Merge branch 'master' of git://git.denx.de/u-boot-blackfin

This commit is contained in:
Tom Rini 2013-03-04 09:44:42 -05:00
commit c259188b20
47 changed files with 3593 additions and 397 deletions

View file

@ -1226,7 +1226,7 @@ Yoshihiro Shimoda <yoshihiro.shimoda.uh@renesas.com>
# Board CPU #
#########################################################################
Mike Frysinger <vapier@gentoo.org>
Sonic Zhang <sonic.adi@gmail.com>
Blackfin Team <u-boot-devel@blackfin.uclinux.org>
BF506F-EZKIT BF506
@ -1243,6 +1243,7 @@ Blackfin Team <u-boot-devel@blackfin.uclinux.org>
BF538F-EZKIT BF538
BF548-EZKIT BF548
BF561-EZKIT BF561
BF609-EZKIT BF609
M.Hasewinkel (MHA) <info@ssv-embedded.de>

View file

@ -68,7 +68,9 @@ void cpu_init_f(ulong bootflag, ulong loaded_from_ldr)
/* Reset upon a double exception rather than just hanging.
* Do not do bfin_read on SWRST as that will reset status bits.
*/
# ifdef SWRST
bfin_write_SWRST(DOUBLE_FAULT);
# endif
#endif
serial_early_puts("Board init flash\n");
@ -92,7 +94,7 @@ int irq_init(void)
#elif defined(SICA_IMASK0)
bfin_write_SICA_IMASK0(0);
bfin_write_SICA_IMASK1(0);
#else
#elif defined(SIC_IMASK)
bfin_write_SIC_IMASK(0);
#endif
/* Set up a dummy NMI handler if needed. */

View file

@ -66,6 +66,14 @@ static struct gpio_port_t * const gpio_array[] = {
(struct gpio_port_t *)PORTH_FER,
(struct gpio_port_t *)PORTI_FER,
(struct gpio_port_t *)PORTJ_FER,
#elif defined(CONFIG_BF60x)
(struct gpio_port_t *)PORTA_FER,
(struct gpio_port_t *)PORTB_FER,
(struct gpio_port_t *)PORTC_FER,
(struct gpio_port_t *)PORTD_FER,
(struct gpio_port_t *)PORTE_FER,
(struct gpio_port_t *)PORTF_FER,
(struct gpio_port_t *)PORTG_FER,
#else
# error no gpio arrays defined
#endif
@ -216,6 +224,12 @@ static void port_setup(unsigned gpio, unsigned short usage)
else
gpio_array[gpio_bank(gpio)]->port_fer |= gpio_bit(gpio);
SSYNC();
#elif defined(CONFIG_BF60x)
if (usage == GPIO_USAGE)
gpio_array[gpio_bank(gpio)]->port_fer_clear = gpio_bit(gpio);
else
gpio_array[gpio_bank(gpio)]->port_fer_set = gpio_bit(gpio);
SSYNC();
#endif
}
@ -290,7 +304,7 @@ static void portmux_setup(unsigned short per)
}
}
}
#elif defined(CONFIG_BF54x)
#elif defined(CONFIG_BF54x) || defined(CONFIG_BF60x)
inline void portmux_setup(unsigned short per)
{
u32 pmux;
@ -330,7 +344,7 @@ inline void portmux_setup(unsigned short per)
# define portmux_setup(...) do { } while (0)
#endif
#ifndef CONFIG_BF54x
#if !defined(CONFIG_BF54x) && !defined(CONFIG_BF60x)
/***********************************************************
*
* FUNCTIONS: Blackfin General Purpose Ports Access Functions
@ -534,7 +548,7 @@ int peripheral_request(unsigned short per, const char *label)
* be requested and used by several drivers
*/
#ifdef CONFIG_BF54x
#if defined(CONFIG_BF54x) || defined(CONFIG_BF60x)
if (!((per & P_MAYSHARE) && get_portmux(per) == P_FUNCT2MUX(per))) {
#else
if (!(per & P_MAYSHARE)) {
@ -651,7 +665,7 @@ int bfin_gpio_request(unsigned gpio, const char *label)
gpio, get_label(gpio));
return -EBUSY;
}
#ifndef CONFIG_BF54x
#if !defined(CONFIG_BF54x) && !defined(CONFIG_BF60x)
else { /* Reset POLAR setting when acquiring a gpio for the first time */
set_gpio_polar(gpio, 0);
}
@ -732,12 +746,16 @@ void bfin_special_gpio_free(unsigned gpio)
static inline void __bfin_gpio_direction_input(unsigned gpio)
{
#ifdef CONFIG_BF54x
#if defined(CONFIG_BF54x) || defined(CONFIG_BF60x)
gpio_array[gpio_bank(gpio)]->dir_clear = gpio_bit(gpio);
#else
gpio_array[gpio_bank(gpio)]->dir &= ~gpio_bit(gpio);
#endif
#if defined(CONFIG_BF60x)
gpio_array[gpio_bank(gpio)]->inen_set = gpio_bit(gpio);
#else
gpio_array[gpio_bank(gpio)]->inen |= gpio_bit(gpio);
#endif
}
int bfin_gpio_direction_input(unsigned gpio)
@ -785,9 +803,13 @@ int bfin_gpio_direction_output(unsigned gpio, int value)
local_irq_save(flags);
#if defined(CONFIG_BF60x)
gpio_array[gpio_bank(gpio)]->inen_clear = gpio_bit(gpio);
#else
gpio_array[gpio_bank(gpio)]->inen &= ~gpio_bit(gpio);
#endif
gpio_set_value(gpio, value);
#ifdef CONFIG_BF54x
#if defined(CONFIG_BF54x) || defined(CONFIG_BF60x)
gpio_array[gpio_bank(gpio)]->dir_set = gpio_bit(gpio);
#else
gpio_array[gpio_bank(gpio)]->dir |= gpio_bit(gpio);
@ -801,7 +823,7 @@ int bfin_gpio_direction_output(unsigned gpio, int value)
int bfin_gpio_get_value(unsigned gpio)
{
#ifdef CONFIG_BF54x
#if defined(CONFIG_BF54x) || defined(CONFIG_BF60x)
return (1 & (gpio_array[gpio_bank(gpio)]->data >> gpio_sub_n(gpio)));
#else
unsigned long flags;

View file

@ -15,20 +15,141 @@
#include <asm/blackfin.h>
#include <asm/mach-common/bits/bootrom.h>
#include <asm/mach-common/bits/core.h>
#include <asm/mach-common/bits/ebiu.h>
#include <asm/mach-common/bits/pll.h>
#include <asm/mach-common/bits/uart.h>
#define BUG() while (1) { asm volatile("emuexcpt;"); }
#include "serial.h"
#ifndef __ADSPBF60x__
#include <asm/mach-common/bits/ebiu.h>
#include <asm/mach-common/bits/pll.h>
#else /* __ADSPBF60x__ */
#include <asm/mach-common/bits/cgu.h>
#define CONFIG_BFIN_GET_DCLK_M \
((CONFIG_CLKIN_HZ*CONFIG_VCO_MULT)/(CONFIG_DCLK_DIV*1000000))
#ifndef CONFIG_DMC_DDRCFG
#if ((CONFIG_BFIN_GET_DCLK_M != 125) && \
(CONFIG_BFIN_GET_DCLK_M != 133) && \
(CONFIG_BFIN_GET_DCLK_M != 150) && \
(CONFIG_BFIN_GET_DCLK_M != 166) && \
(CONFIG_BFIN_GET_DCLK_M != 200) && \
(CONFIG_BFIN_GET_DCLK_M != 225) && \
(CONFIG_BFIN_GET_DCLK_M != 250))
#error "DDR2 CLK must be in (125, 133, 150, 166, 200, 225, 250)MHz"
#endif
#endif
/* DMC control bits */
#define SRREQ 0x8
/* DMC status bits */
#define IDLE 0x1
#define MEMINITDONE 0x4
#define SRACK 0x8
#define PDACK 0x10
#define DPDACK 0x20
#define DLLCALDONE 0x2000
#define PENDREF 0xF0000
#define PHYRDPHASE 0xF00000
#define PHYRDPHASE_OFFSET 20
/* DMC DLL control bits */
#define DLLCALRDCNT 0xFF
#define DATACYC_OFFSET 8
struct ddr_config {
u32 ddr_clk;
u32 dmc_ddrctl;
u32 dmc_ddrcfg;
u32 dmc_ddrtr0;
u32 dmc_ddrtr1;
u32 dmc_ddrtr2;
u32 dmc_ddrmr;
u32 dmc_ddrmr1;
};
static struct ddr_config ddr_config_table[] = {
[0] = {
.ddr_clk = 125, /* 125MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20705212,
.dmc_ddrtr1 = 0x201003CF,
.dmc_ddrtr2 = 0x00320107,
.dmc_ddrmr = 0x00000422,
.dmc_ddrmr1 = 0x4,
},
[1] = {
.ddr_clk = 133, /* 133MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20806313,
.dmc_ddrtr1 = 0x2013040D,
.dmc_ddrtr2 = 0x00320108,
.dmc_ddrmr = 0x00000632,
.dmc_ddrmr1 = 0x4,
},
[2] = {
.ddr_clk = 150, /* 150MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20A07323,
.dmc_ddrtr1 = 0x20160492,
.dmc_ddrtr2 = 0x00320209,
.dmc_ddrmr = 0x00000632,
.dmc_ddrmr1 = 0x4,
},
[3] = {
.ddr_clk = 166, /* 166MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20A07323,
.dmc_ddrtr1 = 0x2016050E,
.dmc_ddrtr2 = 0x00320209,
.dmc_ddrmr = 0x00000632,
.dmc_ddrmr1 = 0x4,
},
[4] = {
.ddr_clk = 200, /* 200MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20a07323,
.dmc_ddrtr1 = 0x2016050f,
.dmc_ddrtr2 = 0x00320509,
.dmc_ddrmr = 0x00000632,
.dmc_ddrmr1 = 0x4,
},
[5] = {
.ddr_clk = 225, /* 225MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20E0A424,
.dmc_ddrtr1 = 0x302006DB,
.dmc_ddrtr2 = 0x0032020D,
.dmc_ddrmr = 0x00000842,
.dmc_ddrmr1 = 0x4,
},
[6] = {
.ddr_clk = 250, /* 250MHz */
.dmc_ddrctl = 0x00000904,
.dmc_ddrcfg = 0x00000422,
.dmc_ddrtr0 = 0x20E0A424,
.dmc_ddrtr1 = 0x3020079E,
.dmc_ddrtr2 = 0x0032050D,
.dmc_ddrmr = 0x00000842,
.dmc_ddrmr1 = 0x4,
},
};
#endif /* __ADSPBF60x__ */
__attribute__((always_inline))
static inline void serial_init(void)
{
uint32_t uart_base = UART_DLL;
uint32_t uart_base = UART_BASE;
#ifdef __ADSPBF54x__
#if defined(__ADSPBF54x__) || defined(__ADSPBF60x__)
# ifdef BFIN_BOOT_UART_USE_RTS
# define BFIN_UART_USE_RTS 1
# else
@ -38,7 +159,12 @@ static inline void serial_init(void)
size_t i;
/* force RTS rather than relying on auto RTS */
#if BFIN_UART_HW_VER < 4
bfin_write16(&pUART->mcr, bfin_read16(&pUART->mcr) | FCPOL);
#else
bfin_write32(&pUART->control, bfin_read32(&pUART->control) |
FCPOL);
#endif
/* Wait for the line to clear up. We cannot rely on UART
* registers as none of them reflect the status of the RSR.
@ -68,13 +194,14 @@ static inline void serial_init(void)
#endif
if (BFIN_DEBUG_EARLY_SERIAL) {
int ucen = bfin_read16(&pUART->gctl) & UCEN;
int enabled = serial_early_enabled(uart_base);
serial_early_init(uart_base);
/* If the UART is off, that means we need to program
* the baud rate ourselves initially.
*/
if (ucen != UCEN)
if (!enabled)
serial_early_set_baud(uart_base, CONFIG_BAUDRATE);
}
}
@ -82,12 +209,17 @@ static inline void serial_init(void)
__attribute__((always_inline))
static inline void serial_deinit(void)
{
#ifdef __ADSPBF54x__
uint32_t uart_base = UART_DLL;
#if defined(__ADSPBF54x__) || defined(__ADSPBF60x__)
uint32_t uart_base = UART_BASE;
if (BFIN_UART_USE_RTS && CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_UART) {
/* clear forced RTS rather than relying on auto RTS */
#if BFIN_UART_HW_VER < 4
bfin_write16(&pUART->mcr, bfin_read16(&pUART->mcr) & ~FCPOL);
#else
bfin_write32(&pUART->control, bfin_read32(&pUART->control) &
~FCPOL);
#endif
}
#endif
}
@ -95,7 +227,7 @@ static inline void serial_deinit(void)
__attribute__((always_inline))
static inline void serial_putc(char c)
{
uint32_t uart_base = UART_DLL;
uint32_t uart_base = UART_BASE;
if (!BFIN_DEBUG_EARLY_SERIAL)
return;
@ -103,9 +235,9 @@ static inline void serial_putc(char c)
if (c == '\n')
serial_putc('\r');
bfin_write16(&pUART->thr, c);
bfin_write(&pUART->thr, c);
while (!(bfin_read16(&pUART->lsr) & TEMT))
while (!(_lsr_read(pUART) & TEMT))
continue;
}
@ -152,6 +284,24 @@ program_nmi_handler(void)
# define bfin_write_SPI_BAUD bfin_write_SPI0_BAUD
#endif
#ifdef __ADSPBF60x__
#ifndef CONFIG_CGU_CTL_VAL
# define CONFIG_CGU_CTL_VAL ((CONFIG_VCO_MULT << 8) | CONFIG_CLKIN_HALF)
#endif
#ifndef CONFIG_CGU_DIV_VAL
# define CONFIG_CGU_DIV_VAL \
((CONFIG_CCLK_DIV << CSEL_P) | \
(CONFIG_SCLK0_DIV << S0SEL_P) | \
(CONFIG_SCLK_DIV << SYSSEL_P) | \
(CONFIG_SCLK1_DIV << S1SEL_P) | \
(CONFIG_DCLK_DIV << DSEL_P) | \
(CONFIG_OCLK_DIV << OSEL_P))
#endif
#else /* __ADSPBF60x__ */
/* PLL_DIV defines */
#ifndef CONFIG_PLL_DIV_VAL
# if (CONFIG_CCLK_DIV == 1)
@ -275,6 +425,8 @@ program_nmi_handler(void)
# endif
#endif
#endif /* __ADSPBF60x__ */
__attribute__((always_inline)) static inline void
program_early_devices(ADI_BOOT_DATA *bs, uint *sdivB, uint *divB, uint *vcoB)
{
@ -283,8 +435,14 @@ program_early_devices(ADI_BOOT_DATA *bs, uint *sdivB, uint *divB, uint *vcoB)
/* Save the clock pieces that are used in baud rate calculation */
if (BFIN_DEBUG_EARLY_SERIAL || CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_UART) {
serial_putc('b');
#ifdef __ADSPBF60x__
*sdivB = bfin_read_CGU_DIV();
*sdivB = ((*sdivB >> 8) & 0x1f) * ((*sdivB >> 5) & 0x7);
*vcoB = (bfin_read_CGU_CTL() >> 8) & 0x7f;
#else
*sdivB = bfin_read_PLL_DIV() & 0xf;
*vcoB = (bfin_read_PLL_CTL() >> 9) & 0x3f;
#endif
*divB = serial_early_get_div();
serial_putc('c');
}
@ -303,8 +461,21 @@ program_early_devices(ADI_BOOT_DATA *bs, uint *sdivB, uint *divB, uint *vcoB)
*/
if (CONFIG_BFIN_BOOT_MODE != BFIN_BOOT_BYPASS) {
serial_putc('e');
#ifdef __ADSPBF60x__
bfin_write_SEC_GCTL(0x2);
SSYNC();
bfin_write_SEC_FCTL(0xc1);
bfin_write_SEC_SCTL(2, bfin_read_SEC_SCTL(2) | 0x6);
bfin_write_SEC_CCTL(0x2);
SSYNC();
bfin_write_SEC_GCTL(0x1);
bfin_write_SEC_CCTL(0x1);
#endif
bfin_write_WDOG_CNT(MSEC_TO_SCLK(CONFIG_HW_WATCHDOG_TIMEOUT_INITCODE));
#if CONFIG_BFIN_BOOT_MODE != BFIN_BOOT_UART
bfin_write_WDOG_CTL(0);
#endif
serial_putc('f');
}
#endif
@ -316,6 +487,7 @@ program_early_devices(ADI_BOOT_DATA *bs, uint *sdivB, uint *divB, uint *vcoB)
* boot. Once we switch over to u-boot's SPI flash driver, we'll
* increase the speed appropriately.
*/
#ifdef SPI_BAUD
if (CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_SPI_MASTER) {
serial_putc('h');
if (BOOTROM_SUPPORTS_SPI_FAST_READ && CONFIG_SPI_BAUD_INITBLOCK < 4)
@ -323,6 +495,7 @@ program_early_devices(ADI_BOOT_DATA *bs, uint *sdivB, uint *divB, uint *vcoB)
bfin_write_SPI_BAUD(CONFIG_SPI_BAUD_INITBLOCK);
serial_putc('i');
}
#endif
serial_putc('j');
}
@ -335,6 +508,15 @@ maybe_self_refresh(ADI_BOOT_DATA *bs)
if (!CONFIG_MEM_SIZE)
return false;
#ifdef __ADSPBF60x__
/* resume from hibernate, return false let ddr initialize */
if ((bfin_read32(DPM0_STAT) & 0xF0) == 0x50) {
serial_putc('b');
return false;
}
#else /* __ADSPBF60x__ */
/* If external memory is enabled, put it into self refresh first. */
#if defined(EBIU_RSTCTL)
if (bfin_read_EBIU_RSTCTL() & DDR_SRESET) {
@ -350,6 +532,7 @@ maybe_self_refresh(ADI_BOOT_DATA *bs)
}
#endif
#endif /* __ADSPBF60x__ */
serial_putc('c');
return false;
@ -362,6 +545,37 @@ program_clocks(ADI_BOOT_DATA *bs, bool put_into_srfs)
serial_putc('a');
#ifdef __ADSPBF60x__
if (bfin_read_DMC0_STAT() & MEMINITDONE) {
bfin_write_DMC0_CTL(bfin_read_DMC0_CTL() | SRREQ);
SSYNC();
while (!(bfin_read_DMC0_STAT() & SRACK))
continue;
}
/* Don't set the same value of MSEL and DF to CGU_CTL */
if ((bfin_read_CGU_CTL() & (MSEL_MASK | DF_MASK))
!= CONFIG_CGU_CTL_VAL) {
bfin_write_CGU_DIV(CONFIG_CGU_DIV_VAL);
bfin_write_CGU_CTL(CONFIG_CGU_CTL_VAL);
while ((bfin_read_CGU_STAT() & (CLKSALGN | PLLBP)) ||
!(bfin_read_CGU_STAT() & PLLLK))
continue;
}
bfin_write_CGU_DIV(CONFIG_CGU_DIV_VAL | UPDT);
while (bfin_read_CGU_STAT() & CLKSALGN)
continue;
if (bfin_read_DMC0_STAT() & MEMINITDONE) {
bfin_write_DMC0_CTL(bfin_read_DMC0_CTL() & ~SRREQ);
SSYNC();
while (bfin_read_DMC0_STAT() & SRACK)
continue;
}
#else /* __ADSPBF60x__ */
vr_ctl = bfin_read_VR_CTL();
serial_putc('b');
@ -433,7 +647,7 @@ program_clocks(ADI_BOOT_DATA *bs, bool put_into_srfs)
#elif defined(SICA_IWR0)
bfin_write_SICA_IWR0(1);
bfin_write_SICA_IWR1(0);
#else
#elif defined(SIC_IWR)
bfin_write_SIC_IWR(1);
#endif
@ -482,13 +696,15 @@ program_clocks(ADI_BOOT_DATA *bs, bool put_into_srfs)
#elif defined(SICA_IWR0)
bfin_write_SICA_IWR0(-1);
bfin_write_SICA_IWR1(-1);
#else
#elif defined(SIC_IWR)
bfin_write_SIC_IWR(-1);
#endif
serial_putc('n');
}
#endif /* __ADSPBF60x__ */
serial_putc('o');
return vr_ctl;
@ -505,16 +721,25 @@ update_serial_clocks(ADI_BOOT_DATA *bs, uint sdivB, uint divB, uint vcoB)
* for dividing which means we'd generate a libgcc reference.
*/
if (CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_UART) {
serial_putc('b');
unsigned int sdivR, vcoR;
sdivR = bfin_read_PLL_DIV() & 0xf;
vcoR = (bfin_read_PLL_CTL() >> 9) & 0x3f;
int dividend = sdivB * divB * vcoR;
int divisor = vcoB * sdivR;
unsigned int quotient;
serial_putc('b');
#ifdef __ADSPBF60x__
sdivR = bfin_read_CGU_DIV();
sdivR = ((sdivR >> 8) & 0x1f) * ((sdivR >> 5) & 0x7);
vcoR = (bfin_read_CGU_CTL() >> 8) & 0x7f;
#else
sdivR = bfin_read_PLL_DIV() & 0xf;
vcoR = (bfin_read_PLL_CTL() >> 9) & 0x3f;
#endif
for (quotient = 0; dividend > 0; ++quotient)
dividend -= divisor;
serial_early_put_div(UART_DLL, quotient - ANOMALY_05000230);
serial_early_put_div(quotient - ANOMALY_05000230);
serial_putc('c');
}
@ -531,6 +756,85 @@ program_memory_controller(ADI_BOOT_DATA *bs, bool put_into_srfs)
serial_putc('b');
#ifdef __ADSPBF60x__
int dlldatacycle;
int dll_ctl;
int i = 0;
if (CONFIG_BFIN_GET_DCLK_M == 125)
i = 0;
else if (CONFIG_BFIN_GET_DCLK_M == 133)
i = 1;
else if (CONFIG_BFIN_GET_DCLK_M == 150)
i = 2;
else if (CONFIG_BFIN_GET_DCLK_M == 166)
i = 3;
else if (CONFIG_BFIN_GET_DCLK_M == 200)
i = 4;
else if (CONFIG_BFIN_GET_DCLK_M == 225)
i = 5;
else if (CONFIG_BFIN_GET_DCLK_M == 250)
i = 6;
#if 0
for (i = 0; i < ARRAY_SIZE(ddr_config_table); i++)
if (CONFIG_BFIN_GET_DCLK_M == ddr_config_table[i].ddr_clk)
break;
#endif
#ifndef CONFIG_DMC_DDRCFG
bfin_write_DMC0_CFG(ddr_config_table[i].dmc_ddrcfg);
#else
bfin_write_DMC0_CFG(CONFIG_DMC_DDRCFG);
#endif
#ifndef CONFIG_DMC_DDRTR0
bfin_write_DMC0_TR0(ddr_config_table[i].dmc_ddrtr0);
#else
bfin_write_DMC0_TR0(CONFIG_DMC_DDRTR0);
#endif
#ifndef CONFIG_DMC_DDRTR1
bfin_write_DMC0_TR1(ddr_config_table[i].dmc_ddrtr1);
#else
bfin_write_DMC0_TR1(CONFIG_DMC_DDRTR1);
#endif
#ifndef CONFIG_DMC_DDRTR2
bfin_write_DMC0_TR2(ddr_config_table[i].dmc_ddrtr2);
#else
bfin_write_DMC0_TR2(CONFIG_DMC_DDRTR2);
#endif
#ifndef CONFIG_DMC_DDRMR
bfin_write_DMC0_MR(ddr_config_table[i].dmc_ddrmr);
#else
bfin_write_DMC0_MR(CONFIG_DMC_DDRMR);
#endif
#ifndef CONFIG_DMC_DDREMR1
bfin_write_DMC0_EMR1(ddr_config_table[i].dmc_ddrmr1);
#else
bfin_write_DMC0_EMR1(CONFIG_DMC_DDREMR1);
#endif
#ifndef CONFIG_DMC_DDRCTL
bfin_write_DMC0_CTL(ddr_config_table[i].dmc_ddrctl);
#else
bfin_write_DMC0_CTL(CONFIG_DMC_DDRCTL);
#endif
SSYNC();
while (!(bfin_read_DMC0_STAT() & MEMINITDONE))
continue;
dlldatacycle = (bfin_read_DMC0_STAT() & PHYRDPHASE) >>
PHYRDPHASE_OFFSET;
dll_ctl = bfin_read_DMC0_DLLCTL();
dll_ctl &= 0x0ff;
bfin_write_DMC0_DLLCTL(dll_ctl | (dlldatacycle << DATACYC_OFFSET));
SSYNC();
while (!(bfin_read_DMC0_STAT() & DLLCALDONE))
continue;
serial_putc('!');
#else /* __ADSPBF60x__ */
/* Program the external memory controller before we come out of
* self-refresh. This only works with our SDRAM controller.
*/
@ -583,6 +887,7 @@ program_memory_controller(ADI_BOOT_DATA *bs, bool put_into_srfs)
# endif
#endif
#endif /* __ADSPBF60x__ */
serial_putc('e');
}
@ -595,7 +900,46 @@ check_hibernation(ADI_BOOT_DATA *bs, u16 vr_ctl, bool put_into_srfs)
return;
serial_putc('b');
#ifdef __ADSPBF60x__
if (bfin_read32(DPM0_RESTORE0) != 0) {
uint32_t reg = bfin_read_DMC0_CTL();
reg &= ~0x8;
bfin_write_DMC0_CTL(reg);
while ((bfin_read_DMC0_STAT() & 0x8))
continue;
while (!(bfin_read_DMC0_STAT() & 0x1))
continue;
serial_putc('z');
uint32_t *hibernate_magic = bfin_read32(DPM0_RESTORE4);
SSYNC(); /* make sure memory controller is done */
if (hibernate_magic[0] == 0xDEADBEEF) {
serial_putc('c');
SSYNC();
bfin_write_EVT15(hibernate_magic[1]);
bfin_write_IMASK(EVT_IVG15);
__asm__ __volatile__ (
/* load reti early to avoid anomaly 281 */
"reti = %2;"
/* clear hibernate magic */
"[%0] = %1;"
/* load stack pointer */
"SP = [%0 + 8];"
/* lower ourselves from reset ivg to ivg15 */
"raise 15;"
"nop;nop;nop;"
"rti;"
:
: "p"(hibernate_magic),
"d"(0x2000 /* jump.s 0 */),
"d"(0xffa00000)
);
}
}
#else
/* Are we coming out of hibernate (suspend to memory) ?
* The memory layout is:
* 0x0: hibernate magic for anomaly 307 (0xDEADBEEF)
@ -606,7 +950,8 @@ check_hibernation(ADI_BOOT_DATA *bs, u16 vr_ctl, bool put_into_srfs)
*/
if (ANOMALY_05000307 || vr_ctl & 0x8000) {
uint32_t *hibernate_magic = 0;
__builtin_bfin_ssync(); /* make sure memory controller is done */
SSYNC();
if (hibernate_magic[0] == 0xDEADBEEF) {
serial_putc('c');
bfin_write_EVT15(hibernate_magic[1]);
@ -627,6 +972,7 @@ check_hibernation(ADI_BOOT_DATA *bs, u16 vr_ctl, bool put_into_srfs)
}
serial_putc('d');
}
#endif
serial_putc('e');
}

View file

@ -15,6 +15,8 @@
# define serial_putc(c)
#endif
#ifndef __ADSPBF60x__
#ifndef CONFIG_EBIU_RSTCTL_VAL
# define CONFIG_EBIU_RSTCTL_VAL 0 /* only MDDRENABLE is useful */
#endif
@ -30,6 +32,8 @@
# error invalid EBIU_DDRQUE value: must not set reserved bits
#endif
#endif /* __ADSPBF60x__ */
__attribute__((always_inline)) static inline void
program_async_controller(ADI_BOOT_DATA *bs)
{
@ -45,10 +49,13 @@ program_async_controller(ADI_BOOT_DATA *bs)
serial_putc('a');
#ifdef __ADSPBF60x__
/* Program the async banks controller. */
#ifdef EBIU_AMGCTL
bfin_write_EBIU_AMBCTL0(CONFIG_EBIU_AMBCTL0_VAL);
bfin_write_EBIU_AMBCTL1(CONFIG_EBIU_AMBCTL1_VAL);
bfin_write_EBIU_AMGCTL(CONFIG_EBIU_AMGCTL_VAL);
#endif
serial_putc('b');
@ -66,6 +73,51 @@ program_async_controller(ADI_BOOT_DATA *bs)
#endif
serial_putc('c');
#else /* __ADSPBF60x__ */
/* Program the static memory controller. */
# ifdef CONFIG_SMC_GCTL_VAL
bfin_write_SMC_GCTL(CONFIG_SMC_GCTL_VAL);
# endif
# ifdef CONFIG_SMC_B0CTL_VAL
bfin_write_SMC_B0CTL(CONFIG_SMC_B0CTL_VAL);
# endif
# ifdef CONFIG_SMC_B0TIM_VAL
bfin_write_SMC_B0TIM(CONFIG_SMC_B0TIM_VAL);
# endif
# ifdef CONFIG_SMC_B0ETIM_VAL
bfin_write_SMC_B0ETIM(CONFIG_SMC_B0ETIM_VAL);
# endif
# ifdef CONFIG_SMC_B1CTL_VAL
bfin_write_SMC_B1CTL(CONFIG_SMC_B1CTL_VAL);
# endif
# ifdef CONFIG_SMC_B1TIM_VAL
bfin_write_SMC_B1TIM(CONFIG_SMC_B1TIM_VAL);
# endif
# ifdef CONFIG_SMC_B1ETIM_VAL
bfin_write_SMC_B1ETIM(CONFIG_SMC_B1ETIM_VAL);
# endif
# ifdef CONFIG_SMC_B2CTL_VAL
bfin_write_SMC_B2CTL(CONFIG_SMC_B2CTL_VAL);
# endif
# ifdef CONFIG_SMC_B2TIM_VAL
bfin_write_SMC_B2TIM(CONFIG_SMC_B2TIM_VAL);
# endif
# ifdef CONFIG_SMC_B2ETIM_VAL
bfin_write_SMC_B2ETIM(CONFIG_SMC_B2ETIM_VAL);
# endif
# ifdef CONFIG_SMC_B3CTL_VAL
bfin_write_SMC_B3CTL(CONFIG_SMC_B3CTL_VAL);
# endif
# ifdef CONFIG_SMC_B3TIM_VAL
bfin_write_SMC_B3TIM(CONFIG_SMC_B3TIM_VAL);
# endif
# ifdef CONFIG_SMC_B3ETIM_VAL
bfin_write_SMC_B3ETIM(CONFIG_SMC_B3ETIM_VAL);
# endif
#endif
serial_putc('d');
}
#endif

