return ath79_sys_type;
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
return CP0_LEGACY_COMPARE_IRQ;
}
static bool octeon_irq_use_ip4;
-static void __cpuinit octeon_irq_local_enable_ip4(void *arg)
+static void octeon_irq_local_enable_ip4(void *arg)
{
set_c0_status(STATUSF_IP4);
}
static void (*octeon_irq_ip3)(void);
static void (*octeon_irq_ip4)(void);
-void __cpuinitdata (*octeon_irq_setup_secondary)(void);
+void (*octeon_irq_setup_secondary)(void);
-void __cpuinit octeon_irq_set_ip4_handler(octeon_irq_ip4_handler_t h)
+void octeon_irq_set_ip4_handler(octeon_irq_ip4_handler_t h)
{
octeon_irq_ip4 = h;
octeon_irq_use_ip4 = true;
on_each_cpu(octeon_irq_local_enable_ip4, NULL, 1);
}
-static void __cpuinit octeon_irq_percpu_enable(void)
+static void octeon_irq_percpu_enable(void)
{
irq_cpu_online();
}
-static void __cpuinit octeon_irq_init_ciu_percpu(void)
+static void octeon_irq_init_ciu_percpu(void)
{
int coreid = cvmx_get_core_num();
cvmx_read_csr(CVMX_CIU2_SUM_PPX_IP2(coreid));
}
-static void __cpuinit octeon_irq_setup_secondary_ciu(void)
+static void octeon_irq_setup_secondary_ciu(void)
{
octeon_irq_init_ciu_percpu();
octeon_irq_percpu_enable();
* After we've done initial boot, this function is called to allow the
* board code to clean up state, if needed
*/
-static void __cpuinit octeon_init_secondary(void)
+static void octeon_init_secondary(void)
{
unsigned int sr;
return 0;
}
-static int __cpuinit octeon_cpu_callback(struct notifier_block *nfb,
+static int octeon_cpu_callback(struct notifier_block *nfb,
unsigned long action, void *hcpu)
{
unsigned int cpu = (unsigned long)hcpu;
return NOTIFY_OK;
}
-static int __cpuinit register_cavium_notifier(void)
+static int register_cavium_notifier(void)
{
hotcpu_notifier(octeon_cpu_callback, 0);
return 0;
#ifdef CONFIG_EXPORT_UASM
#include <linux/export.h>
-#define __uasminit
-#define __uasminitdata
#define UASM_EXPORT_SYMBOL(sym) EXPORT_SYMBOL(sym)
#else
-#define __uasminit __cpuinit
-#define __uasminitdata __cpuinitdata
#define UASM_EXPORT_SYMBOL(sym)
#endif
#endif
#define Ip_u1u2u3(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
#define Ip_u2u1u3(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
#define Ip_u3u1u2(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c)
#define Ip_u1u2s3(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, signed int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, signed int c)
#define Ip_u2s3u1(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, signed int b, unsigned int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, signed int b, unsigned int c)
#define Ip_u2u1s3(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, signed int c)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, signed int c)
#define Ip_u2u1msbu3(op) \
-void __uasminit \
-ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c, \
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b, unsigned int c, \
unsigned int d)
#define Ip_u1u2(op) \
-void __uasminit ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b)
+void ISAOPC(op)(u32 **buf, unsigned int a, unsigned int b)
#define Ip_u1s2(op) \
-void __uasminit ISAOPC(op)(u32 **buf, unsigned int a, signed int b)
+void ISAOPC(op)(u32 **buf, unsigned int a, signed int b)
-#define Ip_u1(op) void __uasminit ISAOPC(op)(u32 **buf, unsigned int a)
+#define Ip_u1(op) void ISAOPC(op)(u32 **buf, unsigned int a)
-#define Ip_0(op) void __uasminit ISAOPC(op)(u32 **buf)
+#define Ip_0(op) void ISAOPC(op)(u32 **buf)
Ip_u2u1s3(_addiu);
Ip_u3u1u2(_addu);
int lab;
};
-void __uasminit ISAFUNC(uasm_build_label)(struct uasm_label **lab, u32 *addr,
+void ISAFUNC(uasm_build_label)(struct uasm_label **lab, u32 *addr,
int lid);
#ifdef CONFIG_64BIT
int ISAFUNC(uasm_in_compat_space_p)(long addr);
void ISAFUNC(UASM_i_LA)(u32 **buf, unsigned int rs, long addr);
#define UASM_L_LA(lb) \
-static inline void __uasminit ISAFUNC(uasm_l##lb)(struct uasm_label **lab, u32 *addr) \
+static inline void ISAFUNC(uasm_l##lb)(struct uasm_label **lab, u32 *addr) \
{ \
ISAFUNC(uasm_build_label)(lab, addr, label##lb); \
}
.set mips0
.endm
- __CPUINIT
-
/***********************************************************************
* Alternate CPU1 startup vector for BMIPS4350
*
* Certain CPUs support extending kseg0 to 1024MB.
***********************************************************************/
- __CPUINIT
-
LEAF(bmips_enable_xks01)
#if defined(CONFIG_XKS01)
static DEFINE_PER_CPU(struct irqaction, sibyte_hpt_irqaction);
static DEFINE_PER_CPU(char [18], sibyte_hpt_name);
-void __cpuinit sb1480_clockevent_init(void)
+void sb1480_clockevent_init(void)
{
unsigned int cpu = smp_processor_id();
unsigned int irq = K_BCM1480_INT_TIMER_0 + cpu;
{
}
-int __cpuinit gic_clockevent_init(void)
+int gic_clockevent_init(void)
{
unsigned int cpu = smp_processor_id();
struct clock_event_device *cd;
}
#ifndef CONFIG_MIPS_MT_SMTC
-int __cpuinit r4k_clockevent_init(void)
+int r4k_clockevent_init(void)
{
unsigned int cpu = smp_processor_id();
struct clock_event_device *cd;
static DEFINE_PER_CPU(struct irqaction, sibyte_hpt_irqaction);
static DEFINE_PER_CPU(char [18], sibyte_hpt_name);
-void __cpuinit sb1250_clockevent_init(void)
+void sb1250_clockevent_init(void)
{
unsigned int cpu = smp_processor_id();
unsigned int irq = K_INT_TIMER_0 + cpu;
}
-int __cpuinit smtc_clockevent_init(void)
+int smtc_clockevent_init(void)
{
uint64_t mips_freq = mips_hpt_frequency;
unsigned int cpu = smp_processor_id();
panic(bug64hit, !R4000_WAR ? r4kwar : nowar);
}
-static volatile int daddi_ov __cpuinitdata;
+static volatile int daddi_ov;
asmlinkage void __init do_daddi_ov(struct pt_regs *regs)
{
#include <asm/spram.h>
#include <asm/uaccess.h>
-static int __cpuinitdata mips_fpu_disabled;
+static int mips_fpu_disabled;
static int __init fpu_disable(char *s)
{
__setup("nofpu", fpu_disable);
-int __cpuinitdata mips_dsp_disabled;
+int mips_dsp_disabled;
static int __init dsp_disable(char *s)
{
#endif
}
-static void __cpuinit set_isa(struct cpuinfo_mips *c, unsigned int isa)
+static void set_isa(struct cpuinfo_mips *c, unsigned int isa)
{
switch (isa) {
case MIPS_CPU_ISA_M64R2:
}
}
-static char unknown_isa[] __cpuinitdata = KERN_ERR \
+static char unknown_isa[] = KERN_ERR \
"Unsupported ISA type, c0.config0: %d.";
static inline unsigned int decode_config0(struct cpuinfo_mips *c)
return config4 & MIPS_CONF_M;
}
-static void __cpuinit decode_configs(struct cpuinfo_mips *c)
+static void decode_configs(struct cpuinfo_mips *c)
{
int ok;
const char *__cpu_name[NR_CPUS];
const char *__elf_platform;
-__cpuinit void cpu_probe(void)
+void cpu_probe(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
unsigned int cpu = smp_processor_id();
#endif
}
-__cpuinit void cpu_report(void)
+void cpu_report(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
j start_kernel
END(kernel_entry)
- __CPUINIT
-
#ifdef CONFIG_SMP
/*
* SMP slave cpus entry point. Board specific code for bootstrap calls this
j start_secondary
END(smp_bootstrap)
#endif /* CONFIG_SMP */
-
- __FINIT
* UP BMIPS systems as well.
