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STA1085EOATR

STA1085EOATR

  • 厂商:

    STMICROELECTRONICS(意法半导体)

  • 封装:

    LFBGA361

  • 描述:

    LFBGA16X16X1.7 361 F

  • 数据手册
  • 价格&库存
STA1085EOATR 数据手册
STA108x, STA109x Accordo2 family – Automotive dual core processor for car radio and display audio application Datasheet - production data Audio Subsystem  AEC-Q100 qualified  Sound processing DSPs (450MIPS)  1x 6 stereo channels hardware Sample Rate Converter  6x audio DAC with 103 dB SNR A-Weighted  9x Rx / 8x Tx audio interfaces (I2S/ multichannel ports)  1x single ended stereo ADC for AUX IN/Tuner with internal switching logic; 98 dB SNR A-Weighted  1x differential Mono ADC for Voice/Tel-IN with internal switching logic; 105 dB SNR Core and infrastructure Media Interfaces  ARM Cortex-R4 MCU running at up to 600 MHz  MCU memory organization – L1 Cache: 32K instruction, 32K data – 32 KB ITCM + 32 KB DTCM – 1.25 MB embedded SRAM – STA109x SDRAM controller: 16/32-bit data up to 166 MHz – STA108x SDRAM controller: 16-bit data up to 166 MHz – Serial QIO NOR interface executable in place – 16-bit parallel NAND/NOR controller  32-bit watchdog timer  16-channel DMA  8x 32-bit free running times/counters  5x 16-bit extended function timer (EFT) with input capture/output compare and PWM  Real time clock (RTC) with fraction readout  2x Secure-Digital Multimedia Memory Card Interface (SD3.0/MMC4.4/SDIO)  2x USB 2.0 (1x Host and 1x Dual Role) with integrated PHY and support of the charging function  SPDIF with CDROM block decoder support LFBGA361 (16x16x1.7, 0.8mm pitch) GAPGPS00902 Features April 2021 This is information on a product in full production. Display Subsystem  STA109x – TFT controller up to 1024x1024, 18bpp – Resistive Touch Screen Controller – Video Input Port, ITU-601/656 – Graphics acceleration  STA108x – not present Embedded Isolated Vehicle Interface  Dedicated Cortex-M3 core  256KB isolated embedded memory  Secured NOR interface DS13319 Rev 2 1/127 www.st.com STA108x, STA109x I/O Interfaces      1x 10 channels 10-bits ADC 3x I2C multi-master/slave interfaces 4x UART Controllers 3x Synchronous Serial Port (SSP/SPI) GPIO ports – STA109x: 7x 32-bit (179 GPIOs) – STA108x: 6x 32-bit (130 GPIOs)  JTAG based in-circuit emulator (ICE) with Embedded Trace Module  CAN ports – STA10x5: 2 – STA10x0: not present Operating Conditions     VDD: 1.14 V - 1.26 V VDD_IO: 3.3 V ±10% VDD_IO_ON: 3.3 V ±10%, Ambient temperature range: -40 / +85 °C Table 1. Device summary 2/127 Root Part Number Package Packaging STA1080 STA1085 STA1090 STA1095 LFBGA 361 16x16x1.7 mm Tray / Tape and Reel DS13319 Rev 2 STA108x, STA109x Contents Contents 1 Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10 2 System description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11 3 2.1 Processor MCU . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 2.2 Memory controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 2.2.1 Embedded memory . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11 2.2.2 SDRAM controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11 2.2.3 SQI executable in place . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11 2.2.4 Parallel memory interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11 2.3 USB . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12 2.4 Sound subsystem . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12 2.4.1 Audio interfaces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13 2.4.2 Routing and sample rate converters . . . . . . . . . . . . . . . . . . . . . . . . . . . 13 2.4.3 Sound DSP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14 2.5 SDMMC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14 2.6 DMA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14 2.7 Embedded isolated vehicle interface subsystem . . . . . . . . . . . . . . . . . . . 15 2.8 General purpose ADC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.9 GPIOs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.10 Generic interfaces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.10.1 4x UARTS: . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.10.2 3x I2C: . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.10.3 3xSSP/SPI ports supporting: . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.11 Input capture / Output compare . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 2.12 Watchdog and timers . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17 2.13 Power modes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17 2.14 Video input port (VIP) - Only available in STA109x . . . . . . . . . . . . . . . . . 18 2.15 Smart graphics accelerator (SGA) - Only available in STA109x . . . . . . . 18 2.16 Display controller - Only available in STA109x . . . . . . . . . . . . . . . . . . . . . 19 2.17 Touch screen controller - Only available in STA109x . . . . . . . . . . . . . . . . 19 Signal description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20 DS13319 Rev 2 3/127 6 Contents STA108x, STA109x 3.1 4 3.1.1 System and power management . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20 3.1.2 Analog audio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 22 3.1.3 Digital audio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 22 3.1.4 Peripherals (CAN, I2C, UART,SPI) . . . . . . . . . . . . . . . . . . . . . . . . . . . . 24 3.1.5 PWM and input capture . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25 3.1.6 SDIO/SD/MMC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 27 3.1.7 General Purpose ADCs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28 3.1.8 USB Host and Dual Role . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29 3.1.9 Power . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29 3.1.10 Memory interfaces (SDRAM, NAND, NOR) . . . . . . . . . . . . . . . . . . . . . . 32 3.1.11 Display - Only available in STA109x . . . . . . . . . . . . . . . . . . . . . . . . . . . 37 3.1.12 VIP - Only available in STA109x . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 3.1.13 Debug . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 3.1.14 GPIO and alternate functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42 Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 53 4.1 Parameter Conditions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 53 4.2 Minimum and Maximum Values . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 53 4.3 Absolute Maximum Ratings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54 4.4 Thermal Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 55 4.5 Recommended DC Operating Conditions . . . . . . . . . . . . . . . . . . . . . . . . 58 4.6 DC Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59 4.7 AC Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 4.8 4/127 Functional signal list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20 4.7.1 Oscillator Electrical Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 4.7.2 32.768 kHz Oscillator Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 4.7.3 24 - 26 MHz Oscillator Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . 61 Sound Subsystem . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63 4.8.1 ADC1: Microphone SD ADC Electrical Characteristics . . . . . . . . . . . . . 63 4.8.2 ADC0: SD Audio ADC Electrical Characteristics . . . . . . . . . . . . . . . . . . 64 4.8.3 DAC Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 4.9 ADC2: SAR ADC Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . 68 4.10 Touch Screen Controller (TSC) Electrical Characteristics . . . . . . . . . . . . 69 4.11 Regulator Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69 4.11.1 Always-on LDO (3V3 TO 1V2 Low Power Regulator) . . . . . . . . . . . . . . 69 4.11.2 VDD Low Voltage Detector . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 DS13319 Rev 2 STA108x, STA109x 4.12 Contents 4.11.3 VDDIO_IO_ON Main Voltage Detector . . . . . . . . . . . . . . . . . . . . . . . . . 70 4.11.4 PLL LDO (3V3 TO 2V5 Low Power Regulator) . . . . . . . . . . . . . . . . . . . 70 4.11.5 USB 1V8 LDO (3V3 TO 1V8 Low Power Regulator) . . . . . . . . . . . . . . . 71 4.11.6 USB 1V1 LDO (3V3 TO 1V1 Low Power Regulator) . . . . . . . . . . . . . . . 71 Power On and Reset Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 72 4.12.1 Timing Requirements for the Device Power-on Reset . . . . . . . . . . . . . . 72 4.12.2 Timing Requirements for Device Hardware Reset . . . . . . . . . . . . . . . . . 77 4.13 SD/MMC Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78 4.14 Color LCD Controller (CLCD) Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . 79 4.14.1 4.15 4.16 4.17 5 6 7 Switching Characteristics for CLCD controller outputs . . . . . . . . . . . . . 79 I2S and SAI Ports Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 4.15.1 I2S (MSP) Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 4.15.2 SAI Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 4.15.3 I2S (MSP) Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81 4.15.4 SAI Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81 SPI (SSP) Timing Interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 4.16.1 SPI Master Mode (SPH=0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 4.16.2 SPI Slave Mode (SPH=0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85 SDRAM Interface Timing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 4.17.1 SDRAM Interface Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 4.17.2 SDRAM Interface Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 4.18 VIP Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 88 4.19 SQI Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89 4.19.1 SQI Bit Clock Generation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90 4.19.2 Clock Constraint . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 92 Ball list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93 5.1 STA1080, STA1085 Ball list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93 5.2 STA1090, STA1095 Ball list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 104 Ballout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 115 6.1 STA1080, STA1085 Ballout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .115 6.2 STA1090, STA1095 Ballout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .119 Package information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 123 7.1 LFBGA361 (16x16x1.7 mm) package information . . . . . . . . . . . . . . . . . 123 DS13319 Rev 2 5/127 6 Contents STA108x, STA109x 8 Order codes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125 9 Revision history . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 126 6/127 DS13319 Rev 2 STA108x, STA109x List of tables List of tables Table 1. Table 2. Table 3. Table 4. Table 5. Table 6. Table 7. Table 8. Table 9. Table 10. Table 11. Table 12. Table 13. Table 14. Table 15. Table 16. Table 17. Table 18. Table 19. Table 20. Table 21. Table 22. Table 23. Table 24. Table 25. Table 26. Table 27. Table 28. Table 29. Table 30. Table 31. Table 32. Table 33. Table 34. Table 35. Table 36. Table 37. Table 38. Table 39. Table 40. Table 41. Table 42. Table 43. Table 44. Table 45. Table 46. Table 47. Table 48. Device summary . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 Summarized conditions of each Accordo2 power state . . . . . . . . . . . . . . . . . . . . . . . . . . . 17 System and power management . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20 Analog audio signals. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 22 Digital audio signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 22 Peripherals signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 24 EFT signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25 SD MMC Signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 27 General Purpose ADC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28 USB Signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29 Power signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29 Memory signals. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32 Display signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 37 Video input signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 Debug signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 STA1080, STA1085 GPIO and alternate functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42 STA1090, STA1095 GPIO and alternate functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 47 Voltage Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54 Thermal Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 55 Frequency Limits . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56 Current Consumption . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57 Recommended DC Operating Conditions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58 Digital DC Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59 Oscillator Amplifier Specifications. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 Typical Crystal Recommended Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 Oscillator Amplifier Specifications. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61 Typical Crystal Recommended Specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62 MICADC electrical characteristics. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63 Audio SD ADC Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 DAC Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 ADC Conversion Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68 Touch screen controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69 3V3 TO 1V2 Low Power Regulator. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69 Digital Supply LVD . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 VDDIO_IO_ON supply LVD . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 3V3 TO 2V5 Regulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 3V3 TO 1V8 regulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 71 3V3 TO 1V1 regulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 71 Initial Power-up Sequence Timings (VDDOK timed) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73 Initial Power-up Sequence Timings (without VDDOK) . . . . . . . . . . . . . . . . . . . . . . . . . . . . 74 Wake Up (VDDOK timed) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75 Wake Up Timings (without VDDOK) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76 Hardware reset timing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 77 Switching Characteristics for CLCD controller outputs . . . . . . . . . . . . . . . . . . . . . . . . . . . . 79 I2S (MSP) Input Timings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 SAI Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 I2S (MSP) Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81 SAI Output Timings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81 DS13319 Rev 2 7/127 8 List of tables Table 49. Table 50. Table 51. Table 52. Table 53. Table 54. Table 55. Table 56. Table 57. Table 58. Table 59. 8/127 STA108x, STA109x SPI master mode (SPH=0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 SPI slave mode (SPH=0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85 SDRAM Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 SDRAM Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 VIP Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 88 SQI Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89 STA108x Ball list. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93 STA109x Ball list. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 104 LFBGA361 (16x16x1.7 mm) package mechanical data . . . . . . . . . . . . . . . . . . . . . . . . . . 124 Part number coding . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125 Document revision history . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 126 DS13319 Rev 2 STA108x, STA109x List of figures List of figures Figure 1. Figure 2. Figure 3. Figure 4. Figure 5. Figure 6. Figure 7. Figure 8. Figure 9. Figure 10. Figure 11. Figure 12. Figure 13. Figure 14. Figure 15. Figure 16. Figure 17. Figure 18. Figure 19. Figure 20. Figure 21. Figure 22. Figure 23. Figure 24. Figure 25. Figure 26. Figure 27. Figure 28. Figure 29. Figure 30. Figure 31. Figure 32. Figure 33. Figure 34. Figure 35. Figure 36. Figure 37. Figure 38. Figure 39. Figure 40. Figure 41. Block diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10 Example of sound use case . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12 Vehicle Interface subsystem isolation. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15 32.768 kHz Crystal Connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61 24-26 MHz Crystal Connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62 MICADC Input Equivalent Circuit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 Audio ADC Input Equivalent Circuit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65 Audio ADC Application Schematic . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65 DAC Output Equivalent Circuit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 DAC VCOM Equivalent Circuit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67 DAC Application Schematic . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67 Power Supply Possible Start-up Sequences . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 72 Initial Power-On Sequence (VDDOK timed) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73 Initial Power-up Sequence (without VDDOK) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 74 Wake Up (VDDOK timed) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75 Wake Up (without VDDOK) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76 SD/MMC Timing Diagrams: Data input/output . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78 CLCD Controller Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 79 Input Timings (SAI, I2S) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81 SAI Output Timings (SAI, I2S) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 SPI Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 83 SPI Frame Format (Single transfer) with SPO = 0b and SPH = 0b . . . . . . . . . . . . . . . . . . 