined. Only qualified production devices are to be used.

TI device nomenclature also includes a suffix with the device family name. This suffix indicates the package type (for example, ZUT), the temperature range (for example, "Blank" is the commercial temperature range), and the device speed range in megahertz or gigahertz (for example, "1" is the default [1-GHz DSP, 500-MHz ARM9]).

Figure 3-8 provides a legend for reading the complete device name for any TMS320DM6467T DMSoC

platform member.

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Figure 3-8. Device Nomenclature

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3.9 Documentation Support

3.9.1 Related Documentation From Texas Instruments

The following documents describe the TMS320DM646x Digital Media System-on-Chip (DMSoC). Copies of these documents are available on the Internet at www.ti.com. Tip: Enter the literature number in the search box provided at www.ti.com.

The current documentation that describes the DM646x DMSoC, related peripherals, and other technical collateral, is available in the C6000 DSP product folder at: www.ti.com/c6000.

SPRUEP8 TMS320DM646x DMSoC DSP Subsystem Reference Guide. Describes the digital signal

processor (DSP) subsystem in the TMS320DM646x Digital Media System-on-Chip (DMSoC).

SPRUEP9 TMS320DM646x DMSoC ARM Subsystem Reference Guide. Describes the ARM

subsystem in the TMS320DM646x Digital Media System-on-Chip (DMSoC). The ARM subsystem is designed to give the ARM926EJ-S (ARM9) master control of the device. In general, the ARM is responsible for configuration and control of the device; including the DSP subsystem and a majority of the peripherals and external memories.

SPRUEQ0 TMS320DM646x DMSoC Peripherals Overview Reference Guide. Provides an overview

and briefly describes the peripherals available on the TMS320DM646x Digital Media System-on-Chip (DMSoC).

SPRAA84 TMS320C64x to TMS320C64x+ CPU Migration Guide. Describes migrating from the Texas

Instruments TMS320C64x digital signal processor (DSP) to the TMS320C64x+ DSP. The objective of this document is to indicate differences between the two cores. Functionality in the devices that is identical is not included.

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SPRU732 TMS320C64x/C64x+ DSP CPU and Instruction Set Reference Guide. Describes the CPU

architecture, pipeline, instruction set, and interrupts for the TMS320C64x and TMS320C64x+ digital signal processors (DSPs) of the TMS320C6000 DSP family. The C64x/C64x+ DSP generation comprises fixed-point devices in the C6000 DSP platform. The C64x+ DSP is an enhancement of the C64x DSP with added functionality and an expanded instruction set.

SPRU871 TMS320C64x+ DSP Megamodule Reference Guide. Describes the TMS320C64x+ digital

signal processor (DSP) megamodule. Included is a discussion on the internal direct memory access (IDMA) controller, the interrupt controller, the power-down controller, memory protection, bandwidth management, and the memory and cache.

SPRAAV0 Understanding TI's PCB Routing Rule-Based DDR Timing Specification Application

Report This application report describes the way the DDR high-speed timing requirements are now going to be communicated to system designers. The system designer uses this information to evaluate whether timing specifications are met and can be expected to operate reliably.

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4 Device Configurations

4.1 System Module Registers

The system module includes status and control registers for configuration of the device.Brief descriptions of the various registers are shown in Table 4-1. System Module registers required for device configurations are discussed in the following sections.

Table 4-1. System Module Register Memory Map

HEX ADDRESS RANGE REGISTER ACRONYM DESCRIPTION

0x01C4 0000 PINMUX0 Pin Multiplexing Control 0 (see Section 4.7.2.1, PINMUX0 Register). 0x01C4 0004 PINMUX1 Pin Multiplexing Control 1 (see Section 4.7.2.2, PINMUX1 Register). 0x01C4 0008 DSPBOOTADDR DSP Boot Address. Decoded by bootloader software for host boots.

0x01C4 000C SUSPSRC Emulator Suspend Source (see Section 4.7.3.12, Emulation Control). 0x01C4 0010 BOOTSTAT Boot Status (see Section 4.4.2.2, BOOTSTAT Register). 0x01C4 0014 BOOTCFG Device Boot Configuration (see Section 4.4.2.3, BOOTCFG Register). 0x01C4 0018 – Reserved 0x01C4 001C - 0x01C4 0020 – Reserved 0x01C4 0024 ARMBOOT ARM926 Boot Control (see Section 4.4.2.4, ARMBOOT Register). 0x01C4 0028 JTAGID Device ID Number [see Section 7.29.1, JTAG ID (JTAGID) Register

0x01C4 002C – Reserved 0x01C4 0030 HPICTL HPI Control (see Section 4.6.2.1, HPICTL Register). 0x01C4 0034 USBCTL USB Control (see Section 4.6.2.2, USBCTL Register). 0x01C4 0038 VIDCLKCTL Video Clock Control (see Section 4.3.2.1, Video Clock Control). 0x01C4 003C MSTPRI0 Bus Master Priority Control 0 (see Section 4.6.1, Switch Central

0x01C4 0040 MSTPRI1 Bus Master Priority Control 1 (see Section 4.6.1, Switch Central

0x01C4 0044 MSTPRI2 Bus Master Priority Control 2 (see Section 4.6.1, Switch Central

0x01C4 0048 VDD3P3V_PWDN VDD3.3-V I/O Powerdown Control (see Section 4.2, Power

0x01C4 004C – Reserved 0x01C4 0050 TSIFCTL TSIF Control Register (see Section 4.3.2.2, TSIF Control). 0x01C4 0054 PWMCTL PWM Control (see Section 4.6.2.3, PWM (Trigger Source) Control

0x01C4 0058 EDMATCCFG EDMA TC Configuration (see Section 4.6.2.4, EDMATCCFG

0x01C4 005C CLKCTL Oscillator and Output Clock Control (see Section 4.3.3, Clock and

0x01C4 0060 DSPINT ARM to DSP Interrupt Status (see Section 4.7.3.11, ARM/DSP

0x01C4 0064 DSPINTSET ARM to DSP Interrupt Set (see Section 4.7.3.11, ARM/DSP

0x01C4 0068 DSPINTCLR ARM to DSP Interrupt Clear (see Section 4.7.3.11, ARM/DSP

0x01C4 006C VSCLKDIS Video and TSIF Clock Disable (see Section 4.3.2.3, Video and TSIF

0x01C4 0070 ARMINT DSP to ARM Interrupt Status (see Section 4.7.3.11, ARM/DSP

0x01C4 0074 ARMINTSET DSP to ARM Interrupt Set (see Section 4.7.3.11, ARM/DSP

(See Section 4.4.2.1, DSPBOOTADDR Register.)