***********************************************************************/
-static void __cpuinit bmips_wr_vec(unsigned long dst, char *start, char *end)
+static void bmips_wr_vec(unsigned long dst, char *start, char *end)
{
memcpy((void *)dst, start, end - start);
dma_cache_wback((unsigned long)start, end - start);
instruction_hazard();
}
-static inline void __cpuinit bmips_nmi_handler_setup(void)
+static inline void bmips_nmi_handler_setup(void)
{
bmips_wr_vec(BMIPS_NMI_RESET_VEC, &bmips_reset_nmi_vec,
&bmips_reset_nmi_vec_end);
&bmips_smp_int_vec_end);
}
-void __cpuinit bmips_ebase_setup(void)
+void bmips_ebase_setup(void)
{
unsigned long new_ebase = ebase;
void __iomem __maybe_unused *cbr;
vsmp_send_ipi_single(i, action);
}
-static void __cpuinit vsmp_init_secondary(void)
+static void vsmp_init_secondary(void)
{
#ifdef CONFIG_IRQ_GIC
/* This is Malta specific: IPI,performance and timer interrupts */
STATUSF_IP6 | STATUSF_IP7);
}
-static void __cpuinit vsmp_smp_finish(void)
+static void vsmp_smp_finish(void)
{
/* CDFIXME: remove this? */
write_c0_compare(read_c0_count() + (8* mips_hpt_frequency/HZ));
* (unsigned long)idle->thread_info the gp
* assumes a 1:1 mapping of TC => VPE
*/
-static void __cpuinit vsmp_boot_secondary(int cpu, struct task_struct *idle)
+static void vsmp_boot_secondary(int cpu, struct task_struct *idle)
{
struct thread_info *gp = task_thread_info(idle);
dvpe();
* After we've done initial boot, this function is called to allow the
* board code to clean up state, if needed
*/
-static void __cpuinit up_init_secondary(void)
+static void up_init_secondary(void)
{
}
-static void __cpuinit up_smp_finish(void)
+static void up_smp_finish(void)
{
}
/*
* Firmware CPU startup hook
*/
-static void __cpuinit up_boot_secondary(int cpu, struct task_struct *idle)
+static void up_boot_secondary(int cpu, struct task_struct *idle)
{
}
struct plat_smp_ops *mp_ops;
EXPORT_SYMBOL(mp_ops);
-__cpuinit void register_smp_ops(struct plat_smp_ops *ops)
+void register_smp_ops(struct plat_smp_ops *ops)
{
if (mp_ops)
printk(KERN_WARNING "Overriding previously set SMP ops\n");
* First C code run on the secondary CPUs after being started up by
* the master.
*/
-asmlinkage __cpuinit void start_secondary(void)
+asmlinkage void start_secondary(void)
{
unsigned int cpu;
cpu_set(0, cpu_callin_map);
}
-int __cpuinit __cpu_up(unsigned int cpu, struct task_struct *tidle)
+int __cpu_up(unsigned int cpu, struct task_struct *tidle)
{
mp_ops->boot_secondary(cpu, tidle);
* (unsigned long)idle->thread_info the gp
*
*/
-void __cpuinit smtc_boot_secondary(int cpu, struct task_struct *idle)
+void smtc_boot_secondary(int cpu, struct task_struct *idle)
{
extern u32 kernelsp[NR_CPUS];
unsigned long flags;
/*
* Different semantics to the set_c0_* function built by __BUILD_SET_C0
*/
-static __cpuinit unsigned int bis_c0_errctl(unsigned int set)
+static unsigned int bis_c0_errctl(unsigned int set)
{
unsigned int res;
res = read_c0_errctl();
return res;
}
-static __cpuinit void ispram_store_tag(unsigned int offset, unsigned int data)
+static void ispram_store_tag(unsigned int offset, unsigned int data)
{
unsigned int errctl;
}
-static __cpuinit unsigned int ispram_load_tag(unsigned int offset)
+static unsigned int ispram_load_tag(unsigned int offset)
{
unsigned int data;
unsigned int errctl;
return data;
}
-static __cpuinit void dspram_store_tag(unsigned int offset, unsigned int data)
+static void dspram_store_tag(unsigned int offset, unsigned int data)
{
unsigned int errctl;
}
-static __cpuinit unsigned int dspram_load_tag(unsigned int offset)
+static unsigned int dspram_load_tag(unsigned int offset)
{
unsigned int data;
unsigned int errctl;
return data;
}
-static __cpuinit void probe_spram(char *type,
+static void probe_spram(char *type,
unsigned int base,
unsigned int (*read)(unsigned int),
void (*write)(unsigned int, unsigned int))
offset += 2 * SPRAM_TAG_STRIDE;
}
}
-void __cpuinit spram_config(void)
+void spram_config(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
unsigned int config0;
#include <asm/barrier.h>
#include <asm/mipsregs.h>
-static atomic_t __cpuinitdata count_start_flag = ATOMIC_INIT(0);
-static atomic_t __cpuinitdata count_count_start = ATOMIC_INIT(0);
-static atomic_t __cpuinitdata count_count_stop = ATOMIC_INIT(0);
-static atomic_t __cpuinitdata count_reference = ATOMIC_INIT(0);
+static atomic_t count_start_flag = ATOMIC_INIT(0);
+static atomic_t count_count_start = ATOMIC_INIT(0);
+static atomic_t count_count_stop = ATOMIC_INIT(0);
+static atomic_t count_reference = ATOMIC_INIT(0);
#define COUNTON 100
#define NR_LOOPS 5
-void __cpuinit synchronise_count_master(int cpu)
+void synchronise_count_master(int cpu)
{
int i;
unsigned long flags;
printk("done.\n");
}
-void __cpuinit synchronise_count_slave(int cpu)
+void synchronise_count_slave(int cpu)
{
int i;
unsigned int initcount;
void (*board_ejtag_handler_setup)(void);
void (*board_bind_eic_interrupt)(int irq, int regset);
void (*board_ebase_setup)(void);
-void __cpuinitdata(*board_cache_error_setup)(void);
+void(*board_cache_error_setup)(void);
static void show_raw_backtrace(unsigned long reg29)
{
int cp0_perfcount_irq;
EXPORT_SYMBOL_GPL(cp0_perfcount_irq);
-static int __cpuinitdata noulri;
+static int noulri;
static int __init ulri_disable(char *s)
{
}
__setup("noulri", ulri_disable);
-void __cpuinit per_cpu_trap_init(bool is_boot_cpu)
+void per_cpu_trap_init(bool is_boot_cpu)
{
unsigned int cpu = smp_processor_id();
unsigned int status_set = ST0_CU0;
}
/* Install CPU exception handler */
-void __cpuinit set_handler(unsigned long offset, void *addr, unsigned long size)
+void set_handler(unsigned long offset, void *addr, unsigned long size)
{
#ifdef CONFIG_CPU_MICROMIPS
memcpy((void *)(ebase + offset), ((unsigned char *)addr - 1), size);
local_flush_icache_range(ebase + offset, ebase + offset + size);
}
-static char panic_null_cerr[] __cpuinitdata =
+static char panic_null_cerr[] =
"Trying to set NULL cache error exception handler";
/*
* This is suitable only for the cache error exception which is the only
* exception handler that is being run uncached.
*/
-void __cpuinit set_uncached_handler(unsigned long offset, void *addr,
+void set_uncached_handler(unsigned long offset, void *addr,
unsigned long size)
{
unsigned long uncached_ebase = CKSEG1ADDR(ebase);
}
}
-__cpuinit void mips_probe_watch_registers(struct cpuinfo_mips *c)
+void mips_probe_watch_registers(struct cpuinfo_mips *c)
{
unsigned int t;
return 0;
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
return MIPS_CPU_TIMER_IRQ;
}
* values, so we can avoid sharing the same stack area between a cached
* and the uncached mode.
