return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 16384);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 16384);
}
int board_late_init(void)
{
- struct lmb lmb;
u32 status = 0;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
/* somewhat based on the Linux Kernel boot requirements:
* align by 2M and maximal FDT size 2M
*/
- status |= env_set_hex("loadaddr", lmb_alloc(&lmb, SZ_1G, SZ_2M));
- status |= env_set_hex("fdt_addr_r", lmb_alloc(&lmb, SZ_2M, SZ_2M));
- status |= env_set_hex("kernel_addr_r", lmb_alloc(&lmb, SZ_128M, SZ_2M));
- status |= env_set_hex("ramdisk_addr_r", lmb_alloc(&lmb, SZ_1G, SZ_2M));
+ status |= env_set_hex("loadaddr", lmb_alloc(SZ_1G, SZ_2M));
+ status |= env_set_hex("fdt_addr_r", lmb_alloc(SZ_2M, SZ_2M));
+ status |= env_set_hex("kernel_addr_r", lmb_alloc(SZ_128M, SZ_2M));
+ status |= env_set_hex("ramdisk_addr_r", lmb_alloc(SZ_1G, SZ_2M));
status |= env_set_hex("kernel_comp_addr_r",
- lmb_alloc(&lmb, KERNEL_COMP_SIZE, SZ_2M));
+ lmb_alloc(KERNEL_COMP_SIZE, SZ_2M));
status |= env_set_hex("kernel_comp_size", KERNEL_COMP_SIZE);
- status |= env_set_hex("scriptaddr", lmb_alloc(&lmb, SZ_4M, SZ_2M));
- status |= env_set_hex("pxefile_addr_r", lmb_alloc(&lmb, SZ_4M, SZ_2M));
+ status |= env_set_hex("scriptaddr", lmb_alloc(SZ_4M, SZ_2M));
+ status |= env_set_hex("pxefile_addr_r", lmb_alloc(SZ_4M, SZ_2M));
if (status)
log_warning("late_init: Failed to set run time variables\n");
#define KERNEL_COMP_SIZE SZ_64M
-#define addr_alloc(lmb, size) lmb_alloc(lmb, size, SZ_2M)
+#define addr_alloc(size) lmb_alloc(size, SZ_2M)
/* Stolen from arch/arm/mach-apple/board.c */
int board_late_init(void)
{
- struct lmb lmb;
u32 status = 0;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
/* We need to be fairly conservative here as we support boards with just 1G of TOTAL RAM */
- status |= env_set_hex("kernel_addr_r", addr_alloc(&lmb, SZ_128M));
- status |= env_set_hex("ramdisk_addr_r", addr_alloc(&lmb, SZ_128M));
- status |= env_set_hex("kernel_comp_addr_r", addr_alloc(&lmb, KERNEL_COMP_SIZE));
+ status |= env_set_hex("kernel_addr_r", addr_alloc(SZ_128M));
+ status |= env_set_hex("ramdisk_addr_r", addr_alloc(SZ_128M));
+ status |= env_set_hex("kernel_comp_addr_r", addr_alloc(KERNEL_COMP_SIZE));
status |= env_set_hex("kernel_comp_size", KERNEL_COMP_SIZE);
- status |= env_set_hex("scriptaddr", addr_alloc(&lmb, SZ_4M));
- status |= env_set_hex("pxefile_addr_r", addr_alloc(&lmb, SZ_4M));
- status |= env_set_hex("fdt_addr_r", addr_alloc(&lmb, SZ_2M));
+ status |= env_set_hex("scriptaddr", addr_alloc(SZ_4M));
+ status |= env_set_hex("pxefile_addr_r", addr_alloc(SZ_4M));
+ status |= env_set_hex("fdt_addr_r", addr_alloc(SZ_2M));
if (status)
log_warning("%s: Failed to set run time variables\n", __func__);
{
phys_size_t size;
phys_addr_t reg;
- struct lmb lmb;
if (!total_size)
return gd->ram_top;
gd->ram_top = clamp_val(gd->ram_top, 0, SZ_4G - 1);
/* found enough not-reserved memory to relocated U-Boot */
- lmb_init(&lmb);
- lmb_add(&lmb, gd->ram_base, gd->ram_top - gd->ram_base);
- boot_fdt_add_mem_rsv_regions(&lmb, (void *)gd->fdt_blob);
+ lmb_add(gd->ram_base, gd->ram_top - gd->ram_base);
+ boot_fdt_add_mem_rsv_regions((void *)gd->fdt_blob);
/* add 8M for reserved memory for display, fdt, gd,... */
size = ALIGN(SZ_8M + CONFIG_SYS_MALLOC_LEN + total_size, MMU_SECTION_SIZE),