Description(s)].

Resource (SCR) Bus Priorities).

Considerations).

Oscillator Control).

Communications Interrupts).

Clock Disable).

Communications Interrupts).

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Table 4-1. System Module Register Memory Map (continued)

HEX ADDRESS RANGE REGISTER ACRONYM DESCRIPTION

0x01C4 0078 ARMINTCLR DSP to ARM Interrupt Clear (see Section 4.7.3.11, ARM/DSP

0x01C4 007C ARMWAIT ARM Memory Wait State Control (see Section 4.4.2.5, ARMWAIT

0x01C4 0080 - 0x01C4 03FF – Reserved

Communications Interrupts).

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4.2 Power Considerations

The DM6467T provides several means of managing power consumption. As described in the Section 7.3.4, DM6467T Power and Clock Domains, the DM6467T has one single

power domain—the “Always On” power domain. Within this power domain, the DM6467T utilizes local clock gating via the Power and Sleep Controller (PSC) to achieve power savings. For more details on the PSC, see Section 7.3.5, Power and Sleep Controller (PSC) and the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number SPRUEP9).

Some of the DM6467T peripherals support additional power saving features. For more details on power saving features supported, see the peripheral-specific reference guides [listed/linked in the TMS320DM646x DMSoC Peripherals Overview Reference Guide (literature number SPRUEQ0).

Most DM6467T 3.3-V I/Os can be powered-down to reduce power consumption. The VDD3P3V_PWDN register in the System Module (see Figure 4-1 ) is used to selectively power down unused 3.3-V I/O pins.

Note: To save power, all other I/O buffers are powered down by default. Before using these pins, the user must program the VDD3P3V_PWDN register to power up the corresponding I/O buffers.

For a list of multiplexed pins on the device and the pin mux group each pin belongs to, see Section 4.7.3, Pin Multiplexing Details.

Note: The VDD3P3V_PWDN register only controls the power to the I/O buffers. The Power and Sleep Controller (PSC) determines the clock/power state of the peripheral.

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31 29 28 27 26 25 24 23 22 21 20 19 18 17 16

RESERVED USBV CLKOUT RSV SPI VLYNQ RESERVED GMII MII MCASP1 MCASP0 PCIHPI1 PCIHPI0

R-000 R/W-1 R/W-0 R-0 R/W-1 R/W-1 R-00 R/W-1 R/W-1 R/W-1 R/W-1 R/W-0 R/W-0

15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0

GPIO WDTIM TIM23 TIM01 PWM1 PWM0 UR2FC UR2DAT UR1FC UR1DAT UR0MDM UR0DF VPIF3 VPIF2 VPIF1 VPIF0

R/W-0 R/W-0 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-0 R/W-1 R/W-1

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-1. VDD3P3V_PWDN Register [0x01C4 0048]

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Table 4-2. VDD3P3V_PWDN Register Bit Descriptions

BIT NAME DESCRIPTION

31:29 RESERVED Reserved. Read returns "0".

USB_DRVVBUS Powerdown Control.

28 USBV

27 CLKOUT 26 RSV Reserved. Read returns "0".

25 SPI This bit controls the six SPI interface pins: SPI_CLK, SPI_EN, SPI_CS0, SPI_CS1, SPI_SOMI, and

24 VLYNQ This bit controls the ten VLYNQ interface pins: VLYNQ_CLOCK, VLYNQ_SCRUN,

23:22 RESERVED Reserved. Read returns "0".

21 GMII This bit controls the ten pins used by GMII (Gigabit) only: RFTCLK, GMTCLK, MTXD[7:4], and

20 MII This bit controls the 17 pins used by (G)MII (10/100/1000) and MDIO interfaces: MTCLK,

19 MCASP1

18 MCASP0 This bit controls the 12 McASP0 pins: ACLKR0, AHCLKR0, AFSR0, ACLKX0, AHCLKX0, AFSX0,

17 PCIHPI1 PCI_CBE1/ATA_CS1/GP[32]/EM_A[19], PCI_CBE0/ATA_CS0/GP[33]/EM_A[18],

16 PCIHPI0

15 GPIO

14 WDTIM

13 TIM23

12 TIM01

11 PWM1

10 PWM0

9 UR2FC This bit controls the URTS2/UIRTX2/TS0_PSTIN/GP[41] and

0 = I/O cells powered up. 1 = I/O cells powered down. This bit controls the USB_DRVVBUS/GP[22] pin.

CLKOUT0 Powerdown Control. This bit controls the CLKOUT0 pin.

SPI Powerdown Control. SPI_SIMO.

VLYNQ Powerdown Control. VLYNQ_TXD[3:0], and VLYNQ_RXD[3:0].

GMII Powerdown Control. MRXD[7:4].

MII Powerdown Control. MTXD[3:0], MTXEN, MCOL, MCRS, MRCLK, MRXD[3:0], MRXDV, MRXER, MDCLK, and MDIO.

McASP1 Powerdown Control. This bit controls the three McASP1 pins: ACLKX1, AHCLKX1, and AXR1[0].

McASP0 Powerdown Control. AXR0[3:0], AMUTE0, and AMUTEIN0.

