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freebsd/sys/mips/cavium/octeon_pcmap_regs.h
Warner Losh e7f82fbbaf o Write the soft reset bit in the cavium core to reset. [1] 
o panic if the board boot descriptor is too old...

Obtained from:	[1] looking at the cavium sdk's executive code
2010-01-24 18:05:38 +00:00

1082 lines
30 KiB
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/*
* This product includes software developed by the University of
* California, Berkeley and its contributors."
*/
/* $FreeBSD$ */
#ifndef __OCTEON_PCMAP_REGS_H__
#define __OCTEON_PCMAP_REGS_H__
#include "opt_cputype.h"
#define OCTEON_CACHE_LINE_SIZE 0x80 /* 128 bytes cache line size */
#define IS_OCTEON_ALIGNED(p) (!((u_long)(p) & 0x7f))
#define OCTEON_ALIGN(p) (((u_long)(p) + ((OCTEON_CACHE_LINE_SIZE) - 1)) & ~((OCTEON_CACHE_LINE_SIZE) - 1))
#ifndef LOCORE
/* XXXimp: From Cavium's include/pcpu.h, need to port that over */
#ifndef OCTEON_SMP
#define OCTEON_CORE_ID 0
#else
extern struct pcpu *cpuid_to_pcpu[];
#define OCTEON_CORE_ID (mips_rd_coreid())
#endif
/*
* Utility inlines & macros
*/
/* turn the variable name into a string */
#define OCTEON_TMP_STR(x) OCTEON_TMP_STR2(x)
#define OCTEON_TMP_STR2(x) #x
#define OCTEON_PREFETCH_PREF0(address, offset) \
__asm __volatile ( ".set mips64\n" \
".set noreorder\n" \
"pref 0, " OCTEON_TMP_STR(offset) "(%0)\n" \
".set reorder\n" \
".set mips0\n" \
: \
: "r" (address) );
#define OCTEON_PREFETCH(address, offset) OCTEON_PREFETCH_PREF0(address,offset)
#define OCTEON_PREFETCH0(address) OCTEON_PREFETCH(address, 0)
#define OCTEON_PREFETCH128(address) OCTEON_PREFETCH(address, 128)
#define OCTEON_SYNCIOBDMA __asm __volatile (".word 0x8f" : : :"memory")
#define OCTEON_SYNCW __asm __volatile (".word 0x10f" : : )
#define OCTEON_SYNCW __asm __volatile (".word 0x10f" : : )
#define OCTEON_SYNCWS __asm __volatile (".word 0x14f" : : )
#if defined(__mips_n32) || defined(__mips_n64)
static inline void oct_write64 (uint64_t csr_addr, uint64_t val64)
{
uint64_t *ptr = (uint64_t *) csr_addr;
*ptr = val64;
}
static inline void oct_write64_int64 (uint64_t csr_addr, int64_t val64i)
{
int64_t *ptr = (int64_t *) csr_addr;
*ptr = val64i;
}
static inline void oct_write8_x8 (uint64_t csr_addr, uint8_t val8)
{
uint64_t *ptr = (uint64_t *) csr_addr;
*ptr = (uint64_t) val8;
}
static inline void oct_write8 (uint64_t csr_addr, uint8_t val8)
{
oct_write64(csr_addr, (uint64_t) val8);
}
static inline void oct_write16 (uint64_t csr_addr, uint16_t val16)
{
oct_write64(csr_addr, (uint64_t) val16);
}
static inline void oct_write32 (uint64_t csr_addr, uint32_t val32)
{
oct_write64(csr_addr, (uint64_t) val32);
}
static inline uint8_t oct_read8 (uint64_t csr_addr)
{
uint8_t *ptr = (uint8_t *) csr_addr;
return (*ptr);
}
static inline uint8_t oct_read16 (uint64_t csr_addr)
{
uint16_t *ptr = (uint16_t *) csr_addr;
return (*ptr);
}
static inline uint32_t oct_read32 (uint64_t csr_addr)
{
uint32_t *ptr = (uint32_t *) csr_addr;
return (*ptr);
}
static inline uint64_t oct_read64 (uint64_t csr_addr)
{
uint64_t *ptr = (uint64_t *) csr_addr;
return (*ptr);
}
static inline int32_t oct_readint32 (uint64_t csr_addr)
{
int32_t *ptr = (int32_t *) csr_addr;
return (*ptr);
}
#else
/* ABI o32 */
/*
* Read/write functions
*/
static inline void oct_write64 (uint64_t csr_addr, uint64_t val64)
{
uint32_t csr_addrh = csr_addr >> 32;
uint32_t csr_addrl = csr_addr;
uint32_t valh = (uint64_t)val64 >> 32;
uint32_t vall = val64;
uint32_t tmp1;
uint32_t tmp2;
uint32_t tmp3;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %5, 32\n"
"dsll %2, %4, 32\n"
"dsrl %2, %2, 32\n"
"or %0, %0, %2\n"
"dsll %2, %6, 32\n"
"dsrl %2, %2, 32\n"
"or %1, %1, %2\n"
