Multi-sector writes, increased SPI clock to 24MHz, Added support for SDHC/SDXC.

This commit is contained in:
Michael McMaster 2013-10-12 00:37:27 +10:00
parent aa5e83b9db
commit 27e482ea8c
15 changed files with 677 additions and 405 deletions

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@ -1,30 +1,30 @@
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@ -307,24 +307,24 @@
/* SD_Clk_Ctl */
#define SD_Clk_Ctl_Sync_ctrl_reg__0__MASK 0x01u
#define SD_Clk_Ctl_Sync_ctrl_reg__0__POS 0
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG CYREG_B1_UDB05_06_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG CYREG_B1_UDB05_06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG CYREG_B1_UDB05_06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG CYREG_B1_UDB05_06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG CYREG_B1_UDB05_06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG CYREG_B1_UDB05_06_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG CYREG_B1_UDB05_06_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG CYREG_B1_UDB05_06_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG CYREG_B1_UDB05_06_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG CYREG_B1_UDB05_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG CYREG_B1_UDB05_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG CYREG_B1_UDB05_ST_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG CYREG_B1_UDB05_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG CYREG_B1_UDB05_ST_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG CYREG_B0_UDB06_07_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG CYREG_B0_UDB06_07_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG CYREG_B0_UDB06_07_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG CYREG_B0_UDB06_07_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG CYREG_B0_UDB06_07_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG CYREG_B0_UDB06_07_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG CYREG_B0_UDB06_07_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG CYREG_B0_UDB06_07_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG CYREG_B0_UDB06_07_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG CYREG_B0_UDB06_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG CYREG_B0_UDB06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG CYREG_B0_UDB06_ST_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG CYREG_B0_UDB06_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG CYREG_B0_UDB06_ST_CTL
#define SD_Clk_Ctl_Sync_ctrl_reg__MASK 0x01u
#define SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG CYREG_B1_UDB05_MSK_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG CYREG_B1_UDB05_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG CYREG_B1_UDB05_MSK_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG CYREG_B0_UDB06_MSK_ACTL
#define SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG CYREG_B0_UDB06_MSK
#define SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG CYREG_B0_UDB06_MSK_ACTL
/* PARITY_EN */
#define PARITY_EN__0__MASK 0x10u
@ -1775,9 +1775,9 @@
#define CYDEV_CHIP_FAMILY_PSOC5 3u
#define CYDEV_CHIP_DIE_PSOC5LP 4u
#define CYDEV_CHIP_DIE_EXPECT CYDEV_CHIP_DIE_PSOC5LP
#define BCLK__BUS_CLK__HZ 64000000U
#define BCLK__BUS_CLK__KHZ 64000U
#define BCLK__BUS_CLK__MHZ 64U
#define BCLK__BUS_CLK__HZ 63000000U
#define BCLK__BUS_CLK__KHZ 63000U
#define BCLK__BUS_CLK__MHZ 63U
#define CYDEV_CHIP_DIE_ACTUAL CYDEV_CHIP_DIE_EXPECT
#define CYDEV_CHIP_DIE_LEOPARD 1u
#define CYDEV_CHIP_DIE_PANTHER 3u