View file

@ -23,6 +23,7 @@
__attribute__ ((__l1_text__, __noreturn__))
static void bfin_reset(void)
{
#ifdef SWRST
/* Wait for completion of "system" events such as cache line
* line fills so that we avoid infinite stalls later on as
* much as possible. This code is in L1, so it won't trigger
@ -66,10 +67,15 @@ static void bfin_reset(void)
: "a" (15 * 1)
: "LC1", "LB1", "LT1"
);
#endif
while (1)
#if defined(__ADSPBF60x__)
bfin_write_RCU0_CTL(0x1);
#else
/* Issue core reset */
asm("raise 1");
#endif
}
/* We need to trampoline ourselves up into L1 since our linker

View file

@ -43,7 +43,6 @@
#include <serial.h>
#include <linux/compiler.h>
#include <asm/blackfin.h>
#include <asm/mach-common/bits/uart.h>
DECLARE_GLOBAL_DATA_PTR;
@ -52,8 +51,8 @@ DECLARE_GLOBAL_DATA_PTR;
#include "serial.h"
#ifdef CONFIG_DEBUG_SERIAL
static uint16_t cached_lsr[256];
static uint16_t cached_rbr[256];
static uart_lsr_t cached_lsr[256];
static uart_lsr_t cached_rbr[256];
static size_t cache_count;
/* The LSR is read-to-clear on some parts, so we have to make sure status
@ -61,10 +60,10 @@ static size_t cache_count;
* works around anomaly 05000099 at the same time by keeping a cumulative
* tally of all the status bits.
*/
static uint16_t uart_lsr_save;
static uint16_t uart_lsr_read(uint32_t uart_base)
static uart_lsr_t uart_lsr_save;
static uart_lsr_t uart_lsr_read(uint32_t uart_base)
{
uint16_t lsr = bfin_read(&pUART->lsr);
uart_lsr_t lsr = _lsr_read(pUART);
uart_lsr_save |= (lsr & (OE|PE|FE|BI));
return lsr | uart_lsr_save;
}
@ -72,20 +71,20 @@ static uint16_t uart_lsr_read(uint32_t uart_base)
static void uart_lsr_clear(uint32_t uart_base)
{
uart_lsr_save = 0;
bfin_write(&pUART->lsr, bfin_read(&pUART->lsr) | -1);
_lsr_write(pUART, -1);
}
#else
/* When debugging is disabled, we only care about the DR bit, so if other
* bits get set/cleared, we don't really care since we don't read them
* anyways (and thus anomaly 05000099 is irrelevant).
*/
static inline uint16_t uart_lsr_read(uint32_t uart_base)
static inline uart_lsr_t uart_lsr_read(uint32_t uart_base)
{
return bfin_read(&pUART->lsr);
return _lsr_read(pUART);
}
static void uart_lsr_clear(uint32_t uart_base)
{
bfin_write(&pUART->lsr, bfin_read(&pUART->lsr) | -1);
_lsr_write(pUART, -1);
}
#endif
@ -127,20 +126,14 @@ static int uart_getc(uint32_t uart_base)
#ifdef CONFIG_DEBUG_SERIAL
/* grab & clear the LSR */
uint16_t uart_lsr_val = uart_lsr_read(uart_base);
uart_lsr_t uart_lsr_val = uart_lsr_read(uart_base);
cached_lsr[cache_count] = uart_lsr_val;
cached_rbr[cache_count] = uart_rbr_val;
cache_count = (cache_count + 1) % ARRAY_SIZE(cached_lsr);
if (uart_lsr_val & (OE|PE|FE|BI)) {
uint16_t dll, dlh;
printf("\n[SERIAL ERROR]\n");
ACCESS_LATCH();
dll = bfin_read(&pUART->dll);
dlh = bfin_read(&pUART->dlh);
ACCESS_PORT_IER();
printf("\tDLL=0x%x DLH=0x%x\n", dll, dlh);
do {
--cache_count;
printf("\t%3zu: RBR=0x%02x LSR=0x%02x\n", cache_count,
@ -160,6 +153,8 @@ static int uart_getc(uint32_t uart_base)
# define LOOP(x)
#endif
#if BFIN_UART_HW_VER < 4
LOOP(
static void uart_loop(uint32_t uart_base, int state)
{
@ -178,6 +173,28 @@ static void uart_loop(uint32_t uart_base, int state)
}
)
#else
LOOP(
static void uart_loop(uint32_t uart_base, int state)
{
u32 control;
/* Drain the TX fifo first so bytes don't come back */
while (!(uart_lsr_read(uart_base) & TEMT))
continue;
control = bfin_read(&pUART->control);
if (state)
control |= LOOP_ENA | MRTS;
else
control &= ~(LOOP_ENA | MRTS);
bfin_write(&pUART->control, control);
}
)
#endif
#ifdef CONFIG_SYS_BFIN_UART
static void uart_puts(uint32_t uart_base, const char *s)
@ -246,16 +263,16 @@ struct serial_device bfin_serial##n##_device = { \
LOOP(.loop = uart##n##_loop) \
};
#ifdef UART0_DLL
#ifdef UART0_RBR
DECL_BFIN_UART(0)
#endif
#ifdef UART1_DLL
#ifdef UART1_RBR
DECL_BFIN_UART(1)
#endif
#ifdef UART2_DLL
#ifdef UART2_RBR
DECL_BFIN_UART(2)
#endif
#ifdef UART3_DLL
#ifdef UART3_RBR
DECL_BFIN_UART(3)
#endif
@ -274,16 +291,16 @@ __weak struct serial_device *default_serial_console(void)
void bfin_serial_initialize(void)
{
#ifdef UART0_DLL
#ifdef UART0_RBR
serial_register(&bfin_serial0_device);
#endif
#ifdef UART1_DLL
#ifdef UART1_RBR
serial_register(&bfin_serial1_device);
#endif
#ifdef UART2_DLL
#ifdef UART2_RBR
serial_register(&bfin_serial2_device);
#endif
#ifdef UART3_DLL
#ifdef UART3_RBR
serial_register(&bfin_serial3_device);
#endif
}
@ -293,7 +310,7 @@ void bfin_serial_initialize(void)
/* Symbol for our assembly to call. */
void serial_set_baud(uint32_t baud)
{
serial_early_set_baud(UART_DLL, baud);
serial_early_set_baud(UART_BASE, baud);
}
/* Symbol for common u-boot code to call.
@ -307,7 +324,7 @@ void serial_setbrg(void)
/* Symbol for our assembly to call. */
void serial_initialize(void)
{
serial_early_init(UART_DLL);
serial_early_init(UART_BASE);
}
/* Symbol for common u-boot code to call. */
@ -315,23 +332,23 @@ int serial_init(void)
{
serial_initialize();
serial_setbrg();
uart_lsr_clear(UART_DLL);
uart_lsr_clear(UART_BASE);
return 0;
}
int serial_tstc(void)
{
return uart_tstc(UART_DLL);
return uart_tstc(UART_BASE);
}
int serial_getc(void)
{
return uart_getc(UART_DLL);
return uart_getc(UART_BASE);
}
void serial_putc(const char c)
{
uart_putc(UART_DLL, c);
uart_putc(UART_BASE, c);
}
void serial_puts(const char *s)
@ -343,7 +360,7 @@ void serial_puts(const char *s)
LOOP(
void serial_loop(int state)
{
uart_loop(UART_DLL, state);
uart_loop(UART_BASE, state);
}
)

View file

@ -3,7 +3,7 @@
* any functions defined here must be always_inline since
* initcode cannot have function calls.
*
* Copyright (c) 2004-2007 Analog Devices Inc.
* Copyright (c) 2004-2011 Analog Devices Inc.
*
* Licensed under the GPL-2 or later.
*/
@ -12,7 +12,7 @@
#define __BFIN_CPU_SERIAL_H__
#include <asm/blackfin.h>
#include <asm/mach-common/bits/uart.h>
#include <asm/portmux.h>
#ifndef CONFIG_UART_CONSOLE
# define CONFIG_UART_CONSOLE 0
@ -24,88 +24,34 @@
# define BFIN_DEBUG_EARLY_SERIAL 0
#endif
#ifndef __ASSEMBLY__
#include <asm/portmux.h>
#define LOB(x) ((x) & 0xFF)
#define HIB(x) (((x) >> 8) & 0xFF)
#if defined(__ADSPBF50x__) || defined(__ADSPBF54x__)
#if defined(__ADSPBF60x__)
# define BFIN_UART_HW_VER 4
#elif defined(__ADSPBF50x__) || defined(__ADSPBF54x__)
# define BFIN_UART_HW_VER 2
#else
# define BFIN_UART_HW_VER 1
#endif
/*
* All Blackfin system MMRs are padded to 32bits even if the register
* itself is only 16bits. So use a helper macro to streamline this.
*/
#define __BFP(m) u16 m; u16 __pad_##m
struct bfin_mmr_serial {
#if BFIN_UART_HW_VER == 2
__BFP(dll);
__BFP(dlh);
__BFP(gctl);
__BFP(lcr);
__BFP(mcr);
__BFP(lsr);
__BFP(msr);
__BFP(scr);
__BFP(ier_set);
__BFP(ier_clear);
__BFP(thr);
__BFP(rbr);
#else
union {
u16 dll;
u16 thr;
const u16 rbr;
};
const u16 __spad0;
union {
u16 dlh;
u16 ier;
};
const u16 __spad1;
const __BFP(iir);
__BFP(lcr);
__BFP(mcr);
__BFP(lsr);
__BFP(msr);
__BFP(scr);
const u32 __spad2;
__BFP(gctl);
#endif
};
#undef __BFP
#define __PASTE_UART(num, pfx, sfx) pfx##num##_##sfx
#define _PASTE_UART(num, pfx, sfx) __PASTE_UART(num, pfx, sfx)
#define MMR_UART(n) _PASTE_UART(n, UART, DLL)
#define _P_UART(n, pin) _PASTE_UART(n, P_UART, pin)
#define P_UART(pin) _P_UART(CONFIG_UART_CONSOLE, pin)
#ifndef UART_DLL
# define UART_DLL MMR_UART(CONFIG_UART_CONSOLE)
#else
# define UART0_DLL UART_DLL
# if CONFIG_UART_CONSOLE != 0
# error CONFIG_UART_CONSOLE must be 0 on parts with only one UART
# endif
#endif
#define pUART ((volatile struct bfin_mmr_serial *)uart_base)
#if BFIN_UART_HW_VER == 2
# define ACCESS_LATCH()
# define ACCESS_PORT_IER()
#else
# define ACCESS_LATCH() \
bfin_write(&pUART->lcr, bfin_read(&pUART->lcr) | DLAB)
# define ACCESS_PORT_IER() \
bfin_write(&pUART->lcr, bfin_read(&pUART->lcr) & ~DLAB)
#ifndef __ASSEMBLY__
__attribute__((always_inline))
static inline void serial_do_portmux(void);
#endif
#if BFIN_UART_HW_VER < 4
# include "serial1.h"
#else
# include "serial4.h"
#endif
#ifndef __ASSEMBLY__
__attribute__((always_inline))
static inline void serial_do_portmux(void)
{
@ -115,143 +61,7 @@ static inline void serial_do_portmux(void)
return;
}
#if defined(__ADSPBF50x__)
# define DO_MUX(port, mux_tx, mux_rx, tx, rx) \
bfin_write_PORT##port##_MUX((bfin_read_PORT##port##_MUX() & ~(PORT_x_MUX_##mux_tx##_MASK | PORT_x_MUX_##mux_rx##_MASK)) | PORT_x_MUX_##mux_tx##_FUNC_1 | PORT_x_MUX_##mux_rx##_FUNC_1); \
bfin_write_PORT##port##_FER(bfin_read_PORT##port##_FER() | P##port##tx | P##port##rx);
switch (CONFIG_UART_CONSOLE) {
case 0: DO_MUX(G, 7, 7, 12, 13); break; /* Port G; mux 7; PG12 and PG13 */
case 1: DO_MUX(F, 3, 3, 6, 7); break; /* Port F; mux 3; PF6 and PF7 */
}
SSYNC();
#elif defined(__ADSPBF51x__)
# define DO_MUX(port, mux_tx, mux_rx, tx, rx) \
bfin_write_PORT##port##_MUX((bfin_read_PORT##port##_MUX() & ~(PORT_x_MUX_##mux_tx##_MASK | PORT_x_MUX_##mux_rx##_MASK)) | PORT_x_MUX_##mux_tx##_FUNC_2 | PORT_x_MUX_##mux_rx##_FUNC_2); \
bfin_write_PORT##port##_FER(bfin_read_PORT##port##_FER() | P##port##tx | P##port##rx);
switch (CONFIG_UART_CONSOLE) {
case 0: DO_MUX(G, 5, 5, 9, 10); break; /* Port G; mux 5; PG9 and PG10 */
case 1: DO_MUX(F, 2, 3, 14, 15); break; /* Port H; mux 2/3; PH14 and PH15 */
}
SSYNC();
#elif defined(__ADSPBF52x__)
# define DO_MUX(port, mux, tx, rx) \
bfin_write_PORT##port##_MUX((bfin_read_PORT##port##_MUX() & ~PORT_x_MUX_##mux##_MASK) | PORT_x_MUX_##mux##_FUNC_3); \
bfin_write_PORT##port##_FER(bfin_read_PORT##port##_FER() | P##port##tx | P##port##rx);
switch (CONFIG_UART_CONSOLE) {
case 0: DO_MUX(G, 2, 7, 8); break; /* Port G; mux 2; PG2 and PG8 */
case 1: DO_MUX(F, 5, 14, 15); break; /* Port F; mux 5; PF14 and PF15 */
}
SSYNC();
#elif defined(__ADSPBF537__) || defined(__ADSPBF536__) || defined(__ADSPBF534__)
const uint16_t func[] = { PFDE, PFTE, };
bfin_write_PORT_MUX(bfin_read_PORT_MUX() & ~func[CONFIG_UART_CONSOLE]);
bfin_write_PORTF_FER(bfin_read_PORTF_FER() |
(1 << P_IDENT(P_UART(RX))) |
(1 << P_IDENT(P_UART(TX))));
SSYNC();
#elif defined(__ADSPBF54x__)
# define DO_MUX(port, tx, rx) \
bfin_write_PORT##port##_MUX((bfin_read_PORT##port##_MUX() & ~(PORT_x_MUX_##tx##_MASK | PORT_x_MUX_##rx##_MASK)) | PORT_x_MUX_##tx##_FUNC_1 | PORT_x_MUX_##rx##_FUNC_1); \
bfin_write_PORT##port##_FER(bfin_read_PORT##port##_FER() | P##port##tx | P##port##rx);
switch (CONFIG_UART_CONSOLE) {
case 0: DO_MUX(E, 7, 8); break; /* Port E; PE7 and PE8 */
case 1: DO_MUX(H, 0, 1); break; /* Port H; PH0 and PH1 */
case 2: DO_MUX(B, 4, 5); break; /* Port B; PB4 and PB5 */
case 3: DO_MUX(B, 6, 7); break; /* Port B; PB6 and PB7 */
}
SSYNC();
#elif defined(__ADSPBF561__)
/* UART pins could be GPIO, but they aren't pin muxed. */
#else
# if (P_UART(RX) & P_DEFINED) || (P_UART(TX) & P_DEFINED)
# error "missing portmux logic for UART"
# endif
#endif
}
__attribute__((always_inline))
static inline int uart_init(uint32_t uart_base)
{
/* always enable UART -- avoids anomalies 05000309 and 05000350 */
bfin_write(&pUART->gctl, UCEN);
/* Set LCR to Word Lengh 8-bit word select */
bfin_write(&pUART->lcr, WLS_8);
SSYNC();
return 0;
}
__attribute__((always_inline))
static inline int serial_early_init(uint32_t uart_base)
{
/* handle portmux crap on different Blackfins */
serial_do_portmux();
return uart_init(uart_base);
}
__attribute__((always_inline))
static inline int serial_early_uninit(uint32_t uart_base)
{
/* disable the UART by clearing UCEN */
bfin_write(&pUART->gctl, 0);
return 0;
}
__attribute__((always_inline))
static inline void serial_early_put_div(uint32_t uart_base, uint16_t divisor)
{
/* Set DLAB in LCR to Access DLL and DLH */
ACCESS_LATCH();
SSYNC();
/* Program the divisor to get the baud rate we want */
bfin_write(&pUART->dll, LOB(divisor));
bfin_write(&pUART->dlh, HIB(divisor));
SSYNC();
/* Clear DLAB in LCR to Access THR RBR IER */
ACCESS_PORT_IER();
SSYNC();
}
__attribute__((always_inline))
static inline uint16_t serial_early_get_div(void)
{
uint32_t uart_base = UART_DLL;
/* Set DLAB in LCR to Access DLL and DLH */
ACCESS_LATCH();
SSYNC();
uint8_t dll = bfin_read(&pUART->dll);
uint8_t dlh = bfin_read(&pUART->dlh);
uint16_t divisor = (dlh << 8) | dll;
/* Clear DLAB in LCR to Access THR RBR IER */
ACCESS_PORT_IER();
SSYNC();
return divisor;
}
/* We cannot use get_sclk() early on as it uses caches in external memory */
#if defined(BFIN_IN_INITCODE) || defined(CONFIG_DEBUG_EARLY_SERIAL)
# define get_sclk() (CONFIG_CLKIN_HZ * CONFIG_VCO_MULT / CONFIG_SCLK_DIV)
#endif
__attribute__((always_inline))
static inline void serial_early_set_baud(uint32_t uart_base, uint32_t baud)
{
/* Translate from baud into divisor in terms of SCLK. The
* weird multiplication is to make sure we over sample just
* a little rather than under sample the incoming signals.
*/
serial_early_put_div(uart_base,
(get_sclk() + (baud * 8)) / (baud * 16) - ANOMALY_05000230);
serial_early_do_portmux();
}
#ifndef BFIN_IN_INITCODE

348
arch/blackfin/cpu/serial1.h Normal file
View file

@ -0,0 +1,348 @@
/*
* serial.h - common serial defines for early debug and serial driver.
* any functions defined here must be always_inline since
* initcode cannot have function calls.
*
* Copyright (c) 2004-2011 Analog Devices Inc.
*
* Licensed under the GPL-2 or later.
*/
#ifndef __BFIN_CPU_SERIAL1_H__
#define __BFIN_CPU_SERIAL1_H__
#include <asm/mach-common/bits/uart.h>
#ifndef __ASSEMBLY__
#define MMR_UART(n) _PASTE_UART(n, UART, DLL)
#ifdef UART_DLL
# define UART0_DLL UART_DLL
# if CONFIG_UART_CONSOLE != 0
# error CONFIG_UART_CONSOLE must be 0 on parts with only one UART
# endif
#endif
#define UART_BASE MMR_UART(CONFIG_UART_CONSOLE)
#define LOB(x) ((x) & 0xFF)
#define HIB(x) (((x) >> 8) & 0xFF)
/*
* All Blackfin system MMRs are padded to 32bits even if the register
* itself is only 16bits. So use a helper macro to streamline this.
*/
struct bfin_mmr_serial {
#if BFIN_UART_HW_VER == 2
u16 dll;
u16 __pad_0;
u16 dlh;
u16 __pad_1;
u16 gctl;
u16 __pad_2;
u16 lcr;
u16 __pad_3;
u16 mcr;
u16 __pad_4;
u16 lsr;
u16 __pad_5;
u16 msr;
u16 __pad_6;
u16 scr;
u16 __pad_7;
u16 ier_set;
u16 __pad_8;
u16 ier_clear;
u16 __pad_9;
u16 thr;
u16 __pad_10;
u16 rbr;
u16 __pad_11;
#else
union {
u16 dll;
u16 thr;
const u16 rbr;
};
const u16 __spad0;
union {
u16 dlh;
u16 ier;
};
const u16 __spad1;
const u16 iir;
u16 __pad_0;
u16 lcr;
u16 __pad_1;
u16 mcr;
u16 __pad_2;
u16 lsr;
u16 __pad_3;
u16 msr;
u16 __pad_4;
u16 scr;
u16 __pad_5;
const u32 __spad2;
u16 gctl;
u16 __pad_6;
#endif
};
#define uart_lsr_t uint32_t
#define _lsr_read(p) bfin_read(&p->lsr)
#define _lsr_write(p, v) bfin_write(&p->lsr, v)
#if BFIN_UART_HW_VER == 2
# define ACCESS_LATCH()
# define ACCESS_PORT_IER()
#else
# define ACCESS_LATCH() bfin_write_or(&pUART->lcr, DLAB)
# define ACCESS_PORT_IER() bfin_write_and(&pUART->lcr, ~DLAB)
#endif
__attribute__((always_inline))
static inline void serial_early_do_mach_portmux(char port, int mux_mask,
int mux_func, int port_pin)
{
switch (port) {
#if defined(__ADSPBF54x__)
case 'B':
bfin_write_PORTB_MUX((bfin_read_PORTB_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTB_FER(bfin_read_PORTB_FER() | port_pin);
break;
case 'E':
bfin_write_PORTE_MUX((bfin_read_PORTE_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTE_FER(bfin_read_PORTE_FER() | port_pin);
break;
#endif
#if defined(__ADSPBF50x__) || defined(__ADSPBF51x__) || defined(__ADSPBF52x__)
case 'F':
bfin_write_PORTF_MUX((bfin_read_PORTF_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTF_FER(bfin_read_PORTF_FER() | port_pin);
break;
case 'G':
bfin_write_PORTG_MUX((bfin_read_PORTG_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTG_FER(bfin_read_PORTG_FER() | port_pin);
break;
case 'H':
bfin_write_PORTH_MUX((bfin_read_PORTH_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTH_FER(bfin_read_PORTH_FER() | port_pin);
break;
#endif
default:
break;
}
}
__attribute__((always_inline))
static inline void serial_early_do_portmux(void)
{
#if defined(__ADSPBF50x__)
switch (CONFIG_UART_CONSOLE) {
case 0:
serial_early_do_mach_portmux('G', PORT_x_MUX_7_MASK,
PORT_x_MUX_7_FUNC_1, PG12); /* TX: G; mux 7; func 1; PG12 */
serial_early_do_mach_portmux('G', PORT_x_MUX_7_MASK,
PORT_x_MUX_7_FUNC_1, PG13); /* RX: G; mux 7; func 1; PG13 */
break;
case 1:
serial_early_do_mach_portmux('F', PORT_x_MUX_3_MASK,
PORT_x_MUX_3_FUNC_1, PF7); /* TX: F; mux 3; func 1; PF6 */
serial_early_do_mach_portmux('F', PORT_x_MUX_3_MASK,
PORT_x_MUX_3_FUNC_1, PF6); /* RX: F; mux 3; func 1; PF7 */
break;
}
#elif defined(__ADSPBF51x__)
switch (CONFIG_UART_CONSOLE) {
case 0:
serial_early_do_mach_portmux('G', PORT_x_MUX_5_MASK,
PORT_x_MUX_5_FUNC_2, PG9); /* TX: G; mux 5; func 2; PG9 */
serial_early_do_mach_portmux('G', PORT_x_MUX_5_MASK,
PORT_x_MUX_5_FUNC_2, PG10); /* RX: G; mux 5; func 2; PG10 */
break;
case 1:
serial_early_do_mach_portmux('H', PORT_x_MUX_3_MASK,
PORT_x_MUX_3_FUNC_2, PH7); /* TX: H; mux 3; func 2; PH6 */
serial_early_do_mach_portmux('H', PORT_x_MUX_3_MASK,
PORT_x_MUX_3_FUNC_2, PH6); /* RX: H; mux 3; func 2; PH7 */
break;
}
#elif defined(__ADSPBF52x__)
switch (CONFIG_UART_CONSOLE) {
case 0:
serial_early_do_mach_portmux('G', PORT_x_MUX_2_MASK,
PORT_x_MUX_2_FUNC_3, PG7); /* TX: G; mux 2; func 3; PG7 */
serial_early_do_mach_portmux('G', PORT_x_MUX_2_MASK,
PORT_x_MUX_2_FUNC_3, PG8); /* RX: G; mux 2; func 3; PG8 */
break;
case 1:
serial_early_do_mach_portmux('F', PORT_x_MUX_5_MASK,
PORT_x_MUX_5_FUNC_3, PF14); /* TX: F; mux 5; func 3; PF14 */
serial_early_do_mach_portmux('F', PORT_x_MUX_5_MASK,
PORT_x_MUX_5_FUNC_3, PF15); /* RX: F; mux 5; func 3; PF15 */
break;
}
#elif defined(__ADSPBF537__) || defined(__ADSPBF536__) || defined(__ADSPBF534__)
const uint16_t func[] = { PFDE, PFTE, };
bfin_write_PORT_MUX(bfin_read_PORT_MUX() & ~func[CONFIG_UART_CONSOLE]);
bfin_write_PORTF_FER(bfin_read_PORTF_FER() |
(1 << P_IDENT(P_UART(RX))) |
(1 << P_IDENT(P_UART(TX))));
#elif defined(__ADSPBF54x__)
switch (CONFIG_UART_CONSOLE) {
case 0:
serial_early_do_mach_portmux('E', PORT_x_MUX_7_MASK,
PORT_x_MUX_7_FUNC_1, PE7); /* TX: E; mux 7; func 1; PE7 */
serial_early_do_mach_portmux('E', PORT_x_MUX_8_MASK,
PORT_x_MUX_8_FUNC_1, PE8); /* RX: E; mux 8; func 1; PE8 */
break;
case 1:
serial_early_do_mach_portmux('H', PORT_x_MUX_0_MASK,
PORT_x_MUX_0_FUNC_1, PH0); /* TX: H; mux 0; func 1; PH0 */
serial_early_do_mach_portmux('H', PORT_x_MUX_1_MASK,
PORT_x_MUX_1_FUNC_1, PH1); /* RX: H; mux 1; func 1; PH1 */
break;
case 2:
serial_early_do_mach_portmux('B', PORT_x_MUX_4_MASK,
PORT_x_MUX_4_FUNC_1, PB4); /* TX: B; mux 4; func 1; PB4 */
serial_early_do_mach_portmux('B', PORT_x_MUX_5_MASK,
PORT_x_MUX_5_FUNC_1, PB5); /* RX: B; mux 5; func 1; PB5 */
break;
case 3:
serial_early_do_mach_portmux('B', PORT_x_MUX_6_MASK,
PORT_x_MUX_6_FUNC_1, PB6); /* TX: B; mux 6; func 1; PB6 */
serial_early_do_mach_portmux('B', PORT_x_MUX_7_MASK,
PORT_x_MUX_7_FUNC_1, PB7); /* RX: B; mux 7; func 1; PB7 */
break;
}
#elif defined(__ADSPBF561__)
/* UART pins could be GPIO, but they aren't pin muxed. */
#else
# if (P_UART(RX) & P_DEFINED) || (P_UART(TX) & P_DEFINED)
# error "missing portmux logic for UART"
# endif
#endif
SSYNC();
}
__attribute__((always_inline))
static inline uint32_t uart_sclk(void)
{
#if defined(BFIN_IN_INITCODE) || defined(CONFIG_DEBUG_EARLY_SERIAL)
/* We cannot use get_sclk() early on as it uses
* caches in external memory
*/
return CONFIG_CLKIN_HZ * CONFIG_VCO_MULT / CONFIG_SCLK_DIV;
#else
return get_sclk();
#endif
}
__attribute__((always_inline))
static inline int uart_init(uint32_t uart_base)
{
/* always enable UART -- avoids anomalies 05000309 and 05000350 */
bfin_write(&pUART->gctl, UCEN);
/* Set LCR to Word Lengh 8-bit word select */
bfin_write(&pUART->lcr, WLS_8);
SSYNC();
return 0;
}
__attribute__((always_inline))
static inline int serial_early_init(uint32_t uart_base)
{
/* handle portmux crap on different Blackfins */
serial_do_portmux();
return uart_init(uart_base);
}
__attribute__((always_inline))
static inline int serial_early_uninit(uint32_t uart_base)
{
/* disable the UART by clearing UCEN */
bfin_write(&pUART->gctl, 0);
return 0;
}
__attribute__((always_inline))
static inline int serial_early_enabled(uint32_t uart_base)
{
return bfin_read(&pUART->gctl) & UCEN;
}
__attribute__((always_inline))
static inline void serial_early_set_baud(uint32_t uart_base, uint32_t baud)
{
/* Translate from baud into divisor in terms of SCLK. The
* weird multiplication is to make sure we over sample just
* a little rather than under sample the incoming signals.
*/
uint16_t divisor = (uart_sclk() + (baud * 8)) / (baud * 16) -
ANOMALY_05000230;
/* Set DLAB in LCR to Access DLL and DLH */
ACCESS_LATCH();
SSYNC();
/* Program the divisor to get the baud rate we want */
bfin_write(&pUART->dll, LOB(divisor));
bfin_write(&pUART->dlh, HIB(divisor));
SSYNC();
/* Clear DLAB in LCR to Access THR RBR IER */
ACCESS_PORT_IER();
SSYNC();
}
__attribute__((always_inline))
static inline void serial_early_put_div(uint16_t divisor)
{
uint32_t uart_base = UART_BASE;
/* Set DLAB in LCR to Access DLL and DLH */
ACCESS_LATCH();
SSYNC();
/* Program the divisor to get the baud rate we want */
bfin_write(&pUART->dll, LOB(divisor));
bfin_write(&pUART->dlh, HIB(divisor));
SSYNC();
/* Clear DLAB in LCR to Access THR RBR IER */
ACCESS_PORT_IER();
SSYNC();
}
__attribute__((always_inline))
static inline uint16_t serial_early_get_div(void)
{
uint32_t uart_base = UART_BASE;
/* Set DLAB in LCR to Access DLL and DLH */
ACCESS_LATCH();
SSYNC();
uint8_t dll = bfin_read(&pUART->dll);
uint8_t dlh = bfin_read(&pUART->dlh);
uint16_t divisor = (dlh << 8) | dll;
/* Clear DLAB in LCR to Access THR RBR IER */
ACCESS_PORT_IER();
SSYNC();
return divisor;
}
#endif
#endif

