70914HK 20130617-S00001, 20130425-S00003 No.A2351-1/29

Document overview

  • PDF pages: 29

Technical content

70914HK 20130617-S00001, 20130425-S00003 No.A2351-1/29 Semiconductor Components Industries, LLC, 2014 July, 2014 http://onsemi.com

ORDERING INFORMATION

See detailed ordering and shipping information on page 29 of this data sheet. LC823425 Overview LC823425 is an audio processing solution for portable devices such as IC recorders. This product features a built-in hardwired MP3 encoder/decoder system, enabling the industry’s lowest power consumption of 5mW and supporting advanced functionality via a built-in digital signal processor (DSP). Function  ARM7TDMI-STM1, AMBA® (AHB/APB) system  Internal SRAM(512kbyte), Internal ROM(128kbyte). Boot code and built-in standard function  MultiPort Memory Controller (one CS), External Memory Controller (two CS)  DMA controller (2ch), Interrupt controller (external 5ch + enhancing 16ch, and internal 31ch factor)  SIO(2ch), UART(2ch), I2C (1ch Single Master and Full/Standard conforming)  General-purpose port (I/O 40ch+1ch (FBGA221J is selected)).  Plain timer (1ch) and multiple timer (2ch3), Watch dog timer (1ch)  10bit A/D converter (6ch)  SD card IF(2ch) (w/o CPRM), MemoryStick IF(1ch)  USB2.0(480Mbps/12Mbps) device IF. Built-in PHY  RTC (real time clock)  MP32 hard wired encoder/decoder  DSP system WMA3 (Microsoft WMA Decoder Profile Level3 conforming) AAC (MPEG4 LC-AAC) Variable speed playback (0.5-2.0)  Six band equalizer (EQ3), Highband replication circuit(YY filter), Surround (+EQ2) circuit  16/24bit PCM interface, Sampling rate converter, BEEP circuit, Digital mic interface  DA converter and 16bit audio D class amplifier (LC LPF necessity in the outside)

1 ARM7TDMI-STM is the trademark of ARM Limited

2 MPEG Layer-3 audio coding technology licensed from Fraunhofer IIS and Thomson. Supply of this product does not convey license nor imply an y right to distribute content created with this product in revenue-generating broadcast systems (terrestrial, satellite, cabl e and/or other distribution ch annels), streaming applications (via Internet, intranets and/or networks), other content distribution systems (pay-audio or audio-on-demand applications and the like) or on physical media (compact discs, digital versatile discs, semiconductor chips, hard drives, memory cards and the like). Supply of this product does not convey license under the relevant intellectual property of Thomson and/or Fraunhofer Gesellschaft nor imply any right to use this product in any finished end user or ready-to-use final product. An independent license for such use is required. For details, please visit http://mp3licensing.com/. 3 This product contain technology of Microso ft company ownership, and you cannot distribute or use without getting license from Microsoft Licensing company. CMOS LSI Low Power Consumption 1 chip Audio LSI for Portable Sound Solution LFBGA211 11x11 / FBGA221J TQFP128 14x14 / TQFP128L * I2C Bus is a trademark of Philips Corporation.

No.A2351-2/29 Specifications Absolute Maximum Ratings at VSS=0V Item Symbol Condition Ratings Unit Maximum power supply voltage Vdd1 VddRTC VddXT1 AVddUSBPHY1 AVddPLL1 0.5 to 1.8 V AVddDAMPL AVddDAMPR 0.5 to 2.5 V Vdd2 VddSD0 VddSD1 AVddADC AVddPLL2 AVddUSBPHY2 0.5 to 4.6 V Input voltage VI 0.5 to VDD+0.5 V VIUSB USBDDP, USBDDM terminal 0.5 to AVddUSBPHY2+0.5 V Operating ambient temperature Topr 20 to +75 C Ambient temperature of preservation Tstg 55 to +125 C Recommended Operating Conditions at Ta=20C to +75C Item Symbol Condition Low voltage operation High voltage operation Unit Min Typ Max Min Typ Max Power-supply voltage Input voltage range VIN 0 VDD 0 VDD V (*1) Follow the operating frequency specifications because the operating frequency ranges are specified according to the opera ting voltage ranges. (*2) When USB is used (include USB susp end state), this should be 3.0V(MIN). (*3) At any state -Vdd1=A VddUSBPHY1=A VddPLL1=VddXT1 -Vdd2, VddSD0, VddSD1, A VddPLL2, A VddADC, A VddUSBPHY2, and A VddDAMPL=A VddDAMPR can be supplied with different voltages. However, whenever Vdd1=A VddUSBPHY1=A VddPLL1=VddXT1Vdd2 is supplied, Vdd2, VddSD0, VddSD1,A VddPLL2, A VddADC, A VddUSBPHY2, and A VddDAMPL=A VddDAMPR must be supplied. -When only RTC operates, VddRTC can be supplied while *Vdd*=0V(exclude VddRTC) and the BACKUPB=Low input. Stresses exceeding those listed in the Maximum Ratings table may damage the device. If any of these limits are exceeded, device functionality should not be assumed, damage may occur and reliability may be affected. Functional operation above the stresses listed in the Recommended Operating Ranges is not implied. Extended exposure to stresses beyond the Recomme nded Operating Ranges limits mayaffect device reliability.

No.A2351-3/29 Item Symbol Condition Low voltage operation High voltage operation UnitMin Typ Max Min Typ Max Oscillation input frequency Fxin1 ARM7TDMI-S Surrounding of ARM 48MHz±200ppm The same left MHz FxinRTC RTC 32.768 The same left kHz Frc RC 0.4 1 2 The same left MHz Time to stabilize of oscillation Txin1 20 The same left ms TxinRTC 20 The same left ms Internal operation frequency Farm ARM7TDMI-S 0 55 0 80 MHz Fahb ARM AHB 0 55 0 80 MHz Fapb ARM APB 0 55 0 80 MHz Fdsp DSP 0 110.592 0 110.592 MHz Faud(*1) AUDIO(768fs) 0 33.8688 73.728 The same left MHz Fdec MP3 Decoder 0 16.9344 36.864 The same left MHz Fenc MP3 Encoder 0 16.9344 18.432 The same left MHz (*1) Almost all of audio functions oper ate on 256*Fs (sampling frequency) clock, while SRC(sampling rate converter) and D class amplifier operate on 384*Fs clock. 256*Fs and 384*Fs clocks are generated from 768*Fs base clock. 4 Reference value @Ta=25 celsius degree and Vdd1=1.0V, and depends on circumstances. 5 Reference value @Ta=25 celsius degree and VddRTC =1.0V, and depends on circumstances. Functional operation above the stresses listed in the Recommended Operating Ranges is not implied. Extended exposure to stresses beyond the Recomme nded Operating Ranges limits mayaffect device reliability.