- reg = lmb_alloc(&lmb, size, MMU_SECTION_SIZE);
+ reg = lmb_alloc(size, MMU_SECTION_SIZE);
if (!reg)
reg = gd->ram_top - size;
*/
u8 early_tlb[PGTABLE_SIZE] __section(".data") __aligned(0x4000);
-struct lmb lmb;
-
u32 get_bootmode(void)
{
/* read bootmode from TAMP backup register */
i < (start >> MMU_SECTION_SHIFT) + (size >> MMU_SECTION_SHIFT);
i++) {
option = DCACHE_DEFAULT_OPTION;
- if (use_lmb && lmb_is_reserved_flags(&lmb, i << MMU_SECTION_SHIFT, LMB_NOMAP))
+ if (use_lmb && lmb_is_reserved_flags(i << MMU_SECTION_SHIFT, LMB_NOMAP))
option = 0; /* INVALID ENTRY in TLB */
set_section_dcache(i, option);
}
void enable_caches(void)
{
/* parse device tree when data cache is still activated */
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
/* I-cache is already enabled in start.S: icache_enable() not needed */
static ulong get_sp (void);
static void set_clocks_in_mhz (struct bd_info *kbd);
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 1024);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 1024);
}
int do_bootm_linux(int flag, struct bootm_info *bmi)
int ret;
struct bd_info *kbd;
void (*kernel) (struct bd_info *, ulong, ulong, ulong, ulong);
- struct lmb *lmb = &images->lmb;
/*
* allow the PREP bootm subcommand, it is required for bootm to work
return 1;
/* allocate space for kernel copy of board info */
- ret = boot_get_kbd (lmb, &kbd);
+ ret = boot_get_kbd(&kbd);
if (ret) {
puts("ERROR with allocation of kernel bd\n");
goto error;
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
static void boot_jump_linux(struct bootm_headers *images, int flag)
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, arch_get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(arch_get_sp(), gd->ram_top, 4096);
}
static void linux_cmdline_init(void)
}
#if CONFIG_IS_ENABLED(MIPS_BOOT_FDT) && CONFIG_IS_ENABLED(OF_LIBFDT)
- boot_fdt_add_mem_rsv_regions(&images->lmb, images->ft_addr);
- return boot_relocate_fdt(&images->lmb, &images->ft_addr,
- &images->ft_len);
+ boot_fdt_add_mem_rsv_regions(images->ft_addr);
+ return boot_relocate_fdt(&images->ft_addr, &images->ft_len);
#else
return 0;
#endif
images->initrd_start = virt_to_phys((void *)images->initrd_start);
images->initrd_end = virt_to_phys((void *)images->initrd_end);
- return image_setup_libfdt(images, images->ft_addr, &images->lmb);
+ return image_setup_libfdt(images, images->ft_addr, true);
}
static void boot_prep_linux(struct bootm_headers *images)
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
}
#endif
-void cpu_mp_lmb_reserve(struct lmb *lmb)
+void cpu_mp_lmb_reserve(void)
{
u32 bootpg = determine_mp_bootpg(NULL);
- lmb_reserve(lmb, bootpg, 4096);
+ lmb_reserve(bootpg, 4096);
}
void setup_mp(void)
#ifndef _ASM_MP_H_
#define _ASM_MP_H_
-#include <lmb.h>
-
void setup_mp(void);
-void cpu_mp_lmb_reserve(struct lmb *lmb);
+void cpu_mp_lmb_reserve(void);
u32 determine_mp_bootpg(unsigned int *pagesize);
int is_core_disabled(int nr);
return;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
phys_size_t bootm_size;
ulong size, bootmap_base;
ulong base = bootmap_base + size;
printf("WARNING: adjusting available memory from 0x%lx to 0x%llx\n",
size, (unsigned long long)bootm_size);
- lmb_reserve(lmb, base, bootm_size - size);
+ lmb_reserve(base, bootm_size - size);
}