"sd %0, 0(%1)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2), "=&r" (tmp3)
: "r" (valh), "r" (vall),
"r" (csr_addrh), "r" (csr_addrl)
);
}
static inline void oct_write64_int64 (uint64_t csr_addr, int64_t val64i)
{
uint32_t csr_addrh = csr_addr >> 32;
uint32_t csr_addrl = csr_addr;
int32_t valh = (uint64_t)val64i >> 32;
int32_t vall = val64i;
uint32_t tmp1;
uint32_t tmp2;
uint32_t tmp3;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %5, 32\n"
"dsll %2, %4, 32\n"
"dsrl %2, %2, 32\n"
"or %0, %0, %2\n"
"dsll %2, %6, 32\n"
"dsrl %2, %2, 32\n"
"or %1, %1, %2\n"
"sd %0, 0(%1)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2), "=&r" (tmp3)
: "r" (valh), "r" (vall),
"r" (csr_addrh), "r" (csr_addrl)
);
}
/*
* oct_write8_x8
*
* 8 bit data write into IO Space. Written using an 8 bit bus io transaction
*/
static inline void oct_write8_x8 (uint64_t csr_addr, uint8_t val8)
{
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1;
uint32_t tmp2;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %4, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"sb %2, 0(%0)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (val8), "r" (csr_addrh), "r" (csr_addrl) );
}
/*
* oct_write8
*
* 8 bit data write into IO Space. Written using a 64 bit bus io transaction
*/
static inline void oct_write8 (uint64_t csr_addr, uint8_t val8)
{
#if 1
oct_write64(csr_addr, (uint64_t) val8);
#else
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1;
uint32_t tmp2;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %4, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"sb %2, 0(%0)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (val8), "r" (csr_addrh), "r" (csr_addrl) );
#endif
}
static inline void oct_write16 (uint64_t csr_addr, uint16_t val16)
{
#if 1
oct_write64(csr_addr, (uint64_t) val16);
#else
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1;
uint32_t tmp2;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %4, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"sh %2, 0(%0)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (val16), "r" (csr_addrh), "r" (csr_addrl) );
#endif
}
static inline void oct_write32 (uint64_t csr_addr, uint32_t val32)
{
#if 1
oct_write64(csr_addr, (uint64_t) val32);
#else
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1;
uint32_t tmp2;
__asm __volatile (
".set mips64\n"
"dsll %0, %3, 32\n"
"dsll %1, %4, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"sw %2, 0(%0)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (val32), "r" (csr_addrh), "r" (csr_addrl) );
#endif
}
static inline uint8_t oct_read8 (uint64_t csr_addr)
{
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1, tmp2;
__asm __volatile (
".set mips64\n"
"dsll %1, %2, 32\n"
"dsll %0, %3, 32\n"
"dsrl %0, %0, 32\n"
"or %1, %1, %0\n"
"lb %1, 0(%1)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (csr_addrh), "r" (csr_addrl) );
return ((uint8_t) tmp2);
}
static inline uint8_t oct_read16 (uint64_t csr_addr)
{
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t tmp1, tmp2;
__asm __volatile (
".set mips64\n"
"dsll %1, %2, 32\n"
"dsll %0, %3, 32\n"
"dsrl %0, %0, 32\n"
"or %1, %1, %0\n"
"lh %1, 0(%1)\n"
".set mips0\n"
: "=&r" (tmp1), "=&r" (tmp2)
: "r" (csr_addrh), "r" (csr_addrl) );
return ((uint16_t) tmp2);
}
static inline uint32_t oct_read32 (uint64_t csr_addr)
{
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
uint32_t val32;
uint32_t tmp;
__asm __volatile (
".set mips64\n"
"dsll %0, %2, 32\n"
"dsll %1, %3, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"lw %0, 0(%0)\n"
".set mips0\n"
: "=&r" (val32), "=&r" (tmp)
: "r" (csr_addrh), "r" (csr_addrl) );
return (val32);
}
static inline uint64_t oct_read64 (uint64_t csr_addr)
