; -------------------------------------------------------------------------------- ; @Title: Hyper FLASH Program script for the S32V234 ; @Description: ; The KL512S (Spansion Hyper flash) is connected to the QuadSPI0 controller ; ; Prerequisites: Switch Settings ; set ; S32V234-EVB : J36:2&3 for Serial NOR Flash ; S32V234-EVB2: J48:2&3 for Serial NOR Flash ; ; BOOT_CFG1[7:6]: 00 ; BOOT from QuadSPI0 interface ; BOOT_CFG1[1:0]: 01(HyperFlash Mode) and 00(QuadSPI Mode) ; ; SRAM: 0x3E000000 ; QuadSPI(controller) Base: 0x400a6000 ; QuadSPI memory mapped ADDRESS: 0x20000000 ; ; @Chip: S32V234 ; @Board: S32V234-EVB, S32V234-EVB2 ; @Author: JIM ; @Keywords: KL512 Spansion HyperFlash QuadSPI ; @Copyright: (C) 1989-2022 Lauterbach GmbH, licensed for use with TRACE32(R) only ; -------------------------------------------------------------------------------- ; $Id: s32v234-hyper.cmm 12002 2023-04-03 08:38:48Z skrausse $ LOCAL &CA5_start_addr LOCAL &QSPI_BASE LOCAL &QSPI_Cntl_BASE // for QSPI0 &QSPI_BASE=0x20000000 ;qspi0 memory mapped address, not controller address &QSPI_Cntl_BASE=0x400a6000 ;qspi0 controller base address TITLE "S32V Cortex-M4" RESet SYStem.RESet SYStem.CPU S32V234-CM4 SYStem.CONFIG.DEBUGPORTTYPE JTAG SYStem.Option.ResBreak OFF SYStem.Option.WaitReset 200.ms SYStem.JtagClock CTCK 10Mhz Trace.DISable ETM.OFF ITM.OFF HTM.OFF SYStem.Up GOSUB Init_ECC GOSUB XOSC_setup GOSUB ENET_PLL //To clear the soft lock bit (SWT_CR[SLK]), the value 0xC520 followed by 0xD928 is written to the WSC field IF (Data.Long(A:0x40086000)&0x1)==0x1 ( Data.Set A:0x40086010 %Long 0xC520 Data.Set A:0x40086010 %Long 0xD928 Data.Set A:0x40086000 %Long 0xff00010a ; or 0xff00010a disable Watchdog SWT4_CR (Cortex-M4) ) GOSUB QuadSPI_PinMux_CLKEnable GOSUB QuadSPI_Init GOSUB READ_ID_TEST ; Init SRAM (32KB) for the flash algorithm Data.Set SD:0x3E000000++07FFF %Long 0x00000000 FLASH.RESet FLASH.Create 0x20000000++0xffffff 0x40000 TARGET Word FLASH.TARGET 0x3E000000 EAHB:0x3E002000 0x1000 ~~/demo/arm/flash/word/hyper_s32v234.bin /DUALPORT ; flash alias FLASH.CreateALIAS 0x10000000++0xffffff 0x20000000 ; ------------------------------------------------------------------------------ ; Flash programming example DIALOG.YESNO "Program flash memory?" LOCAL &progflash ENTRY &progflash IF &progflash ( FLASH.ReProgram.ALL /Erase Data.LOAD.auto * FLASH.ReProgram.off ; Reset device SYStem.Down SYStem.Up ) ENDDO XOSC_setup: Data.Set 0x4004a008 %Long 0x80ff Data.Set 0x4004a080 %Long 0xFE Data.Set 0x4003C280 %Long 0x018020F0 Data.Set 0x4004A02C %Long 0x00100031 Data.Set 0x4004A004 %Long 0x30005af0 Data.Set 0x4004A004 %Long 0x3000A50F Data.Set 0x4004A02C %Long 0x00100031 Data.Set 0x4004A260 %Long 0x10 Data.Set 0x4004A260 %Long 0x0110 Data.Set 0x4004A260 %Long 0x1110 Data.Set 0x4004A004 %Long 0x30005af0 Data.Set 0x4004A004 %Long 0x3000A50F RETURN ENET_PLL: Data.Set 0x4007C100 %Long 0x58000000 Data.Set 0x4003C128 %Long 0x02021019 Data.Set 0x4003C130 %Long 0x70000000 Data.Set 0x4003C140 %Long 0x5445 Data.Set 0x4003C144 %Long 0x0 Data.Set 0x4003C15C %Long 0x02DB Data.Set 0x4003C160 %Long 0x02DB Data.Set 0x4003C164 %Long 0x0320 Data.Set 0x4003C168 %Long 0x04CE Data.Set 0x4003C158 %Long 0x0 Data.Set 0x4003C154 %Long 0x0 Data.Set 0x4004A02C %Long 0x001001F2 Data.Set 0x4004A004 %Long 0x30005AF0 Data.Set 0x4004A004 %Long 0x3000A50F RETURN QuadSPI_PinMux_CLKEnable: //clk enable for the QuadSPI0&1 Data.Set SD:0x4003C9C0 %LE %Long 0x04000000 ;MC_CGM_0_AC14_SC Data.Set SD:0x4003C9C8 %LE %Long 0x80070000 //0x80070000 ;MC_CGM_0_AC14_DC0.R = 0x800F0000; /* divide by 2 (i.e. 80MHz) */ Data.Set A:0x4006C494 %Long 0x20D701 ; PK5(149) ,QuadSPI A Chip Select 0 Output, output enable(21), input disable(19) ; FLASH_CS1 Data.Set A:0x4006C498 %Long 0x20D701 ; PK6(150) ,QuadSPI A CLK 0 Output, output enable(21), input disable(19) ; FLASH_CLK Data.Set A:0x4006C49C %Long 0x9E000 ; PK7(151,819) ,QuadSPI A Data Strobe Input. input ebable(19) ; FLASH_DATA_STROBE Data.Set A:0x4006CF0C %Long 0x2 ; PK7(151,819) ,QuadSPI A Data Strobe Input. input ebable(19) ; FLASH_DATA_STROBE Data.Set A:0x4006C4A0 %Long 0x28D701 ; PK8(152) ,QuadSPI A DATA 0 ; FLASH_DAT0 Data.Set A:0x4006CF10 %Long 0x2 ; Input Mux PK8(152) ,QuadSPI A DATA 0 ; FLASH_DAT0 Data.Set A:0x4006C4A4 %Long 0x28D701 ; PK9(153) ,QuadSPI A DATA 1 ; FLASH_DAT1 Data.Set A:0x4006CF14 %Long 0x2 ; Input Mux PK9(153) ,QuadSPI A DATA 1 ; FLASH_DAT1 Data.Set A:0x4006C4A8 %Long 0x28D701 ; PK10(154) ,QuadSPI A DATA 2 ; FLASH_DAT2 Data.Set A:0x4006CF18 %Long 0x2 ; Input Mux PK10(154) ,QuadSPI A DATA 2 ; FLASH_DAT2 Data.Set A:0x4006C4AC %Long 0x28D701 ; PK11(155) ,QuadSPI A DATA 3 ; FLASH_DAT3 Data.Set A:0x4006CF1C %Long 0x2 ; Input Mux PK11(155) ,QuadSPI A DATA 3 ; FLASH_DAT3 //Data.Set A:0x4006C4B0 %Long 0x200701 ; PK12(156) ,QuadSPI B CS0 ; FLASH_CS2 Data.Set A:0x4006C4B4 %Long 0x20D702 ; PK13(157) ,QuadSPI CK2 ; FLASH_CK2 Data.Set A:0x4006C4BC %Long 0x28D702 ; PK15(159) ,QuadSPI A DATA 4 ; FLASH_DATA4 Data.Set A:0x4006CF20 %Long 0x2 ; PK15(159) ,QuadSPI A DATA 4 ; FLASH_DATA4 Data.Set A:0x4006C4C0 %Long 0x28D702 ; PL0(160) ,QuadSPI A DATA 5 ; FLASH_DATA5 Data.Set A:0x4006CF24 %Long 0x2 ; PL0(160) ,QuadSPI A DATA 5 ; FLASH_DATA5 Data.Set A:0x4006C4C4 %Long 0x28D702 ; PL1(161) ,QuadSPI A DATA 6 ; FLASH_DATA6 Data.Set A:0x4006CF28 %Long 0x2 ; PL1(161) ,QuadSPI A DATA 6 ; FLASH_DATA6 Data.Set A:0x4006C4C8 %Long 0x28D702 ; PL1(162) ,QuadSPI A DATA 7 ; FLASH_DATA7 Data.Set A:0x4006CF2C %Long 0x2 ; PL1(162) ,QuadSPI A DATA 7 ; FLASH_DATA7 