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
#ifdef CONFIG_MP
- cpu_mp_lmb_reserve(lmb);
+ cpu_mp_lmb_reserve();
#endif
return;
static int boot_cmdline_linux(struct bootm_headers *images)
{
ulong of_size = images->ft_len;
- struct lmb *lmb = &images->lmb;
ulong *cmd_start = &images->cmdline_start;
ulong *cmd_end = &images->cmdline_end;
if (!of_size) {
/* allocate space and init command line */
- ret = boot_get_cmdline (lmb, cmd_start, cmd_end);
+ ret = boot_get_cmdline(cmd_start, cmd_end);
if (ret) {
puts("ERROR with allocation of cmdline\n");
return ret;
static int boot_bd_t_linux(struct bootm_headers *images)
{
ulong of_size = images->ft_len;
- struct lmb *lmb = &images->lmb;
struct bd_info **kbd = &images->kbd;
int ret = 0;
if (!of_size) {
/* allocate space for kernel copy of board info */
- ret = boot_get_kbd (lmb, kbd);
+ ret = boot_get_kbd(kbd);
if (ret) {
puts("ERROR with allocation of kernel bd\n");
return ret;
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
return ret;
}
-void arch_lmb_reserve(struct lmb *lmb)
+void arch_lmb_reserve(void)
{
- arch_lmb_reserve_generic(lmb, get_sp(), gd->ram_top, 4096);
+ arch_lmb_reserve_generic(get_sp(), gd->ram_top, 4096);
}
{
phys_size_t size;
phys_addr_t reg;
- struct lmb lmb;
if (!total_size)
return gd->ram_top;
panic("Not 64bit aligned DT location: %p\n", gd->fdt_blob);
/* found enough not-reserved memory to relocated U-Boot */
- lmb_init(&lmb);
- lmb_add(&lmb, gd->ram_base, gd->ram_size);
- boot_fdt_add_mem_rsv_regions(&lmb, (void *)gd->fdt_blob);
+ lmb_add(gd->ram_base, gd->ram_size);
+ boot_fdt_add_mem_rsv_regions((void *)gd->fdt_blob);
size = ALIGN(CONFIG_SYS_MALLOC_LEN + total_size, MMU_SECTION_SIZE);
- reg = lmb_alloc(&lmb, size, MMU_SECTION_SIZE);
+ reg = lmb_alloc(size, MMU_SECTION_SIZE);
if (!reg)
reg = gd->ram_top - size;
}
#ifdef CONFIG_LMB
-static void boot_start_lmb(struct bootm_headers *images)
+static void boot_start_lmb(void)
{
phys_addr_t mem_start;
phys_size_t mem_size;
mem_start = env_get_bootm_low();
mem_size = env_get_bootm_size();
- lmb_init_and_reserve_range(&images->lmb, mem_start,
- mem_size, NULL);
+ lmb_init_and_reserve_range(mem_start, mem_size, NULL);
}
#else
-#define lmb_reserve(lmb, base, size)
-static inline void boot_start_lmb(struct bootm_headers *images) { }
+#define lmb_reserve(base, size)
+static inline void boot_start_lmb(void) { }
#endif
static int bootm_start(void)
memset((void *)&images, 0, sizeof(images));
images.verify = env_get_yesno("verify");
- boot_start_lmb(&images);
+ boot_start_lmb();
bootstage_mark_name(BOOTSTAGE_ID_BOOTM_START, "bootm_start");
images.state = BOOTM_STATE_START;
if (os.type == IH_TYPE_KERNEL_NOLOAD && os.comp != IH_COMP_NONE) {
ulong req_size = ALIGN(image_len * 4, SZ_1M);
- load = lmb_alloc(&images->lmb, req_size, SZ_2M);
+ load = lmb_alloc(req_size, SZ_2M);
if (!load)
return 1;
os.load = load;
images->os.end = relocated_addr + image_size;
}
- lmb_reserve(&images->lmb, images->os.load, (load_end -
- images->os.load));
+ lmb_reserve(images->os.load, (load_end - images->os.load));
return 0;
}
if (!ret && (states & BOOTM_STATE_RAMDISK)) {
ulong rd_len = images->rd_end - images->rd_start;
- ret = boot_ramdisk_high(&images->lmb, images->rd_start,
- rd_len, &images->initrd_start, &images->initrd_end);
+ ret = boot_ramdisk_high(images->rd_start, rd_len,
+ &images->initrd_start,