{
uint32_t csr_addrh = csr_addr >> 32;
uint32_t csr_addrl = csr_addr;
uint32_t valh;
uint32_t vall;
__asm __volatile (
".set mips64\n"
"dsll %0, %2, 32\n"
"dsll %1, %3, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"ld %1, 0(%0)\n"
"dsrl %0, %1, 32\n"
"dsll %1, %1, 32\n"
"dsrl %1, %1, 32\n"
".set mips0\n"
: "=&r" (valh), "=&r" (vall)
: "r" (csr_addrh), "r" (csr_addrl)
);
return ((uint64_t)valh << 32) | vall;
}
static inline int32_t oct_readint32 (uint64_t csr_addr)
{
uint32_t csr_addrh = csr_addr>>32;
uint32_t csr_addrl = csr_addr;
int32_t val32;
uint32_t tmp;
__asm __volatile (
".set mips64\n"
"dsll %0, %2, 32\n"
"dsll %1, %3, 32\n"
"dsrl %1, %1, 32\n"
"or %0, %0, %1\n"
"lw %0, 0(%0)\n"
: "=&r" (val32), "=&r" (tmp)
: "r" (csr_addrh), "r" (csr_addrl) );
return (val32);
}
#endif
#define OCTEON_HW_BASE ((volatile uint64_t *) 0L)
#define OCTEON_REG_OFFSET (-4 * 1024ll) /* local scratchpad reg base */
#define OCTEON_SCRATCH_BASE ((volatile uint8_t *)(OCTEON_HW_BASE + \
OCTEON_REG_OFFSET))
#define OCTEON_SCR_SCRATCH 8
#define OCTEON_SCRATCH_0 16
#define OCTEON_SCRATCH_1 24
#define OCTEON_SCRATCH_2 32
static inline uint64_t oct_mf_chord (void)
{
uint64_t dest;
__asm __volatile ( ".set push\n"
".set noreorder\n"
".set noat\n"
".set mips64\n"
"dmfc2 $1, 0x400\n"
"move %0, $1\n"
".set pop\n"
: "=r" (dest) : : "$1");
return dest;
}
#define MIPS64_DMFCz(cop,regnum,cp0reg,select) \
.word (0x40200000 | (cop << 25) | (regnum << 16) | (cp0reg << 11) | select)
#define mips64_getcpz_xstr(s) mips64_getcpz_str(s)
#define mips64_getcpz_str(s) #s
#define mips64_dgetcpz(cop,cpzreg,sel,val_ptr) \
({ __asm __volatile( \
".set push\n" \
".set mips3\n" \
".set noreorder\n" \
".set noat\n" \
mips64_getcpz_xstr(MIPS64_DMFCz(cop,1,cpzreg,sel)) "\n" \
"nop\n" \
"nop\n" \
"nop\n" \
"nop\n" \
"sd $1,0(%0)\n" \
".set pop" \
: /* no outputs */ : "r" (val_ptr) : "$1"); \
})
#define mips64_dgetcp2(cp2reg,sel,retval_ptr) \
mips64_dgetcpz(2,cp2reg,sel,retval_ptr)
#define OCTEON_MF_CHORD(dest) mips64_dgetcp2(0x400, 0, &dest)
#define OCTEON_RDHWR(result, regstr) \
__asm __volatile ( \
".set mips3\n" \
"rdhwr %0,$" OCTEON_TMP_STR(regstr) "\n" \
".set mips\n" \
: "=d" (result));
#define CVMX_MF_CHORD(dest) OCTEON_RDHWR(dest, 30)
#define OCTEON_CHORD_HEX(dest_ptr) \
({ __asm __volatile( \
".set push\n" \
".set mips3\n" \
".set noreorder\n" \
".set noat\n" \
".word 0x7c02f03b \n"\
"nop\n" \
"nop\n" \
"nop\n" \
"nop\n" \
"sd $2,0(%0)\n" \
".set pop" \
: /* no outputs */ : "r" (dest_ptr) : "$2"); \
})
#define OCTEON_MF_CHORD_BAD(dest) \
__asm __volatile ( \
".set mips3\n" \
"dmfc2 %0, 0x400\n" \
".set mips0\n" \
: "=&r" (dest) : )
static inline uint64_t oct_scratch_read64 (uint64_t address)
{
return(*((volatile uint64_t *)(OCTEON_SCRATCH_BASE + address)));
}
static inline void oct_scratch_write64 (uint64_t address, uint64_t value)
{
*((volatile uint64_t *)(OCTEON_SCRATCH_BASE + address)) = value;
}
#define OCTEON_READ_CSR32(addr, val) \
addr_ptr = addr; \
oct_read_32_ptr(&addr_ptr, &val);
#define OCTEON_WRITE_CSR32(addr, val, val_dummy) \
addr_ptr = addr; \
oct_write_32_ptr(&addr_ptr, &val); \
oct_read64(OCTEON_MIO_BOOT_BIST_STAT);
/*
* Octeon Address Space Definitions
*/
typedef enum {
OCTEON_MIPS_SPACE_XKSEG = 3LL,
OCTEON_MIPS_SPACE_XKPHYS = 2LL,
OCTEON_MIPS_SPACE_XSSEG = 1LL,
OCTEON_MIPS_SPACE_XUSEG = 0LL
} octeon_mips_space_t;
typedef enum {
OCTEON_MIPS_XKSEG_SPACE_KSEG0 = 0LL,
OCTEON_MIPS_XKSEG_SPACE_KSEG1 = 1LL,
OCTEON_MIPS_XKSEG_SPACE_SSEG = 2LL,
OCTEON_MIPS_XKSEG_SPACE_KSEG3 = 3LL
} octeon_mips_xkseg_space_t;
/*
***********************************************************************
* 32 bit mode alert
* The kseg0 calc below might fail in xkphys.