161
arch/blackfin/cpu/serial4.h Normal file
View file

@ -0,0 +1,161 @@
/*
* serial.h - common serial defines for early debug and serial driver.
* any functions defined here must be always_inline since
* initcode cannot have function calls.
*
* Copyright (c) 2004-2011 Analog Devices Inc.
*
* Licensed under the GPL-2 or later.
*/
#ifndef __BFIN_CPU_SERIAL4_H__
#define __BFIN_CPU_SERIAL4_H__
#include <asm/mach-common/bits/uart4.h>
#ifndef __ASSEMBLY__
#define MMR_UART(n) _PASTE_UART(n, UART, REVID)
#define UART_BASE MMR_UART(CONFIG_UART_CONSOLE)
struct bfin_mmr_serial {
u32 revid;
u32 control;
u32 status;
u32 scr;
u32 clock;
u32 emask;
u32 emaskst;
u32 emaskcl;
u32 rbr;
u32 thr;
u32 taip;
u32 tsr;
u32 rsr;
u32 txdiv_cnt;
u32 rxdiv_cnt;
};
#define uart_lsr_t uint32_t
#define _lsr_read(p) bfin_read(&p->status)
#define _lsr_write(p, v) bfin_write(&p->status, v)
__attribute__((always_inline))
static inline void serial_early_do_mach_portmux(char port, int mux_mask,
int mux_func, int port_pin)
{
switch (port) {
case 'D':
bfin_write_PORTD_MUX((bfin_read_PORTD_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTD_FER_SET(port_pin);
break;
case 'G':
bfin_write_PORTG_MUX((bfin_read_PORTG_MUX() &
~mux_mask) | mux_func);
bfin_write_PORTG_FER_SET(port_pin);
break;
}
}
__attribute__((always_inline))
static inline void serial_early_do_portmux(void)
{
#if defined(__ADSPBF60x__)
switch (CONFIG_UART_CONSOLE) {
case 0:
serial_early_do_mach_portmux('D', PORT_x_MUX_7_MASK,
PORT_x_MUX_7_FUNC_2, PD7); /* TX: D; mux 7; func 2; PD7 */
serial_early_do_mach_portmux('D', PORT_x_MUX_8_MASK,
PORT_x_MUX_8_FUNC_2, PD8); /* RX: D; mux 8; func 2; PD8 */
break;
case 1:
serial_early_do_mach_portmux('G', PORT_x_MUX_15_MASK,
PORT_x_MUX_15_FUNC_1, PG15); /* TX: G; mux 15; func 1; PG15 */
serial_early_do_mach_portmux('G', PORT_x_MUX_14_MASK,
PORT_x_MUX_14_FUNC_1, PG14); /* RX: G; mux 14; func 1; PG14 */
break;
}
#else
# if (P_UART(RX) & P_DEFINED) || (P_UART(TX) & P_DEFINED)
# error "missing portmux logic for UART"
# endif
#endif
SSYNC();
}
__attribute__((always_inline))
static inline uint32_t uart_sclk(void)
{
#if defined(BFIN_IN_INITCODE) || defined(CONFIG_DEBUG_EARLY_SERIAL)
/* We cannot use get_sclk() early on as it uses caches in
* external memory
*/
return CONFIG_CLKIN_HZ * CONFIG_VCO_MULT / CONFIG_SCLK_DIV /
CONFIG_SCLK0_DIV;
#else
return get_sclk0();
#endif
}
__attribute__((always_inline))
static inline int uart_init(uint32_t uart_base)
{
/* always enable UART to 8-bit mode */
bfin_write(&pUART->control, UEN | UMOD_UART | WLS_8);
SSYNC();
return 0;
}
__attribute__((always_inline))
static inline int serial_early_init(uint32_t uart_base)
{
/* handle portmux crap on different Blackfins */
serial_do_portmux();
return uart_init(uart_base);
}
__attribute__((always_inline))
static inline int serial_early_uninit(uint32_t uart_base)
{
/* disable the UART by clearing UEN */
bfin_write(&pUART->control, 0);
return 0;
}
__attribute__((always_inline))
static inline int serial_early_enabled(uint32_t uart_base)
{
return bfin_read(&pUART->control) & UEN;
}
__attribute__((always_inline))
static inline void serial_early_set_baud(uint32_t uart_base, uint32_t baud)
{
uint32_t divisor = uart_sclk() / (baud * 16);
/* Program the divisor to get the baud rate we want */
bfin_write(&pUART->clock, divisor);
SSYNC();
}
__attribute__((always_inline))
static inline void serial_early_put_div(uint32_t divisor)
{
uint32_t uart_base = UART_BASE;
bfin_write(&pUART->clock, divisor);
}
__attribute__((always_inline))
static inline uint32_t serial_early_get_div(void)
{
uint32_t uart_base = UART_BASE;
return bfin_read(&pUART->clock);
}
#endif
#endif

View file

@ -65,6 +65,7 @@ ENTRY(_start)
p5.h = HI(COREMMR_BASE);
#ifdef CONFIG_HW_WATCHDOG
#ifndef __ADSPBF60x__
# ifndef CONFIG_HW_WATCHDOG_TIMEOUT_START
# define CONFIG_HW_WATCHDOG_TIMEOUT_START 5000
# endif
@ -77,6 +78,7 @@ ENTRY(_start)
[p4 + (WDOG_CNT - SYSMMR_BASE)] = r0;
/* fire up the watchdog - R0.L above needs to be 0x0000 */
W[p4 + (WDOG_CTL - SYSMMR_BASE)] = r0;
#endif
#endif
/* Turn on the serial for debugging the init process */

View file

@ -84,5 +84,8 @@
#ifdef __ADSPBF561__
# include "mach-bf561/BF561_cdef.h"
#endif
#ifdef __ADSPBF609__
# include "mach-bf609/BF609_cdef.h"
#endif
#endif /* __MACH_CDEF_BLACKFIN__ */

View file

@ -136,5 +136,10 @@
# include "mach-bf561/anomaly.h"
# include "mach-bf561/def_local.h"
#endif
#ifdef __ADSPBF609__
# include "mach-bf609/BF609_def.h"
# include "mach-bf609/anomaly.h"
# include "mach-bf609/def_local.h"
#endif
#endif /* __MACH_DEF_BLACKFIN__ */

View file

@ -61,6 +61,9 @@
extern u_long get_vco(void);
extern u_long get_cclk(void);
extern u_long get_sclk(void);
extern u_long get_sclk0(void);
extern u_long get_sclk1(void);
extern u_long get_dclk(void);
# define bfin_revid() (bfin_read_CHIPID() >> 28)

View file

@ -29,6 +29,8 @@
#define BFIN_BOOT_16HOST_DMA 11 /* boot ldr from 16-bit host dma */
#define BFIN_BOOT_8HOST_DMA 12 /* boot ldr from 8-bit host dma */
#define BFIN_BOOT_NAND 13 /* boot ldr from nand flash */
#define BFIN_BOOT_RSI_MASTER 14 /* boot ldr from rsi */
#define BFIN_BOOT_LP_SLAVE 15 /* boot ldr from link port */
#ifndef __ASSEMBLY__
static inline const char *get_bfin_boot_mode(int bfin_boot)
@ -47,6 +49,8 @@ static inline const char *get_bfin_boot_mode(int bfin_boot)
case BFIN_BOOT_16HOST_DMA: return "16bit dma";
case BFIN_BOOT_8HOST_DMA: return "8bit dma";
case BFIN_BOOT_NAND: return "nand flash";
case BFIN_BOOT_RSI_MASTER: return "rsi master";
case BFIN_BOOT_LP_SLAVE: return "link port slave";
default: return "INVALID";
}
}

View file

@ -46,8 +46,13 @@
#define CPLB_IDOCACHE CPLB_INOCACHE | CPLB_L1_CHBL
/* Data Attibutes*/
#define SDRAM_IGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_USER_RD | CPLB_VALID)
#if defined(__ADSPBF60x__)
#define SDRAM_IGENERIC (PAGE_SIZE_16MB | CPLB_L1_CHBL | \
CPLB_USER_RD | CPLB_VALID)
#else
#define SDRAM_IGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | \
CPLB_USER_RD | CPLB_VALID)
#endif
#define SDRAM_IKERNEL (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_USER_RD | CPLB_VALID | CPLB_LOCK)
#define L1_IMEMORY (PAGE_SIZE_1MB | CPLB_USER_RD | CPLB_VALID | CPLB_LOCK)
#define SDRAM_INON_CHBL (PAGE_SIZE_4MB | CPLB_USER_RD | CPLB_VALID)
@ -59,14 +64,32 @@
#endif
#ifdef CONFIG_DCACHE_WB /*Write Back Policy */
#define SDRAM_DGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_DIRTY | CPLB_SUPV_WR | CPLB_USER_WR | CPLB_USER_RD | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#if defined(__ADSPBF60x__)
#define SDRAM_DGENERIC (PAGE_SIZE_16MB | CPLB_L1_CHBL | CPLB_DIRTY | \
CPLB_SUPV_WR | CPLB_USER_WR | CPLB_USER_RD | \
CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#else
#define SDRAM_DGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_DIRTY | \
CPLB_SUPV_WR | CPLB_USER_WR | CPLB_USER_RD | \
CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#endif
#define SDRAM_DNON_CHBL (PAGE_SIZE_4MB | CPLB_DIRTY | CPLB_SUPV_WR | CPLB_USER_RD | CPLB_USER_WR | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#define SDRAM_DKERNEL (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_USER_RD | CPLB_USER_WR | CPLB_DIRTY | CPLB_SUPV_WR | CPLB_VALID | CPLB_LOCK | ANOMALY_05000158_WORKAROUND)
#define L1_DMEMORY (PAGE_SIZE_4MB | CPLB_SUPV_WR | CPLB_USER_WR | CPLB_USER_RD | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#define SDRAM_EBIU (PAGE_SIZE_4MB | CPLB_DIRTY | CPLB_USER_RD | CPLB_USER_WR | CPLB_SUPV_WR | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#else /*Write Through */
#define SDRAM_DGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_WT | CPLB_L1_AOW | CPLB_SUPV_WR | CPLB_USER_RD | CPLB_USER_WR | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#if defined(__ADSPBF60x__)
#define SDRAM_DGENERIC (PAGE_SIZE_16MB | CPLB_L1_CHBL | CPLB_WT | \
CPLB_L1_AOW | CPLB_SUPV_WR | CPLB_USER_RD | \
CPLB_USER_WR | CPLB_VALID | \
ANOMALY_05000158_WORKAROUND)
#else
#define SDRAM_DGENERIC (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_WT | \
CPLB_L1_AOW | CPLB_SUPV_WR | CPLB_USER_RD | \
CPLB_USER_WR | CPLB_VALID | \
ANOMALY_05000158_WORKAROUND)
#endif
#define SDRAM_DNON_CHBL (PAGE_SIZE_4MB | CPLB_WT | CPLB_L1_AOW | CPLB_SUPV_WR | CPLB_USER_WR | CPLB_USER_RD | CPLB_VALID | ANOMALY_05000158_WORKAROUND)
#define SDRAM_DKERNEL (PAGE_SIZE_4MB | CPLB_L1_CHBL | CPLB_WT | CPLB_L1_AOW | CPLB_USER_RD | CPLB_SUPV_WR | CPLB_USER_WR | CPLB_VALID | CPLB_LOCK | ANOMALY_05000158_WORKAROUND)
#define L1_DMEMORY (PAGE_SIZE_4MB | CPLB_SUPV_WR | CPLB_USER_WR | CPLB_VALID | ANOMALY_05000158_WORKAROUND)

View file

@ -8,7 +8,12 @@
#ifndef _BLACKFIN_DMA_H_
#define _BLACKFIN_DMA_H_
#include <linux/types.h>
#ifdef __ADSPBF60x__
#include <asm/mach-common/bits/dde.h>
#else
#include <asm/mach-common/bits/dma.h>
#endif
struct dmasg_large {
void *next_desc_addr;
@ -30,46 +35,70 @@ struct dmasg {
} __attribute__((packed));
struct dma_register {
#ifdef __ADSPBF60x__
void *next_desc_ptr; /* DMA Next Descriptor Pointer register */
unsigned long start_addr; /* DMA Start address register */
u32 start_addr; /* DMA Start address register */
u32 config; /* DMA Configuration register */
unsigned short cfg; /* DMA Configuration register */
unsigned short dummy1; /* DMA Configuration register */
u32 x_count; /* DMA x_count register */
s32 x_modify; /* DMA x_modify register */
u32 y_count; /* DMA y_count register */
s32 y_modify; /* DMA y_modify register */
u32 __pad0[2];
unsigned long reserved;
void *curr_desc_ptr; /* DMA Curr Descriptor Pointer register */
void *prev_desc_ptr; /* DMA Prev Descriptor Pointer register */
void *curr_addr; /* DMA Current Address Pointer register */
u32 status; /* DMA irq status register */
u32 curr_x_count; /* DMA Current x-count register */
u32 curr_y_count; /* DMA Current y-count register */
u32 __pad1[2];
unsigned short x_count; /* DMA x_count register */
unsigned short dummy2;
u32 bw_limit; /* DMA Bandwidth Limit Count */
u32 curr_bw_limit; /* DMA curr Bandwidth Limit Count */
u32 bw_monitor; /* DMA Bandwidth Monitor Count */
u32 curr_bw_monitor; /* DMA curr Bandwidth Monitor Count */
#else
void *next_desc_ptr; /* DMA Next Descriptor Pointer register */
u32 start_addr; /* DMA Start address register */
short x_modify; /* DMA x_modify register */
unsigned short dummy3;
u16 config; /* DMA Configuration register */
u16 dummy1; /* DMA Configuration register */
unsigned short y_count; /* DMA y_count register */
unsigned short dummy4;
u32 reserved;
short y_modify; /* DMA y_modify register */
unsigned short dummy5;
u16 x_count; /* DMA x_count register */
u16 dummy2;
void *curr_desc_ptr; /* DMA Current Descriptor Pointer
register */
unsigned long curr_addr_ptr; /* DMA Current Address Pointer
register */
unsigned short irq_status; /* DMA irq status register */
unsigned short dummy6;
s16 x_modify; /* DMA x_modify register */
u16 dummy3;
unsigned short peripheral_map; /* DMA peripheral map register */
unsigned short dummy7;
u16 y_count; /* DMA y_count register */
u16 dummy4;
unsigned short curr_x_count; /* DMA Current x-count register */
unsigned short dummy8;
s16 y_modify; /* DMA y_modify register */
u16 dummy5;
unsigned long reserved2;
void *curr_desc_ptr; /* DMA Current Descriptor Pointer register */
unsigned short curr_y_count; /* DMA Current y-count register */
unsigned short dummy9;
u32 curr_addr_ptr; /* DMA Current Address Pointer register */
unsigned long reserved3;
u16 status; /* DMA irq status register */
u16 dummy6;
u16 peripheral_map; /* DMA peripheral map register */
u16 dummy7;
u16 curr_x_count; /* DMA Current x-count register */
u16 dummy8;
u32 reserved2;
u16 curr_y_count; /* DMA Current y-count register */
u16 dummy9;
u32 reserved3;
#endif
};
#endif

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@ -68,7 +68,7 @@
#ifndef __ASSEMBLY__
#ifndef CONFIG_BF54x
#if !defined(CONFIG_BF54x) && !defined(CONFIG_BF60x)
void set_gpio_dir(unsigned, unsigned short);
void set_gpio_inen(unsigned, unsigned short);
void set_gpio_polar(unsigned, unsigned short);

View file

@ -149,6 +149,7 @@
#define UART_LSR 0xFFC00414
#define UART_SCR 0xFFC0041C
#define UART_RBR 0xFFC00400 /* Receive Buffer */
#define UART0_RBR UART_RBR
#define UART_GCTL 0xFFC00424
#define SPT0_TX_CONFIG0 0xFFC00800
#define SPT0_TX_CONFIG1 0xFFC00804

View file

@ -690,6 +690,7 @@
#define PPI1_FRAME 0xFFC01310
#define UART_THR 0xFFC00400
#define UART_RBR 0xFFC00400
#define UART0_RBR UART_RBR
#define UART_DLL 0xFFC00400
#define UART_DLH 0xFFC00404
#define UART_IER 0xFFC00404

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@ -0,0 +1,192 @@
/* DO NOT EDIT THIS FILE
* Automatically generated by generate-cdef-headers.xsl
* DO NOT EDIT THIS FILE
*/
#ifndef __BFIN_CDEF_ADSP_BF609_proc__
#define __BFIN_CDEF_ADSP_BF609_proc__
#include "../mach-common/ADSP-EDN-core_cdef.h"
#define bfin_read_CGU_STAT() bfin_read32(CGU_STAT)
#define bfin_read_CGU_CLKOUTSEL() bfin_read32(CGU_CLKOUTSEL)
#define bfin_read_CGU_CTL() bfin_read32(CGU_CTL)
#define bfin_write_CGU_CTL(val) bfin_write32(CGU_CTL, val)
#define bfin_read_CGU_DIV() bfin_read32(CGU_DIV)
#define bfin_write_CGU_DIV(val) bfin_write32(CGU_DIV, val)
#define bfin_read_RCU0_CTL() bfin_read32(RCU0_CTL)
#define bfin_write_RCU0_CTL(val) bfin_write32(RCU0_CTL, val)
#define bfin_read_CHIPID() bfin_read32(CHIPID)
#define bfin_write_CHIPID(val) bfin_write32(CHIPID, val)
#define bfin_read_DMC0_CFG() bfin_read32(DMC0_CFG)
#define bfin_write_DMC0_CFG(val) bfin_write32(DMC0_CFG, val)
#define bfin_read_DMC0_TR0() bfin_read32(DMC0_TR0)
#define bfin_write_DMC0_TR0(val) bfin_write32(DMC0_TR0, val)
#define bfin_read_DMC0_TR1() bfin_read32(DMC0_TR1)
#define bfin_write_DMC0_TR1(val) bfin_write32(DMC0_TR1, val)
#define bfin_read_DMC0_TR2() bfin_read32(DMC0_TR2)
#define bfin_write_DMC0_TR2(val) bfin_write32(DMC0_TR2, val)
#define bfin_read_DMC0_MR() bfin_read32(DMC0_MR)
#define bfin_write_DMC0_MR(val) bfin_write32(DMC0_MR, val)
#define bfin_read_DMC0_EMR1() bfin_read32(DMC0_EMR1)
#define bfin_write_DMC0_EMR1(val) bfin_write32(DMC0_EMR1, val)
#define bfin_read_DMC0_CTL() bfin_read32(DMC0_CTL)
#define bfin_write_DMC0_CTL(val) bfin_write32(DMC0_CTL, val)
#define bfin_read_DMC0_STAT() bfin_read32(DMC0_STAT)
#define bfin_write_DMC0_STAT(val) bfin_write32(DMC0_STAT, val)
#define bfin_read_DMC0_DLLCTL() bfin_read32(DMC0_DLLCTL)
#define bfin_write_DMC0_DLLCTL(val) bfin_write32(DMC0_DLLCTL, val)
#define bfin_read_SEC_CCTL() bfin_read32(SEC0_CCTL0)
#define bfin_write_SEC_CCTL(val) bfin_write32(SEC0_CCTL0, val)
#define bfin_read_SEC_GCTL() bfin_read32(SEC0_GCTL)
#define bfin_write_SEC_GCTL(val) bfin_write32(SEC0_GCTL, val)
#define bfin_read_SEC_FCTL() bfin_read32(SEC0_FCTL)
#define bfin_write_SEC_FCTL(val) bfin_write32(SEC0_FCTL, val)
#define bfin_read_SEC_SCTL(sid) bfin_read32((SEC0_SCTL0 + (sid) * 8))
#define bfin_write_SEC_SCTL(sid, val) bfin_write32((SEC0_SCTL0 \
+ (sid) * 8), val)
#define bfin_read_SMC_GCTL() bfin_read32(SMC_GCTL)
#define bfin_write_SMC_GCTL(val) bfin_write32(SMC_GCTL, val)
#define bfin_read_SMC_GSTAT() bfin_read32(SMC_GSTAT)
#define bfin_read_SMC_B0CTL() bfin_read32(SMC_B0CTL)
#define bfin_write_SMC_B0CTL(val) bfin_write32(SMC_B0CTL, val)
#define bfin_read_SMC_B0TIM() bfin_read32(SMC_B0TIM)
#define bfin_write_SMC_B0TIM(val) bfin_write32(SMC_B0TIM, val)
#define bfin_read_SMC_B0ETIM() bfin_read32(SMC_B0ETIM)
#define bfin_write_SMC_B0ETIM(val) bfin_write32(SMC_B0ETIM, val)
#define bfin_read_SMC_B1CTL() bfin_read32(SMC_B1CTL)
#define bfin_write_SMC_B1CTL(val) bfin_write32(SMC_B1CTL, val)
#define bfin_read_SMC_B1TIM() bfin_read32(SMC_B1TIM)
#define bfin_write_SMC_B1TIM(val) bfin_write32(SMC_B1TIM, val)
#define bfin_read_SMC_B1ETIM() bfin_read32(SMC_B1ETIM)
#define bfin_write_SMC_B1ETIM(val) bfin_write32(SMC_B1ETIM, val)
#define bfin_read_SMC_B2CTL() bfin_read32(SMC_B2CTL)
#define bfin_write_SMC_B2CTL(val) bfin_write32(SMC_B2CTL, val)
#define bfin_read_SMC_B2TIM() bfin_read32(SMC_B2TIM)
#define bfin_write_SMC_B2TIM(val) bfin_write32(SMC_B2TIM, val)
#define bfin_read_SMC_B2ETIM() bfin_read32(SMC_B2ETIM)
#define bfin_write_SMC_B2ETIM(val) bfin_write32(SMC_B2ETIM, val)
#define bfin_read_SMC_B3CTL() bfin_read32(SMC_B3CTL)
#define bfin_write_SMC_B3CTL(val) bfin_write32(SMC_B3CTL, val)
#define bfin_read_SMC_B3TIM() bfin_read32(SMC_B3TIM)
#define bfin_write_SMC_B3TIM(val) bfin_write32(SMC_B3TIM, val)
#define bfin_read_SMC_B3ETIM() bfin_read32(SMC_B3ETIM)
#define bfin_write_SMC_B3ETIM(val) bfin_write32(SMC_B3ETIM, val)
#define bfin_read_USB_PLLOSC_CTRL() bfin_read16(USB_PLL_OSC)
#define bfin_write_USB_PLLOSC_CTRL(val) bfin_write16(USB_PLL_OSC, val)
#define bfin_write_USB_VBUS_CTL(val) bfin_write8(USB_VBUS_CTL, val)
#define bfin_read_USB_DMA_INTERRUPT() bfin_read8(USB_DMA_IRQ)
#define bfin_write_USB_DMA_INTERRUPT(val) bfin_write8(USB_DMA_IRQ, val)
#define bfin_write_USB_APHY_CNTRL(val) bfin_write8(USB_PHY_CTL, val)
#define bfin_read_USB_APHY_CNTRL() bfin_read8(USB_PHY_CTL)
#define bfin_read_DMA10_NEXT_DESC_PTR() bfin_readPTR(DMA10_DSCPTR_NXT)
#define bfin_write_DMA10_NEXT_DESC_PTR(val) bfin_writePTR(DMA10_DSCPTR_NXT, val)
#define bfin_read_DMA10_START_ADDR() bfin_readPTR(DMA10_ADDRSTART)
#define bfin_write_DMA10_START_ADDR(val) bfin_writePTR(DMA10_ADDRSTART, val)
#define bfin_read_DMA10_CONFIG() bfin_read32(DMA10_CFG)
#define bfin_write_DMA10_CONFIG(val) bfin_write32(DMA10_CFG, val)
#define bfin_read_DMA10_X_COUNT() bfin_read32(DMA10_XCNT)
#define bfin_write_DMA10_X_COUNT(val) bfin_write32(DMA10_XCNT, val)
#define bfin_read_DMA10_X_MODIFY() bfin_read32(DMA10_XMOD)
#define bfin_write_DMA10_X_MODIFY(val) bfin_write32(DMA10_XMOD, val)
#define bfin_read_DMA10_Y_COUNT() bfin_read32(DMA10_YCNT)
#define bfin_write_DMA10_Y_COUNT(val) bfin_write32(DMA10_YCNT, val)
#define bfin_read_DMA10_Y_MODIFY() bfin_read32(DMA10_YMOD)
#define bfin_write_DMA10_Y_MODIFY(val) bfin_write32(DMA10_YMOD, val)
#define bfin_read_DMA10_CURR_DESC_PTR() bfin_readPTR(DMA10_DSCPTR_CUR)
#define bfin_write_DMA10_CURR_DESC_PTR(val) bfin_writePTR(DMA10_DSCPTR_CUR, val)
#define bfin_read_DMA10_CURR_ADDR() bfin_readPTR(DMA10_ADDR_CUR)
#define bfin_write_DMA10_CURR_ADDR(val) bfin_writePTR(DMA10_ADDR_CUR, val)
#define bfin_read_DMA10_IRQ_STATUS() bfin_read32(DMA10_STAT)
#define bfin_write_DMA10_IRQ_STATUS(val) bfin_write32(DMA10_STAT, val)
#define bfin_read_DMA10_CURR_X_COUNT() bfin_read32(DMA10_XCNT_CUR)
#define bfin_write_DMA10_CURR_X_COUNT(val) bfin_write32(DMA10_XCNT_CUR, val)
#define bfin_read_DMA10_CURR_Y_COUNT() bfin_read32(DMA10_YCNT_CUR)
#define bfin_write_DMA10_CURR_Y_COUNT(val) bfin_write32(DMA10_YCNT_CUR, val)
#define bfin_read_WDOG_CNT() bfin_read32(WDOG_CNT)
#define bfin_write_WDOG_CNT(val) bfin_write32(WDOG_CNT, val)
#define bfin_read_WDOG_CTL() bfin_read32(WDOG_CTL)
#define bfin_write_WDOG_CTL(val) bfin_write32(WDOG_CTL, val)
#define bfin_read_WDOG_STAT() bfin_read32(WDOG_STAT)
#define bfin_write_WDOG_STAT(val) bfin_write32(WDOG_STAT, val)
#define bfin_read_SPI_BAUD() bfin_read32(SPI0_CLK)
#define bfin_write_SPI_BAUD(val) bfin_write32(SPI0_CLK, val)
#define bfin_read_PORTD_FER() bfin_read32(PORTD_FER)
#define bfin_write_PORTD_FER_SET(val) bfin_write32(PORTD_FER_SET, val)
#define bfin_write_PORTD_FER_CLR(val) bfin_write32(PORTD_FER_CLR, val)
#define bfin_read_PORTD_MUX() bfin_read32(PORTD_MUX)
#define bfin_write_PORTD_MUX(val) bfin_write32(PORTD_MUX, val)
#define bfin_read_PORTG_FER() bfin_read32(PORTG_FER)
#define bfin_write_PORTG_FER_SET(val) bfin_write32(PORTG_FER_SET, val)
#define bfin_write_PORTG_FER_CLR(val) bfin_write32(PORTG_FER_CLR, val)
#define bfin_read_PORTG_MUX() bfin_read32(PORTG_MUX)
#define bfin_write_PORTG_MUX(val) bfin_write32(PORTG_MUX, val)
#define bfin_read_RSI_CLK_CONTROL() bfin_read16(RSI_CLK_CONTROL)
#define bfin_write_RSI_CLK_CONTROL(val) bfin_write16(RSI_CLK_CONTROL, val)
#define bfin_read_RSI_ARGUMENT() bfin_read32(RSI_ARGUMENT)
#define bfin_write_RSI_ARGUMENT(val) bfin_write32(RSI_ARGUMENT, val)
#define bfin_read_RSI_COMMAND() bfin_read16(RSI_COMMAND)
#define bfin_write_RSI_COMMAND(val) bfin_write16(RSI_COMMAND, val)
#define bfin_read_RSI_RESP_CMD() bfin_read16(RSI_RESP_CMD)
#define bfin_write_RSI_RESP_CMD(val) bfin_write16(RSI_RESP_CMD, val)
#define bfin_read_RSI_RESPONSE0() bfin_read32(RSI_RESPONSE0)
#define bfin_write_RSI_RESPONSE0(val) bfin_write32(RSI_RESPONSE0, val)
#define bfin_read_RSI_RESPONSE1() bfin_read32(RSI_RESPONSE1)
#define bfin_write_RSI_RESPONSE1(val) bfin_write32(RSI_RESPONSE1, val)
#define bfin_read_RSI_RESPONSE2() bfin_read32(RSI_RESPONSE2)
#define bfin_write_RSI_RESPONSE2(val) bfin_write32(RSI_RESPONSE2, val)
#define bfin_read_RSI_RESPONSE3() bfin_read32(RSI_RESPONSE3)
#define bfin_write_RSI_RESPONSE3(val) bfin_write32(RSI_RESPONSE3, val)
#define bfin_read_RSI_DATA_TIMER() bfin_read32(RSI_DATA_TIMER)
#define bfin_write_RSI_DATA_TIMER(val) bfin_write32(RSI_DATA_TIMER, val)
#define bfin_read_RSI_DATA_LGTH() bfin_read16(RSI_DATA_LGTH)
#define bfin_write_RSI_DATA_LGTH(val) bfin_write16(RSI_DATA_LGTH, val)
#define bfin_read_RSI_DATA_CONTROL() bfin_read16(RSI_DATA_CONTROL)
#define bfin_write_RSI_DATA_CONTROL(val) bfin_write16(RSI_DATA_CONTROL, val)
#define bfin_read_RSI_DATA_CNT() bfin_read16(RSI_DATA_CNT)
#define bfin_write_RSI_DATA_CNT(val) bfin_write16(RSI_DATA_CNT, val)
#define bfin_read_RSI_STATUS() bfin_read32(RSI_STATUS)
#define bfin_write_RSI_STATUS(val) bfin_write32(RSI_STATUS, val)
#define bfin_read_RSI_STATUSCL() bfin_read16(RSI_STATUSCL)
#define bfin_write_RSI_STATUSCL(val) bfin_write16(RSI_STATUSCL, val)
#define bfin_read_RSI_MASK0() bfin_read32(RSI_MASK0)
#define bfin_write_RSI_MASK0(val) bfin_write32(RSI_MASK0, val)
#define bfin_read_RSI_MASK1() bfin_read32(RSI_MASK1)
#define bfin_write_RSI_MASK1(val) bfin_write32(RSI_MASK1, val)
#define bfin_read_RSI_FIFO_CNT() bfin_read16(RSI_FIFO_CNT)
#define bfin_write_RSI_FIFO_CNT(val) bfin_write16(RSI_FIFO_CNT, val)
#define bfin_read_RSI_CEATA_CONTROL() bfin_read16(RSI_CEATA_CONTROL)
#define bfin_write_RSI_CEATA_CONTROL(val) bfin_write16(RSI_CEATA_CONTROL, val)
#define bfin_read_RSI_BLKSZ() bfin_read16(RSI_BLKSZ)
#define bfin_write_RSI_BLKSZ(val) bfin_write16(RSI_BLKSZ, val)
#define bfin_read_RSI_FIFO() bfin_read32(RSI_FIFO)
#define bfin_write_RSI_FIFO(val) bfin_write32(RSI_FIFO, val)
#define bfin_read_RSI_ESTAT() bfin_read32(RSI_ESTAT)
#define bfin_write_RSI_ESTAT(val) bfin_write32(RSI_ESTAT, val)
#define bfin_read_RSI_EMASK() bfin_read32(RSI_EMASK)
#define bfin_write_RSI_EMASK(val) bfin_write32(RSI_EMASK, val)
#define bfin_read_RSI_CONFIG() bfin_read16(RSI_CONFIG)
#define bfin_write_RSI_CONFIG(val) bfin_write16(RSI_CONFIG, val)
#define bfin_read_RSI_RD_WAIT_EN() bfin_read16(RSI_RD_WAIT_EN)
#define bfin_write_RSI_RD_WAIT_EN(val) bfin_write16(RSI_RD_WAIT_EN, val)
#define bfin_read_RSI_PID0() bfin_read16(RSI_PID0)
#define bfin_write_RSI_PID0(val) bfin_write16(RSI_PID0, val)
#define bfin_read_RSI_PID1() bfin_read16(RSI_PID1)
#define bfin_write_RSI_PID1(val) bfin_write16(RSI_PID1, val)
#define bfin_read_RSI_PID2() bfin_read16(RSI_PID2)
#define bfin_write_RSI_PID2(val) bfin_write16(RSI_PID2, val)
#define bfin_read_RSI_PID3() bfin_read16(RSI_PID3)
#define bfin_write_RSI_PID3(val) bfin_write16(RSI_PID3, val)
#endif /* __BFIN_CDEF_ADSP_BF609_proc__ */