RETURN QuadSPI_Init: //init QuadSPI Data.Set A:&QSPI_Cntl_BASE+0x00 %LE %Long 0xF40C0 ; QuadSPI1->MCR = QuadSPI_MCR_MDIS_MASK; Data.Set A:&QSPI_Cntl_BASE+0x0C %LE %Long 0x0303 ; QuadSPI1->FLSHCR = QuadSPI_FLSHCR_TCSH(3) | QuadSPI_FLSHCR_TCSS(3); Data.Set A:&QSPI_Cntl_BASE+0x30 %LE %Long 0x0 ; QuadSPI1->BUF0IND = 0x0; Data.Set A:&QSPI_Cntl_BASE+0x000 %LE %Long 0xF40C0 ; QuadSPI1->MCR |= QuadSPI_MCR_MDIS_MASK; Data.Set A:&QSPI_Cntl_BASE+0x108 %LE %Long 0x00010000 ; // for 33MHz clock , QuadSPI1->SMPR = 0x10000; PER.Set.simple A:&QSPI_Cntl_BASE+0x100 %Long %LE &QSPI_BASE PER.Set.simple A:&QSPI_Cntl_BASE+0x104 %Long %LE 0x00010003 ; must be set for Hyper Flash, word addressable , witdh of the column address 3 Data.Set A:&QSPI_Cntl_BASE+0x180 %LE %Long &QSPI_BASE+0x4000000 ; QuadSPI1->SFA1AD Data.Set A:&QSPI_Cntl_BASE+0x184 %LE %Long &QSPI_BASE+0x8000000 Data.Set A:&QSPI_Cntl_BASE+0x188 %LE %Long &QSPI_BASE+0xC000000 Data.Set A:&QSPI_Cntl_BASE+0x18C %LE %Long &QSPI_BASE+0x10000000 PER.Set.simple A:&QSPI_Cntl_BASE+0x024 %Long %LE 0x80080 PER.Set.simple A:&QSPI_Cntl_BASE+0x108 %Long %LE 0x30000 ;SMPR ; when I can see the delay PER.Set.simple A:&QSPI_Cntl_BASE+0xC %Long %LE 0x20803 PER.Set.simple A:&QSPI_Cntl_BASE+0x24 %Long %LE 0xFFFFFFFF PER.Set.simple A:&QSPI_Cntl_BASE+0x0108 %Long %LE 0x30044 Data.Set A:&QSPI_Cntl_BASE+0x300 %LE %Long 0x5AF05AF0 ; LUTKEY Data.Set A:&QSPI_Cntl_BASE+0x304 %LE %Long 0x2 ; LCKCR //init LUT0 for accessing 0x20000000 PER.Set.simple A:&QSPI_Cntl_BASE+0x310 %Long %LE 0x2b1847a0 ; LUT0 PER.Set.simple A:&QSPI_Cntl_BASE+0x314 %Long %LE 0x0f0f4f10 ; LUT1 PER.Set.simple A:&QSPI_Cntl_BASE+0x318 %Long %LE 0x03003b04 ; LUT2 , 16 byte reading (0x10) PER.Set.simple A:&QSPI_Cntl_BASE %Long %LE 0x000f00ec ; 64bit little endian correct RETURN READ_ID_TEST: PRINT "READ_ID_TEST..." &temp=Data.Long(A:&QSPI_Cntl_BASE) Data.Set A:&QSPI_Cntl_BASE %Long (&temp|0x0c00) //clear Tx/Rx buffer Data.Set A:&QSPI_Cntl_BASE+0x300 %LE %Long 0x5AF05AF0 ; LUTKEY Data.Set A:&QSPI_Cntl_BASE+0x304 %LE %Long 0x2 ; LCKCR // I should set the address reg and Data.Set A:&QSPI_Cntl_BASE+0x100 %Long (&QSPI_BASE+0xAAA) ; SFAR , FLASH BASE ADDRESS //SEQID 4, CFI Enter Data.Set A:&QSPI_Cntl_BASE+0x350 %LE %Long (0x2B18<<16.)|0x4700 ; ADDR_DDR with 3pad (0x2B) and CMD_DDR with 3pad (0x47) Data.Set A:&QSPI_Cntl_BASE+0x354 %LE %Long (0x4700<<16.)|0x4F10 ; CMD_DDR with 3pad (0x47) and CADDR_DDR with 3pad (0x4F) Data.Set A:&QSPI_Cntl_BASE+0x358 %LE %Long (0x0300<<16.)|0x4798 ; CMD_DDR 3pad (0x47) , 0x98 read cfi Data.Set A:&QSPI_Cntl_BASE+0x35C %LE %Long 0x0 // assert Read id command Data.Set A:&QSPI_Cntl_BASE+0x008 %Long (4.<<24.) ; (4.