*/
/*
* We limit the allocated device physical blocks to low mem. So use Kseg0
*/
/*
* Need to go back to kernel to find v->p mappings & vice-versa
* We are getting non 1-1 mappings.
* #define OCTEON_PTR2PHYS(addr) ((unsigned long) addr & 0x7fffffff)
*/
#define OCTEON_PTR2PHYS(addr) octeon_ptr_to_phys(addr)
/* PTR_SIZE == sizeof(uint32_t) */
#ifdef ISA_MIPS32
#define mipsx_addr_size uint32_t // u_int64
#define MIPSX_ADDR_SIZE_KSEGX_BIT_SHIFT 30 // 62
#define MIPSX_ADDR_SIZE_KSEGX_MASK_REMOVED 0x1fffffff // 0x1fffffff
#else
#define mipsx_addr_size uint64_t
#define MIPSX_ADDR_SIZE_KSEGX_BIT_SHIFT 62
#define MIPSX_ADDR_SIZE_KSEGX_MASK_REMOVED 0x1fffffffffffffff
#endif
#define octeon_ptr_to_phys(ptr) \
((((mipsx_addr_size) ptr) >> MIPSX_ADDR_SIZE_KSEGX_BIT_SHIFT) == 2) ? \
((mipsx_addr_size) ptr & MIPSX_ADDR_SIZE_KSEGX_MASK_REMOVED) : \
(vtophys(ptr))
#ifdef CODE_FOR_64_BIT_NEEDED
static inline mipsx_addr_size octeon_ptr_to_phys (void *ptr)
{
if ((((mipsx_addr_size) ptr) >> MIPSX_ADDR_SIZE_KSEGX_BIT_SHIFT) == 2) {
/*
* KSEG0 based address ?
*/
return ((mipsx_addr_size) ptr & MIPSX_ADDR_SIZE_KSEGX_MASK_REMOVED);
} else {
/*
* Ask kernel/vm to give us the phys translation.
*/
return (vtophys(ptr));
}
}
#endif
#define OCTEON_IO_SEG OCTEON_MIPS_SPACE_XKPHYS
#define OCTEON_ADD_SEG(segment, add) ((((uint64_t)segment) << 62) | (add))
#define OCTEON_ADD_IO_SEG(add) OCTEON_ADD_SEG(OCTEON_IO_SEG, (add))
#define OCTEON_ADDR_DID(did) (OCTEON_ADDR_DIDSPACE(did) << 40)
#define OCTEON_ADDR_DIDSPACE(did) (((OCTEON_IO_SEG) << 22) | ((1ULL) << 8) | (did))
#define OCTEON_ADDR_FULL_DID(did,subdid) (((did) << 3) | (subdid))
#define OCTEON_CIU_PP_RST OCTEON_ADD_IO_SEG(0x0001070000000700ull)
#define OCTEON_CIU_SOFT_RST OCTEON_ADD_IO_SEG(0x0001070000000740ull)
#define OCTEON_OCTEON_DID_TAG 12ULL
/*
* octeon_addr_t
*/
typedef union {
uint64_t word64;
struct {
octeon_mips_space_t R : 2;
uint64_t offset :62;
} sva; // mapped or unmapped virtual address
struct {
uint64_t zeroes :33;
uint64_t offset :31;
} suseg; // mapped USEG virtual addresses (typically)
struct {
uint64_t ones :33;
octeon_mips_xkseg_space_t sp : 2;
uint64_t offset :29;
} sxkseg; // mapped or unmapped virtual address
struct {
octeon_mips_space_t R :2; // CVMX_MIPS_SPACE_XKPHYS in this case
uint64_t cca : 3; // ignored by octeon
uint64_t mbz :10;
uint64_t pa :49; // physical address
} sxkphys; // physical address accessed through xkphys unmapped virtual address
struct {
uint64_t mbz :15;
uint64_t is_io : 1; // if set, the address is uncached and resides on MCB bus
uint64_t did : 8; // the hardware ignores this field when is_io==0, else device ID
uint64_t unaddr: 4; // the hardware ignores <39:36> in Octeon I
uint64_t offset :36;
} sphys; // physical address
struct {
uint64_t zeroes :24; // techically, <47:40> are dont-cares
uint64_t unaddr: 4; // the hardware ignores <39:36> in Octeon I
uint64_t offset :36;
} smem; // physical mem address
struct {
uint64_t mem_region :2;
uint64_t mbz :13;
uint64_t is_io : 1; // 1 in this case
uint64_t did : 8; // the hardware ignores this field when is_io==0, else device ID
uint64_t unaddr: 4; // the hardware ignores <39:36> in Octeon I
uint64_t offset :36;
} sio; // physical IO address
struct {
uint64_t didspace : 24;
uint64_t unused : 40;
} sfilldidspace;
} octeon_addr_t;
