ADBF534WBBCZ4B03RL

Blackfin Embedded Processor ADSP-BF534/ADSP-BF536/ADSP-BF537 FEATURES PERIPHERALS Up to 600 MHz high performance Blackfin processor Two 16-bit MACs, two 40-bit ALUs, four 8-bit video ALUs, 40-bit shifter RISC-like register and instruction model for ease of programming and compiler-friendly support Advanced debug, trace, and performance monitoring Wide range of operating voltages (see Operating Conditions on Page 23) Qualified for Automotive Applications (see Automotive Products on Page 66) Programmable on-chip voltage regulator 182-ball and 208-ball CSP_BGA packages IEEE 802.3-compliant 10/100 Ethernet MAC (ADSP-BF536 and ADSP-BF537 only) Controller area network (CAN) 2.0B interface Parallel peripheral interface (PPI), supporting ITU-R 656 video data formats 2 dual-channel, full-duplex synchronous serial ports (SPORTs), supporting 8 stereo I2S channels 12 peripheral DMAs, 2 mastered by the Ethernet MAC 2 memory-to-memory DMAs with external request lines Event handler with 32 interrupt inputs Serial peripheral interface (SPI) compatible 2 UARTs with IrDA support 2-wire interface (TWI) controller Eight 32-bit timer/counters with PWM support Real-time clock (RTC) and watchdog timer 32-bit core timer 48 general-purpose I/Os (GPIOs), 8 with high current drivers On-chip PLL capable of frequency multiplication Debug/JTAG interface MEMORY Up to 132K bytes of on-chip memory Instruction SRAM/cache and instruction SRAM Data SRAM/cache plus additional dedicated data SRAM Scratchpad SRAM (see Table 1 on Page 3 for available memory configurations) External memory controller with glueless support for SDRAM and asynchronous 8-bit and 16-bit memories Flexible booting options from external flash, SPI and TWI memory or from SPI, TWI, and UART host devices Memory management unit providing memory protection VOLTAGE REGULATOR JTAG TEST AND EMULATION PERIPHERAL ACCESS BUS WATCHDOG TIMER B CAN TWI PORT J SPORT0 L1 DATA MEMORY DMA CONTROLLER DMA CORE BUS EXTERNAL ACCESS BUS SPORT1 PPI DMA EXTERNAL BUS L1 INSTRUCTION MEMORY RTC INTERRUPT CONTROLLER GPIO PORT G UART0-1 SPI EXTERNAL PORT FLASH, SDRAM CONTROL GPIO PORT F TIMER7-0 ETHERNET MAC (See Table 1) 16 GPIO PORT H BOOT ROM Figure 1. Functional Block Diagram Blackfin and the Blackfin logo are registered trademarks of Analog Devices, Inc. Rev. J Document Feedback Information furnished by Analog Devices is believed to be accurate and reliable. However, no responsibility is assumed by Analog Devices for its use, nor for any infringements of patents or other rights of third parties that may result from its use. Specifications subject to change without notice. No license is granted by implication or otherwise under any patent or patent rights of Analog Devices. Trademarks and registered trademarks are the property of their respective companies. One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106 U.S.A. Tel: 781.329.4700 ©2014 Analog Devices, Inc. All rights reserved. Technical Support www.analog.com ADSP-BF534/ADSP-BF536/ADSP-BF537 TABLE OF CONTENTS Features ................................................................. 1 Booting Modes ................................................... 16 Memory ................................................................ 1 Instruction Set Description .................................... 17 Peripherals ............................................................. 1 Development Tools .............................................. 17 General Description ................................................. 3 Additional Information ........................................ 18 Portable Low Power Architecture ............................. 3 Related Signal Chains ........................................... 18 System Integration ................................................ 3 Pin Descriptions .................................................... 19 Blackfin Processor Peripherals ................................. 3 Specifications ........................................................ 23 Blackfin Processor Core .......................................... 4 Operating Conditions ........................................... 23 Memory Architecture ............................................ 5 Electrical Characteristics ....................................... 25 DMA Controllers .................................................. 8 Absolute Maximum Ratings ................................... 29 Real-Time Clock ................................................... 9 ESD Sensitivity ................................................... 29 Watchdog Timer .................................................. 9 Package Information ............................................ 29 Timers ............................................................... 9 Timing Specifications ........................................... 30 Serial Ports (SPORTs) .......................................... 10 Output Drive Currents ......................................... 50 Serial Peripheral Interface (SPI) Port ....................... 10 Test Conditions .................................................. 52 UART Ports ...................................................... 10 Thermal Characteristics ........................................ 56 Controller Area Network (CAN) ............................ 11 182-Ball CSP_BGA Ball Assignment ........................... 57 TWI Controller Interface ...................................... 11 208-Ball CSP_BGA Ball Assignment ........................... 60 10/100 Ethernet MAC .......................................... 11 Outline Dimensions ................................................ 63 Ports ................................................................ 12 Surface-Mount Design .......................................... 65 Parallel Peripheral Interface (PPI) ........................... 12 Automotive Products .............................................. 66 Dynamic Power Management ................................ 13 Ordering Guide ..................................................... 67 Voltage Regulation .............................................. 14 Clock Signals ..................................................... 15 REVISION HISTORY 2/14—Rev. I to Rev. J Corrected typographical error from Three 16-bit MACs to Two 16-bit MACs in Features ............................................ 1 Updated Development Tools .................................... 17 Added tHDRE parameter to Serial Port Timing ................ 38 Added footnotes in Serial Port Timing ........................ 38 Rev. J | Page 2 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 GENERAL DESCRIPTION The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors are members of the Blackfin® family of products, incorporating the Analog Devices, Inc./Intel Micro Signal Architecture (MSA). Blackfin processors combine a dual-MAC, state-of-the-art signal processing engine, the advantages of a clean, orthogonal RISC-like microprocessor instruction set, and single-instruction, multiple-data (SIMD) multimedia capabilities into a single instruction-set architecture. The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors are completely code and pin compatible. They differ only with respect to their performance, on-chip memory, and presence of the Ethernet MAC module. Specific performance, memory, and feature configurations are shown in Table 1. ADSP-BF536 ADSP-BF537 Features Ethernet MAC CAN TWI SPORTs UARTs SPI GP Timers Watchdog Timers RTC Parallel Peripheral Interface GPIOs L1 Instruction SRAM/Cache L1 Instruction SRAM Memory L1 Data Configuration SRAM/Cache L1 Data SRAM L1 Scratchpad L3 Boot ROM Maximum Speed Grade Package Options: CSP_BGA CSP_BGA ADSP-BF534 Table 1. Processor Comparison — 1 1 2 2 1 8 1 1 1 48 16K bytes 1 1 1 2 2 1 8 1 1 1 48 16K bytes 1 1 1 2 2 1 8 1 1 1 48 16K bytes 48K bytes 48K bytes 48K bytes 32K bytes 32K bytes 32K bytes 32K bytes 4K bytes 2K bytes 500 MHz — 4K bytes 2K bytes 400 MHz 32K bytes 4K bytes 2K bytes 600 MHz 208-Ball 182-Ball 208-Ball 182-Ball 208-Ball 182-Ball By integrating a rich set of industry-leading system peripherals and memory, the Blackfin processors are the platform of choice for next-generation applications that require RISC-like programmability, multimedia support, and leading-edge signal processing in one integrated package. Rev. J | Page 3 of 68 | PORTABLE LOW POWER ARCHITECTURE Blackfin processors provide world-class power management and performance. They are produced with a low power and low voltage design methodology and feature on-chip dynamic power management, which is the ability to vary both the voltage and frequency of operation to significantly lower overall power consumption. This capability can result in a substantial reduction in power consumption, compared with just varying the frequency of operation. This allows longer battery life for portable appliances. SYSTEM INTEGRATION The Blackfin processor is a highly integrated system-on-a-chip solution for the next generation of embedded network-connected applications. By combining industry-standard interfaces with a high performance signal processing core, cost-effective applications can be developed quickly, without the need for costly external components. The system peripherals include an IEEE-compliant 802.3 10/100 Ethernet MAC (ADSP-BF536 and ADSP-BF537 only), a CAN 2.0B controller, a TWI controller, two UART ports, an SPI port, two serial ports (SPORTs), nine general-purpose 32-bit timers (eight with PWM capability), a real-time clock, a watchdog timer, and a parallel peripheral interface (PPI). BLACKFIN PROCESSOR PERIPHERALS The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors contain a rich set of peripherals connected to the core via several high bandwidth buses, providing flexibility in system configuration as well as excellent overall system performance (see Figure 1). The processors contain dedicated network communication modules and high speed serial and parallel ports, an interrupt controller for flexible management of interrupts from the on-chip peripherals or external sources, and power management control functions to tailor the performance and power characteristics of the processor and system to many application scenarios. All of the peripherals, except for the general-purpose I/O, CAN, TWI, real-time clock, and timers, are supported by a flexible DMA structure. There are also separate memory DMA channels dedicated to data transfers between the processor’s various memory spaces, including external SDRAM and asynchronous memory. Multiple on-chip buses running at up to 133 MHz provide enough bandwidth to keep the processor core running along with activity on all of the on-chip and external peripherals. The Blackfin processors include an on-chip voltage regulator in support of the processors’ dynamic power management capability. The voltage regulator provides a range of core voltage levels when supplied from VDDEXT. The voltage regulator can be bypassed at the user’s discretion. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 BLACKFIN PROCESSOR CORE instructions include byte alignment and packing operations, 16-bit and 8-bit adds with clipping, 8-bit average operations, and 8-bit subtract/absolute value/accumulate (SAA) operations. Also provided are the compare/select and vector search instructions. As shown in Figure 2, the Blackfin processor core contains two 16-bit multipliers, two 40-bit accumulators, two 40-bit ALUs, four video ALUs, and a 40-bit shifter. The computation units process 8-, 16-, or 32-bit data from the register file. For certain instructions, two 16-bit ALU operations can be performed simultaneously on register pairs (a 16-bit high half and 16-bit low half of a compute register). If the second ALU is used, quad 16-bit operations are possible. The compute register file contains eight 32-bit registers. When performing compute operations on 16-bit operand data, the register file operates as 16 independent 16-bit registers. All operands for compute operations come from the multiported register file and instruction constant fields. The 40-bit shifter can perform shifts and rotates, and is used to support normalization, field extract, and field deposit instructions. Each MAC can perform a 16-bit by 16-bit multiply in each cycle, accumulating the results into the 40-bit accumulators. Signed and unsigned formats, rounding, and saturation are supported. The program sequencer controls the flow of instruction execution, including instruction alignment and decoding. For program flow control, the sequencer supports PC relative and indirect conditional jumps (with static branch prediction), and subroutine calls. Hardware is provided to support zero-overhead looping. The architecture is fully interlocked, meaning that the programmer need not manage the pipeline when executing instructions with data dependencies. The ALUs perform a traditional set of arithmetic and logical operations on 16-bit or 32-bit data. In addition, many special instructions are included to accelerate various signal processing tasks. These include bit operations such as field extract and population count, modulo 232 multiply, divide primitives, saturation and rounding, and sign/exponent detection. The set of video ADDRESS ARITHMETIC UNIT I3 L3 B3 M3 I2 L2 B2 M2 I1 L1 B1 M1 I0 L0 B0 M0 SP FP P5 DAG1 P4 P3 DAG0 P2 DA1 32 DA0 32 P1 TO MEMORY P0 32 PREG 32 RAB SD 32 LD1 32 LD0 32 ASTAT 32 32 R7.H R6.H R7.L R6.L R5.H R5.L R4.H R4.L R3.H R3.L R2.H R2.L R1.H R1.L R0.H R0.L SEQUENCER ALIGN 16 16 8 8 8 8 DECODE BARREL SHIFTER 40 40 A0 32 40 40 A1 32 DATA ARITHMETIC UNIT Figure 2. Blackfin Processor Core Rev. J | Page 4 of 68 | February 2014 LOOP BUFFER CONTROL UNIT ADSP-BF534/ADSP-BF536/ADSP-BF537 The address arithmetic unit provides two addresses for simultaneous dual fetches from memory. It contains a multiported register file consisting of four sets of 32-bit index, modify, length, and base registers (for circular buffering), and eight additional 32-bit pointer registers (for C-style indexed stack manipulation). The memory DMA controller provides high bandwidth datamovement capability. It can perform block transfers of code or data between the internal memory and the external memory spaces. Internal (On-Chip) Memory Blackfin processors support a modified Harvard architecture in combination with a hierarchical memory structure. Level 1 (L1) memories are those that typically operate at the full processor speed with little or no latency. At the L1 level, the instruction memory holds instructions only. The two data memories hold data, and a dedicated scratchpad data memory stores stack and local variable information. The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors have three blocks of on-chip memory providing high-bandwidth access to the core. In addition, multiple L1 memory blocks are provided, offering a configurable mix of SRAM and cache. The memory management unit (MMU) provides memory protection for individual tasks that may be operating on the core and can protect system registers from unintended access. The second on-chip memory block is the L1 data memory, consisting of up to two banks of up to 32K bytes each. Each memory bank is configurable, offering both cache and SRAM functionality. This memory block is accessed at full processor speed. The architecture provides three modes of operation: user mode, supervisor mode, and emulation mode. User mode has restricted access to certain system resources, thus providing a protected software environment, while supervisor mode has unrestricted access to the system and core resources. The Blackfin processor instruction set has been optimized so that 16-bit opcodes represent the most frequently used instructions, resulting in excellent compiled code density. Complex DSP instructions are encoded into 32-bit opcodes, representing fully featured multifunction instructions. Blackfin processors support a limited multi-issue capability, where a 32-bit instruction can be issued in parallel with two 16-bit instructions, allowing the programmer to use many of the core resources in a single instruction cycle. The Blackfin processor assembly language uses an algebraic syntax for ease of coding and readability. The architecture has been optimized for use in conjunction with the C/C++ compiler, resulting in fast and efficient software implementations. MEMORY ARCHITECTURE The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors view memory as a single unified 4G byte address space, using 32-bit addresses. All resources, including internal memory, external memory, and I/O control registers, occupy separate sections of this common address space. The memory portions of this address space are arranged in a hierarchical structure to provide a good cost/performance balance of some very fast, low latency on-chip memory as cache or SRAM, and larger, lower cost, and performance off-chip memory systems. (See Figure 3). The on-chip L1 memory system is the highest performance memory available to the Blackfin processor. The off-chip memory system, accessed through the external bus interface unit (EBIU), provides expansion with SDRAM, flash memory, and SRAM, optionally accessing up to 516M bytes of physical memory. Rev. J | Page 5 of 68 | The first block is the L1 instruction memory, consisting of 64K bytes SRAM, of which 16K bytes can be configured as a four-way set-associative cache. This memory is accessed at full processor speed. The third memory block is a 4K byte scratchpad SRAM, which runs at the same speed as the L1 memories, but is only accessible as data SRAM, and cannot be configured as cache memory. External (Off-Chip) Memory External memory is accessed via the EBIU. This 16-bit interface provides a glueless connection to a bank of synchronous DRAM (SDRAM) as well as up to four banks of asynchronous memory devices including flash, EPROM, ROM, SRAM, and memory mapped I/O devices. The PC133-compliant SDRAM controller can be programmed to interface to up to 128M bytes of SDRAM. A separate row can be open for each SDRAM internal bank, and the SDRAM controller supports up to 4 internal SDRAM banks, improving overall performance. The asynchronous memory controller can be programmed to control up to four banks of devices with very flexible timing parameters for a wide variety of devices. Each bank occupies a 1M byte segment regardless of the size of the devices used, so that these banks are only contiguous if each is fully populated with 1M byte of memory. I/O Memory Space The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors do not define a separate I/O space. All resources are mapped through the flat 32-bit address space. On-chip I/O devices have their control registers mapped into memory-mapped registers (MMRs) at addresses near the top of the 4G byte address space. These are separated into two smaller blocks, one which contains the control MMRs for all core functions, and the other which contains the registers needed for setup and control of the onchip peripherals outside of the core. The MMRs are accessible only in supervisor mode and appear as reserved space to onchip peripherals. Booting The Blackfin processor contains a small on-chip boot kernel, which configures the appropriate peripheral for booting. If the Blackfin processor is configured to boot from boot ROM February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 ADSP-BF534/ADSP-BF537 MEMORY MAP ADSP-BF536 MEMORY MAP 0xFFFF FFFF 0xFFFF FFFF CORE MMR REGISTERS (2M BYTES) CORE MMR REGISTERS (2M BYTES) 0xFFE0 0000 0xFFE0 0000 SYSTEM MMR REGISTERS (2M