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@ -117,31 +117,31 @@ typedef struct
#define cy_cfg_data_table ((const cy_cfg_addrvalue_t CYFAR *)0x48000040u)
/* UDB_1_1_0_CONFIG Address: CYDEV_UCFG_B1_P3_U1_BASE Size (bytes): 128 */
#define BS_UDB_1_1_0_CONFIG_VAL ((const uint8 CYFAR *)0x480002CCu)
#define BS_UDB_1_1_0_CONFIG_VAL ((const uint8 CYFAR *)0x480002D4u)
/* IOPINS0_0 Address: CYREG_PRT0_DM0 Size (bytes): 8 */
#define BS_IOPINS0_0_VAL ((const uint8 CYFAR *)0x4800034Cu)
#define BS_IOPINS0_0_VAL ((const uint8 CYFAR *)0x48000354u)
/* IOPINS0_7 Address: CYREG_PRT12_DR Size (bytes): 10 */
#define BS_IOPINS0_7_VAL ((const uint8 CYFAR *)0x48000354u)
#define BS_IOPINS0_7_VAL ((const uint8 CYFAR *)0x4800035Cu)
/* IOPINS1_7 Address: CYREG_PRT12_DR + 0x0000000Bu Size (bytes): 5 */
#define BS_IOPINS1_7_VAL ((const uint8 CYFAR *)0x48000360u)
#define BS_IOPINS1_7_VAL ((const uint8 CYFAR *)0x48000368u)
/* IOPINS0_2 Address: CYREG_PRT2_DM0 Size (bytes): 8 */
#define BS_IOPINS0_2_VAL ((const uint8 CYFAR *)0x48000368u)
#define BS_IOPINS0_2_VAL ((const uint8 CYFAR *)0x48000370u)
/* IOPINS0_3 Address: CYREG_PRT3_DR Size (bytes): 10 */
#define BS_IOPINS0_3_VAL ((const uint8 CYFAR *)0x48000370u)
#define BS_IOPINS0_3_VAL ((const uint8 CYFAR *)0x48000378u)
/* IOPINS0_4 Address: CYREG_PRT4_DM0 Size (bytes): 8 */
#define BS_IOPINS0_4_VAL ((const uint8 CYFAR *)0x4800037Cu)
#define BS_IOPINS0_4_VAL ((const uint8 CYFAR *)0x48000384u)
/* IOPINS0_5 Address: CYREG_PRT5_DR Size (bytes): 10 */
#define BS_IOPINS0_5_VAL ((const uint8 CYFAR *)0x48000384u)
#define BS_IOPINS0_5_VAL ((const uint8 CYFAR *)0x4800038Cu)
/* IOPINS0_6 Address: CYREG_PRT6_DM0 Size (bytes): 8 */
#define BS_IOPINS0_6_VAL ((const uint8 CYFAR *)0x48000390u)
#define BS_IOPINS0_6_VAL ((const uint8 CYFAR *)0x48000398u)
/*******************************************************************************
@ -201,9 +201,9 @@ static void ClockSetup(void)
/* Configure Digital Clocks based on settings from Clock DWR */
CY_SET_XTND_REG16((void CYFAR *)(CYREG_CLKDIST_DCFG0_CFG0), 0x0001u);
CY_SET_XTND_REG8((void CYFAR *)(CYREG_CLKDIST_DCFG0_CFG0 + 0x2u), 0x18u);
CY_SET_XTND_REG16((void CYFAR *)(CYREG_CLKDIST_DCFG1_CFG0), 0x001Du);
CY_SET_XTND_REG16((void CYFAR *)(CYREG_CLKDIST_DCFG0_CFG0), 0x0000u);
CY_SET_XTND_REG8((void CYFAR *)(CYREG_CLKDIST_DCFG0_CFG0 + 0x2u), 0x11u);
CY_SET_XTND_REG16((void CYFAR *)(CYREG_CLKDIST_DCFG1_CFG0), 0x003Bu);
CY_SET_XTND_REG8((void CYFAR *)(CYREG_CLKDIST_DCFG1_CFG0 + 0x2u), 0x19u);
/* Configure ILO based on settings from Clock DWR */
@ -211,11 +211,11 @@ static void ClockSetup(void)
CY_SET_XTND_REG8((void CYFAR *)(CYREG_CLKDIST_CR), 0x08u);
/* Configure IMO based on settings from Clock DWR */
CY_SET_XTND_REG8((void CYFAR *)(CYREG_FASTCLK_IMO_CR), 0x02u);
CY_SET_XTND_REG8((void CYFAR *)(CYREG_IMO_TR1), (CY_GET_XTND_REG8((void CYFAR *)CYREG_FLSHID_CUST_TABLES_IMO_24MHZ)));
CY_SET_XTND_REG8((void CYFAR *)(CYREG_FASTCLK_IMO_CR), 0x04u);
CY_SET_XTND_REG8((void CYFAR *)(CYREG_IMO_TR1), (CY_GET_XTND_REG8((void CYFAR *)(CYREG_FLSHID_MFG_CFG_IMO_TR1 + 1u))));
/* Configure PLL based on settings from Clock DWR */
CY_SET_XTND_REG16((void CYFAR *)(CYREG_FASTCLK_PLL_P), 0x0818u);
CY_SET_XTND_REG16((void CYFAR *)(CYREG_FASTCLK_PLL_P), 0x0F15u);
CY_SET_XTND_REG16((void CYFAR *)(CYREG_FASTCLK_PLL_CFG0), 0x1051u);
/* Wait up to 250us for the PLL to lock */
pllLock = 0u;

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@ -307,24 +307,24 @@
/* SD_Clk_Ctl */
.set SD_Clk_Ctl_Sync_ctrl_reg__0__MASK, 0x01
.set SD_Clk_Ctl_Sync_ctrl_reg__0__POS, 0
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG, CYREG_B1_UDB05_06_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG, CYREG_B1_UDB05_06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG, CYREG_B1_UDB05_06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG, CYREG_B1_UDB05_06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG, CYREG_B1_UDB05_06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG, CYREG_B1_UDB05_06_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG, CYREG_B1_UDB05_06_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG, CYREG_B1_UDB05_06_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG, CYREG_B1_UDB05_06_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG, CYREG_B1_UDB05_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG, CYREG_B1_UDB05_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG, CYREG_B1_UDB05_ST_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG, CYREG_B1_UDB05_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG, CYREG_B1_UDB05_ST_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG, CYREG_B0_UDB06_07_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG, CYREG_B0_UDB06_07_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG, CYREG_B0_UDB06_07_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG, CYREG_B0_UDB06_07_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG, CYREG_B0_UDB06_07_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG, CYREG_B0_UDB06_07_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG, CYREG_B0_UDB06_07_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG, CYREG_B0_UDB06_07_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG, CYREG_B0_UDB06_07_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG, CYREG_B0_UDB06_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG, CYREG_B0_UDB06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG, CYREG_B0_UDB06_ST_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG, CYREG_B0_UDB06_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG, CYREG_B0_UDB06_ST_CTL
.set SD_Clk_Ctl_Sync_ctrl_reg__MASK, 0x01
.set SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG, CYREG_B1_UDB05_MSK_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG, CYREG_B1_UDB05_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG, CYREG_B1_UDB05_MSK_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG, CYREG_B0_UDB06_MSK_ACTL
.set SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG, CYREG_B0_UDB06_MSK
.set SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG, CYREG_B0_UDB06_MSK_ACTL
/* PARITY_EN */
.set PARITY_EN__0__MASK, 0x10
@ -1775,9 +1775,9 @@
.set CYDEV_CHIP_FAMILY_PSOC5, 3
.set CYDEV_CHIP_DIE_PSOC5LP, 4
.set CYDEV_CHIP_DIE_EXPECT, CYDEV_CHIP_DIE_PSOC5LP
.set BCLK__BUS_CLK__HZ, 64000000
.set BCLK__BUS_CLK__KHZ, 64000
.set BCLK__BUS_CLK__MHZ, 64
.set BCLK__BUS_CLK__HZ, 63000000
.set BCLK__BUS_CLK__KHZ, 63000
.set BCLK__BUS_CLK__MHZ, 63
.set CYDEV_CHIP_DIE_ACTUAL, CYDEV_CHIP_DIE_EXPECT
.set CYDEV_CHIP_DIE_LEOPARD, 1
.set CYDEV_CHIP_DIE_PANTHER, 3