typedef union {
uint64_t word64;
struct {
uint32_t word32hi;
uint32_t word32lo;
} bits;
} octeon_word_t;
/*
* octeon_build_io_address
*
* Builds a memory address for I/O based on the Major 5bits and Sub DID 3bits
*/
static inline uint64_t octeon_build_io_address (uint64_t major_did,
uint64_t sub_did)
{
return ((0x1ull << 48) | (major_did << 43) | (sub_did << 40));
}
/*
* octeon_build_mask
*
* Builds a bit mask given the required size in bits.
*
* @param bits Number of bits in the mask
* @return The mask
*/
static inline uint64_t octeon_build_mask (uint64_t bits)
{
return ~((~0x0ull) << bits);
}
/*
* octeon_build_bits
*
* Perform mask and shift to place the supplied value into
* the supplied bit rage.
*
* Example: octeon_build_bits(39,24,value)
* <pre>
* 6 5 4 3 3 2 1
* 3 5 7 9 1 3 5 7 0
* +-------+-------+-------+-------+-------+-------+-------+------+
* 000000000000000000000000___________value000000000000000000000000
* </pre>
*
* @param high_bit Highest bit value can occupy (inclusive) 0-63
* @param low_bit Lowest bit value can occupy inclusive 0-high_bit
* @param value Value to use
* @return Value masked and shifted
*/
static inline uint64_t octeon_build_bits (uint64_t high_bit, uint64_t low_bit,
uint64_t value)
{
return ((value & octeon_build_mask(high_bit - low_bit + 1)) << low_bit);
}
/********************** simple spinlocks ***************/
typedef struct {
volatile uint32_t value;
} octeon_spinlock_t;
// note - macros not expanded in inline ASM, so values hardcoded
#define OCTEON_SPINLOCK_UNLOCKED_VAL 0
#define OCTEON_SPINLOCK_LOCKED_VAL 1
/**
* Initialize a spinlock
*
* @param lock Lock to initialize
*/
static inline void octeon_spinlock_init(octeon_spinlock_t *lock)
{
lock->value = OCTEON_SPINLOCK_UNLOCKED_VAL;
}
/**
* Releases lock
*
* @param lock pointer to lock structure
*/
static inline void octeon_spinlock_unlock(octeon_spinlock_t *lock)
{
OCTEON_SYNCWS;
lock->value = 0;
OCTEON_SYNCWS;
}
/**
* Gets lock, spins until lock is taken
*
* @param lock pointer to lock structure
*/
static inline void octeon_spinlock_lock(octeon_spinlock_t *lock)
{
unsigned int tmp;
__asm __volatile(
".set noreorder \n"
"1: ll %1, %0 \n"
" bnez %1, 1b \n"
" li %1, 1 \n"
" sc %1, %0 \n"
" beqz %1, 1b \n"
" nop \n"
".set reorder \n"
: "+m" (lock->value), "=&r" (tmp )
:
: "memory");
}
/********************** end simple spinlocks ***************/
/* ------------------------------------------------------------------- *
* octeon_get_chipid() *
* ------------------------------------------------------------------- */
#define OCTEON_CN31XX_CHIP 0x000d0100
#define OCTEON_CN30XX_CHIP 0x000d0200
#define OCTEON_CN3020_CHIP 0x000d0112
#define OCTEON_CN5020_CHIP 0x000d0601
static inline uint32_t octeon_get_chipid(void)
{
uint32_t id;
__asm __volatile ("mfc0 %0, $15,0" : "=r" (id));
return (id);
}
static inline uint32_t octeon_get_except_base_reg (void)
{
uint32_t tmp;
__asm volatile (
" .set mips64r2 \n"
" .set noreorder \n"
" mfc0 %0, $15, 1 \n"
" .set reorder \n"
: "=&r" (tmp) : );
return(tmp);
}
static inline unsigned int get_coremask (void)
{
return(~(oct_read64(OCTEON_CIU_PP_RST)) & 0xffff);
}
static inline uint32_t octeon_get_core_num (void)
{
return (0x3FF & octeon_get_except_base_reg());
}
static inline uint64_t octeon_get_cycle(void)
{
/* ABI == 32 */
uint32_t tmp_low, tmp_hi;
