dmi_check_system(sw_any_bug_dmi_table);
if (bios_with_sw_any_bug && cpus_weight(policy->cpus) == 1) {
policy->shared_type = CPUFREQ_SHARED_TYPE_ALL;
- policy->cpus = cpu_core_map[cpu];
+ policy->cpus = per_cpu(cpu_core_map, cpu);
}
#endif
static int cpu_family = CPU_OPTERON;
#ifndef CONFIG_SMP
-static cpumask_t cpu_core_map[1];
+DEFINE_PER_CPU(cpumask_t, cpu_core_map);
#endif
/* Return a frequency in MHz, given an input fid */
dprintk("cfid 0x%x, cvid 0x%x\n", data->currfid, data->currvid);
data->powernow_table = powernow_table;
- if (first_cpu(cpu_core_map[data->cpu]) == data->cpu)
+ if (first_cpu(per_cpu(cpu_core_map, data->cpu)) == data->cpu)
print_basics(data);
for (j = 0; j < data->numps; j++)
/* fill in data */
data->numps = data->acpi_data.state_count;
- if (first_cpu(cpu_core_map[data->cpu]) == data->cpu)
+ if (first_cpu(per_cpu(cpu_core_map, data->cpu)) == data->cpu)
print_basics(data);
powernow_k8_acpi_pst_values(data, 0);
if (cpu_family == CPU_HW_PSTATE)
pol->cpus = cpumask_of_cpu(pol->cpu);
else
- pol->cpus = cpu_core_map[pol->cpu];
+ pol->cpus = per_cpu(cpu_core_map, pol->cpu);
data->available_cores = &(pol->cpus);
/* Take a crude guess here.
cpumask_t oldmask = current->cpus_allowed;
unsigned int khz = 0;
- data = powernow_data[first_cpu(cpu_core_map[cpu])];
+ data = powernow_data[first_cpu(per_cpu(cpu_core_map, cpu))];
if (!data)
return -EINVAL;
#ifdef CONFIG_X86_HT
if (c->x86_max_cores * smp_num_siblings > 1) {
seq_printf(m, "physical id\t: %d\n", c->phys_proc_id);
- seq_printf(m, "siblings\t: %d\n", cpus_weight(cpu_core_map[n]));
+ seq_printf(m, "siblings\t: %d\n",
+ cpus_weight(per_cpu(cpu_core_map, n)));
seq_printf(m, "core id\t\t: %d\n", c->cpu_core_id);
seq_printf(m, "cpu cores\t: %d\n", c->booted_cores);
}
#ifdef CONFIG_SMP
if (cpu_data[cpu].cpu_core_id && shared_bank[bank]) { /* symlink */
- i = first_cpu(cpu_core_map[cpu]);
+ i = first_cpu(per_cpu(cpu_core_map, cpu));
/* first core not up yet */
if (cpu_data[i].cpu_core_id)
if (err)
goto out;
- b->cpus = cpu_core_map[cpu];
+ b->cpus = per_cpu(cpu_core_map, cpu);
per_cpu(threshold_banks, cpu)[bank] = b;
goto out;
}
#ifndef CONFIG_SMP
b->cpus = CPU_MASK_ALL;
#else
- b->cpus = cpu_core_map[cpu];
+ b->cpus = per_cpu(cpu_core_map, cpu);
#endif
err = kobject_register(&b->kobj);
if (err)
if (smp_num_siblings * c->x86_max_cores > 1) {
int cpu = c - cpu_data;
seq_printf(m, "physical id\t: %d\n", c->phys_proc_id);
- seq_printf(m, "siblings\t: %d\n", cpus_weight(cpu_core_map[cpu]));
+ seq_printf(m, "siblings\t: %d\n",
+ cpus_weight(per_cpu(cpu_core_map, cpu)));
seq_printf(m, "core id\t\t: %d\n", c->cpu_core_id);
seq_printf(m, "cpu cores\t: %d\n", c->booted_cores);
}
EXPORT_SYMBOL(cpu_sibling_map);
/* representing HT and core siblings of each logical CPU */
-cpumask_t cpu_core_map[NR_CPUS] __read_mostly;
-EXPORT_SYMBOL(cpu_core_map);
+DEFINE_PER_CPU(cpumask_t, cpu_core_map);
+EXPORT_PER_CPU_SYMBOL(cpu_core_map);
/* bitmap of online cpus */
cpumask_t cpu_online_map __read_mostly;
* And for power savings, we return cpu_core_map
*/
if (sched_mc_power_savings || sched_smt_power_savings)
- return cpu_core_map[cpu];
+ return per_cpu(cpu_core_map, cpu);
else
return c->llc_shared_map;
}
c[cpu].cpu_core_id == c[i].cpu_core_id) {
cpu_set(i, cpu_sibling_map[cpu]);
cpu_set(cpu, cpu_sibling_map[i]);
- cpu_set(i, cpu_core_map[cpu]);
- cpu_set(cpu, cpu_core_map[i]);
+ cpu_set(i, per_cpu(cpu_core_map, cpu));
+ cpu_set(cpu, per_cpu(cpu_core_map, i));
cpu_set(i, c[cpu].llc_shared_map);
cpu_set(cpu, c[i].llc_shared_map);
}
cpu_set(cpu, c[cpu].llc_shared_map);
if (current_cpu_data.x86_max_cores == 1) {
- cpu_core_map[cpu] = cpu_sibling_map[cpu];
+ per_cpu(cpu_core_map, cpu) = cpu_sibling_map[cpu];
c[cpu].booted_cores = 1;
return;
}
cpu_set(cpu, c[i].llc_shared_map);
}
if (c[cpu].phys_proc_id == c[i].phys_proc_id) {
- cpu_set(i, cpu_core_map[cpu]);
- cpu_set(cpu, cpu_core_map[i]);
+ cpu_set(i, per_cpu(cpu_core_map, cpu));
+ cpu_set(cpu, per_cpu(cpu_core_map, i));
/*
* Does this new cpu bringup a new core?