*/
-unsigned long __cpuinit run_uncached(void *func)
+unsigned long run_uncached(void *func)
{
register long sp __asm__("$sp");
register long ret __asm__("$2");
* Probe Octeon's caches
*
*/
-static void __cpuinit probe_octeon(void)
+static void probe_octeon(void)
{
unsigned long icache_size;
unsigned long dcache_size;
}
}
-static void __cpuinit octeon_cache_error_setup(void)
+static void octeon_cache_error_setup(void)
{
extern char except_vec2_octeon;
set_handler(0x100, &except_vec2_octeon, 0x80);
* Setup the Octeon cache flush routines
*
*/
-void __cpuinit octeon_cache_init(void)
+void octeon_cache_init(void)
{
probe_octeon();
static unsigned long icache_size, dcache_size; /* Size in bytes */
static unsigned long icache_lsize, dcache_lsize; /* Size in bytes */
-unsigned long __cpuinit r3k_cache_size(unsigned long ca_flags)
+unsigned long r3k_cache_size(unsigned long ca_flags)
{
unsigned long flags, status, dummy, size;
volatile unsigned long *p;
return size * sizeof(*p);
}
-unsigned long __cpuinit r3k_cache_lsize(unsigned long ca_flags)
+unsigned long r3k_cache_lsize(unsigned long ca_flags)
{
unsigned long flags, status, lsize, i;
volatile unsigned long *p;
return lsize * sizeof(*p);
}
-static void __cpuinit r3k_probe_cache(void)
+static void r3k_probe_cache(void)
{
dcache_size = r3k_cache_size(ST0_ISC);
if (dcache_size)
r3k_flush_dcache_range(start, start + size);
}
-void __cpuinit r3k_cache_init(void)
+void r3k_cache_init(void)
{
extern void build_clear_page(void);
extern void build_copy_page(void);
blast_dcache64_page(addr);
}
-static void __cpuinit r4k_blast_dcache_page_setup(void)
+static void r4k_blast_dcache_page_setup(void)
{
unsigned long dc_lsize = cpu_dcache_line_size();
static void (* r4k_blast_dcache_page_indexed)(unsigned long addr);
-static void __cpuinit r4k_blast_dcache_page_indexed_setup(void)
+static void r4k_blast_dcache_page_indexed_setup(void)
{
unsigned long dc_lsize = cpu_dcache_line_size();
void (* r4k_blast_dcache)(void);
EXPORT_SYMBOL(r4k_blast_dcache);
-static void __cpuinit r4k_blast_dcache_setup(void)
+static void r4k_blast_dcache_setup(void)
{
unsigned long dc_lsize = cpu_dcache_line_size();
static void (* r4k_blast_icache_page)(unsigned long addr);
-static void __cpuinit r4k_blast_icache_page_setup(void)
+static void r4k_blast_icache_page_setup(void)
{
unsigned long ic_lsize = cpu_icache_line_size();
static void (* r4k_blast_icache_page_indexed)(unsigned long addr);
-static void __cpuinit r4k_blast_icache_page_indexed_setup(void)
+static void r4k_blast_icache_page_indexed_setup(void)
{
unsigned long ic_lsize = cpu_icache_line_size();
void (* r4k_blast_icache)(void);
EXPORT_SYMBOL(r4k_blast_icache);
-static void __cpuinit r4k_blast_icache_setup(void)
+static void r4k_blast_icache_setup(void)
{
unsigned long ic_lsize = cpu_icache_line_size();
static void (* r4k_blast_scache_page)(unsigned long addr);
-static void __cpuinit r4k_blast_scache_page_setup(void)
+static void r4k_blast_scache_page_setup(void)
{
unsigned long sc_lsize = cpu_scache_line_size();
static void (* r4k_blast_scache_page_indexed)(unsigned long addr);
-static void __cpuinit r4k_blast_scache_page_indexed_setup(void)
+static void r4k_blast_scache_page_indexed_setup(void)
{
unsigned long sc_lsize = cpu_scache_line_size();
static void (* r4k_blast_scache)(void);
-static void __cpuinit r4k_blast_scache_setup(void)
+static void r4k_blast_scache_setup(void)
{
unsigned long sc_lsize = cpu_scache_line_size();
}
}
-static char *way_string[] __cpuinitdata = { NULL, "direct mapped", "2-way",
+static char *way_string[] = { NULL, "direct mapped", "2-way",
"3-way", "4-way", "5-way", "6-way", "7-way", "8-way"
};
-static void __cpuinit probe_pcache(void)
+static void probe_pcache(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
unsigned int config = read_c0_config();
* executes in KSEG1 space or else you will crash and burn badly. You have
* been warned.
*/
-static int __cpuinit probe_scache(void)
+static int probe_scache(void)
{
unsigned long flags, addr, begin, end, pow2;
unsigned int config = read_c0_config();
extern int rm7k_sc_init(void);
extern int mips_sc_init(void);
-static void __cpuinit setup_scache(void)
+static void setup_scache(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
unsigned int config = read_c0_config();
NXP_BARRIER();
}
-static int __cpuinitdata cca = -1;
+static int cca = -1;
static int __init cca_setup(char *str)
{
early_param("cca", cca_setup);
-static void __cpuinit coherency_setup(void)
+static void coherency_setup(void)
{
if (cca < 0 || cca > 7)
cca = read_c0_config() & CONF_CM_CMASK;
}
}
-static void __cpuinit r4k_cache_error_setup(void)
+static void r4k_cache_error_setup(void)
{
extern char __weak except_vec2_generic;
extern char __weak except_vec2_sb1;
}
}
-void __cpuinit r4k_cache_init(void)
+void r4k_cache_init(void)
{
extern void build_clear_page(void);
extern void build_copy_page(void);
}
}
-void __cpuinit tx39_cache_init(void)
+void tx39_cache_init(void)
{
extern void build_clear_page(void);
extern void build_copy_page(void);
}
}
-void __cpuinit cpu_cache_init(void)
+void cpu_cache_init(void)
{
if (cpu_has_3k_cache) {
extern void __weak r3k_cache_init(void);
* (0x170-0x17f) are used to preserve k0, k1, and ra.
*/
- __CPUINIT
-
LEAF(except_vec2_sb1)
/*
* If this error is recoverable, we need to exit the handler
END(except_vec2_sb1)
- __FINIT
-
LEAF(handle_vec2_sb1)
mfc0 k0,CP0_CONFIG
li k1,~CONF_CM_CMASK
UASM_L_LA(_copy_pref_store)
/* We need one branch and therefore one relocation per target label. */
-static struct uasm_label __cpuinitdata labels[5];
-static struct uasm_reloc __cpuinitdata relocs[5];
+static struct uasm_label labels[5];
+static struct uasm_reloc relocs[5];
#define cpu_is_r4600_v1_x() ((read_c0_prid() & 0xfffffff0) == 0x00002010)
#define cpu_is_r4600_v2_x() ((read_c0_prid() & 0xfffffff0) == 0x00002020)
-static int pref_bias_clear_store __cpuinitdata;
-static int pref_bias_copy_load __cpuinitdata;
-static int pref_bias_copy_store __cpuinitdata;
+static int pref_bias_clear_store;
+static int pref_bias_copy_load;
+static int pref_bias_copy_store;
-static u32 pref_src_mode __cpuinitdata;
-static u32 pref_dst_mode __cpuinitdata;
+static u32 pref_src_mode;
+static u32 pref_dst_mode;
-static int clear_word_size __cpuinitdata;
-static int copy_word_size __cpuinitdata;
+static int clear_word_size;
+static int copy_word_size;
-static int half_clear_loop_size __cpuinitdata;
-static int half_copy_loop_size __cpuinitdata;
+static int half_clear_loop_size;
+static int half_copy_loop_size;
-static int cache_line_size __cpuinitdata;
+static int cache_line_size;
#define cache_line_mask() (cache_line_size - 1)
-static inline void __cpuinit
+static inline void
pg_addiu(u32 **buf, unsigned int reg1, unsigned int reg2, unsigned int off)
{
if (cpu_has_64bit_gp_regs && DADDI_WAR && r4k_daddiu_bug()) {
}
}
-static void __cpuinit set_prefetch_parameters(void)
+static void set_prefetch_parameters(void)
{
if (cpu_has_64bit_gp_regs || cpu_has_64bit_zero_reg)
clear_word_size = 8;
4 * copy_word_size));
}
-static void __cpuinit build_clear_store(u32 **buf, int off)
+static void build_clear_store(u32 **buf, int off)
{
if (cpu_has_64bit_gp_regs || cpu_has_64bit_zero_reg) {
uasm_i_sd(buf, ZERO, off, A0);
}
}
-static inline void __cpuinit build_clear_pref(u32 **buf, int off)
+static inline void build_clear_pref(u32 **buf, int off)
{
if (off & cache_line_mask())
return;
extern u32 __copy_page_start;
extern u32 __copy_page_end;
-void __cpuinit build_clear_page(void)
+void build_clear_page(void)
{
int off;
u32 *buf = &__clear_page_start;
pr_debug("\t.set pop\n");
}
-static void __cpuinit build_copy_load(u32 **buf, int reg, int off)
+static void build_copy_load(u32 **buf, int reg, int off)
{
if (cpu_has_64bit_gp_regs) {
uasm_i_ld(buf, reg, off, A1);
}
}
-static void __cpuinit build_copy_store(u32 **buf, int reg, int off)
+static void build_copy_store(u32 **buf, int reg, int off)
{
if (cpu_has_64bit_gp_regs) {
uasm_i_sd(buf, reg, off, A0);
}
}
-void __cpuinit build_copy_page(void)
+void build_copy_page(void)
{
int off;
u32 *buf = &__copy_page_start;
.bc_inv = indy_sc_wback_invalidate
};
-void __cpuinit indy_sc_init(void)
+void indy_sc_init(void)
{
if (indy_sc_probe()) {
indy_sc_enable();
return 1;
}
-int __cpuinit mips_sc_init(void)
+int mips_sc_init(void)
{
int found = mips_sc_probe();
if (found) {
.bc_inv = r5k_dma_cache_inv_sc
};
-void __cpuinit r5k_sc_init(void)
+void r5k_sc_init(void)
{
if (r5k_sc_probe()) {
r5k_sc_enable();
/*
* This function is executed in uncached address space.