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@ -0,0 +1,247 @@
/* DO NOT EDIT THIS FILE
* Automatically generated by generate-def-headers.xsl
* DO NOT EDIT THIS FILE
*/
#ifndef __BFIN_DEF_ADSP_BF609_proc__
#define __BFIN_DEF_ADSP_BF609_proc__
#include "../mach-common/ADSP-EDN-core_def.h"
#define RSI_CLK_CONTROL 0xFFC00604 /* RSI0 Clock Control Register */
#define RSI_ARGUMENT 0xFFC00608 /* RSI0 Argument Register */
#define RSI_COMMAND 0xFFC0060C /* RSI0 Command Register */
#define RSI_RESP_CMD 0xFFC00610 /* RSI0 Response Command Register */
#define RSI_RESPONSE0 0xFFC00614 /* RSI0 Response 0 Register */
#define RSI_RESPONSE1 0xFFC00618 /* RSI0 Response 1 Register */
#define RSI_RESPONSE2 0xFFC0061C /* RSI0 Response 2 Register */
#define RSI_RESPONSE3 0xFFC00620 /* RSI0 Response 3 Register */
#define RSI_DATA_TIMER 0xFFC00624 /* RSI0 Data Timer Register */
#define RSI_DATA_LGTH 0xFFC00628 /* RSI0 Data Length Register */
#define RSI_DATA_CONTROL 0xFFC0062C /* RSI0 Data Control Register */
#define RSI_DATA_CNT 0xFFC00630 /* RSI0 Data Count Register */
#define RSI_STATUS 0xFFC00634 /* RSI0 Status Register */
#define RSI_STATUSCL 0xFFC00638 /* RSI0 Status Clear Register */
#define RSI_IMSK0 0xFFC0063C /* RSI0 Interrupt 0 Mask Register */
#define RSI_IMSK1 0xFFC00640 /* RSI0 Interrupt 1 Mask Register */
#define RSI_FIFO_CNT 0xFFC00648 /* RSI0 FIFO Counter Register */
#define RSI_CEATA_CONTROL 0xFFC0064C /* RSI0 contains bit to dis CCS gen */
#define RSI_BOOT_TCNTR 0xFFC00650 /* RSI0 Boot Timing Counter Register */
#define RSI_BACK_TOUT 0xFFC00654 /* RSI0 Boot Ack Timeout Register */
#define RSI_SLP_WKUP_TOUT 0xFFC00658 /* RSI0 Sleep Wakeup Timeout Register */
#define RSI_BLKSZ 0xFFC0065C /* RSI0 Block Size Register */
#define RSI_FIFO 0xFFC00680 /* RSI0 Data FIFO Register */
#define RSI_ESTAT 0xFFC006C0 /* RSI0 Exception Status Register */
#define RSI_EMASK 0xFFC006C4 /* RSI0 Exception Mask Register */
#define RSI_CONFIG 0xFFC006C8 /* RSI0 Configuration Register */
#define RSI_RD_WAIT_EN 0xFFC006CC /* RSI0 Read Wait Enable Register */
#define RSI_PID0 0xFFC006D0 /* RSI0 Peripheral Id Register */
#define RSI_PID1 0xFFC006D4 /* RSI0 Peripheral Id Register */
#define RSI_PID2 0xFFC006D8 /* RSI0 Peripheral Id Register */
#define RSI_PID3 0xFFC006DC /* RSI0 Peripheral Id Register */
#define TWI0_CLKDIV 0xFFC01E00 /* TWI0 SCL Clock Divider */
#define TWI1_CLKDIV 0xFFC01F00 /* TWI1 SCL Clock Divider */
#define UART0_REVID 0xFFC02000 /* UART0 Revision ID Register */
#define UART0_CTL 0xFFC02004 /* UART0 Control Register */
#define UART0_STAT 0xFFC02008 /* UART0 Status Register */
#define UART0_SCR 0xFFC0200C /* UART0 Scratch Register */
#define UART0_CLK 0xFFC02010 /* UART0 Clock Rate Register */
#define UART0_IMSK 0xFFC02014 /* UART0 Interrupt Mask Register */
#define UART0_IMSK_SET 0xFFC02018 /* UART0 Interrupt Mask Set Register */
#define UART0_IMSK_CLR 0xFFC0201C /* UART0 Interrupt Mask Clear Register */
#define UART0_RBR 0xFFC02020 /* UART0 Receive Buffer Register */
#define UART0_THR 0xFFC02024 /* UART0 Transmit Hold Register */
#define UART0_TAIP 0xFFC02028 /* UART0 TX Address/Insert Pulse Reg */
#define UART0_TSR 0xFFC0202C /* UART0 Transmit Shift Register */
#define UART0_RSR 0xFFC02030 /* UART0 Receive Shift Register */
#define UART0_TXCNT 0xFFC02034 /* UART0 Transmit Counter Register */
#define UART0_RXCNT 0xFFC02038 /* UART0 Receive Counter Register */
#define UART1_REVID 0xFFC02400 /* UART1 Revision ID Register */
#define UART1_CTL 0xFFC02404 /* UART1 Control Register */
#define UART1_STAT 0xFFC02408 /* UART1 Status Register */
#define UART1_SCR 0xFFC0240C /* UART1 Scratch Register */
#define UART1_CLK 0xFFC02410 /* UART1 Clock Rate Register */
#define UART1_IMSK 0xFFC02414 /* UART1 Interrupt Mask Register */
#define UART1_IMSK_SET 0xFFC02418 /* UART1 Interrupt Mask Set Register */
#define UART1_IMSK_CLR 0xFFC0241C /* UART1 Interrupt Mask Clear Register */
#define UART1_RBR 0xFFC02420 /* UART1 Receive Buffer Register */
#define UART1_THR 0xFFC02424 /* UART1 Transmit Hold Register */
#define UART1_TAIP 0xFFC02428 /* UART1 TX Address/Insert Pulse Reg */
#define UART1_TSR 0xFFC0242C /* UART1 Transmit Shift Register */
#define UART1_RSR 0xFFC02430 /* UART1 Receive Shift Register */
#define UART1_TXCNT 0xFFC02434 /* UART1 Transmit Counter Register */
#define UART1_RXCNT 0xFFC02438 /* UART1 Receive Counter Register */
#define PORTA_FER 0xFFC03000 /* PORTA Port x Function Enable */
#define PORTA_FER_SET 0xFFC03004 /* PORTA Port x Function Enable Set */
#define PORTA_FER_CLR 0xFFC03008 /* PORTA Port x Function Enable Clear */
#define PORTA_MUX 0xFFC03030 /* PORTA Port x Multiplexer Control */
#define PORTB_FER 0xFFC03080 /* PORTB Port x Function Enable */
#define PORTB_FER_SET 0xFFC03084 /* PORTB Port x Function Enable Set */
#define PORTB_FER_CLR 0xFFC03088 /* PORTB Port x Function Enable Clear */
#define PORTB_MUX 0xFFC030B0 /* PORTB Port x Multiplexer Control */
#define PORTC_FER 0xFFC03100 /* PORTC Port x Function Enable */
#define PORTC_FER_SET 0xFFC03104 /* PORTC Port x Function Enable Set */
#define PORTC_FER_CLR 0xFFC03108 /* PORTC Port x Function Enable Clear */
#define PORTC_MUX 0xFFC03130 /* PORTC Port x Multiplexer Control */
#define PORTD_FER 0xFFC03180 /* PORTD Port x Function Enable */
#define PORTD_FER_SET 0xFFC03184 /* PORTD Port x Function Enable Set */
#define PORTD_FER_CLR 0xFFC03188 /* PORTD Port x Function Enable Clear */
#define PORTD_MUX 0xFFC031B0 /* PORTD Port x Multiplexer Control */
#define PORTE_FER 0xFFC03200 /* PORTE Port x Function Enable */
#define PORTE_FER_SET 0xFFC03204 /* PORTE Port x Function Enable Set */
#define PORTE_FER_CLR 0xFFC03208 /* PORTE Port x Function Enable Clear */
#define PORTE_MUX 0xFFC03230 /* PORTE Port x Multiplexer Control */
#define PORTF_FER 0xFFC03280 /* PORTF Port x Function Enable */
#define PORTF_FER_SET 0xFFC03284 /* PORTF Port x Function Enable Set */
#define PORTF_FER_CLR 0xFFC03288 /* PORTF Port x Function Enable Clear */
#define PORTF_MUX 0xFFC032B0 /* PORTF Port x Multiplexer Control */
#define PORTG_FER 0xFFC03300 /* PORTG Port x Function Enable */
#define PORTG_FER_SET 0xFFC03304 /* PORTG Port x Function Enable Set */
#define PORTG_FER_CLR 0xFFC03308 /* PORTG Port x Function Enable Clear */
#define PORTG_MUX 0xFFC03330 /* PORTG Port x Multiplexer Control */
#define SMC_GCTL 0xFFC16004 /* SMC Control Register */
#define SMC_GSTAT 0xFFC16008 /* SMC Status Register */
#define SMC_B0CTL 0xFFC1600C /* SMC Bank0 Control Register */
#define SMC_B0TIM 0xFFC16010 /* SMC Bank0 Timing Register */
#define SMC_B0ETIM 0xFFC16014 /* SMC Bank0 Extended Timing Register */
#define SMC_B1CTL 0xFFC1601C /* SMC BANK1 Control Register */
#define SMC_B1TIM 0xFFC16020 /* SMC BANK1 Timing Register */
#define SMC_B1ETIM 0xFFC16024 /* SMC BANK1 Extended Timing Register */
#define SMC_B2CTL 0xFFC1602C /* SMC BANK2 Control Register */
#define SMC_B2TIM 0xFFC16030 /* SMC BANK2 Timing Register */
#define SMC_B2ETIM 0xFFC16034 /* SMC BANK2 Extended Timing Register */
#define SMC_B3CTL 0xFFC1603C /* SMC BANK3 Control Register */
#define SMC_B3TIM 0xFFC16040 /* SMC BANK3 Timing Register */
#define SMC_B3ETIM 0xFFC16044 /* SMC BANK3 Extended Timing Register */
#define WDOG_CTL 0xFFC17000 /* WDOG0 Control Register */
#define WDOG_CNT 0xFFC17004 /* WDOG0 Count Register */
#define WDOG_STAT 0xFFC17008 /* WDOG0 Watchdog Timer Status Register */
#define WDOG1_CTL 0xFFC17800 /* WDOG1 Control Register */
#define WDOG1_CNT 0xFFC17804 /* WDOG1 Count Register */
#define WDOG1_STAT 0xFFC17808 /* WDOG1 Watchdog Timer Status Register */
#define EMAC0_MACCFG 0xFFC20000 /* EMAC0 MAC Configuration Register */
#define EMAC1_MACCFG 0xFFC22000 /* EMAC1 MAC Configuration Register */
#define DMA10_DSCPTR_NXT 0xFFC05000 /* DMA10 Pointer to Next Initial Desc */
#define DMA10_ADDRSTART 0xFFC05004 /* DMA10 Start Address of Current Buf */
#define DMA10_CFG 0xFFC05008 /* DMA10 Configuration Register */
#define DMA10_XCNT 0xFFC0500C /* DMA10 Inner Loop Count Start Value */
#define DMA10_XMOD 0xFFC05010 /* DMA10 Inner Loop Address Increment */
#define DMA10_YCNT 0xFFC05014 /* DMA10 Outer Loop Count Start Value */
#define DMA10_YMOD 0xFFC05018 /* DMA10 Outer Loop Address Increment */
#define DMA10_DSCPTR_CUR 0xFFC05024 /* DMA10 Current Descriptor Pointer */
#define DMA10_DSCPTR_PRV 0xFFC05028 /* DMA10 Previous Initial Desc Pointer */
#define DMA10_ADDR_CUR 0xFFC0502C /* DMA10 Current Address */
#define DMA10_STAT 0xFFC05030 /* DMA10 Status Register */
#define DMA10_XCNT_CUR 0xFFC05034 /* DMA10 Curr Count(1D) or intra-row(2D)*/
#define DMA10_YCNT_CUR 0xFFC05038 /* DMA10 Curr Row Count (2D only) */
#define DMA10_BWLCNT 0xFFC05040 /* DMA10 Bandwidth Limit Count */
#define DMA10_BWLCNT_CUR 0xFFC05044 /* DMA10 Bandwidth Limit Count Current */
#define DMA10_BWMCNT 0xFFC05048 /* DMA10 Bandwidth Monitor Count */
#define DMA10_BWMCNT_CUR 0xFFC0504C /* DMA10 Bandwidth Monitor Count Current*/
#define MDMA_S0_NEXT_DESC_PTR DMA21_DSCPTR_NXT
#define DMA21_DSCPTR_NXT 0xFFC09000 /* DMA21 Pointer to Next Initial Desc */
#define MDMA_D0_NEXT_DESC_PTR DMA22_DSCPTR_NXT
#define DMA22_DSCPTR_NXT 0xFFC09080 /* DMA22 Pointer to Next Initial Desc */
#define DMC0_ID 0xFFC80000 /* DMC0 Identification Register */
#define DMC0_CTL 0xFFC80004 /* DMC0 Control Register */
#define DMC0_STAT 0xFFC80008 /* DMC0 Status Register */
#define DMC0_EFFCTL 0xFFC8000C /* DMC0 Efficiency Controller */
#define DMC0_PRIO 0xFFC80010 /* DMC0 Priority ID Register */
#define DMC0_PRIOMSK 0xFFC80014 /* DMC0 Priority ID Mask */
#define DMC0_CFG 0xFFC80040 /* DMC0 SDRAM Configuration */
#define DMC0_TR0 0xFFC80044 /* DMC0 Timing Register 0 */
#define DMC0_TR1 0xFFC80048 /* DMC0 Timing Register 1 */
#define DMC0_TR2 0xFFC8004C /* DMC0 Timing Register 2 */
#define DMC0_MSK 0xFFC8005C /* DMC0 Mode Register Mask */
#define DMC0_MR 0xFFC80060 /* DMC0 Mode Shadow register */
#define DMC0_EMR1 0xFFC80064 /* DMC0 EMR1 Shadow Register */
#define DMC0_EMR2 0xFFC80068 /* DMC0 EMR2 Shadow Register */
#define DMC0_EMR3 0xFFC8006C /* DMC0 EMR3 Shadow Register */
#define DMC0_DLLCTL 0xFFC80080 /* DMC0 DLL Control Register */
#define DMC0_PADCTL 0xFFC800C0 /* DMC0 PAD Control Register 0 */
#define SEC0_CCTL0 0xFFCA4400 /* SEC0 Core Control Register n */
#define SEC0_CCTL1 0xFFCA4440 /* SEC0 Core Control Register n */
#define SEC0_FCTL 0xFFCA4010 /* SEC0 Fault Control Register */
#define SEC0_GCTL 0xFFCA4000 /* SEC0 Global Control Register */
#define SEC0_SCTL0 0xFFCA4800 /* SEC0 IRQ Source Control Register n */
#define RCU0_CTL 0xFFCA6000 /* RCU0 Control Register */
#define RCU0_STAT 0xFFCA6004 /* RCU0 Status Register */
#define RCU0_CRCTL 0xFFCA6008 /* RCU0 Core Reset Control Register */
#define RCU0_CRSTAT 0xFFCA600C /* RCU0 Core Reset Status Register */
#define RCU0_SIDIS 0xFFCA6010 /* RCU0 Sys Interface Disable Register */
#define RCU0_SISTAT 0xFFCA6014 /* RCU0 Sys Interface Status Register */
#define RCU0_SVECT_LCK 0xFFCA6018 /* RCU0 SVECT Lock Register */
#define RCU0_BCODE 0xFFCA601C /* RCU0 Boot Code Register */
#define RCU0_SVECT0 0xFFCA6020 /* RCU0 Software Vector Register n */
#define RCU0_SVECT1 0xFFCA6024 /* RCU0 Software Vector Register n */
#define CGU_CTL 0xFFCA8000 /* CGU0 Control Register */
#define CGU_STAT 0xFFCA8004 /* CGU0 Status Register */
#define CGU_DIV 0xFFCA8008 /* CGU0 Divisor Register */
#define CGU_CLKOUTSEL 0xFFCA800C /* CGU0 CLKOUT Select Register */
#define DPM0_CTL 0xFFCA9000 /* DPM0 Control Register */
#define DPM0_STAT 0xFFCA9004 /* DPM0 Status Register */
#define DPM0_CCBF_DIS 0xFFCA9008 /* DPM0 Core Clock Buffer Disable */
#define DPM0_CCBF_EN 0xFFCA900C /* DPM0 Core Clock Buffer Enable */
#define DPM0_CCBF_STAT 0xFFCA9010 /* DPM0 Core Clock Buffer Status */
#define DPM0_CCBF_STAT_STKY 0xFFCA9014 /* DPM0 Core Clock Buffer Stat Sticky */
#define DPM0_SCBF_DIS 0xFFCA9018 /* DPM0 System Clock Buffer Disable */
#define DPM0_WAKE_EN 0xFFCA901C /* DPM0 Wakeup Enable Register */
#define DPM0_WAKE_POL 0xFFCA9020 /* DPM0 Wakeup Polarity Register */
#define DPM0_WAKE_STAT 0xFFCA9024 /* DPM0 Wakeup Status Register */
#define DPM0_HIB_DIS 0xFFCA9028 /* DPM0 Hibernate Disable Register */
#define DPM0_PGCNTR 0xFFCA902C /* DPM0 Power Good Counter Register */
#define DPM0_RESTORE0 0xFFCA9030 /* DPM0 Restore Register */
#define DPM0_RESTORE1 0xFFCA9034 /* DPM0 Restore Register */
#define DPM0_RESTORE2 0xFFCA9038 /* DPM0 Restore Register */
#define DPM0_RESTORE3 0xFFCA903C /* DPM0 Restore Register */
#define DPM0_RESTORE4 0xFFCA9040 /* DPM0 Restore Register */
#define DPM0_RESTORE5 0xFFCA9044 /* DPM0 Restore Register */
#define DPM0_RESTORE6 0xFFCA9048 /* DPM0 Restore Register */
#define DPM0_RESTORE7 0xFFCA904C /* DPM0 Restore Register */
#define DPM0_RESTORE8 0xFFCA9050 /* DPM0 Restore Register */
#define DPM0_RESTORE9 0xFFCA9054 /* DPM0 Restore Register */
#define DPM0_RESTORE10 0xFFCA9058 /* DPM0 Restore Register */
#define DPM0_RESTORE11 0xFFCA905C /* DPM0 Restore Register */
#define DPM0_RESTORE12 0xFFCA9060 /* DPM0 Restore Register */
#define DPM0_RESTORE13 0xFFCA9064 /* DPM0 Restore Register */
#define DPM0_RESTORE14 0xFFCA9068 /* DPM0 Restore Register */
#define DPM0_RESTORE15 0xFFCA906C /* DPM0 Restore Register */
#define USB_FADDR 0xFFCC1000 /* USB Device Address in Peripheral Mode*/
#define USB_DMA_IRQ 0xFFCC1200 /* USB Interrupt Register */
#define USB_VBUS_CTL 0xFFCC1380 /* USB VBus Control */
#define USB_PHY_CTL 0xFFCC1394 /* USB PHY Control */
#define USB_PLL_OSC 0xFFCC1398 /* USB PLL and Oscillator Control */
#define CHIPID 0xffc00014
/* CHIPID Masks */
#define CHIPID_VERSION 0xF0000000
#define CHIPID_FAMILY 0x0FFFF000
#define CHIPID_MANUFACTURE 0x00000FFE
#define L1_DATA_A_SRAM 0xFF800000 /* 0xFF800000->0xFF803FFF Data Bank A SRAM */
#define L1_DATA_A_SRAM_SIZE 0x8000
#define L1_DATA_A_SRAM_END (L1_DATA_A_SRAM + L1_DATA_A_SRAM_SIZE)
#define L1_DATA_B_SRAM 0xFF900000 /* 0xFF900000->0xFF903FFF Data Bank B SRAM */
#define L1_DATA_B_SRAM_SIZE 0x4000
#define L1_DATA_B_SRAM_END (L1_DATA_B_SRAM + L1_DATA_B_SRAM_SIZE)
#define L1_INST_SRAM 0xFFA00000 /* 0xFFA00000->0xFFA07FFF Inst Bank A SRAM */
#define L1_INST_SRAM_SIZE 0x8000
#define L1_INST_SRAM_END (L1_INST_SRAM + L1_INST_SRAM_SIZE)
#endif /* __BFIN_DEF_ADSP_BF609_proc__ */

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/*
* Copyright 2004-2012 Analog Devices Inc.
* Licensed under the ADI BSD license.
* https://docs.blackfin.uclinux.org/doku.php?id=adi_bsd
*/
/* This file should be up to date with:
* - Revision A, 15/06/2012; ADSP-BF609 Blackfin Processor Anomaly List
*/
#if __SILICON_REVISION__ < 0
# error will not work on BF609 silicon version
#endif
#ifndef _MACH_ANOMALY_H_
#define _MACH_ANOMALY_H_
/* TRU_STAT.ADDRERR and TRU_ERRADDR.ADDR May Not Reflect the Correct Status */
#define ANOMALY_16000003 (1)
/* The EPPI Data Enable (DEN) Signal is Not Functional */
#define ANOMALY_16000004 (1)
/* Using L1 Instruction Cache with Parity Enabled is Unreliable */
#define ANOMALY_16000005 (1)
/* SEQSTAT.SYSNMI Clears Upon Entering the NMI ISR */
#define ANOMALY_16000006 (1)
/* DDR2 Memory Reads May Fail Intermittently */
#define ANOMALY_16000007 (1)
/* Instruction Memory Stalls Can Cause IFLUSH to Fail */
#define ANOMALY_16000008 (1)
/* TestSET Instruction Cannot Be Interrupted */
#define ANOMALY_16000009 (1)
/* IFLUSH Instruction at End of Hardware Loop Causes Infinite Stall */
#define ANOMALY_16000010 (1)
/* False Hardware Error when RETI Points to Invalid Memory */
#define ANOMALY_16000011 (1)
/* Speculative Fetches of Indirect-Pointer Inst Can Cause False Hw Errors */
#define ANOMALY_16000012 (1)
/* False Hardware Errors Caused by Fetches at the Boundary of Reserved Memory */
#define ANOMALY_16000013 (1)
/* False Hardware Error from an Access in the Shadow of a Conditional Branch */
#define ANOMALY_16000014 (1)
/* Multi-Issue Inst with dsp32shiftimm in slot1 and P in slot2 Not Supported */
#define ANOMALY_16000015 (1)
/* Speculative Fetches Can Cause Undesired External FIFO Operations */
#define ANOMALY_16000017 (1)
/* RSI Boot Cleanup Routine Does Not Clear Registers */
#define ANOMALY_16000018 (1)
/* SPI Master Boot Device Auto-detection Frequency is Set Incorrectly */
#define ANOMALY_16000019 (1)
/* rom_SysControl() Fails to Set DDR0_CTL.INIT for Wakeup From Hibernate */
#define ANOMALY_16000020 (1)
/* rom_SysControl() Fails to Save and Restore DDR0_PHYCTL3 for Hb/Wk Sequence */
#define ANOMALY_16000021 (1)
/* Boot Code Fails to Enable Parity Fault Detection */
#define ANOMALY_16000022 (1)
/* USB DMA interrupt status do not show the DMA channel intr in the DMA ISR */
#define ANOMALY_16000027 (1)
/* Interrupted Core Reads of MMRs May Cause Data Loss */
#define ANOMALY_16000030 (1)
/* Anomalies that don't exist on this proc */
#define ANOMALY_05000158 (0)
#define ANOMALY_05000189 (0)
#define ANOMALY_05000198 (0)
#define ANOMALY_05000219 (0)
#define ANOMALY_05000230 (0)
#define ANOMALY_05000231 (0)
#define ANOMALY_05000244 (0)
#define ANOMALY_05000261 (0)
#define ANOMALY_05000263 (0)
#define ANOMALY_05000273 (0)
#define ANOMALY_05000274 (0)
#define ANOMALY_05000278 (0)
#define ANOMALY_05000281 (0)
#define ANOMALY_05000287 (0)
#define ANOMALY_05000311 (0)
#define ANOMALY_05000312 (0)
#define ANOMALY_05000323 (0)
#define ANOMALY_05000353 (1)
#define ANOMALY_05000363 (0)
#define ANOMALY_05000386 (0)
#define ANOMALY_05000480 (0)
#define ANOMALY_05000481 (1)
/* Reuse BF5xx anomalies IDs for the same anomaly in BF60x */
#define ANOMALY_05000491 ANOMALY_16000008
#define ANOMALY_05000477 ANOMALY_16000009
#define ANOMALY_05000443 ANOMALY_16000010
#define ANOMALY_05000461 ANOMALY_16000011
#define ANOMALY_05000426 ANOMALY_16000012
#define ANOMALY_05000310 ANOMALY_16000013
#define ANOMALY_05000245 ANOMALY_16000014
#define ANOMALY_05000074 ANOMALY_16000015
#define ANOMALY_05000416 ANOMALY_16000017
#endif

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#include "gpio.h"
#include "portmux.h"
#include "ports.h"
#define CONFIG_BF60x 1 /* Linux glue */