PCI/HPI/EMIFA/ATA Powerdown Control. This bit controls the 28 pins used by the ATA or PCI`, HPI, or EMIFA. These pins include: PCI_RST/DA2/GP[13]/EM_A[22], PCI_IDSEL/HDDIR/EM_R/W, PCI_REQ/DMARQ/GP[11]/EM_CS5, PCI_GNT/DMACK/GP[12]/EM_CS4,

DIOW/GP[20]/EM_WAIT4/(RDY4/BSY4), IORDY/GP[21]/EM_WAIT3/(RDY3/BSY3), DIOR/GP[19]/EM_WAIT5/(RDY5/BSY5), DA1/GP[16]/EM_A[21], DA0/GP[17]/EM_A[20], INTRQ/GP[18]/RSV , PCI_AD[31:16]/DD[15:0]/HD[31:16]/EM_A[15:0] Defaults to powered up for NOR boot.

PCI/HPI/EMIFA Powerdown Control. This bit controls the 28 pins used by PCI, HPI, or EMIFA but not shared with ATA. These pins include: PCI_CLK/GP[10], PCI_DEVSEL/HCNTL1/EM_BA[1], PCI_FRAME/HINT/EM_BA[0], PCI_IRDY/HRDY/EM_A[17]/(CLE), PCI_TRDY/HHWIL/EM_A[16]/(ALE), PCI_STOP/HCNTL0/EM_WE, PCI_SERR/HDS1/EM_OE, PCI_PERR/HCS/EM_DQM1, PCI_PAR/HAS/EM_DQM0, PCI_INTA/EM_WAIT2/(RDY2/BSY2), PCI_CBE3/HR/W/EM_CS3, PCI_CBE2/HDS2/EM_CS2, PCI_AD[15:0]/HD[15:0]/EM_D[15:0] Defaults to powered up for NOR boot.

GPIO Powerdown Control. This bit controls the eight GP[7:0] pins. Defaults to powered up.

WD Timer Powerdown Control. This bit controls the WD Timer pin TOUT2.

Timer1 Powerdown Control. This bit controls the three Timer1 pins TINP1L, TOUT1L, and TOUT1U.

Timer0 Powerdown Control. This bit controls the four Timer0 pins TINP0L, TINP0U, TOUT0L, and TOUT0U.

PWM1 Powerdown Control. This bit controls the PWM1/TS1_DOUT pin.

PWM0 Powerdown Control. This bit controls the PWM0/CRG0_PO/TS1_ENAO pin.

UART2 Flow Control Powerdown Control. UCTS2/USD2/CRG0_VCXI/GP[42]/TS1_PSTO pins.

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Table 4-2. VDD3P3V_PWDN Register Bit Descriptions (continued)

BIT NAME DESCRIPTION

8 UR2DAT This bit controls the URXD2/CRG1_VCXI/GP[39]/CRG0_VCXI and

7 UR1FC This bit controls the URTS1/UIRTX1/TS0_WAITO/GP[25] and

6 UR1DAT

5 UR0MDM This bit controls the UDTR0/TS0_ENAO/GP[36], UDSR0/TS0_PSTO/GP[37],

4 UR0DF This bit controls the URXD0/TS1_DIN, UTXD0/URCTX0/TS1_PSTIN,

3 VPIF3 This bit controls the VP_DOUT[15:8]/TS1_xx, VP_CLKIN3/TS1_CLKO, and VP_CLKO3/TS0_CLKO

2 VPIF2 This bit controls the VP_DOUT[7:0], VP_CLKIN2, and VP_CLKO2 pins. (VP_DOUT[7:0] are boot

1 VPIF1

0 VPIF0 This bit controls the VP_DIN[3:0]/TS0_DOUT[3:0], VP_DIN[7:4]/TS0_DOUT[7:4]/TS1_xx, and

UART2 Data Powerdown Control. UTXD2/URCTX2/CRG1_PO/GP[40]/CRG0_PO pins.

UART1 Flow Control Powerdown Control. UCTS1/USD1/TS0_EN_WAITO/GP[26] pins.

UART1 Data Powerdown Control. This bit controls the URXD1/TS0_DIN7/GP[23] and UTXD1/URCTX1/TS0_DOUT7/GP[24] pins.

UART0 Modem Control Powerdown Control. UDCD0/TS0_WAITIN/GP[38], and URIN0/GP[8]/TS1_WAITIN pins.

UART0 Data and Flow Control Powerdown Control. URTS0/UIRTX0/TS1_EN_WAITO, and UCTS0/USD0 pins.

VPIF MSB Output Powerdown Control. pins.

VPIF LSB Output Powerdown Control. configuration inputs.)

VPIF MSB Input Powerdown Control. This bit controls the VP_DIN[15:8]/TS0_DIN[7:0] and VP_CLKIN1 pins.

VPIF LSB Input Powerdown Control. VP_CLKIN0 pins.

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4.3 Clock Considerations

Global device and local peripheral clocks are controlled by the PLL Controllers (PLLC1 and PLLC2) and the Power and Sleep Controller (PSC). In addition, the System Module Video Clock Control (VIDCLKCTL), TSIF Control (TSIFCTL), and Clock and Oscillator Control (CLKCTL) registers configure the clock sources to the VPIF, TSIF, CRGEN peripherals, and the Auxiliary Oscillator.

The selected Video, TSIF, and CRGEN module input clocks are disabled using the System Module Video Source Clock Disable (VSCLKDIS) register. Note: To ensure glitch-free operation, the clock should be disabled before changing the clock source frequency or muxing via the VIDCLKCTL and TSIFCTL.

4.3.1 Clock Configurations after Device Reset

After device reset, the user is responsible for programming the PLL Controllers (PLLC1 and PLLC2) and the Power and Sleep Controller (PSC) to bring the device up to the desired clock frequency and the desired peripheral clock state (clock gating or not).

For additional power savings, some of the DM6467T peripherals support clock gating within the peripheral boundary. For more details on clock gating and power saving features supported by a specific peripheral, see the peripheral-specific reference/user's guides [listed/linked in the TMS320DM646x DMSoC Peripherals Overview Reference Guide (literature number SPRUEQ0)].

4.3.1.1 Device Clock Frequency

The DM6467T defaults to PLL bypass mode. If the ROM bootloader is selected (BTMODE[3:0] ≠ 0100), the bootloader code programs PLLC1 and PLLC2.