*/
" Using dummy APIC emulation.\n");
map_cpu_to_logical_apicid();
cpu_set(0, cpu_sibling_map[0]);
- cpu_set(0, cpu_core_map[0]);
+ cpu_set(0, per_cpu(cpu_core_map, 0));
return;
}
smpboot_clear_io_apic_irqs();
phys_cpu_present_map = physid_mask_of_physid(0);
cpu_set(0, cpu_sibling_map[0]);
- cpu_set(0, cpu_core_map[0]);
+ cpu_set(0, per_cpu(cpu_core_map, 0));
return;
}
smpboot_clear_io_apic_irqs();
phys_cpu_present_map = physid_mask_of_physid(0);
cpu_set(0, cpu_sibling_map[0]);
- cpu_set(0, cpu_core_map[0]);
+ cpu_set(0, per_cpu(cpu_core_map, 0));
return;
}
*/
for (cpu = 0; cpu < NR_CPUS; cpu++) {
cpus_clear(cpu_sibling_map[cpu]);
- cpus_clear(cpu_core_map[cpu]);
+ cpus_clear(per_cpu(cpu_core_map, cpu));
}
cpu_set(0, cpu_sibling_map[0]);
- cpu_set(0, cpu_core_map[0]);
+ cpu_set(0, per_cpu(cpu_core_map, 0));
smpboot_setup_io_apic();
int sibling;
struct cpuinfo_x86 *c = cpu_data;
- for_each_cpu_mask(sibling, cpu_core_map[cpu]) {
- cpu_clear(cpu, cpu_core_map[sibling]);
- /*
+ for_each_cpu_mask(sibling, per_cpu(cpu_core_map, cpu)) {
+ cpu_clear(cpu, per_cpu(cpu_core_map, sibling));
+ /*/
* last thread sibling in this cpu core going down
*/
if (cpus_weight(cpu_sibling_map[cpu]) == 1)
for_each_cpu_mask(sibling, cpu_sibling_map[cpu])
cpu_clear(cpu, cpu_sibling_map[sibling]);
cpus_clear(cpu_sibling_map[cpu]);
- cpus_clear(cpu_core_map[cpu]);
+ cpus_clear(per_cpu(cpu_core_map, cpu));
c[cpu].phys_proc_id = 0;
c[cpu].cpu_core_id = 0;
cpu_clear(cpu, cpu_sibling_setup_map);
EXPORT_SYMBOL(cpu_sibling_map);
/* representing HT and core siblings of each logical CPU */
-cpumask_t cpu_core_map[NR_CPUS] __read_mostly;
-EXPORT_SYMBOL(cpu_core_map);
+DEFINE_PER_CPU(cpumask_t, cpu_core_map);
+EXPORT_PER_CPU_SYMBOL(cpu_core_map);
/*
* Trampoline 80x86 program as an array.