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/*
* Copyright (C) 2008 Analog Devices Inc.
* Licensed under the GPL-2 or later.
*/
#ifndef _MACH_GPIO_H_
#define _MACH_GPIO_H_
#define MAX_BLACKFIN_GPIOS 112
#define GPIO_PA0 0
#define GPIO_PA1 1
#define GPIO_PA2 2
#define GPIO_PA3 3
#define GPIO_PA4 4
#define GPIO_PA5 5
#define GPIO_PA6 6
#define GPIO_PA7 7
#define GPIO_PA8 8
#define GPIO_PA9 9
#define GPIO_PA10 10
#define GPIO_PA11 11
#define GPIO_PA12 12
#define GPIO_PA13 13
#define GPIO_PA14 14
#define GPIO_PA15 15
#define GPIO_PB0 16
#define GPIO_PB1 17
#define GPIO_PB2 18
#define GPIO_PB3 19
#define GPIO_PB4 20
#define GPIO_PB5 21
#define GPIO_PB6 22
#define GPIO_PB7 23
#define GPIO_PB8 24
#define GPIO_PB9 25
#define GPIO_PB10 26
#define GPIO_PB11 27
#define GPIO_PB12 28
#define GPIO_PB13 29
#define GPIO_PB14 30
#define GPIO_PB15 31
#define GPIO_PC0 32
#define GPIO_PC1 33
#define GPIO_PC2 34
#define GPIO_PC3 35
#define GPIO_PC4 36
#define GPIO_PC5 37
#define GPIO_PC6 38
#define GPIO_PC7 39
#define GPIO_PC8 40
#define GPIO_PC9 41
#define GPIO_PC10 42
#define GPIO_PC11 43
#define GPIO_PC12 44
#define GPIO_PC13 45
#define GPIO_PC14 46
#define GPIO_PC15 47
#define GPIO_PD0 48
#define GPIO_PD1 49
#define GPIO_PD2 50
#define GPIO_PD3 51
#define GPIO_PD4 52
#define GPIO_PD5 53
#define GPIO_PD6 54
#define GPIO_PD7 55
#define GPIO_PD8 56
#define GPIO_PD9 57
#define GPIO_PD10 58
#define GPIO_PD11 59
#define GPIO_PD12 60
#define GPIO_PD13 61
#define GPIO_PD14 62
#define GPIO_PD15 63
#define GPIO_PE0 64
#define GPIO_PE1 65
#define GPIO_PE2 66
#define GPIO_PE3 67
#define GPIO_PE4 68
#define GPIO_PE5 69
#define GPIO_PE6 70
#define GPIO_PE7 71
#define GPIO_PE8 72
#define GPIO_PE9 73
#define GPIO_PE10 74
#define GPIO_PE11 75
#define GPIO_PE12 76
#define GPIO_PE13 77
#define GPIO_PE14 78
#define GPIO_PE15 79
#define GPIO_PF0 80
#define GPIO_PF1 81
#define GPIO_PF2 82
#define GPIO_PF3 83
#define GPIO_PF4 84
#define GPIO_PF5 85
#define GPIO_PF6 86
#define GPIO_PF7 87
#define GPIO_PF8 88
#define GPIO_PF9 89
#define GPIO_PF10 90
#define GPIO_PF11 91
#define GPIO_PF12 92
#define GPIO_PF13 93
#define GPIO_PF14 94
#define GPIO_PF15 95
#define GPIO_PG0 96
#define GPIO_PG1 97
#define GPIO_PG2 98
#define GPIO_PG3 99
#define GPIO_PG4 100
#define GPIO_PG5 101
#define GPIO_PG6 102
#define GPIO_PG7 103
#define GPIO_PG8 104
#define GPIO_PG9 105
#define GPIO_PG10 106
#define GPIO_PG11 107
#define GPIO_PG12 108
#define GPIO_PG13 109
#define GPIO_PG14 110
#define GPIO_PG15 111
#ifndef __ASSEMBLY__
struct gpio_port_t {
unsigned long port_fer;
unsigned long port_fer_set;
unsigned long port_fer_clear;
unsigned long data;
unsigned long data_set;
unsigned long data_clear;
unsigned long dir;
unsigned long dir_set;
unsigned long dir_clear;
unsigned long inen;
unsigned long inen_set;
unsigned long inen_clear;
unsigned long port_mux;
unsigned long toggle;
unsigned long polar;
unsigned long polar_set;
unsigned long polar_clear;
unsigned long lock;
unsigned long spare;
unsigned long revid;
};
#endif
#endif /* _MACH_GPIO_H_ */

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/*
* Copyright 2008-2011 Analog Devices Inc.
*
* Licensed under the GPL-2 or later
*/
#ifndef _MACH_PORTMUX_H_
#define _MACH_PORTMUX_H_
#define MAX_RESOURCES MAX_BLACKFIN_GPIOS
/* EMAC RMII Port Mux */
#define P_MII0_MDC (P_DEFINED | P_IDENT(GPIO_PC6) | P_FUNCT(0))
#define P_MII0_MDIO (P_DEFINED | P_IDENT(GPIO_PC7) | P_FUNCT(0))
#define P_MII0_ETxD0 (P_DEFINED | P_IDENT(GPIO_PC2) | P_FUNCT(0))
#define P_MII0_ERxD0 (P_DEFINED | P_IDENT(GPIO_PC0) | P_FUNCT(0))
#define P_MII0_ETxD1 (P_DEFINED | P_IDENT(GPIO_PC3) | P_FUNCT(0))
#define P_MII0_ERxD1 (P_DEFINED | P_IDENT(GPIO_PC1) | P_FUNCT(0))
#define P_MII0_ETxEN (P_DEFINED | P_IDENT(GPIO_PB13) | P_FUNCT(0))
#define P_MII0_PHYINT (P_DEFINED | P_IDENT(GPIO_PD6) | P_FUNCT(0))
#define P_MII0_CRS (P_DEFINED | P_IDENT(GPIO_PC5) | P_FUNCT(0))
#define P_MII0_ERxER (P_DEFINED | P_IDENT(GPIO_PC4) | P_FUNCT(0))
#define P_MII0_TxCLK (P_DEFINED | P_IDENT(GPIO_PB14) | P_FUNCT(0))
#define P_RMII0 {\
P_MII0_ETxD0, \
P_MII0_ETxD1, \
P_MII0_ETxEN, \
P_MII0_ERxD0, \
P_MII0_ERxD1, \
P_MII0_ERxER, \
P_MII0_TxCLK, \
P_MII0_PHYINT, \
P_MII0_CRS, \
P_MII0_MDC, \
P_PTP0_PPS, \
P_PTP1_PPS, \
P_MII0_MDIO, 0}
#define P_MII1_MDC (P_DEFINED | P_IDENT(GPIO_PE10) | P_FUNCT(0))
#define P_MII1_MDIO (P_DEFINED | P_IDENT(GPIO_PE11) | P_FUNCT(0))
#define P_MII1_ETxD0 (P_DEFINED | P_IDENT(GPIO_PG3) | P_FUNCT(0))
#define P_MII1_ERxD0 (P_DEFINED | P_IDENT(GPIO_PG0) | P_FUNCT(0))
#define P_MII1_ETxD1 (P_DEFINED | P_IDENT(GPIO_PG2) | P_FUNCT(0))
#define P_MII1_ERxD1 (P_DEFINED | P_IDENT(GPIO_PE15) | P_FUNCT(0))
#define P_MII1_ETxEN (P_DEFINED | P_IDENT(GPIO_PG5) | P_FUNCT(0))
#define P_MII1_PHYINT (P_DEFINED | P_IDENT(GPIO_PE12) | P_FUNCT(0))
#define P_MII1_CRS (P_DEFINED | P_IDENT(GPIO_PE13) | P_FUNCT(0))
#define P_MII1_ERxER (P_DEFINED | P_IDENT(GPIO_PE14) | P_FUNCT(0))
#define P_MII1_TxCLK (P_DEFINED | P_IDENT(GPIO_PG6) | P_FUNCT(0))
#define P_RMII1 {\
P_MII1_ETxD0, \
P_MII1_ETxD1, \
P_MII1_ETxEN, \
P_MII1_ERxD0, \
P_MII1_ERxD1, \
P_MII1_ERxER, \
P_MII1_TxCLK, \
P_MII1_PHYINT, \
P_MII1_CRS, \
P_MII1_MDC, \
P_MII1_MDIO, 0}
/* PPI Port Mux */
#define P_PPI0_D0 (P_DEFINED | P_IDENT(GPIO_PF0) | P_FUNCT(1))
#define P_PPI0_D1 (P_DEFINED | P_IDENT(GPIO_PF1) | P_FUNCT(1))
#define P_PPI0_D2 (P_DEFINED | P_IDENT(GPIO_PF2) | P_FUNCT(1))
#define P_PPI0_D3 (P_DEFINED | P_IDENT(GPIO_PF3) | P_FUNCT(1))
#define P_PPI0_D4 (P_DEFINED | P_IDENT(GPIO_PF4) | P_FUNCT(1))
#define P_PPI0_D5 (P_DEFINED | P_IDENT(GPIO_PF5) | P_FUNCT(1))
#define P_PPI0_D6 (P_DEFINED | P_IDENT(GPIO_PF6) | P_FUNCT(1))
#define P_PPI0_D7 (P_DEFINED | P_IDENT(GPIO_PF7) | P_FUNCT(1))
#define P_PPI0_D8 (P_DEFINED | P_IDENT(GPIO_PF8) | P_FUNCT(1))
#define P_PPI0_D9 (P_DEFINED | P_IDENT(GPIO_PF9) | P_FUNCT(1))
#define P_PPI0_D10 (P_DEFINED | P_IDENT(GPIO_PF10) | P_FUNCT(1))
#define P_PPI0_D11 (P_DEFINED | P_IDENT(GPIO_PF11) | P_FUNCT(1))
#define P_PPI0_D12 (P_DEFINED | P_IDENT(GPIO_PF12) | P_FUNCT(1))
#define P_PPI0_D13 (P_DEFINED | P_IDENT(GPIO_PF13) | P_FUNCT(1))
#define P_PPI0_D14 (P_DEFINED | P_IDENT(GPIO_PF14) | P_FUNCT(1))
#define P_PPI0_D15 (P_DEFINED | P_IDENT(GPIO_PF15) | P_FUNCT(1))
#define P_PPI0_D16 (P_DEFINED | P_IDENT(GPIO_PE3) | P_FUNCT(1))
#define P_PPI0_D17 (P_DEFINED | P_IDENT(GPIO_PE4) | P_FUNCT(1))
#define P_PPI0_D18 (P_DEFINED | P_IDENT(GPIO_PE0) | P_FUNCT(1))
#define P_PPI0_D19 (P_DEFINED | P_IDENT(GPIO_PE1) | P_FUNCT(1))
#define P_PPI0_D20 (P_DEFINED | P_IDENT(GPIO_PD12) | P_FUNCT(1))
#define P_PPI0_D21 (P_DEFINED | P_IDENT(GPIO_PD15) | P_FUNCT(1))
#define P_PPI0_D22 (P_DEFINED | P_IDENT(GPIO_PE2) | P_FUNCT(1))
#define P_PPI0_D23 (P_DEFINED | P_IDENT(GPIO_PE5) | P_FUNCT(1))
#define P_PPI0_CLK (P_DEFINED | P_IDENT(GPIO_PE9) | P_FUNCT(1))
#define P_PPI0_FS1 (P_DEFINED | P_IDENT(GPIO_PE8) | P_FUNCT(1))
#define P_PPI0_FS2 (P_DEFINED | P_IDENT(GPIO_PE7) | P_FUNCT(1))
#define P_PPI0_FS3 (P_DEFINED | P_IDENT(GPIO_PE6) | P_FUNCT(1))
#define P_PPI1_D0 (P_DEFINED | P_IDENT(GPIO_PC0) | P_FUNCT(1))
#define P_PPI1_D1 (P_DEFINED | P_IDENT(GPIO_PC1) | P_FUNCT(1))
#define P_PPI1_D2 (P_DEFINED | P_IDENT(GPIO_PC2) | P_FUNCT(1))
#define P_PPI1_D3 (P_DEFINED | P_IDENT(GPIO_PC3) | P_FUNCT(1))
#define P_PPI1_D4 (P_DEFINED | P_IDENT(GPIO_PC4) | P_FUNCT(1))
#define P_PPI1_D5 (P_DEFINED | P_IDENT(GPIO_PC5) | P_FUNCT(1))
#define P_PPI1_D6 (P_DEFINED | P_IDENT(GPIO_PC6) | P_FUNCT(1))
#define P_PPI1_D7 (P_DEFINED | P_IDENT(GPIO_PC7) | P_FUNCT(1))
#define P_PPI1_D8 (P_DEFINED | P_IDENT(GPIO_PC8) | P_FUNCT(1))
#define P_PPI1_D9 (P_DEFINED | P_IDENT(GPIO_PC9) | P_FUNCT(1))
#define P_PPI1_D10 (P_DEFINED | P_IDENT(GPIO_PC10) | P_FUNCT(1))
#define P_PPI1_D11 (P_DEFINED | P_IDENT(GPIO_PC11) | P_FUNCT(1))
#define P_PPI1_D12 (P_DEFINED | P_IDENT(GPIO_PC12) | P_FUNCT(1))
#define P_PPI1_D13 (P_DEFINED | P_IDENT(GPIO_PC13) | P_FUNCT(1))
#define P_PPI1_D14 (P_DEFINED | P_IDENT(GPIO_PC14) | P_FUNCT(1))
#define P_PPI1_D15 (P_DEFINED | P_IDENT(GPIO_PC15) | P_FUNCT(1))
#define P_PPI1_D16 (P_DEFINED | P_IDENT(GPIO_PD0) | P_FUNCT(1))
#define P_PPI1_D17 (P_DEFINED | P_IDENT(GPIO_PD1) | P_FUNCT(1))
#define P_PPI1_CLK (P_DEFINED | P_IDENT(GPIO_PB14) | P_FUNCT(1))
#define P_PPI1_FS1 (P_DEFINED | P_IDENT(GPIO_PB13) | P_FUNCT(1))
#define P_PPI1_FS2 (P_DEFINED | P_IDENT(GPIO_PD6) | P_FUNCT(1))
#define P_PPI1_FS3 (P_DEFINED | P_IDENT(GPIO_PB15) | P_FUNCT(1))
#define P_PPI2_D0 (P_DEFINED | P_IDENT(GPIO_PA0) | P_FUNCT(1))
#define P_PPI2_D1 (P_DEFINED | P_IDENT(GPIO_PA1) | P_FUNCT(1))
#define P_PPI2_D2 (P_DEFINED | P_IDENT(GPIO_PA2) | P_FUNCT(1))
#define P_PPI2_D3 (P_DEFINED | P_IDENT(GPIO_PA3) | P_FUNCT(1))
#define P_PPI2_D4 (P_DEFINED | P_IDENT(GPIO_PA4) | P_FUNCT(1))
#define P_PPI2_D5 (P_DEFINED | P_IDENT(GPIO_PA5) | P_FUNCT(1))
#define P_PPI2_D6 (P_DEFINED | P_IDENT(GPIO_PA6) | P_FUNCT(1))
#define P_PPI2_D7 (P_DEFINED | P_IDENT(GPIO_PA7) | P_FUNCT(1))
#define P_PPI2_D8 (P_DEFINED | P_IDENT(GPIO_PA8) | P_FUNCT(1))
#define P_PPI2_D9 (P_DEFINED | P_IDENT(GPIO_PA9) | P_FUNCT(1))
#define P_PPI2_D10 (P_DEFINED | P_IDENT(GPIO_PA10) | P_FUNCT(1))
#define P_PPI2_D11 (P_DEFINED | P_IDENT(GPIO_PA11) | P_FUNCT(1))
#define P_PPI2_D12 (P_DEFINED | P_IDENT(GPIO_PA12) | P_FUNCT(1))
#define P_PPI2_D13 (P_DEFINED | P_IDENT(GPIO_PA13) | P_FUNCT(1))
#define P_PPI2_D14 (P_DEFINED | P_IDENT(GPIO_PA14) | P_FUNCT(1))
#define P_PPI2_D15 (P_DEFINED | P_IDENT(GPIO_PA15) | P_FUNCT(1))
#define P_PPI2_D16 (P_DEFINED | P_IDENT(GPIO_PB7) | P_FUNCT(1))
#define P_PPI2_D17 (P_DEFINED | P_IDENT(GPIO_PB8) | P_FUNCT(1))
#define P_PPI2_CLK (P_DEFINED | P_IDENT(GPIO_PB0) | P_FUNCT(1))
#define P_PPI2_FS1 (P_DEFINED | P_IDENT(GPIO_PB1) | P_FUNCT(1))
#define P_PPI2_FS2 (P_DEFINED | P_IDENT(GPIO_PB2) | P_FUNCT(1))
#define P_PPI2_FS3 (P_DEFINED | P_IDENT(GPIO_PB3) | P_FUNCT(1))
/* SPI Port Mux */
#define P_SPI0_SS (P_DEFINED | P_IDENT(GPIO_PD11) | P_FUNCT(3))
#define P_SPI0_SCK (P_DEFINED | P_IDENT(GPIO_PD4) | P_FUNCT(0))
#define P_SPI0_MISO (P_DEFINED | P_IDENT(GPIO_PD2) | P_FUNCT(0))
#define P_SPI0_MOSI (P_DEFINED | P_IDENT(GPIO_PD3) | P_FUNCT(0))
#define P_SPI0_RDY (P_DEFINED | P_IDENT(GPIO_PD10) | P_FUNCT(0))
#define P_SPI0_D2 (P_DEFINED | P_IDENT(GPIO_PD0) | P_FUNCT(0))
#define P_SPI0_D3 (P_DEFINED | P_IDENT(GPIO_PD1) | P_FUNCT(0))
#define P_SPI0_SSEL1 (P_DEFINED | P_IDENT(GPIO_PD11) | P_FUNCT(0))
#define P_SPI0_SSEL2 (P_DEFINED | P_IDENT(GPIO_PD1) | P_FUNCT(2))
#define P_SPI0_SSEL3 (P_DEFINED | P_IDENT(GPIO_PD0) | P_FUNCT(2))
#define P_SPI0_SSEL4 (P_DEFINED | P_IDENT(GPIO_PC15) | P_FUNCT(0))
#define P_SPI0_SSEL5 (P_DEFINED | P_IDENT(GPIO_PD9) | P_FUNCT(0))
#define P_SPI0_SSEL6 (P_DEFINED | P_IDENT(GPIO_PC13) | P_FUNCT(0))
#define P_SPI0_SSEL7 (P_DEFINED | P_IDENT(GPIO_PC12) | P_FUNCT(0))
#define P_SPI1_SS (P_DEFINED | P_IDENT(GPIO_PD12) | P_FUNCT(3))
#define P_SPI1_SCK (P_DEFINED | P_IDENT(GPIO_PD5) | P_FUNCT(0))
#define P_SPI1_MISO (P_DEFINED | P_IDENT(GPIO_PD14) | P_FUNCT(0))
#define P_SPI1_MOSI (P_DEFINED | P_IDENT(GPIO_PD13) | P_FUNCT(0))
#define P_SPI1_RDY (P_DEFINED | P_IDENT(GPIO_PE2) | P_FUNCT(0))
#define P_SPI1_D2 (P_DEFINED | P_IDENT(GPIO_PE1) | P_FUNCT(0))
#define P_SPI1_D3 (P_DEFINED | P_IDENT(GPIO_PE0) | P_FUNCT(0))
#define P_SPI1_SSEL1 (P_DEFINED | P_IDENT(GPIO_PD12) | P_FUNCT(0))
#define P_SPI1_SSEL2 (P_DEFINED | P_IDENT(GPIO_PD15) | P_FUNCT(2))
#define P_SPI1_SSEL3 (P_DEFINED | P_IDENT(GPIO_PD10) | P_FUNCT(2))
#define P_SPI1_SSEL4 (P_DEFINED | P_IDENT(GPIO_PD9) | P_FUNCT(2))
#define P_SPI1_SSEL5 (P_DEFINED | P_IDENT(GPIO_PF8) | P_FUNCT(0))
#define P_SPI1_SSEL6 (P_DEFINED | P_IDENT(GPIO_PF9) | P_FUNCT(0))
#define P_SPI1_SSEL7 (P_DEFINED | P_IDENT(GPIO_PC14) | P_FUNCT(0))
#define GPIO_DEFAULT_BOOT_SPI_CS
#define P_DEFAULT_BOOT_SPI_CS
/* UART Port Mux */
#define P_UART0_TX (P_DEFINED | P_IDENT(GPIO_PD7) | P_FUNCT(1))
#define P_UART0_RX (P_DEFINED | P_IDENT(GPIO_PD8) | P_FUNCT(1))
#define P_UART0_RTS (P_DEFINED | P_IDENT(GPIO_PD9) | P_FUNCT(1))
#define P_UART0_CTS (P_DEFINED | P_IDENT(GPIO_PD10) | P_FUNCT(1))
#define P_UART1_TX (P_DEFINED | P_IDENT(GPIO_PG15) | P_FUNCT(0))
#define P_UART1_RX (P_DEFINED | P_IDENT(GPIO_PG14) | P_FUNCT(0))
#define P_UART1_RTS (P_DEFINED | P_IDENT(GPIO_PG10) | P_FUNCT(0))
#define P_UART1_CTS (P_DEFINED | P_IDENT(GPIO_PG13) | P_FUNCT(0))
/* Timer */
#define P_TMRCLK (P_DEFINED | P_IDENT(GPIO_PG13) | P_FUNCT(3))
#define P_TMR0 (P_DEFINED | P_IDENT(GPIO_PE14) | P_FUNCT(2))
#define P_TMR1 (P_DEFINED | P_IDENT(GPIO_PG4) | P_FUNCT(1))
#define P_TMR2 (P_DEFINED | P_IDENT(GPIO_PG1) | P_FUNCT(1))
#define P_TMR3 (P_DEFINED | P_IDENT(GPIO_PG8) | P_FUNCT(1))
#define P_TMR4 (P_DEFINED | P_IDENT(GPIO_PG9) | P_FUNCT(1))
#define P_TMR5 (P_DEFINED | P_IDENT(GPIO_PG7) | P_FUNCT(1))
#define P_TMR6 (P_DEFINED | P_IDENT(GPIO_PG11) | P_FUNCT(1))
#define P_TMR7 (P_DEFINED | P_IDENT(GPIO_PG12) | P_FUNCT(1))
/* RSI */
#define P_RSI_DATA0 (P_DEFINED | P_IDENT(GPIO_PG3) | P_FUNCT(2))
#define P_RSI_DATA1 (P_DEFINED | P_IDENT(GPIO_PG2) | P_FUNCT(2))
#define P_RSI_DATA2 (P_DEFINED | P_IDENT(GPIO_PG0) | P_FUNCT(2))
#define P_RSI_DATA3 (P_DEFINED | P_IDENT(GPIO_PE15) | P_FUNCT(2))
#define P_RSI_DATA4 (P_DEFINED | P_IDENT(GPIO_PE13) | P_FUNCT(2))
#define P_RSI_DATA5 (P_DEFINED | P_IDENT(GPIO_PE12) | P_FUNCT(2))
#define P_RSI_DATA6 (P_DEFINED | P_IDENT(GPIO_PE10) | P_FUNCT(2))
#define P_RSI_DATA7 (P_DEFINED | P_IDENT(GPIO_PE11) | P_FUNCT(2))
#define P_RSI_CMD (P_DEFINED | P_IDENT(GPIO_PG5) | P_FUNCT(1))
#define P_RSI_CLK (P_DEFINED | P_IDENT(GPIO_PG6) | P_FUNCT(1))
/* PTP */
#define P_PTP0_PPS (P_DEFINED | P_IDENT(GPIO_PB15) | P_FUNCT(0))
#define P_PTP0_CLKIN (P_DEFINED | P_IDENT(GPIO_PC13) | P_FUNCT(2))
#define P_PTP0_AUXIN (P_DEFINED | P_IDENT(GPIO_PC11) | P_FUNCT(2))
#define P_PTP1_PPS (P_DEFINED | P_IDENT(GPIO_PC9) | P_FUNCT(0))
#define P_PTP1_CLKIN (P_DEFINED | P_IDENT(GPIO_PC13) | P_FUNCT(2))
#define P_PTP1_AUXIN (P_DEFINED | P_IDENT(GPIO_PC11) | P_FUNCT(2))
/* SMC Port Mux */
#define P_A3 (P_DEFINED | P_IDENT(GPIO_PA0) | P_FUNCT(0))
#define P_A4 (P_DEFINED | P_IDENT(GPIO_PA1) | P_FUNCT(0))
#define P_A5 (P_DEFINED | P_IDENT(GPIO_PA2) | P_FUNCT(0))
#define P_A6 (P_DEFINED | P_IDENT(GPIO_PA3) | P_FUNCT(0))
#define P_A7 (P_DEFINED | P_IDENT(GPIO_PA4) | P_FUNCT(0))
#define P_A8 (P_DEFINED | P_IDENT(GPIO_PA5) | P_FUNCT(0))
#define P_A9 (P_DEFINED | P_IDENT(GPIO_PA6) | P_FUNCT(0))
#define P_A10 (P_DEFINED | P_IDENT(GPIO_PA7) | P_FUNCT(0))
#define P_A11 (P_DEFINED | P_IDENT(GPIO_PA8) | P_FUNCT(0))
#define P_A12 (P_DEFINED | P_IDENT(GPIO_PA9) | P_FUNCT(0))
#define P_A13 (P_DEFINED | P_IDENT(GPIO_PB2) | P_FUNCT(0))
#define P_A14 (P_DEFINED | P_IDENT(GPIO_PA10) | P_FUNCT(0))
#define P_A15 (P_DEFINED | P_IDENT(GPIO_PA11) | P_FUNCT(0))
#define P_A16 (P_DEFINED | P_IDENT(GPIO_PB3) | P_FUNCT(0))
#define P_A17 (P_DEFINED | P_IDENT(GPIO_PA12) | P_FUNCT(0))
#define P_A18 (P_DEFINED | P_IDENT(GPIO_PA13) | P_FUNCT(0))
#define P_A19 (P_DEFINED | P_IDENT(GPIO_PA14) | P_FUNCT(0))
#define P_A20 (P_DEFINED | P_IDENT(GPIO_PA15) | P_FUNCT(0))
#define P_A21 (P_DEFINED | P_IDENT(GPIO_PB6) | P_FUNCT(0))
#define P_A22 (P_DEFINED | P_IDENT(GPIO_PB7) | P_FUNCT(0))
#define P_A23 (P_DEFINED | P_IDENT(GPIO_PB8) | P_FUNCT(0))
#define P_A24 (P_DEFINED | P_IDENT(GPIO_PB10) | P_FUNCT(0))
#define P_A25 (P_DEFINED | P_IDENT(GPIO_PB11) | P_FUNCT(0))
#define P_NORCK (P_DEFINED | P_IDENT(GPIO_PB0) | P_FUNCT(0))
#define P_AMS1 (P_DEFINED | P_IDENT(GPIO_PB1) | P_FUNCT(0))
#define P_AMS2 (P_DEFINED | P_IDENT(GPIO_PB4) | P_FUNCT(0))
#define P_AMS3 (P_DEFINED | P_IDENT(GPIO_PB5) | P_FUNCT(0))
#define P_ABE0 (P_DEFINED | P_IDENT(GPIO_PB4) | P_FUNCT(1))
#define P_ABE1 (P_DEFINED | P_IDENT(GPIO_PB5) | P_FUNCT(1))
/* CAN */
#define P_CAN0_TX (P_DEFINED | P_IDENT(GPIO_PG1) | P_FUNCT(2))
#define P_CAN0_RX (P_DEFINED | P_IDENT(GPIO_PG4) | P_FUNCT(2))
#endif /* _MACH_PORTMUX_H_ */