83 SPI frame format (single transfer) with SPO = 1b and SPH = 0b . . . . . . . . . . . . . . . . . . . . 84 SPI timing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85 SDRAM Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 SDRAM Output Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 87 VIP Input Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 88 SQI Timings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89 PLL2 Clock Diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90 PLL1 Clock Diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 91 PLL1 Clock Diagram (SSCG Disabled) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 92 PLL1 Clock Diagram (SSCG Enabled) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 92 STA108x Ballout (top left) diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 115 STA108x Ballout (top right) diagram. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 116 STA108x Ballout (bottom left) diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 117 STA108x Ballout (bottom right) diagram. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 118 STA109x Ballout (top left) diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 119 STA109x Ballout (top right) diagram. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 120 STA109x Ballout (bottom left) diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 121 STA109x Ballout (bottom right) diagram. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 122 LFBGA361 (16x16x1.7 mm) package outline . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 123 DS13319 Rev 2 9/127 9 Description 1 STA108x, STA109x Description Accordo2 is a device that provides a cost effective microprocessor solution for modern automotive car radio systems, with an embedded powerful Digital Sound Processing subsystem, as well as a MIPS efficient ARM Cortex-R4 processor. In addition, an ARM Cortex-M3 controller is dedicated for real-time Vehicle Interface Processing. In terms of peripherals, Accordo2 comes with an exhaustive set of common interfaces (UART/I2S/I2C/USB/MMC) which make the device optimal for implementing a feature reach system as well as a cost effective solution. The solution is bundled with a complete software package, which allows a very fast system implementation. Accordo2 manages the entire audio chain from analog or digital inputs to analog or digital outputs, including digital audio media decoding, sample rate conversion among various sources, intelligent routing and audio effects / DSP post processing. With its flexible memory configuration, it allows implementing from very low cost systems based on real time OS, scaling up to demanding applications based on Linux OS. Figure 1. Block diagram Front panel SDRAM NAND LCD CAN TSC Accordo2 / STA1095 SD/SDIO USB Key iPOD Smartphone CD module RGB Vehicle IF processor Video dec. ADV7182 Camera USB HS Audio dec. & playback dual role iAP2 ready iPOD control library SPDIF / I2S I2C ADC DSP / sound effects media library BT stacks ECNR D A C 4 channels amplifier ADC I2S Aux IN AM / FM tuner UART Mic IN Bluetooth HCI RF GAPGPS02785 10/127 DS13319 Rev 2 STA108x, STA109x System description 2 System description 2.1 Processor MCU Accordo2 processing capability relies on an ARM Cortex-R4 running up to 600 MHz, delivering up to 1000 MIPS with very low heat dissipation requirements. The MCU has 32 KB of instruction cache and 32 KB of data cache, as well as 32 KB + 32 KB of TCM Memory dedicated respectively to instructions and data for high throughput and low latency tasks. 2.2 Memory controller 2.2.1 Embedded memory Accordo2 embeds 1.25 MB of 64-bits SRAM memory clocked at 200 MHz, which can be used for data or code storage delivering 1.6 GB/s throughput. Embedded memory can be used in conjunction with execution In Place (XIP) NOR devices to implement cost effective solutions. The whole embedded memory is also cacheable and can be accessed by DMA. 2.2.2 SDRAM controller SDRAM controller supports SDRAM JEDEC interface 16-bit (STA108x) or 32-bit (STA109x) wide, clocked at up to 166 MHz, which allows to interface automotive SDRAM memory devices to handle high footprint applications. Such memory is cacheable, and can be accessed by DMA. 2.2.3 SQI executable in place The SQIO controller allows interfacing Serial Quad I/O flash memories up to 133MHz (SDR) The main features are:  Direct flash memory access  Fast memory access through page buffer (256 bytes)  Programmable single or quad I/O flash interface SQI memory space can be partitioned to reserve a portion of the NOR device to the Secure CAN Subsystem. 2.2.4 Parallel memory interface FSMC static memory controller, provides a generic 16-bit parallel interface suitable to connect to NOR devices as well as SRAM and NAND devices. This peripheral allows execution in-place from NOR/SRAMs, as well as DMA accesses. NOR memory space can be partitioned so to reserve a portion of the parallel NOR device to the Embedded Vehicle Interface subsystem. DS13319 Rev 2 11/127 126 System description 2.3 STA108x, STA109x USB Accordo2 has one USB HS host interface and one Dual role USB HS, both with embedded PHY, allowing to efficiently connect to mass storage devices, as well as portable devices (phones, pads). Along with USB connectivity, Accordo2 fully supports USB charger specification. The controller supports HS 480-Mbps using an EHCI Host Controller, as well as FS and LS modes through an integrated OHCI interface. 2.4 Sound subsystem Accordo2 implements a sound subsystem which allows to efficiently handle sound processing tasks, such as spatialization and equalizer, without loading the main CPU with interrupt intensive tasks. Figure 2. Example of sound use case BT IN OUT MSP0 TX CTX-R4 TUNER IN MSP0 RX SAI1 RX/TX ECNR MSP1 RX MSP1 TX SPDIF RX IN Optional I2S CD MSP2 RX IN SRC 4 SAI4 TX SAI4 RX SRC1 SRC0 ADC 24bit SRC3 MSP2 TX AUX IN MIC IN ADC 18bit DSP audio effects TEL IN SAI2 RX Tuner domain DAC2 24bit Rear L/R SAI3 TX2 DAC1 24bit Front L/R SAI3 TX1 DAC0 24bit Sub/Spat SAI3 TX0 SAI3 RX0 8 kHz BT domain AMP Media audio domain 48 kHz sound processing domain CD domain GAPGPS02786 12/127 DS13319 Rev 2 STA108x, STA109x 2.4.1 System description Audio interfaces A complete set of audio interfaces is provided, in order to simplify integration with amplifiers, and input sources. Each interface can be routed to the sound subsystem. A complete list of audio interfaces is provided below:    1x AUDIO ADC – Shared between AUX LINE and TUNER LINE – 18 bits ∆∑ – 98 dB A-Weighted Dynamic Range, room temperature – -80 dB THD internally, over temperature – ADC Inputs are single ended 3.3 V 1x Voice ADC – Shared among Voice and TEL-IN lines with embedded multiplexer – 18 bit ∆∑ – 105 dB Dynamic Range, room temperature – -80 dB THD, over temperature – Both Mic and Tel-In lines are differential inputs. 3x Stereo DAC delivering: – 24 bits – 103 dB A-Weighted Dynamic Range – 90 dB THD. –    2.4.2 DAC outputs are single ended, delivering 730 mVrms. 2 3x I S IN – SAI1: 1Ch – SAI2: 1Ch (either TX or RX), TDM Capable up to 8x – SAI3: 3Ch, TDM Capable up to 8x – SAI4: 3Ch, TDM Capable up to 8x – MSP0: 1Ch TDM capable, PCM Capable – MSP2: 1Ch ( as alternate to SAI2) TDM capable, PCM Capable 3x I2S OUT – SAI2: 1Ch (either TX or RX), TDM Capable up to 8x – SAI3: 3Ch, TDM Capable up to 8x – SAI4: 3Ch, TDM Capable up to 8x – MSP0: 1Ch TDM capable, PCM Capable 1x SPDIF IN for CD/CDROM input with Hardware Block Decoder for CDROM error correction. Routing and sample rate converters Each audio interface can be routed in both directions (IN/OUT) through sample rate converters, which allow normalizing the sampling rate to the sound processing engine. The audio routing infrastructure is designed to deliver high quality sample rate conversion on multiple channels, allowing simultaneous audio streams, such as Bluetooth Hands Free and audio media playback, to be handled without CPU load. DS13319 Rev 2 13/127 126 System description STA108x, STA109x In order to generate multiple sampling rate audio frequencies, a dedicated fractional PLL is also provided. This PLL also allows an efficient implementation of iPOD playback, by dynamically adjusting the reconstructed audio sampling rate without CPU overload. 2.4.3 Sound DSP Accordo2 is equipped with three (3) 150 MIPS DSPs (for a total of 450 MIPS) dedicated to sound processing, fully integrated with the sound subsystem with a specific isochronous bus. DSPs are provided with an integrated sound processing library implementing effects like Spatialization, Balancing and Equalizer. The DSP Core is a 24-bit fixed point Harvard architecture and is equipped with: – 6 k x 32 bit (64 kByte) program PRAM – 4 k x 24 bit (18 kByte) data XRAM – 4 k x 24 bit (18 kByte) data YRAM Each DSP is connected to other DSPs and audio peripherals by means of an isochronous bus infrastructure which guarantees a controlled throughput and latency for all audio transfers. 2.5 SDMMC Accordo2 is equipped with 2 SDMMC controllers, allowing mass storage devices or Wi-Fi modems. Both interfaces implement the following specification:   eMMC - MultiMedia Card 4.4 – 26/52 MHz – 1,4,8 bit of data SD/SDIO 4.0 – 4 bit interface – SDSC/SDHC/SDXC limited to 50MHz SDR freq. Both interfaces can be used in conjunction with DMA to efficiently implement data transfer with minimal CPU load for handling interrupts. 2.6 DMA DMA is designed to efficiently perform memory to memory, and memory to peripherals transfers, offloading such tasks from the processor, thus reducing interrupt handling load. DMA provides 16 independent channels which can be dynamically assigned to different data-paths. Complex Scatter/gather transfers can be implemented by programming specific DMA command linked lists. 14/127 DS13319 Rev 2 STA108x, STA109x 2.7 System description Embedded isolated vehicle interface subsystem Accordo2 allows isolating critical code from the main application by implementing a dedicated subsystem based on ARM Cortex-M3, along with:  256 KB dedicated embedded SRAM  Interrupt controller  timers  CAN controller  Dedicated GPIOs  Dedicated Wakeup lines  Back-up RAM in always on domain  Local RTC In order to guarantee the security of CAN network, all of the above can be completely isolated from the rest of the system, in such a way that no application running on Cortex-R4 can access CAN specific resources by any means (STA10x5). This subsystem can also be dedicated to implement secure features, such as boot authentication, as well as interrupt intensive tasks to offload main CPU. The secure subsystem communicates with the application running on Cortex-R4 using a Hardware Mailbox interrupt based mechanism. Figure 3. Vehicle Interface subsystem isolation MEMORY CortexR4 NVM CSS Cortex-M3 B0 v CS0 SECURITY CONFIG REGISTERS SQI CS1 B0 REGS B1 eSRAM0 CS0 B2 FSMC CS1 B3 B0 B1 eSRAM0 B2 B3 PERIPHERALS SDRAM CS0 RTC CAN1 GPIO_S I2C0 UART0 UART0 EFT3 EFT4 GAPGPS02787 DS13319 Rev 2 15/127 126 System description STA108x, STA109x A specific set of peripherals can be reserved and locked to be only accessible from Cortex-M3, thus allowing a complete independent subsystem to be realized. In addition to that, specific secure GPIOs as well as wake signals are reserved for such subsystem. 2.8 General purpose ADC Accordo2 has a 10-input SAR ADC with 10-bit resolution and sampling frequency up to 2.5 MHz. 2.9 GPIOs Accordo2 has 179 GPIOs in STA109x and 130 in STA108x (16 of which are dedicated to Embedded Isolated Vehicle Interface subsystem). They can be independently configured either as INPUT or OUTPUT. In order to make the system flexible, these IOs are multiplexed on PINs with other peripherals (the alternate function scheme is provided as a separate document). 2.10 Generic interfaces 2.10.1 4x UARTS: 2.10.2 2.10.3 2.11  Programmable baud rates up to 3 Mbps  Hardware Flow control  DMA capability. 3x I2C:  Master/slave modes in multi-master environment  Multiple baud rates supported: 100/400/1000/3400 Kbps  DMA capability. 3xSSP/SPI ports supporting:  Motorola SPI-compatible interface  Texas Instrument synchronous serial interface  National Semiconductor Microwire interface  Unidirectional interface  DMA capability. Input capture / Output compare 5 EFT (Enhanced Function timers) implement a very flexible input capture and output compare feature set. Each EFT block can provide 2 Input capture and 2 output PWM lines. EFT are based on 16-bit counters with dedicated prescaler. 16/127 DS13319 Rev 2 STA108x, STA109x 2.12 System description Watchdog and timers Cortex-R4 has:  2x MTU timers each providing access to four programmable 32-bit Free-Running decrementing Counters (FRCs)  1x Watchdog (WDT) unit that provides a way to recover from software crashes.  1x RTC counter clocked with 32 KHz Oscillator. Cortex-M3 has: 2.13  1x MTU timers providing access to four programmable 32-bit Free-Running decrementing Counters (FRCs)  1x Watchdog (WDT) unit that provides a way to recover from software crashes. Power modes Accordo2 supports the following power modes:  Normal  Software Standby  Deep Standby  Power Off The SoC requires three power lines for internal logic (excluding analog block power lines), which are identified as:  3V3 standby  3V3 IOs, switchable  1V2 Core, switchable In each power state, the SoC is permanently protected from Voltage drops by means of a brownout logic, which would trigger a system reset in case a low voltage condition is detected. The following table summarizes the condition of each Accordo2 power state. Table 2. Summarized conditions of each Accordo2 power state Power Mode 3V3 Standby 3V3 IO 1V2 Core Analog Clocks RTC Wake Modes Normal ON ON ON ON Active Active N.A. Soft Standby ON ON ON ON Gated Active IRQ Deep Standby ON OFF OFF OFF OFF Optional WAKE Lines Power Off OFF OFF OFF OFF OFF OFF PowerOn DS13319 Rev 2 17/127 126 System description 2.14 STA108x, STA109x Video input port (VIP) - Only available in STA109x The Video Input Port (VIP) allows to grab images from external devices, supporting parallel CCIR-656 interface up to 54 MHz. Both embedded synchronization and external synchronization are supported. VIP supports both interlaced or progressive mode. The VIP is synchronized with display controller to prevent from tearing effects, and is used in conjunction with SGA to implement the fly YUV → RGB color conversion and bilinear interpolated re-scaling. 2.15 Smart graphics accelerator (SGA) - Only available in STA109x The aim of the Smart Graphic Accelerator (SGA) is to provide an efficient 2D and 3D primitive drawing tool that offloads the CPU, reducing MIPS and power consumption for pixel processing.     18/127 Control and synchronization: – Instruction Automatic Fetch from a program file – Flow Control: goto/gosub/wait/interrupt instructions – Can synchronize itself on external hardware triggers 2D-Graphic features: – 2D Rendering Speed: up to 208 MPixel/s – Pixel, Line, Filled Triangle, Filled Rectangle primitives – Line-Stippling, Filling Pattern – Flat and Gradient colour fill (in triangle & rectangles) Video overlay features: – BitBlitting on Rectangle, Triangle shapes – Image Resizing (Bilinear Interpolation Filter or Sub/OverSampling) – Image Rotation (with any angle) – Colour Conversion (YUV-to-RGB or RGB-to-YUV, 16-235 clamping possible) – Transparency extraction (exact Colour Keying or Colour Cube (triple interval) – Colour Swap with Colour Keying – AlphaBlending of 3 sources to a destination, ROP boolean operations – Dithering operator 3D features: – 3D Rendering Speed: up to 52 MFragment/s, impacted by memory access delays – FrameBuffer and DepthBuffer Cache: 256 Bytes, Fully Associative – Texture Cache: 2 kBytes, 4 associative ways – Early Z-Test (lowers texture calls) – 16-bit Z-Buffering – Double Texture Blending Units – Texture Perspective Correction – Texture Nearest and Bilinear Filtering – Texture MipMap selection on a Per-Triangle basis DS13319 Rev 2 STA108x, STA109x 2.16 System description – Texture Flexible Wrap Mode (Repeat, Clamp, Mirrored_Repeat, ...) – Primary Colour Interpolation (Gouraud Shading), Fog Blending – Alpha, Depth, Stencil Tests Display controller - Only available in STA109x The main features of the LCD Controller are: 2.17  Supports single and dual panel monochrome STN displays with 4 or 8 bits interfaces  Supports single and dual panel color STN displays with 8 bits interfaces  Supports TFT color displays  Supports AD-TFT and HR-TFT color displays  Resolution programmable up to 1024 lines of 1024 pixels  1,2,4 or 8 bpp palettized color displays  12-bpp (4:4:4), 15+I bpp (I:5:5:5) or 16 bpp (5:6:5) true-color  24-bpp packed and non-packed true-color (non-palettized)  Programmable timing for different display panels  256 entry, 16-bit palette RAM  Frame, line and pixel clock signals generation  Color enhancement (16-bpp to 18-bpp conversion) for addressing 18-bit (RGB 666) TFTpanels using only 16-bpp resolution  Supports little and big-endian, as well as WinCE formats  Interrupt and synchro generation event Touch screen controller - Only available in STA109x The Touch Screen Controller consists of a 4-wire touch-screen controller and an 8-input ADC. It is enhanced with a movement tracking algorithm, 128 depth buffer and a programmable active window feature. The main features are:  Integrated 4 wire touchscreen controller  Interrupt output pin  8 analog input, 10-bit resolution ADC  128-depth buffer touchscreen controller  Programmable active window feature  Touch Screen movement detection algorithm to avoid excessive data DS13319 Rev 2 19/127 126 Signal description STA108x, STA109x 3 Signal description 3.1 Functional signal list 3.1.1 System and power management Table 3. System and power management Name GPIOs Balls DIR Power domain Description CLKOUT0 M3_GPIO13 A12 O VDD_IO Programmable clock output 0. CLKOUT1 GPIO49 F5 O VDD_IO Programmable clock output 1. DEBUGCFG M3_GPIO13 A12 I VDD_IO DBGCFG. This pin is latched on the rising edge of POR reset to define the target connected by default to the JTAG . 