BYTES) SYSTEM MMR REGISTERS (2M BYTES) 0xFFC0 0000 0xFFC0 0000 RESERVED RESERVED SCRATCHPAD SRAM (4K BYTES) SCRATCHPAD SRAM (4K BYTES) 0xFFB0 0000 0xFFB0 0000 RESERVED 0xFFA1 4000 INSTRUCTION SRAM/CACHE (16K BYTES) 0xFFA1 0000 RESERVED 0xFFA0 C000 INSTRUCTION BANK B SRAM (16K BYTES) 0xFFA0 8000 INSTRUCTION BANK A SRAM (32K BYTES) 0xFFA0 0000 RESERVED 0xFF90 8000 INTERNAL MEMORY MAP RESERVED DATA BANK B SRAM/CACHE (16K BYTES) 0xFFA1 4000 INSTRUCTION SRAM/CACHE (16K BYTES) 0xFFA1 0000 RESERVED 0xFFA0 C000 INSTRUCTION BANK B SRAM (16K BYTES) 0xFFA0 8000 INSTRUCTION BANK A SRAM (32K BYTES) 0xFFA0 0000 INTERNAL MEMORY MAP 0xFFB0 1000 0xFFB0 1000 RESERVED 0xFF90 8000 DATA BANK B SRAM/CACHE (16K BYTES) 0xFF90 4000 0xFF90 4000 RESERVED DATA BANK B SRAM (16K BYTES) 0xFF90 0000 0xFF90 0000 RESERVED RESERVED 0xFF80 8000 0xFF80 8000 DATA BANK A SRAM/CACHE (16K BYTES) DATA BANK A SRAM/CACHE (16K BYTES) 0xFF80 4000 0xFF80 4000 RESERVED DATA BANK A SRAM (16K BYTES) 0xFF80 0000 0xFF80 0000 RESERVED 0xEF00 0800 EXTERNAL MEMORY MAP 0xEF00 0800 BOOT ROM (2K BYTES) 0xEF00 0000 RESERVED 0x2040 0000 ASYNC MEMORY BANK 3 (1M BYTES) 0x2030 0000 ASYNC MEMORY BANK 2 (1M BYTES) 0x2020 0000 ASYNC MEMORY BANK 1 (1M BYTES) 0x2010 0000 ASYNC MEMORY BANK 0 (1M BYTES) 0x2000 0000 BOOT ROM (2K BYTES) 0xEF00 0000 RESERVED 0x2040 0000 ASYNC MEMORY BANK 3 (1M BYTES) 0x2030 0000 ASYNC MEMORY BANK 2 (1M BYTES) 0x2020 0000 ASYNC MEMORY BANK 1 (1M BYTES) 0x2010 0000 ASYNC MEMORY BANK 0 (1M BYTES) EXTERNAL MEMORY MAP RESERVED 0x2000 0000 SDRAM MEMORY (16M BYTES TO 512M BYTES) SDRAM MEMORY (16M BYTES TO 512M BYTES) 0x0000 0000 0x0000 0000 Figure 3. ADSP-BF534/ADSP-BF536/ADSP-BF537 Memory Maps memory space, the processor starts executing from the on-chip boot ROM. For more information, see Booting Modes on Page 16. Event Handling The event controller on the Blackfin processor handles all asynchronous and synchronous events to the processor. The Blackfin processor provides event handling that supports both nesting and prioritization. Nesting allows multiple event service routines to be active simultaneously. Prioritization ensures that servicing of a higher priority event takes precedence over servicing of a lower priority event. The controller provides support for five different types of events: • Emulation – An emulation event causes the processor to enter emulation mode, allowing command and control of the processor via the JTAG interface. • Reset – This event resets the processor. • Nonmaskable Interrupt (NMI) – The NMI event can be generated by the software watchdog timer or by the NMI input signal to the processor. The NMI event is frequently used as a power-down indicator to initiate an orderly shutdown of the system. Rev. J | Page 6 of 68 | • Exceptions – Events that occur synchronously to program flow (in other words, the exception is taken before the instruction is allowed to complete). Conditions such as data alignment violations and undefined instructions cause exceptions. • Interrupts – Events that occur asynchronously to program flow. They are caused by input pins, timers, and other peripherals, as well as by an explicit software instruction. Each event type has an associated register to hold the return address and an associated return-from-event instruction. When an event is triggered, the state of the processor is saved on the supervisor stack. The Blackfin processor event controller consists of two stages: the core event controller (CEC) and the system interrupt controller (SIC). The core event controller works with the system interrupt controller to prioritize and control all system events. Conceptually, interrupts from the peripherals enter into the SIC, and are then routed directly into the general-purpose interrupts of the CEC. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Core Event Controller (CEC) Table 3. System Interrupt Controller (SIC) The CEC supports nine general-purpose interrupts (IVG15–7), in addition to the dedicated interrupt and exception events. Of these general-purpose interrupts, the two lowest priority interrupts (IVG15–14) are recommended to be reserved for software interrupt handlers, leaving seven prioritized interrupt inputs to support the peripherals of the Blackfin processor. Table 2 describes the inputs to the CEC, identifies their names in the event vector table (EVT), and lists their priorities. Table 2. Core Event Controller (CEC) Priority (0 Is Highest) 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Event Class Emulation/Test Control Reset Nonmaskable Interrupt Exception Reserved Hardware Error Core Timer General-Purpose Interrupt 7 General-Purpose Interrupt 8 General-Purpose Interrupt 9 General-Purpose Interrupt 10 General-Purpose Interrupt 11 General-Purpose Interrupt 12 General-Purpose Interrupt 13 General-Purpose Interrupt 14 General-Purpose Interrupt 15 EVT Entry EMU RST NMI EVX — IVHW IVTMR IVG7 IVG8 IVG9 IVG10 IVG11 IVG12 IVG13 IVG14 IVG15 System Interrupt Controller (SIC) The system interrupt controller provides the mapping and routing of events from the many peripheral interrupt sources to the prioritized general-purpose interrupt inputs of the CEC. Although the processor provides a default mapping, the user can alter the mappings and priorities of interrupt events by writing the appropriate values into the interrupt assignment registers (IAR). Table 3 describes the inputs into the SIC and the default mappings into the CEC. Rev. J | Page 7 of 68 | Peripheral Interrupt Event PLL Wakeup DMA Error (Generic) DMAR0 Block Interrupt DMAR1 Block Interrupt DMAR0 Overflow Error DMAR1 Overflow Error CAN Error Ethernet Error (ADSP-BF536 and ADSP-BF537 only) SPORT 0 Error SPORT 1 Error PPI Error SPI Error UART0 Error UART1 Error Real-Time Clock DMA Channel 0 (PPI) DMA Channel 3 (SPORT 0 Rx) DMA Channel 4 (SPORT 0 Tx) DMA Channel 5 (SPORT 1 Rx) DMA Channel 6 (SPORT 1 Tx) TWI DMA Channel 7 (SPI) DMA Channel 8 (UART0 Rx) DMA Channel 9 (UART0 Tx) DMA Channel 10 (UART1 Rx) DMA Channel 11 (UART1 Tx) CAN Rx CAN Tx DMA Channel 1 (Ethernet Rx, ADSP-BF536 and ADSP-BF537 only) Port H Interrupt A DMA Channel 2 (Ethernet Tx, ADSP-BF536 and ADSP-BF537 only) Port H Interrupt B Timer 0 Timer 1 Timer 2 Timer 3 Timer 4 Timer 5 Timer 6 Timer 7 Port F, G Interrupt A Port G Interrupt B February 2014 Default Mapping IVG7 IVG7 IVG7 IVG7 IVG7 IVG7 IVG7 IVG7 Peripheral Interrupt ID 0 1 1 1 1 1 2 2 IVG7 IVG7 IVG7 IVG7 IVG7 IVG7 IVG8 IVG8 IVG9 IVG9 IVG9 IVG9 IVG10 IVG10 IVG10 IVG10 IVG10 IVG10 IVG11 IVG11 IVG11 2 2 2 2 2 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 IVG11 IVG11 17 18 IVG11 IVG12 IVG12 IVG12 IVG12 IVG12 IVG12 IVG12 IVG12 IVG12 IVG12 18 19 20 21 22 23 24 25 26 27 28 ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 3. System Interrupt Controller (SIC) (Continued) Peripheral Interrupt Event DMA Channels 12 and 13 (Memory DMA Stream 0) DMA Channels 14 and 15 (Memory DMA Stream 1) Software Watchdog Timer Port F Interrupt B Default Mapping IVG13 Peripheral Interrupt ID 29 IVG13 30 IVG13 IVG13 31 31 Because multiple interrupt sources can map to a single generalpurpose interrupt, multiple pulse assertions can occur simultaneously, before or during interrupt processing for an interrupt event already detected on this interrupt input. The IPEND register contents are monitored by the SIC as the interrupt acknowledgement. Event Control The Blackfin processor provides a very flexible mechanism to control the processing of events. In the CEC, three registers are used to coordinate and control events. Each register is 32 bits wide: • CEC interrupt latch register (ILAT) – Indicates when events have been latched. The appropriate bit is set when the processor has latched the event and cleared when the event has been accepted into the system. This register is updated automatically by the controller, but it can be written only when its corresponding IMASK bit is cleared. • CEC interrupt mask register (IMASK) – Controls the masking and unmasking of individual events. When a bit is set in the IMASK register, that event is unmasked and is processed by the CEC when asserted. A cleared bit in the IMASK register masks the event, preventing the processor from servicing the event even though the event may be latched in the ILAT register. This register can be read or written while in supervisor mode. (Note that general-purpose interrupts can be globally enabled and disabled with the STI and CLI instructions, respectively.) • CEC interrupt pending register (IPEND) – The IPEND register keeps track of all nested events. A set bit in the IPEND register indicates the event is currently active or nested at some level. This register is updated automatically by the controller but can be read while in supervisor mode. The SIC allows further control of event processing by providing three 32-bit interrupt control and status registers. Each register contains a bit corresponding to each of the peripheral interrupt events shown in Table 3 on Page 7. • SIC interrupt mask register (SIC_IMASK) – Controls the masking and unmasking of each peripheral interrupt event. When a bit is set in the register, that peripheral event is unmasked and is processed by the system when asserted. A cleared bit in the register masks the peripheral event, preventing the processor from servicing the event. • SIC interrupt status register (SIC_ISR) – As multiple peripherals can be mapped to a single event, this register allows the software to determine which peripheral event source triggered the interrupt. A set bit indicates the peripheral is asserting the interrupt, and a cleared bit indicates the peripheral is not asserting the event. Rev. J | • SIC interrupt wake-up enable register (SIC_IWR) – By enabling the corresponding bit in this register, a peripheral can be configured to wake up the processor, should the core be idled when the event is generated. (For more information, see Dynamic Power Management on Page 13.) Page 8 of 68 | The appropriate ILAT register bit is set when an interrupt rising edge is detected (detection requires two core clock cycles). The bit is cleared when the respective IPEND register bit is set. The IPEND bit indicates that the event has entered into the processor pipeline. At this point the CEC recognizes and queues the next rising edge event on the corresponding event input. The minimum latency from the rising edge transition of the generalpurpose interrupt to the IPEND output asserted is three core clock cycles; however, the latency can be much higher, depending on the activity within and the state of the processor. DMA CONTROLLERS The Blackfin processors have multiple, independent DMA channels that support automated data transfers with minimal overhead for the processor core. DMA transfers can occur between the processor’s internal memories and any of its DMAcapable peripherals. Additionally, DMA transfers can be accomplished between any of the DMA-capable peripherals and external devices connected to the external memory interfaces, including the SDRAM controller and the asynchronous memory controller. DMA-capable peripherals include the Ethernet MAC (ADSP-BF536 and ADSP-BF537 only), SPORTs, SPI port, UARTs, and PPI. Each individual DMA-capable peripheral has at least one dedicated DMA channel. The DMA controller supports both one-dimensional (1-D) and two-dimensional (2-D) DMA transfers. DMA transfer initialization can be implemented from registers or from sets of parameters called descriptor blocks. The 2-D DMA capability supports arbitrary row and column sizes up to 64K elements by 64K elements, and arbitrary row and column step sizes up to ±32K elements. Furthermore, the column step size can be less than the row step size, allowing implementation of interleaved data streams. This feature is especially useful in video applications where data can be deinterleaved on the fly. Examples of DMA types supported by the DMA controller include • A single, linear buffer that stops upon completion • A circular, auto-refreshing buffer that interrupts on each full or fractionally full buffer • 1-D or 2-D DMA using a linked list of descriptors • 2-D DMA using an array of descriptors, specifying only the base DMA address within a common page. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 In addition to the dedicated peripheral DMA channels, there are two memory DMA channels provided for transfers between the various memories of the processor system. This enables transfers of blocks of data between any of the memories—including external SDRAM, ROM, SRAM, and flash memory—with minimal processor intervention. Memory DMA transfers can be controlled by a very flexible descriptor-based methodology or by a standard register-based autobuffer mechanism. The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors also have an external DMA controller capability via dual external DMA request pins when used in conjunction with the external bus interface unit (EBIU). This functionality can be used when a high speed interface is required for external FIFOs and high bandwidth communications peripherals such as USB 2.0. It allows control of the number of data transfers for memDMA. The number of transfers per edge is programmable. This feature can be programmed to allow memDMA to have an increased priority on the external bus relative to the core. REAL-TIME CLOCK The real-time clock (RTC) provides a robust set of digital watch features, including current time, stopwatch, and alarm. The RTC is clocked by a 32.768 kHz crystal external to the processor. The RTC peripheral has dedicated power supply pins so that it can remain powered up and clocked even when the rest of the processor is in a low power state. The RTC provides several programmable interrupt options, including interrupt per second, minute, hour, or day clock ticks, interrupt on programmable stopwatch countdown, or interrupt at a programmed alarm time. The 32.768 kHz input clock frequency is divided down to a 1 Hz signal by a prescaler. The counter function of the timer consists of four counters: a 60-second counter, a 60-minute counter, a 24-hour counter, and an 32,768-day counter. When enabled, the alarm function generates an interrupt when the output of the timer matches the programmed value in the alarm control register. There are two alarms: The first alarm is for a time of day, while the second alarm is for a day and time of that day. The stopwatch function counts down from a programmed value, with one-second resolution. When the stopwatch is enabled and the counter underflows, an interrupt is generated. Like the other peripherals, the RTC can wake up the processor from sleep mode upon generation of any RTC wake-up event. Additionally, an RTC wake-up event can wake up the processor from deep sleep mode, and wake up the on-chip internal voltage regulator from the hibernate operating mode. Connect RTC pins RTXI and RTXO with external components as shown in Figure 4. WATCHDOG TIMER The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors include a 32-bit timer that can be used to implement a software watchdog function. A software watchdog can improve system availability by forcing the processor to a known state through generation of a system reset, nonmaskable interrupt (NMI), or Rev. J | Page 9 of 68 | RTXO RTXI R1 X1 C1 C2 SUGGESTED COMPONENTS: X1 = ECLIPTEK EC38J (THROUGH-HOLE PACKAGE) OR EPSON MC405 12 pF LOAD (SURFACE-MOUNT PACKAGE) C1 = 22 pF C2 = 22 pF R1 = 10 M: NOTE: C1 AND C2 ARE SPECIFIC TO CRYSTAL SPECIFIED FOR X1. CONTACT CRYSTAL MANUFACTURER FOR DETAILS. C1 AND C2 SPECIFICATIONS ASSUME BOARD TRACE CAPACITANCE OF 3 pF. Figure 4. External Components for RTC general-purpose interrupt, if the timer expires before being reset by software. The programmer initializes the count value of the timer, enables the appropriate interrupt, then enables the timer. Thereafter, the software must reload the counter before it counts to zero from the programmed value. This protects the system from remaining in an unknown state where software, which would normally reset the timer, has stopped running due to an external noise condition or software error. If configured to generate a hardware reset, the watchdog timer resets both the core and the processor peripherals. After a reset, software can determine if the watchdog was the source of the hardware reset by interrogating a status bit in the watchdog timer control register. The timer is clocked by the system clock (SCLK), at a maximum frequency of fSCLK. TIMERS There are nine general-purpose programmable timer units in the processor. Eight timers have an external pin that can be configured either as a pulse-width modulator (PWM) or timer output, as an input to clock the timer, or as a mechanism for measuring pulse widths and periods of external events. These timers can be synchronized to an external clock input to the several other associated PF pins, to an external clock input to the PPI_CLK input pin, or to the internal SCLK. The timer units can be used in conjunction with the two UARTs and the CAN controller to measure the width of the pulses in the data stream to provide a software auto-baud detect function for the respective serial channels. The timers can generate interrupts to the processor core providing periodic events for synchronization, either to the system clock or to a count of external signals. In addition to the eight general-purpose programmable timers, a ninth timer is also provided. This extra timer is clocked by the internal processor clock and is typically used as a system tick clock for generating periodic interrupts in an operating system. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 SERIAL PORTS (SPORTs) The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors incorporate two dual-channel synchronous serial ports (SPORT0 and SPORT1) for serial and multiprocessor communications. The SPORTs support the following features: • I2S capable operation. • Bidirectional operation – Each SPORT has two sets of independent transmit and receive pins, enabling eight channels of I2S stereo audio. • Buffered (8-deep) transmit and receive ports – Each port has a data register for transferring data words to and from other processor components and shift registers for shifting data in and out of the data registers. • Clocking – Each transmit and receive port can either use an external serial clock or generate its own, in frequencies ranging from (fSCLK/131,070) Hz to (fSCLK/2) Hz. • Word length – Each SPORT supports serial data words from 3 bits to 32 bits in length, transferred most significant bit first or least significant bit first. • Framing – Each transmit and receive port can run with or without frame sync signals for each data word. Frame sync signals can be generated internally or externally, active high or low, and with either of two pulse widths and early or late frame sync. • Companding in hardware – Each SPORT can perform A-law or μ-law companding according to ITU recommendation G.711. Companding can be selected on the transmit and/or receive channel of the SPORT without additional latencies. • DMA operations with single-cycle overhead – Each SPORT can automatically receive and transmit multiple buffers of memory data. The processor can link or chain sequences of DMA transfers between a SPORT and memory. • Interrupts – Each transmit and receive port generates an interrupt upon completing the transfer of a data word or after transferring an entire data buffer, or buffers, through DMA. • Multichannel capability – Each SPORT supports 128 channels out of a 1024-channel window and is compatible with the H.100, H.110, MVIP-90, and HMVIP standards. SERIAL PERIPHERAL INTERFACE (SPI) PORT The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors have an SPI-compatible port that enables the processor to communicate with multiple SPI-compatible devices. The SPI interface uses three pins for transferring data: two data pins (Master Output-Slave Input, MOSI, and Master InputSlave Output, MISO) and a clock pin (serial clock, SCK). An SPI chip select input pin (SPISS) lets other SPI devices select the processor, and seven SPI chip select output pins (SPISEL7–1) let the processor select other SPI devices. The SPI select pins are reconfigured programmable flag pins. Using these pins, the SPI Rev. J | Page 10 of 68 | port provides a full-duplex, synchronous serial interface, which supports both master/slave modes and multimaster environments. The SPI port’s baud rate and clock phase/polarities are programmable, and it has an integrated DMA controller, configurable to support transmit or receive data streams. The SPI’s DMA controller can only service unidirectional accesses at any given time. The SPI port’s clock rate is calculated as: f SCLK SPI Clock Rate = ----------------------------------2  SPI_BAUD where the 16-bit SPI_BAUD register contains a value of 2 to 65,535. During transfers, the SPI port simultaneously transmits and receives by serially shifting data in and out on its two serial data lines. The serial clock line synchronizes the shifting and sampling of data on the two serial data lines. UART PORTS The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors provide two full-duplex universal asynchronous receiver and transmitter (UART) ports, which are fully compatible with PCstandard UARTs. Each UART port provides a simplified UART interface to other peripherals or hosts, supporting full-duplex, DMA-supported, asynchronous transfers of serial data. A UART port includes support for five to eight data bits, one or two stop bits, and none, even, or odd parity. Each UART port supports two modes of operation: • PIO (programmed I/O) – The processor sends or receives data by writing or reading I/O mapped UART registers. The data is double-buffered on both transmit and receive. • DMA (direct memory access) – The DMA controller transfers both transmit and receive data. This reduces the number and frequency of interrupts required to transfer data to and from memory. The UART has two dedicated DMA channels, one for transmit and one for receive. These DMA channels have lower default priority than most DMA channels because of their relatively low service rates. Each UART port’s baud rate, serial data format, error code generation and status, and interrupts are programmable: • Supporting bit rates ranging from (fSCLK/1,048,576) to (fSCLK/16) bits per second. • Supporting data formats from 7 bits to 12 bits per frame. • Both transmit and receive operations can be configured to generate maskable interrupts to the processor. The UART port’s clock rate is calculated as: f SCLK UART Clock Rate = ------------------------------------------------16  UARTx_Divisor where the 16-bit UARTx_Divisor comes from the UARTx_DLH register (most significant 8 bits) and UARTx_DLL register (least significant 8 bits). February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 In conjunction with the general-purpose timer functions, autobaud detection is supported. The capabilities of the UARTs are further extended with support for the infrared data association (IrDA®) serial infrared physical layer link specification (SIR) protocol. CONTROLLER AREA NETWORK (CAN) The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors offer a CAN controller that is a communication controller implementing the CAN 2.0B (active) protocol. This protocol is an asynchronous communications protocol used in both industrial and automotive control systems. The CAN protocol is wellsuited for control applications due to its capability to communicate reliably over a network, since the protocol incorporates CRC checking message error tracking, and fault node confinement. The CAN controller offers the following features: • 32 mailboxes (eight receive only, eight transmit only, 16 configurable for receive or transmit). • Dedicated acceptance masks for each mailbox. • Additional data filtering on first two bytes. 10/100 ETHERNET MAC The ADSP-BF536 and ADSP-BF537 processors offer the capability to directly connect to a network by way of an embedded fast Ethernet Media Access Controller (MAC) that supports both 10-BaseT (10 Mbps) and 100-BaseT (100 Mbps) operation. The 10/100 Ethernet MAC peripheral is fully compliant to the IEEE 802.3-2002 standard, and it provides programmable features designed to minimize supervision, bus use, or message processing by the rest of the processor system. Some standard features are • Support of MII and RMII protocols for external PHYs. • Full duplex and half duplex modes. • Data framing and encapsulation: generation and detection of preamble, length padding, and FCS. • Media access management (in half-duplex operation): collision and contention handling, including control of retransmission of collision frames and of back-off timing. • Flow control (in full-duplex operation): generation and detection of PAUSE frames. • Station management: generation of MDC/MDIO frames for read-write access to PHY registers. • Support for both the standard (11-bit) and extended (29-bit) identifier (ID) message formats. • Support for remote frames. • SCLK operating range down to 25 MHz (active and sleep operating modes). • Active or passive network support. • Internal loopback from Tx to Rx. • CAN wake-up from hibernation mode (lowest static power consumption mode). • Interrupts, including: Tx complete, Rx complete, error, global. The electrical characteristics of each network connection are very demanding so the CAN interface is typically divided into two parts: a controller and a transceiver. This allows a single controller to support different drivers and CAN networks. The CAN module represents only the controller part of the interface. The controller interface supports connection to 3.3 V highspeed, fault-tolerant, single-wire transceivers. TWI CONTROLLER INTERFACE The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors include a 2-wire interface (TWI) module for providing a simple exchange method of control data between multiple devices. The TWI is compatible with the widely used I2C® bus standard. The TWI module offers the capabilities of simultaneous master and slave operation, support for both 7-bit addressing and multimedia data arbitration. The TWI interface utilizes two pins for transferring clock (SCL) and data (SDA) and supports the protocol at speeds up to 400 kbps. The TWI interface pins are compatible with 5 V logic levels. Additionally, the processor’s TWI module is fully compatible with serial camera control bus (SCCB) functionality for easier control of various CMOS camera sensor devices. Some advanced features are • Buffered crystal output to external PHY for support of a single crystal system. • Automatic checksum computation of IP header and IP payload fields of Rx frames. • Independent 32-bit descriptor-driven Rx and Tx DMA channels. • Frame status delivery to memory via DMA, including frame completion semaphores, for efficient buffer queue management in software. • Tx DMA support for separate descriptors for MAC header and payload to eliminate buffer copy operations. • Convenient frame alignment modes support even 32-bit alignment of encapsulated Rx or Tx IP packet data in memory after the 14-byte MAC header. • Programmable Ethernet event interrupt supports any combination of • Any selected Rx or Tx frame status conditions. • PHY interrupt condition. • Wake-up frame detected. • Any selected MAC management counter(s) at half-full. • DMA descriptor error. • 47 MAC management statistics counters with selectable clear-on-read behavior and programmable interrupts on half maximum value. Rev. J | Page 11 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 • Programmable Rx address filters, including a 64-bit address hash table for multicast and/or unicast frames, and programmable filter modes for broadcast, multicast, unicast, control, and damaged frames. • Advanced power management supporting unattended transfer of Rx and Tx frames and status to/from external memory via DMA during low power sleep mode. • System wake-up from sleep operating mode upon magic packet or any of four user-definable wake-up frame filters. • Support for 802.3Q tagged VLAN frames. • Programmable MDC clock rate and preamble suppression. • In RMII operation, 7 unused pins can be configured as GPIO pins for other purposes. PORTS The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors group the many peripheral signals to four ports—Port F, Port G, Port H, and Port J. Most of the associated pins are shared by multiple signals. The ports function as multiplexer controls. Eight of the pins (Port F7–0) offer high source/high sink current capabilities. General-Purpose I/O (GPIO) The processors have 48 bidirectional, general-purpose I/O (GPIO) pins allocated across three separate GPIO modules— PORTFIO, PORTGIO, and PORTHIO, associated with Port F, Port G, and Port H, respectively. Port J does not provide GPIO functionality. Each GPIO-capable pin shares functionality with other processor peripherals via a multiplexing scheme; however, the GPIO functionality is the default state of the device upon power-up. Neither GPIO output or input drivers are active by default. Each general-purpose port pin can be individually controlled by manipulation of the port control, status, and interrupt registers: • GPIO direction control register – Specifies the direction of each individual GPIO pin as input or output. • GPIO control and status registers – The processors employ a “write one to modify” mechanism that allows any combination of individual GPIO pins to be modified in a single instruction, without affecting the level of any other GPIO pins. Four control registers are provided. One register is written in order to set pin values, one register is written in order to clear pin values, one register is written in order to toggle pin values, and one register is written in order to specify a pin value. Reading the GPIO status register allows software to interrogate the sense of the pins. • GPIO interrupt mask registers – The two GPIO interrupt mask registers allow each individual GPIO pin to function as an interrupt to the processor. Similar to the two GPIO control registers that are used to set and clear individual pin values, one GPIO interrupt mask register sets bits to enable interrupt function, and the other GPIO interrupt mask register clears bits to disable interrupt function. Rev. J | Page 12 of 68 | GPIO pins defined as inputs can be configured to generate hardware interrupts, while output pins can be triggered by software interrupts. • GPIO interrupt sensitivity registers – The two GPIO interrupt sensitivity registers specify whether individual pins are level- or edge-sensitive and specify—if edge-sensitive— whether just the rising edge or both the rising and falling edges of the signal are significant. One register selects the type of sensitivity, and one register selects which edges are significant for edge-sensitivity. PARALLEL PERIPHERAL INTERFACE (PPI) The processor provides a parallel peripheral interface (PPI) that can connect directly to parallel ADC and DAC converters, video encoders and decoders, and other general-purpose peripherals. The PPI consists of a dedicated input clock pin, up to three frame synchronization pins, and up to 16 data pins. The input clock supports parallel data rates up to half the system clock rate and the synchronization signals can be configured as either inputs or outputs. The PPI supports a variety of general-purpose and ITU-R 656 modes of operation. In general-purpose mode, the PPI provides half-duplex, bidirectional data transfer with up to 16 bits of data. Up to three frame synchronization signals are also provided. In ITU-R 656 mode, the PPI provides half-duplex bidirectional transfer of 8- or 10-bit video data. Additionally, on-chip decode of embedded start-of-line (SOL) and start-offield (SOF) preamble packets is supported. General-Purpose Mode Descriptions The general-purpose modes of the PPI are intended to suit a wide variety of data capture and transmission applications. Three distinct submodes are supported: 1. Input mode – Frame syncs and data are inputs into the PPI. 2. Frame capture mode – Frame syncs are outputs from the PPI, but data are inputs. 3. Output mode – Frame syncs and data are outputs from the PPI. Input Mode Input mode is intended for ADC applications, as well as video communication with hardware signaling. In its simplest form, PPI_FS1 is an external frame sync input that controls when to read data. The PPI_DELAY MMR allows for a delay (in PPI_ CLK cycles) between reception of this frame sync and the initiation of data reads. The number of input data samples is user programmable and defined by the contents of the PPI_COUNT register. The PPI supports 8-bit and 10-bit through 16-bit data, programmable in the PPI_CONTROL register. Frame Capture Mode Frame capture mode allows the video source(s) to act as a slave (for frame capture for example). The ADSP-BF534/ ADSP-BF536/ADSP-BF537 processors control when to read from the video source(s). PPI_FS1 is an HSYNC output and PPI_FS2 is a VSYNC output. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Output Mode Output mode is used for transmitting video or other data with up to three output frame syncs. Typically, a single frame sync is appropriate for data converter applications, whereas two or three frame syncs could be used for sending video with hardware signaling. ITU-R 656 Mode Descriptions The ITU-R 656 modes of the PPI are intended to suit a wide variety of video capture, processing, and transmission applications. Three distinct submodes are supported: Active Operating Mode—Moderate Dynamic Power Savings In the active mode, the PLL is enabled but bypassed. Because the PLL is bypassed, the processor’s core clock (CCLK) and system clock (SCLK) run at the input clock (CLKIN) frequency. In this mode, the CLKIN to CCLK multiplier ratio can be changed, although the changes are not realized until the full-on mode is entered. DMA access is available to appropriately configured L1 memories. 1. Active video only mode In the active mode, it is possible to disable the PLL through the PLL control register (PLL_CTL). If disabled, the PLL must be re-enabled before transitioning to the full-on or sleep modes. 2. Vertical blanking only mode Sleep Operating Mode—High Dynamic Power Savings 3. Entire field mode Active Video Mode Active video only mode is used when only the active video portion of a field is of interest and not any of the blanking intervals. The PPI does not read in any data between the end of active video (EAV) and start of active video (SAV) preamble symbols, or any data present during the vertical blanking intervals. In this mode, the control byte sequences are not stored to memory; they are filtered by the PPI. After synchronizing to the start of Field 1, the PPI ignores incoming samples until it sees an SAV code. The user specifies the number of active video lines per frame (in PPI_COUNT register). The sleep mode reduces dynamic power dissipation by disabling the clock to the processor core (CCLK). The PLL and system clock (SCLK), however, continue to operate in this mode. Typically an external event or RTC activity wakes up the processor. When in the sleep mode, asserting wake-up causes the processor to sense the value of the BYPASS bit in the PLL control register (PLL_CTL). If BYPASS is disabled, the processor transitions to the full on mode. If BYPASS is enabled, the processor transitions to the active mode. System DMA access to L1 memory is not supported in sleep mode. Table 4. Power Settings Vertical Blanking Interval Mode In this mode, the PPI only transfers vertical blanking interval (VBI) data. Entire Field Mode In this mode, the entire incoming bit stream is read in through the PPI. This includes active video, control preamble sequences, and ancillary data that may be embedded in horizontal and vertical blanking intervals. Data transfer starts immediately after synchronization to Field 1. Data is transferred to or from the synchronous channels through eight DMA engines that work autonomously from the processor core. DYNAMIC POWER MANAGEMENT The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors provide five operating modes, each with a different performance and power profile. In addition, dynamic power management provides the control functions to dynamically alter the processor core supply voltage, further reducing power dissipation. Control of clocking to each of the peripherals also reduces power consumption. See Table 4 for a summary of the power settings for each mode. Also, see Table 16, Table 15 and Table 17. Full-On Operating Mode—Maximum Performance In the full-on mode, the PLL is enabled and is not bypassed, providing capability for maximum operational frequency. This is the power-up default execution state in which maximum performance can be achieved. The processor core and all enabled peripherals run at full speed. Rev. J | Page 13 of 68 | Mode Full On Active PLL PLL Bypassed Enabled No Enabled/ Yes Disabled Enabled — Disabled — Sleep Deep Sleep Hibernate Disabled — Core Clock (CCLK) Enabled Enabled System Clock (SCLK) Enabled Enabled Internal Power (VDDINT) On On Disabled Enabled On Disabled Disabled On Disabled Disabled Off Deep Sleep Operating Mode—Maximum Dynamic Power Savings The deep sleep mode maximizes dynamic power savings by disabling the clocks to the processor core (CCLK) and to all synchronous peripherals (SCLK). Asynchronous peripherals, such as the RTC, may still be running but cannot access internal resources or external memory. This powered-down mode can only be exited by assertion of the reset interrupt (RESET) or by an asynchronous interrupt generated by the RTC. When in deep sleep mode, an RTC asynchronous interrupt causes the processor to transition to the active mode. Assertion of RESET while in deep sleep mode causes the processor to transition to the full-on mode. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Hibernate State—Maximum Static Power Savings The hibernate state maximizes static power savings by disabling the voltage and clocks to the processor core (CCLK) and to all of the synchronous peripherals (SCLK). The internal voltage regulator for the processor can be shut off by writing b#00 to the FREQ bits of the VR_CTL register. This disables both CCLK and SCLK. Furthermore, it sets the internal power supply voltage (VDDINT) to 0 V to provide the greatest power savings. To preserve the processor state, prior to removing power, any critical information stored internally (memory contents, register contents, etc.) must be written to a nonvolatile storage device. Since VDDEXT is still supplied in this state, all of the external pins three-state, unless otherwise specified. This allows other devices that are connected to the processor to still have power applied without drawing unwanted current. The Ethernet or CAN modules can wake up the internal supply regulator. If the PH6 pin does not connect as the PHYINT signal to an external PHY device, it can be pulled low by any other device to wake the processor up. The regulator can also be woken up by a real-time clock wake-up event or by asserting the RESET pin. All hibernate wake-up events initiate the hardware reset sequence. Individual sources are enabled by the VR_CTL register. With the exception of the VR_CTL and the RTC registers, all internal registers and memories lose their content in the hibernate state. State variables can be held in external SRAM or SDRAM. The SCKELOW bit in the VR_CTL register provides a means of waking from hibernate state without disrupting a selfrefreshing SDRAM, provided that there is also an external pulldown on the SCKE pin. Power Savings As shown in Table 5, the processors support three different power domains which maximizes flexibility, while maintaining compliance with industry standards and conventions. By isolating the internal logic of the processor into its own power domain, separate from the RTC and other I/O, the processor can take advantage of dynamic power management, without affecting the RTC or other I/O devices. There are no sequencing requirements for the various power domains. these power savings are additive, in that if the clock frequency and supply voltage are both reduced, the power savings can be dramatic, as shown in the following equations. The power savings factor (PSF) is calculated as: f CCLKRED  V DDINTRED  2  t RED  -  --------------------------  ----------PSF = -------------------f CCLKNOM  V DDINTNOM  t NOM  where: fCCLKNOM is the nominal core clock frequency fCCLKRED is the reduced core clock frequency VDDINTNOM is the nominal internal supply voltage VDDINTRED is the reduced internal supply voltage tNOM is the duration running at fCCLKNOM tRED is the duration running at fCCLKRED The percent power savings is calculated as % power savings =  1 – PSF   100% VOLTAGE REGULATION The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors provide an on-chip voltage regulator that can generate appropriate VDDINT voltage levels from the VDDEXT supply. See Operating Conditions on Page 23 for regulator tolerances and acceptable VDDEXT ranges for specific models. SET OF DECOUPLING CAPACITORS VDDEXT (LOW-INDUCTANCE) + VDDEXT 100μF 10μH 100nF + + VDDINT 100μF FDS9431A 10μF LOW ESR 100μF ZHCS1000 VROUT Table 5. Power Domains Power Domain All internal logic, except RTC RTC internal logic and crystal I/O All other I/O SHORT AND LOWINDUCTANCE WIRE VDD Range VDDINT VDDRTC VDDEXT NOTE: DESIGNER SHOULD MINIMIZE TRACE LENGTH TO FDS9431A. The dynamic power management feature allows both the processor’s input voltage (VDDINT) and clock frequency (fCCLK) to be dynamically controlled. The power dissipated by a processor is largely a function of its clock frequency and the square of the operating voltage. For example, reducing the clock frequency by 25% results in a 25% reduction in power dissipation, while reducing the voltage by 25% reduces power dissipation by more than 40%. Further, Rev. J | Page 14 of 68 | VROUT GND Figure 5. Voltage Regulator Circuit Figure 5 shows the typical external components required to complete the power management system. The regulator controls the internal logic voltage levels and is programmable with the voltage regulator control register (VR_CTL) in increments of 50 mV. To reduce standby power consumption, the internal voltage regulator can be programmed to remove power to the processor core while keeping I/O power supplied. While in February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 hibernate state, VDDEXT can still be applied, eliminating the need for external buffers. The voltage regulator can be activated from this power-down state by asserting the RESET pin, which then initiates a boot sequence. The regulator can also be disabled and bypassed at the user’s discretion. For additional information on voltage regulation, see Switching Regulator Design Considerations for the ADSP-BF533 Blackfin Processors (EE-228). CLOCK SIGNALS The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors can be clocked by an external crystal, a sine wave input, or a buffered, shaped clock derived from an external clock oscillator. If an external clock is used, it should be a TTL compatible signal and must not be halted, changed, or operated below the specified frequency during normal operation. This signal is connected to the processor’s CLKIN pin. When an external clock is used, the XTAL pin must be left unconnected. Alternatively, because the processors include an on-chip oscillator circuit, an external crystal can be used. For fundamental frequency operation, use the circuit shown in Figure 6. A parallel-resonant, fundamental frequency, microprocessorgrade crystal is connected across the CLKIN and XTAL pins. The on-chip resistance between CLKIN and the XTAL pin is in the 500 k range. Further parallel resistors are typically not recommended. The two capacitors and the series resistor shown in Figure 6 fine-tune phase and amplitude of the sine frequency. The capacitor and resistor values shown in Figure 6 are typical values only. The capacitor values are dependent upon the crystal manufacturers’ load capacitance recommendations and the PCB physical layout. The resistor value depends on the drive level specified by the crystal manufacturer. The user should verify the customized values based on careful investigations of multiple devices over temperature range. shown in Figure 6. A design procedure for third-overtone operation is discussed in detail in the application note Using Third Overtone Crystals with the ADSP-218x DSP (EE-168). The CLKBUF pin is an output pin, and is a buffer version of the input clock. This pin is particularly useful in Ethernet applications to limit the number of required clock sources in the system. In this type of application, a single 25 MHz or 50 MHz crystal can be applied directly to the processors. The 25 MHz or 50 MHz output of CLKBUF can then be connected to an external Ethernet MII or RMII PHY device. Because of the default 10× PLL multiplier, providing a 50 MHz CLKIN exceeds the recommended operating conditions of the lower speed grades. Because of this restriction, an RMII PHY requiring a 50 MHz clock input cannot be clocked directly from the CLKBUF pin for the lower speed grades. In this case, either provide a separate 50 MHz clock source, or use an RMII PHY with 25 MHz clock input options. The CLKBUF output is active by default and can be disabled using the VR_CTL register for power savings. The Blackfin core runs at a different clock rate than the on-chip peripherals. As shown in Figure 7, the core clock (CCLK) and system peripheral clock (SCLK) are derived from the input clock (CLKIN) signal. An on-chip PLL is capable of multiplying the CLKIN signal by a programmable 0.5× to 64× multiplication factor (bounded by specified minimum and maximum VCO frequencies). The default multiplier is 10×, but it can be modified by a software instruction sequence in the PLL_CTL register. “FINE” ADJUSTMENT REQUIRES PLL SEQUENCING CLKIN PLL 0.5u to 64u BLACKFIN “COARSE” ADJUSTMENT ON-THE-FLY ÷ 1, 2, 4, 8 CCLK ÷ 1 to 15 SCLK VCO CLKOUT TO PLL CIRCUITRY EN SCLK d CCLK SCLK d 133 MHz CLKBUF Figure 7. Frequency Modification Methods 350 EN Figure 6. External Crystal Connections On-the-fly CCLK and SCLK frequency changes can be effected by simply writing to the PLL_DIV register. Whereas the maximum allowed CCLK and SCLK rates depend on the applied voltages VDDINT and VDDEXT, the VCO is always permitted to run up to the frequency specified by the part’s speed grade. The CLKOUT pin reflects the SCLK frequency to the off-chip world. It belongs to the SDRAM interface, but it functions as a reference signal in other timing specifications as well. While active by default, it can be disabled using the EBIU_SDGCTL and EBIU_AMGCTL registers. A third-overtone crystal can be used for frequencies above 25 MHz. The circuit is then modified to ensure crystal operation only at the third overtone, by adding a tuned inductor circuit as All on-chip peripherals are clocked by the system clock (SCLK). The system clock frequency is programmable by means of the SSEL3–0 bits of the PLL_DIV register. The values programmed into the SSEL fields define a divide ratio between the PLL output XTAL CLKIN 330 * 18 pF * 1M VDDEXT FOR OVERTONE OPERATION ONLY: 18 pF * NOTE: VALUES MARKED WITH * MUST BE CUSTOMIZED, DEPENDING ON THE CRYSTAL AND LAYOUT. PLEASE ANALYZE CAREFULLY. Rev. J | Page 15 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 (VCO) and the system clock. SCLK divider values are 1 through 15. Table 6 illustrates typical system clock ratios. Table 6. Example System Clock Ratios Signal Name SSEL3–0 0001 0110 1010 Example Frequency Ratios (MHz) Divider Ratio VCO:SCLK VCO SCLK 1:1 100 100 6:1 300 50 10:1 500 50 Note that the divisor ratio must be chosen to limit the system clock frequency to its maximum of fSCLK. The SSEL value can be changed dynamically without any PLL lock latencies by writing the appropriate values to the PLL divisor register (PLL_DIV). The core clock (CCLK) frequency can also be dynamically changed by means of the CSEL1–0 bits of the PLL_DIV register. Supported CCLK divider ratios are 1, 2, 4, and 8, as shown in Table 7. This programmable core clock capability is useful for fast core frequency modifications. Table 7. Core Clock Ratios Signal Name CSEL1–0 00 01 10 11 Example Frequency Ratios (MHz) Divider Ratio VCO:CCLK VCO CCLK 1:1 300 300 2:1 300 150 4:1 500 125 8:1 200 25 The maximum CCLK frequency not only depends on the part’s speed grade (see Ordering Guide on Page 67), it also depends on the applied VDDINT voltage (see Table 10, Table 11, and Table 12 on Page 24 for details). The maximal system clock rate (SCLK) depends on the chip package and the applied VDDEXT voltage (see Table 14 on Page 24). BOOTING MODES The ADSP-BF534/ADSP-BF536/ADSP-BF537 processor has six mechanisms (listed in Table 8) for automatically loading internal and external memory after a reset. A seventh mode is provided to execute from external memory, bypassing the boot sequence. Table 8. Booting Modes BMODE2–0 000 001 010 011 100 Description Execute from 16-bit external memory (bypass boot ROM) Boot from 8-bit or 16-bit memory (EPROM/flash) Reserved Boot from serial SPI memory (EEPROM/flash) Boot from SPI host (slave mode) Rev. J | Page 16 of 68 | Table 8. Booting Modes (Continued) BMODE2–0 101 110 111 Description Boot from serial TWI memory (EEPROM/flash) Boot from TWI host (slave mode) Boot from UART host (slave mode) The BMODE pins of the reset configuration register, sampled during power-on resets and software-initiated resets, implement the following modes: • Execute from 16-bit external memory – Execution starts from address 0x2000 0000 with 16-bit packing. The boot ROM is bypassed in this mode. All configuration settings are set for the slowest device possible (3-cycle hold time; 15-cycle R/W access times; 4-cycle setup). • Boot from 8-bit and 16-bit external flash memory – The 8-bit or 16-bit flash boot routine located in Boot ROM memory space is set up using asynchronous memory bank 0. All configuration settings are set for the slowest device possible (3-cycle hold time; 15-cycle R/W access times; 4-cycle setup). The Boot ROM evaluates the first byte of the boot stream at address 0x2000 0000. If it is 0x40, 8-bit boot is performed. A 0x60 byte assumes a 16-bit memory device and performs 8-bit DMA. A 0x20 byte also assumes 16-bit memory but performs 16-bit DMA. • Boot from serial SPI memory (EEPROM or flash) – 8-, 16-, or 24-bit addressable devices are supported as well as AT45DB041, AT45DB081, AT45DB161, AT45DB321, AT45DB642, and AT45DB1282 DataFlash® devices from Atmel. The SPI uses the PF10/SPI SSEL1 output pin to select a single SPI EEPROM/flash device, submits a read command and successive address bytes (0x00) until a valid 8-, 16-, or 24-bit, or Atmel addressable device is detected, and begins clocking data into the processor. • Boot from SPI host device – The Blackfin processor operates in SPI slave mode and is configured to receive the bytes of the .LDR file from an SPI host (master) agent. To hold off the host device from transmitting while the boot ROM is busy, the Blackfin processor asserts a GPIO pin, called host wait (HWAIT), to signal the host device not to send any more bytes until the flag is deasserted. The flag is chosen by the user and this information is transferred to the Blackfin processor via bits 10:5 of the FLAG header. • Boot from UART – Using an autobaud handshake sequence, a boot-stream-formatted program is downloaded by the host. The host agent selects a baud rate within the UART’s clocking capabilities. When performing the autobaud, the UART expects an “@” (boot stream) character (8 bits data, 1 start bit, 1 stop bit, no parity bit) on the RXD pin to determine the bit rate. It then replies with an acknowledgement that is composed of 4 bytes: 0xBF, the value of UART_DLL, the value of UART_DLH, and 0x00. The host can then download the boot stream. When the processor needs to hold off the host, it deasserts CTS. Therefore, the host must monitor this signal. February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 • Boot from serial TWI memory (EEPROM/flash) – The Blackfin processor operates in master mode and selects the TWI slave with the unique ID 0xA0. It submits successive read commands to the memory device starting at 2-byte internal address 0x0000 and begins clocking data into the processor. The TWI memory device should comply with Philips I2C Bus Specification version 2.1 and have the capability to auto-increment its internal address counter such that the contents of the memory device can be read sequentially. • Boot from TWI host – The TWI host agent selects the slave with the unique ID 0x5F. The processor replies with an acknowledgement and the host can then download the boot stream. The TWI host agent should comply with Philips I2C Bus Specification version 2.1. An I2C multiplexer can be used to select one processor at a time when booting multiple processors from a single TWI. For each of the boot modes, a 10-byte header is first brought in from an external device. The header specifies the number of bytes to be transferred and the memory destination address. Multiple memory blocks can be loaded by any boot sequence. Once all blocks are loaded, program execution commences from the start of L1 instruction SRAM. In addition, Bit 4 of the reset configuration register can be set by application code to bypass the normal boot sequence during a software reset. For this case, the processor jumps directly to the beginning of L1 instruction memory. To augment the boot modes, a secondary software loader can be added to provide additional booting mechanisms. This secondary loader could provide the capability to boot from flash, variable baud rate, and other sources. In all boot modes except bypass, program execution starts from on-chip L1 memory address 0xFFA0 0000. INSTRUCTION SET DESCRIPTION The Blackfin processor family assembly language instruction set employs an algebraic syntax designed for ease of coding and readability. The instructions have been specifically tuned to provide a flexible, densely encoded instruction set that compiles to a very small final memory size. The instruction set also provides fully featured multifunction instructions that allow the programmer to use many of the processor core resources in a single instruction. Coupled with many features more often seen on microcontrollers, this instruction set is very efficient when compiling C and C++ source code. In addition, the architecture supports both user (algorithm/application code) and supervisor (O/S kernel, device drivers, debuggers, ISRs) modes of operation, allowing multiple levels of access to core processor resources. The assembly language, which takes advantage of the processor’s unique architecture, offers the following advantages: • Seamlessly integrated DSP/MCU features are optimized for both 8-bit and 16-bit operations. • A multi-issue load/store modified-Harvard architecture, which supports two 16-bit MAC or four 8-bit ALU + two load/store + two pointer updates per cycle. Rev. J | Page 17 of 68 | • All registers, I/O, and memory are mapped into a unified 4G byte memory space, providing a simplified programming model. • Microcontroller features, such as arbitrary bit and bit-field manipulation, insertion, and extraction; integer operations on 8-, 16-, and 32-bit data-types; and separate user and supervisor stack pointers. • Code density enhancements, which include intermixing of 16-bit and 32-bit instructions (no mode switching, no code segregation). Frequently used instructions are encoded in 16 bits. DEVELOPMENT TOOLS Analog Devices supports its processors with a complete line of software and hardware development tools, including integrated development environments (which include CrossCore® Embedded Studio and/or VisualDSP++®), evaluation products, emulators, and a wide variety of software add-ins. Integrated Development Environments (IDEs) For C/C++ software writing and editing, code generation, and debug support, Analog Devices offers two IDEs. The newest IDE, CrossCore Embedded Studio, is based on the EclipseTM framework. Supporting most Analog Devices processor families, it is the IDE of choice for future processors, including multicore devices. CrossCore Embedded Studio seamlessly integrates available software add-ins to support real time operating systems, file systems, TCP/IP stacks, USB stacks, algorithmic software modules, and evaluation hardware board support packages. For more information visit www.analog.com/cces. The other Analog Devices IDE, VisualDSP++, supports processor families introduced prior to the release of CrossCore Embedded Studio. This IDE includes the Analog Devices VDK real time operating system and an open source TCP/IP stack. For more information visit www.analog.com/visualdsp. Note that VisualDSP++ will not support future Analog Devices processors. EZ-KIT Lite Evaluation Board For processor evaluation, Analog Devices provides wide range of EZ-KIT Lite® evaluation boards. Including the processor and key peripherals, the evaluation board also supports on-chip emulation capabilities and other evaluation and development features. Also available are various EZ-Extenders®, which are daughter cards delivering additional specialized functionality, including audio and video processing. For more information visit www.analog.com and search on “ezkit” or “ezextender”. EZ-KIT Lite Evaluation Kits For a cost-effective way to learn more about developing with Analog Devices processors, Analog Devices offer a range of EZKIT Lite evaluation kits. Each evaluation kit includes an EZ-KIT Lite evaluation board, directions for downloading an evaluation version of the available IDE(s), a USB cable, and a power supply. The USB controller on the EZ-KIT Lite board connects to the USB port of the user’s PC, enabling the chosen IDE evaluation February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 suite to emulate the on-board processor in-circuit. This permits the customer to download, execute, and debug programs for the EZ-KIT Lite system. It also supports in-circuit programming of the on-board Flash device to store user-specific boot code, enabling standalone operation. With the full version of CrossCore Embedded Studio or VisualDSP++ installed (sold separately), engineers can develop software for supported EZKITs or any custom system utilizing supported Analog Devices processors. Software Add-Ins for CrossCore Embedded Studio Analog Devices offers software add-ins which seamlessly integrate with CrossCore Embedded Studio to extend its capabilities and reduce development time. Add-ins