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/*
* Port Masks
*/
#ifndef __BFIN_PERIPHERAL_PORT__
#define __BFIN_PERIPHERAL_PORT__
/* PORTx_MUX Masks */
#define PORT_x_MUX_0_MASK 0x00000003
#define PORT_x_MUX_1_MASK 0x0000000C
#define PORT_x_MUX_2_MASK 0x00000030
#define PORT_x_MUX_3_MASK 0x000000C0
#define PORT_x_MUX_4_MASK 0x00000300
#define PORT_x_MUX_5_MASK 0x00000C00
#define PORT_x_MUX_6_MASK 0x00003000
#define PORT_x_MUX_7_MASK 0x0000C000
#define PORT_x_MUX_8_MASK 0x00030000
#define PORT_x_MUX_9_MASK 0x000C0000
#define PORT_x_MUX_10_MASK 0x00300000
#define PORT_x_MUX_11_MASK 0x00C00000
#define PORT_x_MUX_12_MASK 0x03000000
#define PORT_x_MUX_13_MASK 0x0C000000
#define PORT_x_MUX_14_MASK 0x30000000
#define PORT_x_MUX_15_MASK 0xC0000000
#define PORT_x_MUX_FUNC_1 (0x0)
#define PORT_x_MUX_FUNC_2 (0x1)
#define PORT_x_MUX_FUNC_3 (0x2)
#define PORT_x_MUX_FUNC_4 (0x3)
#define PORT_x_MUX_0_FUNC_1 (PORT_x_MUX_FUNC_1 << 0)
#define PORT_x_MUX_0_FUNC_2 (PORT_x_MUX_FUNC_2 << 0)
#define PORT_x_MUX_0_FUNC_3 (PORT_x_MUX_FUNC_3 << 0)
#define PORT_x_MUX_0_FUNC_4 (PORT_x_MUX_FUNC_4 << 0)
#define PORT_x_MUX_1_FUNC_1 (PORT_x_MUX_FUNC_1 << 2)
#define PORT_x_MUX_1_FUNC_2 (PORT_x_MUX_FUNC_2 << 2)
#define PORT_x_MUX_1_FUNC_3 (PORT_x_MUX_FUNC_3 << 2)
#define PORT_x_MUX_1_FUNC_4 (PORT_x_MUX_FUNC_4 << 2)
#define PORT_x_MUX_2_FUNC_1 (PORT_x_MUX_FUNC_1 << 4)
#define PORT_x_MUX_2_FUNC_2 (PORT_x_MUX_FUNC_2 << 4)
#define PORT_x_MUX_2_FUNC_3 (PORT_x_MUX_FUNC_3 << 4)
#define PORT_x_MUX_2_FUNC_4 (PORT_x_MUX_FUNC_4 << 4)
#define PORT_x_MUX_3_FUNC_1 (PORT_x_MUX_FUNC_1 << 6)
#define PORT_x_MUX_3_FUNC_2 (PORT_x_MUX_FUNC_2 << 6)
#define PORT_x_MUX_3_FUNC_3 (PORT_x_MUX_FUNC_3 << 6)
#define PORT_x_MUX_3_FUNC_4 (PORT_x_MUX_FUNC_4 << 6)
#define PORT_x_MUX_4_FUNC_1 (PORT_x_MUX_FUNC_1 << 8)
#define PORT_x_MUX_4_FUNC_2 (PORT_x_MUX_FUNC_2 << 8)
#define PORT_x_MUX_4_FUNC_3 (PORT_x_MUX_FUNC_3 << 8)
#define PORT_x_MUX_4_FUNC_4 (PORT_x_MUX_FUNC_4 << 8)
#define PORT_x_MUX_5_FUNC_1 (PORT_x_MUX_FUNC_1 << 10)
#define PORT_x_MUX_5_FUNC_2 (PORT_x_MUX_FUNC_2 << 10)
#define PORT_x_MUX_5_FUNC_3 (PORT_x_MUX_FUNC_3 << 10)
#define PORT_x_MUX_5_FUNC_4 (PORT_x_MUX_FUNC_4 << 10)
#define PORT_x_MUX_6_FUNC_1 (PORT_x_MUX_FUNC_1 << 12)
#define PORT_x_MUX_6_FUNC_2 (PORT_x_MUX_FUNC_2 << 12)
#define PORT_x_MUX_6_FUNC_3 (PORT_x_MUX_FUNC_3 << 12)
#define PORT_x_MUX_6_FUNC_4 (PORT_x_MUX_FUNC_4 << 12)
#define PORT_x_MUX_7_FUNC_1 (PORT_x_MUX_FUNC_1 << 14)
#define PORT_x_MUX_7_FUNC_2 (PORT_x_MUX_FUNC_2 << 14)
#define PORT_x_MUX_7_FUNC_3 (PORT_x_MUX_FUNC_3 << 14)
#define PORT_x_MUX_7_FUNC_4 (PORT_x_MUX_FUNC_4 << 14)
#define PORT_x_MUX_8_FUNC_1 (PORT_x_MUX_FUNC_1 << 16)
#define PORT_x_MUX_8_FUNC_2 (PORT_x_MUX_FUNC_2 << 16)
#define PORT_x_MUX_8_FUNC_3 (PORT_x_MUX_FUNC_3 << 16)
#define PORT_x_MUX_8_FUNC_4 (PORT_x_MUX_FUNC_4 << 16)
#define PORT_x_MUX_9_FUNC_1 (PORT_x_MUX_FUNC_1 << 18)
#define PORT_x_MUX_9_FUNC_2 (PORT_x_MUX_FUNC_2 << 18)
#define PORT_x_MUX_9_FUNC_3 (PORT_x_MUX_FUNC_3 << 18)
#define PORT_x_MUX_9_FUNC_4 (PORT_x_MUX_FUNC_4 << 18)
#define PORT_x_MUX_10_FUNC_1 (PORT_x_MUX_FUNC_1 << 20)
#define PORT_x_MUX_10_FUNC_2 (PORT_x_MUX_FUNC_2 << 20)
#define PORT_x_MUX_10_FUNC_3 (PORT_x_MUX_FUNC_3 << 20)
#define PORT_x_MUX_10_FUNC_4 (PORT_x_MUX_FUNC_4 << 20)
#define PORT_x_MUX_11_FUNC_1 (PORT_x_MUX_FUNC_1 << 22)
#define PORT_x_MUX_11_FUNC_2 (PORT_x_MUX_FUNC_2 << 22)
#define PORT_x_MUX_11_FUNC_3 (PORT_x_MUX_FUNC_3 << 22)
#define PORT_x_MUX_11_FUNC_4 (PORT_x_MUX_FUNC_4 << 22)
#define PORT_x_MUX_12_FUNC_1 (PORT_x_MUX_FUNC_1 << 24)
#define PORT_x_MUX_12_FUNC_2 (PORT_x_MUX_FUNC_2 << 24)
#define PORT_x_MUX_12_FUNC_3 (PORT_x_MUX_FUNC_3 << 24)
#define PORT_x_MUX_12_FUNC_4 (PORT_x_MUX_FUNC_4 << 24)
#define PORT_x_MUX_13_FUNC_1 (PORT_x_MUX_FUNC_1 << 26)
#define PORT_x_MUX_13_FUNC_2 (PORT_x_MUX_FUNC_2 << 26)
#define PORT_x_MUX_13_FUNC_3 (PORT_x_MUX_FUNC_3 << 26)
#define PORT_x_MUX_13_FUNC_4 (PORT_x_MUX_FUNC_4 << 26)
#define PORT_x_MUX_14_FUNC_1 (PORT_x_MUX_FUNC_1 << 28)
#define PORT_x_MUX_14_FUNC_2 (PORT_x_MUX_FUNC_2 << 28)
#define PORT_x_MUX_14_FUNC_3 (PORT_x_MUX_FUNC_3 << 28)
#define PORT_x_MUX_14_FUNC_4 (PORT_x_MUX_FUNC_4 << 28)
#define PORT_x_MUX_15_FUNC_1 (PORT_x_MUX_FUNC_1 << 30)
#define PORT_x_MUX_15_FUNC_2 (PORT_x_MUX_FUNC_2 << 30)
#define PORT_x_MUX_15_FUNC_3 (PORT_x_MUX_FUNC_3 << 30)
#define PORT_x_MUX_15_FUNC_4 (PORT_x_MUX_FUNC_4 << 30)
#include "../mach-common/bits/ports-a.h"
#include "../mach-common/bits/ports-b.h"
#include "../mach-common/bits/ports-c.h"
#include "../mach-common/bits/ports-d.h"
#include "../mach-common/bits/ports-e.h"
#include "../mach-common/bits/ports-f.h"
#include "../mach-common/bits/ports-g.h"
#endif

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/*
* CGU Masks
*/
#ifndef __BFIN_PERIPHERAL_CGU__
#define __BFIN_PERIPHERAL_CGU__
/* CGU_CTL Masks */
#define DF (1 << 0)
#define MSEL (0x7f << MSEL_P)
#define WIDLE (1 << WIDLE_P)
#define LOCK (1 << LOCK_P)
#define DF_P 0
#define MSEL_P 8
#define WIDLE_P 30
#define LOCK_P 31
#define MSEL_MASK 0x7F00
#define DF_MASK 0x1
/* CGU_STAT Masks */
#define PLLEN (1 << 0)
#define PLLBP (1 << 1)
#define PLLLK (1 << 2)
#define CLKSALGN (1 << 3)
#define CCBF0EN (1 << 4)
#define CCBF1EN (1 << 5)
#define SCBF0EN (1 << 6)
#define SCBF1EN (1 << 7)
#define DCBFEN (1 << 8)
#define OCBFEN (1 << 9)
#define ADRERR (1 << 16)
#define LWERR (1 << 17)
#define DIVERR (1 << 18)
#define WDFMSERR (1 << 19)
#define WDIVERR (1 << 20)
#define PLLLKERR (1 << 21)
/* CGU_DIV Masks */
#define CSEL (0x1f << CSEL_P)
#define S0SEL (3 << S0SEL_P)
#define SYSSEL (0x1f << SYSSEL_P)
#define S1SEL (3 << S1SEL_P)
#define DSEL (0x1f << DSEL_P)
#define OSEL (0x7f << OSEL_P)
#define ALGN (1 << ALGN_P)
#define UPDT (1 << UPDT_P)
#define LOCK (1 << LOCK_P)
#define CSEL_P 0
#define S0SEL_P 5
#define SYSSEL_P 8
#define S1SEL_P 13
#define DSEL_P 16
#define OSEL_P 22
#define ALGN_P 29
#define UPDT_P 30
#define LOCK_P 31
/* CGU_CLKOUTSEL Masks */
#define CLKOUTSEL (0xf << 0)
#define USBCLKSEL (0x3f << 16)
#define LOCK (1 << LOCK_P)
#define LOCK_P 31
#define CLKOUTSEL_CLKIN 0x0
#define CLKOUTSEL_CCLK 0x1
#define CLKOUTSEL_SYSCLK 0x2
#define CLKOUTSEL_SCLK0 0x3
#define CLKOUTSEL_SCLK1 0x4
#define CLKOUTSEL_DCLK 0x5
#define CLKOUTSEL_USB_PLL 0x6
#define CLKOUTSEL_OUTCLK 0x7
#define CLKOUTSEL_USB_CLKIN 0x8
#define CLKOUTSEL_WDOG 0x9
#define CLKOUTSEL_PMON 0xA
#define CLKOUTSEL_GND 0xB
#endif

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/*
* Distributed DMA Engine (DDE) Masks
*/
#ifndef __BFIN_PERIPHERAL_DDE__
#define __BFIN_PERIPHERAL_DDE__
/* DMA_CONFIG Masks */
#define DMAEN (1 << DMAEN_P) /* DMA Channel Enable */
#define WNR (1 << WNR_P) /* Channel Direction (W/R*) */
#define SYNC (1 << SYNC_P) /* Sync Work Unit Transitions */
#define CADDR (1 << CADDR_P) /* Use Current Address */
#define PSIZE (7 << PSIZE_P) /* Peripheral Word Size */
#define PSIZE_1 (0 << PSIZE_P)
#define PSIZE_2 (1 << PSIZE_P)
#define PSIZE_4 (2 << PSIZE_P)
#define PSIZE_8 (3 << PSIZE_P)
#define MSIZE (7 << MSIZE_P) /* Memory Transfer Size */
#define MSIZE_1 (0 << MSIZE_P)
#define MSIZE_2 (1 << MSIZE_P)
#define MSIZE_4 (2 << MSIZE_P)
#define MSIZE_8 (3 << MSIZE_P)
#define MSIZE_16 (4 << MSIZE_P)
#define MSIZE_32 (5 << MSIZE_P)
#define FLOW (7 << FLOW_P) /* Next Operation */
#define FLOW_STOP (0 << FLOW_P) /* Stop Mode */
#define FLOW_AUTO (1 << FLOW_P) /* Autobuffer Mode */
#define FLOW_DSCL (4 << FLOW_P) /* Descriptor List */
#define FLOW_DSCA (5 << FLOW_P) /* Descriptor Array */
#define FLOW_DSDL (6 << FLOW_P) /* Descriptor On Demand List */
#define FLOW_DSDA (7 << FLOW_P) /* Descriptor On Demand Array */
#define NDSIZE (7 << NDSIZE_P) /* Next Descriptor Set Size */
#define NDSIZE_1 (0 << NDSIZE_P)
#define NDSIZE_2 (1 << NDSIZE_P)
#define NDSIZE_3 (2 << NDSIZE_P)
#define NDSIZE_4 (3 << NDSIZE_P)
#define NDSIZE_5 (4 << NDSIZE_P)
#define NDSIZE_6 (5 << NDSIZE_P)
#define NDSIZE_7 (6 << NDSIZE_P)
#define DI_EN_X (1 << INT_P)
#define DI_EN_Y (2 << INT_P)
#define DI_EN_P (3 << INT_P)
#define DI_EN (DI_EN_X)
#define DI_XCOUNT_EN (1 << INT_P) /* xcount expires interrupt */
#define TRIG (3 << TRIG_P) /* Generate Trigger */
#define TOVEN (1 << TOVEN_P)
#define DESCIDCPY (1 << DESCIDCPY_P)
#define TWOD (1 << TWOD_P)
#define PDRF (1 << PDRF_P)
#define DMAEN_P 0
#define WNR_P 1
#define SYNC_P 2
#define CADDR_P 3
#define PSIZE_P 4
#define MSIZE_P 8
#define FLOW_P 12
#define TWAIT_P 15
#define NDSIZE_P 16
#define INT_P 20
#define TRIG_P 22
#define TOVEN_P 24
#define DESCIDCPY_P 25
#define TWOD_P 26
#define PDRF_P 28
/* DMA_STATUS Masks */
#define DMA_DONE (1 << DMA_DONE_P) /* Work Unit/Row Done */
#define DMA_ERR (1 << DMA_ERR_P) /* Error Interrupt */
#define DMA_PIRQ (1 << DMA_PIRQ_P) /* Peri Intr Request */
#define DMA_ERRC (7 << DMA_ERRC_P) /* Error Cause */
#define DMA_RUN (7 << DMA_RUN_P) /* Run Status */
#define DMA_PBWIDTH (3 << DMA_PBWIDTH_P) /* Peri Bus Width */
#define DMA_MBWIDTH (3 << DMA_MBWIDTH_P) /* Memory Bus Width */
#define DMA_FIFOFILL (7 << DMA_FIFOFILL_P) /* FIFO Fill Status */
#define DMA_TWAIT (1 << DMA_TWAIT_P) /* Trigger Wait Stat */
#define DMA_DONE_P 0
#define DMA_ERR_P 1
#define DMA_PIRQ_P 2
#define DMA_ERRC_P 4
#define DMA_RUN_P 8
#define DMA_PBWIDTH_P 12
#define DMA_MBWIDTH_P 14
#define DMA_FIFOFILL_P 16
#define DMA_TWAIT_P 20
#endif

View file

@ -9,14 +9,54 @@
#define DMAEN 0x0001 /* DMA Channel Enable */
#define WNR 0x0002 /* Channel Direction (W/R*) */
#define WDSIZE_8 0x0000 /* Transfer Word Size = 8 */
#ifdef CONFIG_BF60x
#define PSIZE_8 0x00000000 /* Transfer Word Size = 16 */
#define PSIZE_16 0x00000010 /* Transfer Word Size = 16 */
#define PSIZE_32 0x00000020 /* Transfer Word Size = 32 */
#define PSIZE_64 0x00000030 /* Transfer Word Size = 32 */
#define WDSIZE_16 0x00000100 /* Transfer Word Size = 16 */
#define WDSIZE_32 0x00000200 /* Transfer Word Size = 32 */
#define WDSIZE_64 0x00000300 /* Transfer Word Size = 32 */
#define WDSIZE_128 0x00000400 /* Transfer Word Size = 32 */
#define WDSIZE_256 0x00000500 /* Transfer Word Size = 32 */
#define DMA2D 0x04000000 /* DMA Mode (2D/1D*) */
#define RESTART 0x00000004 /* DMA Buffer Clear SYNC */
#define DI_EN_X 0x00100000 /* Data Int Enable in X count */
#define DI_EN_Y 0x00200000 /* Data Int Enable in Y count */
#define DI_EN_P 0x00300000 /* Data Int Enable in Peri */
#define DI_EN DI_EN_X /* Data Int Enable */
#define NDSIZE_0 0x00000000 /* Next Desc Size = 0 */
#define NDSIZE_1 0x00010000 /* Next Desc Size = 1 */
#define NDSIZE_2 0x00020000 /* Next Desc Size = 2 */
#define NDSIZE_3 0x00030000 /* Next Desc Size = 3 */
#define NDSIZE_4 0x00040000 /* Next Desc Size = 4 */
#define NDSIZE_5 0x00050000 /* Next Desc Size = 5 */
#define NDSIZE_6 0x00060000 /* Next Desc Size = 6 */
#define NDSIZE 0x00070000 /* Next Desc Size */
#define NDSIZE_OFFSET 16 /* Next Desc Size Offset */
#define DMAFLOW_LIST 0x00004000 /* Desc List Mode */
#define DMAFLOW_ARRAY 0x00005000 /* Desc Array Mode */
#define DMAFLOW_LIST_DEMAND 0x00006000 /* Desc Demand List Mode */
#define DMAFLOW_ARRAY_DEMAND 0x00007000 /* Desc Demand Array Mode */
#define DMA_RUN_DFETCH 0x00000100 /* DMA Channel Run (DFETCH) */
#define DMA_RUN 0x00000200 /* DMA Channel Run */
#define DMA_RUN_WAIT_TRIG 0x00000300 /* DMA Channel Run (WAIT TRIG)*/
#define DMA_RUN_WAIT_ACK 0x00000400 /* DMA Channel Run (WAIT ACK) */
#else
#define WDSIZE_16 0x0004 /* Transfer Word Size = 16 */
#define WDSIZE_32 0x0008 /* Transfer Word Size = 32 */
#define PSIZE_16 WDSIZE_16
#define PSIZE_32 WDSIZE_32
#define DMA2D 0x0010 /* DMA Mode (2D/1D*) */
#define RESTART 0x0020 /* DMA Buffer Clear */
#define DI_SEL 0x0040 /* Data Interrupt Timing Select */
#define DI_EN 0x0080 /* Data Interrupt Enable */
#define NDSIZE 0x0F00 /* Next Descriptor bitmask */
#define NDSIZE_0 0x0000 /* Next Descriptor Size = 0 (Stop/Autobuffer) */
#define NDSIZE_0 0x0000 /* Next Descriptor Size = 0 */
#define NDSIZE_1 0x0100 /* Next Descriptor Size = 1 */
#define NDSIZE_2 0x0200 /* Next Descriptor Size = 2 */
#define NDSIZE_3 0x0300 /* Next Descriptor Size = 3 */
@ -26,14 +66,13 @@
#define NDSIZE_7 0x0700 /* Next Descriptor Size = 7 */
#define NDSIZE_8 0x0800 /* Next Descriptor Size = 8 */
#define NDSIZE_9 0x0900 /* Next Descriptor Size = 9 */
#define FLOW_STOP 0x0000 /* Stop Mode */
#define FLOW_AUTO 0x1000 /* Autobuffer Mode */
#define FLOW_ARRAY 0x4000 /* Descriptor Array Mode */
#define FLOW_SMALL 0x6000 /* Small Model Descriptor List Mode */
#define FLOW_LARGE 0x7000 /* Large Model Descriptor List Mode */
#define DMAEN_P 0 /* Channel Enable */
#define WNR_P 1 /* Channel Direction (W/R*) */
#define WDSIZE_P 2 /* Transfer Word Size */
#define DMA2D_P 4 /* 2D/1D* Mode */
#define RESTART_P 5 /* Restart */
#define DI_SEL_P 6 /* Data Interrupt Select */
@ -45,14 +84,19 @@
#define DFETCH 0x0004 /* DMA Descriptor Fetch Indicator */
#define DMA_RUN 0x0008 /* DMA Channel Running Indicator */
#endif
#define DMAFLOW 0x7000 /* Flow Control */
#define FLOW_STOP 0x0000 /* Stop Mode */
#define FLOW_AUTO 0x1000 /* Autobuffer Mode */
#define DMA_DONE_P 0 /* DMA Done Indicator */
#define DMA_ERR_P 1 /* DMA Error Indicator */
#define DFETCH_P 2 /* Descriptor Fetch Indicator */
#define DMA_RUN_P 3 /* DMA Running Indicator */
/* DMAx_PERIPHERAL_MAP, MDMA_yy_PERIPHERAL_MAP Masks */
#define CTYPE 0x0040 /* DMA Channel Type Indicator (Memory/Peripheral*) */
#define CTYPE_P 6 /* DMA Channel Type Indicator BIT POSITION */
#define CTYPE 0x0040 /* DMA Channel Type (Mem/Peri) */
#define CTYPE_P 6 /* DMA Channel Type BIT POSITION */
#define PMAP 0xF000 /* Peripheral Mapped To This Channel */
#endif

View file

@ -70,7 +70,11 @@
#define PAGE_SIZE_4KB 0x00010000 /* 4 KB page size */
#define PAGE_SIZE_1MB 0x00020000 /* 1 MB page size */
#define PAGE_SIZE_4MB 0x00030000 /* 4 MB page size */
#define PAGE_SIZE_MASK 0x00030000 /* the bits for the page_size field */
#define PAGE_SIZE_16KB 0x00040000 /* 16 KB page size */
#define PAGE_SIZE_64KB 0x00050000 /* 64 KB page size */
#define PAGE_SIZE_16MB 0x00060000 /* 16 MB page size */
#define PAGE_SIZE_64MB 0x00070000 /* 64 MB page size */
#define PAGE_SIZE_MASK 0x00070000 /* page_size field mask */
#define PAGE_SIZE_SHIFT 16
#define CPLB_L1SRAM 0x00000020 /* 0=SRAM mapped in L1, 0=SRAM not mapped to L1 */
#define CPLB_PORTPRIO 0x00000200 /* 0=low priority port, 1= high priority port */

View file

@ -16,6 +16,8 @@
#define MSEL 0x7E00 /* Multiplier Select For CCLK/VCO Factors */
#define SPORT_HYST 0x8000 /* Enable Additional Hysteresis on SPORT Input Pins */
#define MSEL_P 9
/* PLL_DIV Masks */
#define SSEL 0x000F /* System Select */
#define CSEL 0x0030 /* Core Select */
@ -29,6 +31,9 @@
#define CCLK_DIV4 CSEL_DIV4
#define CCLK_DIV8 CSEL_DIV8
#define SSEL_P 0
#define CSEL_P 4
/* PLL_STAT Masks */
#define ACTIVE_PLLENABLED 0x0001 /* Processor In Active Mode With PLL Enabled */
#define FULL_ON 0x0002 /* Processor In Full On Mode */

View file

@ -12,18 +12,35 @@
#define CMD_INT_E 0x100 /* Command Interrupt */
#define CMD_PEND_E 0x200 /* Command Pending */
#define CMD_E 0x400 /* Command Enable */
#ifdef RSI_BLKSZ
#define CMD_CRC_CHECK_D 0x800 /* CRC Check is disabled */
#define CMD_DATA0_BUSY 0x1000 /* Check Busy State on DATA0 */
#endif
/* Bit masks for SDH_PWR_CTL */
#ifndef RSI_BLKSZ
#define PWR_ON 0x3 /* Power On */
#define SD_CMD_OD 0x40 /* Open Drain Output */
#define ROD_CTL 0x80 /* Rod Control */
#endif
/* Bit masks for SDH_CLK_CTL */
#define CLKDIV 0xff /* MC_CLK Divisor */
#define CLK_E 0x100 /* MC_CLK Bus Clock Enable */
#define PWR_SV_E 0x200 /* Power Save Enable */
#define CLKDIV_BYPASS 0x400 /* Bypass Divisor */
#define WIDE_BUS 0x800 /* Wide Bus Mode Enable */
#define BUS_MODE_MASK 0x1800 /* Bus Mode Mask */
#define STD_BUS_1 0x000 /* Standard Bus 1 bit mode */
#define WIDE_BUS_4 0x800 /* Wide Bus 4 bit mode */
#define BYTE_BUS_8 0x1000 /* Byte Bus 8 bit mode */
#ifdef RSI_BLKSZ
#define CARD_TYPE_MASK 0xe000 /* Card type mask */
#define CARD_TYPE_OFFSET 13 /* Card type offset */
#define CARD_TYPE_SDIO 0
#define CARD_TYPE_eMMC 1
#define CARD_TYPE_SD 2
#define CARD_TYPE_CEATA 3
#endif
/* Bit masks for SDH_RESP_CMD */
#define RESP_CMD 0x3f /* Response Command */
@ -33,7 +50,13 @@
#define DTX_DIR 0x2 /* Data Transfer Direction */
#define DTX_MODE 0x4 /* Data Transfer Mode */
#define DTX_DMA_E 0x8 /* Data Transfer DMA Enable */
#ifndef RSI_BLKSZ
#define DTX_BLK_LGTH 0xf0 /* Data Transfer Block Length */
#else
/* Bit masks for SDH_BLK_SIZE */
#define DTX_BLK_LGTH 0x1fff /* Data Transfer Block Length */
#endif
/* Bit masks for SDH_STATUS */
#define CMD_CRC_FAIL 0x1 /* CMD CRC Fail */
@ -102,10 +125,13 @@
/* Bit masks for SDH_E_STATUS */
#define SDIO_INT_DET 0x2 /* SDIO Int Detected */
#define SD_CARD_DET 0x10 /* SD Card Detect */
#define SD_CARD_BUSYMODE 0x80000000 /* Card is in Busy mode */
#define SD_CARD_SLPMODE 0x40000000 /* Card in Sleep Mode */
#define SD_CARD_READY 0x00020000 /* Card Ready */
/* Bit masks for SDH_E_MASK */
#define SDIO_MSK 0x2 /* Mask SDIO Int Detected */
#define SCD_MSK 0x40 /* Mask Card Detect */
#define SCD_MSK 0x10 /* Mask Card Detect */
/* Bit masks for SDH_CFG */
#define CLKS_EN 0x1 /* Clocks Enable */
@ -114,7 +140,15 @@
#define SD_RST 0x10 /* SDMMC Reset */
#define PUP_SDDAT 0x20 /* Pull-up SD_DAT */
#define PUP_SDDAT3 0x40 /* Pull-up SD_DAT3 */
#ifndef RSI_BLKSZ
#define PD_SDDAT3 0x80 /* Pull-down SD_DAT3 */
#else
#define PWR_ON 0x600 /* Power On */
#define SD_CMD_OD 0x800 /* Open Drain Output */
#define BOOT_EN 0x1000 /* Boot Enable */
#define BOOT_MODE 0x2000 /* Alternate Boot Mode */
#define BOOT_ACK_EN 0x4000 /* Boot ACK is expected */
#endif
/* Bit masks for SDH_RD_WAIT_EN */
#define RWR 0x1 /* Read Wait Request */