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Section 4.4.1, Boot Modes discusses the different boot modes in more detail.

The user must adhere to the various clock requirements when programming the PLLC1 and PLLC2:

• PLL multiplier and frequency ranges. For more details on PLL multiplier and frequency ranges, see

Section 7.5.1, PLL1 and PLL2.

4.3.1.2 Module Clock State

The clock and reset state for each of the modules is controlled by the Power and Sleep Controller (PSC).

Table 4-3 shows the default state of each module after a device-level global reset. The DM6467T device

has four different module states—Enable, Disable, SyncReset, or SwRstDisable. For more information on the definitions of the module states, the PSC, and PSC programming, see Section 7.3.5, Power and Sleep Controller (PSC) and the TMS320DM646x DMSoC ARM Subsystem Reference Guide (literature number

SPRUEP9).

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Table 4-3. DM6467T Default Module States

LPSC # MODULE NAME

0 ARM Enable

DSP C64x+ If DSPBOOT = 0 then, Enable and Module Local Reset is asserted

2 HDVICP0 SwRstDisable 3 HDVICP1 SwRstDisable 4 EDMACC SwRstDisable 5 EDMATC0 SwRstDisable 6 EDMATC1 SwRstDisable 7 EDMATC2 SwRstDisable 8 EDMATC3 SwRstDisable

9 USB2.0 SwRstDisable 10 ATA SwRstDisable 11 VLYNQ SwRstDisable 12 HPI SwRstDisable 13 PCI SwRstDisable 14 EMAC/MDIO SwRstDisable 15 VDCE SwRstDisable

16 – 17 Video Port

18 TSIF0 SwRstDisable 19 TSIF1 SwRstDisable 20 DDR2 Memory Contoller SwRstDisable

21 EMIFA 22 McASP0 SwRstDisable

23 McASP1 SwRstDisable 24 CRGEN0 SwRstDisable 25 CRGEN1 SwRstDisable 26 UART0 SwRstDisable 27 UART1 SwRstDisable 28 UART2 SwRstDisable 29 PWM0 SwRstDisable 30 PWM1 SwRstDisable 31 I2C SwRstDisable 32 SPI SwRstDisable 33 GPIO SwRstDisable 34 TIMER0 SwRstDisable 35 TIMER1 SwRstDisable

36 – 44 Reserved Reserved

45 ARM INTC Enable

(1) The Video Port Module has a total of five clock inputs that can be controlled by the LPSC. One LPSC can support only a maximum of

four clocks; therefore, two LPSCs are assigned to the Video Port. Both Video Port LPSCs should be controlled together and should be set to the same state.

(1)

(MDSTATn.LRST = 0). If DSPBOOT = 1 then, Enable and Module Local Reset is asserted (MDSTATn.LRST = 1).

SwRstDisable

If BTMODE[3:0] ≠ 0100 and DSPBOOT = 0 then, SwRstDisable If BTMODE[3:0] = 0100 or DSPBOOT = 1 then, Enable

DEFAULT MODULE STATE

[PSC Register MDSTATn.STATE]

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4.3.2 Clock Control

This section describes the following registers: the VPIF (Video)/TSIF clock control and clock disable registers and the Clock and Oscillator control register.

4.3.2.1 Video Clock Control Register

The Video Clock Control (VIDCLKCTL) register allows the user to select/control the clock muxing for the video channels' (i.e., channels 1, 2, and 3) output clock source.

31 16

RESERVED

R-0000 0000 0000 0000

15 14 12 11 10 8 7 5 4 3 0

RSV VCH3CLK RSV VCH2CLK RESERVED VCH1CLK RESERVED

R-0 R/W-111 R-0 R/W-110 R-000 R/W-1 R-0000

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-2. VIDCLKCTL Register [0x01C4 0038]

Table 4-4. VIDCLKCTL Register Bit Descriptions

BIT NAME DESCRIPTION

31:15 RESERVED Reserved. Read returns "0".

Video Channel 3 Clock Source. This field selects the clock source for the Channel 3 output source clock. 000 = CRG0_VCXI (external pin) 001 = CRG1_VCXI (external pin)

14:12 VCH3CLK

11 RSV Reserved. Read returns "0".

10:8 VCH2CLK

7:5 RESERVED Reserved. Read returns "0".

4 VCH1CLK

3:0 RESERVED Reserved. Read returns "0".

010 = SYSCLK8 (PLLC1) 011 = AUXCLK (PLLC1) 100 = VP_CLKIN0 (external pin) 101 = STC_CLKIN (external pin) 110 = VP_CLKIN2 (external pin) 111 = VP_CLKIN3 (external pin)

Video Channel 2 Clock Source. This field selects the clock source for the Channel 2 output source clock. 000 = CRG0_VCXI (external pin) 001 = CRG1_VCXI (external pin) 010 = SYSCLK8 (PLLC1) 011 = AUXCLK (PLLC1) 100 = VP_CLKIN0 (external pin) 101 = STC_CLKIN (external pin) 110 = VP_CLKIN2 (external pin) 111 = Reserved

Video Channel 1 Clock Source. This bit selects the clock source for the Channel 1 input clock. 0 = VP_CLKIN0 (external pin) 1 = VP_CLKIN1 (external pin)

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4.3.2.2 TSIF Control

The TSIF Control (TSIFCTL) registers allows the user to select/control the clock muxing for the counter and serial output of TSIF1 andthe counter and parallel/serial output for TSIF0.

31 16

RESERVED

R-0000 0000 0000 0000

15 14 12 11 8 7 6 4 3 2 0

RSV TSIF1_CNTCLK TSSO_CLK RSV TSIF0_CNTCLK RSV TSPO_CLK

R-0 R/W-000 R/W-0000 R-0 R/W-000 R-0 R/W-000

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-3. TSIFCTL Register [0x01C4 0050]

Table 4-5. TSIFCTL Register Bit Descriptions

BIT NAME DESCRIPTION

31:15 RESERVED Reserved. Read returns "0".