__asm __volatile (
" .set push \n"
" .set mips64r2 \n"
" .set noreorder \n"
" rdhwr %[tmpl], $31 \n"
" dadd %[tmph], %[tmpl], $0 \n"
" dsrl %[tmph], 32 \n"
" dsll %[tmpl], 32 \n"
" dsrl %[tmpl], 32 \n"
" .set pop \n"
: [tmpl] "=&r" (tmp_low), [tmph] "=&r" (tmp_hi) : );
return(((uint64_t)tmp_hi << 32) + tmp_low);
}
/**
* Wait for the specified number of cycle
*
* @param cycles
*/
static inline void octeon_wait (uint64_t cycles)
{
uint64_t done = octeon_get_cycle() + cycles;
while (octeon_get_cycle() < done)
{
/* Spin */
}
}
/*
* octeon_machdep.c
*
* Direct to Board Support level.
*/
extern void octeon_led_write_char(int char_position, char val);
extern void octeon_led_write_hexchar(int char_position, char hexval);
extern void octeon_led_write_hex(uint32_t wl);
extern void octeon_led_write_string(const char *str);
extern void octeon_reset(void);
extern void octeon_uart_write_byte(int uart_index, uint8_t ch);
extern void octeon_uart_write_string(int uart_index, const char *str);
extern void octeon_uart_write_hex(uint32_t wl);
extern void octeon_uart_write_hex2(uint32_t wl, uint32_t wh);
extern void octeon_wait_uart_flush(int uart_index, uint8_t ch);
extern void octeon_uart_write_byte0(uint8_t ch);
extern void octeon_led_write_char0(char val);
extern void octeon_led_run_wheel(int *pos, int led_position);
extern void octeon_debug_symbol(void);
extern void mips_disable_interrupt_controls(void);
extern uint32_t octeon_cpu_clock;
extern uint64_t octeon_dram;
extern uint32_t octeon_bd_ver, octeon_board_rev_major, octeon_board_rev_minor, octeon_board_type;
extern uint8_t octeon_mac_addr[6];
extern int octeon_core_mask, octeon_mac_addr_count, octeon_chip_rev_major, octeon_chip_rev_minor, octeon_chip_type;
extern void bzero_64(void *str, size_t len);
extern void bzero_32(void *str, size_t len);
extern void bzero_16(void *str, size_t len);
extern void bzero_old(void *str, size_t len);
extern void octeon_ciu_reset(void);
extern void ciu_disable_intr(int core_num, int intx, int enx);
extern void ciu_enable_interrupts (int core_num, int intx, int enx, uint64_t set_these_interrupt_bits, int ciu_ip);
extern void ciu_clear_int_summary(int core_num, int intx, int enx, uint64_t write_bits);
extern uint64_t ciu_get_int_summary(int core_num, int intx, int enx);
extern void octeon_ciu_start_gtimer(int timer, u_int one_shot, uint64_t time_cycles);
extern void octeon_ciu_stop_gtimer(int timer);
extern int octeon_board_real(void);
extern unsigned long octeon_get_clock_rate(void);
typedef union {
uint64_t word64;
struct {
uint64_t reserved : 27; /* Not used */
uint64_t one_shot : 1; /* Oneshot ? */
uint64_t len : 36; /* len of timer in clock cycles - 1 */
} bits;
} octeon_ciu_gentimer;
#endif /* LOCORE */
/*
* R4K Address space definitions
*/
#define ADRSPC_K0BASE (0x80000000)
#define ADRSPC_K0SIZE (0x20000000)
#define ADRSPC_K1BASE (0xA0000000)
#define ADRSPC_K1SIZE (0x20000000)
#define ADRSPC_KSBASE (0xC0000000)
#define ADRSPC_KSSIZE (0x20000000)
#define ADRSPC_K3BASE (0xE0000000)
#define ADRSPC_K3SIZE (0x20000000)
#define ADRSPC_KUBASE (0x00000000)
#define ADRSPC_KUSIZE (0x80000000)
#define KSEG_MSB_ADDR 0xFFFFFFFF
#define OCTEON_CLOCK_DEFAULT (500 * 1000 * 1000)
/*
* Octeon Boot Bus BIST Status
* Mostly used for dummy read to ensure all prev I/Os are write-complete.