+ &images->initrd_end);
if (!ret) {
env_set_hex("initrd_start", images->initrd_start);
env_set_hex("initrd_end", images->initrd_end);
#endif
#if CONFIG_IS_ENABLED(OF_LIBFDT) && defined(CONFIG_LMB)
if (!ret && (states & BOOTM_STATE_FDT)) {
- boot_fdt_add_mem_rsv_regions(&images->lmb, images->ft_addr);
- ret = boot_relocate_fdt(&images->lmb, &images->ft_addr,
- &images->ft_len);
+ boot_fdt_add_mem_rsv_regions(images->ft_addr);
+ ret = boot_relocate_fdt(&images->ft_addr, &images->ft_len);
}
#endif
char *bootline;
ulong of_size = images->ft_len;
char **of_flat_tree = &images->ft_addr;
- struct lmb *lmb = &images->lmb;
if (*of_flat_tree) {
- boot_fdt_add_mem_rsv_regions(lmb, *of_flat_tree);
+ boot_fdt_add_mem_rsv_regions(*of_flat_tree);
- ret = boot_relocate_fdt(lmb, of_flat_tree, &of_size);
+ ret = boot_relocate_fdt(of_flat_tree, &of_size);
if (ret)
return;
/**
* boot_ramdisk_high - relocate init ramdisk
- * @lmb: pointer to lmb handle, will be used for memory mgmt
* @rd_data: ramdisk data start address
* @rd_len: ramdisk data length
* @initrd_start: pointer to a ulong variable, will hold final init ramdisk
* 0 - success
* -1 - failure
*/
-int boot_ramdisk_high(struct lmb *lmb, ulong rd_data, ulong rd_len,
- ulong *initrd_start, ulong *initrd_end)
+int boot_ramdisk_high(ulong rd_data, ulong rd_len, ulong *initrd_start,
+ ulong *initrd_end)
{
char *s;
phys_addr_t initrd_high;
debug(" in-place initrd\n");
*initrd_start = rd_data;
*initrd_end = rd_data + rd_len;
- lmb_reserve(lmb, rd_data, rd_len);
+ lmb_reserve(rd_data, rd_len);
} else {
if (initrd_high)
- *initrd_start = (ulong)lmb_alloc_base(lmb,
- rd_len, 0x1000, initrd_high);
+ *initrd_start = (ulong)lmb_alloc_base(rd_len,
+ 0x1000,
+ initrd_high);
else
- *initrd_start = (ulong)lmb_alloc(lmb, rd_len,
+ *initrd_start = (ulong)lmb_alloc(rd_len,
0x1000);
if (*initrd_start == 0) {
/**
* boot_get_cmdline - allocate and initialize kernel cmdline
- * @lmb: pointer to lmb handle, will be used for memory mgmt
* @cmd_start: pointer to a ulong variable, will hold cmdline start
* @cmd_end: pointer to a ulong variable, will hold cmdline end
*
* 0 - success
* -1 - failure
*/
-int boot_get_cmdline(struct lmb *lmb, ulong *cmd_start, ulong *cmd_end)
+int boot_get_cmdline(ulong *cmd_start, ulong *cmd_end)
{
int barg;
char *cmdline;
return 0;
barg = IF_ENABLED_INT(CONFIG_SYS_BOOT_GET_CMDLINE, CONFIG_SYS_BARGSIZE);
- cmdline = (char *)(ulong)lmb_alloc_base(lmb, barg, 0xf,
+ cmdline = (char *)(ulong)lmb_alloc_base(barg, 0xf,
env_get_bootm_mapsize() + env_get_bootm_low());
if (!cmdline)
return -1;
/**
* boot_get_kbd - allocate and initialize kernel copy of board info
- * @lmb: pointer to lmb handle, will be used for memory mgmt
* @kbd: double pointer to board info data
*
* boot_get_kbd() allocates space for kernel copy of board info data below
* 0 - success
* -1 - failure
*/
-int boot_get_kbd(struct lmb *lmb, struct bd_info **kbd)
+int boot_get_kbd(struct bd_info **kbd)
{
- *kbd = (struct bd_info *)(ulong)lmb_alloc_base(lmb,
- sizeof(struct bd_info),
+ *kbd = (struct bd_info *)(ulong)lmb_alloc_base(sizeof(struct bd_info),
0xf,
env_get_bootm_mapsize() +
env_get_bootm_low());
{
ulong of_size = images->ft_len;
char **of_flat_tree = &images->ft_addr;
- struct lmb *lmb = images_lmb(images);
int ret;
/* This function cannot be called without lmb support */