No.A2351-4/29

Electrical Characteristics

Ta=20C to +75C Item Symbol Pin Condition Min Typ Max Unit Input H level voltage VIH (1) 0.7Vdd2 V (2) 0.7VddSD0 V (3) 0.7VddSD1 V (4) Schmidt 0.75Vdd2 V (5) 0.7VddRTC V (6) Schmidt 0.7VddRTC V Input L level voltage VIL (1) 0.3Vdd2 V (2) 0.3VddSD0 V (3) 0.3VddSD1 V (4) Schmidt 0.25Vdd2 V (5) 0.2VddRTC V (6) Schmidt 0.2VddRTC V Output H level voltage VOH (7) IOH=2mA Vdd20.4 V (8) VddSD00.4 V (9) VddSD10.4 V (10) IOH=4mA Vdd20.4 V (12) VddSD00.4 V (13) VddSD10.4 V (11) IOH=8mA Vdd20.4 V (12) IOH=12mA VddSD00.4 V (13) VddSD10.4 V Output L level voltage VOL (7) IOL=2mA 0.4 V (8) 0.4 V (9) 0.4 V (10) IOL=4mA 0.4 V (12) 0.4 V (13) 0.4 V (11) IOL=8mA 0.4 V (12) IOL=12mA 0.4 V (13) 0.4 V (14) IOL=0.3mA 0.3 V Pull-up resistor Rup (15) 50 80 170 k Ω (16) 50 80 170 k Ω (17) 25 50 75 k Ω Pull-down resistor Rdn (16) 10 17 40 k Ω (17) 10 17 40 k Ω (18) 10 17 40 K Ω Input Leake current IIL (1)(2) (3)(4) (5)(6) VI=VDD*=VSS 10 10 μA Output leakage current IOZ (7)(8) (9)(10) (11)(12) (13)(14) When Hi-Z is output 10 10 μA

No.A2351-5/29 Ta=20C to +75C Item Symbol Pin Condition Min Typ Max Unit Input H level voltage VIH (1) 0.7×Vdd2 V (2) 0.7×VddSD0 V (3) 0.7×VddSD1 V (4) Schmidt 0.75×Vdd2 V Input L level voltage VIL (1) 0.3×Vdd2 V (2) 0.3×VddSD0 V (3) 0.3×VddSD1 V (4) Schmidt 0.25×Vdd2 V Output H level voltage VOH (7) IOH=1mA Vdd20.4 V (8) VddSD00.4 V (9) VddSD10.4 V (10) IOH=2mA Vdd20.4 V (12) VddSD00.4 V (13) VddSD10.4 V (11) IOH=4mA Vdd20.4 V (12) IOH=6mA VddSD00.4 V (13) VddSD10.4 V Output L level voltage VOL (7) IOL=1mA 0.4 V (8) 0.4 V (9) 0.4 V (10) IOL=2mA 0.4 V (12) 0.4 V (13) 0.4 V (11) I OL=4mA 0.4 V (12) IOL=6mA 0.4 V (13) 0.4 V Pull-up resistor Rup (15) 90 175 350 k Ω (16) 90 175 350 k Ω (17) 10 50 100 k Ω Pull-down resistor Rdn (16) 20 40 100 k Ω (17) 20 40 100 k Ω (18) 20 40 100 K Ω Input Leake current IIL (1)(2) (3)(4) (5)(6) VI=VDD*=VSS 10 10 μA Output leakage current IOZ (7)(8) (9)(10) (11)(12) (13)(14) When Hi-Z is output 10 10 μA

No.A2351-6/29 (1) TDI, TMS, TCK, PHI, SDI0, SDO0, DIN, DOUT, MPMCDATA[15:0], MPMCADDR14, EXD[15:0] (2) SDCMD0, SDAT00, SDAT01, SDAT02, SDAT03, SDWP0, SDCD0 (3) SDCLK1, SDCMD1, SDAT10, SDAT11, SDAT12, SDAT13, SDWP1, SDCD1 (4) TEST, BMODE[2:0], NRES, NTRST, MCLK, BCK, LRCK , EXTFIQ, EXTINT00, EXTINT01, EXTINT02, EXTINT03, EXTINT04, SCK0, SCK1, SDI1, SDO1, TXD1, RXD1, TXD2, RXD2, SCL, SDA, TIOCA0, TIOCA1, TIOCB0, TIOCB1, TCLKA, TCLKB (5) VDET (6) BACKUPB (7) RTCK, TDO, EXTFIQ, EXTINT00, EXTINT01, EXTINT02 , EXTINT03, EXTINT04, SCK0, SDI0, SDO0, SCK1, SDI1, SDO1, SCL, SDA, TXD1, RXD1, TXD2, RXD2, TIOCA0, TIOCA1, TIOCB0, TIOCB1, BCK, LRCK, DIN, DOUT, NCS0, NCS1, NRD, NWRENWRL, NHBNWRH, NLBEXA0, EXA[20:1], EXD[15:0] (8) SDWP0, SDCD0 (9) SDWP1, SDCD1 (10) MCLK, MPMCCKE, MPMCCS, MPMCWE, MPM CCAS, MCMCRAS, MPMCDQM[1:0], MPMCADDR14, MPMCADDR13, MPMCADDR[10:0], MPMCDATA[15:0], TCLKA, TCLKB (11) MPMCCLK, PHI (12) SDCLK0, SDCMD0, SDAT00, SDAT01, SDAT02, SDAT03 (13) SDCLK1, SDCMD1, SDAT10, SDAT11, SDAT12, SDAT13 (14) RTCINT (15) NTRST, TDI, TMS, TCK (16) EXTFIQ, EXTINT00, EXTINT01, EX TINT02, EXTINT03, EXTINT04, SCK0, SDI0, SDO0, SCK1, SDI1, SDO1, SCL, SDA, TXD1, RXD1, TXD2, RXD2, TIOCA0, TIOCA1, TIOCB0, TIOCB1, TCLKA, TCLKB, MCLK, BCK, LRCK, DIN, DOUT, MPMCADDR14, SDWP0, SDCD0, SDWP1, SDCD1, PHI (17) SDCMD0, SDAT00, SDAT01, SDAT02, SDAT03, SDCLK1, SDCMD1, SDAT10, SDAT11, SDAT12, SDAT13 (18) EXD[15:0], MPMCDATA[15:0] (note 1) Because the following pins can switch the drive ability when it outputs it by the register setting VOH and two kinds of VOL are provided for. SDCMD0, SDAT00, SDAT01, SDAT02, SDAT03, SDCLK0, SDCMD1, SDAT10, SDAT1, SDAT12, SDAT13, SDCLK1 (note 2) It is not included in the DC characteristic about the following pins. VR, VRH, VRL, USBDDM, USBDDP, USBDEXT12, VCNT1, VCNT2, AN0, AN1, AN2, AN3, AN4, AN5, XIN1, XIN32K, XOUT1, XOUT32K, LOUT, ROUT Product parametric performance is indicated in the Electrical Characteristics for the listed test conditions, unless otherwise noted. Product per formance may not be indicated by the Electrical Characteristics if operated under different conditions.