include board support packages for evaluation hardware, various middleware packages, and algorithmic modules. Documentation, help, configuration dialogs, and coding examples present in these add-ins are viewable through the CrossCore Embedded Studio IDE once the add-in is installed. an operation is completed by the emulator, the DSP system is set to run at full speed with no impact on system timing. The emulators require the target board to include a header that supports connection of the DSP’s JTAG port to the emulator. For details on target board design issues including mechanical layout, single processor connections, signal buffering, signal termination, and emulator pod logic, see the Engineer-to-Engineer Note “Analog Devices JTAG Emulation Technical Reference” (EE-68) on the Analog Devices website (www.analog.com)—use site search on “EE-68.” This document is updated regularly to keep pace with improvements to emulator support. ADDITIONAL INFORMATION The following publications that describe the ADSP-BF534/ ADSP-BF536/ADSP-BF537 processors (and related processors) can be ordered from any Analog Devices sales office or accessed electronically on our website: • Getting Started with Blackfin Processors • ADSP-BF537 Blackfin Processor Hardware Reference Board Support Packages for Evaluation Hardware Software support for the EZ-KIT Lite evaluation boards and EZExtender daughter cards is provided by software add-ins called Board Support Packages (BSPs). The BSPs contain the required drivers, pertinent release notes, and select example code for the given evaluation hardware. A download link for a specific BSP is located on the web page for the associated EZ-KIT or EZExtender product. The link is found in the Product Download area of the product web page. Middleware Packages Analog Devices separately offers middleware add-ins such as real time operating systems, file systems, USB stacks, and TCP/IP stacks. For more information see the following web pages: • www.analog.com/ucos3 • www.analog.com/ucfs • ADSP-BF53x/ADSP-BF56x Blackfin Processor Programming Reference • ADSP-BF534/ADSP-BF536/ADSP-BF537 Blackfin Processor Anomaly List RELATED SIGNAL CHAINS A signal chain is a series of signal-conditioning electronic components that receive input (data acquired from sampling either real-time phenomena or from stored data) in tandem, with the output of one portion of the chain supplying input to the next. Signal chains are often used in signal processing applications to gather and process data or to apply system controls based on analysis of real-time phenomena. For more information about this term and related topics, see the "signal chain" entry in Wikipedia or the Glossary of EE Terms on the Analog Devices website. Analog Devices eases signal processing system development by providing signal processing components that are designed to work together well. A tool for viewing relationships between specific applications and related components is available on the www.analog.com website. • www.analog.com/ucusbd • www.analog.com/lwip Algorithmic Modules To speed development, Analog Devices offers add-ins that perform popular audio and video processing algorithms. These are available for use with both CrossCore Embedded Studio and VisualDSP++. For more information visit www.analog.com and search on “Blackfin software modules” or “SHARC software modules”. Designing an Emulator-Compatible DSP Board (Target) The Application Signal Chains page in the Circuits from the LabTM site (http://www.analog.com/signalchains) provides: • Graphical circuit block diagram presentation of signal chains for a variety of circuit types and applications • Drill down links for components in each chain to selection guides and application information • Reference designs applying best practice design techniques For embedded system test and debug, Analog Devices provides a family of emulators. On each JTAG DSP, Analog Devices supplies an IEEE 1149.1 JTAG Test Access Port (TAP). In-circuit emulation is facilitated by use of this JTAG interface. The emulator accesses the processor’s internal features via the processor’s TAP, allowing the developer to load code, set breakpoints, and view variables, memory, and registers. The processor must be halted to send data and commands, but once Rev. J | Page 18 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 PIN DESCRIPTIONS The ADSP-BF534/ADSP-BF536/ADSP-BF537 processors pin definitions are listed in Table 9. In order to maintain maximum functionality and reduce package size and pin count, some pins have dual, multiplexed functions. In cases where pin function is reconfigurable, the default state is shown in plain text, while the alternate function is shown in italics. Pins shown with an asterisk after their name (*) offer high source/high sink current capabilities. control and address lines are driven high, with the exception of CLKOUT, which toggles at the system clock rate. If BR is active (whether or not RESET is asserted), the memory pins are also three-stated. During hibernate, all outputs are three-stated unless otherwise noted in Table 9. All pins are three-stated during and immediately after reset, with the exception of the external memory interface, asynchronous and synchronous memory control, and the buffered XTAL output pin (CLKBUF). On the external memory interface, the The SDA (serial data) and SCL (serial clock) pins are open drain and therefore require a pull-up resistor. Consult version 2.1 of the I2C specification for the proper resistor value. All I/O pins have their input buffers disabled with the exception of the pins noted in the data sheet that need pull-ups or pulldowns if unused. Table 9. Pin Descriptions Pin Name Memory Interface ADDR19–1 DATA15–0 ABE1–0/SDQM1–0 BR BG BGH Asynchronous Memory Control AMS3–0 ARDY AOE ARE AWE Synchronous Memory Control SRAS SCAS SWE SCKE CLKOUT SA10 SMS Driver Type1 Type Function O I/O O I O O Address Bus for Async Access Data Bus for Async/Sync Access Byte Enables/Data Masks for Async/Sync Access Bus Request (This pin should be pulled high when not used.) Bus Grant Bus Grant Hang A A A O I O O O Bank Select (Require pull-ups if hibernate is used.) Hardware Ready Control Output Enable Read Enable Write Enable A O O O O Row Address Strobe Column Address Strobe Write Enable Clock Enable(Requires a pull-down if hibernate with SDRAM self-refresh is used.) Clock Output A10 Pin Bank Select A A A A O O O Rev. J | Page 19 of 68 | February 2014 A A A A A B A A ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 9. Pin Descriptions (Continued) Pin Name Port F: GPIO/UART1–0/Timer7–0/SPI/ External DMA Request/PPI (* = High Source/High Sink Pin) PF0* – GPIO/UART0 TX/DMAR0 PF1* – GPIO/UART0 RX/DMAR1/TACI1 PF2* – GPIO/UART1 TX/TMR7 PF3* – GPIO/UART1 RX/TMR6/TACI6 PF4* – GPIO/TMR5/SPI SSEL6 PF5* – GPIO/TMR4/SPI SSEL5 PF6* – GPIO/TMR3/SPI SSEL4 PF7* – GPIO/TMR2/PPI FS3 PF8 – GPIO/TMR1/PPI FS2 PF9 – GPIO/TMR0/PPI FS1 PF10 – GPIO/SPI SSEL1 PF11 – GPIO/SPI MOSI PF12 – GPIO/SPI MISO PF13 – GPIO/SPI SCK PF14 – GPIO/SPI SS/TACLK0 PF15 – GPIO/PPI CLK/TMRCLK Port G: GPIO/PPI/SPORT1 PG0 – GPIO/PPI D0 PG1 – GPIO/PPI D1 PG2 – GPIO/PPI D2 PG3 – GPIO/PPI D3 PG4 – GPIO/PPI D4 PG5 – GPIO/PPI D5 PG6 – GPIO/PPI D6 PG7 – GPIO/PPI D7 PG8 – GPIO/PPI D8/DR1SEC PG9 – GPIO/PPI D9/DT1SEC PG10 – GPIO/PPI D10/RSCLK1 PG11 – GPIO/PPI D11/RFS1 PG12 – GPIO/PPI D12/DR1PRI PG13 – GPIO/PPI D13/TSCLK1 PG14 – GPIO/PPI D14/TFS1 PG15 – GPIO/PPI D15/DT1PRI Type Function Driver Type1 I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O C C C C C C C C C C C C C I/O I/O I/O GPIO/UART0 Transmit/DMA Request 0 GPIO/UART0 Receive/DMA Request 1/Timer1 Alternate Input Capture GPIO/UART1 Transmit/Timer7 GPIO/UART1 Receive/Timer6/Timer6 Alternate Input Capture GPIO/Timer5/SPI Slave Select Enable 6 GPIO/Timer4/SPI Slave Select Enable 5 GPIO/Timer3/SPI Slave Select Enable 4 GPIO/Timer2/PPI Frame Sync 3 GPIO/Timer1/PPI Frame Sync 2 GPIO/Timer0/PPI Frame Sync 1 GPIO/SPI Slave Select Enable 1 GPIO/SPI Master Out Slave In GPIO/SPI Master In Slave Out (This pin should be pulled high through a 4.7 k resistor if booting via the SPI port.) GPIO/SPI Clock GPIO/SPI Slave Select/Alternate Timer0 Clock Input GPIO/PPI Clock/External Timer Reference I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O I/O GPIO/PPI Data 0 GPIO/PPI Data 1 GPIO/PPI Data 2 GPIO/PPI Data 3 GPIO/PPI Data 4 GPIO/PPI Data 5 GPIO/PPI Data 6 GPIO/PPI Data 7 GPIO/PPI Data 8/SPORT1 Receive Data Secondary GPIO/PPI Data 9/SPORT1 Transmit Data Secondary GPIO/PPI Data 10/SPORT1 Receive Serial Clock GPIO/PPI Data 11/SPORT1 Receive Frame Sync GPIO/PPI Data 12/SPORT1 Receive Data Primary GPIO/PPI Data 13/SPORT1 Transmit Serial Clock GPIO/PPI Data 14/SPORT1 Transmit Frame Sync GPIO/PPI Data 15/SPORT1 Transmit Data Primary C C C C C C C C C C D C C D C C Rev. J | Page 20 of 68 | February 2014 D C C ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 9. Pin Descriptions (Continued) Pin Name Port H: GPIO/10/100 Ethernet MAC (On ADSP-BF534, these pins are GPIO only) PH0 – GPIO/ETxD0 PH1 – GPIO/ETxD1 PH2 – GPIO/ETxD2 PH3 – GPIO/ETxD3 PH4 – GPIO/ETxEN PH5 – GPIO/MII TxCLK/RMII REF_CLK PH6 – GPIO/MII PHYINT/RMII MDINT PH7 – GPIO/COL PH8 – GPIO/ERxD0 PH9 – GPIO/ERxD1 PH10 – GPIO/ERxD2 PH11 – GPIO/ERxD3 PH12 – GPIO/ERxDV/TACLK5 PH13 – GPIO/ERxCLK/TACLK6 PH14 – GPIO/ERxER/TACLK7 PH15 – GPIO/MII CRS/RMII CRS_DV Port J: SPORT0/TWI/SPI Select/CAN PJ0 – MDC Type Function Driver Type1 I/O I/O I/O I/O I/O I/O I/O GPIO/Ethernet MII or RMII Transmit D0 GPIO/Ethernet MII or RMII Transmit D1 GPIO/Ethernet MII Transmit D2 GPIO/Ethernet MII Transmit D3 GPIO/Ethernet MII or RMII Transmit Enable GPIO/Ethernet MII Transmit Clock/RMII Reference Clock GPIO/Ethernet MII PHY Interrupt/RMII Management Data Interrupt (This pin should be pulled high when used as a hibernate wake-up.) GPIO/Ethernet Collision GPIO/Ethernet MII or RMII Receive D0 GPIO/Ethernet MII or RMII Receive D1 GPIO/Ethernet MII Receive D2 GPIO/Ethernet MII Receive D3 GPIO/Ethernet MII Receive Data Valid/Alternate Timer5 Input Clock GPIO/Ethernet MII Receive Clock/Alternate Timer6 Input Clock GPIO/Ethernet MII or RMII Receive Error/Alternate Timer7 Input Clock GPIO/Ethernet MII Carrier Sense/Ethernet RMII Carrier Sense and Receive Data Valid E E E E E E E E I O I/O I/O I I/O I/O O Ethernet Management Channel Clock (On ADSP-BF534 processors, do not connect this pin.) Ethernet Management Channel Serial Data (On ADSP-BF534 processors, tie this pin to ground.) TWI Serial Clock (This pin is an open-drain output and requires a pull-up resistor.) TWI Serial Data (This pin is an open-drain output and requires a pull-up resistor.) SPORT0 Receive Data Secondary/CAN Receive/Timer0 Alternate Input Capture SPORT0 Transmit Data Secondary/CAN Transmit/SPI Slave Select Enable 7 SPORT0 Receive Serial Clock/Alternate Timer2 Clock Input SPORT0 Receive Frame Sync/Alternate Timer3 Clock Input SPORT0 Receive Data Primary/Alternate Timer4 Clock Input SPORT0 Transmit Serial Clock/Alternate Timer1 Clock Input SPORT0 Transmit Frame Sync/SPI Slave Select Enable 3 SPORT0 Transmit Data Primary/SPI Slave Select Enable 2 I O RTC Crystal Input (This pin should be pulled low when not used.) RTC Crystal Output (Does not three-state in hibernate.) I O I I I O JTAG Clock JTAG Serial Data Out JTAG Serial Data In JTAG Mode Select JTAG Reset (This pin should be pulled low if the JTAG port is not used.) Emulation Output I/O I/O I/O I/O I/O I/O I/O I/O I/O O PJ1 – MDIO I/O PJ2 – SCL I/O PJ3 – SDA I/O PJ4 – DR0SEC/CANRX/TACI0 PJ5 – DT0SEC/CANTX/SPI SSEL7 PJ6 – RSCLK0/TACLK2 PJ7 – RFS0/TACLK3 PJ8 – DR0PRI/TACLK4 PJ9 – TSCLK0/TACLK1 PJ10 – TFS0/SPI SSEL3 PJ11 – DT0PRI/SPI SSEL2 Real-Time Clock RTXI RTXO JTAG Port TCK TDO TDI TMS TRST EMU Rev. J | Page 21 of 68 | February 2014 E E E E E E E E E E F F C D C D C C C C ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 9. Pin Descriptions (Continued) 1 Type Function Driver Type1 I O O Clock/Crystal Input Crystal Output (If CLKBUF is enabled, does not three-state during hibernate.) Buffered XTAL Output (If enabled, does not three-state during hibernate.) E I I I Reset Nonmaskable Interrupt (This pin should be pulled high when not used.) Boot Mode Strap 2-0 (These pins must be pulled to the state required for the desired boot mode.) Voltage Regulator VROUT1–0 O External FET Drive (These pins should be left unconnected when not used and are driven high during hibernate.) Supplies VDDEXT VDDINT VDDRTC P P P GND G I/O Power Supply Internal Power Supply Real-Time Clock Power Supply (This pin should be connected to VDDEXT when not used and should remain powered at all times.) External Ground Pin Name Clock CLKIN XTAL CLKBUF Mode Controls RESET NMI BMODE2–0 See Output Drive Currents on Page 50 for more information about each driver types. Rev. J | Page 22 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 SPECIFICATIONS Note that component specifications are subject to change without notice. OPERATING CONDITIONS Parameter VDDINT Internal Supply Voltage1 VDDINT VDDINT VDDINT Internal Supply Voltage1 Internal Supply Voltage1 Internal Supply Voltage1 VDDEXT VDDEXT External Supply Voltage External Supply Voltage VDDRTC TJ Real-Time Clock Power Supply Voltage High Level Input Voltage3, 4 High Level Input Voltage5 5.0 V Tolerant Pins, High Level Input Voltage6 5.0 V Tolerant Pins, High Level Input Voltage7 Low Level Input Voltage3, 8 5.0 V Tolerant Pins, Low Level Input Voltage6 5.0 V Tolerant Pins, Low Level Input Voltage7 Junction Temperature TJ Junction Temperature TJ Junction Temperature TJ Junction Temperature TJ Junction Temperature VIH VIHCLKIN VIH5V VIH5V VIL VIL5V VIL5V Conditions Nonautomotive 300 MHz, 400 MHz, and 500 MHz speed grade models2 Nonautomotive 533 MHz speed grade models2 Nonautomotive 600 MHz speed grade models2 Automotive grade models and +105°C nonautomotive grade models2 Nonautomotive grade models2 Automotive grade models and +105°C nonautomotive grade models2 Min 0.8 Nominal 1.2 Max 1.32 Unit V 0.8 0.8 0.95 1.25 1.3 1.2 1.375 1.43 1.32 V V V 2.25 2.7 2.5 or 3.3 3.0 or 3.3 3.6 3.6 V V 3.6 V 2.25 VDDEXT = Maximum VDDEXT = Maximum 2.0 2.2 0.7 × VDDEXT V V V VDDEXT = Maximum 2.0 V VDDEXT = Minimum +0.6 V 0.3 × VDDEXT V VDDEXT = Minimum +0.8 V –40 +120 °C –40 +105 °C 0 +95 °C –40 +105 °C 0 +100 °C 208-Ball Chip Scale Package Ball Grid Array (CSP_BGA) @ TAMBIENT = –40°C to +105°C 208-Ball Chip Scale Package Ball Grid Array (CSP_BGA) @ TAMBIENT = –40°C to +85°C 208-Ball Chip Scale Package Ball Grid Array (CSP_BGA) @ TAMBIENT = 0°C to +70°C 182-Ball Chip Scale Package Ball Grid Array (CSP_BGA) @ TAMBIENT = –40°C to +85°C 182-Ball Chip Scale Package Ball Grid Array (CSP_BGA) @ TAMBIENT = 0°C to +70°C 1 The regulator can generate VDDINT at levels of 0.85 V to 1.2 V with –5% to +10% tolerance, 1.25 V with –4% to +10% tolerance, and 1.3 V with –0% to +10% tolerance. The required VDDINT is a function of speed grade and operating frequency. See Table 10, Table 11, and Table 12 for details. See Ordering Guide on Page 67. 3 Bidirectional pins (DATA15–0, PF15–0, PG15–0, PH15–0, TFS0, TSCLK0, RSCLK0, RFS0, MDIO) and input pins (BR, ARDY, DR0PRI, DR0SEC, RTXI, TCK, TDI, TMS, TRST, CLKIN, RESET, NMI, and BMODE2–0) of the ADSP-BF534/ADSP-BF536/ADSP-BF537 are 3.3 V-tolerant (always accept up to 3.6 V maximum VIH). Voltage compliance (on outputs, VOH) is limited by the VDDEXT supply voltage. 4 Parameter value applies to all input and bidirectional pins except CLKIN, SDA, and SCL. 5 Parameter value applies to CLKIN pin only. 6 Applies to pins PJ2/SCL and PJ3/SDA which are 5.0 V tolerant (always accept up to 5.5 V maximum VIH). Voltage compliance (on outputs, VOH) is limited by the VDDEXT supply voltage. 7 Applies to pin PJ4/DR0SEC/CANRX/TACI0 which is 5.0 V tolerant (always accepts up to 5.5 V maximum VIH). Voltage compliance (on outputs, VOH) is limited by the VDDEXT supply voltage. 8 Parameter value applies to all input and bidirectional pins except SDA and SCL. 2 Rev. J | Page 23 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 10 through Table 12 describe the voltage/frequency requirements for the ADSP-BF534/ADSP-BF536/ADSP-BF537 processor clocks. Take care in selecting MSEL, SSEL, and CSEL ratios so as not to exceed the maximum core clock and system clock. Table 13 describes phase-locked loop operating conditions. Table 10. Core Clock Requirements—500 MHz, 533 MHz, and 600 MHz Speed Grades1 Parameter fCCLK Core Clock Frequency (VDDINT =1.30 V Minimum)2 fCCLK Core Clock Frequency (VDDINT = 1.20 V Minimum)3 fCCLK Core Clock Frequency (VDDINT =1.14 V Minimum) Core Clock Frequency (VDDINT =1.045 V Minimum) fCCLK fCCLK Core Clock Frequency (VDDINT = 0.95 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.85 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.8 V Minimum) Internal Regulator Setting 1.30 V 1.25 V 1.20 V 1.10 V 1.00 V 0.90 V 0.85 V Max 600 533 500 444 400 333 250 Unit MHz MHz MHz MHz MHz MHz MHz 1 See Ordering Guide on Page 67. Applies to 600 MHz models only. See Ordering Guide on Page 67. 3 Applies to 533 MHz and 600 MHz models only. See Ordering Guide on Page 67. 2 Table 11. Core Clock Requirements—400 MHz Speed Grade1 Parameter fCCLK Core Clock Frequency (VDDINT =1.14 V Minimum) fCCLK Core Clock Frequency (VDDINT =1.045 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.95 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.85 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.8 V Minimum) 1 2 120°C  TJ  105°C Internal Regulator Setting Max 1.20 V 400 1.10 V 333 1.00 V 295 0.90 V 0.85 V All2 Other TJ Max 400 363 333 280 250 Unit MHz MHz MHz MHz MHz See Ordering Guide on Page 67. See Operating Conditions on Page 23. Table 12. Core Clock Requirements—300 MHz Speed Grade1 Parameter fCCLK Core Clock Frequency (VDDINT =1.14 V Minimum) fCCLK Core Clock Frequency (VDDINT =1.045 V Minimum) fCCLK Core Clock Frequency (VDDINT = 0.95 V Minimum) Core Clock Frequency (VDDINT = 0.85 V Minimum) fCCLK fCCLK Core Clock Frequency (VDDINT = 0.8 V Minimum) 1 Internal Regulator Setting 1.20 V 1.10 V 1.00 V 0.90 V 0.85 V Max 300 255 210 180 160 Unit MHz MHz MHz MHz MHz See Ordering Guide on Page 67. Table 13. Phase-Locked Loop Operating Conditions Parameter fVCO Min 50 Voltage Controlled Oscillator (VCO) Frequency Max Max fCCLK Unit MHz Table 14. System Clock Requirements Parameter fSCLK1 fSCLK1 1 2 Condition VDDEXT 3.3 V or 2.5 V, VDDINT  1.14 V VDDEXT 3.3 V or 2.5 V, VDDINT  1.14 V Max 1332 100 fSCLK must be less than or equal to fCCLK and is subject to additional restrictions for SDRAM interface operation. See Table 27 on Page 34. Rounded number. Actual test specification is SCLK period of 7.5 ns. See Table 27 on Page 34. Rev. J | Page 24 of 68 | February 2014 Unit MHz MHz ADSP-BF534/ADSP-BF536/ADSP-BF537 ELECTRICAL CHARACTERISTICS Parameter VOH3 VOH4 VOH5 IOH6 300 MHz/400 MHz1 Min Typ Max VDDEXT – 0.5 Test Conditions High Level VDDEXT = 2.5 V/3.0 V/ Output Voltage 3.3 V ± 10%, IOH = –0.5 mA VDDEXT = 3.3 V ± 10%, VDDEXT – 0.5 IOH = –8 mA VDDEXT = 2.5 V/3.0 V ± VDDEXT – 0.5 10%, IOH = –6 mA VDDEXT – 0.5 VDDEXT = 2.5 V/3.0 V/ 3.3 V ± 10%, IOH = –2.0 mA High Level VOH = VDDEXT – 0.5 V Min Output Current IOH7 VOH = VDDEXT – 0.5 V Min VOL3 Low Level VDDEXT = 2.5 V/3.0 V/ Output Voltage 3.3 V ± 10%, IOL = 2.0 mA VDDEXT = 3.3 V ± 10%, IOL = 8 mA VDDEXT = 2.5 V/3.0 V ± 10%, IOL = 6 mA VDDEXT = 2.5 V/3.0 V/ 3.3 V ± 10%, IOL = 2.0 mA Low Level VOL = 0.5 V Max Output Current VOL = 0.5 V Max High Level Input VDDEXT =3.6 V, VIN = 3.6 V Current8 High Level Input VDDEXT =3.6 V, VIN = 5.5 V Current9 Low Level Input VDDEXT =3.6 V, VIN = 0 V Current2 High Level Input VDDEXT = 3.6 V, VIN = 3.6 V Current JTAG10 Three-State VDDEXT = 3.6 V, VIN = 3.6 V Leakage Current11 Three-State VDDEXT =3.6 V, VIN = 5.5 V Leakage Current12 Three-State VDDEXT = 3.6 V, VIN = 0 V Leakage Current5 VOL4 VOL5 IOL6 IOL7 IIH IIH5V IIL IIHP IOZH IOZH5V IOZL Rev. J | Page 25 of 68 | 500 MHz/533 MHz/600 MHz2 Min Typ Max VDDEXT – 0.5 Unit V VDDEXT – 0.5 V VDDEXT – 0.5 V VDDEXT – 0.5 V –64 –64 mA –144 –144 mA 0.4 0.4 V 0.5 0.5 V 0.5 0.5 V 0.5 0.5 V 64 64 mA 144 10 144 10 mA μA 10 10 μA 10 10 μA 50 50 μA 10 10 μA 10 10 μA 10 10 μA February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Parameter CIN IDD-IDLE IDD-TYP IDD-TYP IDDDEEPSLEEP15 IDDSLEEP IDD-TYP IDD-TYP IDDHIBERNATE15, 16 IDDRTC IDDDEEPSLEEP15 IDDSLEEP15, 17 IDDINT18 Test Conditions Min Input fIN = 1 MHz, Capacitance13, 14 TAMBIENT = 25°C, VIN = 2.5 V VDDINT Current in VDDINT = 1.0 V, Idle fCCLK = 50 MHz, TJ = 25°C, ASF = 0.43 VDDINT Current VDDINT = 1.14 V, fCCLK = 300 MHz, TJ = 25°C, ASF = 1.00 VDDINT Current VDDINT = 1.14 V, fCCLK = 400 MHz, TJ = 25°C, ASF = 1.00 VDDINT Current in VDDINT = 1.0 V, Deep Sleep fCCLK = 0 MHz, TJ = 25°C, ASF = 0.00 Mode VDDINT Current in VDDINT = 1.0 V, Sleep Mode fSCLK = 25 MHz, TJ = 25°C VDDINT Current VDDINT = 1.20 V, fCCLK = 533 MHz, TJ = 25°C, ASF = 1.00 VDDINT Current VDDINT = 1.30 V, fCCLK = 600 MHz, TJ = 25°C, ASF = 1.00 VDDEXT Current in VDDEXT = 3.60 V, Hibernate State CLKIN=0 MHz, TJ = maximum, with voltage regulator off (VDDINT = 0 V) VDDRTC Current VDDRTC = 3.3 V, TJ= 25°C VDDINT Current in fCCLK = 0 MHz, Deep Sleep fSCLK =0 MHz Mode VDDINT Current in fCCLK = 0 MHz, Sleep Mode fSCLK  0 MHz VDDINT Current fCCLK 0 MHz, fSCLK  0 MHz 300 MHz/400 MHz1 Typ Max 8 500 MHz/533 MHz/600 MHz2 Min Typ Max 8 14 24 mA 100 113 mA 125 138 mA 6 16 mA 9.5 19.5 mA 185 mA 227 mA 50 100 A Table 16 Table 15 A mA IDDDEEPSLEEP + (0.14 × VDDINT × fSCLK) IDDSLEEP + (Table 18 × ASF) IDDDEEPSLEEP + (0.14 mA × VDDINT × fSCLK) IDDSLEEP + mA (Table 18 × ASF) 100 20 50 20 1 Applies to all 300 MHz and 400 MHz speed grade models. See Ordering Guide on Page 67. Applies to all 500 MHz, 533 MHz, and 600 MHz speed grade models. See Ordering Guide on Page 67. 