TSIF1 Counter Clock Source. This field selects the clock source for the TSIF1 module's counter. 000 = CRG1_VCXI (external pin) 001 = STC_CLKIN (external pin)

14:12 TSIF1_CNTCLK

11:8 TSSO_CLK 0100 = VP_CLKIN0 (external pin)

7 RSV Reserved. Read returns "0".

6:4 TSIF0_CNTCLK

3 RSV Reserved. Read returns "0".

2:0 TSPO_CLK

010 = AUXCLK (PLLC1 output) 011 = CRG0_VCXI (external pin) 100 = VP_CLKIN2 (external pin) 101 = VP_CLKIN3 (external pin) 110 = Reserved 111 = Reserved

TSIF1 Serial Output Clock Source. This field selects the clock source for the TSIF1 output source clock. 0000 = CRG1_VCXI (external pin) 0001 = STC_CLKIN (external pin) 0010 = SYSCLK6 (PLLC1) 0011 = SYSCLKBP (PLLC1)

0101 = TS1_CLKIN (external pin) 0110 = VP_CLKIN2 (external pin) 0111 = Reserved 1000 = CRG0_VCXI 1001 = Reserved 1xx1 = Reserved

TSIF0 Counter Clock Source. This field selects the clock source for the TSIF0 module's counter. 000 = CRG0_VCXI (external pin) 001 = STC_CLKIN (external pin) 010 = AUXCLK (PLLC1 output) 011 = CRG1_VCXI (external pin) 100 = VP_CLKIN0 (external pin) 101 = VP_CLKIN1 (external pin) 110 = Reserved 111 = Reserved

TSIF0 Parallel/Serial Output Clock Source. This field selects the clock source for the TSIF0 output source clock. 000 = CRG0_VCXI (external pin) 001 = STC_CLKIN (external pin) 010 = SYSCLK5 (PLLC1) 011 = SYSCLKBP (PLLC1) 100 = VP_CLKIN0 (external pin) 101 = VP_CLKIN1 (external pin) 110 = TS0_CLKIN (external pin) 111 = CRG1_VCXI (external pin)

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4.3.2.3 Video and TSIF Clock Disable

The Video Source Clock Disable (VSCLKDIS) register allows the user to disable the selected Video (VPIF), TSIF, and CRGEN module input clocks.

Note: To ensure glitch-free operation, the clock should be disabled before changing the clock source frequency or muxing via the VIDCLKCTL and TSIFCTL.

31 16

RESERVED

R-0000 0000 0000 0000

15 12 11 10 9 8 7 6 5 4 3 2 1 0

RESERVED VID3 VID2 VID1 VID0 TSIFCNT1 TSIFCNT0 TSIFTX1 TSIFTX0 TSIFRX1 TSIFRX0 CRG1 CRG0

R-0000 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1 R/W-1

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-4. VSCLKDIS Register [0x01C4 006C]

Table 4-6. VSCLKDIS Register Bit Descriptions

BIT NAME DESCRIPTION

31:12 RESERVED Reserved. Read returns "0".

11 VID3 0 = Clock enabled.

10 VID2 0 = Clock enabled.

9 VID1 0 = Clock enabled.

8 VID0 0 = Clock enabled.

7 TSIFCNT1 0 = Clock enabled.

6 TSIFCNT0 0 = Clock enabled.

5 TSIFTX1 0 = Clock enabled.

4 TSIFTX0 0 = Clock enabled.

3 TSIFRX1 0 = Clock enabled.

2 TSIFRX0 0 = Clock enabled.

1 CRG1 0 = Clock enabled.

0 CRG0 0 = Clock enabled.

VPIF Channel 3 Clock Disable. 1 = Clock disabled.

VPIF Channel 2 Clock Disable. 1 = Clock disabled.

VPIF Channel 1 Clock Disable. 1 = Clock disabled.

VPIF Channel 0 Clock Disable. 1 = Clock disabled.

TSIF1 Counter Clock Disable. 1 = Clock disabled.

TSIF0 Counter Clock Disable. 1 = Clock disabled.

TSIF1 Transmit Clock Disable. 1 = Clock disabled.

TSIF0 Transmit Clock Disable. 1 = Clock disabled.

TSIF1 Receive Clock Disable. 1 = Clock disabled.

TSIF0 Receive Clock Disable. 1 = Clock disabled.

CRGEN1 Clock Disable. 1 = Clock disabled.

CRGEN0 Clock Disable. 1 = Clock disabled.

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4.3.3 Clock and Oscillator Control

The Clock and Oscillator Control (CLKCTL) register allows the user to disable the OSC pwrdwn and pwr disable

31 26 25 24 23 20 19 16

RESERVED OSCPWRDN OSCDIS RESERVED CLKOUT

R-0000 00 R/W-0 R/W-1 R-0000 R/W-1000

15 12 11 8 7 4 3 0

RESERVED AUD_CLK1 RESERVED AUD_CLK0

R-0000 R/W-0000 R-0000 R/W-0000

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-5. CLKCTL Register [0x01C4 005C]

Table 4-7. CLKCTL Register Bit Descriptions

BIT NAME DESCRIPTION

31:26 RESERVED Reserved. Read returns "0".

25 OSCPWRDN Auxiliary Oscillator Powerdown.

24 OSCDIS Auxiliary Oscillator Disable.

23:20 RESERVED Reserved. Read returns "0". 19:16 CLKOUT CLKOUT0 Source

15:12 RESERVED Reserved. Read returns "0".

This bit controls the internal bias resistor conection. 0 = Internal bias resistor connected (normal operation) 1 = Internal bias resistor disconnected (external bias resistor required or clock input used)

This bit disables the oscillator. 0 = Oscillator enabled (normal operation). 1 = Oscillator disabled (clock input used or no Auxiliary clock required).