*/
-static __cpuinit void __rm7k_tc_enable(void)
+static void __rm7k_tc_enable(void)
{
int i;
cache_op(Index_Store_Tag_T, CKSEG0ADDR(i));
}
-static __cpuinit void rm7k_tc_enable(void)
+static void rm7k_tc_enable(void)
{
if (read_c0_config() & RM7K_CONF_TE)
return;
/*
* This function is executed in uncached address space.
*/
-static __cpuinit void __rm7k_sc_enable(void)
+static void __rm7k_sc_enable(void)
{
int i;
cache_op(Index_Store_Tag_SD, CKSEG0ADDR(i));
}
-static __cpuinit void rm7k_sc_enable(void)
+static void rm7k_sc_enable(void)
{
if (read_c0_config() & RM7K_CONF_SE)
return;
* This is a probing function like the one found in c-r4k.c, we look for the
* wrap around point with different addresses.
*/
-static __cpuinit void __probe_tcache(void)
+static void __probe_tcache(void)
{
unsigned long flags, addr, begin, end, pow2;
local_irq_restore(flags);
}
-void __cpuinit rm7k_sc_init(void)
+void rm7k_sc_init(void)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
unsigned int config = read_c0_config();
}
}
-void __cpuinit tlb_init(void)
+void tlb_init(void)
{
local_flush_tlb_all();
#endif /* CONFIG_TRANSPARENT_HUGEPAGE */
-static int __cpuinitdata ntlb;
+static int ntlb;
static int __init set_ntlb(char *str)
{
get_option(&str, &ntlb);
__setup("ntlb=", set_ntlb);
-void __cpuinit tlb_init(void)
+void tlb_init(void)
{
/*
* You should never change this register:
local_irq_restore(flags);
}
-static void __cpuinit probe_tlb(unsigned long config)
+static void probe_tlb(unsigned long config)
{
struct cpuinfo_mips *c = ¤t_cpu_data;
c->tlbsize = 3 * 128; /* 3 sets each 128 entries */
}
-void __cpuinit tlb_init(void)
+void tlb_init(void)
{
unsigned int config = read_c0_config();
unsigned long status;
* why; it's not an issue caused by the core RTL.
*
*/
-static int __cpuinit m4kc_tlbp_war(void)
+static int m4kc_tlbp_war(void)
{
return (current_cpu_data.processor_id & 0xffff00) ==
(PRID_COMP_MIPS | PRID_IMP_4KC);
UASM_L_LA(_tlb_huge_update)
#endif
-static int __cpuinitdata hazard_instance;
+static int hazard_instance;
-static void __cpuinit uasm_bgezl_hazard(u32 **p,
- struct uasm_reloc **r,
- int instance)
+static void uasm_bgezl_hazard(u32 **p, struct uasm_reloc **r, int instance)
{
switch (instance) {
case 0 ... 7:
}
}
-static void __cpuinit uasm_bgezl_label(struct uasm_label **l,
- u32 **p,
- int instance)
+static void uasm_bgezl_label(struct uasm_label **l, u32 **p, int instance)
{
switch (instance) {
case 0 ... 7:
* We deliberately chose a buffer size of 128, so we won't scribble
* over anything important on overflow before we panic.
*/
-static u32 tlb_handler[128] __cpuinitdata;
+static u32 tlb_handler[128];
/* simply assume worst case size for labels and relocs */
-static struct uasm_label labels[128] __cpuinitdata;
-static struct uasm_reloc relocs[128] __cpuinitdata;
+static struct uasm_label labels[128];
+static struct uasm_reloc relocs[128];
-static int check_for_high_segbits __cpuinitdata;
+static int check_for_high_segbits;
-static unsigned int kscratch_used_mask __cpuinitdata;
+static unsigned int kscratch_used_mask;
static inline int __maybe_unused c0_kscratch(void)
{
}
}
-static int __cpuinit allocate_kscratch(void)
+static int allocate_kscratch(void)
{
int r;
unsigned int a = cpu_data[0].kscratch_mask & ~kscratch_used_mask;
return r;
}
-static int scratch_reg __cpuinitdata;
-static int pgd_reg __cpuinitdata;
+static int scratch_reg;
+static int pgd_reg;
enum vmalloc64_mode {not_refill, refill_scratch, refill_noscratch};
-static struct work_registers __cpuinit build_get_work_registers(u32 **p)
+static struct work_registers build_get_work_registers(u32 **p)
{
struct work_registers r;
return r;
}
-static void __cpuinit build_restore_work_registers(u32 **p)
+static void build_restore_work_registers(u32 **p)
{
if (scratch_reg >= 0) {
UASM_i_MFC0(p, 1, c0_kscratch(), scratch_reg);
/*
* The R3000 TLB handler is simple.
*/
-static void __cpuinit build_r3000_tlb_refill_handler(void)
+static void build_r3000_tlb_refill_handler(void)
{
long pgdc = (long)pgd_current;
u32 *p;
* other one.To keep things simple, we first assume linear space,
* then we relocate it to the final handler layout as needed.
*/
-static u32 final_handler[64] __cpuinitdata;
+static u32 final_handler[64];
/*
* Hazards
*
* As if we MIPS hackers wouldn't know how to nop pipelines happy ...