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@ -307,24 +307,24 @@ SD_Init_Clk__PM_STBY_MSK EQU 0x02
; SD_Clk_Ctl
SD_Clk_Ctl_Sync_ctrl_reg__0__MASK EQU 0x01
SD_Clk_Ctl_Sync_ctrl_reg__0__POS EQU 0
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG EQU CYREG_B1_UDB05_06_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG EQU CYREG_B1_UDB05_06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG EQU CYREG_B1_UDB05_06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG EQU CYREG_B1_UDB05_06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG EQU CYREG_B1_UDB05_06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG EQU CYREG_B1_UDB05_06_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG EQU CYREG_B1_UDB05_06_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG EQU CYREG_B1_UDB05_06_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG EQU CYREG_B1_UDB05_06_MSK
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG EQU CYREG_B1_UDB05_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG EQU CYREG_B1_UDB05_CTL
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG EQU CYREG_B1_UDB05_ST_CTL
SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG EQU CYREG_B1_UDB05_CTL
SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG EQU CYREG_B1_UDB05_ST_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_AUX_CTL_REG EQU CYREG_B0_UDB06_07_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_CONTROL_REG EQU CYREG_B0_UDB06_07_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_CONTROL_COUNT_REG EQU CYREG_B0_UDB06_07_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_CONTROL_REG EQU CYREG_B0_UDB06_07_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_COUNT_COUNT_REG EQU CYREG_B0_UDB06_07_CTL
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_MASK_REG EQU CYREG_B0_UDB06_07_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_MASK_PERIOD_REG EQU CYREG_B0_UDB06_07_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_MASK_REG EQU CYREG_B0_UDB06_07_MSK
SD_Clk_Ctl_Sync_ctrl_reg__16BIT_PERIOD_PERIOD_REG EQU CYREG_B0_UDB06_07_MSK
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_AUX_CTL_REG EQU CYREG_B0_UDB06_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_REG EQU CYREG_B0_UDB06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__CONTROL_ST_REG EQU CYREG_B0_UDB06_ST_CTL
SD_Clk_Ctl_Sync_ctrl_reg__COUNT_REG EQU CYREG_B0_UDB06_CTL
SD_Clk_Ctl_Sync_ctrl_reg__COUNT_ST_REG EQU CYREG_B0_UDB06_ST_CTL
SD_Clk_Ctl_Sync_ctrl_reg__MASK EQU 0x01
SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG EQU CYREG_B1_UDB05_MSK_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG EQU CYREG_B1_UDB05_MSK
SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG EQU CYREG_B1_UDB05_MSK_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__MASK_CTL_AUX_CTL_REG EQU CYREG_B0_UDB06_MSK_ACTL
SD_Clk_Ctl_Sync_ctrl_reg__PERIOD_REG EQU CYREG_B0_UDB06_MSK
SD_Clk_Ctl_Sync_ctrl_reg__PER_CTL_AUX_CTL_REG EQU CYREG_B0_UDB06_MSK_ACTL
; PARITY_EN
PARITY_EN__0__MASK EQU 0x10
@ -1775,9 +1775,9 @@ CYDEV_CHIP_MEMBER_5B EQU 4
CYDEV_CHIP_FAMILY_PSOC5 EQU 3
CYDEV_CHIP_DIE_PSOC5LP EQU 4
CYDEV_CHIP_DIE_EXPECT EQU CYDEV_CHIP_DIE_PSOC5LP
BCLK__BUS_CLK__HZ EQU 64000000
BCLK__BUS_CLK__KHZ EQU 64000
BCLK__BUS_CLK__MHZ EQU 64
BCLK__BUS_CLK__HZ EQU 63000000
BCLK__BUS_CLK__KHZ EQU 63000
BCLK__BUS_CLK__MHZ EQU 63
CYDEV_CHIP_DIE_ACTUAL EQU CYDEV_CHIP_DIE_EXPECT
CYDEV_CHIP_DIE_LEOPARD EQU 1
CYDEV_CHIP_DIE_PANTHER EQU 3

View File

@ -7,7 +7,7 @@
<block name="SCSI_ID" BASE="0x0" SIZE="0x0" desc="" visible="true" />
<block name="SD_Clk_mux" BASE="0x0" SIZE="0x0" desc="" visible="true" />
<block name="SD_Clk_Ctl" BASE="0x0" SIZE="0x0" desc="" visible="true">
<register name="SD_Clk_Ctl_CONTROL_REG" address="0x40006575" bitWidth="8" desc="" />
<register name="SD_Clk_Ctl_CONTROL_REG" address="0x40006476" bitWidth="8" desc="" />
</block>
<block name="SD_Data_Clk" BASE="0x0" SIZE="0x0" desc="" visible="true" />
<block name="LED1" BASE="0x0" SIZE="0x0" desc="" visible="true" />