*/
#define OCTEON_MIO_BOOT_BIST_STAT 0x80011800000000F8ull
/*
* Octeon UART unit
*/
#define OCTEON_MIO_UART0 0x8001180000000800ull
#define OCTEON_MIO_UART1 0x8001180000000C00ull
#define OCTEON_MIO_UART0_THR 0x8001180000000840ull
#define OCTEON_MIO_UART1_THR 0x8001180000000C40ull
#define OCTEON_MIO_UART0_LSR 0x8001180000000828ull
#define OCTEON_MIO_UART1_LSR 0x8001180000000C28ull
#define OCTEON_MIO_UART0_RBR 0x8001180000000800ull
#define OCTEON_MIO_UART1_RBR 0x8001180000000C00ull
#define OCTEON_MIO_UART0_USR 0x8001180000000938ull
#define OCTEON_MIO_UART1_USR 0x8001180000000D38ull
#define OCTEON_MIO_ADDR_HI24 0x800118
#define OCTEON_MIO_UART_SIZE 0x400ull
/*
* EBT3000 LED Unit
*/
#define OCTEON_CHAR_LED_BASE_ADDR (0x1d020000 | (0x1ffffffffull << 31))
#define OCTEON_FPA_QUEUES 8
/*
* Octeon FPA I/O Registers
*/
#define OCTEON_FPA_CTL_STATUS 0x8001180028000050ull
#define OCTEON_FPA_FPF_SIZE 0x8001180028000058ull
#define OCTEON_FPA_FPF_MARKS 0x8001180028000000ull
#define OCTEON_FPA_INT_SUMMARY 0x8001180028000040ull
#define OCTEON_FPA_INT_ENABLE 0x8001180028000048ull
#define OCTEON_FPA_QUEUE_AVAILABLE 0x8001180028000098ull
#define OCTEON_FPA_PAGE_INDEX 0x80011800280000f0ull
/*
* Octeon PKO Unit
*/
#define OCTEON_PKO_REG_FLAGS 0x8001180050000000ull
#define OCTEON_PKO_REG_READ_IDX 0x8001180050000008ull
#define OCTEON_PKO_CMD_BUF 0x8001180050000010ull
#define OCTEON_PKO_GMX_PORT_MODE 0x8001180050000018ull
#define OCTEON_PKO_REG_CRC_ENABLE 0x8001180050000020ull
#define OCTEON_PKO_QUEUE_MODE 0x8001180050000048ull
#define OCTEON_PKO_MEM_QUEUE_PTRS 0x8001180050001000ull
#define OCTEON_PKO_MEM_COUNT0 0x8001180050001080ull
#define OCTEON_PKO_MEM_COUNT1 0x8001180050001088ull
#define OCTEON_PKO_MEM_DEBUG0 0x8001180050001100ull
#define OCTEON_PKO_MEM_DEBUG1 0x8001180050001108ull
#define OCTEON_PKO_MEM_DEBUG2 0x8001180050001110ull
#define OCTEON_PKO_MEM_DEBUG3 0x8001180050001118ull
#define OCTEON_PKO_MEM_DEBUG4 0x8001180050001120ull
#define OCTEON_PKO_MEM_DEBUG5 0x8001180050001128ull
#define OCTEON_PKO_MEM_DEBUG6 0x8001180050001130ull
#define OCTEON_PKO_MEM_DEBUG7 0x8001180050001138ull
#define OCTEON_PKO_MEM_DEBUG8 0x8001180050001140ull
#define OCTEON_PKO_MEM_DEBUG9 0x8001180050001148ull
/*
* Octeon IPD Unit
*/
#define OCTEON_IPD_1ST_MBUFF_SKIP 0x80014F0000000000ull
#define OCTEON_IPD_NOT_1ST_MBUFF_SKIP 0x80014F0000000008ull
#define OCTEON_IPD_PACKET_MBUFF_SIZE 0x80014F0000000010ull
#define OCTEON_IPD_1ST_NEXT_PTR_BACK 0x80014F0000000150ull
#define OCTEON_IPD_2ND_NEXT_PTR_BACK 0x80014F0000000158ull
#define OCTEON_IPD_WQE_FPA_QUEUE 0x80014F0000000020ull