No.A2351-7/29 Package Dimensions unit : mm LC823425-12G1-H : TQFP128L TQFP128 14x14 / TQFP128L CASE 932BA ISSUE O

No.A2351-8/29 LC823425-13W1-E : FBGA221J LFBGA221 11x11 / FBGA221J CASE 566DJ ISSUE O

No.A2351-9/29 Pin Assignment I/O Terminal characteristic I Input pin 3IC 3.3 V CMOS input 1IC 1.0 V CMOS input O Output pin 3IS 3.3V Schmidt input 1IS 1.0V Schmidt input B Interactive pin 3ICU 3.3 V CMOS input pull-up OD3 0.3mA open drain output P Power supply pin 3ISU 3.3V Schmidt input pull-up NC Non Connect 3ICUD 3.3 V CMOS input pull-down Pull-up both correspondences X Oscillation amplifier 3ISUD 3.3V Schmidt input pull-down Pull-up both correspondences 3A 3.3V analogue 3O4 3.3 V 4mA output 1A 1.0V analogue 3O8 3.3 V 8mA output 3T2 3.3 V 2mA tristate output 3R 3.6V tolerant 3T4 3.3 V 4mA tristate output 3T4(12) 3.3 V 4mA/12mA switch tristate output FBGA221J TQFP128L No. Pin Name I/O Characteristic Tolerant IO Power supply Function No. Ball

1 C3 - MPMCDATA0 B 3ICD/3T4 3R b SDRAM data bus bit0

2 A1 1 BMODE0 I 3IS 3R b Boot mode selector bit0

3 D3 - MPMCDATA1 B 3ICD/3T4 3R b SDRAM data bus bit1

4 E4 - MPMCDATA2 B 3ICD/3T4 3R b SDRAM data bus bit2

5 B2 2 BMODE1 I 3IS 3R b Boot mode selector bi1

6 E3 - VSS P Digital ground

7 B1 - MPMCDATA3 B 3ICD/3T4 3R b SDRAM data bus bit3

8 C1 - MPMCDATA4 B 3ICD/3T4 3R b SDRAM data bus bit4

9 C2 3 EXTFIQ/GPIO2A I/B 3ISUD/3T2 3R b External FIQ

interrupt/general-purpose port

10 D2 - MPMCADDR0 O 3O4 b SDRAM address bit0 output

11 F4 4 VSS P Digital ground

12 F5 - Vdd2 P b Digital IO power supply

13 E2 - MPMCADDR1 O 3O4 b SDRAM address bit1 output

14 D1 - MPMCADDR2 O 3O4 b SDRAM address bit2 output

15 F3 5 EXTINT00/GPIO2B I/B 3ISUD/3T2 3R b External interrupt 0-

16 G4 6 EXTINT01/GPIO2

C I/B 3ISUD/3T2 3R b External interrupt 0- bit1/general-purpose port

17 E1 - MPMCADDR3 O 3O4 b SDRAM address bit3 output

18 F2 7 EXTINT02/GPIO2

D I/B 3ISUD/3T2 3R b External interrupt 0- bit2/general-purpose port

19 F1 - MPMCADDR4 O 3O4 b SDRAM address bit4 output

20 G5 - VSS P Digital ground

21 G3 - MPMCADDR5 O 3O4 b SDRAM address bit5 output

22 H4 8 EXTINT03/GPIO2E I/B 3ISUD/3T2 3R b External interrupt 0-

23 G2 - MPMCADDR6 O 3O4 b SDRAM address bit6 output

24 G1 - MPMCADDR7 O 3O4 b SDRAM address bit7 output

25 H3 9 EXTINT04/GPIO2F I/B 3ISUD/3T2 3R b External interrupt 0-

26 H1 - MPMCADDR8 O 3O4 b SDRAM address bit8 output

27 H2 - MPMCADDR9 O 3O4 b SDRAM address bit9 output

28 H5 10 Vdd2 P b Digital IO power supply

29 J5 11 VSS P Digital ground

30 J1 - MPMCADDR10 O 3O4 b SDRAM address bit10 output

31 J4 - MPMCADDR13 O 3O4 b SDRAM address bit13 output

No.A2351-10/29

32 J2 12 SDCD1/GPIO20 I/B 3ICUD/3T2 3R s1 SD card Ch1 detecting

/general-purpose port

33 J3 13 SDWP1/INS

/GPIO21 I/I/B 3ICUD/3T2 3R s1 SD card Ch1 write-protection /Memory Stick INS/general-purpose port

34 K1 14 SDCMD1/BS

/GPIO23 B/I 3ICUD /3T4(12) 3R s1 SD card Ch1 command line /Memory Stick BS/general-purpose port

35 K2 15 SDAT10/DATA0

/GPIO24 B/B 3ICUD /3T4(12) 3R s1 SD card Ch1 data bit0 /Memory Stick data bit0/general-purpose port

36 K3 16 SDAT11/DATA1

/GPIO25 B/B 3ICUD /3T4(12) 3R s1 SD card Ch1 data bit1 /Memory Stick data bit1/general-purpose port