View File

@ -95,6 +95,13 @@
<build_action v="C_FILE" />
<PropertyDeltas />
</CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b>
<CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b type_name="CyDesigner.Common.ProjMgmt.Model.CyPrjMgmtFile" version="3" xml_contents_version="1">
<CyGuid_31768f72-0253-412b-af77-e7dba74d1330 type_name="CyDesigner.Common.ProjMgmt.Model.CyPrjMgmtItem" version="2" name="sd.c" persistent="\\xengarden\michael\projects\SCSI2SD\git\software\SCSI2SD\SCSI2SD.cydsn\sd.c">
<Hidden v="False" />
</CyGuid_31768f72-0253-412b-af77-e7dba74d1330>
<build_action v="C_FILE" />
<PropertyDeltas />
</CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b>
</dependencies>
</CyGuid_0820c2e7-528d-4137-9a08-97257b946089>
</CyGuid_2f73275c-45bf-46ba-b3b1-00a2fe0c8dd8>
@ -203,6 +210,13 @@
<build_action v="NONE" />
<PropertyDeltas />
</CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b>
<CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b type_name="CyDesigner.Common.ProjMgmt.Model.CyPrjMgmtFile" version="3" xml_contents_version="1">
<CyGuid_31768f72-0253-412b-af77-e7dba74d1330 type_name="CyDesigner.Common.ProjMgmt.Model.CyPrjMgmtItem" version="2" name="sd.h" persistent="\\xengarden\michael\projects\SCSI2SD\git\software\SCSI2SD\SCSI2SD.cydsn\sd.h">
<Hidden v="False" />
</CyGuid_31768f72-0253-412b-af77-e7dba74d1330>
<build_action v="NONE" />
<PropertyDeltas />
</CyGuid_8b8ab257-35d3-4473-b57b-36315200b38b>
</dependencies>
</CyGuid_0820c2e7-528d-4137-9a08-97257b946089>
</CyGuid_2f73275c-45bf-46ba-b3b1-00a2fe0c8dd8>

View File

@ -9,7 +9,7 @@
<peripheral>
<name>SD_Clk_Ctl</name>
<description>No description available</description>
<baseAddress>0x40006575</baseAddress>
<baseAddress>0x40006476</baseAddress>
<addressBlock>
<offset>0</offset>
<size>0x1</size>