0b: Cortex-M3 1b: Cortex-R4 After reset this pin can be used as GPIO. JTAGSEL - E11 T VDD_IO Test Signal. It selects whether the JTAG is used for ATE test or as debug port. Connect it to GND in the application (debug port). M3_CLK32KOUT - D13 O VDD_IO_AON Output 32 kHz clock. M3_IGNKEY - A15 I VDD_IO_AON PMU Ignition Key signal. Used by PMU to change the state of the system. M3_LVI - B14 I VDD_IO_AON PMU Low Voltage Indication. Used by PMU to change the state of the system (Normal, Standby). M3_ONOFF - A13 I VDD_IO_AON PMU ON/OFF.  Connect it to the On/off Car Radio push button. M3_PWREN - B15 O VDD_IO_AON PMU Power Enable. Used by the PMU to enable external voltage regulator, when moving out of Standby state. M3_SXTALI - C14 I VDD_IO_AON Crystal input. 32 kHz RTC clock. M3_SXTALO - D14 O VDD_IO_AON Crystal output. PMU VDDOK. This signal is used by the PMU to detect if the external power is valid. The PMU moves to Normal state if VDDOK=1. M3_VDDOK - A14 I VDD_IO_AON MXTALI - N19 I VDD_IO Crystal input. 24/26MHz crystal. MXTALO - N18 O VDD_IO Crystal output. OTP_FUSE_HV - A1 P Power 20/127 DS13319 Rev 2 OTP programming voltage. Leave it floating in the application. STA108x, STA109x Signal description Table 3. System and power management (continued) Name REMAP0 GPIOs M3_GPIO14 Balls C3 DIR I Power domain Description VDD_IO Memory Remap pin. This pin is latched on the rising edge of POR reset and it defines the boot device. After reset these pins can be used as GPIO. REMAP1 M3_GPIO15 B2 I VDD_IO Memory Remap pin. This pin is latched on the rising edge of POR reset and it defines the boot device. After reset these pins can be used as GPIO. SYSRSTn - B6 I VDD_IO System Reset not. TEST_CLK - - I VDD_IO ATE TEST clock. Not used in the application. WAKE0 M3_GPIO0 C15 I VDD_IO_AON Wake up signal line 0. An event on this line wakes the system up from Stand-By state. WAKE1 M3_GPIO1 D15 I VDD_IO_AON Wake up signal line 1. An event on this line wakes the system up from Stand-By state. WAKE2 M3_GPIO2 B16 I VDD_IO_AON Wake up signal line 2. An event on this line wakes the system up from Stand-By state. WAKE3 M3_GPIO3 C16 I VDD_IO_AON Wake up signal line 3. An event on this line wakes the system up from Stand-By state. WAKE4 M3_GPIO4 D16 I VDD_IO_AON Wake up signal line 4. An event on this line wakes the system up from Stand-By state. WAKE5 M3_GPIO5 A16 I VDD_IO_AON Wake up signal line 5. An event on this line wakes the system up from Stand-By state. WAKE6 M3_GPIO6 A17 I VDD_IO_AON Wake up signal line 6. An event on this line wakes the system up from Stand-By state. WAKE7 M3_GPIO7 A18 I VDD_IO_AON Wake up signal line 7. An event on this line wakes the system up from Stand-By state. DS13319 Rev 2 21/127 126 Signal description 3.1.2 STA108x, STA109x Analog audio Table 4. Analog audio signals Name GPIOs Balls DIR Power domain ADC0_AIN1_L - F18 I ADC0_1_AVDD ADC0 (AUX). Analog input 1 left. ADC0_AIN1_R - F19 I ADC0_1_AVDD ADC0 (AUX). Analog input 1 right. ADC0_AIN2_L - F16 I ADC0_1_AVDD ADC0 (AUX). Analog input 2 left. ADC0_AIN2_R - F17 I ADC0_1_AVDD ADC0 (AUX). Analog input 2 left. ADC1_AIN1_N - H19 I ADC0_1_AVDD ADC1 (Voice). Analog auxiliary differential input 1 negative. ADC1_AIN1_P - H18 I ADC0_1_AVDD ADC1 (Voice). Analog auxiliary differential input 1 positive. ADC1_MICIN_N - G19 I ADC0_1_AVDD ADC1 (Voice). Analog MIC differential input negative. ADC1_MICIN_P - G18 I ADC0_1_AVDD ADC1 (Voice). Analog MIC differential input positive. DAC_OUT0L - C18 O DAC_I/O_AVDD DAC0. Analog output Channel 0 left . DAC_OUT0R - D18 O DAC_I/O_AVDD DAC0. Analog output channel 0 right. DAC_OUT1L - B18 O DAC_I/O_AVDD DAC1. Analog output channel 1 left. DAC_OUT1R - D19 O DAC_I/O_AVDD DAC1. Analog output channel 1 right. DAC_OUT2L - C19 O DAC_I/O_AVDD DAC2. Analog output channel 2 left. DAC_OUT2R - B19 O DAC_I/O_AVDD DAC2. Analog output channel 2 right. 3.1.3 Description Digital audio Table 5. Digital audio signals Name GPIOs Balls DIR Power domain Description B10 I/O VDD_IO Audio Master Clock. Input: it can be used as master audio clock for MSP peripherals . Output: audio master clock running at 512*Fs. I2S0_BCLK L1 I/O VDD_IO I2S0 (MSP0). Bit clock line. I2S0_FS L2 I/O VDD_IO I2S0 (MSP0). Frame Synchronization line. I2S0_RX K2 I VDD_IO I2S0 (MSP0). Receive data line. I2S0_TX K1 O VDD_IO I2S0 (MSP0). Transmit data line. AUDIO_REFCLK GPIO7 I2S2_BCLK GPIO16 C9 I/O VDD_IO I2S2 (MSP2). Bit clock line. I2S2_FS GPIO17 D10 I/O VDD_IO I2S2 (MSP2). Frame Synchronization line. I2S2_RX GPIO18 D11 I VDD_IO I2S2 (MSP2). Receive data line. SAI1_BCLK GPIO19 C10 I VDD_IO SAI1. Serial Audio Interface 1 bit clock line. Slave only configuration. 22/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 5. Digital audio signals (continued) Name GPIOs Balls DIR Power domain SAI1_FS GPIO20 B11 I VDD_IO SAI1. Serial Audio Interface 1 frame synchronization line. Slave only configuration. SAI1_RX GPIO21 A10 I VDD_IO SAI1. Serial Audio Interface 1 receive data line. SAI2_BCLK GPIO16 C9 I VDD_IO SAI2. Serial Audio Interface 2 bit clock line. Slave configuration only. SAI2_FS GPIO17 D10 I VDD_IO SAI2. Serial Audio Interface 2 frame synchronization line. Slave only configuration. SAI2_RX/TX GPIO7 GPIO18 B10 D11 I/O VDD_IO SAI2. Serial Audio Interface 2 receive/transmit data line . SAI3_BCLK GPIO8 A9 O VDD_IO SAI3. Serial Audio Interface 3 bit clock SAI3_FS GPIO9 A8 O VDD_IO SAI3. Serial Audio Interface 3 frame synchronization line. SAI3_RX0 GPIO13 B8 I VDD_IO SAI3. Serial Audio Interface 3 receive data line 0. SAI3_RX1 GPIO14 A7 I VDD_IO SAI3. Serial Audio Interface 3 receive data line 1. SAI3_RX2 GPIO15 A6 I VDD_IO SAI3. Serial Audio Interface 3 receive data line 3. SAI3_TX0 GPIO10 C8 O VDD_IO SAI3. Serial Audio Interface 3 transmit data line 0. SAI3_TX1 GPIO11 D9 O VDD_IO SAI3. Serial Audio Interface 3 transmit data line 1. SAI3_TX2 GPIO12 B9 O VDD_IO SAI3. Serial Audio Interface 3 transmit data line 2. SAI4_BCLK GPIO0 A11 I/O VDD_IO SAI4. Serial Audio Interface 4 bit clock. SAI4_FS GPIO1 B12 I/O VDD_IO SAI4. Serial Audio Interface 4 frame synchronization line. SAI4_RX0 GPIO5 B13 I VDD_IO SAI4. Serial Audio Interface 4 receive data line 0. SAI4_RX1 GPIO13 B8 I VDD_IO SAI4. Serial Audio Interface 4 receive data line 1. SAI4_RX2 GPIO8 A9 I VDD_IO SAI4. Serial Audio Interface 4 receive data line 2. SAI4_TX0 GPIO2 C12 O VDD_IO SAI4. Serial Audio Interface 4 transmit data line 0. SAI4_TX1 GPIO3 D12 O VDD_IO SAI4. Serial Audio Interface 4 transmit data line 1. SAI4_TX2 GPIO4 C13 O VDD_IO SAI4. Serial Audio Interface 4 transmit data line 2. SPDIF_RX GPIO18 D11 I VDD_IO SPIDIF. Data input line. Description DS13319 Rev 2 23/127 126 Signal description 3.1.4 STA108x, STA109x Peripherals (CAN, I2C, UART,SPI) Table 6. Peripherals signals Power domain Name GPIOs Balls DIR CAN0_RX M3_GPIO9 C6 I VDD_IO CAN0. Receive signal line.(1) CAN0_TX M3_GPIO8 B7 O VDD_IO CAN0. Transmit signal line.(1) CAN1_RX S_GPIO0 D6 I VDD_IO CAN1. Receive signal line.(1) CAN1_TX S_GPIO1 D7 O VDD_IO CAN1. Transmit signal line.(1) I2C0_SCL - C7 I/O VDD_IO I2C0. Clock line. It needs an external pull-up. I2C0_SDA - D8 I/O VDD_IO I2C0. Data line. It needs an external Pull-up. I2C1_SCL GPIO30 GPIO35 GPIO43 M1 B3 A4 I/O VDD_IO I2C1. Clock line . It needs an external Pull-up. I2C1_SDA GPIO31 GPIO34 GPIO42 M4 B4 A3 I/O VDD_IO I2C1. Data line. It needs an external pull-up. I2C2_SCL GPIO14 GPIO46 A7 D5 I/O VDD_IO I2C2. Clock line. It needs an external pull-up. I2C2_SDA GPIO15 GPIO45 A6 C4 I/O VDD_IO I2C2. Data line. It needs an external pull-up. SPI0_RXD - N3 I VDD_IO SPI0. Receive data line. SPI0_SCK - N1 I/O VDD_IO SPI0. Clock signal line. SPI0_SS - N2 I/O VDD_IO SPI0. Frame signal line. SPI0_TXD - N4 O VDD_IO SPI0. Transmit data line SPI1_RXD GPIO32 M3 I VDD_IO SPI1. Receive data line. SPI1_SCK GPIO33 M2 I/O VDD_IO SPI1. Clock signal line. SPI1_SS GPIO30 M1 I/O VDD_IO SPI1. Frame signal. SPI1_TXD GPIO31 M4 O VDD_IO SPI1. Transmit data line. SPI2_RXD GPIO20 GPIO24 B11 R3 I VDD_IO SPI2. Receive data line SPI2_SCK GPIO21 GPIO25 A10 R4 I/O VDD_IO SPI2. Clock signal line. SPI2_SS GPIO22 GPIO99 R1 H2 I/O VDD_IO SPI2. Frame signal line. SPI2_TXD GPIO19 GPIO23 C10 R2 O VDD_IO SPI2. Transmit data line. UART0_CTS - L3 I VDD_IO UART0. Clear to send. UART0_RTS - L4 O VDD_IO UART0. Request to send. 24/127 Description DS13319 Rev 2 STA108x, STA109x Signal description Table 6. Peripherals signals (continued) Power domain Name GPIOs Balls DIR Description UART0_RX - K3 I VDD_IO UART0. Received serial data. UART0_TX - K4 O VDD_IO UART0. Transmitted serial data. UART1_CTS GPIO40 B1 I VDD_IO UART1. Clear to send. UART1_RTS GPIO41 A2 O VDD_IO UART1. Request to send. UART1_RX GPIO25 GPIO35 GPIO37 R4 B3 T16 I VDD_IO UART1. Received serial data. UART1_TX GPIO24 GPIO34 GPIO36 R3 B4 T17 O VDD_IO UART1. Transmitted serial data. UART2_RX GPIO9 GPIO38 A8 T18 I VDD_IO UART2. Received serial data. UART2_TX GPIO12 GPIO39 B9 R19 O VDD_IO UART2. Transmitted serial data. UART3_RX GPIO33 GPIO40 M2 B1 I VDD_IO UART3. Received serial data. UART3_TX GPIO32 GPIO41 M3 A2 O VDD_IO UART3. Transmitted serial data. 1. Only available in STA10x5. 3.1.5 PWM and input capture Table 7. EFT signals Power Domain Name GPIOs Balls DIR EFT0_EXTCK GPIO22 GPIO30 R1 M1 I VDD_IO EFT0. External Input Clock. EFT0_ICAP0 GPIO22 GPIO42 R A3 I VDD_IO EFT0. Input Capture 0. EFT0_ICAP1 GPIO23 GPIO43 R2 A4 I VDD_IO EFT0. Input Capture 1. EFT0_OCMP0 GPIO24 GPIO42 R3 A3 O VDD_IO EFT0. Output compare 0. EFT0_OCMP1 GPIO25 GPIO43 R4 A4 O VDD_IO EFT0. Output compare 1. EFT1_EXTCK GPIO26 GPIO31 N16 M4 I VDD_IO EFT1 External Input Clock EFT1_ICAP0 GPIO26 GPIO34 N16 B4 I VDD_IO EFT1. Input Capture 0. DS13319 Rev 2 Description 25/127 126 Signal description STA108x, STA109x Table 7. EFT signals (continued) Power Domain Name GPIOs Balls DIR EFT1_ICAP1 GPIO27 GPIO35 N17 B3 I VDD_IO EFT1. Input Capture 1. EFT1_OCMP0 GPIO28 GPIO33 M19 M2 O VDD_IO EFT1. Output compare 0. EFT1_OCMP1 GPIO29 GPIO32 P19 M3 O VDD_IO EFT1. Output compare 1. EFT2_EXTCK GPIO21 GPIO44 A10 B5 I VDD_IO EFT2. External Input Clock. EFT2_ICAP0 GPIO40 GPIO44 B1 B5 I VDD_IO EFT2. Input Capture 0. EFT2_ICAP1 GPIO11 GPIO41 D9 A2 I VDD_IO EFT2. Input Capture 1. EFT2_OCMP0 GPIO19 GPIO44 C10 B5 O VDD_IO EFT2. Output compare 0. EFT2_OCMP1 GPIO10 GPIO20 C8 B11 O VDD_IO EFT2. Output compare 1. EFT3_EXTCK S_GPIO4 S_GPIO5 P4 P3 I VDD_IO EFT3. External input clock. EFT3_ICAP0 S_GPIO0 S_GPIO4 D6 P4 I VDD_IO EFT3. Input Capture 0. EFT3_ICAP1 S_GPIO1 S_GPIO5 D7 P3 I VDD_IO EFT3 Input Capture 1 EFT3_OCMP0 S_GPIO0 S_GPIO4 D6 P4 O VDD_IO EFT3. Output compare 0. EFT3_OCMP1 S_GPIO1 S_GPIO5 D7 P3 O VDD_IO EFT3. Output compare 1. EFT4_EXTCK S_GPIO2 S_GPIO6 C5 P2 I VDD_IO EFT4. External input clock. EFT4_ICAP0 S_GPIO2 S_GPIO6 C5 P2 I VDD_IO EFT4. Input Capture 0. EFT4_ICAP1 S_GPIO3 S_GPIO7 A5 P1 I VDD_IO EFT4. Input Capture 1. EFT4_OCMP0 S_GPIO2 S_GPIO6 C5 P2 O VDD_IO EFT4. Output compare 0. EFT4_OCMP1 S_GPIO3 S_GPIO7 A5 P1 O VDD_IO EFT4. Output compare 1. 26/127 DS13319 Rev 2 Description STA108x, STA109x 3.1.6 Signal description SDIO/SD/MMC Table 8. SD MMC Signals Power Domain Name GPIOs Balls DIR SDMMC0_CLK - R18 O VDD_IO SD/MMC0. Clock line. SDMMC0_CMD - P18 I/O VDD_IO SD/MMC0. Command line. SDMMC0_CMDDIR GPIO23 R2 O VDD_IO SD/MMC0. Command line direction control. SDMMC0_DAT0_DIR GPIO14 GPIO45 A7 C4 O VDD_IO SD/MMC0. Data 0 line direction control. SDMMC0_DAT2_DIR GPIO0 GPIO15 A11 A6 O VDD_IO SD/MMC0. Data 2 line direction control. SDMMC0_DAT31_DIR GPIO1 GPIO29 GPIO46 B12 P19 D5 O VDD_IO SD/MMC0. Data lines 3:1 direction control. SDMMC0_DATA_0 - R16 I/O VDD_IO SD/MMC0. Data line 0. SDMMC0_DATA_1 - P16 I/O VDD_IO SD/MMC0. Data line 1. SDMMC0_DATA_2 - P17 I/O VDD_IO SD/MMC0. Data line 2. SDMMC0_DATA_3 - R17 I/O VDD_IO SD/MMC0. Data line 3. SDMMC0_DATA_4 GPIO2 GPIO36 C12 T17 I/O VDD_IO SD/MMC0. Data line 4. SDMMC0_DATA_5 GPIO3 GPIO37 D12 T16 I/O VDD_IO SD/MMC0. Data line 5. SDMMC0_DATA_6 GPIO4 GPIO38 C13 T18 I/O VDD_IO SD/MMC0. Data line 6. SDMMC0_DATA_7 GPIO5 GPIO39 B13 R19 I/O VDD_IO SD/MMC0. Data line 7. SDMMC0_FBCLK GPIO27 N17 I VDD_IO SD/MMC0. Feedback clock line. SDMMC0_PWR GPIO28 M19 O VDD_IO SD/MMC0. Power enable. SDMMC1_CLK GPIO1 GPIO9 B12 A8 O VDD_IO SD/MMC1. Clock line. SDMMC1_CMD GPIO0 GPIO8 A11 A9 I/O VDD_IO SD/MMC1. Command line. SDMMC1_CMDDIR GPIO47 E3 O VDD_IO SD/MMC1. Command line direction line. SDMMC1_DAT0_DIR GPIO6 E2 O VDD_IO SD/MMC1. Data 0 line direction control. SDMMC1_DAT2_DIR GPIO49 F5 O VDD_IO SD/MMC1. Data 2 line direction control. SDMMC1_DAT31_DIR GPIO7 GPIO48 B10 E4 O VDD_IO SD/MMC1. Data lines 3:1 direction control. SDMMC1_DATA_0 GPIO2 GPIO10 C12 C8 I/O VDD_IO SD/MMC1. Data line 0. SDMMC1_DATA_1 GPIO3 GPIO11 D12 D9 I/O VDD_IO SD/MMC1. Data line 1. DS13319 Rev 2 Description 27/127 126 Signal description STA108x, STA109x Table 8. SD MMC Signals (continued) Name GPIOs Balls DIR Power Domain SDMMC1_DATA_2 GPIO4 GPIO12 C13 B9 I/O VDD_IO SD/MMC1. Data line 2. SDMMC1_DATA_3 GPIO5 GPIO13 B13 B8 I/O VDD_IO SD/MMC1. Data line 3. 3.1.7 Description General Purpose ADCs Table 9. General Purpose ADC Name GPIOs Balls DIR Power Domain Description ADC2_AIN0_XP - H17 I VDD_IO ADC2 (SAR) CH 0/Touch screen panel signal XP.(1) ADC2_AIN1_XN - J19 I VDD_IO ADC2 (SAR) CH 1/Touch screen panel signal XN.(1) ADC2_AIN2_YP - G17 I VDD_IO ADC2 (SAR) CH 2/Touch screen panel signal YP.(1) ADC2_AIN3_YN - G16 I VDD_IO ADC2 (SAR) CH3/Touch screen panel signal YN.(1) ADC2_AIN4 - E19 I VDD_IO ADC2 (SAR) CH4. ADC2_AIN5 - H16 I VDD_IO ADC2 (SAR) CH5. ADC2_AIN6 - E17 I VDD_IO ADC2 (SAR) CH6. ADC2_AIN7 - E18 I VDD_IO ADC2 (SAR) CH7. ADC2_AIN8 - J18 I VDD_IO ADC2 (SAR) CH8. ADC2_AIN9 - E16 I VDD_IO ADC2 (SAR) CH9. 1. Touch screen controller only available in STA109x. 28/127 DS13319 Rev 2 STA108x, STA109x 3.1.8 Signal description USB Host and Dual Role Table 10. USB Signals Name GPIOs Balls USB_BGEXT - K14 T USB_REXT - M18 P USB0_DN - L18 I/O USB0_VDD3V3 USB0. Differential line D-. USB0_DP - L19 I/O USB0_VDD3V3 USB0. Differential line D+. USB1_DN - K18 I/O USB1_VDD3V3 USB1. Differential line D-. USB1_DP - K19 I/O USB1_VDD3V3 USB1. Differential line D+. USB1_DRVVBUS GPIO26 M3_GPIO12 N16 C11 O 3.1.9 DIR Power Domain VDD_IO Description Test signal. Leave it unconnected. USBx_VDD3V3 Connect to GND with a 3 kOhm 1% resistor. VDD_IO It can be used to enable the VBUS when USB1 is in host mode Power Table 11. Power signals Name GPIOs Balls DIR Power Domain Description ADC0_1_AGND - J14 P Power ADC0 and ADC1 analog 3.3V supply ground. ADC0_1_AVDD - H14 P Power ADC0 and ADC1 analog 3.3V supply. ADC0_1_VCM - J17 P Power ADC0, ADC1 common voltage. Connect 10nF and 10uF capacitors connected to GND. ADC0_1_VRFN - J16 P Power ADC0 and ADC1 Vref negative. Connect it to GND. ADC0_1_VRFP - J15 P Power ADC0 and ADC1 Vref positive. Connect 10nF and 10uF capacitors connected to GND. ADC2_AGND - F13 P Power ADC2 (SAR) analog 3.3V supply ground. ADC2_AVDD - G13 P Power ADC2 (SAR) analog 3.3V supply. ADC2_VREFN - E12 P Power ADC2 (SAR) Vref negative. Connect it to GND. ADC2_VREFP - F15 P Power ADC2 Vref positive. Connect it to 3.3V. COMP0 - L16 P Power Compensation cell input.  Connect to external 121Kohm res. 1% to GND. DAC_AGND - F14 P Power DAC analog supply ground. DAC_AVDD - G15 P Power DAC analog 3.3V supply. DAC_I/O_AGND - G14 P Power DAC0, DAC1, DAC2 I/O analog 3.3V supply. DS13319 Rev 2 29/127 126 Signal description STA108x, STA109x Table 11. Power signals (continued) Name GPIOs Balls DIR Power Domain DAC_I/O_AVDD - H15 P Power DAC0, DAC1, DAC2 I/O analog 3.3V supply ground. DAC_VCOM - D17 P Power DAC0, DAC1, DAC2 common voltage. Connect 10nF and 10uF capacitors connected to DAC_AGND. Description DAC_VHI - B17 P Power DAC0, DAC1, DAC2 analog positive reference. Connect 10nF and 10uF capacitors to DAC_AGND. DAC_VLO - C17 P Power DAC0, DAC1, DAC2 analog negative reference. Connect it to DAC_AGND. GND - A19, F11, F12, G7, G8, G9, G10, G11, G12, H7, H8, H9, H10, H11, H12, J7, J8, J9, J10, J11, J12, K7, K8, K9, K10, K11, K12, L7, L8, L9, L10, L11, L12, W1,W19 P Power GND PLL_GND - M15 P Power Analog ground for PLL. OSC32K_GND - F10 P Power Analog ground for 32K oscillator. MIC_BIAS - E15 O PLL_VDD2.5V - M16 P Power 2.5V LDO (PLL) output voltage. Connect it to a 4.7uF capacitor to GND. PLL_VREG3.3V - N15 P Power LDO 2.5V (PLL) 3.3V supply. Connect it to VDDIO. USB_1.1VREG - K16 P Power LDO 1.1V (USB) output. Connect it to 4.7 uF capacitor to GND. USB_1.8VREG - K15 P Power LDO 1.8V (USB) output. Connect it to 4.7 uF capacitor to GND. USB_KELVIN_TERM - L15 T 30/127 VDD_IO Bias voltage for Microphone. 2.5V +/- 5%. VDD_IO Test signal. Leave it unconnected. DS13319 Rev 2 STA108x, STA109x Signal description Table 11. Power signals (continued) Power Domain Name GPIOs Balls DIR USB_KELVIN_TERM - L15 T VDD_IO Test signal. Leave it unconnected. USB_VCOD1V48 GPIO28 M19 T VDD_IO Test signal. Not used in the application. USB_VREG3V3_1V1 - H13 P Power LDO 1.1V (USB) 3.3V supply. USB_VREG3V3_1V8 - J13 P Power LDO 1.8V (USB) 3.3V supply. USB0_AGND - K17 P Power USB0 analog supply ground. USB0_VDD3V3 - L14 P Power USB0 3.3V supply. USB1_AGND - L17 P Power USB1 analog supply ground. USB1_VDD3V3 - K13 P Power USB1 3.3V supply. - E9, E10, F6, F9, G5, H5, J5, K5, L5, M5, N5, N6, N10, N11, N12, N13 P Power 1.2V switchable domain digital power supply. VDD_IO - E6, E7, E8, F7, F8, G6, H6, J6, K6, L6, L13, M6, M7, M8, M9, M10, M11, M12, M13, M14, N7, N8, N9 P Power 3.3V Digital I/O supply. VDD_IO_ON - E13 P Power 3.3V always on digital power supply. VDD_ON_VREG - E14 P Power LDO 1.2V (always on domain). Connect it to 2.2nF capacitor. VREG_BYPASS - M17 T VDD_IO XOSC_VDD - M16 P Power VDD DS13319 Rev 2 Description Test signal. Connect it to GND on the application board. To be shorted with PLL_VDD_2.5V. Only on QFP package. 31/127 126 Signal description 3.1.10 STA108x, STA109x Memory interfaces (SDRAM, NAND, NOR) Table 12. Memory signals Name GPIOs Balls DIR Power Domain FSMC_ADVn GPIO83 GPIO140(1) W6 U6 O VDD_IO FSMC Address Valid. It indicates that address is valid on SMADQ bus (active low) . FSMC_BLn_0 GPIO88 GPIO145(1) W16 T8 O VDD_IO FSMC Byte Lane 0 enable not. Lower byte lane enable for SRAM memories (active LOW) FSMC_BLn_1 GPIO67 GPIO146(1) W18 U8 O VDD_IO FSMC Byte Lane 1 enable not. Upper byte lane enable for SRAM memories (active LOW) FSMC_BUSYn GPIO79 GPIO100 W2 H3 I VDD_IO FSMC Busy. Busy signal for NAND flash memory (active low). FSMC_CLK GPIO78 V2 O VDD_IO FSMC. Clock for synchronous SRAM and NOR access. FSMC_DACK GPIO80 V3 I VDD_IO FSMC. External DMA transfer request acknowledge. FSMC_DREQ GPIO79 W2 O VDD_IO FSMC. External DMA transfer request. FSMC_NAND_CS0N GPIO105 J4 O VDD_IO FSMC. NAND chip select 256MB address space from 0xC000000 to 0xCFFFFFFF. FSMC_NOR_CS0N GPIO69 GPIO144(1) U19 U3 O VDD_IO FSMC. NOR/SRAM chip select 0. 