(1)

This field selects the clock source for the CLKOUT0 output. 0000 = Disabled 0001 = PLL1 AUXCLK 0010 = Reserved 0011 = SYSCLK3 0100 = SYSCLK4 0101 = SYSCLK5 0110 = SYSCLK6 0111 = Reserved 1000 = SYSCLK8 1001 = SYSCLK9 1010 = AUX_MXI 1011 = Reserved 1100 = Reserved 1101 = Reserved 1110 = Reserved 1111 = Reserved

(1) The maximum frequency allowed for the CLKOUT0 pin is 148.5 MHz. Do not configure the CLKOUT bits to any SYSCLKx that is greater

than 148.5 MHz. For more details on the CLKOUT0 timings, see Table 7-14, Switching Characteristics Over Recommended Operating Conditions for CLKOUT0.

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Table 4-7. CLKCTL Register Bit Descriptions (continued)

BIT NAME DESCRIPTION

11:8 AUD_CLK1 AUDIO_CLK1 Source.

This field selects the clock source for the AUDIO_CLK1 output. 0000 = Disabled 0001 = PLL1 AUXCLK 0010 = CRG0_VCXI 0011 = CRG1_VCXI 0100 = VP_CLKIN0 0101 = VP_CLKIN1 0110 = VP_CLKIN2 0111 = VP_CLKIN3 1000 = AUX_MXI 1001 = STC_CLKIN 1010 = Reserved 1011 = Reserved 1100 = Reserved 1101 = Reserved 1110 = Reserved

1111 = Reserved 7:4 RESERVED Reserved. Read returns "0". 3:0 AUD_CLK0 AUDIO_CLK0 Source.

This field selects the clock source for the AUDIO_CLK0 output.

0000 = Disabled

0001 = PLL1 AUXCLK

0010 = CRG0_VCXI

0011 = CRG1_VCXI

0100 = VP_CLKIN0

0101 = VP_CLKIN1

0110 = VP_CLKIN2

0111 = VP_CLKIN3

1000 = AUX_MXI

1001 = STC_CLKIN

1010 = Reserved

1011 = Reserved

1100 = Reserved

1101 = Reserved

1110 = Reserved

1111 = Reserved

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4.4 Boot Sequence

The boot sequence is a process by which the device's memory is loaded with program and data sections, and by which some of the device's internal registers are programmed with predetermined values. The boot sequence is started automatically after each device-level global reset. For more details on device-level global resets, see Section 7.7, Reset.

There are several methods by which the memory and register initialization can take place. Each of these methods is referred to as a boot mode. The boot mode to be used is selected at reset. For more information on the bootmode selections, see Section 4.4.1, Boot Modes.

The device is booted through multiple means—primary bootloaders within internal ROM or EMIFA, and secondary user bootloaders from peripherals or external memories. Boot modes, pin configurations, and register configurations required for booting the device, are described in the following subsections.

4.4.1 Boot Modes

The DM6467T boot modes are determined by these device boot and configuration pins. For information on how these pins are sampled at device reset, see Section 7.7.1.2, Latching Boot and Configuration Pins.

• BTMODE[3:0]

• PCIEN

• CS2BW

• DSPBOOT

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The TMS320DM646x DMSoC ARM can boot either from asynchronous EMIF/NOR Flash or from ARM ROM, as determined by the device boot and configuration pins at reset (BTMODE[3:0] and PCIEN). The PCIEN pin configuration is used to select the default configuration of the EMIFA/PCI/HPI pins at reset. This allows the DM646xT DMSoC to be PCI-compliant at reset. When PCIEN = 1, the PCI module controls the multiplexed pins with the appropriate pullup/pulldown configuration. For all other bootmodes (non-PCI bootmodes), the PCIEN must be cleared to "0".

For a more detailed description of the ROM boot modes supported by the DM646xT DMSoC, see Using the TMS320DM646x Bootloader Application Report (literature number SPRAAS0).

4.4.2 Boot Mode Registers

The DSPBOOTADDR, BOOTCMPLT, BOOTCMD, and BOOTCFG registers are used to control boot and device configurations.

4.4.2.1 DSPBOOTADDR Register

The DSPBOOTADDR register contains the upper 22 bits of the DSP reset vector.

31 10 9 0

BOOTADDR[21:0] RESERVED

R/W-0100 0010 0010 0000 0000 00 R-00 0000 0000

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-6. DSPBOOTADDR Register

Table 4-8. DSPBOOTADDR Register Bit Descriptions

BIT NAME DESCRIPTION

31:10 BOOTADDR[21:0] Upper 22 bits of the C64x+ DSP boot address.

9:0 RESERVED Reserved

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4.4.2.2 BOOTSTAT Register

The Boot Status (BOOTSTAT) register indicates the status of the device boot process (e.g., boot error, boot complete, or watchdog timer reset).

31 30 20 19 16

WDRST RESERVED BOOTERR

R/W-0 R-000 0000 0000 R-0000

15 1 0

RESERVED BC

R-0000 0000 0000 000 R/W-0

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-7. BOOTSTAT Register

Table 4-9. BOOTSTAT Register Bit Descriptions

BIT NAME DESCRIPTION

Watchdog Timer Reset.

0 = Device reset was not a result of a watchdog timer timeout.

31 WDRST This is a "sticky" bit that can be used to debug WD timeout conditions. The bit is set when a WD

30:20 RESERVED Reserved. Read returns "0".

19:16 BOOTERR

15:1 RESERVED Reserved. Read returns "0".

0 BC

1 = Device reset was a result of a watchdog timer timeout.

timeout occurs (TOUT2). This bit is reset (to "0") by a POR reset only; otherwise it retains its value.

It is not cleared by a Warm Reset or Soft Reset.

The bit may be cleared by writing a "1".

Boot Error.

0000 = No boot error [default].

Others = Bootloader detected boot error.

The exact meaning of the various error codes will be determined by the bootloader software.

Boot Complete.

0 = Host has not completed the boot sequence [default].

1 = Host has completed the boot sequence.

This bit may be optionally set by a host boot device (such as PCI or HPI) to indicate that it has

finished loading code. The ARM926 can poll this bit to determine whether to continue the boot

process.