View File

@ -18,6 +18,7 @@
#include "device.h"
#include "scsi.h"
#include "disk.h"
#include "sd.h"
#include <string.h>
@ -25,8 +26,19 @@
BlockDevice blockDev;
Transfer transfer;
static void startRead(int nextBlock);
static int sdInit();
static int doSdInit()
{
int result = sdInit();
if (result)
{
blockDev.state = blockDev.state | DISK_INITIALISED;
// TODO artificially limit this value according to EEPROM config.
blockDev.capacity = sdDev.capacity;
}
return result;
}
static void doFormatUnit()
{
@ -85,7 +97,7 @@ static void doWrite(uint32 lba, uint32 blocks)
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = ILLEGAL_REQUEST;
scsiDev.sense.asc = WRITE_PROTECTED;
scsiDev.phase = STATUS;
scsiDev.phase = STATUS;
}
else if (((uint64) lba) + blocks > blockDev.capacity)
{
@ -102,6 +114,8 @@ static void doWrite(uint32 lba, uint32 blocks)
transfer.currentBlock = 0;
scsiDev.phase = DATA_OUT;
scsiDev.dataLen = SCSI_BLOCK_SIZE;
sdPrepareWrite();
}
}
@ -123,7 +137,7 @@ static void doRead(uint32 lba, uint32 blocks)
transfer.currentBlock = 0;
scsiDev.phase = DATA_IN;
scsiDev.dataLen = 0; // No data yet
startRead(0);
sdPrepareRead(0);
}
}
@ -187,15 +201,12 @@ int scsiDiskCommand()
blockDev.state = blockDev.state | DISK_STARTED;
if (!(blockDev.state & DISK_INITIALISED))
{
if (sdInit())
{
blockDev.state = blockDev.state | DISK_INITIALISED;
}
doSdInit();
}
}
else
{
blockDev.state = blockDev.state & (-1 ^ DISK_STARTED);
blockDev.state &= ~DISK_STARTED;
}
}
else if (command == 0x00)
@ -331,285 +342,6 @@ int scsiDiskCommand()
return commandHandled;
}
static uint8 sdCrc7(uint8* chr, uint8 cnt, uint8 crc)
{
uint8 a;
for(a = 0; a < cnt; a++)
{
uint8 Data = chr[a];
uint8 i;
for(i = 0; i < 8; i++)
{
crc <<= 1;
if( (Data & 0x80) ^ (crc & 0x80) ) {crc ^= 0x09;}
Data <<= 1;
}
}
return crc & 0x7F;
}
// Read and write 1 byte.
static uint8 sdSpiByte(uint8 value)
{
SDCard_WriteTxData(value);
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
while (!SDCard_GetRxBufferSize()) {}
return SDCard_ReadRxData();
}
static void sdSendCommand(uint8 cmd, uint32 param)
{
uint8 send[6];
send[0] = cmd | 0x40;
send[1] = param >> 24;
send[2] = param >> 16;
send[3] = param >> 8;
send[4] = param;
send[5] = (sdCrc7(send, 5, 0) << 1) | 1;
for(cmd = 0; cmd < sizeof(send); cmd++)
{
sdSpiByte(send[cmd]);
}
}
static uint8 sdReadResp()
{
uint8 v;
uint8 i = 128;
do
{
v = sdSpiByte(0xFF);
} while(i-- && (v == 0xFF));
return v;
}
static uint8 sdWaitResp()
{
uint8 v;
uint8 i = 255;
do
{
v = sdSpiByte(0xFF);
} while(i-- && (v != 0xFE));
return v;
}
static uint8 sdCommandAndResponse(uint8 cmd, uint32 param)
{
SDCard_ClearRxBuffer();
sdSpiByte(0xFF);
sdSendCommand(cmd, param);
return sdReadResp();
}
static int sdInit()
{
int result = 0;
SD_CS_Write(1); // Set CS inactive (active low)
SD_Init_Clk_Start(); // Turn on the slow 400KHz clock
SD_Clk_Ctl_Write(0); // Select the 400KHz clock source.
SDCard_Start(); // Enable SPI hardware
// Power on sequence. 74 clock cycles of a "1" while CS unasserted.
int i;
for (i = 0; i < 10; ++i)
{
sdSpiByte(0xFF);
}
SD_CS_Write(0); // Set CS active (active low)
CyDelayUs(1);
uint8 v = sdCommandAndResponse(0, 0);
if(v != 1){goto bad;}
// TODO CMD8 + valid CC for ver2 + cards. arg 0x00..01AA
// TODO SDv2 support: ACMD41, fallback to CMD1
v = sdCommandAndResponse(1, 0);
for(i=0;v != 0 && i<50;++i){
CyDelay(50);
v = sdCommandAndResponse(1, 0);
}
if(v){goto bad;}
v = sdCommandAndResponse(16, SCSI_BLOCK_SIZE); //Force sector size
if(v){goto bad;}
v = sdCommandAndResponse(59, 0); //crc off
if(v){goto bad;}
// now set the sd card up for full speed
SD_Data_Clk_Start(); // Turn on the fast clock
SD_Clk_Ctl_Write(1); // Select the fast clock source.
SD_Init_Clk_Stop(); // Stop the slow clock.
v = sdCommandAndResponse(0x9, 0);
if(v){goto bad;}
v = sdWaitResp();
if (v != 0xFE) { goto bad; }
uint8 buf[16];
for (i = 0; i < 16; ++i)
{
buf[i] = sdSpiByte(0xFF);
}
sdSpiByte(0xFF); // CRC
sdSpiByte(0xFF); // CRC
uint32 c_size = (((((uint32)buf[6]) & 0x3) << 16) | (((uint32)buf[7]) << 8) | buf[8]) >> 6;
uint32 c_mult = (((((uint32)buf[9]) & 0x3) << 8) | ((uint32)buf[0xa])) >> 7;
uint32 sectorSize = buf[5] & 0x0F;
blockDev.capacity = ((c_size+1) * ((uint64)1 << (c_mult+2)) * ((uint64)1 << sectorSize)) / SCSI_BLOCK_SIZE;
result = 1;
goto out;
bad:
blockDev.capacity = 0;
out:
return result;
}
static void startRead(int nextBlock)
{
// TODO 4Gb limit
// NOTE: CMD17 is NOT in hex. decimal 17.
uint8 v = sdCommandAndResponse(17, ((uint32)SCSI_BLOCK_SIZE) * (transfer.lba + transfer.currentBlock + nextBlock));
if (v)
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
}
}
static int readReady()
{
uint8 v = sdWaitResp();
if (v == 0xFF)
{
return 0;
}
else if (v == 0xFE)
{
return 1;
}
else
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
return 0;
}
}
static void readSector()
{
// TODO this is slow. Really slow.
// Even if we don't use DMA, we still want to read/write multiple bytes
// at a time.
/*
int i;
for (i = 0; i < SCSI_BLOCK_SIZE; ++i)
{
scsiDev.data[i] = sdSpiByte(0xFF);
}
*/
// We have a spi FIFO of 4 bytes. use it.
// This is much better, byut after 4 bytes we're still
// blocking a bit.
int i;
for (i = 0; i < SCSI_BLOCK_SIZE; i+=4)
{
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
scsiDev.data[i] = SDCard_ReadRxData();
scsiDev.data[i+1] = SDCard_ReadRxData();
scsiDev.data[i+2] = SDCard_ReadRxData();
scsiDev.data[i+3] = SDCard_ReadRxData();
}
sdSpiByte(0xFF); // CRC
sdSpiByte(0xFF); // CRC
scsiDev.dataLen = SCSI_BLOCK_SIZE;
scsiDev.dataPtr = 0;
}
static void writeSector()
{
uint8 v = sdCommandAndResponse(24, ((uint32)SCSI_BLOCK_SIZE) * (transfer.lba + transfer.currentBlock));
if (v)
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
}
else
{
SDCard_WriteTxData(0xFE);
int i;
for (i = 0; i < SCSI_BLOCK_SIZE; ++i)
{
SDCard_WriteTxData(scsiDev.data[i]);
}
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
sdSpiByte(0x00); // CRC
sdSpiByte(0x00); // CRC
SDCard_ClearRxBuffer();
v = sdSpiByte(0x00); // Response
if (((v & 0x1F) >> 1) != 0x2) // Accepted.
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
}
else
{
// Wait for the card to come out of busy.
v = sdSpiByte(0xFF);
while (v == 0)
{
v = sdSpiByte(0xFF);
}
uint8 r1 = sdCommandAndResponse(13, 0); // send status
uint8 r2 = sdSpiByte(0xFF);
if (r1 || r2)
{
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = WRITE_ERROR_AUTO_REALLOCATION_FAILED;
scsiDev.phase = STATUS;
}
}
}
}
void scsiDiskPoll()
{
if (scsiDev.phase == DATA_IN &&
@ -617,12 +349,12 @@ void scsiDiskPoll()
{
if (scsiDev.dataLen == 0)
{
if (readReady())
if (sdIsReadReady())
{
readSector();
sdReadSector();
if ((transfer.currentBlock + 1) < transfer.blocks)
{
startRead(1); // Tell SD card to grab data while we send
sdPrepareRead(1); // Tell SD card to grab data while we send
// buffer to SCSI.
}
}
@ -644,17 +376,23 @@ void scsiDiskPoll()
{
if (scsiDev.dataPtr == SCSI_BLOCK_SIZE)
{
writeSector();
int writeOk = sdWriteSector();
scsiDev.dataPtr = 0;
transfer.currentBlock++;
if (transfer.currentBlock >= transfer.blocks)
{
scsiDev.dataLen = 0;
scsiDev.phase = STATUS;
scsiDiskReset();
if (writeOk)
{
sdCompleteWrite();
}
}
}
}
}
}
void scsiDiskReset()
@ -685,12 +423,18 @@ void scsiDiskInit()
{
blockDev.state = blockDev.state | DISK_PRESENT;
// todo IF FAILS, TRY AGAIN LATER.
// 5000 works well with the Mac.
CyDelay(5000); // allow the card to wake up.
if (sdInit())
// Wait up to 5 seconds for the SD card to wake up.
int retry;
for (retry = 0; retry < 5; ++retry)
{
blockDev.state = blockDev.state | DISK_INITIALISED;
if (doSdInit())
{
break;
}
else
{
CyDelay(1000);
}
}
}
}