37 K4 17 VddSD1 P s1 Digital IO power supply (SDI/F Ch1

exclusive use)

38 L1 18 SDAT12/DATA2

/GPIO26 B/B 3ICUD /3T4(12) 3R s1 SD card Ch1 data bit2 /Memory Stick data bit2/general-purpose port

39 L2 19 SDAT13/DATA3

/GPIO27 B/B 3ICUD /3T4(12) 3R s1 SD card Ch1 data bit3 /Memory Stick data bit3/general-purpose port

40 L3 20 SDCLK1/SCLK

/GPIO22 O/O 3ICUD /3T4(12) 3R s1 SD card Ch1 clock output /Memory Stick clock /general-purpose port

41 K5 21 VSS P Digital ground

42 L4 22 Vdd1 P Digital internal power supply

43 M1 23 SDCLK0 O 3T4(12) s0 SD card I/FCh0 clock output

44 M2 24 SDCMD0 B 3ICUD

/3T4(12) 3R s0 SD card I/FCh0 command line

45 M3 25 SDAT00 B 3ICUD

/3T4(12) 3R s0 SD card I/FCh0 data bit0

46 N1 26 SDAT01 B 3ICUD

/3T4(12) 3R s0 SD card I/FCh0 data bit1

47 M4 27 VddSD0 P s0 Digital IO power supply (SDI/F Ch0

exclusive use)

48 N2 28 SDAT02 B 3ICUD

/3T4(12) 3R s0 SD card I/FCh0 data bit2

49 N3 29 SDAT03 B 3ICUD

/3T4(12) 3R s0 SD card I/FCh0 data bit3

50 P1 30 SDCD0/GPIO29 I/B 3ICUD/3T2 3R s0 SD card I/FCh0 detecting

/general-purpose port

51 P2 31 SDWP0/GPIO28 I/B 3ICUD/3T2 3R s0 SD card I/FCh0 write-protection

/general-purpose port

52 R1 32 VSS P Digital ground

53 T1 33 AVddUSBPHY1 P u1 1.0V power supply for USB-PHY

54 R3 34 AVssUSBPHY P Ground for USB-PHY

55 P4 35 AVssUSBPHY P Ground for USB-PHY

56 T2 36 USBDDM B 3A u2 USB D-

57 T3 37 USBDDP B 3A u2 USB D+

58 R4 38 AVddUSBPHY2 P u2 3.3V power supply for USB-PHY

59 T4 39 AVssUSBPHY P Ground for USB-PHY

60 R5 40 AVssUSBPHY P Ground for USB-PHY

61 T5 41 USBDEXT12 O 3A u2 USB-PHY reference resistance

62 P3 42 AVddUSBPHY2 P u2 3.3V power supply for USB-PHY 63 N4 43 AVddUSBPHY1 P u1 1.0V power supply for USB-PHY

64 R2 44 AVssUSBPHY P Ground for USB-PHY

65 P5 45 VddXT1 P x1 Power supply for oscillation

66 M5 46 XOUT1 O X x1 48MHz oscillation amplifier output

67 N5 47 VssXT1 P Ground for oscillation amplifier

68 L5 48 XIN1 I X x1 48MHz oscillation amplifier input

69 T6 49 AVddPLL1 P p1 Analog power supply for PLL1

70 P6 50 VCNT1 O 1A p1 VCO control for PLL1

71 R6 51 AVssPLL1 P Analog ground for PLL1

72 M6 52 Vdd2 P b Digital IO power supply

73 M7 - MPMCDATA5 B 3ICD/3T4 3R b SDRAM data bus bit5

74 N8 53

/MPMCADDR11 /EXTINT10 I/B 3ISUD/3T4 3R b MTM external clock A/general-purpose port /SDRAM address bit11 /external interrupt 1- bit0

No.A2351-11/29

75 P7 - MPMCDATA6 B 3ICD/3T4 3R b SDRAM data bus bit6

76 R7 54

/MPMCADDR12 /EXTINT11 I/B 3ISUD/3T4 3R b MTM external clock B/general-purpose port /SDRAM address bit12 /external interrupt 1- bit1

77 T7 - MPMCDATA7 B 3ICD/3T4 3R b SDRAM data bus bit7

78 N7 - MPMCDATA8 B 3ICD/3T4 3R b SDRAM data bus bit8

79 T8 55 PHI/GPIO06

/EXTINT16 O/B /I 3ICUD/3T8 3R b System clock output/general-purpose port /external interrupt 1- bit6