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4.4.2.3 BOOTCFG Register

The Boot Configuration (BOOTCFG) register is a read-only register that indicates the value of the device bootmode and configuration pins latched at the end of reset. During a hard reset (POR or RESET pin active [low]), the values of the CFG pins (i.e., BTMODE[3:0], CS2BW, PCIEN, DSPBOOT) are propagated through the BOOTCFG register to the Boot Controller. When RESET or POR is de-asserted, the value of the pins is latched. The BOOTCFG value does not change as a result of a soft reset, instead the value latched at the end of the previous global reset is retained.

31 18 17 16

RESERVED DSP_BT PCIEN

R-0000 0000 0000 00 R-L R-L

15 9 8 7 4 3 0

RESERVED CS2_BW RESERVED BOOTMODE

R-0000000 R-L R-0000 R-LLLL

LEGEND: R = Read only; L = Latched pin value; -n = value after reset

Figure 4-8. BOOTCFG Register

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Table 4-10. BOOTCFG Register Bit Descriptions

BIT NAME DESCRIPTION

31:18 RESERVED Reserved. Read returns "0".

DSP Boot. Latched from DSPBOOT input at the rising edge of RESET or POR.

0 = ARM boots C64x+.

17 DSP_BT

16 PCIEN 1 = PCI enabled.

15:9 RESERVED Reserved. Read returns "0".

8 CS2_BW

7:4 RESERVED Reserved. Read returns "0".

3:0 BOOTMODE 0110 = I2C boot.

1 = C64x+ self-boots.

This bit will cause the DSP to be released from reset automatically. The C64x+ will boot from

EMIFA (default DSPBOOTADDR address 0x4220 0000). If BOOTMODE = 0010 or 0011,

or PCIEN = 1, then the C64x+ self-boot will fail since EMIFA will be disabled.

PCI Enable. Latched from PCIEN input at the rising edge of RESET or POR.

0 = PCI disabled.

PCIEN = 1 disables the internal pullup and pulldown resistors on the PCI pins and configures the

pin muxing for PCI.

EMIFA EM_CS2 Default Bus Width. Latched from CS2BW input at the rising edge of RESET or

POR.

0 = Default to 8-bit operation.

1 = Default to 16-bit operation.

This bit determines the default bus width of the EMIFA EM_CS2 memory space. This ensures that

boot from EMIFA (ARM or DSP) will correctly read the attached memory.

Boot Mode Configuration Bits. Bit values latched from BTMODE[3:0] at the rising edge of RESET or

POR.

0000 = Emulation boot.

0001 = Reserved.

0010 = HPI-16 (if PCIEN = 0).

PCI without autoinitialization (if PCIEN = 1).

0011 = HPI-32 (if PCIEN = 0).

PCI with autoinitialization (if PCIEN = 1). 0100 = EMIFA direct boot (ROM/NOR) (if PCIEN = 0; error if PCIEN = 1 defaults to UART0). 0101 = Reserved.

0111 = NAND Flash boot (if PCIEN = 0; error if PCIEN = 1 defaults to UART0).

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1000 = UART0 boot. 1001 = Reserved. 1010 = Reserved. 1011 = Reserved. 1100 = Reserved. 1101 = Reserved. 1110 = SPI boot. 1111 = Reserved.

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4.4.2.4 ARMBOOT Register

The ARM Boot Configuration (ARMBOOT) register is used to control the ARM926 boot. The ARMBOOT value does not change as a result of a soft reset, instead the last value written is retained.

When ROM boot is selected (BTMODE[3:0] ≠ 0100), a jump to the internal TCM ROM (0x0000 8000) is forced into the first fetched instruction word. The embedded ROM boot loader (RBL) code can then perform certain configuration steps, read the BOOTCFG register to determine the desired boot method, and branch to an appropriate secondary loader utility.

If EMIFA boot is selected (BTMODE[3:0] = 0100), a jump to the highest branch address (0x0200 0000) is forced into the first fetched instruction word. This must be modified to address 0x4200 0000 in order to map to the EMIFA. The ARM will then continue executing from external memory using the default EMIFA timings until modified by software. Note: that either NOR Flash or ROM must be connected to the first EMIFA chip select space (EM_CS2). The EMIFA does not support direct execution from NAND Flash.

31 5 4 3 1 0

RESERVED ADDRMOD RESERVED TRAMBOOT

R-0000 0000 0000 0000 0000 0000 000 R/W-C R-000 R/W-0

LEGEND: R/W = Read/Write; R = Read only; C = Clear; -n = value after reset

Figure 4-9. ARMBOOT Register

Table 4-11. ARMBOOT Register Bit Descriptions

BIT NAME DESCRIPTION

31:5 RESERVED Reserved. Read returns "0".

IAHB Address Modification. 0 = No address modification. 1 = Address bit 30 is tied high to modify IAHB fetch address to point to EMIFA. The default value for this bit is determined by the BOOTMODE configuration bits (BTMODE[3:0]). If BTMODE[3:0] = 0100 [EMIFA direct boot (ROM/NOR)] , then ADDRMOD defaults to "1" so that

4 ADDRMOD instruction fetches from the ARM will point to EMIFA CS2 memory space. For all other

BTMODE[3:0] values, ADDRMOD defaults to "0" because ARM will boot from its TCM (ROM or RAM). The ADDRMOD value is ignored when TRAMBOOT is set (1) [address modification is disabled]. After branching into the EMIFA CS2 space, software should clear this bit as part of the reset routine so that subsequent IAHB access addresses are not modified.

3:1 RESERVED Reserved. Read returns "0".

ARM TCM RAM Boot. 0 = Use BTMODE[3:0] selected boot mode 1 = Boot from ITCM RAM

0 TRAMBOOT This is a "sticky" bit that can be used to force the ARM926 to boot from ITCM RAM. On POR reset,

this bit will be initialized to "0" because TCM RAM is not initialized; otherwise, the bit retains the value. After initializing ITCM RAM, software can set this bit so that subsequent Warm Reset (RESET) or Soft Reset will boot from the ITCM.