64MB address space from 0x80000000 to 0x83FFFFFF. FSMC_NOR_CS1N GPIO86 GPIO149(1) V7 P6 O VDD_IO FMSC. NOR/SRAM chip select 1. 64MB address space from 0x84000000 to 0x87FFFFFF. FSMC_OEn GPIO70 GPIO101 T19 H4 O VDD_IO FSMC. Output enable signal (active low). Description FSMC_RSTn GPIO73 W4 O VDD_IO FSMC. Reset signal for NOR-Flash Memories (active LOW). This signal is an output and is used to reset or control the power-down of the flash memory devices. FSMC_SMAD0 GPIO68 U18 O VDD_IO FSMC. Address line 0. FSMC_SMAD1 GPIO104 J3 O VDD_IO FSMC. Address line 1. FSMC_SMAD10 GPIO77 V1 O VDD_IO FSMC. Address line 10. FSMC_SMAD11 GPIO51 W7 O VDD_IO FSMC. Address line 11. FSMC_SMAD12 GPIO50 V8 O VDD_IO FSMC. Address line 12. FSMC_SMAD13 GPIO54 W8 O VDD_IO FSMC. Address line 13. FSMC_SMAD14 GPIO64 V9 O VDD_IO FSMC. Address line 14. 32/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 12. Memory signals (continued) Name GPIOs Balls DIR Power Domain FSMC_SMAD15 GPIO63 W9 O VDD_IO FSMC. Address line 15. FSMC_SMAD16/CLE GPIO58 GPIO104 V12 J3 O VDD_IO FSMC. Address line 16 - NAND CLE . FSMC_SMAD17/ALE GPIO59 GPIO103 W11 J2 O VDD_IO FSMC. Address line 17 - NAND ALE. FSMC_SMAD18 GPIO60 GPIO137(1) V11 T7 O VDD_IO FSMC. Address line 18. FSMC_SMAD19 GPIO82 GPIO138(1) V6 U7 O VDD_IO FSMC. Address line 19. FSMC_SMAD2 GPIO103 J2 O VDD_IO FSMC. Address line 2. FSMC_SMAD20 GPIO81 GPIO139(1) W5 T6 O VDD_IO FSMC. Address line 20. FSMC_SMAD21 GPIO74 GPIO141(1) V4 T5 O VDD_IO FSMC. Address line 21. FSMC_SMAD22 GPIO62 GPIO142(1) V10 R6 O VDD_IO FSMC. Address line 22. FSMC_SMAD23 GPIO61 GPIO143(1) W10 U4 O VDD_IO FSMC. Address line 23. FSMC_SMAD24 GPIO66 GPIO147(1) V19 P5 O VDD_IO FSMC. Address line 24. FSMC_SMAD25 GPIO49 GPIO65 GPIO150(1) F5 V18 U5 O VDD_IO FSMC. Address line 25. FSMC_SMAD3 GPIO102 J1 O VDD_IO FSMC. Address line 3. FSMC_SMAD4 GPIO101 H4 O VDD_IO FSMC. Address line 4. FSMC_SMAD5 GPIO100 H3 O VDD_IO FSMC. Address line 5. FSMC_SMAD6 GPIO98 H1 O VDD_IO FSMC. Address line 6. FSMC_SMAD7 GPIO97 G4 O VDD_IO FSMC. Address line 7. FSMC_SMAD8 GPIO96 G3 O VDD_IO FSMC. Address line 8. FSMC_SMAD9 GPIO83 W6 O VDD_IO FSMC. Address line 9. FSMC_SMADQ_0 GPIO71 GPIO97 V17 G4 I/O VDD_IO FSMC. Multiplexed address/data line 0. FSMC_SMADQ_1 GPIO85 GPIO96 V16 G3 I/O VDD_IO FSMC. Multiplexed address/data line 1. FSMC_SMADQ_10 GPIO81 GPIO154(1) W5 R8 I/O VDD_IO FSMC. Multiplexed address/data line 10. FSMC_SMADQ_11 GPIO74 GPIO153(1) V4 P8 I/O VDD_IO FSMC. Multiplexed address/data line 11. DS13319 Rev 2 Description 33/127 126 Signal description STA108x, STA109x Table 12. Memory signals (continued) Name GPIOs Balls DIR Power Domain Description FSMC_SMADQ_12 GPIO62 GPIO152(1) V10 R7 I/O VDD_IO FSMC. Multiplexed address/data line 12. FSMC_SMADQ_13 GPIO61 GPIO151(1) W10 P7 I/O VDD_IO FSMC. Multiplexed address/data line 13. FSMC_SMADQ_14 GPIO66 GPIO150(1) V19 U5 I/O VDD_IO FSMC. Multiplexed address/data line 14. FSMC_SMADQ_15 GPIO65 GPIO149(1) V18 P6 I/O VDD_IO FSMC. Multiplexed address/data line 15. FSMC_SMADQ_2 GPIO87 GPIO95 V15 G2 I/O VDD_IO FSMC. Multiplexed address/data line 2. FSMC_SMADQ_3 GPIO52 GPIO94 W14 G1 I/O VDD_IO FSMC. Multiplexed address/data line 3. FSMC_SMADQ_4 GPIO53 GPIO93 V14 F4 I/O VDD_IO FSMC. Multiplexed address/data line 4. FSMC_SMADQ_5 GPIO55 GPIO92 W13 F3 I/O VDD_IO FSMC. Multiplexed address/data line 5. FSMC_SMADQ_6 GPIO56 GPIO91 V13 F2 I/O VDD_IO FSMC. Multiplexed address/data line 6. FSMC_SMADQ_7 GPIO57 GPIO90 W12 F1 I/O VDD_IO FSMC. Multiplexed address/data line 7. FSMC_SMADQ_8 GPIO48 GPIO72 E4 W17 I/O VDD_IO FSMC. Multiplexed address/data line 8. FSMC_SMADQ_9 GPIO47 GPIO89 E3 W15 I/O VDD_IO FSMC. Multiplexed address/data line 9. FSMC_WAITn GPIO76 GPIO148(1) U1 R5 I VDD_IO FSMC Wait. Wait signal for NOR flash memory (active low). FSMC_WEn GPIO84 GPIO102 V5 J1 O VDD_IO FSMC Write Enable. For SRAM/NOR-Flash and NAND-Flash (active low). FSMC_WPn GPIO75 GPIO98 W3 H1 O VDD_IO FSMC Write protect. Used for NOR-Flash memories (active LOW). SDRAM_ADD_0 GPIO64 V9 O VDD_IO SDR SDRAM. Address line 0. SDRAM_ADD_1 GPIO63 W9 O VDD_IO SDR SDRAM. Address line 1. SDRAM_ADD_10 GPIO54 W8 O VDD_IO SDR SDRAM. Address line 10. SDRAM_ADD_11 GPIO53 V14 O VDD_IO SDR SDRAM. Address line 11. SDRAM_ADD_12 GPIO52 W14 O VDD_IO SDR SDRAM. Address line 12. SDRAM_ADD_2 GPIO62 V10 O VDD_IO SDR SDRAM. Address line 2. 34/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 12. Memory signals (continued) Name GPIOs Balls DIR Power Domain SDRAM_ADD_3 GPIO61 W10 O VDD_IO SDR SDRAM. Address line 3. SDRAM_ADD_4 GPIO60 V11 O VDD_IO SDR SDRAM. Address line 4. SDRAM_ADD_5 GPIO59 W11 O VDD_IO SDR SDRAM. Address line 5. SDRAM_ADD_6 GPIO58 V12 O VDD_IO SDR SDRAM. Address line 6. SDRAM_ADD_7 GPIO57 W12 O VDD_IO SDR SDRAM. Address line 7. SDRAM_ADD_8 GPIO56 V13 O VDD_IO SDR SDRAM. Address line 8. SDRAM_ADD_9 GPIO55 W13 O VDD_IO SDR SDRAM. Address line 9. SDRAM_BA_0 GPIO51 W7 O VDD_IO SDR SDRAM. Bank address 0 line. SDRAM_BA_1 GPIO50 V8 O VDD_IO SDR SDRAM. Bank address 1 line. SDRAM_CASn GPIO82 V6 O VDD_IO SDR SDRAM. Column address strobe. SDRAM_CKE GPIO87 V15 O VDD_IO SDR SDRAM. Clock enable. SDRAM_CLK GPIO89 W15 O VDD_IO SDR SDRAM. Clock signal. SDRAM_CS0n GPIO86 V7 O VDD_IO SDR SDRAM. Chip select 0. SDRAM_CS1n GPIO28 GPIO136(1) M19 U17 O VDD_IO SDR SDRAM. Chip select 1. SDRAM_Data_0 GPIO80 V3 I/O VDD_IO SDR SDRAM. Data line 0. SDRAM_Data_1 GPIO79 W2 I/O VDD_IO SDR SDRAM. Data line 1. SDRAM_Data_10 GPIO70 T19 I/O VDD_IO SDR SDRAM. Data line 10. SDRAM_Data_11 GPIO69 U19 I/O VDD_IO SDR SDRAM. Data line 11. SDRAM_Data_12 GPIO68 U18 I/O VDD_IO SDR SDRAM. Data line 12. SDRAM_Data_13 GPIO67 W18 I/O VDD_IO SDR SDRAM. Data line 13. SDRAM_Data_14 GPIO66 V19 I/O VDD_IO SDR SDRAM. Data line 14. SDRAM_Data_15 GPIO65 Description V18 I/O VDD_IO SDR SDRAM. Data line 15. (1) (1) GPIO137 T7 I/O VDD_IO SDR SDRAM. Data line 16. (1) GPIO138(1) U7 I/O VDD_IO SDR SDRAM. Data line 17. SDRAM_Data_18(1) (1) GPIO139 T6 I/O VDD_IO SDR SDRAM. Data line 18. SDRAM_Data_19(1) GPIO140(1) U6 I/O VDD_IO SDR SDRAM. Data line 19. SDRAM_Data_2 GPIO78 V2 I/O VDD_IO SDR SDRAM. Data line 2. SDRAM_Data_20(1) GPIO141(1) T5 I/O VDD_IO SDR SDRAM. Data line 20. (1) SDRAM_Data_21 (1) GPIO142 R6 I/O VDD_IO SDR SDRAM. Data line 21. SDRAM_Data_22(1) GPIO143(1) U4 I/O VDD_IO SDR SDRAM. Data line 22. SDRAM_Data_23(1) GPIO144(1) U3 I/O VDD_IO SDR SDRAM. Data line 23. (1) (1) GPIO147 P5 I/O VDD_IO SDR SDRAM. Data line 24. (1) GPIO148(1) R5 I/O VDD_IO SDR SDRAM. Data line 25. SDRAM_Data_16 SDRAM_Data_17 SDRAM_Data_24 SDRAM_Data_25 DS13319 Rev 2 35/127 126 Signal description STA108x, STA109x Table 12. Memory signals (continued) Balls DIR Power Domain Description GPIO149(1) P6 I/O VDD_IO SDR SDRAM. Data line 26. SDRAM_Data_27 (1) GPIO150 U5 I/O VDD_IO SDR SDRAM. Data line 27. SDRAM_Data_28(1) GPIO151(1) P7 I/O VDD_IO SDR SDRAM. Data line 28. SDRAM_Data_29(1) (1) GPIO152 R7 I/O VDD_IO SDR SDRAM. Data line 29 GPIO77 Name GPIOs SDRAM_Data_26(1) (1) SDRAM_Data_3 V1 I/O VDD_IO SDR SDRAM. Data line 3. SDRAM_Data_30 (1) GPIO153 P8 I/O VDD_IO SDR SDRAM. Data line 30. SDRAM_Data_31(1) GPIO154(1) R8 I/O VDD_IO SDR SDRAM. Data line 31. SDRAM_Data_4 GPIO76 U1 I/O VDD_IO SDR SDRAM. Data line 4. SDRAM_Data_5 GPIO75 W3 I/O VDD_IO SDR SDRAM. Data line 5. SDRAM_Data_6 GPIO74 V4 I/O VDD_IO SDR SDRAM. Data line 6. SDRAM_Data_7 GPIO73 W4 I/O VDD_IO SDR SDRAM. Data line 7. SDRAM_Data_8 GPIO72 W17 I/O VDD_IO SDR SDRAM. Data line 8. SDRAM_Data_9 GPIO71 V17 I/O VDD_IO SDR SDRAM. Data line 9. SDRAM_DQM0 GPIO84 V5 O VDD_IO SDR SDRAM. Data mask 0, data[7:0]. SDRAM_DQM1 (1) GPIO85 V16 O VDD_IO SDR SDRAM. Data mask 1, data[15:8]. (1) GPIO145(1) T8 O VDD_IO SDR SDRAM. Data mask 2, data[23:16]. (1) GPIO146(1) U8 O VDD_IO SDR SDRAM. Data mask 3, data[31:24]. SDRAM_FBCLK GPIO88 W16 I VDD_IO SDR SDRAM. Feedback clock line. Connect it to SDRAM device clock. SDRAM_RASn GPIO83 W6 O VDD_IO SDR SDRAM. Row address strobe SDRAM_WEn GPIO81 W5 O VDD_IO SDR SDRAM. Write enable strobe. SQI_CE0n - D3 O VDD_IO SQI. Chip select 0 (active low). SQI_CE1n GPIO99 H2 O VDD_IO SQI. Chip select 1 (active low). SQI_FDBSCK GPIO6 GPIO99 E2 H2 I VDD_IO SQI. Feedback clock. It must be used for clock frequencies above 60MHz. SQI_SCK - D1 O VDD_IO SQI. Clock line. SQI_SIO0 - D4 I/O VDD_IO SQI. Data line 0. SQI_SIO1 - D2 I/O VDD_IO SQI. Data line 1. SQI_SIO2 - E1 I/O VDD_IO SQI. Data line 2. SDRAM_DQM2 SDRAM_DQM3 1. Only available on STA109x. 36/127 DS13319 Rev 2 STA108x, STA109x 3.1.11 Signal description Display - Only available in STA109x Table 13. Display signals Power Domain Name GPIOs Balls DIR CLCD_COLOR0 GPIO136 U17 O VDD_IO LCD. Display data line 0. CLCD_COLOR1 GPIO135 U16 O VDD_IO LCD. Display data line 1. CLCD_COLOR10 GPIO126 U14 O VDD_IO LCD. Display data line 10. CLCD_COLOR11 GPIO125 P13 O VDD_IO LCD. Display data line 11. CLCD_COLOR12 GPIO124 R13 O VDD_IO LCD. Display data line 12. CLCD_COLOR13 GPIO123 T13 O VDD_IO LCD. Display data line 13. CLCD_COLOR14 GPIO122 U13 O VDD_IO LCD. Display data line 14. CLCD_COLOR15 GPIO121 P12 O VDD_IO LCD. Display data line 15. CLCD_COLOR16 GPIO29 GPIO107 P19 T11 O VDD_IO LCD. Display data line 16. CLCD_COLOR17 GPIO27 GPIO108 N17 R11 O VDD_IO LCD. Display data line 17. CLCD_COLOR2 GPIO134 P15 O VDD_IO LCD. Display data line 2. CLCD_COLOR3 GPIO133 T15 O VDD_IO LCD. Display data line 3. CLCD_COLOR4 GPIO132 R15 O VDD_IO LCD. Display data line 4. CLCD_COLOR5 GPIO131 U15 O VDD_IO LCD. Display data line 5. CLCD_COLOR6 GPIO130 N14 O VDD_IO LCD. Display data line 6. CLCD_COLOR7 GPIO129 P14 O VDD_IO LCD. Display data line 7. CLCD_COLOR8 GPIO128 R14 O VDD_IO LCD. Display data line 8. CLCD_COLOR9 GPIO127 T14 O VDD_IO LCD. Display data line 9. CLCD_DE GPIO120 R12 O VDD_IO LCD. Display data enable line. CLCD_HSYNCH GPIO119 T12 O VDD_IO CLCD_PIXCLK GPIO117 P11 O VDD_IO LCD. Display pixel clock line. CLCD_VSYNCH GPIO118 U12 O VDD_IO LCD. Display vertical synchronization line. DS13319 Rev 2 Description LCD. Display horizontal synchronization line. 37/127 126 Signal description 3.1.12 STA108x, STA109x VIP - Only available in STA109x Table 14. Video input signals Power Domain Name GPIOs Balls DIR VIP_DAT0 GPIO116 T9 O VDD_IO Video Input Port. Data 0. VIP_DAT1 GPIO115 R9 O VDD_IO Video Input Port. Data 1 VIP_DAT2 GPIO114 P9 O VDD_IO Video Input Port. Data 2. VIP_DAT3 GPIO113 U10 O VDD_IO Video Input Port. Data 3. VIP_DAT4 GPIO112 T10 O VDD_IO Video Input Port. Data 4. VIP_DAT5 GPIO111 R10 O VDD_IO Video Input Port. Data 5. VIP_DAT6 GPIO110 P10 O VDD_IO Video Input Port. Data 6. VIP_DAT7 GPIO109 U11 O VDD_IO Video Input Port. Data 7. VIP_HSYNCH GPIO107 T11 O VDD_IO VIP_PIXCLK GPIO106 U9 O VDD_IO Video Input Port. Pixel clock. VIP_VSYNCH GPIO108 R11 O VDD_IO 3.1.13 Description Video Input Port. Horizontal synchronization pulse signal. Video Input Port. Vertical synchronization pulse signal. Debug Table 15. Debug signals Name GPIOs Balls ETM_CLK GPIO13 GPIO103 GPIO119(1) B8 J2 T12 ETM_CTL GPIO14 GPIO104 GPIO120(1) ETM_D0 DIR Power Domain Description O ETM. TRACE clock output. The trace port must be sampled on both edges VDD_IO of this clock. There is no requirement for this to be linked to the core clock. A7 J3 R12 O ETM. ETM control line. This signal indicates whether trace can be VDD_IO stored this cycle, in conjunction with TRACEDATA[0]. This signal does not have to be stored. GPIO0 GPIO90 GPIO121(1) A11 F1 P12 O VDD_IO ETM. TRACEDATA0. ETM_D1 GPIO1 GPIO91 GPIO122(1) B12 F2 U13 O VDD_IO ETM. TRACEDATA1. ETM_D10 GPIO10 GPIO100 GPIO131(1) C8 H3 U15 O VDD_IO ETM. TRACEDATA10. 38/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 15. Debug signals (continued) Power Domain Name GPIOs Balls DIR ETM_D11 GPIO11 GPIO101 GPIO132(1) D9 H4 R15 O VDD_IO ETM. TRACEDATA11. ETM_D12 GPIO12 GPIO102 GPIO133(1) B9 J1 T15 O VDD_IO ETM. TRACEDATA12. ETM_D13 GPIO16 GPIO30 GPIO134(1) C9 M1 P15 O VDD_IO ETM. TRACEDATA13. ETM_D14 GPIO17 GPIO31 GPIO135(1) D10 M4 U16 O VDD_IO ETM. TRACEDATA14. ETM_D15 GPIO19 GPIO33 GPIO136(1) C10 M2 U17 O VDD_IO ETM. TRACEDATA15. ETM_D2 GPIO2 GPIO92 GPIO123(1) C12 F3 T13 O VDD_IO ETM. TRACEDATA2. ETM_D3 GPIO3 GPIO93 GPIO124(1) D12 F4 R13 O VDD_IO ETM. TRACEDATA3. ETM_D4 GPIO4 GPIO94 GPIO125(1) C13 G1 P13 O VDD_IO ETM. TRACEDATA4. ETM_D5 GPIO5 GPIO95 GPIO126(1) B13 G2 U14 O VDD_IO ETM. TRACEDATA5. ETM_D6 GPIO6 GPIO96 GPIO127(1) E2 G3 T14 O VDD_IO ETM. TRACEDATA6. ETM_D7 GPIO7 GPIO97 GPIO128(1) B10 G4 R14 O VDD_IO ETM. TRACEDATA7. ETM_D8 GPIO8 GPIO98 GPIO129(1) A9 H1 P14 O VDD_IO ETM. TRACEDATA8. ETM_D9 GPIO9 GPIO99 GPIO130(1) A8 H2 N14 O VDD_IO ETM. TRACEDATA9. FORCE_CS_HIGH GPIO105 J4 O Test Signal. VDD_IO It must be driven High when ETM is enabled, to prevent conflict with NAND. T3 I VDD_IO JTAG. Test clock. JTAG_TCK DS13319 Rev 2 Description 39/127 126 Signal description STA108x, STA109x Table 15. Debug signals (continued) Name Power Domain Balls DIR JTAG_TDI T1 I VDD_IO JTAG. Test Data In. JTAG_TDO T2 O VDD_IO JTAG. Test Data Output. JTAG_TMS T4 I VDD_IO JTAG. Test Mode Select. JTAG_TRSTn U2 I JTAG. TRSTn. VDD_IO If the Debug Port is not used, the JTAG_TRSTn can be left unconnected (internal pull-down). I JTAG1. Test Clock. This is an optional JTAG interface, not enabled by default. If enabled, it connects to Cortex-R4 only and allows the parallel debugging of the VDD_IO Cortex-R4 and Cortex-M3 processors without chaining them but using two separate JTAG interfaces. If JTAG1 is not enabled, the debug interface is controlled through the JTAG dedicated interface only. I JTAG1. Test Data In. This is an optional JTAG interface, not enabled by default. If enabled, it connects to Cortex-R4 only and allows the parallel debugging of the VDD_IO Cortex-R4 and Cortex-M3 processors without chaining them but using two separate JTAG interfaces. If JTAG1 is not enabled, the debug interface is controlled through the JTAG dedicated interface only. O JTAG1. Test Data Out. This is an optional JTAG interface, not enabled by default. If enabled, it connects to Cortex-R4 only and allows the parallel debugging of the VDD_IO Cortex-R4 and Cortex-M3 processors without chaining them but using two separate JTAG interfaces. If JTAG1 is not enabled, the debug interface is controlled through the JTAG dedicated interface only. JTAG1_TCK JTAG1_TDI JTAG1_TDO 40/127 GPIOs GPIO109(1) S_GPIO4 GPIO118(1) S_GPIO1 GPIO117(1) S_GPIO0 U11 P4 U12 D7 P11 D6 DS13319 Rev 2 Description STA108x, STA109x Signal description Table 15. Debug signals (continued) Name JTAG1_TMS JTAG1_TRSTn GPIOs GPIO107(1) S_GPIO2 GPIO108(1) S_GPIO3 Balls T11 C5 R11 A5 DIR Power Domain Description I JTAG1. Test Mode Select. This is an optional JTAG interface, not enabled by default. If enabled, it connects to Cortex-R4 only and allows the parallel debugging of the VDD_IO Cortex-R4 and Cortex-M3 processors without chaining them but using two separate JTAG interfaces. If JTAG1 is not enabled, the debug interface is controlled through the JTAG dedicated interface only. I JTAG1. Test Reset not. This is an optional JTAG interface, not enabled by default. If enabled, it connects to Cortex-R4 only and allows the parallel debugging of the VDD_IO Cortex-R4 and Cortex-M3 processors without chaining them but using two separate JTAG interfaces. If JTAG1 is not enabled, the debug interface is controlled through the JTAG dedicated interface only. 1. Only available on STA109x. DS13319 Rev 2 41/127 126 Signal description 3.1.14 STA108x, STA109x GPIO and alternate functions Table 16. STA1080, STA1085 GPIO and alternate functions GPIO Ball ALT C DEBUG 0 GPIO0 A11 SDMMC1_CMD SDMMC0_DAT2_DIR SAI4_BCLK ETM_D0 GPIO1 B12 SDMMC1_CLK SDMMC0_DAT31_DIR SAI4_FS ETM_D1 GPIO2 C12 SDMMC1_DATA_0 SDMMC0_DATA_4 SAI4_TX0 ETM_D2 GPIO3 D12 SDMMC1_DATA_1 SDMMC0_DATA_5 SAI4_TX1 ETM_D3 GPIO4 C13 SDMMC1_DATA_2 SDMMC0_DATA_6 SAI4_TX2 ETM_D4 GPIO5 B13 SDMMC1_DATA_3 SDMMC0_DATA_7 SAI4_RX0 ETM_D5 GPIO6 E2 CD_SS_MON_1 SDMMC1_DAT0_DIR ETM_D6 GPIO7 B10 AUDIO_REFCLK SAI2_RX/TX SDMMC1_DAT31_DIR ETM_D7 GPIO8 A9 SAI3_BCLK SDMMC1_CMD SAI4_RX2 ETM_D8 GPIO9 A8 SAI3_FS SDMMC1_CLK UART2_RX ETM_D9 GPIO10 C8 SAI3_TX0 SDMMC1_DATA_0 EFT2_OCMP1 ETM_D10 GPIO11 D9 SAI3_TX1 SDMMC1_DATA_1 EFT2_ICAP1 ETM_D11 GPIO12 B9 SAI3_TX2 SDMMC1_DATA_2 UART2_TX ETM_D12 GPIO13 B8 SAI3_RX0 SDMMC1_DATA_3 SAI4_RX1 ETM_CLK GPIO14 A7 SAI3_RX1 SDMMC0_DAT0_DIR I2C2_SCL ETM_CTL GPIO15 A6 SAI3_RX2 SDMMC0_DAT2_DIR I2C2_SDA - GPIO16 C9 SAI2_BCLK - I2S2_BCLK ETM_D13 GPIO17 D10 SAI2_FS - I2S2_FS ETM_D14 GPIO18 D11 SAI2_RX/TX SPDIF_RX I2S2_RX - GPIO19 C10 SAI1_BCLK SPI2_TXD EFT2_OCMP0 ETM_D15 GPIO20 B11 SAI1_FS SPI2_RXD EFT2_OCMP1 - GPIO21 A10 SAI1_RX SPI2_SCK EFT2_EXTCK - GPIO22 R1 EFT0_ICAP0 EFT0_EXTCK SPI2_SS - GPIO23 R2 EFT0_ICAP1 SDMMC0_CMDDIR SPI2_TXD - GPIO24 R3 EFT0_OCMP0 UART1_TX SPI2_RXD - GPIO25 R4 EFT0_OCMP1 UART1_RX SPI2_SCK - GPIO26 N16 EFT1_ICAP0 EFT1_EXTCK USB1_DRVVBUS - GPIO27 N17 EFT1_ICAP1 SDMMC0_FBCLK CLCD_COLOR17 - GPIO28 M19 EFT1_OCMP0 SDMMC0_PWR SDRAM_CS1n USB_VCOD1V48 GPIO29 P19 EFT1_OCMP1 SDMMC0_DAT31_DIR CLCD_COLOR16 - GPIO30 M1 SPI1_SS EFT0_EXTCK I2C1_SCL ETM_D13 GPIO31 M4 SPI1_TXD EFT1_EXTCK I2C1_SDA ETM_D14 GPIO32 M3 SPI1_RXD EFT1_OCMP1 UART3_TX - 42/127 ALT A SQI_FDBSCK ALT B DS13319 Rev 2 STA108x, STA109x Signal description Table 16. STA1080, STA1085 GPIO and alternate functions (continued) GPIO Ball ALT A ALT B ALT C DEBUG 0 GPIO33 M2 SPI1_SCK EFT1_OCMP0 UART3_RX ETM_D15 GPIO34 B4 I2C1_SDA UART1_TX EFT1_ICAP0 - GPIO35 B3 I2C1_SCL UART1_RX EFT1_ICAP1 - GPIO36 T17 UART1_TX SDMMC0_DATA_4 SDMMC1_DATA_4 - GPIO37 T16 UART1_RX SDMMC0_DATA_5 SDMMC1_DATA_5 - GPIO38 T18 UART2_RX SDMMC0_DATA_6 SDMMC1_DATA_6 - GPIO39 R19 UART2_TX SDMMC0_DATA_7 SDMMC1_DATA_7 - GPIO40 B1 UART3_RX UART1_CTS EFT2_ICAP0 - GPIO41 A2 UART3_TX UART1_RTS EFT2_ICAP1 - GPIO42 A3 I2C1_SDA EFT0_OCMP0 EFT0_ICAP0 - GPIO43 A4 I2C1_SCL EFT0_OCMP1 EFT0_ICAP1 - GPIO44 B5 EFT2_ICAP0 EFT2_OCMP0 EFT2_EXTCK - GPIO45 C4 I2C2_SDA SDMMC0_DAT0_DIR CD_SS_MON_0 - GPIO46 D5 I2C2_SCL SDMMC0_DAT31_DIR - - GPIO47 E3 FSMC_SMADQ_9 - SDMMC1_CMDDIR - GPIO48 E4 FSMC_SMADQ_8 - SDMMC1_DAT31_DIR - GPIO49 F5 FSMC_SMAD25 CLKOUT1 SDMMC1_DAT2_DIR - GPIO50 V8 SDRAM_BA_1 FSMC_SMAD12 - - GPIO51 W7 SDRAM_BA_0 FSMC_SMAD11 - - GPIO52 W14 SDRAM_Add_12 FSMC_SMADQ_3 - - GPIO53 V14 SDRAM_Add_11 FSMC_SMADQ_4 - - GPIO54 W8 SDRAM_Add_10 FSMC_SMAD13 - - GPIO55 W13 SDRAM_Add_9 FSMC_SMADQ_5 - - GPIO56 V13 SDRAM_Add_8 FSMC_SMADQ_6 - - GPIO57 W12 SDRAM_Add_7 FSMC_SMADQ_7 - - GPIO58 V12 SDRAM_Add_6 FSMC_SMAD16/CLE - - GPIO59 W11 SDRAM_Add_5 FSMC_SMAD17/ALE - - GPIO60 V11 SDRAM_Add_4 FSMC_SMAD18 - - GPIO61 W10 SDRAM_Add_3 FSMC_SMAD23 FSMC_SMADQ_13 - GPIO62 V10 SDRAM_Add_2 FSMC_SMAD22 FSMC_SMADQ_12 - GPIO63 W9 SDRAM_Add_1 FSMC_SMAD15 - - GPIO64 V9 FSMC_SMAD14 - - GPIO65 V18 SDRAM_Data_15 FSMC_SMAD25 FSMC_SMADQ_15 - GPIO66 V19 SDRAM_Data_14 FSMC_SMAD24 FSMC_SMADQ_14 - GPIO67 W18 SDRAM_Data_13 FSMC_BLn_1 - - SDRAM_Add_0 DS13319 Rev 2 43/127 126 Signal description STA108x, STA109x Table 16. STA1080, STA1085 GPIO and alternate functions (continued) GPIO Ball ALT A ALT B ALT C DEBUG 0 GPIO68 U18 SDRAM_Data_12 FSMC_SMAD0 - - GPIO69 U19 SDRAM_Data_11 FSMC_NOR_CS0n - - GPIO70 T19 SDRAM_Data_10 FSMC_OEn - - GPIO71 V17 SDRAM_Data_9 FSMC_SMADQ_0 - - GPIO72 W17 SDRAM_Data_8 FSMC_SMADQ_8 - - GPIO73 W4 SDRAM_Data_7 FSMC_RSTn - - GPIO74 V4 FSMC_SMAD21 FSMC_SMADQ_11 - GPIO75 W3 SDRAM_Data_5 FSMC_WPn - - GPIO76 U1 SDRAM_Data_4 FSMC_WAITn - - GPIO77 V1 SDRAM_Data_3 FSMC_SMAD10 - - GPIO78 V2 SDRAM_Data_2 FSMC_CLK - - GPIO79 W2 SDRAM_Data_1 FSMC_DREQ FSMC_BUSYn - GPIO80 V3 FSMC_DACK - - GPIO81 W5 SDRAM_WEn FSMC_SMAD20 FSMC_SMADQ_10 - GPIO82 V6 FSMC_SMAD19 - - GPIO83 W6 SDRAM_RASn FSMC_SMAD9 FSMC_ADVn - GPIO84 V5 FSMC_WEn - - GPIO85 V16 SDRAM_DQM1 FSMC_SMADQ_1 - - GPIO86 V7 FSMC_NOR_CS1n - - GPIO87 V15 SDRAM_CKE FSMC_SMADQ_2 - - GPIO88 W16 SDRAM_FBCLK FSMC_BLn_0 - - GPIO89 W15 SDRAM_CLK FSMC_SMADQ_9 - - SDRAM_Data_6 SDRAM_Data_0 SDRAM_CASn SDRAM_DQM0 SDRAM_CS0n GPIO90 F1 FSMC_SMADQ_7 - - ETM_D0 GPIO91 F2 FSMC_SMADQ_6 - - ETM_D1 GPIO92 F3 FSMC_SMADQ_5 - - ETM_D2 GPIO93 F4 FSMC_SMADQ_4 - - ETM_D3 GPIO94 G1 FSMC_SMADQ_3 - - ETM_D4 GPIO95 G2 FSMC_SMADQ_2 - - ETM_D5 GPIO96 G3 FSMC_SMADQ_1 FSMC_SMAD8 - ETM_D6 GPIO97 G4 FSMC_SMADQ_0 FSMC_SMAD7 - ETM_D7 GPIO98 H1 FSMC_WPn FSMC_SMAD6 - ETM_D8 GPIO99 H2 SQI_CE1n SPI2_SS SQI_FDBSCK ETM_D9 GPIO100 H3 FSMC_BUSYn FSMC_SMAD5 - ETM_D10 GPIO101 H4 FSMC_OEn FSMC_SMAD4 - ETM_D11 GPIO102 J1 FSMC_WEn FSMC_SMAD3 - ETM_D12 44/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 16. STA1080, STA1085 GPIO and alternate functions (continued) GPIO Ball GPIO103 J2 GPIO104 GPIO105 ALT A ALT C DEBUG 0 FSMC_SMAD17/ALE FSMC_SMAD2 - ETM_CLK J3 FSMC_SMAD16/CLE FSMC_SMAD1 - ETM_CTL J4 FSMC_NAND_CS0n - FORCE_CS_HIGH GPIO106 Not available GPIO107 Not available GPIO108 Not available GPIO109 Not available GPIO110 Not available GPIO111 Not available GPIO112 Not available GPIO113 Not available GPIO114 Not available GPIO115 Not available GPIO116 Not available GPIO117 Not available GPIO118 Not available GPIO119 Not available GPIO120 Not available GPIO121 Not available GPIO122 Not available GPIO123 Not available GPIO124 Not available GPIO125 Not available GPIO126 Not available GPIO127 Not available GPIO128 Not available GPIO129 Not available GPIO130 Not available GPIO131 Not available GPIO132 Not available GPIO133 Not available GPIO134 Not available GPIO135 Not available GPIO136 Not available GPIO137 Not available ALT B - DS13319 Rev 2 45/127 126 Signal description STA108x, STA109x Table 16. STA1080, STA1085 GPIO and alternate functions (continued) GPIO Ball ALT A GPIO138 Not available GPIO139 Not available GPIO140 Not available GPIO141 Not available GPIO142 Not available GPIO143 Not available GPIO144 Not available GPIO145 Not available GPIO146 Not available GPIO147 Not available GPIO148 Not available GPIO149 Not available GPIO150 Not available GPIO151 Not available GPIO152 Not available GPIO153 Not available GPIO154 Not available S_GPIO0 D6 EFT3_ICAP0 ALT B ALT C DEBUG 0 EFT3_OCMP0 CAN1_RX(1) JTAG1_TDO JTAG1_TDI S_GPIO1 D7 EFT3_ICAP1 EFT3_OCMP1 CAN1_TX(1) S_GPIO2 C5 EFT4_ICAP0 EFT4_OCMP0 EFT4_EXTCK JTAG1_TMS S_GPIO3 A5 EFT4_ICAP1 EFT4_OCMP1 - JTAG1_TRSTn S_GPIO4 P4 EFT3_ICAP0 EFT3_OCMP0 EFT3_EXTCK JTAG1_TCK S_GPIO5 P3 EFT3_ICAP1 EFT3_OCMP1 EFT3_EXTCK - S_GPIO6 P2 EFT4_ICAP0 EFT4_OCMP0 EFT4_EXTCK - S_GPIO7 P1 EFT4_ICAP1 EFT4_OCMP1 - - M3_GPIO0 C15 WAKE0 - - - M3_GPIO1 D15 WAKE1 - - - M3_GPIO2 B16 WAKE2 - - - M3_GPIO3 C16 WAKE3 - - - M3_GPIO4 D16 WAKE4 - - - M3_GPIO5 A16 WAKE5 - - - M3_GPIO6 A17 WAKE6 - - - M3_GPIO7 A18 WAKE7 - - - M3_GPIO8 B7 CAN0_TX(1) - - - C6 (1) - - - M3_GPIO9 46/127 CAN0_RX DS13319 Rev 2 STA108x, STA109x Signal description Table 16. STA1080, STA1085 GPIO and alternate functions (continued) GPIO Ball ALT A M3_GPIO10 E5 - M3_GPIO11 C1 - ALT B ALT C DEBUG 0 - - - - - - M3_GPIO12 C11 USB1_DRVVBUS - - - M3_GPIO13 A12 CLKOUT0 - DEBUGCFG - M3_GPIO14 C3 - - REMAP0 - M3_GPIO15 B2 - - REMAP1 - 1. Only available for STA1085. Table 17. STA1090, STA1095 GPIO and alternate functions GPIO Ball ALT A GPIO0 A11 SDMMC1_CMD GPIO1 ALT C DEBUG 0 SDMMC0_DAT2_DIR SAI4_BCLK ETM_D0 B12 SDMMC1_CLK SDMMC0_DAT31_DIR SAI4_FS ETM_D1 GPIO2 C12 SDMMC1_DATA_0 SDMMC0_DATA_4 SAI4_TX0 ETM_D2 GPIO3 D12 SDMMC1_DATA_1 SDMMC0_DATA_5 SAI4_TX1 ETM_D3 GPIO4 C13 SDMMC1_DATA_2 SDMMC0_DATA_6 SAI4_TX2 ETM_D4 GPIO5 B13 SDMMC1_DATA_3 SDMMC0_DATA_7 SAI4_RX0 ETM_D5 GPIO6 E2 CD_SS_MON_1 SDMMC1_DAT0_DIR ETM_D6 GPIO7 B10 AUDIO_REFCLK SAI2_RX/TX SDMMC1_DAT31_DIR ETM_D7 GPIO8 A9 SAI3_BCLK SDMMC1_CMD SAI4_RX2 ETM_D8 GPIO9 A8 SAI3_FS SDMMC1_CLK UART2_RX ETM_D9 GPIO10 C8 SAI3_TX0 SDMMC1_DATA_0 EFT2_OCMP1 ETM_D10 GPIO11 D9 SAI3_TX1 SDMMC1_DATA_1 EFT2_ICAP1 ETM_D11 GPIO12 B9 SAI3_TX2 SDMMC1_DATA_2 UART2_TX ETM_D12 GPIO13 B8 SAI3_RX0 SDMMC1_DATA_3 SAI4_RX1 ETM_CLK GPIO14 A7 SAI3_RX1 SDMMC0_DAT0_DIR I2C2_SCL ETM_CTL GPIO15 A6 SAI3_RX2 SDMMC0_DAT2_DIR I2C2_SDA - GPIO16 C9 SAI2_BCLK - I2S2_BCLK ETM_D13 GPIO17 D10 SAI2_FS - I2S2_FS ETM_D14 GPIO18 D11 SAI2_RX/TX SPDIF_RX I2S2_RX - GPIO19 C10 SAI1_BCLK SPI2_TXD EFT2_OCMP0 ETM_D15 GPIO20 B11 SAI1_FS SPI2_RXD EFT2_OCMP1 - GPIO21 A10 SAI1_RX SPI2_SCK EFT2_EXTCK - GPIO22 R1 EFT0_ICAP0 EFT0_EXTCK SPI2_SS - GPIO23 R2 EFT0_ICAP1 SDMMC0_CMDDIR SPI2_TXD - GPIO24 R3 EFT0_OCMP0 UART1_TX SPI2_RXD - SQI_FDBSCK ALT B DS13319 Rev 2 47/127 126 Signal description STA108x, STA109x Table 17. STA1090, STA1095 GPIO and alternate functions (continued) GPIO Ball ALT A GPIO25 R4 EFT0_OCMP1 GPIO26 N16 EFT1_ICAP0 GPIO27 ALT B ALT C DEBUG 0 SPI2_SCK - EFT1_EXTCK USB1_DRVVBUS - N17 EFT1_ICAP1 SDMMC0_FBCLK CLCD_COLOR17 - GPIO28 M19 EFT1_OCMP0 SDMMC0_PWR SDRAM_CS1n USB_VCOD1V48 GPIO29 P19 EFT1_OCMP1 SDMMC0_DAT31_DIR CLCD_COLOR16 - GPIO30 M1 SPI1_SS EFT0_EXTCK I2C1_SCL ETM_D13 GPIO31 M4 SPI1_TXD EFT1_EXTCK I2C1_SDA ETM_D14 GPIO32 M3 SPI1_RXD EFT1_OCMP1 UART3_TX - GPIO33 M2 SPI1_SCK EFT1_OCMP0 UART3_RX ETM_D15 GPIO34 B4 I2C1_SDA UART1_TX EFT1_ICAP0 - GPIO35 B3 I2C1_SCL UART1_RX EFT1_ICAP1 - GPIO36 T17 UART1_TX SDMMC0_DATA_4 SDMMC1_DATA_4 - GPIO37 T16 UART1_RX SDMMC0_DATA_5 SDMMC1_DATA_5 - GPIO38 T18 UART2_RX SDMMC0_DATA_6 SDMMC1_DATA_6 - GPIO39 R19 UART2_TX SDMMC0_DATA_7 SDMMC1_DATA_7 - UART1_RX GPIO40 B1 UART3_RX UART1_CTS EFT2_ICAP0 - GPIO41 A2 UART3_TX UART1_RTS EFT2_ICAP1 - GPIO42 A3 I2C1_SDA EFT0_OCMP0 EFT0_ICAP0 - GPIO43 A4 I2C1_SCL EFT0_OCMP1 EFT0_ICAP1 - GPIO44 B5 EFT2_ICAP0 EFT2_OCMP0 EFT2_EXTCK - GPIO45 C4 I2C2_SDA SDMMC0_DAT0_DIR CD_SS_MON_0 - GPIO46 D5 I2C2_SCL SDMMC0_DAT31_DIR - - GPIO47 E3 FSMC_SMADQ_9 - SDMMC1_CMDDIR - GPIO48 E4 FSMC_SMADQ_8 - SDMMC1_DAT31_DIR - GPIO49 F5 FSMC_SMAD25 CLKOUT1 SDMMC1_DAT2_DIR - GPIO50 V8 SDRAM_BA_1 FSMC_SMAD12 - - GPIO51 W7 SDRAM_BA_0 FSMC_SMAD11 - - GPIO52 W14 SDRAM_Add_12 FSMC_SMADQ_3 - - GPIO53 V14 SDRAM_Add_11 FSMC_SMADQ_4 - - GPIO54 W8 SDRAM_Add_10 FSMC_SMAD13 - - GPIO55 W13 SDRAM_Add_9 FSMC_SMADQ_5 - - GPIO56 V13 SDRAM_Add_8 FSMC_SMADQ_6 - - GPIO57 W12 SDRAM_Add_7 FSMC_SMADQ_7 - - GPIO58 V12 SDRAM_Add_6 FSMC_SMAD16/CLE - - GPIO59 W11 SDRAM_Add_5 FSMC_SMAD17/ALE - - 48/127 DS13319 Rev 2 STA108x, STA109x Signal description Table 17. STA1090, STA1095 GPIO and alternate functions (continued) GPIO Ball ALT A ALT B ALT C DEBUG 0 GPIO60 V11 SDRAM_Add_4 FSMC_SMAD18 - - GPIO61 W10 SDRAM_Add_3 FSMC_SMAD23 FSMC_SMADQ_13 - GPIO62 V10 SDRAM_Add_2 FSMC_SMAD22 FSMC_SMADQ_12 - GPIO63 W9 SDRAM_Add_1 FSMC_SMAD15 - - GPIO64 V9 FSMC_SMAD14 - - GPIO65 V18 SDRAM_Data_15 FSMC_SMAD25 FSMC_SMADQ_15 - GPIO66 V19 SDRAM_Data_14 FSMC_SMAD24 FSMC_SMADQ_14 - GPIO67 W18 SDRAM_Data_13 FSMC_BLn_1 - - GPIO68 U18 SDRAM_Data_12 FSMC_SMAD0 - - GPIO69 U19 SDRAM_Data_11 FSMC_NOR_CS0n - - GPIO70 T19 SDRAM_Data_10 FSMC_OEn - - GPIO71 V17 SDRAM_Data_9 FSMC_SMADQ_0 - - GPIO72 W17 SDRAM_Data_8 FSMC_SMADQ_8 - - GPIO73 W4 SDRAM_Data_7 FSMC_RSTn - - GPIO74 V4 FSMC_SMAD21 FSMC_SMADQ_11 - GPIO75 W3 SDRAM_Data_5 FSMC_WPn - - GPIO76 U1 SDRAM_Data_4 FSMC_WAITn - - GPIO77 V1 SDRAM_Data_3 FSMC_SMAD10 - - GPIO78 V2 SDRAM_Data_2 FSMC_CLK - - GPIO79 W2 SDRAM_Data_1 FSMC_DREQ FSMC_BUSYn - GPIO80 V3 FSMC_DACK - - GPIO81 W5 SDRAM_WEn FSMC_SMAD20 FSMC_SMADQ_10 - GPIO82 V6 FSMC_SMAD19 - - GPIO83 W6 SDRAM_RASn FSMC_SMAD9 FSMC_ADVn - GPIO84 V5 FSMC_WEn - - GPIO85 V16 SDRAM_DQM1 FSMC_SMADQ_1 - - GPIO86 V7 FSMC_NOR_CS1n - - GPIO87 V15 SDRAM_CKE FSMC_SMADQ_2 - - GPIO88 W16 SDRAM_FBCLK FSMC_BLn_0 - - GPIO89 W15 SDRAM_CLK FSMC_SMADQ_9 - - SDRAM_Add_0 SDRAM_Data_6 SDRAM_Data_0 SDRAM_CASn SDRAM_DQM0 SDRAM_CS0n GPIO90 F1 FSMC_SMADQ_7 - - ETM_D0 GPIO91 F2 FSMC_SMADQ_6 - - ETM_D1 GPIO92 F3 FSMC_SMADQ_5 - - ETM_D2 GPIO93 F4 FSMC_SMADQ_4 - - ETM_D3 GPIO94 G1 FSMC_SMADQ_3 - - ETM_D4 DS13319 Rev 2 49/127 126 Signal description STA108x, STA109x Table 17. STA1090, STA1095 GPIO and alternate functions (continued) GPIO Ball ALT C DEBUG 0 GPIO95 G2 FSMC_SMADQ_2 - - ETM_D5 GPIO96 G3 FSMC_SMADQ_1 FSMC_SMAD8 - ETM_D6 GPIO97 G4 FSMC_SMADQ_0 FSMC_SMAD7 - ETM_D7 GPIO98 H1 FSMC_WPn FSMC_SMAD6 - ETM_D8 GPIO99 H2 SQI_CE1n SPI2_SS SQI_FDBSCK ETM_D9 GPIO100 H3 FSMC_BUSYn FSMC_SMAD5 - ETM_D10 GPIO101 H4 FSMC_OEn FSMC_SMAD4 - ETM_D11 GPIO102 J1 FSMC_WEn FSMC_SMAD3 - ETM_D12 GPIO103 J2 FSMC_SMAD17/ALE FSMC_SMAD2 - ETM_CLK GPIO104 J3 FSMC_SMAD16/CLE FSMC_SMAD1 - ETM_CTL GPIO105 J4 FSMC_NAND_CS0n - - FORCE_CS_HIGH GPIO106 U9 VIP_PIXCLK - - - GPIO107 T11 VIP_HSYNCH CLCD_COLOR16 - JTAG1_TMS GPIO108 R11 VIP_VSYNCH CLCD_COLOR17 - JTAG1_TRSTn GPIO109 U11 VIP_DAT7 - - JTAG1_TCK GPIO110 P10 VIP_DAT6 - - - GPIO111 R10 VIP_DAT5 - - - GPIO112 T10 VIP_DAT4 - - - GPIO113 U10 VIP_DAT3 - - - GPIO114 P9 VIP_DAT2 - - - GPIO115 R9 VIP_DAT1 - - - GPIO116 T9 VIP_DAT0 - - - GPIO117 P11 CLCD_PIXCLK - - JTAG1_TDO GPIO118 U12 CLCD_VSYNCH - - JTAG1_TDI GPIO119 T12 CLCD_HSYNCH - - ETM_CLK GPIO120 R12 CLCD_DE - - ETM_CTL GPIO121 P12 CLCD_COLOR15 - - ETM_D0 GPIO122 U13 CLCD_COLOR14 - - ETM_D1 GPIO123 T13 CLCD_COLOR13 - - ETM_D2 GPIO124 R13 CLCD_COLOR12 - - ETM_D3 GPIO125 P13 CLCD_COLOR11 - - ETM_D4 GPIO126 U14 CLCD_COLOR10 - - ETM_D5 GPIO127 T14 CLCD_COLOR9 - - ETM_D6 GPIO128 R14 CLCD_COLOR8 - - ETM_D7 GPIO129 P14 CLCD_COLOR7 - - ETM_D8 50/127 ALT A ALT B DS13319 Rev 2 STA108x, STA109x Signal description Table 17. STA1090, STA1095 GPIO and alternate functions (continued) GPIO Ball ALT A ALT B ALT C DEBUG 0 GPIO130 N14 CLCD_COLOR6 - - ETM_D9 GPIO131 U15 CLCD_COLOR5 - - ETM_D10 GPIO132 R15 CLCD_COLOR4 - - ETM_D11 GPIO133 T15 CLCD_COLOR3 - - ETM_D12 GPIO134 P15 CLCD_COLOR2 - - ETM_D13 GPIO135 U16 CLCD_COLOR1 - - ETM_D14 GPIO136 U17 CLCD_COLOR0 SDRAM_CS1n - ETM_D15 GPIO137 T7 SDRAM_Data_16 FSMC_SMAD18 - - GPIO138 U7 SDRAM_Data_17 FSMC_SMAD19 - - GPIO139 T6 SDRAM_Data_18 FSMC_SMAD20 - - GPIO140 U6 SDRAM_Data_19 FSMC_ADVn - - GPIO141 T5 SDRAM_Data_20 FSMC_SMAD21 - - GPIO142 R6 SDRAM_Data_21 FSMC_SMAD22 - - GPIO143 U4 SDRAM_Data_22 FSMC_SMAD23 - - GPIO144 U3 SDRAM_Data_23 FSMC_NOR_CS0n - - GPIO145 T8 SDRAM_DQM2 FSMC_BLn_0 - - GPIO146 U8 SDRAM_DQM3 FSMC_BLn_1 - - GPIO147 P5 SDRAM_Data_24 FSMC_SMAD24 - - GPIO148 R5 SDRAM_Data_25 FSMC_WAITn - - GPIO149 P6 SDRAM_Data_26 FSMC_SMADQ_15 FSMC_NOR_CS1n - GPIO150 U5 SDRAM_Data_27 FSMC_SMADQ_14 FSMC_SMAD25 - GPIO151 P7 SDRAM_Data_28 FSMC_SMADQ_13 - - GPIO152 R7 SDRAM_Data_29 FSMC_SMADQ_12 - - GPIO153 P8 SDRAM_Data_30 FSMC_SMADQ_11 - - GPIO154 R8 SDRAM_Data_31 FSMC_SMADQ_10 - - S_GPIO0 D6 EFT3_ICAP0 EFT3_OCMP0 CAN1_RX(1) (1) CAN1_TX JTAG1_TDO JTAG1_TDI S_GPIO1 D7 EFT3_ICAP1 EFT3_OCMP1 S_GPIO2 C5 EFT4_ICAP0 EFT4_OCMP0 EFT4_EXTCK JTAG1_TMS S_GPIO3 A5 EFT4_ICAP1 EFT4_OCMP1 - JTAG1_TRSTn S_GPIO4 P4 EFT3_ICAP0 EFT3_OCMP0 EFT3_EXTCK JTAG1_TCK S_GPIO5 P3 EFT3_ICAP1 EFT3_OCMP1 EFT3_EXTCK - S_GPIO6 P2 EFT4_ICAP0 EFT4_OCMP0 EFT4_EXTCK - S_GPIO7 P1 EFT4_ICAP1 EFT4_OCMP1 - - M3_GPIO0 C15 WAKE0 - - - M3_GPIO1 D15 WAKE1 - - - DS13319 Rev 2 51/127 126 Signal description STA108x, STA109x Table 17. STA1090, STA1095 GPIO and alternate functions (continued) GPIO Ball ALT A ALT B ALT C DEBUG 0 M3_GPIO2 B16 WAKE2 - - - M3_GPIO3 C16 WAKE3 - - - M3_GPIO4 D16 WAKE4 - - - M3_GPIO5 A16 WAKE5 - - - M3_GPIO6 A17 WAKE6 - - - M3_GPIO7 A18 WAKE7 - - - B7 CAN0_TX (1) - - - M3_GPIO9 C6 CAN0_RX(1) - - - M3_GPIO10 E5 - - - - M3_GPIO11 C1 - - - - M3_GPIO12 C11 USB1_DRVVBUS - - - M3_GPIO13 A12 CLKOUT0 - DEBUGCFG - M3_GPIO14 C3 - - REMAP0 - M3_GPIO15 B2 - - REMAP1 - M3_GPIO8 1. Only available for STA1095. 52/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics 4 Electrical Characteristics 4.1 Parameter Conditions Unless otherwise specified, all voltages are referred to GND. 4.2 Minimum and Maximum Values Unless otherwise specified the minimum and maximum values are guaranteed in the worst conditions of ambient temperature, supply voltage and frequencies by tests in production on 100% of the devices with an ambient temperature at TA = 25°C and TA = 85°C. The ‘Limit Values’ data is explained and identified with a letter as listed below, and reported in the NOTE field of the following tables where applicable:  : System requirements, i.e.conditions that must be provided to ensure normal device operation.  : Data tested in production.  : Data based on engineering characterization, not tested in production. Based on characterization, the minimum and maximum values refer to sample tests and represent the mean value plus or minus three times the standard deviation (mean ± 3σ).  : Data based on design validation performed on three sample devices, not tested in production.  : Data based on design guidelines and simulation, not tested in production.Typical curves. DS13319 Rev 2 53/127 126 Electrical Characteristics 4.3 STA108x, STA109x Absolute Maximum Ratings This product contains devices to protect the inputs against damage due to high static voltages, however it is advisable to take normal precautions to avoid application of any voltage higher than the specified maximum rated voltages. Table 18 lists the absolute maximum rating for the Accordo2 families of processors. Table 18. Voltage Characteristics Limit Values Symbol Parameter Unit Min Max VDD_IO_ON SR Power Supply pins for the IO buffers of the always ON section VGND - 0.3 VGND + 3.90 V VDD_IO SR Power Supply pins for the IO buffer in switchable domain. VGND - 0.3 VGND + 3.90 V VDD SR Power Supply pins for the Internal logic of switchable domain VGND - 0.3 VGND + 1.50 V ADC2_AVDD SR Analog Power supply for SAR ADC VADC2_GND - 0.3 VADC2_AGND + 3.90 V ADC2_VREFP SR Positive reference voltage for SAR ADC VADC2_GND - 0.3 VADC2_AGND + 3.90 V DAC_AVDD SR Analog Voltage supply for DAC. VDAC_AGND - 0.3 VDAC_AGND + 3.90 V DAC_I/O_AVDD SR Power supply of IO buffer in DAC/Stereo/Microphone  ADC section ADC0_1_VDD SR Analog power supply for Stereo/Microphone SDADC VDAC_I/O_AGND - 0.3 VDAC_I/O_AGND + 3.90 V VADC0_1_GND - 0.3 VADC0_1_GND + 3.90 V USB_VREG3V3_1V1 SR Voltage supply for 3V3TO1V1 regulator used within USB subsystem VUSB_AGND - 0.3 VUSB_AGND + 3.90 V USB_VREG3V3_1V8 SR Voltage supply for 3V3TO1V8 regulator used within USB subsystem VUSB_AGND - 0.3 VUSB_AGND + 3.90 V USB0_VDD3V3 SR Voltage supply for Host USB (USB0) VUSB_AGND - 0.3 VUSB_AGND + 3.90 V USB1_VDD3V3 SR Voltage supply for dual role USB (USB) VUSB_AGND - 0.3 VUSB_AGND + 3.90 V PLL_VREG3.3V SR Voltage supply for 3V3TO2V5 regulator used by PLL and 24 MHz OSC VGND - 0.3 VGND + 3.90 V 54/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Table 18. Voltage Characteristics (continued) Limit Values Symbol Parameter Unit Min Max SR Voltage applied to any pin of the VDD_IO domain VGND - 0.3 VDD_IO + 0.3 V SR Voltage applied to any pin of the VDD_IO_ON domain VGND - 0.3 VDD_IO_ON + 0.3 V SR Voltage applied to any SAR ADC2 pin AGND - 0.3 AVDD + 0.3 V SR Voltage applied to any USB pin (1) V VESD-HBM SR Electrostatic Discharge, Human Body Model 2000 V VESD-CDM SR Electrostatic discharge, charge device model 500 V VINPUT 1. Voltage, current, impedance on the USB_DP and USB_DN pins should strictly be compliant to the USB 2.0 standard, including the following engineering charge notice (ECN) issued by the USB Implementers Forum: 5V Short Circuit Withstand Requirement Change ECN. Warning: 4.4 Stresses above those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. This is a stress rating only and functional operation of the device at these or any other conditions above 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. Thermal Characteristics Devices are available in both Consumer Grade and Automotive Grade Qualification (AEC-Q100 Grade 3). Table 19. Thermal Characteristics Limit values Symbol Parameter Unit Min Max Toper SR Operative ambient temperature -40 +85 °C Tj SR Operative junction temperature -40 +125 °C Tst SR Storage temperature -55 +125 °C DS13319 Rev 2 55/127 126 Electrical Characteristics STA108x, STA109x Table 20. Frequency Limits Limit values Symbol Parameter Test condition Unit Min Typ Max FCLK-R(1) P Operating frequency Cortex-R4 CP. ECO Version (-E) - - 450 MHz FCLK-R (1) P Operating frequency Cortex-R4 CPU. High Version (-H) - - 533 MHz FCLK-R (1) P Operating frequency Cortex-R4 CPU. Premium Version (-P) - - 600 MHz FCLK-M (1) P Operating Cortex - M3CPU frequency - - 208 MHz FHCLK(1) P Operating frequency for Bus Matrix and APB bridges - - 208 MHz F52M_CLK(1) P Master clock for I2C0/1, UART0/1, MSP0/1/2, EFT0/1 - - 52 MHz FCANSS_CLK(1) P Master clock for CAN1, local eSRAM Cortex-M3 - - 104 MHz FVIP_PIXCLK(1) P Operating frequency for VIP pixel clock - - 60 MHz FSSP_CLK(1) P SSP0/1/2 controller master clock - - 104 MHz FSSI_SCK(1) P Operating frequency for SPI (SSP0/1/2) serial clock in master mode - - 52 MHz FSAI_BCLK(1) P Operating frequency for SAI bitclock - - 25 MHz - - 25 MHz I 2S VDD= 1.14 V TC = 85 °C FI2S_BCLK(1) P Operating frequency for FSQI_CLK(1) P SQI controller master clock - - 250 MHz FSQI_SCK(1) P Operating frequency for SQI serial bit clock - - 125 MHz FSDRAM_CLK(1) P Operating frequency for SDRAM - - 166 MHz P Master clock for LCD controller - - 156 MHz FCLCD_PIXCLK(1) P Operating frequency for LCD controller pixel clock - - 78 MHz FSDMMC_CLK(1) P Operating frequency for SDMMC0/1 data clock - - 52 MHz FJTAG_TCK(1) P Operating frequency for JTAG - - 30 MHz FCLCD_CLK (1) bitclock 1. Values programmable through configurable PLL. Refer to SRC chapter for details. This is a full static design. All frequencies can vary from the minimum of 0 MHz up to the maximum value reported in the table. 