View File

@ -38,7 +38,7 @@ static const uint8 DisconnectReconnectPage[] =
static const uint8 FormatDevicePage[] =
{
x03, // Page code
0x03, // Page code
0x16, // Page length
0x00, 0x00, // Single zone
0x00, 0x00, // No alternate sectors

View File

@ -0,0 +1,451 @@
// Copyright (C) 2013 Michael McMaster <michael@codesrc.com>
//
// This file is part of SCSI2SD.
//
// SCSI2SD is free software: you can redistribute it and/or modify
// it under the terms of the GNU General Public License as published by
// the Free Software Foundation, either version 3 of the License, or
// (at your option) any later version.
//
// SCSI2SD is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU General Public License for more details.
//
// You should have received a copy of the GNU General Public License
// along with SCSI2SD. If not, see <http://www.gnu.org/licenses/>.
#include "device.h"
#include "scsi.h"
#include "disk.h"
#include "sd.h"
#include <string.h>
// Global
SdDevice sdDev;
static uint8 sdCrc7(uint8* chr, uint8 cnt, uint8 crc)
{
uint8 a;
for(a = 0; a < cnt; a++)
{
uint8 Data = chr[a];
uint8 i;
for(i = 0; i < 8; i++)
{
crc <<= 1;
if( (Data & 0x80) ^ (crc & 0x80) ) {crc ^= 0x09;}
Data <<= 1;
}
}
return crc & 0x7F;
}
// Read and write 1 byte.
static uint8 sdSpiByte(uint8 value)
{
SDCard_WriteTxData(value);
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
while (!SDCard_GetRxBufferSize()) {}
return SDCard_ReadRxData();
}
static void sdSendCommand(uint8 cmd, uint32 param)
{
uint8 send[6];
send[0] = cmd | 0x40;
send[1] = param >> 24;
send[2] = param >> 16;
send[3] = param >> 8;
send[4] = param;
send[5] = (sdCrc7(send, 5, 0) << 1) | 1;
for(cmd = 0; cmd < sizeof(send); cmd++)
{
sdSpiByte(send[cmd]);
}
}
static uint8 sdReadResp()
{
uint8 v;
uint8 i = 128;
do
{
v = sdSpiByte(0xFF);
} while(i-- && (v == 0xFF));
return v;
}
static uint8 sdWaitResp()
{
uint8 v;
uint8 i = 255;
do
{
v = sdSpiByte(0xFF);
} while(i-- && (v != 0xFE));
return v;
}
static uint8 sdCommandAndResponse(uint8 cmd, uint32 param)
{
SDCard_ClearRxBuffer();
sdSpiByte(0xFF);
sdSendCommand(cmd, param);
return sdReadResp();
}
void sdPrepareRead(int nextBlockOffset)
{
uint32 len = (transfer.lba + transfer.currentBlock + nextBlockOffset);
if (!sdDev.ccs)
{
len = len * SCSI_BLOCK_SIZE;
}
uint8 v = sdCommandAndResponse(17, len);
if (v)
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
}
}
int sdIsReadReady()
{
uint8 v = sdWaitResp();
if (v == 0xFF)
{
return 0;
}
else if (v == 0xFE)
{
return 1;
}
else
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
return 0;
}
}
void sdReadSector()
{
// We have a spi FIFO of 4 bytes. use it.
// This is much better, byut after 4 bytes we're still
// blocking a bit.
int i;
for (i = 0; i < SCSI_BLOCK_SIZE; i+=4)
{
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
SDCard_WriteTxData(0xFF);
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
scsiDev.data[i] = SDCard_ReadRxData();
scsiDev.data[i+1] = SDCard_ReadRxData();
scsiDev.data[i+2] = SDCard_ReadRxData();
scsiDev.data[i+3] = SDCard_ReadRxData();
}
sdSpiByte(0xFF); // CRC
sdSpiByte(0xFF); // CRC
scsiDev.dataLen = SCSI_BLOCK_SIZE;
scsiDev.dataPtr = 0;
}
static void sdWaitWriteBusy()
{
uint8 val;
do
{
val = sdSpiByte(0xFF);
} while (val != 0xFF);
}
int sdWriteSector()
{
int result;
// Wait for a previously-written sector to complete.
sdWaitWriteBusy();
sdSpiByte(0xFC); // MULTIPLE byte start token
int i;
for (i = 0; i < SCSI_BLOCK_SIZE; i+=4)
{
SDCard_WriteTxData(scsiDev.data[i]);
SDCard_WriteTxData(scsiDev.data[i+1]);
SDCard_WriteTxData(scsiDev.data[i+2]);
SDCard_WriteTxData(scsiDev.data[i+3]);
while(!(SDCard_ReadTxStatus() & SDCard_STS_SPI_DONE))
{}
SDCard_ReadRxData();
SDCard_ReadRxData();
SDCard_ReadRxData();
SDCard_ReadRxData();
}
sdSpiByte(0x00); // CRC
sdSpiByte(0x00); // CRC
uint8 dataToken = sdSpiByte(0xFF); // Response
if (((dataToken & 0x1F) >> 1) != 0x2) // Accepted.
{
sdWaitWriteBusy();
sdSpiByte(0xFD); // STOP TOKEN
// Wait for the card to come out of busy.
sdWaitWriteBusy();
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
result = 0;
}
else
{
// The card is probably in the busy state.
// Don't wait, as we could read the SCSI interface instead.
result = 1;
}
return result;
}
void sdCompleteWrite()
{
// Wait for a previously-written sector to complete.