View file

@ -0,0 +1,240 @@
/*
* Analog Devices bfin_spi3 controller driver
*
* Copyright (c) 2011 Analog Devices Inc.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License version 2 as
* published by the Free Software Foundation.
*
* This program 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 this program; if not, write to the Free Software
* Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA.
*/
#ifndef _SPI_CHANNEL_H_
#define _SPI_CHANNEL_H_
#include <linux/types.h>
/* SPI_CONTROL */
#define SPI_CTL_EN 0x00000001 /* Enable */
#define SPI_CTL_MSTR 0x00000002 /* Master/Slave */
#define SPI_CTL_PSSE 0x00000004 /* controls modf error in master mode */
#define SPI_CTL_ODM 0x00000008 /* Open Drain Mode */
#define SPI_CTL_CPHA 0x00000010 /* Clock Phase */
#define SPI_CTL_CPOL 0x00000020 /* Clock Polarity */
#define SPI_CTL_ASSEL 0x00000040 /* Slave Select Pin Control */
#define SPI_CTL_SELST 0x00000080 /* Slave Select Polarity in transfers */
#define SPI_CTL_EMISO 0x00000100 /*Enable MISO */
#define SPI_CTL_SIZE 0x00000600 /*Word Transfer Size */
#define SPI_CTL_SIZE08 0x00000000 /*SIZE: 8 bits */
#define SPI_CTL_SIZE16 0x00000200 /*SIZE: 16 bits */
#define SPI_CTL_SIZE32 0x00000400 /*SIZE: 32 bits */
#define SPI_CTL_LSBF 0x00001000 /*LSB First */
#define SPI_CTL_FCEN 0x00002000 /*Flow-Control Enable */
#define SPI_CTL_FCCH 0x00004000 /*Flow-Control Channel Selection */
#define SPI_CTL_FCPL 0x00008000 /*Flow-Control Polarity */
#define SPI_CTL_FCWM 0x00030000 /*Flow-Control Water-Mark */
#define SPI_CTL_FIFO0 0x00000000 /*FCWM: Tx empty or Rx Full */
#define SPI_CTL_FIFO1 0x00010000 /*FCWM: Tx empty or Rx full (>=75%) */
#define SPI_CTL_FIFO2 0x00020000 /*FCWM: Tx empty or Rx full (>=50%) */
#define SPI_CTL_FMODE 0x00040000 /*Fast-mode Enable */
#define SPI_CTL_MIOM 0x00300000 /*Multiple I/O Mode */
#define SPI_CTL_MIO_DIS 0x00000000 /*MIOM: Disable */
#define SPI_CTL_MIO_DUAL 0x00100000 /*MIOM: Enable DIOM (Dual I/O Mode) */
#define SPI_CTL_MIO_QUAD 0x00200000 /*MIOM: Enable QUAD (Quad SPI Mode) */
#define SPI_CTL_SOSI 0x00400000 /*Start on MOSI */
/* SPI_RX_CONTROL */
#define SPI_RXCTL_REN 0x00000001 /*Receive Channel Enable */
#define SPI_RXCTL_RTI 0x00000004 /*Receive Transfer Initiate */
#define SPI_RXCTL_RWCEN 0x00000008 /*Receive Word Counter Enable */
#define SPI_RXCTL_RDR 0x00000070 /*Receive Data Request */
#define SPI_RXCTL_RDR_DIS 0x00000000 /*RDR: Disabled */
#define SPI_RXCTL_RDR_NE 0x00000010 /*RDR: RFIFO not empty */
#define SPI_RXCTL_RDR_25 0x00000020 /*RDR: RFIFO 25% full */
#define SPI_RXCTL_RDR_50 0x00000030 /*RDR: RFIFO 50% full */
#define SPI_RXCTL_RDR_75 0x00000040 /*RDR: RFIFO 75% full */
#define SPI_RXCTL_RDR_FULL 0x00000050 /*RDR: RFIFO full */
#define SPI_RXCTL_RDO 0x00000100 /*Receive Data Over-Run */
#define SPI_RXCTL_RRWM 0x00003000 /*FIFO Regular Water-Mark */
#define SPI_RXCTL_RWM_0 0x00000000 /*RRWM: RFIFO Empty */
#define SPI_RXCTL_RWM_25 0x00001000 /*RRWM: RFIFO 25% full */
#define SPI_RXCTL_RWM_50 0x00002000 /*RRWM: RFIFO 50% full */
#define SPI_RXCTL_RWM_75 0x00003000 /*RRWM: RFIFO 75% full */
#define SPI_RXCTL_RUWM 0x00070000 /*FIFO Urgent Water-Mark */
#define SPI_RXCTL_UWM_DIS 0x00000000 /*RUWM: Disabled */
#define SPI_RXCTL_UWM_25 0x00010000 /*RUWM: RFIFO 25% full */
#define SPI_RXCTL_UWM_50 0x00020000 /*RUWM: RFIFO 50% full */
#define SPI_RXCTL_UWM_75 0x00030000 /*RUWM: RFIFO 75% full */
#define SPI_RXCTL_UWM_FULL 0x00040000 /*RUWM: RFIFO full */
/* SPI_TX_CONTROL */
#define SPI_TXCTL_TEN 0x00000001 /*Transmit Channel Enable */
#define SPI_TXCTL_TTI 0x00000004 /*Transmit Transfer Initiate */
#define SPI_TXCTL_TWCEN 0x00000008 /*Transmit Word Counter Enable */
#define SPI_TXCTL_TDR 0x00000070 /*Transmit Data Request */
#define SPI_TXCTL_TDR_DIS 0x00000000 /*TDR: Disabled */
#define SPI_TXCTL_TDR_NF 0x00000010 /*TDR: TFIFO not full */
#define SPI_TXCTL_TDR_25 0x00000020 /*TDR: TFIFO 25% empty */
#define SPI_TXCTL_TDR_50 0x00000030 /*TDR: TFIFO 50% empty */
#define SPI_TXCTL_TDR_75 0x00000040 /*TDR: TFIFO 75% empty */
#define SPI_TXCTL_TDR_EMPTY 0x00000050 /*TDR: TFIFO empty */
#define SPI_TXCTL_TDU 0x00000100 /*Transmit Data Under-Run */
#define SPI_TXCTL_TRWM 0x00003000 /*FIFO Regular Water-Mark */
#define SPI_TXCTL_RWM_FULL 0x00000000 /*TRWM: TFIFO full */
#define SPI_TXCTL_RWM_25 0x00001000 /*TRWM: TFIFO 25% empty */
#define SPI_TXCTL_RWM_50 0x00002000 /*TRWM: TFIFO 50% empty */
#define SPI_TXCTL_RWM_75 0x00003000 /*TRWM: TFIFO 75% empty */
#define SPI_TXCTL_TUWM 0x00070000 /*FIFO Urgent Water-Mark */
#define SPI_TXCTL_UWM_DIS 0x00000000 /*TUWM: Disabled */
#define SPI_TXCTL_UWM_25 0x00010000 /*TUWM: TFIFO 25% empty */
#define SPI_TXCTL_UWM_50 0x00020000 /*TUWM: TFIFO 50% empty */
#define SPI_TXCTL_UWM_75 0x00030000 /*TUWM: TFIFO 75% empty */
#define SPI_TXCTL_UWM_EMPTY 0x00040000 /*TUWM: TFIFO empty */
/* SPI_CLOCK */
#define SPI_CLK_BAUD 0x0000FFFF /*Baud Rate */
/* SPI_DELAY */
#define SPI_DLY_STOP 0x000000FF /*Transfer delay time */
#define SPI_DLY_LEADX 0x00000100 /*Extended (1 SCK) LEAD Control */
#define SPI_DLY_LAGX 0x00000200 /*Extended (1 SCK) LAG control */
/* SPI_SSEL */
#define SPI_SLVSEL_SSE1 0x00000002 /*SPISSEL1 Enable */
#define SPI_SLVSEL_SSE2 0x00000004 /*SPISSEL2 Enable */
#define SPI_SLVSEL_SSE3 0x00000008 /*SPISSEL3 Enable */
#define SPI_SLVSEL_SSE4 0x00000010 /*SPISSEL4 Enable */
#define SPI_SLVSEL_SSE5 0x00000020 /*SPISSEL5 Enable */
#define SPI_SLVSEL_SSE6 0x00000040 /*SPISSEL6 Enable */
#define SPI_SLVSEL_SSE7 0x00000080 /*SPISSEL7 Enable */
#define SPI_SLVSEL_SSEL1 0x00000200 /*SPISSEL1 Value */
#define SPI_SLVSEL_SSEL2 0x00000400 /*SPISSEL2 Value */
#define SPI_SLVSEL_SSEL3 0x00000800 /*SPISSEL3 Value */
#define SPI_SLVSEL_SSEL4 0x00001000 /*SPISSEL4 Value */
#define SPI_SLVSEL_SSEL5 0x00002000 /*SPISSEL5 Value */
#define SPI_SLVSEL_SSEL6 0x00004000 /*SPISSEL6 Value */
#define SPI_SLVSEL_SSEL7 0x00008000 /*SPISSEL7 Value */
/* SPI_RWC */
#define SPI_RWC_VALUE 0x0000FFFF /*Received Word-Count */
/* SPI_RWCR */
#define SPI_RWCR_VALUE 0x0000FFFF /*Received Word-Count Reload */
/* SPI_TWC */
#define SPI_TWC_VALUE 0x0000FFFF /*Transmitted Word-Count */
/* SPI_TWCR */
#define SPI_TWCR_VALUE 0x0000FFFF /*Transmitted Word-Count Reload */
/* SPI_IMASK */
#define SPI_IMSK_RUWM 0x00000002 /*Receive Water-Mark Interrupt Mask */
#define SPI_IMSK_TUWM 0x00000004 /*Transmit Water-Mark Interrupt Mask */
#define SPI_IMSK_ROM 0x00000010 /*Receive Over-Run Interrupt Mask */
#define SPI_IMSK_TUM 0x00000020 /*Transmit Under-Run Interrupt Mask */
#define SPI_IMSK_TCM 0x00000040 /*Transmit Collision Interrupt Mask */
#define SPI_IMSK_MFM 0x00000080 /*Mode Fault Interrupt Mask */
#define SPI_IMSK_RSM 0x00000100 /*Receive Start Interrupt Mask */
#define SPI_IMSK_TSM 0x00000200 /*Transmit Start Interrupt Mask */
#define SPI_IMSK_RFM 0x00000400 /*Receive Finish Interrupt Mask */
#define SPI_IMSK_TFM 0x00000800 /*Transmit Finish Interrupt Mask */
/* SPI_IMASKCL */
#define SPI_IMSK_CLR_RUW 0x00000002 /*Receive Water-Mark Interrupt Mask */
#define SPI_IMSK_CLR_TUWM 0x00000004 /*Transmit Water-Mark Interrupt Mask */
#define SPI_IMSK_CLR_ROM 0x00000010 /*Receive Over-Run Interrupt Mask */
#define SPI_IMSK_CLR_TUM 0x00000020 /*Transmit Under-Run Interrupt Mask */
#define SPI_IMSK_CLR_TCM 0x00000040 /*Transmit Collision Interrupt Mask */
#define SPI_IMSK_CLR_MFM 0x00000080 /*Mode Fault Interrupt Mask */
#define SPI_IMSK_CLR_RSM 0x00000100 /*Receive Start Interrupt Mask */
#define SPI_IMSK_CLR_TSM 0x00000200 /*Transmit Start Interrupt Mask */
#define SPI_IMSK_CLR_RFM 0x00000400 /*Receive Finish Interrupt Mask */
#define SPI_IMSK_CLR_TFM 0x00000800 /*Transmit Finish Interrupt Mask */
/* SPI_IMASKST */
#define SPI_IMSK_SET_RUWM 0x00000002 /*Receive Water-Mark Interrupt Mask */
#define SPI_IMSK_SET_TUWM 0x00000004 /*Transmit Water-Mark Interrupt Mask */
#define SPI_IMSK_SET_ROM 0x00000010 /*Receive Over-Run Interrupt Mask */
#define SPI_IMSK_SET_TUM 0x00000020 /*Transmit Under-Run Interrupt Mask */
#define SPI_IMSK_SET_TCM 0x00000040 /*Transmit Collision Interrupt Mask */
#define SPI_IMSK_SET_MFM 0x00000080 /*Mode Fault Interrupt Mask */
#define SPI_IMSK_SET_RSM 0x00000100 /*Receive Start Interrupt Mask */
#define SPI_IMSK_SET_TSM 0x00000200 /*Transmit Start Interrupt Mask */
#define SPI_IMSK_SET_RFM 0x00000400 /*Receive Finish Interrupt Mask */
#define SPI_IMSK_SET_TFM 0x00000800 /*Transmit Finish Interrupt Mask */
/* SPI_STATUS */
#define SPI_STAT_SPIF 0x00000001 /*SPI Finished */
#define SPI_STAT_RUWM 0x00000002 /*Receive Water-Mark Breached */
#define SPI_STAT_TUWM 0x00000004 /*Transmit Water-Mark Breached */
#define SPI_STAT_ROE 0x00000010 /*Receive Over-Run Indication */
#define SPI_STAT_TUE 0x00000020 /*Transmit Under-Run Indication */
#define SPI_STAT_TCE 0x00000040 /*Transmit Collision Indication */
#define SPI_STAT_MODF 0x00000080 /*Mode Fault Indication */
#define SPI_STAT_RS 0x00000100 /*Receive Start Indication */
#define SPI_STAT_TS 0x00000200 /*Transmit Start Indication */
#define SPI_STAT_RF 0x00000400 /*Receive Finish Indication */
#define SPI_STAT_TF 0x00000800 /*Transmit Finish Indication */
#define SPI_STAT_RFS 0x00007000 /*SPI_RFIFO status */
#define SPI_STAT_RFIFO_EMPTY 0x00000000 /*RFS: RFIFO Empty */
#define SPI_STAT_RFIFO_25 0x00001000 /*RFS: RFIFO 25% Full */
#define SPI_STAT_RFIFO_50 0x00002000 /*RFS: RFIFO 50% Full */
#define SPI_STAT_RFIFO_75 0x00003000 /*RFS: RFIFO 75% Full */
#define SPI_STAT_RFIFO_FULL 0x00004000 /*RFS: RFIFO Full */
#define SPI_STAT_TFS 0x00070000 /*SPI_TFIFO status */
#define SPI_STAT_TFIFO_FULL 0x00000000 /*TFS: TFIFO full */
#define SPI_STAT_TFIFO_25 0x00010000 /*TFS: TFIFO 25% empty */
#define SPI_STAT_TFIFO_50 0x00020000 /*TFS: TFIFO 50% empty */
#define SPI_STAT_TFIFO_75 0x00030000 /*TFS: TFIFO 75% empty */
#define SPI_STAT_TFIFO_EMPTY 0x00040000 /*TFS: TFIFO empty */
#define SPI_STAT_FCS 0x00100000 /*Flow-Control Stall Indication */
#define SPI_STAT_RFE 0x00400000 /*SPI_RFIFO Empty */
#define SPI_STAT_TFF 0x00800000 /*SPI_TFIFO Full */
/* SPI_ILAT */
#define SPI_ILAT_RUWMI 0x00000002 /*Receive Water Mark Interrupt */
#define SPI_ILAT_TUWMI 0x00000004 /*Transmit Water Mark Interrupt */
#define SPI_ILAT_ROI 0x00000010 /*Receive Over-Run Indication */
#define SPI_ILAT_TUI 0x00000020 /*Transmit Under-Run Indication */
#define SPI_ILAT_TCI 0x00000040 /*Transmit Collision Indication */
#define SPI_ILAT_MFI 0x00000080 /*Mode Fault Indication */
#define SPI_ILAT_RSI 0x00000100 /*Receive Start Indication */
#define SPI_ILAT_TSI 0x00000200 /*Transmit Start Indication */
#define SPI_ILAT_RFI 0x00000400 /*Receive Finish Indication */
#define SPI_ILAT_TFI 0x00000800 /*Transmit Finish Indication */
/* SPI_ILATCL */
#define SPI_ILAT_CLR_RUWMI 0x00000002 /*Receive Water Mark Interrupt */
#define SPI_ILAT_CLR_TUWMI 0x00000004 /*Transmit Water Mark Interrupt */
#define SPI_ILAT_CLR_ROI 0x00000010 /*Receive Over-Run Indication */
#define SPI_ILAT_CLR_TUI 0x00000020 /*Transmit Under-Run Indication */
#define SPI_ILAT_CLR_TCI 0x00000040 /*Transmit Collision Indication */
#define SPI_ILAT_CLR_MFI 0x00000080 /*Mode Fault Indication */
#define SPI_ILAT_CLR_RSI 0x00000100 /*Receive Start Indication */
#define SPI_ILAT_CLR_TSI 0x00000200 /*Transmit Start Indication */
#define SPI_ILAT_CLR_RFI 0x00000400 /*Receive Finish Indication */
#define SPI_ILAT_CLR_TFI 0x00000800 /*Transmit Finish Indication */
/*
* bfin spi3 registers layout
*/
struct bfin_spi_regs {
u32 revid;
u32 control;
u32 rx_control;
u32 tx_control;
u32 clock;
u32 delay;
u32 ssel;
u32 rwc;
u32 rwcr;
u32 twc;
u32 twcr;
u32 reserved0;
u32 emask;
u32 emaskcl;
u32 emaskst;
u32 reserved1;
u32 status;
u32 elat;
u32 elatcl;
u32 reserved2;
u32 rfifo;
u32 reserved3;
u32 tfifo;
};
#endif /* _SPI_CHANNEL_H_ */

View file

@ -0,0 +1,66 @@
/*
* UART4 Masks
*/
#ifndef __BFIN_PERIPHERAL_UART4__
#define __BFIN_PERIPHERAL_UART4__
/* UART_CONTROL */
#define UEN (1 << 0)
#define LOOP_ENA (1 << 1)
#define UMOD (3 << 4)
#define UMOD_UART (0 << 4)
#define UMOD_MDB (1 << 4)
#define UMOD_IRDA (1 << 4)
#define WLS (3 << 8)
#define WLS_5 (0 << 8)
#define WLS_6 (1 << 8)
#define WLS_7 (2 << 8)
#define WLS_8 (3 << 8)
#define STB (1 << 12)
#define STBH (1 << 13)
#define PEN (1 << 14)
#define EPS (1 << 15)
#define STP (1 << 16)
#define FPE (1 << 17)
#define FFE (1 << 18)
#define SB (1 << 19)
#define FCPOL (1 << 22)
#define RPOLC (1 << 23)
#define TPOLC (1 << 24)
#define MRTS (1 << 25)
#define XOFF (1 << 26)
#define ARTS (1 << 27)
#define ACTS (1 << 28)
#define RFIT (1 << 29)
#define RFRT (1 << 30)
/* UART_STATUS */
#define DR (1 << 0)
#define OE (1 << 1)
#define PE (1 << 2)
#define FE (1 << 3)
#define BI (1 << 4)
#define THRE (1 << 5)
#define TEMT (1 << 7)
#define TFI (1 << 8)
#define ASTKY (1 << 9)
#define ADDR (1 << 10)
#define RO (1 << 11)
#define SCTS (1 << 12)
#define CTS (1 << 16)
#define RFCS (1 << 17)
/* UART_EMASK */
#define ERBFI (1 << 0)
#define ETBEI (1 << 1)
#define ELSI (1 << 2)
#define EDSSI (1 << 3)
#define EDTPTI (1 << 4)
#define ETFI (1 << 5)
#define ERFCI (1 << 6)
#define EAWI (1 << 7)
#define ERXS (1 << 8)
#define ETXS (1 << 9)
#endif

View file

@ -96,6 +96,13 @@ static void display_global_data(void)
#define CPLB_PAGE_SIZE (4 * 1024 * 1024)
#define CPLB_PAGE_MASK (~(CPLB_PAGE_SIZE - 1))
#if defined(__ADSPBF60x__)
#define CPLB_EX_PAGE_SIZE (16 * 1024 * 1024)
#define CPLB_EX_PAGE_MASK (~(CPLB_EX_PAGE_SIZE - 1))
#else
#define CPLB_EX_PAGE_SIZE CPLB_PAGE_SIZE
#define CPLB_EX_PAGE_MASK CPLB_PAGE_MASK
#endif
void init_cplbtables(void)
{
volatile uint32_t *ICPLB_ADDR, *ICPLB_DATA;
@ -127,6 +134,11 @@ void init_cplbtables(void)
icplb_add(0xFFA00000, L1_IMEMORY);
dcplb_add(0xFF800000, L1_DMEMORY);
++i;
#if defined(__ADSPBF60x__)
icplb_add(0x0, 0x0);
dcplb_add(CONFIG_SYS_FLASH_BASE, SDRAM_EBIU);
++i;
#endif
if (CONFIG_MEM_SIZE) {
uint32_t mbase = CONFIG_SYS_MONITOR_BASE;
@ -150,9 +162,11 @@ void init_cplbtables(void)
}
}
#ifndef __ADSPBF60x__
icplb_add(0x20000000, SDRAM_INON_CHBL);
dcplb_add(0x20000000, SDRAM_EBIU);
++i;
#endif
/* Add entries for the rest of external RAM up to the bootrom */
extern_memory = 0;
@ -167,10 +181,11 @@ void init_cplbtables(void)
++i;
#endif
while (i < 16 && extern_memory < (CONFIG_SYS_MONITOR_BASE & CPLB_PAGE_MASK)) {
while (i < 16 && extern_memory <
(CONFIG_SYS_MONITOR_BASE & CPLB_EX_PAGE_MASK)) {
icplb_add(extern_memory, SDRAM_IGENERIC);
dcplb_add(extern_memory, SDRAM_DGENERIC);
extern_memory += CPLB_PAGE_SIZE;
extern_memory += CPLB_EX_PAGE_SIZE;
++i;
}
while (i < 16) {
@ -295,7 +310,13 @@ void board_init_f(ulong bootflag)
printf("Clock: VCO: %s MHz, ", strmhz(buf, get_vco()));
printf("Core: %s MHz, ", strmhz(buf, get_cclk()));
#if defined(__ADSPBF60x__)
printf("System0: %s MHz, ", strmhz(buf, get_sclk0()));
printf("System1: %s MHz, ", strmhz(buf, get_sclk1()));
printf("Dclk: %s MHz\n", strmhz(buf, get_dclk()));
#else
printf("System: %s MHz\n", strmhz(buf, get_sclk()));
#endif
if (CONFIG_MEM_SIZE) {
printf("RAM: ");

View file

@ -9,69 +9,139 @@
#include <common.h>
#include <asm/blackfin.h>
#ifdef PLL_CTL
# include <asm/mach-common/bits/pll.h>
# define pll_is_bypassed() (bfin_read_PLL_STAT() & DF)
#else
# include <asm/mach-common/bits/cgu.h>
# define pll_is_bypassed() (bfin_read_CGU_STAT() & PLLBP)
# define bfin_read_PLL_CTL() bfin_read_CGU_CTL()
# define bfin_read_PLL_DIV() bfin_read_CGU_DIV()
#endif
/* Get the voltage input multiplier */
static u_long cached_vco_pll_ctl, cached_vco;
u_long get_vco(void)
{
u_long msel;
static u_long cached_vco_pll_ctl, cached_vco;
u_long pll_ctl = bfin_read_PLL_CTL();
u_long msel, pll_ctl;
pll_ctl = bfin_read_PLL_CTL();
if (pll_ctl == cached_vco_pll_ctl)
return cached_vco;
else
cached_vco_pll_ctl = pll_ctl;
msel = (pll_ctl >> 9) & 0x3F;
msel = (pll_ctl & MSEL) >> MSEL_P;
if (0 == msel)
msel = 64;
msel = (MSEL >> MSEL_P) + 1;
cached_vco = CONFIG_CLKIN_HZ;
cached_vco >>= (1 & pll_ctl); /* DF bit */
cached_vco >>= (pll_ctl & DF);
cached_vco *= msel;
return cached_vco;
}
/* Get the Core clock */
static u_long cached_cclk_pll_div, cached_cclk;
u_long get_cclk(void)
{
u_long csel, ssel;
static u_long cached_cclk_pll_div, cached_cclk;
u_long div, csel, ssel;
if (bfin_read_PLL_STAT() & 0x1)
if (pll_is_bypassed())
return CONFIG_CLKIN_HZ;
ssel = bfin_read_PLL_DIV();
if (ssel == cached_cclk_pll_div)
div = bfin_read_PLL_DIV();
if (div == cached_cclk_pll_div)
return cached_cclk;
else
cached_cclk_pll_div = ssel;
cached_cclk_pll_div = div;
csel = ((ssel >> 4) & 0x03);
ssel &= 0xf;
csel = (div & CSEL) >> CSEL_P;
#ifndef CGU_DIV
ssel = (div & SSEL) >> SSEL_P;
if (ssel && ssel < (1 << csel)) /* SCLK > CCLK */
cached_cclk = get_vco() / ssel;
else
cached_cclk = get_vco() >> csel;
#else
cached_cclk = get_vco() / csel;
#endif
return cached_cclk;
}
/* Get the System clock */
static u_long cached_sclk_pll_div, cached_sclk;
u_long get_sclk(void)
{
u_long ssel;
#ifdef CGU_DIV
if (bfin_read_PLL_STAT() & 0x1)
static u_long cached_sclk_pll_div, cached_sclk;
static u_long cached_sclk0, cached_sclk1, cached_dclk;
static u_long _get_sclk(u_long *cache)
{
u_long div, ssel;
if (pll_is_bypassed())
return CONFIG_CLKIN_HZ;
ssel = bfin_read_PLL_DIV();
if (ssel == cached_sclk_pll_div)
div = bfin_read_PLL_DIV();
if (div == cached_sclk_pll_div)
return *cache;
else
cached_sclk_pll_div = div;
ssel = (div & SYSSEL) >> SYSSEL_P;
cached_sclk = get_vco() / ssel;
ssel = (div & S0SEL) >> S0SEL_P;
cached_sclk0 = cached_sclk / ssel;
ssel = (div & S1SEL) >> S1SEL_P;
cached_sclk1 = cached_sclk / ssel;
ssel = (div & DSEL) >> DSEL_P;
cached_dclk = get_vco() / ssel;
return *cache;
}
u_long get_sclk(void)
{
return _get_sclk(&cached_sclk);
}
u_long get_sclk0(void)
{
return _get_sclk(&cached_sclk0);
}
u_long get_sclk1(void)
{
return _get_sclk(&cached_sclk1);
}
u_long get_dclk(void)
{
return _get_sclk(&cached_dclk);
}
#else
u_long get_sclk(void)
{
static u_long cached_sclk_pll_div, cached_sclk;
u_long div, ssel;
if (pll_is_bypassed())
return CONFIG_CLKIN_HZ;
div = bfin_read_PLL_DIV();
if (div == cached_sclk_pll_div)
return cached_sclk;
else
cached_sclk_pll_div = ssel;
ssel &= 0xf;
cached_sclk_pll_div = div;
ssel = (div & SSEL) >> SSEL_P;
cached_sclk = get_vco() / ssel;
return cached_sclk;
}
#endif

View file

@ -29,7 +29,7 @@
#include <config.h>
#include <asm/blackfin.h>
#include <asm/io.h>
#include <asm/mach-common/bits/dma.h>
#include <asm/dma.h>
char *strcpy(char *dest, const char *src)
{
@ -117,81 +117,88 @@ int strncmp(const char *cs, const char *ct, size_t count)
return __res1;
}
#ifdef bfin_write_MDMA1_D0_IRQ_STATUS
# define bfin_write_MDMA_D0_IRQ_STATUS bfin_write_MDMA1_D0_IRQ_STATUS
# define bfin_write_MDMA_D0_START_ADDR bfin_write_MDMA1_D0_START_ADDR
# define bfin_write_MDMA_D0_X_COUNT bfin_write_MDMA1_D0_X_COUNT
# define bfin_write_MDMA_D0_X_MODIFY bfin_write_MDMA1_D0_X_MODIFY
# define bfin_write_MDMA_D0_CONFIG bfin_write_MDMA1_D0_CONFIG
# define bfin_write_MDMA_S0_START_ADDR bfin_write_MDMA1_S0_START_ADDR
# define bfin_write_MDMA_S0_X_COUNT bfin_write_MDMA1_S0_X_COUNT
# define bfin_write_MDMA_S0_X_MODIFY bfin_write_MDMA1_S0_X_MODIFY
# define bfin_write_MDMA_S0_CONFIG bfin_write_MDMA1_S0_CONFIG
# define bfin_write_MDMA_D0_IRQ_STATUS bfin_write_MDMA1_D0_IRQ_STATUS
# define bfin_read_MDMA_D0_IRQ_STATUS bfin_read_MDMA1_D0_IRQ_STATUS
#ifdef MDMA1_D0_NEXT_DESC_PTR
# define MDMA_D0_NEXT_DESC_PTR MDMA1_D0_NEXT_DESC_PTR
# define MDMA_S0_NEXT_DESC_PTR MDMA1_S0_NEXT_DESC_PTR
#endif
static void dma_calc_size(unsigned long ldst, unsigned long lsrc, size_t count,
unsigned long *dshift, unsigned long *bpos)
{
unsigned long limit;
#ifdef MSIZE
limit = 6;
*dshift = MSIZE_P;
#else
limit = 3;
*dshift = WDSIZE_P;
#endif
*bpos = min(limit, ffs(ldst | lsrc | count)) - 1;
}
/* This version misbehaves for count values of 0 and 2^16+.
* Perhaps we should detect that ? Nowhere do we actually
* use dma memcpy for those types of lengths though ...
*/
void dma_memcpy_nocache(void *dst, const void *src, size_t count)
{
uint16_t wdsize, mod;
struct dma_register *mdma_d0 = (void *)MDMA_D0_NEXT_DESC_PTR;
struct dma_register *mdma_s0 = (void *)MDMA_S0_NEXT_DESC_PTR;
unsigned long ldst = (unsigned long)dst;
unsigned long lsrc = (unsigned long)src;
unsigned long dshift, bpos;
uint32_t dsize, mod;
/* Disable DMA in case it's still running (older u-boot's did not
* always turn them off). Do it before the if statement below so
* we can be cheap and not do a SSYNC() due to the forced abort.
*/
bfin_write_MDMA_D0_CONFIG(0);
bfin_write_MDMA_S0_CONFIG(0);
bfin_write_MDMA_D0_IRQ_STATUS(DMA_RUN | DMA_DONE | DMA_ERR);
bfin_write(&mdma_d0->config, 0);
bfin_write(&mdma_s0->config, 0);
bfin_write(&mdma_d0->status, DMA_RUN | DMA_DONE | DMA_ERR);
/* Scratchpad cannot be a DMA source or destination */
if (((unsigned long)src >= L1_SRAM_SCRATCH &&
(unsigned long)src < L1_SRAM_SCRATCH_END) ||
((unsigned long)dst >= L1_SRAM_SCRATCH &&
(unsigned long)dst < L1_SRAM_SCRATCH_END))
if ((lsrc >= L1_SRAM_SCRATCH && lsrc < L1_SRAM_SCRATCH_END) ||
(ldst >= L1_SRAM_SCRATCH && ldst < L1_SRAM_SCRATCH_END))
hang();
if (((unsigned long)dst | (unsigned long)src | count) & 0x1) {
wdsize = WDSIZE_8;
mod = 1;
} else if (((unsigned long)dst | (unsigned long)src | count) & 0x2) {
wdsize = WDSIZE_16;
count >>= 1;
mod = 2;
} else {
wdsize = WDSIZE_32;
count >>= 2;
mod = 4;
}
dma_calc_size(ldst, lsrc, count, &dshift, &bpos);
dsize = bpos << dshift;
count >>= bpos;
mod = 1 << bpos;
#ifdef PSIZE
dsize |= min(3, bpos) << PSIZE_P;
#endif
/* Copy sram functions from sdram to sram */
/* Setup destination start address */
bfin_write_MDMA_D0_START_ADDR(dst);
bfin_write(&mdma_d0->start_addr, ldst);
/* Setup destination xcount */
bfin_write_MDMA_D0_X_COUNT(count);
bfin_write(&mdma_d0->x_count, count);
/* Setup destination xmodify */
bfin_write_MDMA_D0_X_MODIFY(mod);
bfin_write(&mdma_d0->x_modify, mod);
/* Setup Source start address */
bfin_write_MDMA_S0_START_ADDR(src);
bfin_write(&mdma_s0->start_addr, lsrc);
/* Setup Source xcount */
bfin_write_MDMA_S0_X_COUNT(count);
bfin_write(&mdma_s0->x_count, count);
/* Setup Source xmodify */
bfin_write_MDMA_S0_X_MODIFY(mod);
bfin_write(&mdma_s0->x_modify, mod);
/* Enable source DMA */
bfin_write_MDMA_S0_CONFIG(wdsize | DMAEN);
bfin_write_MDMA_D0_CONFIG(wdsize | DMAEN | WNR | DI_EN);
bfin_write(&mdma_s0->config, dsize | DMAEN);
bfin_write(&mdma_d0->config, dsize | DMAEN | WNR | DI_EN);
SSYNC();
while (!(bfin_read_MDMA_D0_IRQ_STATUS() & DMA_DONE))
while (!(bfin_read(&mdma_d0->status) & DMA_DONE))
continue;
bfin_write_MDMA_D0_IRQ_STATUS(DMA_RUN | DMA_DONE | DMA_ERR);
bfin_write_MDMA_D0_CONFIG(0);
bfin_write_MDMA_S0_CONFIG(0);
bfin_write(&mdma_d0->status, DMA_RUN | DMA_DONE | DMA_ERR);
bfin_write(&mdma_d0->config, 0);
bfin_write(&mdma_s0->config, 0);
}
/* We should do a dcache invalidate on the destination after the dma, but since
* we lack such hardware capability, we'll flush/invalidate the destination