56/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Table 21. Current Consumption Limit values Symbol IDD-A2 IDD-A2 IDD_STBY1 Parameter V V V Test condition VDD (STA1095/1090) VDD (STA1085/1080) VDD Normal Mode Normal Mode Soft STAND_BY1 IDD_STBY2 V VDD IDDIO-A2 V VDD_IO (STA1095/1090) Normal Mode IDDIO-A2 IDDIO_STBY1 V V Soft STAND_BY2 VDD_IO (STA1085/1080) Normal Mode VDD_IO Soft STAND_BY1 Notes Unit 450 (1) mA 390 (2) mA - (3) mA mA Min Typ Max - 300 7 200 - 17 - - (4) - 100 170 (1)(5) mA 120 (2)(5) mA - (3) mA mA 3 90 - IDDIO_STBY2 V VDD_IO Soft STAND_BY2 5 - - (4) IDDIO_ON V VDD_IO_ON Normal Mode - 100 200 (6) A 50 (6) A mA IDDIO_ON_STANDBY P VDD_IO_ON Deep STAND_BY - 30 IDD_ADC0_1 V VADC0_1_AVDD Normal Mode - 19 - (7) IDD_ADC2 V VADC2_AVDD Normal Mode - 0.6 1 - mA IDD_DAC V VDAC_AVDD Normal Mode - 12 - (8) mA 17 (9) mA 23 (10) IDD_USB_VREG3V3_1V1 V VUSB_VREG_3V3_1V1 Normal Mode IDD_USB_VREG3V3_1V8 V VDD_USB_VREG3V3_1V8 Normal Mode IDD_USB0_VDD3V3 V VDD_USB0_VDD3V3 Normal Mode IDD_USB1_VDD3V3 V VDD_USB1_VDD3V3 Normal Mode - - mA - - mA mA 1. MP3 playback from USB + Graphic Application. Cortex-R4 running @ 450.67 MHz, Cortex-M3 running @ 208 MHz, 32-bit SDRAM @ 169 MHz, all DSP enabled, all DAC enabled, 18-bit LCD interface. 2. MP3 playback from USB. Cortex-R4 running @ 450 MHz, Cortex-M3 running @ 208 MHz, 16-bit SDRAM @ 169 MHz, all DSP enabled, all DAC enabled. 3. Cortex-R4 in WFI, Cortex-M3 in WFI, device running off internal ring oscillator (4 MHz), all clocks disabled, all GPIOs in input mode. 4. Cortex-R4 in WFI, Cortex-M3 in WFI, device running off crystal oscillator (24 MHz), all clocks disabled, all GPIOs in input mode. 5. This figure includes both digital VDDIO and analog consumption (USB, DAC, ADC, PLL). 6. RTC enabled. 7. ADC0 (Aux) 12.5 mA, ADC1 (Microphone) 6.5 mA. 8. All DACs active. 9. Both USB ports active. 10. Both USB ports active. Supplies are shorted internally to the device. DS13319 Rev 2 57/127 126 Electrical Characteristics 4.5 STA108x, STA109x Recommended DC Operating Conditions Table 22 lists the functional recommended operating DC parameters for STA10xx. Table 22. Recommended DC Operating Conditions Limit Values Symbol Parameter Unit Min Typ Max VDD SR Digital supply voltage 1.14 1.2 1.26 V VDD_IO SR I/O supply voltage (I/Os is switchable domain) 3.0 3.3 3.6 V VDD_IO_ON SR I/O supply voltage (I/Os in always ON domain) 3.0 3.3 3.6 V VADC2_AVDD SR Analog supply voltage for SAR ADC 3.0 3.3 3.6 V VDAC_AVDD SR Analog supply voltage for DAC 3.0 3.3 3.6 V VDAC_IO_AVDD SR IO supply voltage for in DAC/SDADC IO ring section. 3.0 3.3 3.6 V VUSB_VREG_3V3_1V1 SR Voltage Supply for 3V3TO1V1 USB Regulator. 3.0 3.3 3.6 V VDD_USB_VREG3V3_1V8 SR Voltage supply for 3V3TO1V8 USB Regulator. (1) 3.0 3.3 3.6 V VDD_USB0_VDD3V3 SR 3.3V dedicated power supply to USB0 PHY. (1) 3.0 3.3 3.6 V VDD_USB1_VDD3V3 SR 3.3V dedicated power supply to USB0 PHY. (1) 3.0 3.3 3.6 V VDD_PLL_VREG3V3 SR Voltage power supply for SOC PLL. (2) 3.0 3.3 3.6 V VADC0_1_AVDD SR Voltage power supply for ADC0 and ADC1. 3.0 3.3 3.6 V 1. VDD_USB0_VDD3V3, VDD_USB1_VDD3V3 and VDD_USB_VREG3V3_1V8 are internally shorted. 2. VDD_PLL_VREG3V3 is internally shorted with VDD_IO. 58/127 DS13319 Rev 2 STA108x, STA109x 4.6 Electrical Characteristics DC Characteristics IOs in Accordo2 fall into single category:  Logical CMOS function Table 23 lists the functional operating DC characteristics. Table 23. Digital DC Characteristics Limit values Symbol Parameter Test condition Min Typ Max Unit Notes VIL(1) P Logical input low level voltage VDDIO = 3.3V - 0.3 - 0.8 V (2) VIH(3) P Logical input high level voltage VDDIO = 3.3V 2.0 - VDDIO+0.3 V (2) VHYST S Schmitt-trigger hysteresis - 250 - - mV (4) VTH+ S Schmitt-trigger high threshold - 1.49 - - V - VTL- S Schmitt-trigger low threshold - - - 1.39 V - RPU P Equivalent pull-up - 32 50 60 k - RPD P Equivalent pull-down - 32 50 60 k VOL P Low level output voltage IOL=4mA/8mA - - 0.4 V (5) VOH P High level output voltage IOH=4mA/8mA VDDIO - 0.4 - - V (5) IIH S High level input current - - - 0 - µs t3 SR PWREN to VDDOK - 174 ms t4 SR VDDOK to SYSRSTn 10 - µs For the Power-Up sequence VDDOK timed see Figure 13. DS13319 Rev 2 73/127 126 Electrical Characteristics STA108x, STA109x Figure 14. Initial Power-up Sequence (without VDDOK) VDDIO_IO_ON VDD_ON_VREG POR2LV (internal) LVI PWREN VDD_IO See Figure 12 VDD t1 SYSRSTn (optional) t2 VDDOK Table 40. Initial Power-up Sequence Timings (without VDDOK) Timing Symbol Parameter t1 SR PWREN to last voltage stable t2 SR Last voltage stable to SYSRSTn Unit Min. Max. - 174(1) ms 10 - µs 1. This value is programmable in the Power Management Unit. By default, at POR, is set to the maximum of 174 ms. Note: 74/127 For the Power-Up sequence without VDDOK see Figure 14. DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Figure 15. Wake Up (VDDOK timed) VDDIO_ON VDD_ON_VREG wake up event PWREN VDD_IO See Figure 12 VDD VDDOK LVI (if enabled) t1 t2 t3 t4 SYSRSTn (optional) t5 Table 41. Wake Up (VDDOK timed) Timing Symbol Parameter Unit Min. Max. t1 SR PWREN to last voltage stable - 174(1) ms t2 SR Last voltage stable to VDDOK >0 - µs t3 SR PWREN to VDDOK - 174 ms t4 SR VDDOK to LVI(2) 2 - µs t5 SR VDDOK to SYSRSTn release >0 - µs 1. This value is programmable in the Power Management Unit. By default, at POR, is set to the maximum of 174 ms. 2. The LVI signal has effect during the boot only if the LVIEn bit is set. If the LVIEn bit is set, the t4 timing, if respected, is the minimum timing that ensures that the PMU FSM reaches the ON state. If the LVIEn bit is set and an LVI event occurs before the timing t4, the PMU FSM directly moves back to the STAND-By state without reaching the ON state. Note: For the Wake-Up sequence VDDOK timed see Figure 15. DS13319 Rev 2 75/127 126 Electrical Characteristics STA108x, STA109x Figure 16. Wake Up (without VDDOK) VDDIO_ON VDD_ON_VREG wake up event PWREN VDD_IO See Figure 12 VDD VDDOK (High) LVI (if enabled) t1 t2 SYSRSTn (optional) t3 tSYSSRSTn Table 42. Wake Up Timings (without VDDOK) Timing Symbol t1 SR Parameter PWREN to last voltage stable LVI(2) t2 SR Last voltage stable to t3 SR Last Voltage Stable to SYSRTSn Unit Min. Max. - 174(1) ms 8000+2 - µs >0 - µs 1. This value is programmable in the Power Management Unit. By default, at POR, is set to the maximum of 174 ms. 2. The LVI signal has effect during the boot only if the LVIEn bit is set. If the LVIEn bit is set, the t4 timing, if respected, is the minimum timing that ensures that the PMU FSM reaches the ON state. If the LVIEn bit is set and an LVI event occurs before the timing t2, the PMU FSM directly moves back to the STAND-By state without reaching the ON state. Note: 76/127 For the Wake-Up sequence without VDDOK see Figure 16. DS13319 Rev 2 STA108x, STA109x 4.12.2 Electrical Characteristics Timing Requirements for Device Hardware Reset The timing requirements in this section assumes stable power supplies at the assertion of SYSRSTn signal. The assertion of the SYSRSTn signal resets all the device circuitry with the exception of the PMU. The reset signal generated by the PMU is actually put in logical and with the SYSRSTn input. Table 43. Hardware reset timing Timing Symbol tSYSRSTn Parameter SR SYSRSTn low pulse width DS13319 Rev 2 Unit Min. Max. 1000 - ns 77/127 126 Electrical Characteristics 4.13 STA108x, STA109x SD/MMC Timings Figure 17. SD/MMC Timing Diagrams: Data input/output tPP tWH min (VIH) tWL 50% VDD SDMMC_CLK tIH 50% VDD tTLH tTHL tISU max (VIL) min (VIH) DATA INPUT DATA Invalid max (VIL) tODLY min (VOH) OUTPUT DATA Invalid DATA max (VOL) Data is always sampled, by the card or the controller, on the rising edge of the clock. Note: SD/MMC Timings Source: JEDEC Standard No. 84-A44 78/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics 4.14 Color LCD Controller (CLCD) Timings 4.14.1 Switching Characteristics for CLCD controller outputs All the switching timing characteristics are relative to CLCD_PIXCLK signal. Table 44. Switching Characteristics for CLCD controller outputs Timing No. Symbol Parameter Unit Min Max CL0 FCLCD_PIXCLK S Pixel Clock Frequency - 78 MHz CL1 T1ODLY S Control Signals Output Delay - 5.3 ns CL2 T2ODLY S Data Output Delay - 8.5 ns CL3 T3HOLD S Invalid Control Signals Delay TBD - ns CL4 T4HOLD S Invalid Data Delay TBD - ns Figure 18. CLCD Controller Timings CL0 = 1/FCLCD_PIXCLK CLCD_PIXCLK CL1 CL3 CL2 CL4 CLCD_VSYNC CLCD_HSYNC CLCD_DE CLCD_COLOR[17:0] when IPC = 0b (data driven on CLCD_PIXCLK rising-edge) CL2 CL4 CLCD_COLOR[17:0] when IPC = 1b (data driven on CLCD_PIXCLK falling-edge) DS13319 Rev 2 79/127 126 Electrical Characteristics STA108x, STA109x 4.15 I2S and SAI Ports Timings 4.15.1 I2S (MSP) Input Timings Table 45. I2S (MSP) Input Timings Timing Symbol Parameter Min Max Unit Cload [pF] tc S Bitclock Frequency - 25 MHz 25 tclk S Bitclock time period 40 - ns - twss (Slave Mode) S Word select input setup time 4 - ns 25 twsh (Slave Mode) S Word select input hold time 4 - ns 25 Tds S Data input setup time 4 - ns 25 Tdh S Data input hold time 4 - ns 25 Unit Cload [pF] 4.15.2 SAI Input Timings Table 46. SAI Input Timings Timing Symbol Parameter Min Max tc S Clock frequency - 25 MHz 25 tclk S Clock time period 40 - ns - twss (Slave Mode) S Word select input Setup time 4 - ns 25 twsh (Slave Mode) S Word select input Hold time 4 - ns 25 Tds S Data input setup time 4 - ns 25 Tdh S Data input hold time 4 - ns 25 80/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Figure 19. Input Timings (SAI, I2S) SAIx_RX 2 I Sx_RX VALID SAIx_FS 2 I Sx_FS VALID SAIx_BCLK 2 I Sx_BCLK tWSD tWSS tDS tWSH tDH tCLKL tCLKH tCLK SAIx_RX-FS-BCLK = SAI1, SAI2, SAI3, SAI4 2 2 2 I Sx_RX-FS-BCLK = I S0, I S2 I2S (MSP) Output Timings 4.15.3 Table 47. I2S (MSP) Output Timings Timing Symbol Parameter Min Max Unit Cload (pf) tc S Clock Frequency - 25 MHz 25 tclk S Clock time period 40 - ns - twsd (Master Mode) S Word select output delay - 10 ns 25 tdd S Data output delay - 10 ns 25 Unit Cload (pf) 4.15.4 SAI Output Timings Table 48. SAI Output Timings Timing Symbol Parameter Min Max tc S Clock Frequency - 25 MHz 25 tclk S Clock time period 40 - ns - twsd (Master Mode) S Word select output delay - 10 ns 25 tdd S Data output delay - 10 ns 25 DS13319 Rev 2 81/127 126 Electrical Characteristics STA108x, STA109x Figure 20. SAI Output Timings (SAI, I2S) SAIx_RX 2 I Sx_RX VALID SAIx_FS 2 I Sx_FS VALID SAIx_BCLK 2 I Sx_BCLK tWSD tWSS tWSH tDD tCLKL tCLKH tCLK SAIx_TX-FS-BCLK = SAI1, SAI2, SAI3, SAI4 2 2 2 I Sx_TX-FS-BCLK = I S0, I S2 4.16 SPI (SSP) Timing Interface 4.16.1 SPI Master Mode (SPH=0) Table 49. SPI master mode (SPH=0) Timing Symbol Parameter Min Max Unit Cload [pF] Fck S Clock frequency - 52 MHz 25 tSUI S Input setup time 7 - ns 25 tHI S Input hold time 2 - ns 15 tDO_Master S Data output delay - 5 ns 25 tHO S Data hold time 0 - ns 25 82/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Figure 21. SPI Timings Fck SPIx_SCK (SPO = 0) SPIx_SCK (SPO = 1) tSUI SPIx_RXD tHI First Data Data tDO_MASTER SPIx_TXD First Data Data Last Data tHO Last Data SPIx_SCK-RXD-TXD = SPI0, SPI1, SPI2 Figure 22. SPI Frame Format (Single transfer) with SPO = 0b and SPH = 0b SPIx_CLK SPIx_SS SPIx_TXD SPIx_RXD MSB LSB MSB LSB 4 to 32 bits SPIx_CLK-SS-TXD-RXD = SPI0, SPI1,SPI2 DS13319 Rev 2 83/127 126 Electrical Characteristics STA108x, STA109x Figure 23. SPI frame format (single transfer) with SPO = 1b and SPH = 0b SPIx_CLK SPIx_SS SPIx_TXD SPIx_RXD MSB LSB MSB LSB 4 to 32 bits SPIx_CLK-SS-TXD-RXD = SPI0, SPI1, SPI2 84/127 DS13319 Rev 2 STA108x, STA109x 4.16.2 Electrical Characteristics SPI Slave Mode (SPH=0) Table 50. SPI slave mode (SPH=0) Timing Symbol Parameter Min Max Unit Cload [pF] Fck S Clock frequency - 8.68 MHz 25 tSUI S Input setup time 4 - ns 25 tHI S Input hold time - 2 ns 15 tDO_Slave S Data output delay - 12 ns 25 tHO S Data hold time - 4 ns 25 tA S Data valid after start of frame 12 - ns 25 tDIS S Data valid after end of frame 0 12 ns 25 Figure 24. SPI timing SPIx_SS SPIx_CLK (SPO = 0) SPIx_CLK (SPO = 1) tDO_SLAVE tA SPIx_TXD First Data tDIS Last Data Data tSUI SPIx_RXD tHO tHI First Data Data Last Data SPIx_SS-CLK-TXD-RXD = SPI0, SPI1, SPI2 DS13319 Rev 2 85/127 126 Electrical Characteristics STA108x, STA109x 4.17 SDRAM Interface Timing 4.17.1 SDRAM Interface Input Timings Table 51. SDRAM Input Timings Timing Symbol Parameter Min Max Unit Cload [pF] Fc S Clock frequency - 166 MHz 10 tISU S Input setup time 0.3 - ns - tIH S Input hold time 1.5 - ns - Unit Cload [pF] Figure 25. SDRAM Input Timings tpp = 1/Fc SDRAM_FBCLK 50% VDD 50% VDD tISU tIH invalid SDRAM DATA 4.17.2 SDRAM Interface Output Timings Table 52. SDRAM Output Timings Timing Symbol Parameter Min Max Fc S Clock frequency 166 MHz 10 tDO S Data output delay@166MHZ(1) 3.6 ns 10 tHO S Data hold time ns 10 1 1. Internally data is launched at the negative edge of the clock. The output delay can be expressed as 1/Fc*0.55+.3. The multiplication factor 0f 0.55 is used to represent the duty cycle variation of the clock due to IO pads. 0.3 ns is the data travel time from the flop to the IO pad. At 112 MHz the max data output delay is 5.19 ns. 86/127 DS13319 Rev 2 STA108x, STA109x Electrical Characteristics Figure 26. SDRAM Output Timings tpp = 1/Fc SDRAM_CLK 50% VDD tDO SDRAM DATA SDRAM ADDRESS SDRAM CONTROL invalid DATA tHO Note: Input timings referred to SDRAM_FBCLK input. Output timings referred to SDRAM_CLK output. DS13319 Rev 2 87/127 126 Electrical Characteristics 4.18 STA108x, STA109x VIP Timings Table 53. VIP Input Timings Timing Symbol Parameter Min Max Unit Cload [pF] 25 Fc S Clock frequency - 60 MHz tISU S Input setup time 3 - ns tIH S Input hold time 0.4 - ns Figure 27. VIP Input Timings tpp = 1/Fc VIP_PIXCLK 50% VDD tISU VIP_DATA 88/127 50% VDD tIH invalid DS13319 Rev 2 STA108x, STA109x 4.19 Electrical Characteristics SQI Timings Table 54. SQI Timings Timing Symbol Parameter Min Max Unit Cload [pF] Fc S Clock frequency - 125 MHz 20 tISU S Input setup time 0 - ns 20 tIH S Input hold time 2.5 - ns 20 tODLY-max S Data output delay - 1 ns 20 tODLY-min S Data hold time 0 - ns 20 Figure 28. SQI Timings tpp = 1/Fc SQI_SCK 50% VDD 50% VDD tIH tISU SQI_SIO DATA DATA tODLY-max tODLY-min SQI_SIO DATA DATA DS13319 Rev 2 89/127 126 Electrical Characteristics 4.19.1 STA108x, STA109x SQI Bit Clock Generation The SQI serial bitclock (SQI_SCK) is generated dividing the peripheral input master clock SQI_CLK. The division factor is controlled by the bits [7:0] of the SQI_CONF_REG1 of the SQI controller: Bit 7:0 SPI_CLK_DIV (SQI master clock divider) 0x00, 0x01 = divide by 2 0x02, 0x03 = divide by 4 0x04, 0x05 = divide by 6 … 0xFE, 0xFF = divide by 256 The SQI peripheral is accessed by the system bus masters through the bus matrix. The clock of the bus matrix is HCLK. A frequency clock relationship must be respected in the configuration of the SQI clock between SQI_CLK and HCLK, as reported in the Chapter 4.19.2: Clock Constraint. This condition must be respected to ensure that the system works correctly in all voltage, temperature and process conditions. SQI_CLK Clock Generation The SQI master clock SQI_CLK is generated dividing the PLL2 output clock, according to the following picture: Figure 29. PLL2 Clock Diagram SRCR3_CR[2:0] = MODECR RING OSC M3_CLK MXTAL FVCOBY2 PLL2 ÷4 1 1 Enable CLCD_CLK 3 4 Enable SDMMC_CLK Enable AudioSS_512Fs_CLK Enable DSP_CLK Enable AudioSS_MCLK 5 ÷3 ÷12 Enable PHI 52M_CLK (UART, MSP, I2C) 6 SRCR3_CR[2:0] = MODECR ÷6 ÷7 2 RING OSC SQI_CLK MXTAL 3 SRCR3_CR[2:0] = MODECR ÷26 ÷25 ÷5 4 RING OSC 5 6 Enable GAPGPS02601 90/127 CANSS_CLK MXTAL DS13319 Rev 2 SSP_CLK ÷2 AudioSS_256Fs_CLK STA108x, STA109x Electrical Characteristics The SQI_CLK generation is controlled by the bits [2:1] of SRCM3_CLKDIV register of the SRC-M3 peripheral. The field SRCM3_CLKDIV[2:1] = SQI_CLK_SEL decodes as follows: Bit 2:1 SQI_CLK_SEL 0b00 = PLL2.FVCOBY2 divide by 4 is selected 0b01 = PLL2.FVCOBY2 divide by 3 is selected 0b10 = PLL2.PHI is selected 0b11 = Reserved HCLK Clock Generation The HCLK clock is the main clock of the system. This is the clock used by the bus matrix and the AHB or APB bridges, for the VIC, for the system timers (MTU0 and MTU1), the watchdog and the embedded static RAM (eSRAM). HCLK is generated dividing the PLL1 output clock according to the following picture: Figure 30. PLL1 Clock Diagram SRCR3_CR[2:0] = MODECR RING OSC HCLK MXTAL SRC_CLKDIVCR[2:0]= HCLK_DIV SRCR4_CLKDIVCR[6:4] = SDRAM_DIV DIV 3,4,5,6 SRCR4_CLKDIVCR[8] = DRAM_CLK_SYNC FVCOBY2 DIV 4,5,6 DCLK PLL1 PHI SRCR3_CR[2:0] = MODECR CLK_R4 GAPGPS02600 The clock selected for HCLK is controlled by bits [2:0] of the SRCM3_CR registers: Bit 2:0 Mode Control Bit [0]: Internal Oscillator Bit [1]: External Oscillator Bit [3]: Normal When the system is running in Normal mode, Bit [3] is set and HCLK is generated by the output of PLL1. HCLK can run up to 208 MHz. DS13319 Rev 2 91/127 126 Electrical Characteristics 4.19.2 STA108x, STA109x Clock Constraint A frequency clock relationship must be always respected in the configuration of HCLK and SQI_CLK. This condition must be respected to ensure that the system works correctly in all voltage, temperature and process conditions. PLL1 SSCG (Spread Spectrum Clock Generation) Disabled Figure 31. PLL1 Clock Diagram (SSCG Disabled) The constraint to be respected is: SQI_CLK HCLK   ----------------------------  1.15   2 PLL1 SSCG (Spread Spectrum Clock Generation) Enabled Figure 32. PLL1 Clock Diagram (SSCG Enabled) The constraint to be respected is: SQI_CLK HCLK MIN   ----------------------------  1.15   2 If the Spread Spectrum clock modulation is applied in the configuration of PLL1, the real clock will be modulated between HCLK and HCLKMIN, so the minimum frequency of HCLK (HCLKMIN) will be lower than HCLK by 2 % or 4 % depending on the configured modulation width. With respect to HCLK, the constraint is expressed as: SQI_CLK 1.15 HCLK   ----------------------------  --------------------------  1 – SSCG 2 where SSCG = 0, 0.02, 0.04 92/127 DS13319 Rev 2 STA108x, STA109x 5 Ball list Ball list Legenda: 5.1  PU: under reset and out of reset, until software different programming, defaults to pullup.  