3 Applies to all output and bidirectional pins except port F pins, port G pins, and port H pins. 4 Applies to port F pins PF7–0. 5 Applies to port F pins PF15–8, all port G pins, and all port H pins. 6 Maximum combined current for Port F7–0. 7 Maximum total current for all port F, port G, and port H pins. 8 Applies to all input pins except PJ4. 9 Applies to input pin PJ4 only. 10 Applies to JTAG input pins (TCK, TDI, TMS, TRST). 11 Applies to three-statable pins. 12 Applies to bidirectional pins PJ2 and PJ3. 13 Applies to all signal pins. 14 Guaranteed, but not tested. 15 See the ADSP-BF537 Blackfin Processor Hardware Reference Manual for definition of sleep, deep sleep, and hibernate operating modes. 16 CLKIN must be tied to VDDEXT or GND during hibernate. 17 In the equations, the fSCLK parameter is the system clock in MHz. 18 See Table 17 for the list of IDDINT power vectors covered. 2 Rev. J | Unit pF Page 26 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 System designers should refer to Estimating Power for the ADSP-BF534/BF536/BF537 Blackfin Processors (EE-297), which provides detailed information for optimizing designs for lowest power. All topics discussed in this section are described in detail in EE-297. Total power dissipation has two components: current dissipation for internal circuitry (VDDINT). IDDDEEPSLEEP specifies static power dissipation as a function of voltage (VDDINT) and temperature (see Table 16 or Table 15), and IDDINT specifies the total power specification for the listed test conditions, including the dynamic component as a function of voltage (VDDINT) and frequency (Table 18). 1. Static, including leakage current The dynamic component is also subject to an Activity Scaling Factor (ASF) which represents application code running on the processor (Table 17). 2. Dynamic, due to transistor switching characteristics Many operating conditions can also affect power dissipation, including temperature, voltage, operating frequency, and processor activity. Electrical Characteristics on Page 25 shows the Table 15. Static Current–500 MHz, 533 MHz, and 600 MHz Speed Grade Devices (mA)1 TJ (°C) 0.80 V –40 3.9 0 17.0 25 35.0 40 53.0 55 76.7 70 110.1 85 150.1 100 202.3 105 223.8 1 0.85 V 4.7 19.2 39.2 59.2 84.6 120.0 164.5 219.2 241.4 0.90 V 6.8 21.9 44.3 65.3 93.6 130.9 178.7 236.5 260.4 0.95 V 8.2 25.0 50.8 71.9 103.1 142.2 193.2 255.8 282.0 1.00 V 9.9 28.2 56.1 79.1 113.7 156.5 210.4 277.8 303.4 1.05 V 12.0 32.1 63.3 88.0 123.9 171.3 228.9 299.8 328.7 Voltage (VDDINT) 1.10 V 1.15 V 14.6 17.3 36.9 41.8 69.1 76.4 96.6 108.0 136.3 148.3 185.2 201.7 247.7 268.8 323.8 351.2 354.5 381.7 1.20 V 20.3 47.7 84.7 120.0 162.8 220.6 291.4 378.8 410.8 1.25 V 24.1 53.8 93.5 130.7 178.4 239.7 314.1 407.5 443.6 1.30 V 27.1 61.0 104.5 142.6 194.4 259.8 341.1 440.4 477.8 1.32 V 28.6 63.8 109.1 148.5 201.4 268.8 351.2 453.4 492.2 1.375 V 36.3 73.2 123.4 166.5 223.7 295.9 384.6 494.3 535.1 1.43 V 44.4 84.1 138.8 185.6 247.5 325.2 420.3 538.2 581.5 Values are guaranteed maximum IDDDEEPSLEEP specifications. Table 16. Static Current–300 MHz and 400 MHz Speed Grade Devices (mA)1 TJ (°C) 0.80 V –40 2.6 0 6.6 25 12.2 40 17.2 55 25.7 70 37.6 85 53.7 100 75.1 105 84.5 1152 103.8 115.5 1202 1 2 0.85 V 3.2 7.8 13.5 19.0 27.8 41.3 58.3 82.3 91.2 111.8 123.6 0.90 V 3.7 8.4 14.8 20.6 30.9 44.8 63.7 88.5 98.2 120.3 132.2 0.95 V 4.5 9.9 16.4 22.9 33.7 48.9 69.0 95.8 106.0 127.6 141.9 1.00 V 5.5 10.9 18.2 25.9 37.3 53.9 75.9 104.0 114.2 138.0 152.3 Voltage (VDDINT) 1.05 V 1.10 V 6.6 7.9 12.3 13.8 19.9 22.7 28.2 31.6 41.4 44.8 58.6 63.9 82.9 90.5 112.5 121.8 123.0 132.4 148.5 159.6 163.7 175.6 1.15 V 9.3 15.5 25.6 34.9 50.0 69.7 98.4 130.6 143.3 171.4 189.3 Values are guaranteed maximum IDDDEEPSLEEP specifications. Applies to automotive grade models only. Rev. J | Page 27 of 68 | February 2014 1.20 V 10.5 17.5 28.4 38.9 54.8 76.9 106.4 141.3 155.0 184.6 202.8 1.25 V 12.5 19.6 31.8 42.9 59.4 84.0 115.3 153.2 167.4 198.8 217.7 1.30 V 13.9 21.7 35.7 47.6 66.1 92.2 124.6 164.8 179.8 213.4 232.3 1.32 V 14.8 23.1 37.2 49.5 68.4 94.9 128.1 169.7 185.4 219.6 238.6 ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 17. Activity Scaling Factors IDDINT Power Vector1 IDD-PEAK IDD-HIGH IDD-TYP IDD-APP IDD-NOP IDD-IDLE 1 2 Activity Scaling Factor (ASF)2 1.33 1.29 1.00 0.88 0.72 0.43 See EE-297 for power vector definitions. All ASF values determined using a 10:1 CCLK:SCLK ratio. Table 18. Dynamic Current (mA, with ASF = 1.0)1 Voltage (VDDINT) Frequency (MHz) 50 100 200 300 400 500 533 600 1 0.80 V 11.0 27.9 36.9 N/A N/A N/A N/A N/A 0.85 V 13.7 22.7 42.6 61.5 N/A N/A N/A N/A 0.90 V 19.13 30.8 55.0 79.2 N/A N/A N/A N/A 0.95 V 18.2 28.4 49.2 70.4 92.4 N/A N/A N/A 1.00 V 18.67 29.3 51.5 74.6 97.2 N/A N/A N/A 1.05 V 19.13 30.8 55.0 79.2 104.3 N/A N/A N/A 1.10 V 19.6 32.9 58.3 84.4 109.8 N/A N/A N/A 1.15 V 21.2 35.3 62.9 90.7 116.5 142.3 N/A N/A 1.20 V 24.1 37.8 67.0 94.3 121.9 149.3 158.6 N/A 1.25 V 25.5 40.6 69.7 99.1 128.0 157.5 167.0 N/A 1.30 V 28.5 43.5 73.0 103.9 134.6 164.7 174.3 193.7 1.32 V 28.6 43.7 74.0 105.5 136.6 166.7 176.6 196.5 1.375 V 28.85 44.1 75.7 108.0 139.8 169.8 180.1 200.7 1.43 V 29.2 45.8 80.7 113.4 145.1 176.9 187.9 210.0 The values are not guaranteed as stand-alone maximum specifications, they must be combined with static current per the equations of Electrical Characteristics on Page 25. Rev. J | Page 28 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 ABSOLUTE MAXIMUM RATINGS PACKAGE INFORMATION Stresses greater than those listed in Table 19 may cause permanent damage to the device. These are stress ratings only. Functional operation of the device at these or any other conditions greater than those indicated in the operational sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability. The information presented in Figure 8 and Table 21 provide details about the package branding for the Blackfin processors. For a complete listing of product availability, see Ordering Guide on Page 67. a Table 19. Absolute Maximum Ratings ADSP-BF53x tppZccc Parameter Internal (Core) Supply Voltage (VDDINT) External (I/O) Supply Voltage (VDDEXT) Input Voltage1 Input Voltage1, 2 Output Voltage Swing Storage Temperature Range Junction Temperature While Biased Rating –0.3 V to +1.43 V –0.3 V to +3.8 V –0.5 V to +3.6 V –0.5 V to +5.5 V –0.5 V to VDDEXT + 0.5 V –65°C to +150°C +125°C vvvvvv.x n.n #yyww country_of_origin B Figure 8. Product Information on Package Table 21. Package Brand Information1 Brand Key t pp Z ccc vvvvvv.x n.n # yyww 1 Applies only when VDDEXT is within specifications. When VDDEXT is outside specifications, the range is VDDEXT ± 0.2 V. 2 Applies to 5 V tolerant pins SCL, SDA, and PJ4. For duty cycles, see Table 20. Table 20. Maximum Duty Cycle for Input1 Transient Voltage VIN Min (V)2 –0.50 –0.70 –0.80 –0.90 –1.00 VIN Max (V)2 +3.80 +4.00 +4.10 +4.20 +4.30 Maximum Duty Cycle3 100% 40% 25% 15% 10% 1 Nonautomotive only. For branding information specific to Automotive products, contact Analog Devices Inc. 1 Applies to all signal pins with the exception of CLKIN, XTAL, and VROUT1–0. The individual values cannot be combined for analysis of a single instance of overshoot or undershoot. The worst case observed value must fall within one of the voltages specified and the total duration of the overshoot or undershoot (exceeding the 100% case) must be less than or equal to the corresponding duty cycle. 3 Duty cycle refers to the percentage of time the signal exceeds the value for the 100% case. This is equivalent to the measured duration of a single instance of overshoot or undershoot as a percentage of the period of occurrence. 2 ESD SENSITIVITY ESD (electrostatic discharge) sensitive device. Charged devices and circuit boards can discharge without detection. Although this product features patented or proprietary protection circuitry, damage may occur on devices subjected to high energy ESD. Therefore, proper ESD precautions should be taken to avoid performance degradation or loss of functionality. Rev. J | Page 29 of 68 | Field Description Temperature Range Package Type RoHS Compliant Designation See Ordering Guide Assembly Lot Code Silicon Revision RoHS Compliant Designation Date Code February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 TIMING SPECIFICATIONS Component specifications are subject to change without notice. Clock and Reset Timing Table 22. Clock Input and Reset Timing Parameter Timing Requirements tCKIN CLKIN Period1, 2, 3, 4 tCKINL CLKIN Low Pulse tCKINH CLKIN High Pulse tBUFDLAY CLKIN to CLKBUF Delay RESET Asserted Pulse Width Low tWRST tNOBOOT RESET Deassertion to First External Access Delay5 Min Max Unit 20.0 8.0 8.0 100.0 ns ns ns ns ns ns 10 11 × tCKIN 3 × tCKIN 5 × tCKIN 1 Combinations of the CLKIN frequency and the PLL clock multiplier must not exceed the allowed fVCO, fCCLK, and fSCLK settings discussed in Table 10 through Table 14. Since by default the PLL is multiplying the CLKIN frequency by 10 MHz, 300 MHz, and 400 MHz speed grade parts can not use the full CLKIN period range. 2 Applies to PLL bypass mode and PLL non bypass mode. 3 CLKIN frequency must not change on the fly. 4 If the DF bit in the PLL_CTL register is set, then the maximum tCKIN period is 50 ns. 5 Applies when processor is configured in No Boot Mode (BMODE2-0 = b#000). tCKIN CLKIN tCKINL tBUFDLAY tCKINH tBUFDLAY CLKBUF tWRST RESET Figure 9. Clock and Reset Timing Table 23. Power-Up Reset Timing Parameter Min Max Unit Timing Requirements tRST_IN_PWR RESET Deasserted After the VDDINT, VDDEXT, VDDRTC, and CLKIN Pins Are Stable and 3500 × tCKIN Within Specification tRST_IN_PWR RESET CLKIN V DD_SUPPLIES In Figure 10, VDD_SUPPLIES is VDDINT, VDDEXT, VDDRTC Figure 10. Power-Up Reset Timing Rev. J | Page 30 of 68 | February 2014 ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Asynchronous Memory Read Cycle Timing Table 24. Asynchronous Memory Read Cycle Timing Parameter Timing Requirements tSDAT DATA15–0 Setup Before CLKOUT tHDAT DATA15–0 Hold After CLKOUT tSARDY ARDY Setup Before CLKOUT tHARDY ARDY Hold After CLKOUT Switching Characteristics tDO Output Delay After CLKOUT1 Output Hold After CLKOUT 1 tHO 1 Min Max 2.1 0.8 4.0 0.0 ns ns ns ns 6.0 0.8 Output pins include AMS3–0, ABE1–0, ADDR19–1, AOE, ARE. SETUP 2 CYCLES PROGRAMMED READ ACCESS 4 CYCLES ACCESS EXTENDED 3 CYCLES HOLD 1 CYCLE CLKOUT tDO tHO AMSx ABE1–0 ADDR19–1 AOE tDO tHO ARE tSARDY tHARDY ARDY tSARDY tHARDY DATA 15–0 Figure 11. Asynchronous Memory Read Cycle Timing Rev. J | Page 31 of 68 | February 2014 tSDAT tHDAT Unit ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Asynchronous Memory Write Cycle Timing Table 25. Asynchronous Memory Write Cycle Timing Parameter Timing Requirements tSARDY ARDY Setup Before CLKOUT tHARDY ARDY Hold After CLKOUT Switching Characteristics tDDAT DATA15–0 Disable After CLKOUT tENDAT DATA15–0 Enable After CLKOUT tDO Output Delay After CLKOUT1 Output Hold After CLKOUT 1 tHO 1 Min 4.0 0.0 1.0 6.0 0.8 PROGRAMMED WRITE ACCESS ACCESS EXTEND HOLD 2 CYCLES 1 CYCLE 1 CYCLE CLKOUT tDO tHO AMSx ABE1–0 ADDR19–1 tHO tDO AWE tSARDY tHARDY ARDY tENDAT tSARDY tHARDY tDDAT DATA 15–0 Figure 12. Asynchronous Memory Write Cycle Timing Rev. J | Page 32 of 68 | February 2014 Unit ns ns 6.0 Output pins include AMS3–0, ABE1–0, ADDR19–1, AOE, AWE. SETUP 2 CYCLES Max ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 External Port Bus Request and Grant Cycle Timing Table 26 and Figure 13 describe external port bus request and bus grant operations. Table 26. External Port Bus Request and Grant Cycle Timing Parameter1, 2 Timing Requirements tBS BR Asserted to CLKOUT Low Setup tBH CLKOUT Low to BR Deasserted Hold Time Switching Characteristics tSD CLKOUT Low to AMSx, Address, and ARE/AWE Disable CLKOUT Low to AMSx, Address, and ARE/AWE Enable tSE tDBG CLKOUT High to BG Asserted Setup tEBG CLKOUT High to BG Deasserted Hold Time tDBH CLKOUT High to BGH Asserted Setup tEBH CLKOUT High to BGH Deasserted Hold Time 1 2 Min Max 4.6 0.0 ns ns 4.5 4.5 3.6 3.6 3.6 3.6 These timing parameters are based on worst-case operating conditions. The pad loads for these timing parameters are 20 pF. CLKOUT tBS tBH BR tSD tSE tSD tSE tSD tSE AMSx ADDR 19-1 ABE1-0 AWE ARE t DBG tEBG tDBH tEBH BG BGH Figure 13. External Port Bus Request and Grant Cycle Timing Rev. J | Page 33 of 68 | February 2014 Unit ns ns ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 SDRAM Interface Timing Table 27. SDRAM Interface Timing Parameter Timing Requirements tSSDAT DATA15–0 Setup Before CLKOUT tHSDAT DATA15–0 Hold After CLKOUT Switching Characteristics tDCAD COMMAND1, ADDR19–1, DATA15–0 Delay After CLKOUT tHCAD COMMAND1, ADDR19–1, DATA15–0 Hold After CLKOUT tDSDAT DATA15–0 Disable After CLKOUT DATA15–0 Enable After CLKOUT tENSDAT tSCLK2 CLKOUT Period when TJ  +105°C 2 tSCLK CLKOUT Period when TJ  +105°C tSCLKH CLKOUT Width High tSCLKL CLKOUT Width Low 1 2 Min 1.5 0.8 1.0 6.0 0.5 7.5 10 2.5 2.5 tSCLK CLKOUT tHSDAT tSCLKL tSCLKH DATA (IN) tENSDAT tDCAD tHCAD DATA (OUT) tDCAD tHCAD COMMAND, ADDRESS (OUT) NOTE: COMMAND = SRAS, SCAS, SWE, SDQM, SMS, SA10, SCKE. Figure 14. SDRAM Interface Timing Rev. J | Page 34 of 68 | February 2014 tDSDAT Unit ns ns 4.0 Command pins include: SRAS, SCAS, SWE, SDQM, SMS, SA10, SCKE. These limits are specific to the SDRAM interface only. In addition, CLKOUT must always comply with the limits in Table 14 on Page 24. tSSDAT Max ns ns ns ns ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 External DMA Request Timing Table 28 and Figure 15 describe the external DMA request operations. Table 28. External DMA Request Timing Parameter Timing Requirements tDS DMARx Asserted to CLKOUT High Setup tDH CLKOUT High to DMARx Deasserted Hold Time tDMARACT DMARx Active Pulse Width tDMARINACT DMARx Inactive Pulse Width Min 6.0 0.0 1.0 × tSCLK 1.75 × tSCLK CLKOUT tDS tDH DMAR0/1 (ACTIVE LOW) tDMARACT tDMARINACT DMAR0/1 (ACTIVE HIGH) Figure 15. External DMA Request Timing Rev. J | Page 35 of 68 | February 2014 Max Unit ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Parallel Peripheral Interface Timing Table 29 and Figure 16 on Page 36, Figure 20 on Page 39, and Figure 23 on Page 41 describe parallel peripheral interface operations. Table 29. Parallel Peripheral Interface Timing Parameter Timing Requirements PPI_CLK Width1 tPCLKW tPCLK PPI_CLK Period1 Timing Requirements—GP Input and Frame Capture Modes tSFSPE External Frame Sync Setup Before PPI_CLK tHFSPE External Frame Sync Hold After PPI_CLK tSDRPE Receive Data Setup Before PPI_CLK Receive Data Hold After PPI_CLK tHDRPE Switching Characteristics—GP Output and Frame Capture Modes tDFSPE Internal Frame Sync Delay After PPI_CLK tHOFSPE Internal Frame Sync Hold After PPI_CLK tDDTPE Transmit Data Delay After PPI_CLK tHDTPE Transmit Data Hold After PPI_CLK 1 Min tDFSPE tPCLK PPI_FS1/2 tHDRPE PPI_DATA Figure 16. PPI GP Rx Mode with Internal Frame Sync Timing DATA SAMPLED / FRAME SYNC SAMPLED DATA SAMPLED / FRAME SYNC SAMPLED PPI_CLK tSFSPE tPCLKW tHFSPE tPCLK PPI_FS1/2 tSDRPE tHDRPE PPI_DATA Figure 17. PPI GP Rx Mode with External Frame Sync Timing Rev. J | ns ns ns ns 8.0 tPCLKW tSDRPE 6.7 1.0 3.5 1.5 1.8 PPI_CLK tHOFSPE ns ns 1.7 DATA SAMPLED Page 36 of 68 | February 2014 Unit 6.0 15.0 8.0 PPI_CLK frequency cannot exceed fSCLK/2. FRAME SYNC DRIVEN Max ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 FRAME SYNC DRIVEN DATA DRIVEN DATA DRIVEN tPCLK PPI_CLK tHOFSPE tDFSPE tPCLKW PPI_FS1/2 tDDTPE tHDTPE PPI_DATA Figure 18. PPI GP Tx Mode with Internal Frame Sync Timing DATA DRIVEN / FRAME SYNC SAMPLED PPI_CLK tSFSPE tHFSPE tPCLKW PPI_FS1/2 tDDTPE tHDTPE PPI_DATA Figure 19. PPI GP Tx Mode with External Frame Sync Timing Rev. J | Page 37 of 68 | February 2014 tPCLK ADSP-BF534/ADSP-BF536/ADSP-BF537 Serial Port Timing Table 30 through Table 33 on Page 41 and Figure 20 on Page 39 through Figure 23 on Page 41 describe serial port operations. Table 30. Serial Ports—External Clock Parameter Timing Requirements tSFSE TFSx/RFSx Setup Before TSCLKx/RSCLKx1 tHFSE TFSx/RFSx Hold After TSCLKx/RSCLKx1 tSDRE Receive Data Setup Before RSCLKx1 tHDRE Receive Data Hold After RSCLKx1 TSCLKx/RSCLKx Width tSCLKEW tSCLKE TSCLKx/RSCLKx Period tSUDTE Start-Up Delay From SPORT Enable To First External TFSx2 tSUDRE Start-Up Delay From SPORT Enable To First External RFSx2 Switching Characteristics tDFSE TFSx/RFSx Delay After TSCLKx/RSCLK (Internally Generated TFSx/RFSx)3 TFSx/RFSx Hold After TSCLKx/RSCLK (Internally Generated TFSx/RFSx)2 tHOFSE tDDTE Transmit Data Delay After TSCLKx2 tHDTE Transmit Data Hold After TSCLKx2 Min Max 3.0 3.0 3.0 3.0 4.5 15.0 4.0 × tSCLKE 4.0 × tSCLKE Unit ns ns ns ns ns ns ns ns 10.0 0 10.0 0 ns ns ns ns 1 Referenced to sample edge. 2 Verified in design but untested. After being enabled, the serial port requires external clock pulses—before the first external frame sync edge—to initialize the serial port. 3 Referenced to drive edge. Table 31. Serial Ports—Internal Clock Parameter Timing Requirements tSFSI TFSx/RFSx Setup Before TSCLKx/RSCLKx4 tHFSI TFSx/RFSx Hold After TSCLKx/RSCLKx4 tSDRI Receive Data Setup Before RSCLKx4 tHDRI Receive Data Hold After RSCLKx4 Switching Characteristics TFSx/RFSx Delay After TSCLKx/RSCLKx (Internally Generated tDFSI TFSx/RFSx)5 tHOFSI TFSx/RFSx Hold After TSCLKx/RSCLKx (Internally Generated TFSx/RFSx)5 tDDTI Transmit Data Delay After TSCLKx5 tHDTI Transmit Data Hold After TSCLKx5 TSCLKx/RSCLKx Width tSCLKIW 2.25 V  VDDEXT < 2.70 V or 0.80 V  VDDINT < 0.95 V1 Min Max 2.70 V  VDDEXT  3.60 V and 0.95 V  VDDINT  1.43 V2, 3 Min Max Unit 8.5 –1.5 8.5 –1.5 8.0 –1.5 8.0 –1.5 ns ns ns ns 3.0 1.0 1.0 3.0 1.0 4.5 1 Applies to all nonautomotive-grade devices when operated within either of these voltage ranges. Applies to all nonautomotive-grade devices when operated within these voltage ranges. 