*/
-static void __cpuinit __maybe_unused build_tlb_probe_entry(u32 **p)
+static void __maybe_unused build_tlb_probe_entry(u32 **p)
{
switch (current_cpu_type()) {
/* Found by experiment: R4600 v2.0/R4700 needs this, too. */
*/
enum tlb_write_entry { tlb_random, tlb_indexed };
-static void __cpuinit build_tlb_write_entry(u32 **p, struct uasm_label **l,
- struct uasm_reloc **r,
- enum tlb_write_entry wmode)
+static void build_tlb_write_entry(u32 **p, struct uasm_label **l,
+ struct uasm_reloc **r,
+ enum tlb_write_entry wmode)
{
void(*tlbw)(u32 **) = NULL;
}
}
-static __cpuinit __maybe_unused void build_convert_pte_to_entrylo(u32 **p,
- unsigned int reg)
+static __maybe_unused void build_convert_pte_to_entrylo(u32 **p,
+ unsigned int reg)
{
if (cpu_has_rixi) {
UASM_i_ROTR(p, reg, reg, ilog2(_PAGE_GLOBAL));
#ifdef CONFIG_MIPS_HUGE_TLB_SUPPORT
-static __cpuinit void build_restore_pagemask(u32 **p,
- struct uasm_reloc **r,
- unsigned int tmp,
- enum label_id lid,
- int restore_scratch)
+static void build_restore_pagemask(u32 **p, struct uasm_reloc **r,
+ unsigned int tmp, enum label_id lid,
+ int restore_scratch)
{
if (restore_scratch) {
/* Reset default page size */
}
}
-static __cpuinit void build_huge_tlb_write_entry(u32 **p,
- struct uasm_label **l,
- struct uasm_reloc **r,
- unsigned int tmp,
- enum tlb_write_entry wmode,
- int restore_scratch)
+static void build_huge_tlb_write_entry(u32 **p, struct uasm_label **l,
+ struct uasm_reloc **r,
+ unsigned int tmp,
+ enum tlb_write_entry wmode,
+ int restore_scratch)
{
/* Set huge page tlb entry size */
uasm_i_lui(p, tmp, PM_HUGE_MASK >> 16);
/*
* Check if Huge PTE is present, if so then jump to LABEL.
*/
-static void __cpuinit
+static void
build_is_huge_pte(u32 **p, struct uasm_reloc **r, unsigned int tmp,
- unsigned int pmd, int lid)
+ unsigned int pmd, int lid)
{
UASM_i_LW(p, tmp, 0, pmd);
if (use_bbit_insns()) {
}
}
-static __cpuinit void build_huge_update_entries(u32 **p,
- unsigned int pte,
- unsigned int tmp)
+static void build_huge_update_entries(u32 **p, unsigned int pte,
+ unsigned int tmp)
{
int small_sequence;
UASM_i_MTC0(p, pte, C0_ENTRYLO1); /* load it */
}
-static __cpuinit void build_huge_handler_tail(u32 **p,
- struct uasm_reloc **r,
- struct uasm_label **l,
- unsigned int pte,
- unsigned int ptr)
+static void build_huge_handler_tail(u32 **p, struct uasm_reloc **r,
+ struct uasm_label **l,
+ unsigned int pte,
+ unsigned int ptr)
{
#ifdef CONFIG_SMP
UASM_i_SC(p, pte, 0, ptr);
* TMP and PTR are scratch.
* TMP will be clobbered, PTR will hold the pmd entry.
*/
-static void __cpuinit
+static void
build_get_pmde64(u32 **p, struct uasm_label **l, struct uasm_reloc **r,
unsigned int tmp, unsigned int ptr)
{
* BVADDR is the faulting address, PTR is scratch.
* PTR will hold the pgd for vmalloc.
*/
-static void __cpuinit
+static void
build_get_pgd_vmalloc64(u32 **p, struct uasm_label **l, struct uasm_reloc **r,
unsigned int bvaddr, unsigned int ptr,
enum vmalloc64_mode mode)
* TMP and PTR are scratch.
* TMP will be clobbered, PTR will hold the pgd entry.
*/
-static void __cpuinit __maybe_unused
+static void __maybe_unused
build_get_pgde32(u32 **p, unsigned int tmp, unsigned int ptr)
{
if (pgd_reg != -1) {
#endif /* !CONFIG_64BIT */
-static void __cpuinit build_adjust_context(u32 **p, unsigned int ctx)
+static void build_adjust_context(u32 **p, unsigned int ctx)
{
unsigned int shift = 4 - (PTE_T_LOG2 + 1) + PAGE_SHIFT - 12;
unsigned int mask = (PTRS_PER_PTE / 2 - 1) << (PTE_T_LOG2 + 1);
uasm_i_andi(p, ctx, ctx, mask);
}
-static void __cpuinit build_get_ptep(u32 **p, unsigned int tmp, unsigned int ptr)
+static void build_get_ptep(u32 **p, unsigned int tmp, unsigned int ptr)
{
/*
* Bug workaround for the Nevada. It seems as if under certain
UASM_i_ADDU(p, ptr, ptr, tmp); /* add in offset */
}
-static void __cpuinit build_update_entries(u32 **p, unsigned int tmp,
- unsigned int ptep)
+static void build_update_entries(u32 **p, unsigned int tmp, unsigned int ptep)
{
/*
* 64bit address support (36bit on a 32bit CPU) in a 32bit
int restore_scratch;
};
-static struct mips_huge_tlb_info __cpuinit
+static struct mips_huge_tlb_info
build_fast_tlb_refill_handler (u32 **p, struct uasm_label **l,
struct uasm_reloc **r, unsigned int tmp,
unsigned int ptr, int c0_scratch_reg)
*/
#define MIPS64_REFILL_INSNS 32
-static void __cpuinit build_r4000_tlb_refill_handler(void)
+static void build_r4000_tlb_refill_handler(void)
{
u32 *p = tlb_handler;
struct uasm_label *l = labels;
u32 handle_tlbm[FASTPATH_SIZE] __cacheline_aligned;
u32 tlbmiss_handler_setup_pgd_array[16] __cacheline_aligned;
-static void __cpuinit build_setup_pgd(void)
+static void build_setup_pgd(void)
{
const int a0 = 4;
const int __maybe_unused a1 = 5;
ARRAY_SIZE(tlbmiss_handler_setup_pgd_array));
}
-static void __cpuinit
+static void
iPTE_LW(u32 **p, unsigned int pte, unsigned int ptr)
{
#ifdef CONFIG_SMP
#endif
}
-static void __cpuinit
+static void
iPTE_SW(u32 **p, struct uasm_reloc **r, unsigned int pte, unsigned int ptr,
unsigned int mode)
{
* the page table where this PTE is located, PTE will be re-loaded
* with it's original value.
*/
-static void __cpuinit
+static void
build_pte_present(u32 **p, struct uasm_reloc **r,
int pte, int ptr, int scratch, enum label_id lid)
{
}
/* Make PTE valid, store result in PTR. */
-static void __cpuinit
+static void
build_make_valid(u32 **p, struct uasm_reloc **r, unsigned int pte,
unsigned int ptr)
{
* Check if PTE can be written to, if not branch to LABEL. Regardless
* restore PTE with value from PTR when done.
*/
-static void __cpuinit
+static void
build_pte_writable(u32 **p, struct uasm_reloc **r,
unsigned int pte, unsigned int ptr, int scratch,
enum label_id lid)
/* Make PTE writable, update software status bits as well, then store
* at PTR.
*/
-static void __cpuinit
+static void
build_make_write(u32 **p, struct uasm_reloc **r, unsigned int pte,
unsigned int ptr)
{
* Check if PTE can be modified, if not branch to LABEL. Regardless
* restore PTE with value from PTR when done.
*/
-static void __cpuinit
+static void
build_pte_modifiable(u32 **p, struct uasm_reloc **r,
unsigned int pte, unsigned int ptr, int scratch,
enum label_id lid)
* This places the pte into ENTRYLO0 and writes it with tlbwi.
* Then it returns.
*/
-static void __cpuinit
+static void
build_r3000_pte_reload_tlbwi(u32 **p, unsigned int pte, unsigned int tmp)
{
uasm_i_mtc0(p, pte, C0_ENTRYLO0); /* cp0 delay */
* may have the probe fail bit set as a result of a trap on a
* kseg2 access, i.e. without refill. Then it returns.