PD: under reset and out of reset, until software different programming, defaults to pulldown.  Disabled: under reset and out of reset, until software different programming, pull is disabled.  - : pull (up or down) is not implemented.  RESET DIR: direction under reset and out of reset, until software different programming. STA1080, STA1085 Ball list Table 55. STA108x Ball list Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) A1 OTP_FUSE_HV - NA NA A2 GPIO41 PU GPIO Input GPIO Input A3 GPIO42 PU GPIO Input GPIO Input A4 GPIO43 PU GPIO Input GPIO Input A5 S_GPIO3 PU GPIO Input GPIO Input A6 GPIO15 PU GPIO Input GPIO Input A7 GPIO14 PU GPIO Input GPIO Input A8 GPIO9 PU GPIO Input GPIO Input A9 GPIO8 PU GPIO Input GPIO Input A10 GPIO21 PU GPIO Input GPIO Input A11 GPIO0 PU GPIO Input GPIO Input A12 M3_GPIO13 PU GPIO Input GPIO Input A13 M3_ONOFF Disabled Input Input A14 M3_VDDOK Disabled Input Input A15 M3_IGNKEY Disabled Input Input A16 M3_GPIO5 PD GPIO Input GPIO Input A17 M3_GPIO6 PD GPIO Input GPIO Input A18 M3_GPIO7 PD GPIO Input GPIO Input A19 GND - NA NA B1 GPIO40 PU GPIO Input GPIO Input B2 M3_GPIO15 PU GPIO Input GPIO Input DS13319 Rev 2 93/127 126 Ball list STA108x, STA109x Table 55. STA108x Ball list (continued) 94/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) B3 GPIO35 PU GPIO Input GPIO Input B4 GPIO34 PU GPIO Input GPIO Input B5 GPIO44 PU GPIO Input GPIO Input B6 SYSRSTn PU Input Input B7 M3_GPIO8 PU GPIO Input GPIO Input B8 GPIO13 PU GPIO Input GPIO Input B9 GPIO12 PU GPIO Input GPIO Input B10 GPIO7 PU GPIO Input GPIO Input B11 GPIO20 PU GPIO Input GPIO Input B12 GPIO1 PU GPIO Input GPIO Input B13 GPIO5 PU GPIO Input GPIO Input B14 M3_LVI Disabled Input Input B15 M3_PWREN - Output Output B16 M3_GPIO2 PD GPIO Input GPIO Input B17 DAC_VHI - NA NA B18 DAC_OUT1L - Output Output B19 DAC_OUT2R - Output Output C1 M3_GPIO11 PU GPIO Input GPIO Input C2 SQI_SIO3 PU Input Input C3 M3_GPIO14 PU GPIO Input GPIO Input C4 GPIO45 PU GPIO Input GPIO Input C5 S_GPIO2 PU GPIO Input GPIO Input C6 M3_GPIO9 PU GPIO Input GPIO Input C7 I2C0_SCL PU Input Input C8 GPIO10 PU GPIO Input GPIO Input C9 GPIO16 PU GPIO Input GPIO Input C10 GPIO19 PU GPIO Input GPIO Input C11 M3_GPIO12 PU GPIO Input GPIO Input C12 GPIO2 PU GPIO Input GPIO Input C13 GPIO4 PU GPIO Input GPIO Input C14 M3_SXTALI - Input Input C15 M3_GPIO0 PD GPIO Input GPIO Input C16 M3_GPIO3 PD GPIO Input GPIO Input C17 DAC_VLO - NA NA DS13319 Rev 2 STA108x, STA109x Ball list Table 55. STA108x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) C18 DAC_OUT0L - Output Output C19 DAC_OUT2L - Output Output D1 SQI_SCK - Output Input D2 SQI_SIO1 PU Input Input D3 SQI_CE0n - Output Input D4 SQI_SIO0 - Output Input D5 GPIO46 PU GPIO Input GPIO Input D6 S_GPIO0 PU GPIO Input GPIO Input D7 S_GPIO1 PU GPIO Input GPIO Input D8 I2C0_SDA PU Input Input D9 GPIO11 PU GPIO Input GPIO Input D10 GPIO17 PU GPIO Input GPIO Input D11 GPIO18 PU GPIO Input GPIO Input D12 GPIO3 PU GPIO Input GPIO Input D13 M3_CLK32KOUT - Output Output D14 M3_SXTALO - Output Output D15 M3_GPIO1 PD GPIO Input GPIO Input D16 M3_GPIO4 PD GPIO Input GPIO Input D17 DAC_VCOM - NA NA D18 DAC_OUT0R - Output Output D19 DAC_OUT1R - Output Output E1 SQI_SIO2 PU Input Input E2 GPIO6 PU GPIO Input GPIO Input E3 GPIO47 PU GPIO Input GPIO Input E4 GPIO48 PU GPIO Input GPIO Input E5 M3_GPIO10 PU GPIO Input GPIO Input E6 VDD_IO - NA NA E7 VDD_IO - NA NA E8 VDD_IO - NA NA E9 VDD - NA NA E10 VDD - NA NA E11 JTAGSEL PD Input Input E12 ADC2_VREFN - NA NA E13 VDD_IO_ON - NA NA DS13319 Rev 2 95/127 126 Ball list STA108x, STA109x Table 55. STA108x Ball list (continued) 96/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) E14 VDD_ON_VREG - NA NA E15 MIC_BIAS - NA NA E16 ADC2_AIN9 - Input Input E17 ADC2_AIN6 - Input Input E18 ADC2_AIN7 - Input Input E19 ADC2_AIN4 - Input Input F1 GPIO90 PU GPIO Input GPIO Input F2 GPIO91 PU GPIO Input GPIO Input F3 GPIO92 PU GPIO Input GPIO Input F4 GPIO93 PU GPIO Input GPIO Input F5 GPIO49 PU GPIO Input GPIO Input F6 VDD - NA NA F7 VDD_IO - NA NA F8 VDD_IO - NA NA F9 VDD - NA NA F10 OSC32K_GND - NA NA F11 GND - NA NA F12 GND - NA NA F13 ADC2_AGND - NA NA F14 DAC_AGND - NA NA F15 ADC2_VREFP - NA NA F16 ADC0_AIN2_L - Input Input F17 ADC0_AIN2_R - Input Input F18 ADC0_AIN1_L - Input Input F19 ADC0_AIN1_R - Input Input G1 GPIO94 PU GPIO Input GPIO Input G2 GPIO95 PU GPIO Input GPIO Input G3 GPIO96 Disabled ALTB Output. Low. ALTB Output. Low. G4 GPIO97 Disabled ALTB Output. Low. ALTB Output. Low. G5 VDD - NA NA G6 VDD_IO - NA NA G7 GND - NA NA G8 GND - NA NA G9 GND - NA NA DS13319 Rev 2 STA108x, STA109x Ball list Table 55. STA108x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) G10 GND - NA NA G11 GND - NA NA G12 GND - NA NA G13 ADC2_AVDD - NA NA G14 DAC_I/O_AGND - NA NA G15 DAC_AVDD - NA NA G16 ADC2_AIN3_YN - HighZ HighZ G17 ADC2_AIN2_YP - HighZ HighZ G18 ADC1_MICIN_P - Input Input G19 ADC1_MICIN_N - Input Input H1 GPIO98 Disabled ALTB Output. Low. ALTB Output. Low. H2 GPIO99 PU GPIO Input GPIO Input H3 GPIO100 Disabled ALTB Output. Low. ALTB Output. Low. H4 GPIO101 Disabled ALTB Output. Low. ALTB Output. Low. H5 VDD - NA NA H6 VDD_IO - NA NA H7 GND - NA NA H8 GND - NA NA H9 GND - NA NA H10 GND - NA NA H11 GND - NA NA H12 GND - NA NA H13 USB_VREG3V3_1V1 - NA NA H14 ADC0_1_AVDD - NA NA H15 DAC_I/O_AVDD - NA NA H16 ADC2_AIN5 - Input Input H17 ADC2_AIN0_XP - HighZ HighZ H18 ADC1_AIN1_P - Input Input H19 ADC1_AIN1_N - Input Input J1 GPIO102 Disabled ALTB Output. Low. ALTB Output. Low. J2 GPIO103 Disabled ALTB Output. Low. ALTB Output. Low. J3 GPIO104 Disabled ALTB Output. Low. ALTB Output. Low. J4 GPIO105 Disabled ALTB Output. High. ALTB Output. High. J5 VDD - NA NA DS13319 Rev 2 97/127 126 Ball list STA108x, STA109x Table 55. STA108x Ball list (continued) 98/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) J6 VDD_IO - NA NA J7 GND - NA NA J8 GND - NA NA J9 GND - NA NA J10 GND - NA NA J11 GND - NA NA J12 GND - NA NA J13 USB_VREG3V3_1V8 - NA NA J14 ADC0_1_AGND - NA NA J15 ADC0_1_VRFP - NA NA J16 ADC0_1_VRFN - NA NA J17 ADC0_1_VCM - NA NA J18 ADC2_AIN8 - Input Input J19 ADC2_AIN1_XN - HighZ HighZ K1 I2S0_TX PU Input Input K2 I2S0_RX PU Input Input K3 UART0_RX PU Input Input K4 UART0_TX - Output Output K5 VDD - NA NA K6 VDD_IO - NA NA K7 GND - NA NA K8 GND - NA NA K9 GND - NA NA K10 GND - NA NA K11 GND - NA NA K12 GND - NA NA K13 USB1_VDD3V3 - NA NA K14 USB_BGEXT - NA NA K15 USB_1.8VREG - NA NA K16 USB_1.1VREG - NA NA K17 USB0_AGND - NA NA K18 USB1_DN - NA NA K19 USB1_DP - NA NA L1 I2S0_BCLK PU Input Input DS13319 Rev 2 STA108x, STA109x Ball list Table 55. STA108x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) L2 I2S0_FS PU Input Input L3 UART0_CTS PU Input Input L4 UART0_RTS - Output Output L5 VDD - NA NA L6 VDD_IO - NA NA L7 GND - NA NA L8 GND - NA NA L9 GND - NA NA L10 GND - NA NA L11 GND - NA NA L12 GND - NA NA L13 VDD_IO - NA NA L14 USB0_VDD3V3 - NA NA L15 USB_KELVIN_TERM - NA NA L16 COMP0 - NA NA L17 USB1_AGND - NA NA L18 USB0_DN - NA NA L19 USB0_DP - NA NA M1 GPIO30 PU GPIO Input GPIO Input M2 GPIO33 PU GPIO Input GPIO Input M3 GPIO32 PU GPIO Input GPIO Input M4 GPIO31 PU GPIO Input GPIO Input M5 VDD - NA NA M6 VDD_IO - NA NA M7 VDD_IO - NA NA M8 VDD_IO - NA NA M9 VDD_IO - NA NA M10 VDD_IO - NA NA M11 VDD_IO - NA NA M12 VDD_IO - NA NA M13 VDD_IO - NA NA M14 VDD_IO - NA NA M15 PLL_GND - NA NA M16 XOSC_VDD - NA NA DS13319 Rev 2 99/127 126 Ball list STA108x, STA109x Table 55. STA108x Ball list (continued) 100/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) M17 VREG_BYPASS - Input Input M18 USB_REXT - NA NA M19 GPIO28 PU GPIO Input GPIO Input N1 SPI0_SCK - Output Output N2 SPI0_SS PU Input Input N3 SPI0_RXD PU Input Input N4 SPI0_TXD PU Input Input N5 VDD - NA NA N6 VDD - NA NA N7 VDD_IO - NA NA N8 VDD_IO - NA NA N9 VDD_IO - NA NA N10 VDD - NA NA N11 VDD - NA NA N12 VDD - NA NA N13 VDD - NA NA N14 NC - - - N15 PLL_VREG3.3V - NA NA N16 GPIO26 PU GPIO Input GPIO Input N17 GPIO27 PU GPIO Input GPIO Input N18 MXTALO - Output Output N19 MXTALI - Input Input P1 S_GPIO7 PU GPIO Input GPIO Input P2 S_GPIO6 PU GPIO Input GPIO Input P3 S_GPIO5 PU GPIO Input GPIO Input P4 S_GPIO4 PU GPIO Input GPIO Input P5 NC - - - P6 NC - - - P7 NC - - - P8 NC - - - P9 NC - - - P10 NC - - - P11 NC - - - P12 NC - - - DS13319 Rev 2 STA108x, STA109x Ball list Table 55. STA108x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) P13 NC - - - P14 NC - - - P15 NC - - - P16 SDMMC0_DATA_1 PU Input Input P17 SDMMC0_DATA_2 - Output Output P18 SDMMC0_CMD PU Input Input P19 GPIO29 PU GPIO Input GPIO Input R1 GPIO22 PU GPIO Input GPIO Input R2 GPIO23 PU GPIO Input GPIO Input R3 GPIO24 PU GPIO Input GPIO Input R4 GPIO25 PU GPIO Input GPIO Input R5 NC - - - R6 NC - - - R7 NC - - - R8 NC - - - R9 NC - - - R10 NC - - - R11 NC - - - R12 NC - - - R13 NC - - - R14 NC - - - R15 NC - - - R16 SDMMC0_DATA_0 - Output Output R17 SDMMC0_DATA_3 PU Input Input R18 SDMMC0_CLK - Output Output R19 GPIO39 PU GPIO Input GPIO Input T1 JTAG_TDI PU Input Input T2 JTAG_TDO - Output Output T3 JTAG_TCK - Input Input T4 JTAG_TMS PU Input Input T5 NC - - - T6 NC - - - T7 NC - - - T8 NC - - - DS13319 Rev 2 101/127 126 Ball list STA108x, STA109x Table 55. STA108x Ball list (continued) 102/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) T9 NC - - - T10 NC - - - T11 NC - - - T12 NC - - - T13 NC - - - T14 NC - - - T15 NC - - - T16 GPIO37 PU GPIO Input GPIO Input T17 GPIO36 PD GPIO Input GPIO Input T18 GPIO38 PU GPIO Input GPIO Input T19 GPIO70 Disabled ALTB Output. High. ALTB Output. High. U1 GPIO76 PU ALTB Input ALTB Input U2 JTAG_TRSTn PD Input Input U3 NC - - - U4 NC - - - U5 NC - - - U6 NC - - - U7 NC - - - U8 NC - - - U9 NC - - - U10 NC - - - U11 NC - - - U12 NC - - - U13 NC - - - U14 NC - - - U15 NC - - - U16 NC - - - U17 NC - - - U18 GPIO68 Disabled ALTB Output. Low. ALTB Output. Low. U19 GPIO69 Disabled ALTB Output. High. ALTB Output. High. V1 GPIO77 Disabled ALTB Output. Low. ALTB Output. Low. V2 GPIO78 Disabled ALTB Output. Low. ALTB Output. Low. V3 GPIO80 Disabled ALTB Output. Low. ALTB Output. Low. V4 GPIO74 Disabled ALTB Output. Low. ALTB Output. Low. DS13319 Rev 2 STA108x, STA109x Ball list Table 55. STA108x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) V5 GPIO84 Disabled ALTB Output. High. ALTB Output. High. V6 GPIO82 Disabled ALTB Output. Low. ALTB Output. Low. V7 GPIO86 Disabled ALTB Output. High. ALTB Output. High. V8 GPIO50 Disabled ALTB Output. Low. ALTB Output. Low. V9 GPIO64 Disabled ALTB Output. Low. ALTB Output. Low. V10 GPIO62 Disabled ALTB Output. Low. ALTB Output. Low. V11 GPIO60 Disabled ALTB Output. Low. ALTB Output. Low. V12 GPIO58 Disabled ALTB Output. Low. ALTB Output. Low. V13 GPIO56 PU ALTB Input ALTB Input V14 GPIO53 PU ALTB Input ALTB Input V15 GPIO87 PU ALTB Input ALTB Input V16 GPIO85 PU ALTB Input ALTB Input V17 GPIO71 PU ALTB Input ALTB Input V18 GPIO65 Disabled ALTB Output. Low. ALTB Output. Low. V19 GPIO66 Disabled ALTB Output. Low. ALTB Output. Low. W1 GND - NA NA W2 GPIO79 PU ALTB Input ALTB Input W3 GPIO75 Disabled ALTB Output. High. ALTB Output. High. W4 GPIO73 Disabled ALTB Output. High. ALTB Output. High. W5 GPIO81 Disabled ALTB Output. Low. ALTB Output. Low. W6 GPIO83 Disabled ALTB Output. Low. ALTB Output. Low. W7 GPIO51 Disabled ALTB Output. Low. ALTB Output. Low. W8 GPIO54 Disabled ALTB Output. Low. ALTB Output. Low. W9 GPIO63 Disabled ALTB Output. Low. ALTB Output. Low. W10 GPIO61 Disabled ALTB Output. Low. ALTB Output. Low. W11 GPIO59 Disabled ALTB Output. Low. ALTB Output. Low. W12 GPIO57 PU ALTB Input ALTB Input W13 GPIO55 PU ALTB Input ALTB Input W14 GPIO52 PU ALTB Input ALTB Input W15 GPIO89 PU ALTB Input ALTB Input W16 GPIO88 Disabled ALTB Output. Low. ALTB Output. Low. W17 GPIO72 PU ALTB Input ALTB Input W18 GPIO67 Disabled ALTB Output. Low. ALTB Output. Low. W19 GND - NA NA DS13319 Rev 2 103/127 126 Ball list 5.2 STA108x, STA109x STA1090, STA1095 Ball list Table 56. STA109x Ball list 104/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) A1 OTP_FUSE_HV - NA NA A2 GPIO41 PU GPIO Input GPIO Input A3 GPIO42 PU GPIO Input GPIO Input A4 GPIO43 PU GPIO Input GPIO Input A5 S_GPIO3 PU GPIO Input GPIO Input A6 GPIO15 PU GPIO Input GPIO Input A7 GPIO14 PU GPIO Input GPIO Input A8 GPIO9 PU GPIO Input GPIO Input A9 GPIO8 PU GPIO Input GPIO Input A10 GPIO21 PU GPIO Input GPIO Input A11 GPIO0 PU GPIO Input GPIO Input A12 M3_GPIO13 PU GPIO Input GPIO Input A13 M3_ONOFF Disabled Input Input A14 M3_VDDOK Disabled Input Input A15 M3_IGNKEY Disabled Input Input A16 M3_GPIO5 PD GPIO Input GPIO Input A17 M3_GPIO6 PD GPIO Input GPIO Input A18 M3_GPIO7 PD GPIO Input GPIO Input A19 GND - NA NA B1 GPIO40 PU GPIO Input GPIO Input B2 M3_GPIO15 PU GPIO Input GPIO Input B3 GPIO35 PU GPIO Input GPIO Input B4 GPIO34 PU GPIO Input GPIO Input B5 GPIO44 PU GPIO Input GPIO Input B6 SYSRSTn PU Input Input B7 M3_GPIO8 PU GPIO Input GPIO Input B8 GPIO13 PU GPIO Input GPIO Input B9 GPIO12 PU GPIO Input GPIO Input B10 GPIO7 PU GPIO Input GPIO Input B11 GPIO20 PU GPIO Input GPIO Input B12 GPIO1 PU GPIO Input GPIO Input B13 GPIO5 PU GPIO Input GPIO Input DS13319 Rev 2 STA108x, STA109x Ball list Table 56. STA109x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) B14 M3_LVI Disabled Input Input B15 M3_PWREN - Output Output B16 M3_GPIO2 PD GPIO Input GPIO Input B17 DAC_VHI - NA NA B18 DAC_OUT1L - Output Output B19 DAC_OUT2R - Output Output C1 M3_GPIO11 PU GPIO Input GPIO Input C2 SQI_SIO3 PU Input Input C3 M3_GPIO14 PU GPIO Input GPIO Input C4 GPIO45 PU GPIO Input GPIO Input C5 S_GPIO2 PU GPIO Input GPIO Input C6 M3_GPIO9 PU GPIO Input GPIO Input C7 I2C0_SCL PU Input Input C8 GPIO10 PU GPIO Input GPIO Input C9 GPIO16 PU GPIO Input GPIO Input C10 GPIO19 PU GPIO Input GPIO Input C11 M3_GPIO12 PU GPIO Input GPIO Input C12 GPIO2 PU GPIO Input GPIO Input C13 GPIO4 PU GPIO Input GPIO Input C14 M3_SXTALI - Input Input C15 M3_GPIO0 PD GPIO Input GPIO Input C16 M3_GPIO3 PD GPIO Input GPIO Input C17 DAC_VLO - NA NA C18 DAC_OUT0L - Output Output C19 DAC_OUT2L - Output Output D1 SQI_SCK - Output Output D2 SQI_SIO1 PU Input Input D3 SQI_CE0n - Output Output D4 SQI_SIO0 - Output Output D5 GPIO46 PU GPIO Input GPIO Input D6 S_GPIO0 PU GPIO Input GPIO Input D7 S_GPIO1 PU GPIO Input GPIO Input D8 I2C0_SDA PU Input Input D9 GPIO11 PU GPIO Input GPIO Input DS13319 Rev 2 105/127 126 Ball list STA108x, STA109x Table 56. STA109x Ball list (continued) 106/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) D10 GPIO17 PU GPIO Input GPIO Input D11 GPIO18 PU GPIO Input GPIO Input D12 GPIO3 PU GPIO Input GPIO Input D13 M3_CLK32KOUT - Output Output D14 M3_SXTALO - Output Output D15 M3_GPIO1 PD GPIO Input GPIO Input D16 M3_GPIO4 PD GPIO Input GPIO Input D17 DAC_VCOM - NA NA D18 DAC_OUT0R - Output Output D19 DAC_OUT1R - Output Output E1 SQI_SIO2 PU Input Input E2 GPIO6 PU GPIO Input GPIO Input E3 GPIO47 PU GPIO Input GPIO Input E4 GPIO48 PU GPIO Input GPIO Input E5 M3_GPIO10 PU GPIO Input GPIO Input E6 VDD_IO - NA NA E7 VDD_IO - NA NA E8 VDD_IO - NA NA E9 VDD - NA NA E10 VDD - NA NA E11 JTAGSEL PD Input Input E12 ADC2_VREFN - NA NA E13 VDD_IO_ON - NA NA E14 VDD_ON_VREG - NA NA E15 MIC_BIAS - NA NA E16 ADC2_AIN9 - Input Input E17 ADC2_AIN6 - Input Input E18 ADC2_AIN7 - Input Input E19 ADC2_AIN4 - Input Input F1 GPIO90 PU GPIO Input GPIO Input F2 GPIO91 PU GPIO Input GPIO Input F3 GPIO92 PU GPIO Input GPIO Input F4 GPIO93 PU GPIO Input GPIO Input F5 GPIO49 PU GPIO Input GPIO Input DS13319 Rev 2 STA108x, STA109x Ball list Table 56. STA109x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) F6 VDD - NA NA F7 VDD_IO - NA NA F8 VDD_IO - NA NA F9 VDD - NA NA F10 OSC32K_GND - NA NA F11 GND - NA NA F12 GND - NA NA F13 ADC2_AGND - NA NA F14 DAC_AGND - NA NA F15 ADC2_VREFP - NA NA F16 ADC0_AIN2_L - Input Input F17 ADC0_AIN2_R - Input Input F18 ADC0_AIN1_L - Input Input F19 ADC0_AIN1_R - Input Input G1 GPIO94 PU GPIO Input GPIO Input G2 GPIO95 PU GPIO Input GPIO Input G3 GPIO96 Disabled ALTB Output. Low. ALTB Output. Low. G4 GPIO97 Disabled ALTB Output. Low. ALTB Output. Low. G5 VDD - NA NA G6 VDD_IO - NA NA G7 GND - NA NA G8 GND - NA NA G9 GND - NA NA G10 GND - NA NA G11 GND - NA NA G12 GND - NA NA G13 ADC2_AVDD - NA NA G14 DAC_I/O_AGND - NA NA G15 DAC_AVDD - NA NA G16 ADC2_AIN3_YN - HighZ HighZ G17 ADC2_AIN2_YP - HighZ HighZ G18 ADC1_MICIN_P - Input Input G19 ADC1_MICIN_N - Input Input H1 GPIO98 Disabled ALTB Output. Low. ALTB Output. Low. DS13319 Rev 2 107/127 126 Ball list STA108x, STA109x Table 56. STA109x Ball list (continued) 108/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) H2 GPIO99 PU GPIO Input GPIO Input H3 GPIO100 Disabled ALTB Output. Low. ALTB Output. Low. H4 GPIO101 Disabled ALTB Output. Low. ALTB Output. Low. H5 VDD - NA NA H6 VDD_IO - NA NA H7 GND - NA NA H8 GND - NA NA H9 GND - NA NA H10 GND - NA NA H11 GND - NA NA H12 GND - NA NA H13 USB_VREG3V3_1V1 - NA NA H14 ADC0_1_AVDD - NA NA H15 DAC_I/O_AVDD - NA NA H16 ADC2_AIN5 - Input Input H17 ADC2_AIN0_XP - HighZ HighZ H18 ADC1_AIN1_P - Input Input H19 ADC1_AIN1_N - Input Input J1 GPIO102 Disabled ALTB Output. Low. ALTB Output. Low. J2 GPIO103 Disabled ALTB Output. Low. ALTB Output. Low. J3 GPIO104 Disabled ALTB Output. Low. ALTB Output. Low. J4 GPIO105 Disabled ALTB Output. High. ALTB Output. High. J5 VDD - NA NA J6 VDD_IO - NA NA J7 GND - NA NA J8 GND - NA NA J9 GND - NA NA J10 GND - NA NA J11 GND - NA NA J12 GND - NA NA J13 USB_VREG3V3_1V8 - NA NA J14 ADC0_1_AGND - NA NA J15 ADC0_1_VRFP - NA NA J16 ADC0_1_VRFN - NA NA DS13319 Rev 2 STA108x, STA109x