<<24.) , execute SEQID 4 WAIT 100.ms PER.Set.simple A:&QSPI_Cntl_BASE+0x0160 %Long %LE 0x1 ;clear ipc done flag PER.Set.simple A:&QSPI_Cntl_BASE %Long %LE Data.Long(A:&QSPI_Cntl_BASE)|0x800 ; clear tx buffer //SEQID 5, CFI Read Data.Set A:&QSPI_Cntl_BASE+0x100 %Long &QSPI_BASE+0x0 Data.Set A:&QSPI_Cntl_BASE+0x360 %LE %Long (0x2B18<<16.)|0x47A0 ; ADDR_DDR with 3pad (0x2B) and CMD_DDR with 3pad (0x47) Data.Set A:&QSPI_Cntl_BASE+0x364 %LE %Long (0x0F0F<<16.)|0x4F10 ;dummy 3pad (0x0F) and CMD_DDR with 3pad (0x47) Data.Set A:&QSPI_Cntl_BASE+0x368 %LE %Long (0x0300<<16.)|0x3B04 ; stop 3pad (0x03) and READ_DDR 3pad (0x3B) 4bytes read Data.Set A:&QSPI_Cntl_BASE+0x36C %LE %Long 0x0 Data.Set A:&QSPI_Cntl_BASE+0x008 %Long (5.<<24.) ; (5.<<24.) , execute SEQID 5 WAIT 100.ms PER.Set.simple A:&QSPI_Cntl_BASE+0x160 %Long %LE 0x1 ;clear ipc done flag PER.Set.simple A:&QSPI_Cntl_BASE %Long %LE Data.Long(A:&QSPI_Cntl_BASE)|0x800 ; clear tx buffer ;&temp=data.long(A:&QSPI_Cntl_BASE) ;D.S ZSD:&QSPI_Cntl_BASE+0x000 %l (&temp|0x0800) //clear Tx buffer PRINT "1st 0x" Data.Long(A:&QSPI_Cntl_BASE+0x200) PRINT "2nd 0x" Data.Long(A:&QSPI_Cntl_BASE+0x204) PRINT "3rd 0x" Data.Long(A:&QSPI_Cntl_BASE+0x208) PRINT "4th 0x" Data.Long(A:&QSPI_Cntl_BASE+0x20C) //SEQID 4, Reset command Data.Set A:&QSPI_Cntl_BASE+0x350 %LE %Long (0x2B18<<16.)|0x4700 ; ADDR_DDR with 3pad (0x2B) and CMD_DDR with 3pad (0x47) Data.Set A:&QSPI_Cntl_BASE+0x354 %LE %Long (0x4700<<16.)|0x4F10 ; CMD_DDR with 3pad (0x47) and CADDR_DDR with 3pad (0x4F) Data.Set A:&QSPI_Cntl_BASE+0x358 %LE %Long (0x0300<<16.)|0x47F0 ; CMD_DDR 3pad (0x47) , 0xF0 reset Data.Set A:&QSPI_Cntl_BASE+0x35C %LE %Long 0x0 // assert Read id command Data.Set A:&QSPI_Cntl_BASE+0x008 %Long (4.<<24.) ; (4.<<24.) , execute SEQID 4 WAIT 100.ms PER.Set.simple A:&QSPI_Cntl_BASE+0x0160 %Long %LE 0x1 ;clear ipc done flag PER.Set.simple A:&QSPI_Cntl_BASE %Long %LE Data.Long(A:&QSPI_Cntl_BASE)|0x800 ; clear tx buffer RETURN Init_ECC: // Init ECC memory using the DMA (to get 64 bit accesses) Data.Set SD:0x40003008 %Long 0x00100000 ; DMA_0.TCD[0].NBYTES.MLNO.R = 1024*1024; Data.Set SD:0x40003016 %Word 0x0001 ; DMA_0.TCD[0].DOFF.B.DOFF = 1; Data.Set SD:0x40003000 %Long 0x00000000 ; DMA_0.TCD[0].SADDR.R = 0x3F000010; Data.Set SD:0x40003004 %Word 0x0000 ; DMA_0.TCD[0].SOFF.B.SOFF = 0; Data.Set SD:0x40003006 %Word 0x0300 ; DMA_0.TCD[0].ATTR.B.SSIZE = 3; Data.Set SD:0x4000300C %Long 0x00000000 ; DMA_0.TCD[0].SLAST.R = 0; Data.Set SD:0x40003010 %Long 0x3E800000 ; DMA_0.TCD[0].DADDR.R = 0x3EF00000; Data.Set SD:0x40003014 %Word 0x0008 ; DMA_0.TCD[0].CITER.ELINKNO.B.CITER = 8; Data.Set SD:0x40003006 %Word 0x0303 ; DMA_0.TCD[0].ATTR.B.DSIZE = 3; Data.Set SD:0x40003018 %Long 0xFFF00000 ; DMA_0.TCD[0].DLASTSGA.R = -DMA_0.TCD[0].NBYTES.MLNO.R; Data.Set SD:0x4000301C %Word 0x0001 ; DMA_0.TCD[0].CSR.B.START = 1; RETURN