80 N6 - VSS P Digital ground

81 P8 56 RTCK O 3O2 b JTAG test returned clock

82 N9 - MPMCDATA9 B 3ICD/3T4 3R b SDRAM data bus bit9

83 R8 - MPMCDATA10 B 3ICD/3T4 3R b SDRAM data bus bit10

84 M8 57 TDO O 3O2 b JTAG test data output

85 T9 - MPMCCAS O 3O4 b SDRAMCAS output

86 R9 - MPMCRAS O 3O4 b SDRAMRAS output

87 M9 58 VSS P Digital ground

88 P9 - MPMCWE O 3O4 b SDRAM write enable output

89 T10 59 NTRST I 3ISU 3R b JTAG test reset input

90 N10 - Vdd2 P b Digital IO power supply

91 M10 60 Vdd1 P Digital internal power supply

92 R10 - MPMCCKE O 3O4 b SDRAM clock enable output

93 P10 - MPMCDQM0 O 3O4 b SDRAM data mask byte lane

94 M11 61 NRES I 3IS 3R b External reset input

95 T11 - MPMCDQM1 O 3O4 b SDRAM data mask byte lane

96 R11 - MPMCCS O 3O4 b SDRAM chip selection output

97 T12 - MPMCCLK O 3O8 b SDRAM clock output

98 N11 - VSS P Digital ground

99 P11 - MPMCDATA11 B 3ICD/3T4 3R b SDRAM data bus bit11

100 T13 62 TDI I 3ICU 3R b JTAG test data input

101 R12 - MPMCDATA12 B 3ICD/3T4 3R b SDRAM data bus bit12

102 M12 - MPMCDATA13 B 3ICD/3T4 3R b SDRAM data bus bit13

103 N12 - MPMCDATA14 B 3ICD/3T4 3R b SDRAM data bus bit14

104 P12 63 TMS I 3ICU 3R b JTAG test mode selection

105 R14 - MPMCDATA15 B 3ICD/3T4 3R b SDRAM data bus bit15

106 R13 - MPMCADDR14

/GPIO17 O /B 3ICUD/3T4 3R b SDRAM address bit14/general-purpose port

107 P13 - NHBNWRH O 3T2 3R b External memory high byte

selection/external memory write

108 P14 64 TCK I 3ICU 3R b JTAG test clock

109 P15 - NCS1 O 3T2 b External memory chip selection

110 T15 65 VSS P Digital ground

111 R15 66 Vdd2 P b Digital IO power supply

112 R16 67 VddRTC P r Power supply for RTC

113 T16 68 XIN32K I X r 32.768KHz oscillation amplifier input for RTC

114 N13 69 VssRTC P Ground for RTC

115 T14 70 XOUT32K O X r 32.768KHz oscillation amplifier output for RTC

116 M13 71 VDET I 1IC r RTC power supply down detect

117 N14 72 RTCINT O OD3 3R r RTC interrupt signal output

118 P16 73 BACKUPB I 1IS r RTC operation mode (only RTC

operating or entire LSI operating)

119 L12 74 Vdd1 P Digital internal power supply

120 N15 - NCS0 O 3T2 b External memory chip selection

121 M14 75 VSS P Digital ground

No.A2351-12/29

122 K12 76 Vdd2 P b Digital IO power supply

123 N16 - NRD O 3T2 b External memory lead

124 L13 77 TEST I 3IS 3R b Test mode input (connect to digital

ground usually)

125 M15 - NWRENWRL O 3T2 b External memory low byte external

126 L14 78 BMODE2 I 3IS 3R b Boot mode selector bit2

127 M16 - EXA1 O 3T2 b External memory address bit1

128 K13 - EXA2 O 3T2 b External memory address bit2

129 L15 79 SCL/GPIO07

/EXTINT17 O/B /I 3ISUD/3T2 3R b I2C clock output/general-purpose port /external interrupt 1- bit7

130 J14 - EXA3 O 3T2 b External memory address bit3

131 L16 - EXA4 O 3T2 b External memory address bit4

132 K14 80 VSS P Digital ground

133 K15 - EXA5 O 3T2 b External memory address bit5

134 J12 - EXA6 O 3T2 b External memory address bit6

135 K16 81 SDA/GPIO08

/EXTINT18 B/B /I 3ISUD/3T2 3R b I2C data/general-purpose port /external interrupt 1- bit8

136 J16 - EXA7 O 3T2 b External memory address bit7

137 J13 82 MCLK/GPIO18 B/B 3ISUD/3T4 3R b PCM master

clock/general-purpose port

138 J15 - EXA8 O 3T2 b External memory address bit8

139 H14 - EXA9 O 3T2 b External memory address bit9

140 H12 83 BCK/GPIO19 B/B 3ISUD/3T2 3R b PCM bit clock/general-purpose

141 H16 - EXA10 O 3T2 b External memory address bit10

142 G15 84 VSS P Digital ground

143 H13 85 Vdd2 P b Digital IO power supply

144 H15 - EXA11 O 3T2 b External memory address bit11

145 G16 86 LRCK/GPIO1A B/B 3ISUD/3T2 3R b PCMLR clock/general-purpose

146 G12 87 DIN/GPIO1B I/B 3ICUD/3T2 3R b PCM data input/general-purpose

147 F16 EXA12 O 3T2 b External memory address bit12

148 G14 88 DOUT/GPIO1C O/B 3ICUD/3T2 3R b PCM data output/general-purpose

149 G13 - VSS P Digital ground

150 E16 - EXA13 O 3T2 b External memory address bit13

151 D16 89 TIOCA0/GPIO09

/EXTINT19 B/B /I 3ISUD/3T2 3R b MTMCh0A input capture and output capture/general-purpose port /external interrupt 1- bit9

152 F12 - EXA14 O 3T2 b External memory address bit14

153 F15 90 TIOCA1/GPIO0A

/EXTINT1A B/B /I 3ISUD/3T2 3R b MTMCh1A input capture and output capture/general-purpose port /external interrupt 1- bit10

154 E11 - EXA15 O 3T2 b External memory address bit15

155 C16 - EXA16 O 3T2 b External memory address bit16

156 F13 91 Vdd2 P b Digital IO power supply

157 E15 92 VSS P Digital ground

158 F14 - EXA17 O 3T2 b External memory address bit17

159 E12 93 TXD1/GPIO04

/EXTINT14 O/B /I 3ISUD/3T2 3R b UARTCh1 transmission data/general-purpose port /external interrupt 1- bit4

160 B16 - EXA18 O 3T2 b External memory address bit18

161 E13 - EXA19 O 3T2 b External memory address bit19

162 A16 94 RXD1/GPIO05

/EXTINT15 I/B /I 3ISUD/3T2 3R b UARTCh1 receive data/general-purpose port /external interrupt 1- bit5

163 D15 - EXA20 O 3T2 b External memory address bit20

164 E14 - NLBEXA0 O 3T2 3R b External memory low byte

165 C15 95 Vdd1 P Digital internal power supply

166 B15 - EXD0 B 3ICD/3T2 3R b External memory data bus bit0

No.A2351-13/29

167 D14 - VSS P Digital ground

168 A15 96

/DMCKO /EXTINT12 B/B 3ISUD/3T2 3R b MTMCh0B input capture and output capture/general-purpose port /digital mic clock output /external interrupt 1- bit2

169 C14 - EXD1 B 3ICD/3T2 3R b External memory data bus bit1

170 D13 - EXD2 B 3ICD/3T2 3R b External memory data bus bit2

171 B14 97 TIOCB1/GPIO03

/DMDIN/EXTINT13 B/B /I/I 3ISUD/3T2 3R b MTMCh1B input capture and output capture/general-purpose port /digital mic data input /external interrupt 1- bit3