3 All automotive-grade devices are within these specifications. 4 Referenced to sample edge. 5 Referenced to drive edge. 2 Rev. J | 3.0 Page 38 of 68 | February 2014 ns 3.0 1.0 4.5 ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 DATA RECEIVE—INTERNAL CLOCK DATA RECEIVE—EXTERNAL CLOCK DRIVE EDGE DRIVE EDGE SAMPLE EDGE SAMPLE EDGE tSCLKE tSCLKEW tSCLKIW RSCLKx RSCLKx tDFSE tDFSI tHOFSI tHOFSE RFSx (OUTPUT) RFSx (OUTPUT) tSFSI tHFSI RFSx (INPUT) tSFSE tHFSE tSDRE tHDRE RFSx (INPUT) tSDRI tHDRI DRx DRx DATA TRANSMIT—INTERNAL CLOCK DATA TRANSMIT—EXTERNAL CLOCK DRIVE EDGE SAMPLE EDGE DRIVE EDGE tSCLKIW SAMPLE EDGE t SCLKEW TSCLKx tSCLKE TSCLKx tD FSI tDFSE tHOFSI tHOFSE TFSx (OUTPUT) TFSx (OUTPUT) tSFSI tHFSI TFSx (INPUT) tSFSE TFSx (INPUT) tDDTI tDDTE tHDTI tHDTE DTx DTx Figure 20. Serial Ports TSCLKx (INPUT) tSUDTE TFSx (INPUT) RSCLKx (INPUT) tSUDRE RFSx (INPUT) FIRST TSCLKx/RSCLKx EDGE AFTER SPORT ENABLED Figure 21. Serial Port Start Up with External Clock and Frame Sync Rev. J | Page 39 of 68 | February 2014 tHFSE ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 32. Serial Ports—Enable and Three-State Parameter Switching Characteristics tDTENE Data Enable Delay from External TSCLKx1 Data Disable Delay from External TSCLKx1, 2 tDDTTE tDTENI Data Enable Delay from Internal TSCLKx1 tDDTTI Data Disable Delay from Internal TSCLKx1, 2 Min 0 10.0 –2.0 3.0 1 Referenced to drive edge. 2 Applicable to multichannel mode only. TSCLKx is tied to RSCLKx. DRIVE EDGE DRIVE EDGE TSCLKx tDTENE/I tDDTTE/I DTx Figure 22. Enable and Three-State Rev. J | Page 40 of 68 | Max February 2014 Unit ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 33. External Late Frame Sync Parameter Switching Characteristics tDDTLFSE Data Delay from Late External TFSx or External RFSx with MCMEN = 1, MFD = 01, 2 Data Enable from Late FS or MCMEN = 1, MFD = 01, 2 tDTENLFS 1 2 MCMEN = 1, TFSx enable and TFSx valid follow tDDTENFS and tDDTLFS. If external RFSx/TFSx setup to RSCLKx/TSCLKx > tSCLKE/2, then tDDTE/I and tDTENE/I apply, otherwise tDDTLFSE and tDTENLFS apply. EXTERNAL RFSx IN MULTI-CHANNEL MODE SAMPLE DRIVE EDGE EDGE DRIVE EDGE RSCLKx RFSx tDDTLFSE tDTENLFSE 1ST BIT DTx LATE EXTERNAL TFSx DRIVE EDGE SAMPLE EDGE DRIVE EDGE TSCLKx TFSx tDDTLFSE 1ST BIT DTx Figure 23. External Late Frame Sync Rev. J | Page 41 of 68 | February 2014 Min 0 Max Unit 10.0 ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Serial Peripheral Interface Port—Master Timing Table 34 and Figure 24 describe SPI port master operations. Table 34. Serial Peripheral Interface (SPI) Port—Master Timing Parameter Timing Requirements tSSPIDM Data Input Valid to SCK Edge (Data Input Setup) tHSPIDM SCK Sampling Edge to Data Input Invalid Switching Characteristics tSDSCIM SPISELx Low to First SCK Edge tSPICHM Serial Clock High Period Serial Clock Low Period tSPICLM tSPICLK Serial Clock Period tHDSM Last SCK Edge to SPISELx High tSPITDM Sequential Transfer Delay tDDSPIDM SCK Edge to Data Out Valid (Data Out Delay) tHDSPIDM SCK Edge to Data Out Invalid (Data Out Hold) 2.25 V  VDDEXT  2.70 V or 0.80 V  VDDINT  0.95 V1 Min Max 2.70 V  VDDEXT  3.60 V and 0.95 V  VDDINT  1.43 V2, 3 Min Max Unit 8.7 –1.5 7.5 –1.5 ns ns 2 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 4 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 4 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 ns ns ns ns ns ns ns ns 6 6 –1.0 –1.0 1 Applies to all nonautomotive-grade devices when operated within either of these voltage ranges. Applies to all nonautomotive-grade devices when operated within these voltage ranges. 3 All automotive-grade devices are within these specifications. 2 SPIxSELy (OUTPUT) tSDSCIM tSPICLM tSPICHM tSPICLK tHDSM SPIxSCK (OUTPUT) tDDSPIDM tHDSPIDM SPIxMOSI (OUTPUT) tSSPIDM CPHA = 1 tHSPIDM SPIxMISO (INPUT) tDDSPIDM tHDSPIDM SPIxMOSI (OUTPUT) CPHA = 0 tSSPIDM tHSPIDM SPIxMISO (INPUT) Figure 24. Serial Peripheral Interface (SPI) Port—Master Timing Rev. J | Page 42 of 68 | February 2014 tSPITDM ADSP-BF534/ADSP-BF536/ADSP-BF537 Serial Peripheral Interface Port—Slave Timing Table 35 and Figure 25 describe SPI port slave operations. Table 35. Serial Peripheral Interface (SPI) Port—Slave Timing Parameter Timing Requirements tSPICHS Serial Clock High Period tSPICLS Serial Clock Low Period Serial Clock Period tSPICLK tHDS Last SCK Edge to SPISS Not Asserted tSPITDS Sequential Transfer Delay tSDSCI SPISS Assertion to First SCK Edge tSSPID Data Input Valid to SCK Edge (Data Input Setup) tHSPID SCK Sampling Edge to Data Input Invalid Switching Characteristics tDSOE SPISS Assertion to Data Out Active tDSDHI SPISS Deassertion to Data High Impedance tDDSPID SCK Edge to Data Out Valid (Data Out Delay) tHDSPID SCK Edge to Data Out Invalid (Data Out Hold) Min Max 2 × tSCLK –1.5 2 × tSCLK –1.5 4 × tSCLK 2 × tSCLK –1.5 2 × tSCLK –1.5 2 × tSCLK –1.5 1.6 1.6 0 0 SPIxSS (INPUT) tSDSCI tSPICLS tSPICHS tHDS tSPICLK SPIxSCK (INPUT) tDSOE tDDSPID tDDSPID tHDSPID tDSDHI SPIxMISO (OUTPUT) CPHA = 1 tSSPID tHSPID SPIxMOSI (INPUT) tDSOE tHDSPID tDDSPID tDSDHI SPIxMISO (OUTPUT) CPHA = 0 tHSPID tSSPID SPIxMOSI (INPUT) Figure 25. Serial Peripheral Interface (SPI) Port—Slave Timing Rev. J | Page 43 of 68 | February 2014 ns ns ns ns ns ns ns ns 8 8 10 0 tSPITDS Unit ns ns ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 General-Purpose Port Timing Table 36 and Figure 26 describe general-purpose port operations. Table 36. General-Purpose Port Timing Parameter Timing Requirement tWFI General-Purpose Port Pin Input Pulse Width Switching Characteristic tGPOD General-Purpose Port Pin Output Delay from CLKOUT Low CLKOUT tGPOD GPIO OUTPUT tWFI GPIO INPUT Figure 26. General-Purpose Port Timing Universal Asynchronous Receiver-Transmitter (UART) Ports—Receive and Transmit Timing For information on the UART port receive and transmit operations, see the ADSP-BF537 Blackfin Processor Hardware Reference. Rev. J | Page 44 of 68 | February 2014 Min Max tSCLK + 1 0 Unit ns 6 ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Timer Clock Timing Table 37 and Figure 27 describe timer clock timing. Table 37. Timer Clock Timing Parameter Switching Characteristic tTODP Timer Output Update Delay After PPI_CLK High Min Max Unit 12 ns PPI_CLK tTODP TMRx OUTPUT Figure 27. Timer Clock Timing Timer Cycle Timing Table 38 and Figure 28 describe timer expired operations. The input signal is asynchronous in “width capture mode” and “external clock mode” and has an absolute maximum input frequency of (fSCLK/2) MHz. Table 38. Timer Cycle Timing Parameter Timing Characteristics tWL Timer Pulse Width Input Low (Measured In SCLK Cycles)4 tWH Timer Pulse Width Input High (Measured In SCLK Cycles)4 Timer Input Setup Time Before CLKOUT Low5 tTIS tTIH Timer Input Hold Time After CLKOUT Low5 Switching Characteristics tHTO Timer Pulse Width Output (Measured In SCLK Cycles) tTOD Timer Output Update Delay After CLKOUT High 2.25 V  VDDEXT  2.70 V or 0.80 V  VDDINT  0.95 V1 Min Max 2.70 V  VDDEXT  3.60 V and 0.95 V  VDDINT  1.43 V2, 3 Min Max Unit 1 × tSCLK 1 × tSCLK 5.5 1.5 1 × tSCLK 1 × tSCLK 5.0 1.5 ns ns ns ns 1 × tSCLK (232–1) × tSCLK 1 × tSCLK 6.5 1 (232–1) × tSCLK 6.0 ns ns Applies to all nonautomotive-grade devices when operated within either of these voltage ranges. Applies to all nonautomotive-grade devices when operated within these voltage ranges. 3 All automotive-grade devices are within these specifications. 4 The minimum pulse widths apply for TMRx signals in width capture and external clock modes. They also apply to the PF15 or PPI_CLK signals in PWM output mode. 5 Either a valid setup and hold time or a valid pulse width is sufficient. There is no need to resynchronize programmable flag inputs. 2 CLKOUT tTOD TMRx OUTPUT tTIS tTIH tHTO TMRx INPUT tWH,tWL Figure 28. Timer Cycle Timing Rev. J | Page 45 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 JTAG Test and Emulation Port Timing Table 39 and Figure 29 describe JTAG port operations. Table 39. JTAG Port Timing Parameter Timing Parameters tTCK TCK Period tSTAP TDI, TMS Setup Before TCK High TDI, TMS Hold After TCK High tHTAP tSSYS System Inputs Setup Before TCK High1 tHSYS System Inputs Hold After TCK High1 tTRSTW TRST Pulse Width2 (Measured in TCK Cycles) Switching Characteristics tDTDO TDO Delay From TCK Low System Outputs Delay After TCK Low3 tDSYS Min Max 20 4 4 4 5 4 0 1 Unit ns ns ns ns ns TCK 10 12 ns ns System Inputs = DATA15–0, BR, ARDY, SCL, SDA, TFS0, TSCLK0, RSCLK0, RFS0, DR0PRI, DR0SEC, PF15–0, PG15–0, PH15–0, MDIO, TCK, TRST, RESET, NMI, RTXI, BMODE2–0. 2 50 MHz maximum. 3 System Outputs = DATA15–0, ADDR19–1, ABE1–0, BG, BGH, AOE, ARE, AWE, AMS3–0, SRAS, SCAS, SWE, SCKE, CLKOUT, SA10, SMS, SCL, SDA, MDC, MDIO, TSCLK0, TFS0, RFS0, RSCLK0, DT0PRI, DT0SEC, PF15–0, PG15–0, PH15–0, RTXO, TDO, EMU, XTAL, VROUT1–0. tTCK TCK tSTAP tHTAP TMS TDI tDTDO TDO tSSYS tHSYS SYSTEM INPUTS tDSYS SYSTEM OUTPUTS Figure 29. JTAG Port Timing Rev. J | Page 46 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 10/100 Ethernet MAC Controller Timing Table 40 through Table 45 and Figure 30 through Figure 35 describe the 10/100 Ethernet MAC controller operations. This feature is only available on the ADSP-BF536 and ADSP-BF537 processors. Table 40. 10/100 Ethernet MAC Controller Timing: MII Receive Signal 1 Parameter1 fERXCLK ERxCLK Frequency (fSCLK = SCLK Frequency) Min None tERXCLKW tERXCLKIS tERXCLKIH ERxCLK Width (tERxCLK = ERxCLK Period) Rx Input Valid to ERxCLK Rising Edge (Data In Setup) ERxCLK Rising Edge to Rx Input Invalid (Data In Hold) tERxCLK × 35% 7.5 7.5 Max 25 + 1% fSCLK + 1% tERxCLK × 65% Unit MHz ns ns ns MII inputs synchronous to ERxCLK are ERxD3–0, ERxDV, and ERxER. Table 41. 10/100 Ethernet MAC Controller Timing: MII Transmit Signal 1 Parameter1 fETXCLK ETxCLK Frequency (fSCLK = SCLK Frequency) tETXCLKW tETXCLKOV tETXCLKOH ETxCLK Width (tETXCLK = ETxCLK Period) ETxCLK Rising Edge to Tx Output Valid (Data Out Valid) ETxCLK Rising Edge to Tx Output Invalid (Data Out Hold) Min None tETxCLK × 35% Max 25 + 1% fSCLK + 1% tETxCLK × 65% 20 Unit MHz Max 50 + 1% 2 × fSCLK + 1% tREFCLK × 65% Unit MHz 0 ns ns ns MII outputs synchronous to ETxCLK are ETxD3–0. Table 42. 10/100 Ethernet MAC Controller Timing: RMII Receive Signal 1 Parameter1 fREFCLK REF_CLK Frequency (fSCLK = SCLK Frequency) Min None tREFCLKW tREFCLKIS tREFCLKIH REF_CLK Width (tREFCLK = REFCLK Period) Rx Input Valid to RMII REF_CLK Rising Edge (Data In Setup) RMII REF_CLK Rising Edge to Rx Input Invalid (Data In Hold) tREFCLK × 35% 4 2 ns ns ns RMII inputs synchronous to RMII REF_CLK are ERxD1–0, RMII CRS_DV, and ERxER. Table 43. 10/100 Ethernet MAC Controller Timing: RMII Transmit Signal Parameter1 tREFCLKOV tREFCLKOH 1 Min RMII REF_CLK Rising Edge to Tx Output Valid (Data Out Valid) RMII REF_CLK Rising Edge to Tx Output Invalid (Data Out Hold) RMII outputs synchronous to RMII REF_CLK are ETxD1–0. Rev. J | Page 47 of 68 | February 2014 2 Max 7.5 Unit ns ns ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 44. 10/100 Ethernet MAC Controller Timing: MII/RMII Asynchronous Signal Parameter1, 2 tECOLH COL Pulse Width High tECOLL COL Pulse Width Low tECRSH tECRSL CRS Pulse Width High CRS Pulse Width Low Min tETxCLK × 1.5 tERxCLK × 1.5 tETxCLK × 1.5 tERxCLK × 1.5 tETxCLK × 1.5 tETxCLK × 1.5 Max Unit ns ns ns ns ns ns 1 MII/RMII asynchronous signals are COL, CRS. These signals are applicable in both MII and RMII modes. The asynchronous COL input is synchronized separately to both the ETxCLK and the ERxCLK, and must have a minimum pulse width high or low at least 1.5 times the period of the slower of the two clocks. 2 The asynchronous CRS input is synchronized to the ETxCLK, and must have a minimum pulse width high or low at least 1.5 times the period of ETxCLK. Table 45. 10/100 Ethernet MAC Controller Timing: MII Station Management Parameter1 tMDIOS tMDCIH tMDCOV tMDCOH 1 Min 10 10 25 –1 MDIO Input Valid to MDC Rising Edge (Setup) MDC Rising Edge to MDIO Input Invalid (Hold) MDC Falling Edge to MDIO Output Valid MDC Falling Edge to MDIO Output Invalid (Hold) Max Unit ns ns ns ns MDC/MDIO is a 2-wire serial bidirectional port for controlling one or more external PHYs. MDC is an output clock whose minimum period is programmable as a multiple of the system clock SCLK. MDIO is a bidirectional data line. tERXCLK tERXCLKW ERx_CLK ERxD3–0 ERxDV ERxER tERXCLKIS tERXCLKIH Figure 30. 10/100 Ethernet MAC Controller Timing: MII Receive Signal tETXCLK MIITxCLK tETXCLKW tETXCLKOH ETxD3–0 ETxEN tETXCLKOV Figure 31. 10/100 Ethernet MAC Controller Timing: MII Transmit Signal Rev. J | Page 48 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 tREFCLK tREFCLKW RMII_REF_CLK ERxD1–0 ERxDV ERxER tREFCLKIS tREFCLKIH Figure 32. 10/100 Ethernet MAC Controller Timing: RMII Receive Signal tREFCLK RMII_REF_CLK tREFCLKOH ETxD1–0 ETxEN tREFCLKOV Figure 33. 10/100 Ethernet MAC Controller Timing: RMII Transmit Signal MIICRS, COL tECRSH tECOLH tECRSL tECOLL Figure 34. 10/100 Ethernet MAC Controller Timing: Asynchronous Signal MDC (OUTPUT) tMDCOH MDIO (OUTPUT) tMDCOV MDIO (INPUT) tMDIOS tMDCIH Figure 35. 10/100 Ethernet MAC Controller Timing: MII Station Management Rev. J | Page 49 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 OUTPUT DRIVE CURRENTS Figure 36 through Figure 47 show typical current-voltage characteristics for the output drivers of the processors. The curves represent the current drive capability of the output drivers as a function of output voltage. See Table 9 on Page 19 for information about which driver type corresponds to a particular pin. 200 SOURCE CURRENT (mA) 100 120 VDDEXT = 2.25V @ 95°C 100 VDDEXT = 2.50V @ 25°C SOURCE CURRENT (mA) 80 VDDEXT = 2.75V @ -40°C 60 VOH 40 VDDEXT = 3.0V @ 95°C VDDEXT = 3.3V @ 25°C VDDEXT = 3.6V @ -40°C 150 20 VOH 50 0 -50 -100 VOL -150 0 - 20 -200 0 VOL - 40 0.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0 SOURCE VOLTAGE (V) - 60 - 80 Figure 39. Drive Current B (High VDDEXT) - 100 0 0.5 1.0 1.5 2.0 3.0 2.5 80 SOURCE VOLTAGE (V) Figure 36. Drive Current A (Low VDDEXT) VDDEXT = 2.25V @ 95°C VDDEXT = 2.50V @ 25°C 60 VDDEXT = 2.75V @ -40°C SOURCE CURRENT (mA) 150 VDDEXT = 3.0V @ 95°C VDDEXT = 3.3V @ 25°C VDDEXT = 3.6V @ -40°C SOURCE CURRENT (mA) 100 50 VOH 0 40 VOH 20 0 -20 VOL -40 -50 -60 VOL 0 -100 0.5 1.0 1.5 2.0 2.5 3.0 SOURCE VOLTAGE (V) -150 0 0.5 1.0 1.5 2.0 2.5 3.0 3.5 Figure 40. Drive Current C (Low VDDEXT) 4.0 SOURCE VOLTAGE (V) Figure 37. Drive Current A (High VDDEXT) 100 150 VDDEXT = 2.25V @ 95°C 60 SOURCE CURRENT (mA) VDDEXT = 2.50V @ 25°C VDDEXT = 2.75V @ -40°C 100 SOURCE CURRENT (mA) VDDEXT = 3.0V @ 95°C VDDEXT = 3.3V @ 25°C VDDEXT = 3.6V @ -40°C 80 50 VOH 0 -50 40 VOH 20 0 -20 -40 VOL VOL -60 -100 -80 0 -150 0 0.5 1.0 1.5 2.0 2.5 0.5 1.0 1.5 2.0 2.5 SOURCE VOLTAGE (V) 3.0 SOURCE VOLTAGE (V) Figure 41. Drive Current C (High VDDEXT) Figure 38. Drive Current B (Low VDDEXT) Rev. J | Page 50 of 68 | February 2014 3.0 3.5 4.0 ADSP-BF534/ADSP-BF536/ADSP-BF537 100 80 80 SOURCE CURRENT (mA) 60 SOURCE CURRENT (mA) VDDEXT = 2.25V @ 95°C VDDEXT = 2.50V @ 25°C VDDEXT = 2.75V @ -40°C 40 VOH 20 0 -20 -40 VOL 60 VDDEXT = 3.0V @ 95°C VDDEXT = 3.3V @ 25°C 40 VDDEXT = 3.6V @ -40°C 20 VOH 0 -20 -40 VOL -60 -60 -80 -80 0 0.5 1.0 1.5 2.0 3.0 2.5 0 0.5 1.0 1.5 2.0 2.5 Figure 42. Drive Current D (Low VDDEXT) 4.0 0 VDDEXT = 3.0V @ 95°C VDDEXT = 2.25V @ 95°C VDDEXT = 3.3V @ 25°C VDDEXT = 3.6V @ -40°C 50 VOH 0 -50 VDDEXT = 2.50V @ 25°C VDDEXT = 2.75V @ -40°C -10 SOURCE CURRENT (mA) 100 SOURCE CURRENT (mA) 3.5 Figure 45. Drive Current E (High VDDEXT) 150 VOL -100 -20 -30 VOL -40 -50 -60 -150 0 0.5 1.0 1.5 2.0 2.5 3.0 3.5 0 4.0 0.5 1.0 1.5 2.0 2.5 3.0 SOURCE VOLTAGE (V) SOURCE VOLTAGE (V) Figure 43. Drive Current D (High VDDEXT) Figure 46. Drive Current F (Low VDDEXT) 0 50 30 SOURCE CURRENT (mA) VDDEXT = 2.25V @ 95°C VDDEXT = 2.50V @ 25°C VDDEXT = 2.75V @ -40°C 40 SOURCE CURRENT (mA) 3.0 SOURCE VOLTAGE (V) SOURCE VOLTAGE (V) 20 VOH 10 0 -10 -20 -30 VOL -40 -10 VDDEXT = 3.0V @ 95°C VDDEXT = 3.3V @ 25°C -20 VDDEXT = 3.6V @ -40°C -30 -40 VOL -50 -60 -70 -80 -50 0 0.5 1.0 1.5 2.0 2.5 3.0 0 0.5 1.0 1.5 2.0 2.5 SOURCE VOLTAGE (V) SOURCE VOLTAGE (V) Figure 44. Drive Current E (Low VDDEXT) Figure 47. Drive Current F (High VDDEXT) Rev. J | Page 51 of 68 | February 2014 3.0 3.5 4.0 ADSP-BF534/ADSP-BF536/ADSP-BF537 TEST CONDITIONS Output Disable Time All timing parameters appearing in this data sheet were measured under the conditions described in this section. Figure 48 shows the measurement point for ac measurements (other than output enable/disable). The measurement point is VMEAS = VDDEXT/2. Output pins are considered to be disabled when they stop driving, go into a high impedance state, and start to decay from their output high or low voltage. The time for the voltage on the bus to decay by V is dependent on the capacitive load, CL, and the load current, IL. This decay time can be approximated by the equation: INPUT OR OUTPUT t DECAY =  C L V   I L VMEAS VMEAS Figure 48. Voltage Reference Levels for AC Measurements (Except Output Enable/Disable) Output Enable Time Output pins are considered to be enabled when they have made a transition from a high impedance state to the point when they start driving. The output enable time tENA is the interval from the point when a reference signal reaches a high or low voltage level to the point when the output starts driving as shown in the Output Enable/Disable diagram (Figure 49). The time tENA_MEASURED is the interval from when the reference signal switches to when the output voltage reaches 2.0 V (output high) or 1.0 V (output low). Time tTRIP is the interval from when the output starts driving to when the output reaches the 1.0 V or 2.0 V trip voltage. Time tENA is calculated as shown in the equation: t ENA = t ENA_MEASURED – t TRIP The output disable time tDIS is the difference between tDIS_MEAand tDECAY as shown in Figure 49. The time tDIS_MEASURED is the interval from when the reference signal switches to when the output voltage decays V from the measured output-high or output-low voltage. The time tDECAY is calculated with the test loads CL and IL, and with V equal to 0.5 V. SURED REFERENCE SIGNAL tDIS_MEASURED tDIS tENA_MEASURED tENA VOH (MEASURED) VOL (MEASURED) VOH (MEASURED)  V VOH(MEASURED) VTRIP(HIGH) VOL (MEASURED) + V VTRIP(LOW) VOL (MEASURED) tDECAY OUTPUT STOPS DRIVING tTRIP OUTPUT STARTS DRIVING HIGH IMPEDANCE STATE If multiple pins (such as the data bus) are enabled, the measurement value is that of the first pin to start driving. Figure 49. Output Enable/Disable Example System Hold Time Calculation To determine the data output hold time in a particular system, first calculate tDECAY using the equation given above. Choose V to be the difference between the processor’s output voltage and the input threshold for the device requiring the hold time. A typical V is 0.4 V. CL is the total bus capacitance (per data line), and IL is the total leakage or three-state current (per data line). The hold time is tDECAY plus the minimum disable time (for example, tDSDAT for an SDRAM write cycle). Rev. J | Page 52 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 Capacitive Loading TESTER PIN ELECTRONICS 50Ω VLOAD T1 RISE AND FALL TIME ns (10% to 90%) 14 Output delays and holds are based on standard capacitive loads: 30 pF on all pins (see Figure 50). Figure 51 through Figure 60 on Page 55 show how output rise time varies with capacitance. The delay and hold specifications given should be derated by a factor derived from these figures. The graphs in these figures may not be linear outside the ranges shown. 