*/
-static void __cpuinit
+static void
build_r3000_tlb_reload_write(u32 **p, struct uasm_label **l,
struct uasm_reloc **r, unsigned int pte,
unsigned int tmp)
uasm_i_rfe(p); /* branch delay */
}
-static void __cpuinit
+static void
build_r3000_tlbchange_handler_head(u32 **p, unsigned int pte,
unsigned int ptr)
{
uasm_i_tlbp(p); /* load delay */
}
-static void __cpuinit build_r3000_tlb_load_handler(void)
+static void build_r3000_tlb_load_handler(void)
{
u32 *p = handle_tlbl;
struct uasm_label *l = labels;
dump_handler("r3000_tlb_load", handle_tlbl, ARRAY_SIZE(handle_tlbl));
}
-static void __cpuinit build_r3000_tlb_store_handler(void)
+static void build_r3000_tlb_store_handler(void)
{
u32 *p = handle_tlbs;
struct uasm_label *l = labels;
dump_handler("r3000_tlb_store", handle_tlbs, ARRAY_SIZE(handle_tlbs));
}
-static void __cpuinit build_r3000_tlb_modify_handler(void)
+static void build_r3000_tlb_modify_handler(void)
{
u32 *p = handle_tlbm;
struct uasm_label *l = labels;
/*
* R4000 style TLB load/store/modify handlers.
*/
-static struct work_registers __cpuinit
+static struct work_registers
build_r4000_tlbchange_handler_head(u32 **p, struct uasm_label **l,
struct uasm_reloc **r)
{
return wr;
}
-static void __cpuinit
+static void
build_r4000_tlbchange_handler_tail(u32 **p, struct uasm_label **l,
struct uasm_reloc **r, unsigned int tmp,
unsigned int ptr)
#endif
}
-static void __cpuinit build_r4000_tlb_load_handler(void)
+static void build_r4000_tlb_load_handler(void)
{
u32 *p = handle_tlbl;
struct uasm_label *l = labels;
dump_handler("r4000_tlb_load", handle_tlbl, ARRAY_SIZE(handle_tlbl));
}
-static void __cpuinit build_r4000_tlb_store_handler(void)
+static void build_r4000_tlb_store_handler(void)
{
u32 *p = handle_tlbs;
struct uasm_label *l = labels;
dump_handler("r4000_tlb_store", handle_tlbs, ARRAY_SIZE(handle_tlbs));
}
-static void __cpuinit build_r4000_tlb_modify_handler(void)
+static void build_r4000_tlb_modify_handler(void)
{
u32 *p = handle_tlbm;
struct uasm_label *l = labels;
dump_handler("r4000_tlb_modify", handle_tlbm, ARRAY_SIZE(handle_tlbm));
}
-void __cpuinit build_tlb_refill_handler(void)
+void build_tlb_refill_handler(void)
{
/*
* The refill handler is generated per-CPU, multi-node systems
}
}
-void __cpuinit flush_tlb_handlers(void)
+void flush_tlb_handlers(void)
{
local_flush_icache_range((unsigned long)handle_tlbl,
(unsigned long)handle_tlbl + sizeof(handle_tlbl));
#include "uasm.c"
-static struct insn insn_table_MM[] __uasminitdata = {
+static struct insn insn_table_MM[] = {
{ insn_addu, M(mm_pool32a_op, 0, 0, 0, 0, mm_addu32_op), RT | RS | RD },
{ insn_addiu, M(mm_addiu32_op, 0, 0, 0, 0, 0), RT | RS | SIMM },
{ insn_and, M(mm_pool32a_op, 0, 0, 0, 0, mm_and_op), RT | RS | RD },
#undef M
-static inline __uasminit u32 build_bimm(s32 arg)
+static inline u32 build_bimm(s32 arg)
{
WARN(arg > 0xffff || arg < -0x10000,
KERN_WARNING "Micro-assembler field overflow\n");
return ((arg < 0) ? (1 << 15) : 0) | ((arg >> 1) & 0x7fff);
}
-static inline __uasminit u32 build_jimm(u32 arg)
+static inline u32 build_jimm(u32 arg)
{
WARN(arg & ~((JIMM_MASK << 2) | 1),
* The order of opcode arguments is implicitly left to right,
* starting with RS and ending with FUNC or IMM.
*/
-static void __uasminit build_insn(u32 **buf, enum opcode opc, ...)
+static void build_insn(u32 **buf, enum opcode opc, ...)
{
struct insn *ip = NULL;
unsigned int i;
(*buf)++;
}
-static inline void __uasminit
+static inline void
__resolve_relocs(struct uasm_reloc *rel, struct uasm_label *lab)
{
long laddr = (long)lab->addr;
#include "uasm.c"
-static struct insn insn_table[] __uasminitdata = {
+static struct insn insn_table[] = {
{ insn_addiu, M(addiu_op, 0, 0, 0, 0, 0), RS | RT | SIMM },
{ insn_addu, M(spec_op, 0, 0, 0, 0, addu_op), RS | RT | RD },
{ insn_andi, M(andi_op, 0, 0, 0, 0, 0), RS | RT | UIMM },
#undef M
-static inline __uasminit u32 build_bimm(s32 arg)
+static inline u32 build_bimm(s32 arg)
{
WARN(arg > 0x1ffff || arg < -0x20000,
KERN_WARNING "Micro-assembler field overflow\n");
return ((arg < 0) ? (1 << 15) : 0) | ((arg >> 2) & 0x7fff);
}
-static inline __uasminit u32 build_jimm(u32 arg)
+static inline u32 build_jimm(u32 arg)
{
WARN(arg & ~(JIMM_MASK << 2),
KERN_WARNING "Micro-assembler field overflow\n");
* The order of opcode arguments is implicitly left to right,
* starting with RS and ending with FUNC or IMM.
*/
-static void __uasminit build_insn(u32 **buf, enum opcode opc, ...)
+static void build_insn(u32 **buf, enum opcode opc, ...)
{
struct insn *ip = NULL;
unsigned int i;
(*buf)++;
}
-static inline void __uasminit
+static inline void
__resolve_relocs(struct uasm_reloc *rel, struct uasm_label *lab)
{
long laddr = (long)lab->addr;
enum fields fields;
};
-static inline __uasminit u32 build_rs(u32 arg)
+static inline u32 build_rs(u32 arg)
{
WARN(arg & ~RS_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return (arg & RS_MASK) << RS_SH;
}
-static inline __uasminit u32 build_rt(u32 arg)
+static inline u32 build_rt(u32 arg)
{
WARN(arg & ~RT_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return (arg & RT_MASK) << RT_SH;
}
-static inline __uasminit u32 build_rd(u32 arg)
+static inline u32 build_rd(u32 arg)
{
WARN(arg & ~RD_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return (arg & RD_MASK) << RD_SH;
}
-static inline __uasminit u32 build_re(u32 arg)
+static inline u32 build_re(u32 arg)
{
WARN(arg & ~RE_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return (arg & RE_MASK) << RE_SH;
}
-static inline __uasminit u32 build_simm(s32 arg)
+static inline u32 build_simm(s32 arg)
{
WARN(arg > 0x7fff || arg < -0x8000,
KERN_WARNING "Micro-assembler field overflow\n");
return arg & 0xffff;
}
-static inline __uasminit u32 build_uimm(u32 arg)
+static inline u32 build_uimm(u32 arg)
{
WARN(arg & ~IMM_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return arg & IMM_MASK;
}
-static inline __uasminit u32 build_scimm(u32 arg)
+static inline u32 build_scimm(u32 arg)
{
WARN(arg & ~SCIMM_MASK,
KERN_WARNING "Micro-assembler field overflow\n");
return (arg & SCIMM_MASK) << SCIMM_SH;
}
-static inline __uasminit u32 build_func(u32 arg)
+static inline u32 build_func(u32 arg)
{
WARN(arg & ~FUNC_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return arg & FUNC_MASK;
}
-static inline __uasminit u32 build_set(u32 arg)
+static inline u32 build_set(u32 arg)
{
WARN(arg & ~SET_MASK, KERN_WARNING "Micro-assembler field overflow\n");
return arg & SET_MASK;
}
-static void __uasminit build_insn(u32 **buf, enum opcode opc, ...);
+static void build_insn(u32 **buf, enum opcode opc, ...);
#define I_u1u2u3(op) \
Ip_u1u2u3(op) \
#ifdef CONFIG_CPU_CAVIUM_OCTEON
#include <asm/octeon/octeon.h>
-void __uasminit ISAFUNC(uasm_i_pref)(u32 **buf, unsigned int a, signed int b,
+void ISAFUNC(uasm_i_pref)(u32 **buf, unsigned int a, signed int b,
unsigned int c)
{
if (OCTEON_IS_MODEL(OCTEON_CN63XX_PASS1_X) && a <= 24 && a != 5)
#endif
/* Handle labels. */
-void __uasminit ISAFUNC(uasm_build_label)(struct uasm_label **lab, u32 *addr, int lid)
+void ISAFUNC(uasm_build_label)(struct uasm_label **lab, u32 *addr, int lid)
{
(*lab)->addr = addr;
(*lab)->lab = lid;
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_build_label));
-int __uasminit ISAFUNC(uasm_in_compat_space_p)(long addr)
+int ISAFUNC(uasm_in_compat_space_p)(long addr)
{
/* Is this address in 32bit compat space? */
#ifdef CONFIG_64BIT
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_in_compat_space_p));
-static int __uasminit uasm_rel_highest(long val)