if (!IS_ENABLED(CONFIG_LMB))
return -EFAULT;
if (CONFIG_IS_ENABLED(OF_LIBFDT))
- boot_fdt_add_mem_rsv_regions(lmb, *of_flat_tree);
+ boot_fdt_add_mem_rsv_regions(*of_flat_tree);
if (IS_ENABLED(CONFIG_SYS_BOOT_GET_CMDLINE)) {
- ret = boot_get_cmdline(lmb, &images->cmdline_start,
+ ret = boot_get_cmdline(&images->cmdline_start,
&images->cmdline_end);
if (ret) {
puts("ERROR with allocation of cmdline\n");
}
if (CONFIG_IS_ENABLED(OF_LIBFDT)) {
- ret = boot_relocate_fdt(lmb, of_flat_tree, &of_size);
+ ret = boot_relocate_fdt(of_flat_tree, &of_size);
if (ret)
return ret;
}
if (CONFIG_IS_ENABLED(OF_LIBFDT) && of_size) {
- ret = image_setup_libfdt(images, *of_flat_tree, lmb);
+ ret = image_setup_libfdt(images, *of_flat_tree, true);
if (ret)
return ret;
}
}
#endif
-static void boot_fdt_reserve_region(struct lmb *lmb, uint64_t addr,
- uint64_t size, enum lmb_flags flags)
+static void boot_fdt_reserve_region(u64 addr, u64 size, enum lmb_flags flags)
{
long ret;
- ret = lmb_reserve_flags(lmb, addr, size, flags);
+ ret = lmb_reserve_flags(addr, size, flags);
if (ret >= 0) {
debug(" reserving fdt memory region: addr=%llx size=%llx flags=%x\n",
(unsigned long long)addr,
/**
* boot_fdt_add_mem_rsv_regions - Mark the memreserve and reserved-memory
* sections as unusable
- * @lmb: pointer to lmb handle, will be used for memory mgmt
* @fdt_blob: pointer to fdt blob base address
*
* Adds the and reserved-memorymemreserve regions in the dtb to the lmb block.
* Adding the memreserve regions prevents u-boot from using them to store the
* initrd or the fdt blob.
*/
-void boot_fdt_add_mem_rsv_regions(struct lmb *lmb, void *fdt_blob)
+void boot_fdt_add_mem_rsv_regions(void *fdt_blob)
{
uint64_t addr, size;
int i, total, ret;
for (i = 0; i < total; i++) {
if (fdt_get_mem_rsv(fdt_blob, i, &addr, &size) != 0)
continue;
- boot_fdt_reserve_region(lmb, addr, size, LMB_NONE);
+ boot_fdt_reserve_region(addr, size, LMB_NONE);
}
/* process reserved-memory */
flags = LMB_NOMAP;
addr = res.start;
size = res.end - res.start + 1;
- boot_fdt_reserve_region(lmb, addr, size, flags);
+ boot_fdt_reserve_region(addr, size, flags);
}
subnode = fdt_next_subnode(fdt_blob, subnode);
/**
* boot_relocate_fdt - relocate flat device tree
- * @lmb: pointer to lmb handle, will be used for memory mgmt
* @of_flat_tree: pointer to a char* variable, will hold fdt start address
* @of_size: pointer to a ulong variable, will hold fdt length
*
* 0 - success
* 1 - failure
*/
-int boot_relocate_fdt(struct lmb *lmb, char **of_flat_tree, ulong *of_size)
+int boot_relocate_fdt(char **of_flat_tree, ulong *of_size)
{
u64 start, size, usable, addr, low, mapsize;
void *fdt_blob = *of_flat_tree;
if (desired_addr == ~0UL) {
/* All ones means use fdt in place */
of_start = fdt_blob;
- lmb_reserve(lmb, map_to_sysmem(of_start), of_len);
+ lmb_reserve(map_to_sysmem(of_start), of_len);
disable_relocation = 1;
} else if (desired_addr) {
- addr = lmb_alloc_base(lmb, of_len, 0x1000,
- desired_addr);
+ addr = lmb_alloc_base(of_len, 0x1000, desired_addr);
of_start = map_sysmem(addr, of_len);
if (of_start == NULL) {
puts("Failed using fdt_high value for Device Tree");
goto error;
}
} else {
- addr = lmb_alloc(lmb, of_len, 0x1000);
+ addr = lmb_alloc(of_len, 0x1000);
of_start = map_sysmem(addr, of_len);
}
} else {
* for LMB allocation.