* And for power savings, we return cpu_core_map
*/
if (sched_mc_power_savings || sched_smt_power_savings)
- return cpu_core_map[cpu];
+ return per_cpu(cpu_core_map, cpu);
else
return c->llc_shared_map;
}
c[cpu].cpu_core_id == c[i].cpu_core_id) {
cpu_set(i, cpu_sibling_map[cpu]);
cpu_set(cpu, cpu_sibling_map[i]);
- cpu_set(i, cpu_core_map[cpu]);
- cpu_set(cpu, cpu_core_map[i]);
+ cpu_set(i, per_cpu(cpu_core_map, cpu));
+ cpu_set(cpu, per_cpu(cpu_core_map, i));
cpu_set(i, c[cpu].llc_shared_map);
cpu_set(cpu, c[i].llc_shared_map);
}
cpu_set(cpu, c[cpu].llc_shared_map);
if (current_cpu_data.x86_max_cores == 1) {
- cpu_core_map[cpu] = cpu_sibling_map[cpu];
+ per_cpu(cpu_core_map, cpu) = cpu_sibling_map[cpu];
c[cpu].booted_cores = 1;
return;
}
cpu_set(cpu, c[i].llc_shared_map);
}
if (c[cpu].phys_proc_id == c[i].phys_proc_id) {
- cpu_set(i, cpu_core_map[cpu]);
- cpu_set(cpu, cpu_core_map[i]);
+ cpu_set(i, per_cpu(cpu_core_map, cpu));
+ cpu_set(cpu, per_cpu(cpu_core_map, i));
/*
* Does this new cpu bringup a new core?
*/
else
phys_cpu_present_map = physid_mask_of_physid(0);
cpu_set(0, cpu_sibling_map[0]);
- cpu_set(0, cpu_core_map[0]);
+ cpu_set(0, per_cpu(cpu_core_map, 0));
}
#ifdef CONFIG_HOTPLUG_CPU
int sibling;
struct cpuinfo_x86 *c = cpu_data;
- for_each_cpu_mask(sibling, cpu_core_map[cpu]) {
- cpu_clear(cpu, cpu_core_map[sibling]);
+ for_each_cpu_mask(sibling, per_cpu(cpu_core_map, cpu)) {
+ cpu_clear(cpu, per_cpu(cpu_core_map, sibling));
/*
* last thread sibling in this cpu core going down
*/
for_each_cpu_mask(sibling, cpu_sibling_map[cpu])
cpu_clear(cpu, cpu_sibling_map[sibling]);
cpus_clear(cpu_sibling_map[cpu]);
- cpus_clear(cpu_core_map[cpu]);
+ cpus_clear(per_cpu(cpu_core_map, cpu));
c[cpu].phys_proc_id = 0;
c[cpu].cpu_core_id = 0;
cpu_clear(cpu, cpu_sibling_setup_map);
for (cpu = 0; cpu < NR_CPUS; cpu++) {
cpus_clear(cpu_sibling_map[cpu]);
- cpus_clear(cpu_core_map[cpu]);
+ /*
+ * cpu_core_map lives in a per cpu area that is cleared
+ * when the per cpu array is allocated.
+ *
+ * cpus_clear(per_cpu(cpu_core_map, cpu));
+ */
}
xen_setup_vcpu_info_placement();
for (cpu = 0; cpu < NR_CPUS; cpu++) {
cpus_clear(cpu_sibling_map[cpu]);
- cpus_clear(cpu_core_map[cpu]);
+ /*
+ * cpu_core_ map will be zeroed when the per
+ * cpu area is allocated.
+ *
+ * cpus_clear(per_cpu(cpu_core_map, cpu));
+ */
}
smp_store_cpu_info(0);
extern int pic_mode;
extern int smp_num_siblings;
extern cpumask_t cpu_sibling_map[];
-extern cpumask_t cpu_core_map[];
+DECLARE_PER_CPU(cpumask_t, cpu_core_map);
extern void (*mtrr_hook) (void);
extern void zap_low_mappings (void);
extern void smp_send_reschedule(int cpu);
extern cpumask_t cpu_sibling_map[NR_CPUS];
-extern cpumask_t cpu_core_map[NR_CPUS];
+/*
+ * cpu_core_map lives in a per cpu area
+ *
+ * extern cpumask_t cpu_core_map[NR_CPUS];
+ */
+DECLARE_PER_CPU(cpumask_t, cpu_core_map);
extern u8 cpu_llc_id[NR_CPUS];
#define SMP_TRAMPOLINE_BASE 0x6000
#ifdef CONFIG_X86_HT
#define topology_physical_package_id(cpu) (cpu_data[cpu].phys_proc_id)
#define topology_core_id(cpu) (cpu_data[cpu].cpu_core_id)
-#define topology_core_siblings(cpu) (cpu_core_map[cpu])
+#define topology_core_siblings(cpu) (per_cpu(cpu_core_map, cpu))
#define topology_thread_siblings(cpu) (cpu_sibling_map[cpu])
#endif
#ifdef CONFIG_SMP
#define topology_physical_package_id(cpu) (cpu_data[cpu].phys_proc_id)
#define topology_core_id(cpu) (cpu_data[cpu].cpu_core_id)
-#define topology_core_siblings(cpu) (cpu_core_map[cpu])
+#define topology_core_siblings(cpu) (per_cpu(cpu_core_map, cpu))
#define topology_thread_siblings(cpu) (cpu_sibling_map[cpu])
#define mc_capable() (boot_cpu_data.x86_max_cores > 1)
#define smt_capable() (smp_num_siblings > 1)