sdWaitWriteBusy();
sdSpiByte(0xFD); // STOP TOKEN
// Wait for the card to come out of busy.
sdWaitWriteBusy();
uint8 r1 = sdCommandAndResponse(13, 0); // send status
uint8 r2 = sdSpiByte(0xFF);
if (r1 || r2)
{
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = WRITE_ERROR_AUTO_REALLOCATION_FAILED;
scsiDev.phase = STATUS;
}
}
// SD Version 2 (SDHC) support
static int sendIfCond()
{
int retries = 50;
do
{
uint8 status = sdCommandAndResponse(SD_SEND_IF_COND, 0x000001AA);
if (status == SD_R1_IDLE)
{
// Version 2 card.
sdDev.version = 2;
// Read 32bit response. Should contain the same bytes that
// we sent in the command parameter.
sdSpiByte(0xFF);
sdSpiByte(0xFF);
sdSpiByte(0xFF);
sdSpiByte(0xFF);
break;
}
else if (status & SD_R1_ILLEGAL)
{
// Version 1 card.
sdDev.version = 1;
break;
}
} while (--retries > 0);
return retries > 0;
}
static int sdOpCond()
{
int retries = 50;
uint8 status;
do
{
CyDelay(33); // Spec says to retry for 1 second.
sdCommandAndResponse(SD_APP_CMD, 0);
// Host Capacity Support = 1 (SDHC/SDXC supported)
status = sdCommandAndResponse(SD_APP_SEND_OP_COND, 0x40000000);
} while ((status != 0) && (--retries > 0));
return retries > 0;
}
static int sdReadOCR()
{
uint8 status = sdCommandAndResponse(SD_READ_OCR, 0);
if(status){goto bad;}
uint8 buf[4];
int i;
for (i = 0; i < 4; ++i)
{
buf[i] = sdSpiByte(0xFF);
}
sdDev.ccs = (buf[0] & 0x40) ? 1 : 0;
return 1;
bad:
return 0;
}
static int sdReadCSD()
{
uint8 status = sdCommandAndResponse(SD_SEND_CSD, 0);
if(status){goto bad;}
status = sdWaitResp();
if (status != 0xFE) { goto bad; }
uint8 buf[16];
int i;
for (i = 0; i < 16; ++i)
{
buf[i] = sdSpiByte(0xFF);
}
sdSpiByte(0xFF); // CRC
sdSpiByte(0xFF); // CRC
if ((buf[0] >> 6) == 0x00)
{
// CSD version 1
// C_SIZE in bits [73:62]
uint32 c_size = (((((uint32)buf[6]) & 0x3) << 16) | (((uint32)buf[7]) << 8) | buf[8]) >> 6;
uint32 c_mult = (((((uint32)buf[9]) & 0x3) << 8) | ((uint32)buf[0xa])) >> 7;
uint32 sectorSize = buf[5] & 0x0F;
sdDev.capacity = ((c_size+1) * ((uint64)1 << (c_mult+2)) * ((uint64)1 << sectorSize)) / SCSI_BLOCK_SIZE;
}
else if ((buf[0] >> 6) == 0x01)
{
// CSD version 2
// C_SIZE in bits [69:48]
uint32 c_size =
((((uint32)buf[7]) & 0x3F) << 16) |
(((uint32)buf[8]) << 8) |
((uint32)buf[7]);
sdDev.capacity = (c_size + 1) * 1024;
}
else
{
goto bad;
}
return 1;
bad:
return 0;
}
int sdInit()
{
sdDev.version = 0;
sdDev.ccs = 0;
sdDev.capacity = 0;
int result = 0;
SD_CS_Write(1); // Set CS inactive (active low)
SD_Init_Clk_Start(); // Turn on the slow 400KHz clock
SD_Clk_Ctl_Write(0); // Select the 400KHz clock source.
SDCard_Start(); // Enable SPI hardware
// Power on sequence. 74 clock cycles of a "1" while CS unasserted.
int i;
for (i = 0; i < 10; ++i)
{
sdSpiByte(0xFF);
}
SD_CS_Write(0); // Set CS active (active low)
CyDelayUs(1);
uint8 v = sdCommandAndResponse(SD_GO_IDLE_STATE, 0);
if(v != 1){goto bad;}
if (!sendIfCond()) goto bad; // Sets V1 or V2 flag
if (!sdOpCond()) goto bad;
if (!sdReadOCR()) goto bad;
// This command will be ignored if sdDev.ccs is set.
// SDHC and SDXC are always 512bytes.
v = sdCommandAndResponse(SD_SET_BLOCKLEN, SCSI_BLOCK_SIZE); //Force sector size
if(v){goto bad;}
v = sdCommandAndResponse(SD_CRC_ON_OFF, 0); //crc off
if(v){goto bad;}
// now set the sd card up for full speed
SD_Data_Clk_Start(); // Turn on the fast clock
SD_Clk_Ctl_Write(1); // Select the fast clock source.
SD_Init_Clk_Stop(); // Stop the slow clock.
if (!sdReadCSD()) goto bad;
result = 1;
goto out;
bad:
sdDev.capacity = 0;
out:
return result;
}
void sdPrepareWrite()
{
// Set the number of blocks to pre-erase by the multiple block write command
// We don't care about the response - if the command is not accepted, writes
// will just be a bit slower.
// Max 22bit parameter.
uint32 blocks = transfer.blocks > 0x7FFFFF ? 0x7FFFFF : transfer.blocks;
sdCommandAndResponse(SD_APP_CMD, 0);
sdCommandAndResponse(SD_APP_SET_WR_BLK_ERASE_COUNT, blocks);
uint32 len = (transfer.lba + transfer.currentBlock);
if (!sdDev.ccs)
{
len = len * SCSI_BLOCK_SIZE;
}
uint8 v = sdCommandAndResponse(25, len);
if (v)
{
scsiDiskReset();
scsiDev.status = CHECK_CONDITION;
scsiDev.sense.code = HARDWARE_ERROR;
scsiDev.sense.asc = LOGICAL_UNIT_COMMUNICATION_FAILURE;
scsiDev.phase = STATUS;
}
}