*/
usable = min(start + size, low + mapsize);
- addr = lmb_alloc_base(lmb, of_len, 0x1000, usable);
+ addr = lmb_alloc_base(of_len, 0x1000, usable);
of_start = map_sysmem(addr, of_len);
/* Allocation succeeded, use this block. */
if (of_start != NULL)
return 0;
}
-int image_setup_libfdt(struct bootm_headers *images, void *blob,
- struct lmb *lmb)
+int image_setup_libfdt(struct bootm_headers *images, void *blob, bool lmb)
{
ulong *initrd_start = &images->initrd_start;
ulong *initrd_end = &images->initrd_end;
}
/* Delete the old LMB reservation */
- if (lmb)
- lmb_free(lmb, map_to_sysmem(blob), fdt_totalsize(blob));
+ if (CONFIG_IS_ENABLED(LMB) && lmb)
+ lmb_free(map_to_sysmem(blob), fdt_totalsize(blob));
ret = fdt_shrink_to_minimum(blob, 0);
if (ret < 0)
of_size = ret;
/* Create a new LMB reservation */
- if (lmb)
- lmb_reserve(lmb, map_to_sysmem(blob), of_size);
+ if (CONFIG_IS_ENABLED(LMB) && lmb)
+ lmb_reserve(map_to_sysmem(blob), of_size);
#if defined(CONFIG_ARCH_KEYSTONE)
if (IS_ENABLED(CONFIG_OF_BOARD_SETUP))
bdinfo_print_num_l("multi_dtb_fit", (ulong)gd->multi_dtb_fit);
#endif
if (IS_ENABLED(CONFIG_LMB) && gd->fdt_blob) {
- struct lmb lmb;
-
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
- lmb_dump_all_force(&lmb);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
+ lmb_dump_all_force();
if (IS_ENABLED(CONFIG_OF_REAL))
printf("devicetree = %s\n", fdtdec_get_srcname());
}
images->os.start = relocated_addr;
images->os.end = relocated_addr + image_size;
- lmb_reserve(&images->lmb, images->ep, le32_to_cpu(image_size));
+ lmb_reserve(images->ep, le32_to_cpu(image_size));
/*
* Handle the BOOTM_STATE_FINDOTHER state ourselves as we do not
if (ret != 0)
return 1;
- lmb_reserve(&images->lmb, images->ep, zi_end - zi_start);
+ lmb_reserve(images->ep, zi_end - zi_start);
/*
* Handle the BOOTM_STATE_FINDOTHER state ourselves as we do not
fdt_set_totalsize((void *)fdt_addr,
fdt_totalsize(fdt_addr) + CONFIG_SYS_FDT_PAD);
- if (image_setup_libfdt(&img, (void *)fdt_addr, NULL))
+ if (image_setup_libfdt(&img, (void *)fdt_addr, false))
return 1;
}
#endif
static ulong load_serial(long offset)
{
- struct lmb lmb;
char record[SREC_MAXRECLEN + 1]; /* buffer for one S-Record */
char binbuf[SREC_MAXBINLEN]; /* buffer for binary data */
int binlen; /* no. of data bytes in S-Rec. */
int line_count = 0;
long ret;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
while (read_record(record, SREC_MAXRECLEN + 1) >= 0) {
type = srec_decode(record, &binlen, &addr, binbuf);
{
void *dst;
- ret = lmb_reserve(&lmb, store_addr, binlen);
+ ret = lmb_reserve(store_addr, binlen);
if (ret) {
printf("\nCannot overwrite reserved area (%08lx..%08lx)\n",
store_addr, store_addr + binlen);
dst = map_sysmem(store_addr, binlen);
memcpy(dst, binbuf, binlen);
unmap_sysmem(dst);
- lmb_free(&lmb, store_addr, binlen);
+ lmb_free(store_addr, binlen);
}
if ((store_addr) < start_addr)
start_addr = store_addr;
struct apple_dart_priv {
void *base;
- struct lmb lmb;
u64 *l1, *l2;
int bypass, shift;
off = (phys_addr_t)addr - paddr;
psize = ALIGN(size + off, DART_PAGE_SIZE);
- dva = lmb_alloc(&priv->lmb, psize, DART_PAGE_SIZE);
+ dva = lmb_alloc(psize, DART_PAGE_SIZE);
idx = dva / DART_PAGE_SIZE;
for (i = 0; i < psize / DART_PAGE_SIZE; i++) {
(unsigned long)&priv->l2[idx + i]);
priv->flush_tlb(priv);
- lmb_free(&priv->lmb, dva, psize);
+ lmb_free(dva, psize);
}
static struct iommu_ops apple_dart_ops = {
priv->dvabase = DART_PAGE_SIZE;
priv->dvaend = SZ_4G - DART_PAGE_SIZE;
- lmb_init(&priv->lmb);
- lmb_add(&priv->lmb, priv->dvabase, priv->dvaend - priv->dvabase);
+ lmb_add(priv->dvabase, priv->dvaend - priv->dvabase);
/* Disable translations. */
for (sid = 0; sid < priv->nsid; sid++)