+static int uasm_rel_highest(long val)
{
#ifdef CONFIG_64BIT
return ((((val + 0x800080008000L) >> 48) & 0xffff) ^ 0x8000) - 0x8000;
#endif
}
-static int __uasminit uasm_rel_higher(long val)
+static int uasm_rel_higher(long val)
{
#ifdef CONFIG_64BIT
return ((((val + 0x80008000L) >> 32) & 0xffff) ^ 0x8000) - 0x8000;
#endif
}
-int __uasminit ISAFUNC(uasm_rel_hi)(long val)
+int ISAFUNC(uasm_rel_hi)(long val)
{
return ((((val + 0x8000L) >> 16) & 0xffff) ^ 0x8000) - 0x8000;
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_rel_hi));
-int __uasminit ISAFUNC(uasm_rel_lo)(long val)
+int ISAFUNC(uasm_rel_lo)(long val)
{
return ((val & 0xffff) ^ 0x8000) - 0x8000;
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_rel_lo));
-void __uasminit ISAFUNC(UASM_i_LA_mostly)(u32 **buf, unsigned int rs, long addr)
+void ISAFUNC(UASM_i_LA_mostly)(u32 **buf, unsigned int rs, long addr)
{
if (!ISAFUNC(uasm_in_compat_space_p)(addr)) {
ISAFUNC(uasm_i_lui)(buf, rs, uasm_rel_highest(addr));
}
UASM_EXPORT_SYMBOL(ISAFUNC(UASM_i_LA_mostly));
-void __uasminit ISAFUNC(UASM_i_LA)(u32 **buf, unsigned int rs, long addr)
+void ISAFUNC(UASM_i_LA)(u32 **buf, unsigned int rs, long addr)
{
ISAFUNC(UASM_i_LA_mostly)(buf, rs, addr);
if (ISAFUNC(uasm_rel_lo(addr))) {
UASM_EXPORT_SYMBOL(ISAFUNC(UASM_i_LA));
/* Handle relocations. */
-void __uasminit
-ISAFUNC(uasm_r_mips_pc16)(struct uasm_reloc **rel, u32 *addr, int lid)
+void ISAFUNC(uasm_r_mips_pc16)(struct uasm_reloc **rel, u32 *addr, int lid)
{
(*rel)->addr = addr;
(*rel)->type = R_MIPS_PC16;
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_r_mips_pc16));
-static inline void __uasminit
-__resolve_relocs(struct uasm_reloc *rel, struct uasm_label *lab);
+static inline void __resolve_relocs(struct uasm_reloc *rel,
+ struct uasm_label *lab);
-void __uasminit
-ISAFUNC(uasm_resolve_relocs)(struct uasm_reloc *rel, struct uasm_label *lab)
+void ISAFUNC(uasm_resolve_relocs)(struct uasm_reloc *rel,
+ struct uasm_label *lab)
{
struct uasm_label *l;
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_resolve_relocs));
-void __uasminit
-ISAFUNC(uasm_move_relocs)(struct uasm_reloc *rel, u32 *first, u32 *end, long off)
+void ISAFUNC(uasm_move_relocs)(struct uasm_reloc *rel, u32 *first, u32 *end,
+ long off)
{
for (; rel->lab != UASM_LABEL_INVALID; rel++)
if (rel->addr >= first && rel->addr < end)
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_move_relocs));
-void __uasminit
-ISAFUNC(uasm_move_labels)(struct uasm_label *lab, u32 *first, u32 *end, long off)
+void ISAFUNC(uasm_move_labels)(struct uasm_label *lab, u32 *first, u32 *end,
+ long off)
{
for (; lab->lab != UASM_LABEL_INVALID; lab++)
if (lab->addr >= first && lab->addr < end)
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_move_labels));
-void __uasminit
-ISAFUNC(uasm_copy_handler)(struct uasm_reloc *rel, struct uasm_label *lab, u32 *first,
- u32 *end, u32 *target)
+void ISAFUNC(uasm_copy_handler)(struct uasm_reloc *rel, struct uasm_label *lab,
+ u32 *first, u32 *end, u32 *target)
{
long off = (long)(target - first);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_copy_handler));
-int __uasminit ISAFUNC(uasm_insn_has_bdelay)(struct uasm_reloc *rel, u32 *addr)
+int ISAFUNC(uasm_insn_has_bdelay)(struct uasm_reloc *rel, u32 *addr)
{
for (; rel->lab != UASM_LABEL_INVALID; rel++) {
if (rel->addr == addr
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_insn_has_bdelay));
/* Convenience functions for labeled branches. */
-void __uasminit
-ISAFUNC(uasm_il_bltz)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_bltz)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bltz)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bltz));
-void __uasminit
-ISAFUNC(uasm_il_b)(u32 **p, struct uasm_reloc **r, int lid)
+void ISAFUNC(uasm_il_b)(u32 **p, struct uasm_reloc **r, int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_b)(p, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_b));
-void __uasminit
-ISAFUNC(uasm_il_beqz)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_beqz)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_beqz)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_beqz));
-void __uasminit
-ISAFUNC(uasm_il_beqzl)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_beqzl)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_beqzl)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_beqzl));
-void __uasminit
-ISAFUNC(uasm_il_bne)(u32 **p, struct uasm_reloc **r, unsigned int reg1,
- unsigned int reg2, int lid)
+void ISAFUNC(uasm_il_bne)(u32 **p, struct uasm_reloc **r, unsigned int reg1,
+ unsigned int reg2, int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bne)(p, reg1, reg2, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bne));
-void __uasminit
-ISAFUNC(uasm_il_bnez)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_bnez)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bnez)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bnez));
-void __uasminit
-ISAFUNC(uasm_il_bgezl)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_bgezl)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bgezl)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bgezl));
-void __uasminit
-ISAFUNC(uasm_il_bgez)(u32 **p, struct uasm_reloc **r, unsigned int reg, int lid)
+void ISAFUNC(uasm_il_bgez)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bgez)(p, reg, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bgez));
-void __uasminit
-ISAFUNC(uasm_il_bbit0)(u32 **p, struct uasm_reloc **r, unsigned int reg,
- unsigned int bit, int lid)
+void ISAFUNC(uasm_il_bbit0)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ unsigned int bit, int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bbit0)(p, reg, bit, 0);
}
UASM_EXPORT_SYMBOL(ISAFUNC(uasm_il_bbit0));
-void __uasminit
-ISAFUNC(uasm_il_bbit1)(u32 **p, struct uasm_reloc **r, unsigned int reg,
- unsigned int bit, int lid)
+void ISAFUNC(uasm_il_bbit1)(u32 **p, struct uasm_reloc **r, unsigned int reg,
+ unsigned int bit, int lid)
{
uasm_r_mips_pc16(r, *p, lid);
ISAFUNC(uasm_i_bbit1)(p, reg, bit, 0);
/*
* Post-config but pre-boot cleanup entry point
*/
-static void __cpuinit msmtc_init_secondary(void)
+static void msmtc_init_secondary(void)
{
int myvpe;
/*
* Platform "CPU" startup hook
*/
-static void __cpuinit msmtc_boot_secondary(int cpu, struct task_struct *idle)
+static void msmtc_boot_secondary(int cpu, struct task_struct *idle)
{
smtc_boot_secondary(cpu, idle);
}
/*
* SMP initialization finalization entry point
*/
-static void __cpuinit msmtc_smp_finish(void)
+static void msmtc_smp_finish(void)
{
smtc_smp_finish();
}
}
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
#ifdef MSC01E_INT_BASE
if (cpu_has_veic) {
}
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
if (cpu_has_vint)
set_vi_handler(cp0_compare_irq, mips_timer_dispatch);
/*
* Code to run on secondary just after probing the CPU
*/
-static void __cpuinit nlm_init_secondary(void)
+static void nlm_init_secondary(void)
{
int hwtid;
return 0;
}
-int __cpuinit nlm_wakeup_secondary_cpus(void)
+int nlm_wakeup_secondary_cpus(void)
{
u32 *reset_data;
int threadmode;
nop
/* not reached */
- __CPUINIT
NESTED(nlm_boot_secondary_cpus, 16, sp)
/* Initialize CP0 Status */
move t1, zero
jr t0
nop
END(nlm_boot_secondary_cpus)
- __FINIT
/*
* In case of RMIboot bootloader which is used on XLR boards, the CPUs
* This will get them out of the bootloader code and into linux. Needed
* because the bootloader area will be taken and initialized by linux.