12 RISE TIME 10 DUT OUTPUT 45Ω 6 4 2 70Ω 0 0 50 ZO = 50Ω (impedance) TD = 4.04 ± 1.18 ns 50Ω 4pF FALL TIME 8 0.5pF 100 150 LOAD CAPACITANCE (pF) 200 250 Figure 51. Typical Output Delay or Hold for Driver A at VDDEXT Min 2pF 400Ω NOTES: THE WORST CASE TRANSMISSION LINE DELAY IS SHOWN AND CAN BE USED FOR THE OUTPUT TIMING ANALYSIS TO REFELECT THE TRANSMISSION LINE EFFECT AND MUST BE CONSIDERED. THE TRANSMISSION LINE (TD) IS FOR LOAD ONLY AND DOES NOT AFFECT THE DATA SHEET TIMING SPECIFICATIONS. ANALOG DEVICES RECOMMENDS USING THE IBIS MODEL TIMING FOR A GIVEN SYSTEM REQUIREMENT. IF NECESSARY, A SYSTEM MAY INCORPORATE EXTERNAL DRIVERS TO COMPENSATE FOR ANY TIMING DIFFERENCES. Figure 50. Equivalent Device Loading for AC Measurements (Includes All Fixtures) RISE AND FALL TIME ns (10% to 90%) 12 10 RISE TIME 8 FALL TIME 6 4 2 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 Figure 52. Typical Output Delay or Hold for Driver A at VDDEXT Max Rev. J | Page 53 of 68 | February 2014 250 ADSP-BF534/ADSP-BF536/ADSP-BF537 20 RISE AND FALL TIME ns (10% to 90%) RISE AND FALL TIME ns (10% to 90%) 12 10 RISE TIME 8 FALL TIME 6 4 2 18 16 RISE TIME 14 12 FALL TIME 10 8 6 4 2 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 0 250 Figure 53. Typical Output Delay or Hold for Driver B at VDDEXT Min 0 50 100 150 LOAD CAPACITANCE (pF) 200 250 Figure 56. Typical Output Delay or Hold for Driver C at VDDEXT Max RISE AND FALL TIME ns (10% to 90%) 10 18 RISE AND FALL TIME ns (10% to 90%) 9 8 RISE TIME 7 6 FALL TIME 5 4 3 2 1 0 16 14 RISE TIME 12 10 FALL TIME 8 6 4 2 0 50 100 150 LOAD CAPACITANCE (pF) 200 250 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 250 Figure 54. Typical Output Delay or Hold for Driver B at VDDEXT Max Figure 57. Typical Output Delay or Hold for Driver D at VDDEXT Min 14 RISE AND FALL TIME ns (10% to 90%) RISE AND FALL TIME ns (10% to 90%) 30 25 RISE TIME 20 15 FALL TIME 10 5 12 RISE TIME 10 FALL TIME 8 6 4 2 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 250 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 Figure 55. Typical Output Delay or Hold for Driver C at VDDEXT Min Figure 58. Typical Output Delay or Hold for Driver D at VDDEXT Max Rev. J | Page 54 of 68 | February 2014 250 ADSP-BF534/ADSP-BF536/ADSP-BF537 36 RISE AND FALL TIME ns (10% to 90%) RISE AND FALL TIME ns (10% to 90%) 36 32 28 RISE TIME 24 20 FALL TIME 16 12 8 28 RISE TIME 24 20 16 FALL TIME 12 8 4 4 0 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 0 250 Figure 59. Typical Output Delay or Hold for Driver E at VDDEXT Min 50 100 150 LOAD CAPACITANCE (pF) 200 250 Figure 61. Typical Output Delay or Hold for Driver F at VDDEXT Min 36 RISE AND FALL TIME ns (10% to 90%) 36 RISE AND FALL TIME ns (10% to 90%) 32 32 28 RISE TIME 24 20 16 FALL TIME 12 8 32 28 RISE TIME 24 20 16 FALL TIME 12 8 4 4 0 0 0 50 100 150 LOAD CAPACITANCE (pF) 200 250 50 100 150 LOAD CAPACITANCE (pF) 200 Figure 62. Typical Output Delay or Hold for Driver F at VDDEXT Max Figure 60. Typical Output Delay or Hold for Driver E at VDDEXT Max Rev. J | 0 Page 55 of 68 | February 2014 250 ADSP-BF534/ADSP-BF536/ADSP-BF537 THERMAL CHARACTERISTICS Table 46. Thermal Characteristics (182-Ball BGA) To determine the junction temperature on the application printed circuit board use: T J = T CASE +   JT  P D  where: TJ = Junction temperature (°C) TCASE = Case temperature (°C) measured by customer at top center of package. JT = From Table 46 PD = Power dissipation (see the power dissipation discussion and the tables on Page 27 for the method to calculate PD). Values of JA are provided for package comparison and printed circuit board design considerations. JA can be used for a first order approximation of TJ by the equation: T J = T A +   JA  P D  where: TA = Ambient temperature (°C) Values of JC are provided for package comparison and printed circuit board design considerations when an external heat sink is required. Values of JB are provided for package comparison and printed circuit board design considerations. In Table 46 through Table 48, airflow measurements comply with JEDEC standards JESD51-2 and JESD51-6, and the junction-to-board measurement complies with JESD51-8. Test board and thermal via design comply with JEDEC standards JESD51-9 (BGA). The junction-to-case measurement complies with MIL-STD-883 (Method 1012.1). All measurements use a 2S2P JEDEC test board. Industrial applications using the 208-ball BGA package require thermal vias, to an embedded ground plane, in the PCB. Refer to JEDEC standard JESD51-9 for printed circuit board thermal ball land and thermal via design information. Rev. J | Page 56 of 68 | Parameter JA JMA JMA JB JC JT JT JT Condition 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow Typical 32.80 29.30 28.00 20.10 7.92 0.19 0.35 0.45 Unit °C/W °C/W °C/W °C/W °C/W °C/W °C/W °C/W Table 47. Thermal Characteristics (208-Ball BGA without Thermal Vias in PCB) Parameter JA JMA JMA JB JC JT JT JT Condition 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow Typical 23.30 20.20 19.20 13.05 6.92 0.18 0.27 0.32 Unit °C/W °C/W °C/W °C/W °C/W °C/W °C/W °C/W Table 48. Thermal Characteristics (208-Ball BGA with Thermal Vias in PCB) Parameter JA JMA JMA JB JC JT JT JT February 2014 Condition 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow 0 Linear m/s Airflow 1 Linear m/s Airflow 2 Linear m/s Airflow Typical 22.60 19.40 18.40 13.20 6.85 0.16 0.27 0.32 Unit °C/W °C/W °C/W °C/W °C/W °C/W °C/W °C/W ADSP-BF534/ADSP-BF536/ADSP-BF537 182-BALL CSP_BGA BALL ASSIGNMENT Table 49 lists the CSP_BGA ball assignment by signal mnemonic. Table 50 on Page 58 lists the CSP_BGA ball assignment by ball number. Table 49. 182-Ball CSP_BGA Ball Assignment (Alphabetically by Signal Mnemonic) Mnemonic ABE0 ABE1 ADDR1 ADDR10 ADDR11 ADDR12 ADDR13 ADDR14 ADDR15 ADDR16 ADDR17 ADDR18 ADDR19 ADDR2 ADDR3 ADDR4 ADDR5 ADDR6 ADDR7 ADDR8 ADDR9 AMS0 AMS1 AMS2 AMS3 AOE ARDY ARE AWE BG BGH BMODE0 BMODE1 BMODE2 BR CLKBUF CLKIN Ball No. H13 H12 J14 M13 M14 N14 N13 N12 M11 N11 P13 P12 P11 K14 L14 J13 K13 L13 K12 L12 M12 E14 F14 F13 G12 G13 E13 G14 H14 P10 N10 N4 P3 L5 D14 A7 A12 Mnemonic CLKOUT DATA0 DATA1 DATA10 DATA11 DATA12 DATA13 DATA14 DATA15 DATA2 DATA3 DATA4 DATA5 DATA6 DATA7 DATA8 DATA9 EMU GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND Ball No. B14 M9 N9 N6 P6 M5 N5 P5 P4 P9 M8 N8 P8 M7 N7 P7 M6 M2 A10 A14 D4 E7 E9 F5 F6 F10 F11 G4 G5 G11 H11 J4 J5 J9 J10 K6 K11 Mnemonic GND GND GND GND GND GND NMI PF0 PF1 PF10 PF11 PF12 PF13 PF14 PF15 PF2 PF3 PF4 PF5 PF6 PF7 PF8 PF9 PG0 PG1 PG10 PG11 PG12 PG13 PG14 PG15 PG2 PG3 PG4 PG5 PG6 PG7 Rev. J | Ball No. L6 L8 L10 M4 M10 P14 B10 M1 L1 J2 J3 H1 H2 H3 H4 L2 L3 L4 K1 K2 K3 K4 J1 G1 G2 D1 D2 D3 D5 D6 C1 G3 F1 F2 F3 E1 E2 Page 57 of 68 | Mnemonic PG8 PG9 PH0 PH1 PH10 PH11 PH12 PH13 PH14 PH15 PH2 PH3 PH4 PH5 PH6 PH7 PH8 PH9 PJ0 PJ1 PJ10 PJ11 PJ2 PJ3 PJ4 PJ5 PJ6 PJ7 PJ8 PJ9 RESET RTXO RTXI SA10 SCAS SCKE SMS February 2014 Ball No. E3 E4 C2 C3 B6 A2 A3 A4 A5 A6 C4 C5 C6 B1 B2 B3 B4 B5 C7 B7 D10 D11 B11 C11 D7 D8 C8 B8 D9 C9 C10 A8 A9 E12 C14 B13 C13 Mnemonic SRAS SWE TCK TDI TDO TMS TRST VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDRTC VROUT0 VROUT1 XTAL Ball No. D13 D12 P2 M3 N3 N2 N1 A1 C12 E6 E11 F4 F12 H5 H10 J11 J12 K7 K9 L7 L9 L11 P1 E5 E8 E10 G10 K5 K8 K10 B9 A13 B12 A11 ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 50. 182-Ball CSP_BGA Ball Assignment (Numerically by Ball Number) Ball No. A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13 A14 B1 B2 B3 B4 B5 B6 B7 B8 B9 B10 B11 B12 B13 B14 C1 C2 C3 C4 C5 C6 C7 C8 C9 Mnemonic VDDEXT PH11 PH12 PH13 PH14 PH15 CLKBUF RTXO RTXI GND XTAL CLKIN VROUT0 GND PH5 PH6 PH7 PH8 PH9 PH10 PJ1 PJ7 VDDRTC NMI PJ2 VROUT1 SCKE CLKOUT PG15 PH0 PH1 PH2 PH3 PH4 PJ0 PJ6 PJ9 Ball No. C10 C11 C12 C13 C14 D1 D2 D3 D4 D5 D6 D7 D8 D9 D10 D11 D12 D13 D14 E1 E2 E3 E4 E5 E6 E7 E8 E9 E10 E11 E12 E13 E14 F1 F2 F3 F4 Mnemonic RESET PJ3 VDDEXT SMS SCAS PG10 PG11 PG12 GND PG13 PG14 PJ4 PJ5 PJ8 PJ10 PJ11 SWE SRAS BR PG6 PG7 PG8 PG9 VDDINT VDDEXT GND VDDINT GND VDDINT VDDEXT SA10 ARDY AMS0 PG3 PG4 PG5 VDDEXT Ball No. F5 F6 F10 F11 F12 F13 F14 G1 G2 G3 G4 G5 G10 G11 G12 G13 G14 H1 H2 H3 H4 H5 H10 H11 H12 H13 H14 J1 J2 J3 J4 J5 J9 J10 J11 J12 J13 Rev. J | Mnemonic GND GND GND GND VDDEXT AMS2 AMS1 PG0 PG1 PG2 GND GND VDDINT GND AMS3 AOE ARE PF12 PF13 PF14 PF15 VDDEXT VDDEXT GND ABE1 ABE0 AWE PF9 PF10 PF11 GND GND GND GND VDDEXT VDDEXT ADDR4 Page 58 of 68 | Ball No. J14 K1 K2 K3 K4 K5 K6 K7 K8 K9 K10 K11 K12 K13 K14 L1 L2 L3 L4 L5 L6 L7 L8 L9 L10 L11 L12 L13 L14 M1 M2 M3 M4 M5 M6 M7 M8 February 2014 Mnemonic ADDR1 PF5 PF6 PF7 PF8 VDDINT GND VDDEXT VDDINT VDDEXT VDDINT GND ADDR7 ADDR5 ADDR2 PF1 PF2 PF3 PF4 BMODE2 GND VDDEXT GND VDDEXT GND VDDEXT ADDR8 ADDR6 ADDR3 PF0 EMU TDI GND DATA12 DATA9 DATA6 DATA3 Ball No. M9 M10 M11 M12 M13 M14 N1 N2 N3 N4 N5 N6 N7 N8 N9 N10 N11 N12 N13 N14 P1 P2 P3 P4 P5 P6 P7 P8 P9 P10 P11 P12 P13 P14 Mnemonic DATA0 GND ADDR15 ADDR9 ADDR10 ADDR11 TRST TMS TDO BMODE0 DATA13 DATA10 DATA7 DATA4 DATA1 BGH ADDR16 ADDR14 ADDR13 ADDR12 VDDEXT TCK BMODE1 DATA15 DATA14 DATA11 DATA8 DATA5 DATA2 BG ADDR19 ADDR18 ADDR17 GND ADSP-BF534/ADSP-BF536/ADSP-BF537 Figure 63 shows the top view of the CSP_BGA ball configuration. Figure 64 shows the bottom view of the CSP_ BGA ball configuration. 1 2 3 4 5 6 7 8 9 14 13 12 11 10 9 10 11 12 13 14 8 7 6 5 4 3 2 1 A A B B C C D D E E F F G G H H J J K K L L M M N N P P KEY: KEY: VDDINT VDDEXT GND I/O VDDRTC VROUT GND VDDRTC VDDEXT I/O VROUT Figure 64. 182-Ball CSP_BGA Configuration (Bottom View) Figure 63. 182-Ball CSP_BGA Configuration (Top View) Rev. J | VDDINT Page 59 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 208-BALL CSP_BGA BALL ASSIGNMENT Table 51 lists the CSP_BGA ball assignment by signal mnemonic. Table 52 on Page 61 lists the CSP_BGA ball assignment by ball number. Table 51. 208-Ball CSP_BGA Ball Assignment (Alphabetically by Signal Mnemonic) Mnemonic ABE0 ABE1 ADDR1 ADDR10 ADDR11 ADDR12 ADDR13 ADDR14 ADDR15 ADDR16 ADDR17 ADDR18 ADDR19 ADDR2 ADDR3 ADDR4 ADDR5 ADDR6 ADDR7 ADDR8 ADDR9 AMS0 AMS1 AMS2 AMS3 AOE ARDY ARE AWE BG BGH BMODE0 BMODE1 BMODE2 BR CLKBUF CLKIN CLKOUT DATA0 DATA1 DATA10 DATA11 Ball No. P19 P20 R19 W18 Y18 W17 Y17 W16 Y16 W15 Y15 W14 Y14 T20 T19 U20 U19 V20 V19 W20 Y19 M20 M19 G20 G19 N20 J19 N19 R20 Y11 Y12 W13 W12 W11 F19 B14 A18 H19 Y10 W10 Y5 W5 Mnemonic DATA12 DATA13 DATA14 DATA15 DATA2 DATA3 DATA4 DATA5 DATA6 DATA7 DATA8 DATA9 EMU GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND Ball No. Y4 W4 Y3 W3 Y9 W9 Y8 W8 Y7 W7 Y6 W6 T1 A1 A13 A20 B2 G11 H9 H10 H11 H12 H13 J9 J10 J11 J12 J13 K9 K10 K11 K12 K13 L9 L10 L11 L12 L13 M9 M10 M11 M12 Mnemonic GND GND GND GND GND GND GND GND GND GND GND GND GND NMI PF0 PF1 PF10 PF11 PF12 PF13 PF14 PF15 PF2 PF3 PF4 PF5 PF6 PF7 PF8 PF9 PG0 PG1 PG10 PG11 PG12 PG13 PG14 PG15 PG2 PG3 PG4 PG5 Rev. J | Ball No. M13 N9 N10 N11 N12 N13 P11 V2 W2 W19 Y1 Y13 Y20 C20 T2 R1 L2 K1 K2 J1 J2 H1 R2 P1 P2 N1 N2 M1 M2 L1 H2 G1 C2 B1 A2 A3 B3 A4 G2 F1 F2 E1 Page 60 of 68 | Mnemonic PG6 PG7 PG8 PG9 PH0 PH1 PH10 PH11 PH12 PH13 PH14 PH15 PH2 PH3 PH4 PH5 PH6 PH7 PH8 PH9 PJ0 PJ1 PJ10 PJ11 PJ2 PJ3 PJ4 PJ5 PJ6 PJ7 PJ8 PJ9 RESET RTXO RTXI SA10 SCAS SCKE SMS SRAS SWE TCK February 2014 Ball No. E2 D1 D2 C1 B4 A5 B9 A10 B10 A11 B11 A12 B5 A6 B6 A7 B7 A8 B8 A9 B12 B13 B19 C19 D19 E19 B18 A19 B15 B16 B17 B20 D20 A15 A14 L20 K20 H20 J20 K19 L19 W1 Mnemonic TDI TDO TMS TRST VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDEXT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDINT VDDRTC VROUT0 VROUT1 XTAL Ball No. V1 Y2 U2 U1 G7 G8 G9 G10 H7 H8 J7 J8 K7 K8 L7 L8 M7 M8 N7 N8 P7 P8 P9 P10 G12 G13 G14 H14 J14 K14 L14 M14 N14 P12 P13 P14 A16 E20 F20 A17 ADSP-BF534/ADSP-BF536/ADSP-BF537 Table 52 lists the CSP_BGA ball assignment by ball number. Table 51 on Page 60 lists the CSP_BGA ball assignment by signal mnemonic. Table 52. 208-Ball CSP_BGA Ball Assignment (Numerically by Ball Number) Ball No. A1 A2 A3 A4 A5 A6 A7 A8 A9 A10 A11 A12 A13 A14 A15 A16 A17 A18 A19 A20 B1 B2 B3 B4 B5 B6 B7 B8 B9 B10 B11 B12 B13 B14 B15 B16 B17 B18 B19 B20 C1 C2 Mnemonic GND PG12 PG13 PG15 PH1 PH3 PH5 PH7 PH9 PH11 PH13 PH15 GND RTXI RTXO VDDRTC XTAL CLKIN PJ5 GND PG11 GND PG14 PH0 PH2 PH4 PH6 PH8 PH10 PH12 PH14 PJ0 PJ1 CLKBUF PJ6 PJ7 PJ8 PJ4 PJ10 PJ9 PG9 PG10 Ball No. C19 C20 D1 D2 D19 D20 E1 E2 E19 E20 F1 F2 F19 F20 G1 G2 G7 G8 G9 G10 G11 G12 G13 G14 G19 G20 H1 H2 H7 H8 H9 H10 H11 H12 H13 H14 H19 H20 J1 J2 J7 J8 Mnemonic PJ11 NMI PG7 PG8 PJ2 RESET PG5 PG6 PJ3 VROUT0 PG3 PG4 BR VROUT1 PG1 PG2 VDDEXT VDDEXT VDDEXT VDDEXT GND VDDINT VDDINT VDDINT AMS3 AMS2 PF15 PG0 VDDEXT VDDEXT GND GND GND GND GND VDDINT CLKOUT SCKE PF13 PF14 VDDEXT VDDEXT Ball No. J9 J10 J11 J12 J13 J14 J19 J20 K1 K2 K7 K8 K9 K10 K11 K12 K13 K14 K19 K20 L1 L2 L7 L8 L9 L10 L11 L12 L13 L14 L19 L20 M1 M2 M7 M8 M9 M10 M11 M12 M13 M14 Rev. J | Mnemonic GND GND GND GND GND VDDINT ARDY SMS PF11 PF12 VDDEXT VDDEXT GND GND GND GND GND VDDINT SRAS SCAS PF9 PF10 VDDEXT VDDEXT GND GND GND GND GND VDDINT SWE SA10 PF7 PF8 VDDEXT VDDEXT GND GND GND GND GND VDDINT Page 61 of 68 | Ball No. M19 M20 N1 N2 N7 N8 N9 N10 N11 N12 N13 N14 N19 N20 P1 P2 P7 P8 P9 P10 P11 P12 P13 P14 P19 P20 R1 R2 R19 R20 T1 T2 T19 T20 U1 U2 U19 U20 V1 V2 V19 V20 February 2014 Mnemonic AMS1 AMS0 PF5 PF6 VDDEXT VDDEXT GND GND GND GND GND VDDINT ARE AOE PF3 PF4 VDDEXT VDDEXT VDDEXT VDDEXT GND VDDINT VDDINT VDDINT ABE0 ABE1 PF1 PF2 ADDR1 AWE EMU PF0 ADDR3 ADDR2 TRST TMS ADDR5 ADDR4 TDI GND ADDR7 ADDR6 Ball No. W1 W2 W3 W4 W5 W6 W7 W8 W9 W10 W11 W12 W13 W14 W15 W16 W17 W18 W19 W20 Y1 Y2 Y3 Y4 Y5 Y6 Y7 Y8 Y9 Y10 Y11 Y12 Y13 Y14 Y15 Y16 Y17 Y18 Y19 Y20 Mnemonic TCK GND DATA15 DATA13 DATA11 DATA9 DATA7 DATA5 DATA3 DATA1 BMODE2 BMODE1 BMODE0 ADDR18 ADDR16 ADDR14 ADDR12 ADDR10 GND ADDR8 GND TDO DATA14 DATA12 DATA10 DATA8 DATA6 DATA4 DATA2 DATA0 BG BGH GND ADDR19 ADDR17 ADDR15 ADDR13 ADDR11 ADDR9 GND ADSP-BF534/ADSP-BF536/ADSP-BF537 Figure 65 shows the top view of the CSP_BGA ball configuration. Figure 66 shows the bottom view of the CSP_BGA ball configuration. 1 2 3 4 5 6 7 8 9 20 19 18 17 16 15 14 13 12 11 10 10 11 12 13 14 15 16 17 18 19 20 9 8 7 6 5 4 VDDEXT I/O A B C C D D E E F F G G H H J J K K L L M M N N P P R R T T U U V V W W Y Y VDDRTC VDDINT GND VDDRTC VROUT VDDEXT I/O VROUT Figure 66. 208-Ball CSP_BGA Configuration (Bottom View) Figure 65. 208-Ball CSP_BGA Configuration (Top View) Rev. J | 1 B KEY: GND 2 A KEY: VDDINT 3 Page 62 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 OUTLINE DIMENSIONS Dimensions in Figure 67 and Figure 68 are shown in millimeters. A1 CORNER INDEX AREA 12.00 BSC SQ 14 13 12 11 10 9 8 7 6 5 4 3 2 1 A B C D E F G H J K L M N P PIN A1 INDICATOR LOCATION 10.40 BSC SQ 0.80 BSC TYP TOP VIEW BOTTOM VIEW 1.31 1.21 1.10 DETAIL A 1.70 MAX 0.25 MIN SEATING PLANE NOTES: 1. COMPLIANT TO JEDEC STANDARD MO-205-AE, EXCEPT FOR BALL DIAMETER. 2. CENTER DIMENSIONS ARE NOMINAL. 3. THE ACTUAL POSITION OF THE BALL GRID IS WITHIN 0.15 OF ITS IDEAL POSITION RELATIVE TO THE PACKAGE EDGES 0.50 0.12 0.45 COPLANARITY 0.40 (BALL DIAMETER) DETAIL A Figure 67. 182-Ball Chip Scale Package Ball Grid Array [CSP_BGA] (BC-182) Dimensions shown in millimeters Rev. J | Page 63 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 17.10 17.00 SQ 16.90 A1 BALL CORNER A1 CORNER INDEX AREA 20 18 16 14 12 10 8 6 4 2 19 17 15 13 11 9 7 5 3 1 A B C D E F G H J K L M N P R T U V W Y 15.20 BSC SQ 0.80 BSC TOP VIEW *1.75 BOTTOM VIEW DETAIL A 1.36 1.26 1.16 DETAIL A 1.61 1.46 0.35 NOM 0.30 MIN SEATING PLANE *0.50 0.45 0.40 BALL DIAMETER COPLANARITY 0.12 *COMPLIANT TO JEDEC STANDARDS MO-205-AM WITH EXCEPTION TO PACKAGE HEIGHT AND BALL DIAMETER. Figure 68. 208-Ball Chip Scale Package Ball Grid Array [CSP_BGA] (BC-208-2) Dimensions shown in millimeters Rev. J | Page 64 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 SURFACE-MOUNT DESIGN The following table is provided as an aid to PCB design. For industry-standard design recommendations, refer to IPC-7351, Generic Requirements for Surface Mount Design and Land Pattern Standard. Package 182-Ball CSP_BGA (BC-182) 208-Ball CSP_BGA (BC-208-2) Package Ball Attach Type Solder Mask Defined Solder Mask Defined Rev. J | Page 65 of 68 | Package Solder Mask Opening 0.40 mm diameter 0.40 mm diameter February 2014 Package Ball Pad Size 0.55 mm diameter 0.55 mm diameter ADSP-BF534/ADSP-BF536/ADSP-BF537 AUTOMOTIVE PRODUCTS The ADBF534W model is available with controlled manufacturing to support the quality and reliability requirements of automotive applications. Note that these automotive models may have specifications that differ from the commercial models and designers should review the Specifications section of this data sheet carefully. Only the automotive grade products shown in Table 53 are available for use in automotive applications. Contact your local ADI account representative for specific product ordering information and to obtain the specific Automotive Reliability reports for these models. Table 53. Automotive Products Product Family1,2 ADBF534WBBCZ4Axx ADBF534WBBCZ4Bxx ADBF534WYBCZ4Bxx Temperature Range3 –40°C to +85°C –40°C to +85°C –40°C to +105°C Speed Grade (Max) 400 MHz 400 MHz 400 MHz 1 Z = RoHS compliant part. xx denotes silicon revision. 3 Referenced temperature is ambient temperature. 2 Rev. J | Page 66 of 68 | February 2014 Package Description 182-Ball CSP_BGA 208-Ball CSP_BGA 208-Ball CSP_BGA Package Option BC-182 BC-208-2 BC-208-2 ADSP-BF534/ADSP-BF536/ADSP-BF537 ORDERING GUIDE In the following table CSP_BGA = Chip Scale Package Ball Grid Array. Model 1 ADSP-BF534BBC-4A ADSP-BF534BBCZ-4A ADSP-BF534BBC-5A ADSP-BF534BBCZ-5A ADSP-BF534BBCZ-4B ADSP-BF534YBCZ-4B ADSP-BF534BBCZ-5B ADSP-BF536BBC-3A ADSP-BF536BBCZ-3A ADSP-BF536BBC-4A ADSP-BF536BBCZ-4A ADSP-BF536BBCZ-3B ADSP-BF536BBCZ3BRL ADSP-BF536BBCZ-4B ADSP-BF537BBC-5A ADSP-BF537BBCZ-5A ADSP-BF537BBCZ-5B ADSP-BF537BBCZ-5AV ADSP-BF537BBCZ-5BV ADSP-BF537KBCZ-6AV ADSP-BF537KBCZ-6BV Temperature Range2 –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +105°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C –40°C to +85°C 0°C to +70°C 0°C to +70°C Speed Grade (Max) 400 MHz 400 MHz 500 MHz 500 MHz 400 MHz 400 MHz 500 MHz 300 MHz 300 MHz 400 MHz 400 MHz 300 MHz 300 MHz 400 MHz 500 MHz 500 MHz 500 MHz 533 MHz 533 MHz 600 MHz 600 MHz Package Description 182-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 208-Ball CSP_BGA 208-Ball CSP_BGA 208-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 208-Ball CSP_BGA 208-Ball CSP_BGA, 13" Tape and Reel 208-Ball CSP_BGA 182-Ball CSP_BGA 182-Ball CSP_BGA 208-Ball CSP_BGA 182-Ball CSP_BGA 208-Ball CSP_BGA 182-Ball CSP_BGA 208-Ball CSP_BGA 1 Package Option BC-182 BC-182 BC-182 BC-182 BC-208-2 BC-208-2 BC-208-2 BC-182 BC-182 BC-182 BC-182 BC-208-2 BC-208-2 BC-208-2 BC-182 BC-182 BC-208-2 BC-182 BC-208-2 BC-182 BC-208-2 Z = RoHS compliant part. Referenced temperature is ambient temperature. The ambient temperature is not a specification. Please see Operating Conditions on Page 23 for junction temperature (TJ) specification which is the only temperature specification. 2 Rev. J | Page 67 of 68 | February 2014 ADSP-BF534/ADSP-BF536/ADSP-BF537 ©2014 Analog Devices, Inc. All rights reserved. Trademarks and registered trademarks are the property of their respective owners. D05317-0-2/14(J) Rev. J | Page 68 of 68 | February 2014