#define IOMMU_PAGE_SIZE SZ_4K
-struct sandbox_iommu_priv {
- struct lmb lmb;
-};
-
static dma_addr_t sandbox_iommu_map(struct udevice *dev, void *addr,
size_t size)
{
- struct sandbox_iommu_priv *priv = dev_get_priv(dev);
phys_addr_t paddr, dva;
phys_size_t psize, off;
off = virt_to_phys(addr) - paddr;
psize = ALIGN(size + off, IOMMU_PAGE_SIZE);
- dva = lmb_alloc(&priv->lmb, psize, IOMMU_PAGE_SIZE);
+ dva = lmb_alloc(psize, IOMMU_PAGE_SIZE);
return dva + off;
}
static void sandbox_iommu_unmap(struct udevice *dev, dma_addr_t addr,
size_t size)
{
- struct sandbox_iommu_priv *priv = dev_get_priv(dev);
phys_addr_t dva;
phys_size_t psize;
psize = size + (addr - dva);
psize = ALIGN(psize, IOMMU_PAGE_SIZE);
- lmb_free(&priv->lmb, dva, psize);
+ lmb_free(dva, psize);
}
static struct iommu_ops sandbox_iommu_ops = {
static int sandbox_iommu_probe(struct udevice *dev)
{
- struct sandbox_iommu_priv *priv = dev_get_priv(dev);
-
- lmb_init(&priv->lmb);
- lmb_add(&priv->lmb, 0x89abc000, SZ_16K);
+ lmb_add(0x89abc000, SZ_16K);
return 0;
}
.name = "sandbox_iommu",
.id = UCLASS_IOMMU,
.of_match = sandbox_iommu_ids,
- .priv_auto = sizeof(struct sandbox_iommu_priv),
.ops = &sandbox_iommu_ops,
.probe = sandbox_iommu_probe,
};
static int fs_read_lmb_check(const char *filename, ulong addr, loff_t offset,
loff_t len, struct fstype_info *info)
{
- struct lmb lmb;
int ret;
loff_t size;
loff_t read_len;
if (len && len < read_len)
read_len = len;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
- lmb_dump_all(&lmb);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
+ lmb_dump_all();
- if (lmb_alloc_addr(&lmb, addr, read_len) == addr)
+ if (lmb_alloc_addr(addr, read_len) == addr)
return 0;
log_err("** Reading file would overwrite reserved memory **\n");
#include <stdbool.h>
/* Define this to avoid #ifdefs later on */
-struct lmb;
struct fdt_region;
#ifdef USE_HOSTCC
#define BOOTM_STATE_PRE_LOAD 0x00000800
#define BOOTM_STATE_MEASURE 0x00001000
int state;
-
-#if defined(CONFIG_LMB) && !defined(USE_HOSTCC)
- struct lmb lmb; /* for memory mgmt */
-#endif
};
-#ifdef CONFIG_LMB
-#define images_lmb(_images) (&(_images)->lmb)
-#else
-#define images_lmb(_images) NULL
-#endif
-
extern struct bootm_headers images;
/*
struct bootm_headers *images, char **of_flat_tree,
ulong *of_size);
-void boot_fdt_add_mem_rsv_regions(struct lmb *lmb, void *fdt_blob);
-int boot_relocate_fdt(struct lmb *lmb, char **of_flat_tree, ulong *of_size);
+void boot_fdt_add_mem_rsv_regions(void *fdt_blob);
+int boot_relocate_fdt(char **of_flat_tree, ulong *of_size);
-int boot_ramdisk_high(struct lmb *lmb, ulong rd_data, ulong rd_len,
- ulong *initrd_start, ulong *initrd_end);
-int boot_get_cmdline(struct lmb *lmb, ulong *cmd_start, ulong *cmd_end);
-int boot_get_kbd(struct lmb *lmb, struct bd_info **kbd);
+int boot_ramdisk_high(ulong rd_data, ulong rd_len, ulong *initrd_start,
+ ulong *initrd_end);
+int boot_get_cmdline(ulong *cmd_start, ulong *cmd_end);
+int boot_get_kbd(struct bd_info **kbd);
/*******************************************************************/
/* Legacy format specific code (prefixed with image_) */
*
* @images: Images information
* @blob: FDT to update
- * @lmb: Points to logical memory block structure
+ * @lmb: Flag indicating use of lmb for reserving FDT memory region
* Return: 0 if ok, <0 on failure
*/
-int image_setup_libfdt(struct bootm_headers *images, void *blob,
- struct lmb *lmb);
+int image_setup_libfdt(struct bootm_headers *images, void *blob, bool lmb);
/**
* Set up the FDT to use for booting a kernel
#define _LINUX_LMB_H
#ifdef __KERNEL__
+#include <alist.h>
#include <asm/types.h>
#include <asm/u-boot.h>
#include <linux/bitops.h>
};
/**
- * struct lmb_property - Description of one region.