#define OCTEON_IPD_CTL_STATUS 0x80014F0000000018ull
#define OCTEON_IPD_QOSX_RED_MARKS(queue) (0x80014F0000000178ull + ((queue) * 8))
#define OCTEON_IPD_RED_Q_PARAM(queue) (0x80014F00000002E0ull + ((queue) * 8))
#define OCTEON_IPD_PORT_BP_PAGE_COUNT(port) (0x80014F0000000028ull + ((port) * 8))
#define OCTEON_IPD_BP_PORT_RED_END 0x80014F0000000328ull
#define OCTEON_IPD_RED_PORT_ENABLE 0x80014F00000002D8ull
/*
* Octeon CIU Unit
*/
#define OCTEON_CIU_ENABLE_BASE_ADDR 0x8001070000000200ull
#define OCTEON_CIU_SUMMARY_BASE_ADDR 0x8001070000000000ull
#define OCTEON_CIU_SUMMARY_INT1_ADDR 0x8001070000000108ull
#define OCTEON_CIU_MBOX_SETX(offset) (0x8001070000000600ull+((offset)*8))
#define OCTEON_CIU_MBOX_CLRX(offset) (0x8001070000000680ull+((offset)*8))
#define OCTEON_CIU_ENABLE_MBOX_INTR 0x0000000300000000ull /* bits 32, 33 */
#define CIU_MIPS_IP2 0
#define CIU_MIPS_IP3 1
#define CIU_INT_0 CIU_MIPS_IP2
#define CIU_INT_1 CIU_MIPS_IP3
#define CIU_EN_0 0
#define CIU_EN_1 1
#define CIU_THIS_CORE -1
#define CIU_UART_BITS_UART0 (0x1ull << 34) // Bit 34
#define CIU_UART_BITS_UART1 (0x1ull << 35) // Bit 35
#define CIU_GENTIMER_BITS_ENABLE(timer) (0x1ull << (52 + (timer))) // Bit 52..55
#define CIU_GENTIMER_NUM_0 0
#define CIU_GENTIMER_NUM_1 1
#define CIU_GENTIMER_NUM_2 2
#define CIU_GENTIMER_NUM_3 3
#define OCTEON_GENTIMER_ONESHOT 1
#define OCTEON_GENTIMER_PERIODIC 0
#define OCTEON_CIU_GENTIMER_ADDR(timer) (0x8001070000000480ull + ((timer) * 0x8))
#define OCTEON_GENTIMER_LEN_1MS (0x7a120ull) /* Back of envelope. 500Mhz Octeon */ // FIXME IF WRONG
#define OCTEON_GENTIMER_LEN_1SEC ((OCTEON_GENTIMER_LEN_1MS) * 1000)
/*
* Physical Memory Banks
*/
/* 1st BANK */
#define OCTEON_DRAM_FIRST_256_START 0x00000000ull
#define OCTEON_DRAM_FIRST_256_END (0x10000000ull - 1ull)
#define OCTEON_DRAM_RESERVED_END 0X1FFF000ULL /* 32 Meg Reserved for Mips Kernel MD Ops */
#define OCTEON_DRAM_FIRST_BANK_SIZE (OCTEON_DRAM_FIRST_256_END - OCTEON_DRAM_FIRST_256_START + 1)
/* 2nd BANK */
#define OCTEON_DRAM_SECOND_256_START (0x0000000410000000ull)
#define OCTEON_DRAM_SECOND_256_END (0x0000000420000000ull - 1ull) /* Requires 64 bit paddr */
#define OCTEON_DRAM_SECOND_BANK_SIZE (OCTEON_DRAM_SECOND_256_END - OCTEON_DRAM_SECOND_256_START + 1ull)
/* 3rd BANK */
#define OCTEON_DRAM_ABOVE_512_START 0x20000000ull
#define OCTEON_DRAM_ABOVE_512_END (0x0000000300000000ull - 1ull) /* To be calculated as remaining */
#define OCTEON_DRAM_THIRD_BANK_SIZE (OCTEON_DRAM_ABOVE_512_END - OCTEON_DRAM_ABOVE_512_START + 1ull)
#endif /* !OCTEON_PCMAP_REGS_H__ */
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