* Find a place to put the bootmap and return its starting address in
* bootmap_start. This address must be page-aligned.
*/
-int
+static int __init
find_bootmap_location (unsigned long start, unsigned long end, void *arg)
{
unsigned long needed = *(unsigned long *)arg;
* Walk the EFI memory map and find usable memory for the system, taking
* into account reserved areas.
*/
-void
+void __init
find_memory (void)
{
unsigned long bootmap_size;
*
* Allocate and setup per-cpu data areas.
*/
-void *
+void * __cpuinit
per_cpu_init (void)
{
void *cpu_data;
int cpu;
+ static int first_time=1;
/*
* get_free_pages() cannot be used before cpu_init() done. BSP
* allocates "NR_CPUS" pages for all CPUs to avoid that AP calls
* get_zeroed_page().
*/
- if (smp_processor_id() == 0) {
+ if (first_time) {
+ first_time=0;
cpu_data = __alloc_bootmem(PERCPU_PAGE_SIZE * NR_CPUS,
PERCPU_PAGE_SIZE, __pa(MAX_DMA_ADDRESS));
for (cpu = 0; cpu < NR_CPUS; cpu++) {
* Set up the page tables.
*/
-void
+void __init
paging_init (void)
{
unsigned long max_dma;
efi_memmap_walk(find_largest_hole, (u64 *)&max_gap);
if (max_gap < LARGE_GAP) {
vmem_map = (struct page *) 0;
- free_area_init_node(0, &contig_page_data, zones_size, 0,
+ free_area_init_node(0, NODE_DATA(0), zones_size, 0,
zholes_size);
} else {
unsigned long map_size;
efi_memmap_walk(create_mem_map_page_table, NULL);
NODE_DATA(0)->node_mem_map = vmem_map;
- free_area_init_node(0, &contig_page_data, zones_size,
+ free_area_init_node(0, NODE_DATA(0), zones_size,
0, zholes_size);
printk("Virtual mem_map starts at 0x%p\n", mem_map);