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@ -0,0 +1,63 @@
// Copyright (C) 2013 Michael McMaster <michael@codesrc.com>
//
// This file is part of SCSI2SD.
//
// SCSI2SD is free software: you can redistribute it and/or modify
// it under the terms of the GNU General Public License as published by
// the Free Software Foundation, either version 3 of the License, or
// (at your option) any later version.
//
// SCSI2SD is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU General Public License for more details.
//
// You should have received a copy of the GNU General Public License
// along with SCSI2SD. If not, see <http://www.gnu.org/licenses/>.
#ifndef SD_H
#define SD_H
typedef enum
{
SD_GO_IDLE_STATE = 0,
SD_SEND_OP_COND = 1,
SD_SEND_IF_COND = 8, // SD V2
SD_SEND_CSD = 9,
SD_SET_BLOCKLEN = 16,
SD_APP_SET_WR_BLK_ERASE_COUNT = 23,
SD_APP_SEND_OP_COND = 41,
SD_APP_CMD = 55,
SD_READ_OCR = 58,
SD_CRC_ON_OFF = 59
} SD_CMD;
typedef enum
{
SD_R1_IDLE = 1,
SD_R1_ERASE_RESET = 2,
SD_R1_ILLEGAL = 4,
SD_R1_CRC = 8,
SD_R1_ERASE_SEQ = 0x10,
SD_R1_ADDRESS = 0x20,
SD_R1_PARAMETER = 0x40
} SD_R1;
typedef struct
{
int version; // SDHC = version 2.
int ccs; // Card Capacity Status. 1 = SDHC or SDXC
int capacity; // in 512 byte blocks
} SdDevice;
extern SdDevice sdDev;
int sdInit();
void sdPrepareWrite();
int sdWriteSector();
void sdCompleteWrite();
void sdPrepareRead(int nextBlockOffset);
int sdIsReadReady();
void sdReadSector();
#endif