*/
- __CPUINIT
NESTED(nlm_rmiboot_preboot, 16, sp)
mfc0 t0, $15, 1 /* read ebase */
andi t0, 0x1f /* t0 has the processor_id() */
b 1b
nop
END(nlm_rmiboot_preboot)
- __FINIT
#error "Unknown CPU"
#endif
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
return IRQ_TIMER;
}
#include <asm/netlogic/xlr/iomap.h>
#include <asm/netlogic/xlr/pic.h>
-int __cpuinit xlr_wakeup_secondary_cpus(void)
+int xlr_wakeup_secondary_cpus(void)
{
struct nlm_soc_info *nodep;
unsigned int i, j, boot_cpu;
extern struct pci_ops bridge_pci_ops;
-int __cpuinit bridge_probe(nasid_t nasid, int widget_id, int masterwid)
+int bridge_probe(nasid_t nasid, int widget_id, int masterwid)
{
unsigned long offset = NODE_OFFSET(nasid);
struct bridge_controller *bc;
/*
* Post-config but pre-boot cleanup entry point
*/
-static void __cpuinit msp_smtc_init_secondary(void)
+static void msp_smtc_init_secondary(void)
{
int myvpe;
/*
* Platform "CPU" startup hook
*/
-static void __cpuinit msp_smtc_boot_secondary(int cpu,
- struct task_struct *idle)
+static void msp_smtc_boot_secondary(int cpu, struct task_struct *idle)
{
smtc_boot_secondary(cpu, idle);
}
/*
* SMP initialization finalization entry point
*/
-static void __cpuinit msp_smtc_smp_finish(void)
+static void msp_smtc_smp_finish(void)
{
smtc_smp_finish();
}
mips_hpt_frequency = cpu_rate/2;
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
/* MIPS_MT modes may want timer for second VPE */
if ((get_current_vpe()) && !tim_installed) {
write_c0_status(read_c0_status() | IE_IRQ2);
}
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
if (cpu_has_vint)
set_vi_handler(cp0_compare_irq, pnx833x_timer_dispatch);
#include "powertv-clock.h"
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
return irq_mips_timer;
}
.irq_mask_ack = ralink_intc_irq_mask,
};
-unsigned int __cpuinit get_c0_compare_int(void)
+unsigned int get_c0_compare_int(void)
{
return CP0_LEGACY_COMPARE_IRQ;
}
extern void xtalk_probe_node(cnodeid_t nid);
-static void __cpuinit per_hub_init(cnodeid_t cnode)
+static void per_hub_init(cnodeid_t cnode)
{
struct hub_data *hub = hub_data(cnode);
nasid_t nasid = COMPACT_TO_NASID_NODEID(cnode);
}
}
-void __cpuinit per_cpu_init(void)
+void per_cpu_init(void)
{
int cpu = smp_processor_id();
int slice = LOCAL_HUB_L(PI_CPU_NUM);
ip27_send_ipi_single(i, action);
}
-static void __cpuinit ip27_init_secondary(void)
+static void ip27_init_secondary(void)
{
per_cpu_init();
}
-static void __cpuinit ip27_smp_finish(void)
+static void ip27_smp_finish(void)
{
extern void hub_rt_clock_event_init(void);
* set sp to the kernel stack of the newly created idle process, gp to the proc
* struct so that current_thread_info() will work.
*/
-static void __cpuinit ip27_boot_secondary(int cpu, struct task_struct *idle)
+static void ip27_boot_secondary(int cpu, struct task_struct *idle)
{
unsigned long gp = (unsigned long)task_thread_info(idle);
unsigned long sp = __KSTK_TOS(idle);
#define NSEC_PER_CYCLE 800
#define CYCLES_PER_SEC (NSEC_PER_SEC / NSEC_PER_CYCLE)
-void __cpuinit hub_rt_clock_event_init(void)
+void hub_rt_clock_event_init(void)
{
unsigned int cpu = smp_processor_id();
struct clock_event_device *cd = &per_cpu(hub_rt_clockevent, cpu);
hub_rt_clock_event_init();
}
-void __cpuinit cpu_time_init(void)
+void cpu_time_init(void)
{
lboard_t *board;
klcpu_t *cpu;
set_c0_status(SRB_TIMOCLK);
}
-void __cpuinit hub_rtc_init(cnodeid_t cnode)
+void hub_rtc_init(cnodeid_t cnode)
{
/*
extern int bridge_probe(nasid_t nasid, int widget, int masterwid);
-static int __cpuinit probe_one_port(nasid_t nasid, int widget, int masterwid)
+static int probe_one_port(nasid_t nasid, int widget, int masterwid)
{
widgetreg_t widget_id;
xwidget_part_num_t partnum;
return 0;
}
-static int __cpuinit xbow_probe(nasid_t nasid)
+static int xbow_probe(nasid_t nasid)
{
lboard_t *brd;
klxbow_t *xbow_p;
return 0;
}
-void __cpuinit xtalk_probe_node(cnodeid_t nid)
+void xtalk_probe_node(cnodeid_t nid)
{
volatile u64 hubreg;
nasid_t nasid;
/*
* SMP init and finish on secondary CPUs
*/
-void __cpuinit bcm1480_smp_init(void)
+void bcm1480_smp_init(void)
{
unsigned int imask = STATUSF_IP4 | STATUSF_IP3 | STATUSF_IP2 |
STATUSF_IP1 | STATUSF_IP0;
/*
* Code to run on secondary just after probing the CPU
*/
-static void __cpuinit bcm1480_init_secondary(void)
+static void bcm1480_init_secondary(void)
{
extern void bcm1480_smp_init(void);
* Do any tidying up before marking online and running the idle
* loop
*/
-static void __cpuinit bcm1480_smp_finish(void)
+static void bcm1480_smp_finish(void)
{
extern void sb1480_clockevent_init(void);
* Setup the PC, SP, and GP of a secondary processor and start it
* running!
*/
-static void __cpuinit bcm1480_boot_secondary(int cpu, struct task_struct *idle)
+static void bcm1480_boot_secondary(int cpu, struct task_struct *idle)
{
int retval;
/*
* SMP init and finish on secondary CPUs
*/
-void __cpuinit sb1250_smp_init(void)
+void sb1250_smp_init(void)
{
unsigned int imask = STATUSF_IP4 | STATUSF_IP3 | STATUSF_IP2 |
STATUSF_IP1 | STATUSF_IP0;
/*
* Code to run on secondary just after probing the CPU
*/
-static void __cpuinit sb1250_init_secondary(void)
+static void sb1250_init_secondary(void)
{
extern void sb1250_smp_init(void);
* Do any tidying up before marking online and running the idle
* loop
*/
-static void __cpuinit sb1250_smp_finish(void)
+static void sb1250_smp_finish(void)
{
extern void sb1250_clockevent_init(void);
* Setup the PC, SP, and GP of a secondary processor and start it
* running!
*/
-static void __cpuinit sb1250_boot_secondary(int cpu, struct task_struct *idle)
+static void sb1250_boot_secondary(int cpu, struct task_struct *idle)
{
int retval;
projects / karo-tx-linux.git / commitdiff