172 A14 - EXD3 B 3ICD/3T2 3R b External memory data bus bit3

173 C13 - EXD4 B 3ICD/3T2 3R b External memory data bus bit4

174 B13 98 SCK0/GPIO1D B/B 3ISUD/3T2 3R b Cereal I/FCh0

clock/general-purpose port

175 A13 - EXD5 B 3ICD/3T2 3R b External memory data bus bit5

176 C12 99 SDI0/GPIO1E I/B 3ICUD/3T2 3R b Cereal I/FCh0 data

input/general-purpose port

177 D12 - EXD6 B 3ICD/3T2 3R b External memory data bus bit6

178 B12 - EXD7 B 3ICD/3T2 3R b External memory data bus bit7

179 D10 100 VSS P Digital ground

180 D8 - Vdd2 P b Digital IO power supply

181 C11 101 SDO0/GPIO1F O/B 3ICUD/3T2 3R b Cereal I/FCh0 data

output/general-purpose port

182 D11 - EXD8 B 3ICD/3T2 3R b External memory data bus bit8

183 A12 - EXD9 B 3ICD/3T2 3R b External memory data bus bit9

184 B11 102 SCK1/GPIO0D

/EXTINT1D B/B /I 3ISUD/3T2 3R b Cereal I/FCh1 clock/general-purpose port /external interrupt 1- bit13

185 A11 - EXD10 B 3ICD/3T2 3R b External memory data bus bit10

186 C10 103 SDI1/GPIO0E

/EXTINT1E I/B /I 3ISUD/3T2 3R b Cereal I/FCh1 data input/general-purpose port /external interrupt 1- bit14

187 B10 - EXD11 B 3ICD/3T2 3R b External memory data bus bit11

188 A10 104 SDO1/GPIO0F

/EXTINT1F O/B /I 3ISUD/3T2 3R b Cereal I/FCh1 data output/general-purpose port /external interrupt 1- bit15

189 E10 - VSS P Digital ground

190 A9 - EXD12 B 3ICD/3T2 3R b External memory data bus bit12

191 B9 105 TXD2/GPIO0B

/EXTINT1B O/B /I 3ISUD/3T2 3R b UARTCh2 transmission data/general-purpose port /external interrupt 1- bit11

192 C9 - EXD13 B 3ICD/3T2 3R b External memory data bus bit13

193 A8 106 RXD2/GPIO0C

/EXTINT1C I/B /I 3ISUD/3T2 3R b UARTCh2 receive data/general-purpose port /external interrupt 1- bit12

194 B8 - EXD14 B 3ICD/3T2 3R b External memory data bus bit14

195 E9 107 Vdd2 P b Digital IO power supply

196 C8 - EXD15 B 3ICD/3T2 3R b External memory data bus bit15

197 D9 108 VSS P Digital ground

198 E8 109 AVssDAMPR P Analog ground for RchDAMP

199 A7 110 ROUT O 3A d1 RchDAMP output

200 E7 111 AVddDAMPR P d1 Analog power supply for

201 D7 112 AVddDAMPL P d2 Analog power supply for LchDAMP

202 A6 113 LOUT O 3A d2 LchDAMP output

203 B7 114 AVssDAMPL P Ground for LChDAMP

204 B6 115 AVssPLL2 P Analog ground for PLL2

205 C7 116 VCNT2 O 3A p2 VCO control for PLL2

206 E6 117 AVddPLL2 P p2 Analog power supply for PLL2

207 C6 118 VSS P Digital ground

208 D6 119 Vdd1 P Digital internal power supply

209 D5 120 AVddADC P a Analog power supply for ADC

210 A5 - VRH I 3A a ADC high reference voltage

No.A2351-14/29

211 B5 121 AN5 I 3A a ADC input Ch5

212 A4 122 AN4 I 3A a ADC input Ch4

213 C5 123 AN3 I 3A a ADC input Ch3

214 B4 124 AN2 I 3A a ADC input Ch2

215 A3 125 AN1 I 3A a ADC input Ch1

216 B3 126 AN0 I 3A a ADC input Ch0

217 C4 - VR O 3A a ADC standard voltage

218 A2 - VRL I 3A a ADC [ro-rifarensu] voltage

219 E5 127 AVssADC P Analog ground for ADC

220 D4 128 Vdd2 P b Digital IO power supply

221 F6 - - NC

No.A2351-15/29 Top View 1234567891 0 1 1 1 2 1 3 1 4 1 5 1 6 A BMOD E0 V RL A N1 A N4 V RH LOUT ROUT RXD2 EXD1

2 SDO1 EXD1

0 EXD9 EXD5 EXD3 TIOCB

0 RXD1

B MPMC DA TA BMOD E1 AN 0 AN 2 AN 5 AVss PLL2 AVss DA MP L EXD1

4 TXD2 EXD1

1 SCK1 EXD7 SCK0 TIOCB

1 EXD0 EXA 1

C MPMC DA TA EXTFI Q MPMC DA TA VR AN 3 Vss VC N T EXD1 EXD1

3 SDI1 SDO0 SDI0 EXD4 EXD1 Vdd1 EXA 1

D MPMC A DDR MPMC AD D R MPMC DA TA Vdd2 AVdd AD C Vdd1 AVdd DA MP L Vdd2 Vss Vss E XD 8 E XD 6 E XD 2 Vss EXA 2 TIOC E MPMC A DDR MPMC AD D R Vss MPMC DA TA AVss AD C AVdd PLL2 AVdd DA MP R AVss DA MP R Vdd2 Vss EXA 1

5 TXD1 EXA 1

F MPMC A DDR EXTIN T02 EXTIN T00 Vss Vdd2 N C EXA 1

4 Vdd2 EXA 1

G MPMC A DDR MPMC AD D R MPMC AD D R EXTIN T01 Vss D I N Vss D OU T Vss LR C K H MPMC A DDR MPMC AD D R EXTIN T04 EXTIN T03 Vdd2 BCK Vdd2 EXA9 EXA 1 EXA 1 J MPMC A DDR SDCD SDWP MPMC AD D R Vss EXA6 MCLK EXA3 EXA8 EXA7 K SDCM SDAT SDAT VddS D1 Vss Vdd2 E XA2 Vss E XA5 SD A L SDAT SDAT SDCL K1 Vdd1 XI N 1 Vdd1 TE ST BMOD E2 SCL EXA4 M SDCL SDCM SDAT VddS XOUT