View file

@ -0,0 +1,55 @@
#
# U-boot - Makefile
#
# Copyright (c) 2005-2008 Analog Device Inc.
#
# (C) Copyright 2000-2006
# Wolfgang Denk, DENX Software Engineering, wd@denx.de.
#
# See file CREDITS for list of people who contributed to this
# project.
#
# This program 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 2 of
# the License, or (at your option) any later version.
#
# This program 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 this program; if not, write to the Free Software
# Foundation, Inc., 59 Temple Place, Suite 330, Boston,
# MA 02111-1307 USA
#
include $(TOPDIR)/config.mk
LIB = $(obj)lib$(BOARD).o
COBJS-y := $(BOARD).o
COBJS-$(CONFIG_BFIN_SOFT_SWITCH) += soft_switch.o
SRCS := $(SOBJS-y:.o=.S) $(COBJS-y:.o=.c)
OBJS := $(addprefix $(obj),$(COBJS-y))
SOBJS := $(addprefix $(obj),$(SOBJS-y))
$(LIB): $(obj).depend $(OBJS) $(SOBJS)
$(call cmd_link_o_target, $(OBJS) $(SOBJS))
clean:
rm -f $(SOBJS) $(OBJS)
distclean: clean
rm -f $(LIB) core *.bak $(obj).depend
#########################################################################
# defines $(obj).depend target
include $(SRCTREE)/rules.mk
sinclude $(obj).depend
#########################################################################

View file

@ -0,0 +1,67 @@
/*
* U-boot - main board file
*
* Copyright (c) 2008-2011 Analog Devices Inc.
*
* Licensed under the GPL-2 or later.
*/
#include <common.h>
#include <netdev.h>
#include <asm/blackfin.h>
#include <asm/io.h>
#include <asm/portmux.h>
#include "soft_switch.h"
int checkboard(void)
{
printf("Board: ADI BF609 EZ-Kit board\n");
printf(" Support: http://blackfin.uclinux.org/\n");
return 0;
}
int board_early_init_f(void)
{
static const unsigned short pins[] = {
P_A3, P_A4, P_A5, P_A6, P_A7, P_A8, P_A9, P_A10, P_A11, P_A12,
P_A13, P_A14, P_A15, P_A16, P_A17, P_A18, P_A19, P_A20, P_A21,
P_A22, P_A23, P_A24, P_A25, P_NORCK, 0,
};
peripheral_request_list(pins, "smc0");
return 0;
}
#ifdef CONFIG_DESIGNWARE_ETH
int board_eth_init(bd_t *bis)
{
int ret = 0;
if (CONFIG_DW_PORTS & 1) {
static const unsigned short pins[] = P_RMII0;
if (!peripheral_request_list(pins, "emac0"))
ret += designware_initialize(0, EMAC0_MACCFG, 1, 0);
}
if (CONFIG_DW_PORTS & 2) {
static const unsigned short pins[] = P_RMII1;
if (!peripheral_request_list(pins, "emac1"))
ret += designware_initialize(1, EMAC1_MACCFG, 1, 0);
}
return ret;
}
#endif
#ifdef CONFIG_BFIN_SDH
int board_mmc_init(bd_t *bis)
{
return bfin_mmc_init(bis);
}
#endif
/* miscellaneous platform dependent initialisations */
int misc_init_r(void)
{
printf("other init\n");
return setup_board_switches();
}

View file

@ -361,6 +361,7 @@ bf538f-ezkit blackfin blackfin
bf548-ezkit blackfin blackfin
bf561-acvilon blackfin blackfin
bf561-ezkit blackfin blackfin
bf609-ezkit blackfin blackfin
blackstamp blackfin blackfin
blackvme blackfin blackfin
br4 blackfin blackfin

View file

@ -191,7 +191,7 @@ static int do_reginfo(cmd_tbl_t *cmdtp, int flag, int argc,
#elif defined(CONFIG_BLACKFIN)
puts("\nSystem Configuration registers\n");
#ifndef __ADSPBF60x__
puts("\nPLL Registers\n");
printf("\tPLL_DIV: 0x%04x PLL_CTL: 0x%04x\n",
bfin_read_PLL_DIV(), bfin_read_PLL_CTL());
@ -227,7 +227,24 @@ static int do_reginfo(cmd_tbl_t *cmdtp, int flag, int argc,
printf("\tEBIU_SDSTAT: 0x%04x EBIU_SDGCTL: 0x%08x\n",
bfin_read_EBIU_SDSTAT(), bfin_read_EBIU_SDGCTL());
# endif
#else
puts("\nCGU Registers\n");
printf("\tCGU_DIV: 0x%08x CGU_CTL: 0x%08x\n",
bfin_read_CGU_DIV(), bfin_read_CGU_CTL());
printf("\tCGU_STAT: 0x%08x CGU_LOCKCNT: 0x%08x\n",
bfin_read_CGU_STAT(), bfin_read_CGU_CLKOUTSEL());
puts("\nSMC DDR Registers\n");
printf("\tDDR_CFG: 0x%08x DDR_TR0: 0x%08x\n",
bfin_read_DMC0_CFG(), bfin_read_DMC0_TR0());
printf("\tDDR_TR1: 0x%08x DDR_TR2: 0x%08x\n",
bfin_read_DMC0_TR1(), bfin_read_DMC0_TR2());
printf("\tDDR_MR: 0x%08x DDR_EMR1: 0x%08x\n",
bfin_read_DMC0_MR(), bfin_read_DMC0_EMR1());
printf("\tDDR_CTL: 0x%08x DDR_STAT: 0x%08x\n",
bfin_read_DMC0_CTL(), bfin_read_DMC0_STAT());
printf("\tDDR_DLLCTL:0x%08x\n", bfin_read_DMC0_DLLCTL());
#endif
#endif /* CONFIG_BLACKFIN */
return 0;

View file

@ -19,9 +19,7 @@
#include <asm/mach-common/bits/sdh.h>
#include <asm/mach-common/bits/dma.h>
#if defined(__ADSPBF50x__) || defined(__ADSPBF51x__)
# define bfin_read_SDH_PWR_CTL bfin_read_RSI_PWR_CONTROL
# define bfin_write_SDH_PWR_CTL bfin_write_RSI_PWR_CONTROL
#if defined(__ADSPBF50x__) || defined(__ADSPBF51x__) || defined(__ADSPBF60x__)
# define bfin_read_SDH_CLK_CTL bfin_read_RSI_CLK_CONTROL
# define bfin_write_SDH_CLK_CTL bfin_write_RSI_CLK_CONTROL
# define bfin_write_SDH_ARGUMENT bfin_write_RSI_ARGUMENT
@ -38,10 +36,21 @@
# define bfin_write_SDH_STATUS_CLR bfin_write_RSI_STATUSCL
# define bfin_read_SDH_CFG bfin_read_RSI_CONFIG
# define bfin_write_SDH_CFG bfin_write_RSI_CONFIG
# if defined(__ADSPBF60x__)
# define bfin_read_SDH_BLK_SIZE bfin_read_RSI_BLKSZ
# define bfin_write_SDH_BLK_SIZE bfin_write_RSI_BLKSZ
# define bfin_write_DMA_START_ADDR bfin_write_DMA10_START_ADDR
# define bfin_write_DMA_X_COUNT bfin_write_DMA10_X_COUNT
# define bfin_write_DMA_X_MODIFY bfin_write_DMA10_X_MODIFY
# define bfin_write_DMA_CONFIG bfin_write_DMA10_CONFIG
# else
# define bfin_read_SDH_PWR_CTL bfin_read_RSI_PWR_CONTROL
# define bfin_write_SDH_PWR_CTL bfin_write_RSI_PWR_CONTROL
# define bfin_write_DMA_START_ADDR bfin_write_DMA4_START_ADDR
# define bfin_write_DMA_X_COUNT bfin_write_DMA4_X_COUNT
# define bfin_write_DMA_X_MODIFY bfin_write_DMA4_X_MODIFY
# define bfin_write_DMA_CONFIG bfin_write_DMA4_CONFIG
# endif
# define PORTMUX_PINS \
{ P_RSI_DATA0, P_RSI_DATA1, P_RSI_DATA2, P_RSI_DATA3, P_RSI_CMD, P_RSI_CLK, 0 }
#elif defined(__ADSPBF54x__)
@ -70,6 +79,9 @@ sdh_send_cmd(struct mmc *mmc, struct mmc_cmd *mmc_cmd)
sdh_cmd |= CMD_RSP;
if (flags & MMC_RSP_136)
sdh_cmd |= CMD_L_RSP;
#ifdef RSI_BLKSZ
sdh_cmd |= CMD_DATA0_BUSY;
#endif
bfin_write_SDH_ARGUMENT(arg);
bfin_write_SDH_COMMAND(sdh_cmd);
@ -104,6 +116,12 @@ sdh_send_cmd(struct mmc *mmc, struct mmc_cmd *mmc_cmd)
bfin_write_SDH_STATUS_CLR(CMD_SENT_STAT | CMD_RESP_END_STAT |
CMD_TIMEOUT_STAT | CMD_CRC_FAIL_STAT);
#ifdef RSI_BLKSZ
/* wait till card ready */
while (!(bfin_read_RSI_ESTAT() & SD_CARD_READY))
continue;
bfin_write_RSI_ESTAT(SD_CARD_READY);
#endif
return ret;
}
@ -113,16 +131,19 @@ static int sdh_setup_data(struct mmc *mmc, struct mmc_data *data)
{
u16 data_ctl = 0;
u16 dma_cfg = 0;
int ret = 0;
unsigned long data_size = data->blocksize * data->blocks;
/* Don't support write yet. */
if (data->flags & MMC_DATA_WRITE)
return UNUSABLE_ERR;
#ifndef RSI_BLKSZ
data_ctl |= ((ffs(data_size) - 1) << 4);
#else
bfin_write_SDH_BLK_SIZE(data_size);
#endif
data_ctl |= DTX_DIR;
bfin_write_SDH_DATA_CTL(data_ctl);
dma_cfg = WDSIZE_32 | RESTART | WNR | DMAEN;
dma_cfg = WDSIZE_32 | PSIZE_32 | RESTART | WNR | DMAEN;
bfin_write_SDH_DATA_TIMER(-1);
@ -137,7 +158,7 @@ static int sdh_setup_data(struct mmc *mmc, struct mmc_data *data)
/* kick off transfer */
bfin_write_SDH_DATA_CTL(bfin_read_SDH_DATA_CTL() | DTX_DMA_E | DTX_E);
return ret;
return 0;
}
@ -147,13 +168,23 @@ static int bfin_sdh_request(struct mmc *mmc, struct mmc_cmd *cmd,
u32 status;
int ret = 0;
if (data) {
ret = sdh_setup_data(mmc, data);
if (ret)
return ret;
}
ret = sdh_send_cmd(mmc, cmd);
if (ret) {
bfin_write_SDH_COMMAND(0);
bfin_write_DMA_CONFIG(0);
bfin_write_SDH_DATA_CTL(0);
SSYNC();
printf("sending CMD%d failed\n", cmd->cmdidx);
return ret;
}
if (data) {
ret = sdh_setup_data(mmc, data);
do {
udelay(1);
status = bfin_read_SDH_STATUS();
@ -208,10 +239,12 @@ static void bfin_sdh_set_ios(struct mmc *mmc)
if (mmc->bus_width == 4) {
cfg = bfin_read_SDH_CFG();
cfg &= ~0x80;
cfg |= 0x40;
#ifndef RSI_BLKSZ
cfg &= ~PD_SDDAT3;
#endif
cfg |= PUP_SDDAT3;
bfin_write_SDH_CFG(cfg);
clk_ctl |= WIDE_BUS;
clk_ctl |= WIDE_BUS_4;
}
bfin_write_SDH_CLK_CTL(clk_ctl);
sdh_set_clk(mmc->clock);
@ -220,20 +253,23 @@ static void bfin_sdh_set_ios(struct mmc *mmc)
static int bfin_sdh_init(struct mmc *mmc)
{
const unsigned short pins[] = PORTMUX_PINS;
u16 pwr_ctl = 0;
int ret;
/* Initialize sdh controller */
peripheral_request_list(pins, "bfin_sdh");
ret = peripheral_request_list(pins, "bfin_sdh");
if (ret < 0)
return ret;
#if defined(__ADSPBF54x__)
bfin_write_DMAC1_PERIMUX(bfin_read_DMAC1_PERIMUX() | 0x1);
#endif
bfin_write_SDH_CFG(bfin_read_SDH_CFG() | CLKS_EN);
/* Disable card detect pin */
bfin_write_SDH_CFG((bfin_read_SDH_CFG() & 0x1F) | 0x60);
pwr_ctl |= ROD_CTL;
pwr_ctl |= PWR_ON;
bfin_write_SDH_PWR_CTL(pwr_ctl);
#ifndef RSI_BLKSZ
bfin_write_SDH_PWR_CTL(PWR_ON | ROD_CTL);
#else
bfin_write_SDH_CFG(bfin_read_SDH_CFG() | PWR_ON);
#endif
return 0;
}

View file

@ -31,6 +31,7 @@ COBJS-$(CONFIG_ARMADA100_SPI) += armada100_spi.o
COBJS-$(CONFIG_ATMEL_DATAFLASH_SPI) += atmel_dataflash_spi.o
COBJS-$(CONFIG_ATMEL_SPI) += atmel_spi.o
COBJS-$(CONFIG_BFIN_SPI) += bfin_spi.o
COBJS-$(CONFIG_BFIN_SPI6XX) += bfin_spi6xx.o
COBJS-$(CONFIG_CF_SPI) += cf_spi.o
COBJS-$(CONFIG_CF_QSPI) += cf_qspi.o
COBJS-$(CONFIG_DAVINCI_SPI) += davinci_spi.o

308
drivers/spi/bfin_spi6xx.c Normal file
View file

@ -0,0 +1,308 @@
/*
* Analog Devices SPI3 controller driver
*
* Copyright (c) 2011 Analog Devices Inc.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License version 2 as
* published by the Free Software Foundation.
*
* This program 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 this program; if not, write to the Free Software
* Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA.
*/
#include <common.h>
#include <malloc.h>
#include <spi.h>
#include <asm/blackfin.h>
#include <asm/gpio.h>
#include <asm/portmux.h>
#include <asm/mach-common/bits/spi6xx.h>
struct bfin_spi_slave {
struct spi_slave slave;
u32 control, clock;
struct bfin_spi_regs *regs;
int cs_pol;
};
#define to_bfin_spi_slave(s) container_of(s, struct bfin_spi_slave, slave)
#define gpio_cs(cs) ((cs) - MAX_CTRL_CS)
#ifdef CONFIG_BFIN_SPI_GPIO_CS
# define is_gpio_cs(cs) ((cs) > MAX_CTRL_CS)
#else
# define is_gpio_cs(cs) 0
#endif
int spi_cs_is_valid(unsigned int bus, unsigned int cs)
{
if (is_gpio_cs(cs))
return gpio_is_valid(gpio_cs(cs));
else
return (cs >= 1 && cs <= MAX_CTRL_CS);
}
void spi_cs_activate(struct spi_slave *slave)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
if (is_gpio_cs(slave->cs)) {
unsigned int cs = gpio_cs(slave->cs);
gpio_set_value(cs, bss->cs_pol);
} else {
u32 ssel;
ssel = bfin_read32(&bss->regs->ssel);
ssel |= 1 << slave->cs;
if (bss->cs_pol)
ssel |= (1 << 8) << slave->cs;
else
ssel &= ~((1 << 8) << slave->cs);
bfin_write32(&bss->regs->ssel, ssel);
}
SSYNC();
}
void spi_cs_deactivate(struct spi_slave *slave)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
if (is_gpio_cs(slave->cs)) {
unsigned int cs = gpio_cs(slave->cs);
gpio_set_value(cs, !bss->cs_pol);
} else {
u32 ssel;
ssel = bfin_read32(&bss->regs->ssel);
if (bss->cs_pol)
ssel &= ~((1 << 8) << slave->cs);
else
ssel |= (1 << 8) << slave->cs;
/* deassert cs */
bfin_write32(&bss->regs->ssel, ssel);
SSYNC();
/* disable cs */
ssel &= ~(1 << slave->cs);
bfin_write32(&bss->regs->ssel, ssel);
}
SSYNC();
}
void spi_init()
{
}
#define SPI_PINS(n) \
{ 0, P_SPI##n##_SCK, P_SPI##n##_MISO, P_SPI##n##_MOSI, 0 }
static unsigned short pins[][5] = {
#ifdef SPI0_REGBASE
[0] = SPI_PINS(0),
#endif
#ifdef SPI1_REGBASE
[1] = SPI_PINS(1),
#endif
#ifdef SPI2_REGBASE
[2] = SPI_PINS(2),
#endif
};
#define SPI_CS_PINS(n) \
{ \
P_SPI##n##_SSEL1, P_SPI##n##_SSEL2, P_SPI##n##_SSEL3, \
P_SPI##n##_SSEL4, P_SPI##n##_SSEL5, P_SPI##n##_SSEL6, \
P_SPI##n##_SSEL7, \
}
static const unsigned short cs_pins[][7] = {
#ifdef SPI0_REGBASE
[0] = SPI_CS_PINS(0),
#endif
#ifdef SPI1_REGBASE
[1] = SPI_CS_PINS(1),
#endif
#ifdef SPI2_REGBASE
[2] = SPI_CS_PINS(2),
#endif
};
void spi_set_speed(struct spi_slave *slave, uint hz)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
ulong sclk;
u32 clock;
sclk = get_sclk1();
clock = sclk / hz;
if (clock)
clock--;
bss->clock = clock;
}
struct spi_slave *spi_setup_slave(unsigned int bus, unsigned int cs,
unsigned int max_hz, unsigned int mode)
{
struct bfin_spi_slave *bss;
u32 reg_base;
if (!spi_cs_is_valid(bus, cs))
return NULL;
if (bus >= ARRAY_SIZE(pins) || pins[bus] == NULL) {
debug("%s: invalid bus %u\n", __func__, bus);
return NULL;
}
switch (bus) {
#ifdef SPI0_REGBASE
case 0:
reg_base = SPI0_REGBASE;
break;
#endif
#ifdef SPI1_REGBASE
case 1:
reg_base = SPI1_REGBASE;
break;
#endif
#ifdef SPI2_REGBASE
case 2:
reg_base = SPI2_REGBASE;
break;
#endif
default:
return NULL;
}
bss = malloc(sizeof(*bss));
if (!bss)
return NULL;
bss->slave.bus = bus;
bss->slave.cs = cs;
bss->regs = (struct bfin_spi_regs *)reg_base;
bss->control = SPI_CTL_EN | SPI_CTL_MSTR;
if (mode & SPI_CPHA)
bss->control |= SPI_CTL_CPHA;
if (mode & SPI_CPOL)
bss->control |= SPI_CTL_CPOL;
if (mode & SPI_LSB_FIRST)
bss->control |= SPI_CTL_LSBF;
bss->control &= ~SPI_CTL_ASSEL;
bss->cs_pol = mode & SPI_CS_HIGH ? 1 : 0;
spi_set_speed(&bss->slave, max_hz);
return &bss->slave;
}
void spi_free_slave(struct spi_slave *slave)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
free(bss);
}
int spi_claim_bus(struct spi_slave *slave)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
debug("%s: bus:%i cs:%i\n", __func__, slave->bus, slave->cs);
if (is_gpio_cs(slave->cs)) {
unsigned int cs = gpio_cs(slave->cs);
gpio_request(cs, "bfin-spi");
gpio_direction_output(cs, !bss->cs_pol);
pins[slave->bus][0] = P_DONTCARE;
} else
pins[slave->bus][0] = cs_pins[slave->bus][slave->cs - 1];
peripheral_request_list(pins[slave->bus], "bfin-spi");
bfin_write32(&bss->regs->control, bss->control);
bfin_write32(&bss->regs->clock, bss->clock);
bfin_write32(&bss->regs->delay, 0x0);
bfin_write32(&bss->regs->rx_control, SPI_RXCTL_REN);
bfin_write32(&bss->regs->tx_control, SPI_TXCTL_TEN | SPI_TXCTL_TTI);
SSYNC();
return 0;
}
void spi_release_bus(struct spi_slave *slave)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
debug("%s: bus:%i cs:%i\n", __func__, slave->bus, slave->cs);
peripheral_free_list(pins[slave->bus]);
if (is_gpio_cs(slave->cs))
gpio_free(gpio_cs(slave->cs));
bfin_write32(&bss->regs->rx_control, 0x0);
bfin_write32(&bss->regs->tx_control, 0x0);
bfin_write32(&bss->regs->control, 0x0);
SSYNC();
}
#ifndef CONFIG_BFIN_SPI_IDLE_VAL
# define CONFIG_BFIN_SPI_IDLE_VAL 0xff
#endif
static int spi_pio_xfer(struct bfin_spi_slave *bss, const u8 *tx, u8 *rx,
uint bytes)
{
/* discard invalid rx data and empty rfifo */
while (!(bfin_read32(&bss->regs->status) & SPI_STAT_RFE))
bfin_read32(&bss->regs->rfifo);
while (bytes--) {
u8 value = (tx ? *tx++ : CONFIG_BFIN_SPI_IDLE_VAL);
debug("%s: tx:%x ", __func__, value);
bfin_write32(&bss->regs->tfifo, value);
SSYNC();
while (bfin_read32(&bss->regs->status) & SPI_STAT_RFE)
if (ctrlc())
return -1;
value = bfin_read32(&bss->regs->rfifo);
if (rx)
*rx++ = value;
debug("rx:%x\n", value);
}
return 0;
}
int spi_xfer(struct spi_slave *slave, unsigned int bitlen, const void *dout,
void *din, unsigned long flags)
{
struct bfin_spi_slave *bss = to_bfin_spi_slave(slave);
const u8 *tx = dout;
u8 *rx = din;
uint bytes = bitlen / 8;
int ret = 0;
debug("%s: bus:%i cs:%i bitlen:%i bytes:%i flags:%lx\n", __func__,
slave->bus, slave->cs, bitlen, bytes, flags);
if (bitlen == 0)
goto done;
/* we can only do 8 bit transfers */
if (bitlen % 8) {
flags |= SPI_XFER_END;
goto done;
}
if (flags & SPI_XFER_BEGIN)
spi_cs_activate(slave);
ret = spi_pio_xfer(bss, tx, rx, bytes);
done:
if (flags & SPI_XFER_END)
spi_cs_deactivate(slave);
return ret;
}

View file

@ -0,0 +1,162 @@
/*
* U-boot - Configuration file for BF609 EZ-Kit board
*/
#ifndef __CONFIG_BF609_EZKIT_H__
#define __CONFIG_BF609_EZKIT_H__
#include <asm/config-pre.h>
/*
* Processor Settings
*/
#define CONFIG_BFIN_CPU bf609-0.0
#define CONFIG_BFIN_BOOT_MODE BFIN_BOOT_PARA
/* For ez-board version 1.0, else undef this */
#define CONFIG_BFIN_BOARD_VERSION_1_0
/*
* Clock Settings
* CCLK = (CLKIN * VCO_MULT) / CCLK_DIV
* SCLK = (CLKIN * VCO_MULT) / SYSCLK_DIV
* SCLK0 = SCLK / SCLK0_DIV
* SCLK1 = SCLK / SCLK1_DIV
*/
/* CONFIG_CLKIN_HZ is any value in Hz */
#define CONFIG_CLKIN_HZ (25000000)
/* CLKIN_HALF controls the DF bit in PLL_CTL 0 = CLKIN */
/* 1 = CLKIN / 2 */
#define CONFIG_CLKIN_HALF (0)
/* VCO_MULT controls the MSEL (multiplier) bits in PLL_CTL */
/* Values can range from 0-127 (where 0 means 128) */
#define CONFIG_VCO_MULT (20)
/* CCLK_DIV controls the core clock divider */
/* Values can range from 0-31 (where 0 means 32) */
#define CONFIG_CCLK_DIV (1)
/* SCLK_DIV controls the system clock divider */
/* Values can range from 0-31 (where 0 means 32) */
#define CONFIG_SCLK_DIV (4)
/* Values can range from 0-7 (where 0 means 8) */
#define CONFIG_SCLK0_DIV (1)
#define CONFIG_SCLK1_DIV (1)
/* DCLK_DIV controls the DDR clock divider */
/* Values can range from 0-31 (where 0 means 32) */
#define CONFIG_DCLK_DIV (2)
/* OCLK_DIV controls the output clock divider */
/* Values can range from 0-127 (where 0 means 128) */
#define CONFIG_OCLK_DIV (16)
/*
* Memory Settings
*/
#define CONFIG_MEM_SIZE 128
#define CONFIG_SMC_GCTL_VAL 0x00000010
#define CONFIG_SMC_B0CTL_VAL 0x01007011
#define CONFIG_SMC_B0TIM_VAL 0x08170977
#define CONFIG_SMC_B0ETIM_VAL 0x00092231
#define CONFIG_SYS_MONITOR_LEN (768 * 1024)
#define CONFIG_SYS_MALLOC_LEN (512 * 1024)
#define CONFIG_HW_WATCHDOG
/*
* Network Settings
*/
#define ADI_CMDS_NETWORK
#define CONFIG_NETCONSOLE
#define CONFIG_NET_MULTI
#define CONFIG_HOSTNAME "bf609-ezkit"
#define CONFIG_DESIGNWARE_ETH
#define CONFIG_DW_PORTS 1
#define CONFIG_DW_AUTONEG
#define CONFIG_DW_ALTDESCRIPTOR
#define CONFIG_CMD_NET
#define CONFIG_CMD_MII
#define CONFIG_MII
/* i2c Settings */
#define CONFIG_BFIN_TWI_I2C
#define CONFIG_HARD_I2C
/*
* Flash Settings
*/
#undef CONFIG_CMD_IMLS
#undef CONFIG_CMD_JFFS2
#define CONFIG_SYS_FLASH_CFI_WIDTH 2
#define CONFIG_FLASH_CFI_DRIVER
#define CONFIG_SYS_FLASH_BASE 0xb0000000
#define CONFIG_SYS_FLASH_CFI
#define CONFIG_SYS_FLASH_PROTECTION
#define CONFIG_SYS_MAX_FLASH_BANKS 1
#define CONFIG_SYS_MAX_FLASH_SECT 131
#define CONFIG_CFI_FLASH_USE_WEAK_ACCESSORS
/*
* SPI Settings
*/
#define CONFIG_BFIN_SPI6XX
#define CONFIG_ENV_SPI_MAX_HZ 25000000
#define CONFIG_SF_DEFAULT_SPEED 25000000
#define CONFIG_SPI_FLASH
#define CONFIG_SPI_FLASH_ALL
/*
* Env Storage Settings
*/
#if (CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_SPI_MASTER)
#define CONFIG_ENV_IS_IN_SPI_FLASH
#define CONFIG_ENV_OFFSET 0x10000
#define CONFIG_ENV_SIZE 0x2000
#define CONFIG_ENV_SECT_SIZE 0x10000
#define CONFIG_ENV_IS_EMBEDDED_IN_LDR
#elif (CONFIG_BFIN_BOOT_MODE == BFIN_BOOT_NAND)
#define CONFIG_ENV_IS_IN_NAND
#define CONFIG_ENV_OFFSET 0x60000
#define CONFIG_ENV_SIZE 0x20000
#else
#define CONFIG_ENV_IS_IN_FLASH
#define CONFIG_ENV_ADDR (CONFIG_SYS_FLASH_BASE + CONFIG_ENV_OFFSET)
#define CONFIG_ENV_OFFSET 0x8000
#define CONFIG_ENV_SIZE 0x8000
#define CONFIG_ENV_SECT_SIZE 0x8000
#define CONFIG_ENV_IS_EMBEDDED_IN_LDR
#endif
#define FLASHBOOT_ENV_SETTINGS "flashboot=bootm 0xB0100000\0"
/*
* SDH Settings
*/
#define CONFIG_GENERIC_MMC
#define CONFIG_MMC
#define CONFIG_BFIN_SDH
/*
* Misc Settings
*/
#define CONFIG_BOARD_EARLY_INIT_F
#define CONFIG_UART_CONSOLE 0
#define CONFIG_CMD_MEMORY
#define CONFIG_SYS_MEMTEST_END (CONFIG_STACKBASE - 20*1024*1024 + 4)
#define CONFIG_BFIN_SOFT_SWITCH
#if 0
#define CONFIG_UART_MEM 1024
#undef CONFIG_UART_CONSOLE
#undef CONFIG_JTAG_CONSOLE
#undef CONFIG_UART_CONSOLE_IS_JTAG
#endif
/*
* Pull in common ADI header for remaining command/environment setup
*/
#include <configs/bfin_adi_common.h>
#endif

View file

@ -10,7 +10,7 @@
*/
#ifndef _CONFIG_CMD_DEFAULT_H
# include <config_cmd_default.h>
# if ADI_CMDS_NETWORK
# ifdef ADI_CMDS_NETWORK
# define CONFIG_CMD_DHCP
# define CONFIG_BOOTP_SUBNETMASK
# define CONFIG_BOOTP_GATEWAY
@ -58,7 +58,7 @@
# endif
# ifdef CONFIG_RTC_BFIN
# define CONFIG_CMD_DATE
# if ADI_CMDS_NETWORK
# ifdef ADI_CMDS_NETWORK
# define CONFIG_CMD_SNTP
# endif
# endif
@ -193,10 +193,12 @@
"nand erase 0 0x40000;" \
"nand write $(loadaddr) 0 0x40000"
# else
# define UBOOT_ENV_UPDATE \
# ifndef UBOOT_ENV_UPDATE
# define UBOOT_ENV_UPDATE \
"protect off 0x20000000 +$(filesize);" \
"erase 0x20000000 +$(filesize);" \
"cp.b $(loadaddr) 0x20000000 $(filesize)"
# endif
# endif
# ifdef CONFIG_NETCONSOLE
# define NETCONSOLE_ENV \