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4.4.2.5 ARMWAIT Register

The ARM Wait State Control (ARMWAIT) register is used to control ARM926 accesses to its TCM RAM. At normal ARM operating frequency, a wait state must be inserted when accessing TCM RAM. When the device is operated at low speeds, performance may be increased by removing the wait state. Note: TCM ROM will always operate with a wait state enabled.

31 1 0

RESERVED RAMWAIT

R-0000 0000 0000 0000 0000 0000 0000 000 R/W-1

LEGEND: R/W = Read/Write; R = Read only; -n = value after reset

Figure 4-10. ARMWAIT Register

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Table 4-12. ARMWAIT Register Bit Descriptions

BIT NAME DESCRIPTION

31:1 RESERVED Reserved. Read returns "0".

ARM TCM RAM Wait State Configuration.

0 RAMWAIT 0 = TCM RAM wait state disabled.

1 = TCM RAM wait state enabled.

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4.5 Configurations At Reset

Some device configurations are determined at reset. The following subsections give more details.

4.5.1 Device and Peripheral Configurations at Device Reset

Table 3-5, BOOT Terminal Functions lists the device boot and configuration pins that are latched at device

reset for configuring basic device settings for proper device operation. Table 4-13, summarizes the device boot and configuration pins, and the device functions that they affect.

Table 4-13. Default Functions Affected by Device Boot and Configuration Pins

DEVICE BOOT AND

CONFIGURATION PINS

BOOTMODE[3:0] Boot Mode PINMUX0/PINMUX1 I/O Pin Power: PSC/Peripherals:

CS2BW EMIFA Direct Boot Mode PINMUX0.HPIEN = 0 – The default width of the

(1)

PCIEN

BOOT SELECTED PIN MUX CONTROL GLOBAL SETTING PERIPHERAL SETTING

Registers: Based on Based on

Based on BOOTMODE[3:0], the BOOTMODE[3:0], the BOOTMODE[3:0], the bootloader code programs bootloader code programs bootloader code programs VDD3P3V_PWDN register the PSC to put PINMUX0 and PINMUX1 to power up the I/O pins boot-related peripheral(s) registers to select the required for boot. in the Enable State, and appropriate pin functions programs the peripheral(s) required for boot. for boot operation.

PINMUX0.PCIEN = 0 first EMIFA chip select PINMUIX0.ATAEN = 0 space (CS2) is

Host Boot: PINMUX0.PCIEN: – PSC/Peripheral PCIEN selects the type of sets this field to control (Applicable to Host Boot Host Boot the PCI pin muxing in . only): (HPI Boot or PCI Boot)

(1) (2)

determined by the CS2BW value. If CS2BW = 0, the space defaults to 8-bits wide. If CS2BW = 1, it defaults to 16-bits wide. This allows the ARM to make full use of the width of the attached memory device when booting from EMIFA.

Based on the Host Boot type (PCI or HPI), the bootloader code programs the PSC to put the corresponding peripheral in the Enable State, and programs the peripheral for boot operation.

(1) Software can modify all PINMUX0 and PINMUX1 bit fields from their defaults. (2) In addition to pin mux control, PCIEN also affects the internal pullup/down resistors of the PCI capable pins. When PCIEN = 0, internal

pullup/down resistors on the PCI capable pins are enabled. When PCIEN = 1, internal pullup/down resistors on the PCI capable pins are disabled to be compliant to the PCI Local Bus Specification Revision 2.3.

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Texas instruments TMS320DM6467T Data Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

1 Digital Media System-on-Chip (DMSoC)

1.1 Features

1.2 Description

1.3 Functional Block Diagram

2 Revision History

3 Device Overview

3.1 Device Characteristics

3.2 Device Compatibility

3.3 ARM Subsystem

3.3.1 ARM926EJ-S RISC CPU

3.3.2 CP15

3.3.3 MMU

3.3.4 Caches and Write Buffer

3.3.5 Tightly Coupled Memory (TCM)

3.3.6 Advanced High-Performance Bus (AHB)

3.3.7 Embedded Trace Macrocell (ETM) and Embedded Trace Buffer (ETB)

3.3.8 ARM Memory Mapping

3.3.8.1 ARM Internal Memories

3.3.8.2 External Memories

3.3.8.3 DSP Memories

3.3.8.4 ARM-DSP Integration

3.3.9 Peripherals

3.3.10 PLL Controller (PLLC)

3.3.11 Power and Sleep Controller (PSC)

3.3.12 ARM Interrupt Controller (AINTC)

3.3.13 System Module

3.3.14 Power Management

3.4 DSP Subsystem

3.4.1 C64x+ DSP CPU Description

3.4.2 DSP Memory Mapping

3.4.2.1 ARM Internal Memories

3.4.2.2 External Memories

3.4.2.3 DSP Internal Memories

3.4.2.4 C64x+ CPU

3.4.3 Peripherals

3.4.4 DSP Interrupt Controller

3.5 Memory Map Summary

3.6 Pin Assignments

3.6.1 Pin Map (Bottom View)

3.7 Terminal Functions

3.8 Device Support

3.8.1 Development Support

3.8.2 Device and Development-Support Tool Nomenclature

3.9 Documentation Support

3.9.1 Related Documentation From Texas Instruments

4 Device Configurations

4.1 System Module Registers

4.2 Power Considerations

4.3 Clock Considerations

4.3.1 Clock Configurations after Device Reset

4.3.1.1 Device Clock Frequency

4.3.1.2 Module Clock State

4.3.2 Clock Control

4.3.2.1 Video Clock Control Register

4.3.2.2 TSIF Control

4.3.2.3 Video and TSIF Clock Disable

4.3.3 Clock and Oscillator Control

4.4 Boot Sequence

4.4.1 Boot Modes

4.4.2 Boot Mode Registers

4.4.2.1 DSPBOOTADDR Register

4.4.2.2 BOOTSTAT Register

4.4.2.3 BOOTCFG Register

4.4.2.4 ARMBOOT Register

4.4.2.5 ARMWAIT Register

4.5 Configurations At Reset

4.5.1 Device and Peripheral Configurations at Device Reset