1 Vdd2

A MPMC DA TA Vdd2 Vss MPMC DA TA VssR TC RTCIN T NCS0 NRD P SDCD SDWP AVdd USBP HY 2 AVss USBP HY VddX V CNT MPMC DA TA RTCK MPMC WE MPMC DQM0 MPMC DA TA TMS NHBN WRH TCK NCS1 BACK UPB RV s s AVss USBP HY AVss USBP HY AVdd USBP HY 2 AVss USBP HY AVss PLL1 TCLK B MPMC DA TA MPMC RA S MPMC CKE MPMC CS MPMC DA TA MPMC A DDR MPMC DA TA Vdd2 VddR TC T AVdd USBP HY 1 USBD DM USBD DP AVss USBP HY USBD EXT1 AVdd PLL1 MPMC DA TA PHI MPMC CA S NTRS T MPMC DQM1 MPMC CLK TDI XOUT 32K Vss XIN32 K

No.A2351-16/29 Block Diagram Top View

No.A2351-17/29 Audio

No.A2351-18/29 Application Circuit Example XTAL Peripheral circuit when oscillation operates C2 C1 R1XIN XOUT Symbol Value XIN1/XOUT1 (48MHz) XIN32K/XOUT32K (32.768KHz) R1 1M Ω 10M Ω R2 330 Ω 0 Ω C1 6pF 10pF C2 6pF 10pF Notes  Optimize the circuit constant for each product when you use this oscillation cell and ask to the manufacturer of the crystal oscillator to investigate (matching investigation) because the best circuit constant changes depending on the specification of the crystal oscillator used and the ambient surrounding (parasitic capacitance etc. of an external substrate).  The values of parts are for reference. There is a possibility that the adjustment is needed according to the situation of the set.  The following may be needed as the anti-noise measures of oscillation circuit. (1) Be adjacent as much as possible, and shorten wiring between elements such as this LSI and the crystal oscillator. (2) GND of the oscillation circuit close to GN D(VSS) of this LSI as much as possible. (3) Do not bring the wiring pattern of the large current drive close around the oscillation circuit. (4) Take wide pattern to avoid the effect of interference of other signals.

No.A2351-19/29 When external clock is input Do as follows when use the external clock signal that is generated outside of LSI by the oscillation module, etc. XIN XOUT External clock Left open Notes  Input the signal of a full amplit ude to XIN (external clock input). “the signal of a full amplitude” means VddXT1 = 0.93V to 1.3V, VddRTC = 0.9V to 1.3V, *Vss* = 0V Ta =20C to +75C  Maximum voltage (VIH) : 0.7*Vdd or more, and Vdd or less than Vdd.  Minimum voltage (VIL) : 0.3*Vdd or less, and 0V or more than 0V. (Vdd means VddXT1 in case of XIN1, and VddRTC in case of XIN32K.)  There is a possibility of influencing the signal quality when there is a long wire pattern on an circuit board of XOUT (The terminal opens). Therefore, recommend to cut the wire pattern on an circuit board or no wire pattern on it. When not use the oscillation cell Do as follows when not use the oscillation cell. XIN XOUT Low or High in Left open Notes  Supply the voltage of recommended operating range of VddRTC/VssRTC(XIN32K/XOUT32K) even if not use the oscillation cell. (power supply to VddXT1/VssXT1(XIN1/XOUT1) is indispensable)

No.A2351-20/29 PLL1 (for System) The figure below shows the PLL1 circuit. Place the decoupling capacitor in the terminal neighborhood on the board, and keep low noise by apart from other power supply lines. C4 : refers to the part of mounting on the catalog of our company (CV-B S Series). Notes  Use R2 basically by unmounting. The characte ristic of PLL might be improved by mounting R2. Place the wire pattern.  The values of parts are for reference. There is a possibility that the adjustment is needed according to the situation of the set.  Connect with decoupling capacitor in the terminal neighborhood on the board, and keep low noise by apart from other power supply lines. Symbol Value Serial number or accuracy R1 100 Ω ±5% R2 *M Ω ±5% C1 0.1F 10% of volume error : ± 10% (20C to +75C) of temperature property : ± C2 0.001F C3 0.1F C4 33F 16CV33BS VCNT1 C1 C2 AVddPLL1 AVssPLL1 AVddPLL1 AVssPLL1 C3 R2

No.A2351-21/29 PLL2 (for Audio) The figure below shows the PLL2 circuit. Place the decoupling capacitor in the terminal neighborhood on the board, and keep low noise by apart from other power supply lines. C4 : refers to the part of mounting on the catalog of our company (CV-B S Series). Notes  Use R2 basically by unmounting. The characteri stic of PLL might be improved by mounting R2. Place the wire pattern.  The values of parts are for reference. Ther e is a possibility that the adjustment is needed according to the situation of the set. Connect with decoupling capacitor in the terminal neighborhood on the board, and keep low noise by apart from other power supply lines. Symbol Value Serial number or accuracy R1 100 to 220 Ω ±5% R2 *M Ω ±5% C1 4.7F 10% of volume error : ± 10% of temperature property : ± (20C to +75C) C2 0.01 About F C3 0.1F C4 33F 16CV33BS VCNT2 C1 C2 AVddPLL2 AVssPLL2 AVddPLL2 AVssPLL2 C3 R2

No.A2351-22/29 10bit AD converter This LSI AVddAD VRH(*3) AN5-0 AVssAD VRL(*3) VR(*2)(*3) (*1) (*2) ADC Analog Power Supply ADC Analog Ground (*1) It is important to get the correct ADC conversi on result that the wiring re sistance is accurate. Pay attention to keeping low noize. It is recommended that the ceramic capacitor of the high frequency type to be used as a decoupling capacitor between AVddADC and AVssADC. Place the capacitor close to the terminal of LSI as much as possible so that the wiring length may be shorten as much as possible. (*2) When the terminal VR is prepared (LC823425-13W1-E:FBGA221J is used), the ADC conversion speed (operation clock frequency) is different depending on the value of the capacitor used. Confirm specs of ADC. (*3) LC823425-12G1-H:TQFP128L connects VRH and VRL with AVddADC and AVssADC in the package. VR terminal is open in the package.

No.A2351-23/29 USB Device Refer to "USB20PCB design guideline" document .