Ball list Table 56. STA109x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) J17 ADC0_1_VCM - NA NA J18 ADC2_AIN8 - Input Input J19 ADC2_AIN1_XN - HighZ HighZ K1 I2S0_TX PU Input Input K2 I2S0_RX PU Input Input K3 UART0_RX PU Input Input K4 UART0_TX - Output Output K5 VDD - NA NA K6 VDD_IO - NA NA K7 GND - NA NA K8 GND - NA NA K9 GND - NA NA K10 GND - NA NA K11 GND - NA NA K12 GND - NA NA K13 USB1_VDD3V3 - NA NA K14 USB_BGEXT - NA NA K15 USB_1.8VREG - NA NA K16 USB_1.1VREG - NA NA K17 USB0_AGND - NA NA K18 USB1_DN - NA NA K19 USB1_DP - NA NA L1 I2S0_BCLK PU Input Input L2 I2S0_FS PU Input Input L3 UART0_CTS PU Input Input L4 UART0_RTS - Output Output L5 VDD - NA NA L6 VDD_IO - NA NA L7 GND - NA NA L8 GND - NA NA L9 GND - NA NA L10 GND - NA NA L11 GND - NA NA L12 GND - NA NA DS13319 Rev 2 109/127 126 Ball list STA108x, STA109x Table 56. STA109x Ball list (continued) 110/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) L13 VDD_IO - NA NA L14 USB0_VDD3V3 - NA NA L15 USB_KELVIN_TERM - NA NA L16 COMP0 - NA NA L17 USB1_AGND - NA NA L18 USB0_DN - NA NA L19 USB0_DP - NA NA M1 GPIO30 PU GPIO Input GPIO Input M2 GPIO33 PU GPIO Input GPIO Input M3 GPIO32 PU GPIO Input GPIO Input M4 GPIO31 PU GPIO Input GPIO Input M5 VDD - NA NA M6 VDD_IO - NA NA M7 VDD_IO - NA NA M8 VDD_IO - NA NA M9 VDD_IO - NA NA M10 VDD_IO - NA NA M11 VDD_IO - NA NA M12 VDD_IO - NA NA M13 VDD_IO - NA NA M14 VDD_IO - NA NA M15 PLL_GND - NA NA M16 XOSC_VDD - NA NA M17 VREG_BYPASS - Input Input M18 USB_REXT - NA NA M19 GPIO28 PU GPIO Input GPIO Input N1 SPI0_SCK - Output Output N2 SPI0_SS PU Input Input N3 SPI0_RXD PU Input Input N4 SPI0_TXD PU Input Input N5 VDD - NA NA N6 VDD - NA NA N7 VDD_IO - NA NA N8 VDD_IO - NA NA DS13319 Rev 2 STA108x, STA109x Ball list Table 56. STA109x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) N9 VDD_IO - NA NA N10 VDD - NA NA N11 VDD - NA NA N12 VDD - NA NA N13 VDD - NA NA N14 GPIO130 PU GPIO Input GPIO Input N15 PLL_VREG3.3V - NA NA N16 GPIO26 PU GPIO Input GPIO Input N17 GPIO27 PU GPIO Input GPIO Input N18 MXTALO - Output Output N19 MXTALI - Input Input P1 S_GPIO7 PU GPIO Input GPIO Input P2 S_GPIO6 PU GPIO Input GPIO Input P3 S_GPIO5 PU GPIO Input GPIO Input P4 S_GPIO4 PU GPIO Input GPIO Input P5 GPIO147 PU GPIO Input GPIO Input P6 GPIO149 PU GPIO Input GPIO Input P7 GPIO151 PU GPIO Input GPIO Input P8 GPIO153 PU GPIO Input GPIO Input P9 GPIO114 PU GPIO Input GPIO Input P10 GPIO110 PU GPIO Input GPIO Input P11 GPIO117 PU GPIO Input GPIO Input P12 GPIO121 PU GPIO Input GPIO Input P13 GPIO125 PU GPIO Input GPIO Input P14 GPIO129 PU GPIO Input GPIO Input P15 GPIO134 PU GPIO Input GPIO Input P16 SDMMC0_DATA_1 PU Input Input P17 SDMMC0_DATA_2 - Output Output P18 SDMMC0_CMD PU Input Input P19 GPIO29 PU GPIO Input GPIO Input R1 GPIO22 PU GPIO Input GPIO Input R2 GPIO23 PU GPIO Input GPIO Input R3 GPIO24 PU GPIO Input GPIO Input R4 GPIO25 PU GPIO Input GPIO Input DS13319 Rev 2 111/127 126 Ball list STA108x, STA109x Table 56. STA109x Ball list (continued) 112/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) R5 GPIO148 PU GPIO Input GPIO Input R6 GPIO142 PU GPIO Input GPIO Input R7 GPIO152 PU GPIO Input GPIO Input R8 GPIO154 PU GPIO Input GPIO Input R9 GPIO115 PU GPIO Input GPIO Input R10 GPIO111 PU GPIO Input GPIO Input R11 GPIO108 PU GPIO Input GPIO Input R12 GPIO120 PU GPIO Input GPIO Input R13 GPIO124 PU GPIO Input GPIO Input R14 GPIO128 PU GPIO Input GPIO Input R15 GPIO132 PU GPIO Input GPIO Input R16 SDMMC0_DATA_0 - Output Output R17 SDMMC0_DATA_3 PU Input Input R18 SDMMC0_CLK - Output Output R19 GPIO39 PU GPIO Input GPIO Input T1 JTAG_TDI PU Input Input T2 JTAG_TDO - Output Output T3 JTAG_TCK - Input Input T4 JTAG_TMS PU Input Input T5 GPIO141 PU GPIO Input GPIO Input T6 GPIO139 PU GPIO Input GPIO Input T7 GPIO137 PU GPIO Input GPIO Input T8 GPIO145 PU GPIO Input GPIO Input T9 GPIO116 PU GPIO Input GPIO Input T10 GPIO112 PU GPIO Input GPIO Input T11 GPIO107 PU GPIO Input GPIO Input T12 GPIO119 PU GPIO Input GPIO Input T13 GPIO123 PU GPIO Input GPIO Input T14 GPIO127 PU GPIO Input GPIO Input T15 GPIO133 PU GPIO Input GPIO Input T16 GPIO37 PU GPIO Input GPIO Input T17 GPIO36 PD GPIO Input GPIO Input T18 GPIO38 PU GPIO Input GPIO Input T19 GPIO70 Disabled ALTB Output. High. ALTB Output. High. DS13319 Rev 2 STA108x, STA109x Ball list Table 56. STA109x Ball list (continued) Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) U1 GPIO76 PU ALTB Input ALTB Input U2 JTAG_TRSTn PD Input Input U3 GPIO144 PU GPIO Input GPIO Input U4 GPIO143 PU GPIO Input GPIO Input U5 GPIO150 PU GPIO Input GPIO Input U6 GPIO140 PU GPIO Input GPIO Input U7 GPIO138 PU GPIO Input GPIO Input U8 GPIO146 PU GPIO Input GPIO Input U9 GPIO106 PU GPIO Input GPIO Input U10 GPIO113 PU GPIO Input GPIO Input U11 GPIO109 PU GPIO Input GPIO Input U12 GPIO118 PU GPIO Input GPIO Input U13 GPIO122 PU GPIO Input GPIO Input U14 GPIO126 PU GPIO Input GPIO Input U15 GPIO131 PU GPIO Input GPIO Input U16 GPIO135 PU GPIO Input GPIO Input U17 GPIO136 PU GPIO Input GPIO Input U18 GPIO68 Disabled ALTB Output. Low. ALTB Output. Low. U19 GPIO69 Disabled ALTB Output. High. ALTB Output. High. V1 GPIO77 Disabled ALTB Output. Low. ALTB Output. Low. V2 GPIO78 Disabled ALTB Output. Low. ALTB Output. Low. V3 GPIO80 Disabled ALTB Output. Low. ALTB Output. Low. V4 GPIO74 Disabled ALTB Output. Low. ALTB Output. Low. V5 GPIO84 Disabled ALTB Output. High. ALTB Output. High. V6 GPIO82 Disabled ALTB Output. Low. ALTB Output. Low. V7 GPIO86 Disabled ALTB Output. High. ALTB Output. High. V8 GPIO50 Disabled ALTB Output. Low. ALTB Output. Low. V9 GPIO64 Disabled ALTB Output. Low. ALTB Output. Low. V10 GPIO62 Disabled ALTB Output. Low. ALTB Output. Low. V11 GPIO60 Disabled ALTB Output. Low. ALTB Output. Low. V12 GPIO58 Disabled ALTB Output. Low. ALTB Output. Low. V13 GPIO56 PU ALTB Input ALTB Input V14 GPIO53 PU ALTB Input ALTB Input V15 GPIO87 PU ALTB Input ALTB Input DS13319 Rev 2 113/127 126 Ball list STA108x, STA109x Table 56. STA109x Ball list (continued) 114/127 Ball Ball name Pull up/down RESET DIR (REMAP[1:0]=00,01,10) RESET DIR (REMAP[1:0]=11) V16 GPIO85 PU ALTB Input ALTB Input V17 GPIO71 PU ALTB Input ALTB Input V18 GPIO65 Disabled ALTB Output. Low. ALTB Output. Low. V19 GPIO66 Disabled ALTB Output. Low. ALTB Output. Low. W1 GND - NA NA W2 GPIO79 PU ALTB Input ALTB Input W3 GPIO75 Disabled ALTB Output. High. ALTB Output. High. W4 GPIO73 Disabled ALTB Output. High. ALTB Output. High. W5 GPIO81 Disabled ALTB Output. Low. ALTB Output. Low. W6 GPIO83 Disabled ALTB Output. Low. ALTB Output. Low. W7 GPIO51 Disabled ALTB Output. Low. ALTB Output. Low. W8 GPIO54 Disabled ALTB Output. Low. ALTB Output. Low. W9 GPIO63 Disabled ALTB Output. Low. ALTB Output. Low. W10 GPIO61 Disabled ALTB Output. Low. ALTB Output. Low. W11 GPIO59 Disabled ALTB Output. Low. ALTB Output. Low. W12 GPIO57 PU ALTB Input ALTB Input W13 GPIO55 PU ALTB Input ALTB Input W14 GPIO52 PU ALTB Input ALTB Input W15 GPIO89 PU ALTB Input ALTB Input W16 GPIO88 Disabled ALTB Output. Low. ALTB Output. Low. W17 GPIO72 PU ALTB Input ALTB Input W18 GPIO67 Disabled ALTB Output. Low. ALTB Output. Low. W19 GND - NA NA DS13319 Rev 2 STA108x, STA109x Ballout 6 Ballout 6.1 STA1080, STA1085 Ballout Figure 33. STA108x Ballout (top left) diagram 1 2 3 4 5 6 7 8 9 10 GPIO9 GPIO8 GPIO21 M3_GPI SYSRST M3_GPI GPIO35 GPIO34 GPIO44 GPIO13 GPIO12 O15 n O8 GPIO7 A OTP_FU S_GPIO GPIO41 GPIO42 GPIO43 GPIO15 GPIO14 SE_HV 3 B GPIO40 C M3_GPI SQI_SIO M3_GPI GPIO45 O11 3 O14 D SQI_SC SQI_SIO SQI_CE SQI_SIO S_GPIO S_GPIO I2C0_S GPIO46 GPIO11 GPIO17 K 1 0n 0 0 1 DA E SQI_SIO GPIO6 2 F GPIO90 GPIO91 GPIO92 GPIO93 GPIO49 G GPIO94 GPIO95 GPIO96 GPIO97 VDD VDD_IO GND H GPIO98 GPIO99 GPIO10 GPIO10 0 1 VDD VDD_IO J GPIO10 GPIO10 GPIO10 GPIO10 2 3 4 5 VDD K I2S0_TX I2S0_RX UART0_ UART0_ RX TX VDD GPIO47 GPIO48 S_GPIO M3_GPI I2C0_SC GPIO10 GPIO16 GPIO19 2 O9 L M3_GPI VDD_IO VDD_IO VDD_IO O10 VDD VDD VDD OSC32K _GND GND GND GND GND GND GND GND VDD_IO GND GND GND GND VDD_IO GND GND GND GND VDD DS13319 Rev 2 VDD_IO VDD_IO 115/127 126 Ballout STA108x, STA109x Figure 34. STA108x Ballout (top right) diagram 11 GPIO0 12 13 M3_GPI M3_ON O13 OFF 14 15 M3_VDD M3_IGN OK KEY 16 17 18 19 M3_GPI O5 M3_GPI O6 M3_GPI O7 GND A GPIO20 GPIO1 GPIO5 M3_LVI M3_PWR M3_GPI DAC_OU DAC_OU DAC_VHI T1L EN O2 T2R B M3_GPI O12 GPIO2 GPIO4 M3_SXT ALI M3_GPI O0 M3_GPI O3 DAC_VL DAC_OU DAC_OU O T0L T2L C GPIO18 GPIO3 M3_CLK3 M3_SXT 2KOUT ALO M3_GPI O1 M3_GPI O4 DAC_VC DAC_OU DAC_OU OM T0R T1R D JTAGSEL ADC2_V REFN ADC2_ AIN6 E GND GND ADC2_A DAC_AG ADC2_VR ADC0_AI ADC0_AI ADC0_AI ADC0_AI EFP GND ND N2_L N2_R N1_L N1_R F GND GND ADC2_A DAC_I/O DAC_AV ADC2_AI ADC2_AI ADC1_MI ADC1_MI VDD _AGND DD N3_YN N2_YP CIN_P CIN_N G GND GND USB_VRE ADC0_1_ DAC_I/O ADC2_AI ADC2_AI ADC1_AI ADC1_AI G3V3_1V1 AVDD _AVDD N5 N0_XP N1_P N1_N H GND GND USB_VRE ADC0_1_ ADC0_1_ ADC0_1_ ADC0_1_ ADC2_AI ADC2_AI G3V3_1V8 AGND VRFP VRFN VCM N8 N1_XN J GND GND USB1_VD USB_BGE USB_1.8 USB_1.1 USB0_AG USB1_D USB1_DP D3V3 XT VREG VREG ND N K 116/127 VDD_IO_ VDD_ON ADC2_ MIC BIAS AIN9 ON _VREG DS13319 Rev 2 ADC2_ AIN7 ADC2_ AIN4 STA108x, STA109x Ballout Figure 35. STA108x Ballout (bottom left) diagram U A R T 0_ U A R T 0_ CTS RTS L I2S0_BC LK M G P IO 3 0 G P IO 3 3 G P IO 3 2 G P IO 3 1 N I2 S 0 _F S SPI0_SCK SPI0_SS SPI0_RXD SPI0_TXD VDD V D D _IO VDD V D D _IO V D D _IO V D D _IO V D D _IO V D D _IO VDD VDD GND GND GND V D D _IO V D D _IO V D D _IO GND VDD P S_GPIO7 S_GPIO6 S_GPIO5 S_GPIO4 NC NC NC NC NC NC R G P IO 2 2 G P IO 2 3 G P IO 2 4 G P IO 2 5 NC NC NC NC NC NC T JT A G _T JT A G _T JT A G _T JT A G _T DI DO CK MS NC NC NC NC NC NC U G P IO 7 6 JT A G _T RSTn NC NC NC NC NC NC V G P IO 7 7 G P IO 7 8 G P IO 8 0 G P IO 7 4 G P IO 8 4 G P IO 8 2 G P IO 8 6 G P IO 5 0 G P IO 6 4 G P IO 6 2 W GND 1 NC NC G P IO 7 9 G P IO 7 5 G P IO 7 3 G P IO 8 1 G P IO 8 3 G P IO 5 1 G P IO 5 4 G P IO 6 3 G P IO 6 1 2 3 4 5 DS13319 Rev 2 6 7 8 9 10 117/127 126 Ballout STA108x, STA109x Figure 36. STA108x Ballout (bottom right) diagram GND GND U S B 1 _V DD3V3 U S B _BG EXT U S B _1 .8 V REG U S B _1 .1 V REG U S B 0 _A GND US B 1 _D N U S B 1 _D P K GND GND V D D _IO U S B 0 _V DD3V3 U S B _K E L V IN _T ER CO M P 0 M U S B 1 _A GND U S B 0 _D N U S B 0 _D P L V D D _IO V D D _IO V D D _IO V D D _IO P LL _GN D X O S C _V V REG _B U S B _REX DD Y P AS S T G P IO 2 8 M VDD VDD NC P LL _V RE G 3 .3 V G P IO 2 6 G P IO 2 7 M XTALO M XTALI N NC NC NC NC NC SDMMC 0_D ATA _1 SDMMC 0_D ATA _2 SDMMC 0_CM D G P IO 2 9 P NC NC NC NC NC SDMMC 0_D ATA _0 SDMMC 0_D ATA _3 SDMMC 0 _ C LK G P IO 3 9 R NC NC NC NC NC G P IO 3 7 G P IO 3 6 G P IO 3 8 G P IO 7 0 T NC NC NC NC NC NC NC G P IO 6 8 G P IO 6 9 U G P IO 6 0 G P IO 5 8 G P IO 5 6 G P IO 5 3 G P IO 8 7 G P IO 8 5 G P IO 7 1 G P IO 6 5 G P IO 6 6 V G P IO 5 9 G P IO 5 7 G P IO 5 5 G P IO 5 2 G P IO 8 9 G P IO 8 8 G P IO 7 2 G P IO 6 7 GND W 11 12 13 14 15 16 17 18 19 118/127 VD DS13319 Rev 2 STA108x, STA109x 6.2 Ballout STA1090, STA1095 Ballout Figure 37. STA109x Ballout (top left) diagram 1 2 3 4 5 6 7 8 9 10 GPIO9 GPIO8 GPIO21 M3_GPI SYSRST M3_GPI GPIO35 GPIO34 GPIO44 GPIO13 GPIO12 O15 n O8 GPIO7 A OTP_FU S_GPIO GPIO41 GPIO42 GPIO43 GPIO15 GPIO14 SE_HV 3 B GPIO40 C M3_GPI SQI_SIO M3_GPI GPIO45 O11 3 O14 D SQI_SC SQI_SIO SQI_CE SQI_SIO S_GPIO S_GPIO I2C0_S GPIO46 GPIO11 GPIO17 K 1 0n 0 0 1 DA E SQI_SIO GPIO6 2 F GPIO90 GPIO91 GPIO92 GPIO93 GPIO49 G GPIO94 GPIO95 GPIO96 GPIO97 VDD VDD_IO GND H GPIO98 GPIO99 GPIO10 GPIO10 0 1 VDD VDD_IO J GPIO10 GPIO10 GPIO10 GPIO10 2 3 4 5 VDD K I2S0_TX I2S0_RX UART0_ UART0_ RX TX VDD GPIO47 GPIO48 S_GPIO M3_GPI I2C0_SC GPIO10 GPIO16 GPIO19 2 O9 L M3_GPI VDD_IO VDD_IO VDD_IO O10 VDD VDD VDD OSC32K _GND GND GND GND GND GND GND GND VDD_IO GND GND GND GND VDD_IO GND GND GND GND VDD DS13319 Rev 2 VDD_IO VDD_IO 119/127 126 Ballout STA108x, STA109x Figure 38. STA109x Ballout (top right) diagram 11 GPIO0 12 13 M3_GPI M3_ON O13 OFF 14 15 M3_VDD M3_IGN OK KEY 16 17 18 19 M3_GPI O5 M3_GPI O6 M3_GPI O7 GND A GPIO20 GPIO1 GPIO5 M3_LVI M3_PWR M3_GPI DAC_OU DAC_OU DAC_VHI T1L EN O2 T2R B M3_GPI O12 GPIO2 GPIO4 M3_SXT ALI M3_GPI O0 M3_GPI O3 DAC_VL DAC_OU DAC_OU O T0L T2L C GPIO18 GPIO3 M3_CLK3 M3_SXT 2KOUT ALO M3_GPI O1 M3_GPI O4 DAC_VC DAC_OU DAC_OU OM T0R T1R D JTAGSEL ADC2_V REFN ADC2_ AIN6 E GND GND ADC2_A DAC_AG ADC2_VR ADC0_AI ADC0_AI ADC0_AI ADC0_AI EFP GND ND N2_L N2_R N1_L N1_R F GND GND ADC2_A DAC_I/O DAC_AV ADC2_AI ADC2_AI ADC1_MI ADC1_MI VDD _AGND DD N3_YN N2_YP CIN_P CIN_N G GND GND USB_VRE ADC0_1_ DAC_I/O ADC2_AI ADC2_AI ADC1_AI ADC1_AI G3V3_1V1 AVDD _AVDD N5 N0_XP N1_P N1_N H GND GND USB_VRE ADC0_1_ ADC0_1_ ADC0_1_ ADC0_1_ ADC2_AI ADC2_AI G3V3_1V8 AGND VRFP VRFN VCM N8 N1_XN J GND GND USB1_VD USB_BGE USB_1.8 USB_1.1 USB0_AG USB1_D USB1_DP D3V3 XT VREG VREG ND N K 120/127 VDD_IO_ VDD_ON ADC2_ MIC BIAS AIN9 ON _VREG DS13319 Rev 2 ADC2_ AIN7 ADC2_ AIN4 STA108x, STA109x Ballout Figure 39. STA109x Ballout (bottom left) diagram L I2S0_BC UART0_ UART0_ I2S0_FS LK CTS RTS VDD VDD_IO M GPIO30 GPIO33 GPIO32 GPIO31 VDD VDD_IO VDD_IO VDD_IO VDD_IO VDD_IO N SPI0_SC SPI0_RX SPI0_TX SPI0_SS K D D VDD P S_GPIO S_GPIO S_GPIO S_GPIO GPIO14 GPIO14 GPIO15 GPIO15 GPIO11 GPIO11 7 6 5 4 7 9 1 3 4 0 R GPIO22 GPIO23 GPIO24 GPIO25 T JTAG_T JTAG_T JTAG_T JTAG_T GPIO14 GPIO13 GPIO13 GPIO14 GPIO11 GPIO11 DI DO CK MS 1 9 7 5 6 2 U GPIO76 V GPIO77 GPIO78 GPIO80 GPIO74 GPIO84 GPIO82 GPIO86 GPIO50 GPIO64 GPIO62 W GND 1 VDD GND GND GND VDD_IO VDD_IO VDD_IO GND VDD GPIO14 GPIO14 GPIO15 GPIO15 GPIO11 GPIO11 8 2 2 4 5 1 JTAG_T GPIO14 GPIO14 GPIO15 GPIO14 GPIO13 GPIO14 GPIO10 GPIO11 RSTn 4 3 0 0 8 6 6 3 GPIO79 GPIO75 GPIO73 GPIO81 GPIO83 GPIO51 GPIO54 GPIO63 GPIO61 2 3 4 5 DS13319 Rev 2 6 7 8 9 10 121/127 126 Ballout STA108x, STA109x Figure 40. STA109x Ballout (bottom right) diagram GND GND USB1_V DD3V3 USB_BG USB_1.8 USB_1.1 EXT VREG VREG USB0_A GND USB1_D N USB1_D P K GND GND VDD_IO USB_KEL USB0_V VIN_TER COMP0 DD3V3 M USB1_A GND USB0_D N USB0_D P L VDD_IO VDD_IO VDD_IO VDD_IO PLL_GN D XOSC_V VREG_B USB_REX GPIO28 DD YPASS T M VDD VDD VDD GPIO130 PLL_VRE GPIO26 G3.3V GPIO27 MXTALO MXTALI N SDMMC GPIO129 GPIO134 0_DATA _1 SDMMC 0_DATA _2 SDMMC 0_CMD GPIO29 P SDMMC GPIO108 GPIO120 GPIO124 GPIO128 GPIO132 0_DATA _0 SDMMC 0_DATA _3 SDMMC 0_CLK GPIO39 R GPIO107 GPIO119 GPIO123 GPIO127 GPIO133 GPIO36 GPIO38 GPIO70 T GPIO109 GPIO118 GPIO122 GPIO126 GPIO131 GPIO135 GPIO136 GPIO68 GPIO69 U GPIO60 GPIO58 GPIO56 GPIO53 GPIO87 GPIO85 GPIO71 GPIO65 GPIO66 V GPIO59 GPIO57 GPIO55 GPIO52 GPIO89 GPIO88 GPIO72 GPIO67 GND W 11 12 13 14 15 16 17 18 19 GPIO117 GPIO121 GPIO125 122/127 GPIO37 DS13319 Rev 2 STA108x, STA109x 7 Package information Package information In order to meet environmental requirements, ST offers these devices in different grades of ECOPACK packages, depending on their level of environmental compliance. ECOPACK specifications, grade definitions and product status are available at: www.st.com. ECOPACK is an ST trademark. LFBGA361 (16x16x1.7 mm) package information Figure 41. LFBGA361 (16x16x1.7 mm) package outline D B SEATING PLANE D1 C A4 e Z A2 Z A W V U T R P N M E E1 L K J H G F E D C B e 7.1 A 1 2 3 4 5 6 A1 CORNER INDEX AREA 7 8 9 10 11 12 13 14 15 16 17 18 19 Ø b (361 BALLS) eee M C A B fff M C A1 A ddd C BOTTOM VIEW GAPGPS03418 8125732_C_XN DS13319 Rev 2 123/127 126 Package information STA108x, STA109x Table 57. LFBGA361 (16x16x1.7 mm) package mechanical data Dimensions Ref Inches(1) Millimeters Min. Typ. Max. Min. Typ. Max. A - - 1.7 - - 0.0669 A1 0.25 - - 0.0098 - - A2 - 0.3 - - 0.0118 - A4 - - 0.8 - - 0.0315 b 0.35 0.4 0.48 0.0138 0.0157 0.0189 D 15.85 16 16.15 0.624 0.6299 0.6358 D1 - 14.4 - - 0.5669 - E 15.85 16 16.15 0.624 0.6299 0.6358 E1 - 14.4 - - 0.5669 - e - 0.8 - - 0.0315 - Z - 0.8 - - 0.0315 - ddd - - 0.1 - - 0.0039 eee - - 0.15 - - 0.0059 fff - - 0.08 - - 0.0031 1. Values in inches are converted from mm and rounded to 4 decimal digits. 124/127 DS13319 Rev 2 STA108x, STA109x 8 Order codes Order codes Part numbers / sales codes are composed as follows: STA Root Freq Sec Grade Sil. Ver. SW Pkg [Grade] [Sil. Ver.] [SW Pkg] Qualification Grade Silicon Version Software Package Pack Each field is described below: Table 58. Part number coding [Root] Root Code [Freq] CortexR4 Frequency E = Eco (450MHz) 108x 109x H = High (533MHz) P = Premium (600MHz) [Sec] Security L = Locked Packing [empty] = Tray (JTAG locked; secure boot enabled) [empty] = cut2.2 O = Open (JTAG open; secure boot disabled) [Pack] [empty] = default A = Automotive TR = Tape&Reel U = Unsecured 3 = cut2.3 S1 = custom (JTAG locked; secure boot disabled) Part number example: STA1080EOA3 1080 E = Eco (450MHz) O = Open A = Automotive 3 = cut2.3 DS13319 Rev 2 [empty] = default [empty] = Tray 125/127 126 Revision history 9 STA108x, STA109x Revision history Table 59. Document revision history 126/127 Date Revision Changes 25-May-2020 1 Initial release. 20-Apr-2021 2 Removed watermark Restricted. Updated Table 18: Voltage Characteristics. DS13319 Rev 2 STA108x, STA109x IMPORTANT NOTICE – PLEASE READ CAREFULLY STMicroelectronics NV and its subsidiaries (“ST”) reserve the right to make changes, corrections, enhancements, modifications, and improvements to ST products and/or to this document at any time without notice. Purchasers should obtain the latest relevant information on ST products before placing orders. ST products are sold pursuant to ST’s terms and conditions of sale in place at the time of order acknowledgement. Purchasers are solely responsible for the choice, selection, and use of ST products and ST assumes no liability for application assistance or the design of Purchasers’ products. No license, express or implied, to any intellectual property right is granted by ST herein. Resale of ST products with provisions different from the information set forth herein shall void any warranty granted by ST for such product. ST and the ST logo are trademarks of ST. For additional information about ST trademarks, please refer to www.st.com/trademarks. All other product or service names are the property of their respective owners. Information in this document supersedes and replaces information previously supplied in any prior versions of this document. © 2021 STMicroelectronics – All rights reserved DS13319 Rev 2 127/127 127
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