}
void __init setup_cpu_features(void);
-
-void update_cpu_capabilities(const struct arm64_cpu_capabilities *caps,
- const char *info);
-void enable_cpu_capabilities(const struct arm64_cpu_capabilities *caps);
void check_local_cpu_capabilities(void);
-void update_cpu_errata_workarounds(void);
-void __init enable_errata_workarounds(void);
-void verify_local_cpu_errata_workarounds(void);
u64 read_sanitised_ftr_reg(u32 id);
{
}
};
-
-/*
- * The CPU Errata work arounds are detected and applied at boot time
- * and the related information is freed soon after. If the new CPU requires
- * an errata not detected at boot, fail this CPU.
- */
-void verify_local_cpu_errata_workarounds(void)
-{
- const struct arm64_cpu_capabilities *caps = arm64_errata;
-
- for (; caps->matches; caps++) {
- if (cpus_have_cap(caps->capability)) {
- if (caps->cpu_enable)
- caps->cpu_enable(caps);
- } else if (caps->matches(caps, SCOPE_LOCAL_CPU)) {
- pr_crit("CPU%d: Requires work around for %s, not detected"
- " at boot time\n",
- smp_processor_id(),
- caps->desc ? : "an erratum");
- cpu_die_early();
- }
- }
-}
-
-void update_cpu_errata_workarounds(void)
-{
- update_cpu_capabilities(arm64_errata, "enabling workaround for");
-}
-
-void __init enable_errata_workarounds(void)
-{
- enable_cpu_capabilities(arm64_errata);
-}
reg->user_mask = user_mask;
}
+extern const struct arm64_cpu_capabilities arm64_errata[];
+static void update_cpu_errata_workarounds(void);
+
void __init init_cpu_features(struct cpuinfo_arm64 *info)
{
/* Before we start using the tables, make sure it is sorted */
return false;
}
-void update_cpu_capabilities(const struct arm64_cpu_capabilities *caps,
- const char *info)
+static void update_cpu_capabilities(const struct arm64_cpu_capabilities *caps,
+ const char *info)
{
for (; caps->matches; caps++) {
if (!caps->matches(caps, caps->def_scope))
* Run through the enabled capabilities and enable() it on all active
* CPUs
*/
-void __init enable_cpu_capabilities(const struct arm64_cpu_capabilities *caps)
+static void __init
+enable_cpu_capabilities(const struct arm64_cpu_capabilities *caps)
{
for (; caps->matches; caps++) {
unsigned int num = caps->capability;
}
/*
+ * The CPU Errata work arounds are detected and applied at boot time
+ * and the related information is freed soon after. If the new CPU requires
+ * an errata not detected at boot, fail this CPU.
+ */
+static void verify_local_cpu_errata_workarounds(void)
+{
+ const struct arm64_cpu_capabilities *caps = arm64_errata;
+
+ for (; caps->matches; caps++) {
+ if (cpus_have_cap(caps->capability)) {
+ if (caps->cpu_enable)
+ caps->cpu_enable(caps);
+ } else if (caps->matches(caps, SCOPE_LOCAL_CPU)) {
+ pr_crit("CPU%d: Requires work around for %s, not detected"
+ " at boot time\n",
+ smp_processor_id(),
+ caps->desc ? : "an erratum");
+ cpu_die_early();
+ }
+ }
+}
+
+static void update_cpu_errata_workarounds(void)
+{
+ update_cpu_capabilities(arm64_errata, "enabling workaround for");
+}
+
+static void __init enable_errata_workarounds(void)
+{
+ enable_cpu_capabilities(arm64_errata);
+}
+
+/*
* Run through the enabled system capabilities and enable() it on this CPU.
* The capabilities were decided based on the available CPUs at the boot time.
* Any new CPU should match the system wide status of the capability. If the