No.A2351-24/29 Example of circuit in surrounding of terminal JTAG (for ICE use and unused) This LSI TCK Vdd2 TDI TMS NTRS JTAG Connector RTCK TDO TCK TDI TMS nTRS RTCK TDO Power on reset(*1) (open drain output) NRES nSRS System reset(*2) (open drain output) Vdd2 (*1) Power-on reset is a reset signal that becomes active Low only when the power supply is turned on. The terminal NTRST must be reset only by reset and power-on reset from JTAG. (*2) System reset is a reset signal that becomes po wer-on reset and active Low demanded in addition with the system like manual reset etc. The terminal NRES must be reset by reset and system reset from JTAG. Refer to the data sheet for specs for terminal NRES re set. The terminal NTRST is the same specs as the terminal NRES. Power-on reset (open drain output) can be realized to connect it with the ground through the capacitor as one example. As for the ICE unconnection, TCK, TDI, and the terminal TMS open in the state of internal pull-up ON. The above-mentioned circuit is an example in the su rrounding to correspond to both the ICE use and ICE unused cases on the assumption of the JTAG ICE use made of YDC (Yokokawa digital computer). Ask the manufacturer when you use other products.

No.A2351-25/29 Example of circuit in surrounding of terminal JTAG (ICE unused) This LSI TCK TDI TMS NTRS RTCK TDO NRES System reset(*1) Vdd2 (*1) System reset is a reset signal that becomes power-on reset (reset signal that becomes active Low only when the power supply is turned on) and active Lo w demanded in addition with the system of manual reset etc. TCK, TDI, and the terminal TMS open for ICE unused in the state of internal pull-up ON. Power-on reset is at least necessary for the terminal NTRST in the same specs as the terminal NRES even when ICE unused. The above-mentioned circuit is an example of the as sumption of the case with ICE unused, and the simplification of the circuit in the surrounding.

No.A2351-26/29 D class amplifier Output wattmeter calculation [Condition]  The DC resistance element of the coil, capacitor is small.  Maximum output amplitude =90% 6 to power supply of PWM  1.2V=(AVddDAMPL, AVddDAMPR), powe r-supply voltage of D class amplifier  2 Ω= Turning on resistance of internal transistor for D class amplifier (Ron).  15 Ω= Headphone load resistance (RL) assume the current that flows to the headphone to be Ipp Irms = Ipp / SQRT(2) = 22.4(mA) Prms = Irms 2 × 15 = 7.53(mW) External power supply D class amplifier power supply (AVddDAMPL,AVddDAMPR) must use a transient response and good power supply. When the power supply where the transient response is bad is used and the capacity of the capacitor is small, a peculiar pumping phenomenon to D class amplifier is generated. The power-supply voltage change when the pumping phenomenon is generated must not exceed the recommended operating range.

6 Theoretical value of Delta-sigma circuit

L RL Ron Ipp(Irms) 47 μH 1μF 220μF 15Ω LOUT ROUT

No.A2351-27/29 Power supply sequence Background The basis of turn on/off of the power supply is the following order (It is acceptable simultaneously).  At turning on Vdd *(internal)  Vdd *(IO)  Vsig (external signal)  At turning off Vsig (external signal)  Vdd *(IO)  Vdd *(internal) Turning on of Vdd *(outside) while Vdd *(internal) are turning off might generate the glitch on IO signals and flow of through current.To avoid it, the above-mentioned procedure is recommended as a basis of the sequence. Recommendation Example 1 of sequence After grouping power supply terminals into four , , -1, -2 groups, the following order is recommended as a sequence according to a basic policy in this LSI (It is acceptable simultaneously).  At turning on  At turning off (Note)   (internal circuit operation voltage)The internal logic is reset by   (reset terminal input) and an irregular state is canceled. Therefore, start up these two power supplies first of all in order of    (It is acceptable simultaneously).  -Two can be operated alone. Separately, it is assumed the RTC terminal control sequence, describes, and refer.

No.A2351-28/29 Example 2 of sequence The following sequence that makes the power supply at same timing as much as possible and simplifies is possible (It is acceptable simultaneously).  At turning on  At turning off (Note)  Regarding -2, It is supposed that the signal collision with an external device cannot occur. In this case, -2 starts up together with , -1. Definition of power supply group  Internal power supply and analog power supplies  are entire simultaneous power supplies ON, and simultaneous power supplies OFF.  Vdd1  VddXT1  AV d d P L L 1  A VddUSBPHY1  External IO power supply 1  Vdd2 -1 External IO power supply2 and analog power supply  VddSD0  VddSD1  A VddUSBPHY2  A VddADC  AV d d P L L 2  A VddDAMPL  A VddDAMPR -2 Internal and external IO power supply (sharing)  VddRTC (Separately, RTC terminal control sequence is described)

PS No.A2351-29/29 Device Package Shipping (Qty / Packing) LC823425-12G1-H TQFP128L (Pb-Free / Halogen Free) 450 / Tray JEDEC LC823425-13W1-E FBGA221J (Pb-Free) 840 / Tray JEDEC ON Semiconductor and the ON logo are registered trademarks of Semiconductor Components Industries, LLC (SCILLC) or its subsidiaries in the United States and/or other countries. SCILLC owns the rights to a number of patents, trademarks, copyrights, trade secrets, and other intellectual property. A lis ting of SCILLC’s product/patent coverage may be accessed at www.onsemi.com/site/pdf/Patent-Marking.pdf . SCILLC reserves the right to make changes without further notice to any products herein. SCILLC makes no warranty, representation or guarantee regarding the suitability of its products for any particular purpose, nor does SCILLC assume any liability arising out of the application or use of any product or circuit, and specifically disclaims any and all liability, including without limitation special, consequential or incidental damages. “Typical” parameters which may be provided in SCILLC data sheets and/or specifications can and do vary in different applications and actual performance may vary over time. All operating parameters, including “Typicals” must be validated for each customer application by customer’s technical experts. SCILLC does not convey any license under its patent rights nor the rights of others. SCILLC products are not designed, intended, or authorized for use as components insystems intended for surgical implant into the body, or other applications intended tosupport or sustain life, or for any other application in which the failure of the SCILLC product could create a situation where personal injury or death may occur.Should Buyer purchase or use SCILLC products for any such unintended or unauthorized application, Buyer shall indemnify and hold SCILLC and its officers, employees, subsidiaries, affiliates, and distributors harmless against all claims, costs, damages, and expenses, and reasonable attorney fees arising out of, directly or indirectly, any claim of personal injury or death associated with such unintended or unauthorized use, even if such claim alleges that SCILLC was negligent regarding the design or manufacture of the part. SCILLC is an Equal Opportunity/Affirmative Action Employer. This literature is subject t oa l l applicable copyright laws and is not for resale in any manner.