+ * struct lmb_region - Description of one region.
*
* @base: Base address of the region.
* @size: Size of the region
* @flags: memory region attributes
*/
-struct lmb_property {
+struct lmb_region {
phys_addr_t base;
phys_size_t size;
enum lmb_flags flags;
};
-/*
- * For regions size management, see LMB configuration in KConfig
- * all the #if test are done with CONFIG_LMB_USE_MAX_REGIONS (boolean)
- *
- * case 1. CONFIG_LMB_USE_MAX_REGIONS is defined (legacy mode)
- * => CONFIG_LMB_MAX_REGIONS is used to configure the region size,
- * directly in the array lmb_region.region[], with the same
- * configuration for memory and reserved regions.
- *
- * case 2. CONFIG_LMB_USE_MAX_REGIONS is not defined, the size of each
- * region is configurated *independently* with
- * => CONFIG_LMB_MEMORY_REGIONS: struct lmb.memory_regions
- * => CONFIG_LMB_RESERVED_REGIONS: struct lmb.reserved_regions
- * lmb_region.region is only a pointer to the correct buffer,
- * initialized in lmb_init(). This configuration is useful to manage
- * more reserved memory regions with CONFIG_LMB_RESERVED_REGIONS.
- */
-
/**
- * struct lmb_region - Description of a set of region.
+ * struct lmb - The LMB structure
*
- * @cnt: Number of regions.
- * @max: Size of the region array, max value of cnt.
- * @region: Array of the region properties
+ * @free_mem: List of free memory regions
+ * @used_mem: List of used/reserved memory regions
*/
-struct lmb_region {
- unsigned long cnt;
- unsigned long max;
-#if IS_ENABLED(CONFIG_LMB_USE_MAX_REGIONS)
- struct lmb_property region[CONFIG_LMB_MAX_REGIONS];
-#else
- struct lmb_property *region;
-#endif
+struct lmb {
+ struct alist free_mem;
+ struct alist used_mem;
};
/**
- * struct lmb - Logical memory block handle.
+ * lmb_init() - Initialise the LMB module
*
- * Clients provide storage for Logical memory block (lmb) handles.
- * The content of the structure is managed by the lmb library.
- * A lmb struct is initialized by lmb_init() functions.
- * The lmb struct is passed to all other lmb APIs.
+ * Initialise the LMB lists needed for keeping the memory map. There
+ * are two lists, in form of alloced list data structure. One for the
+ * available memory, and one for the used memory. Initialise the two
+ * lists as part of board init. Add memory to the available memory
+ * list and reserve common areas by adding them to the used memory
+ * list.
*
- * @memory: Description of memory regions.
- * @reserved: Description of reserved regions.
- * @memory_regions: Array of the memory regions (statically allocated)
- * @reserved_regions: Array of the reserved regions (statically allocated)
+ * Return: 0 on success, -ve on error
*/
-struct lmb {
- struct lmb_region memory;
- struct lmb_region reserved;
-#if !IS_ENABLED(CONFIG_LMB_USE_MAX_REGIONS)
- struct lmb_property memory_regions[CONFIG_LMB_MEMORY_REGIONS];
- struct lmb_property reserved_regions[CONFIG_LMB_RESERVED_REGIONS];
-#endif
-};
+int lmb_init(void);
-void lmb_init(struct lmb *lmb);
-void lmb_init_and_reserve(struct lmb *lmb, struct bd_info *bd, void *fdt_blob);
-void lmb_init_and_reserve_range(struct lmb *lmb, phys_addr_t base,
- phys_size_t size, void *fdt_blob);
-long lmb_add(struct lmb *lmb, phys_addr_t base, phys_size_t size);
-long lmb_reserve(struct lmb *lmb, phys_addr_t base, phys_size_t size);
+void lmb_init_and_reserve(struct bd_info *bd, void *fdt_blob);
+void lmb_init_and_reserve_range(phys_addr_t base, phys_size_t size,
+ void *fdt_blob);
+long lmb_add(phys_addr_t base, phys_size_t size);
+long lmb_reserve(phys_addr_t base, phys_size_t size);
/**
* lmb_reserve_flags - Reserve one region with a specific flags bitfield.
*
- * @lmb: the logical memory block struct
* @base: base address of the memory region
* @size: size of the memory region
* @flags: flags for the memory region
* Return: 0 if OK, > 0 for coalesced region or a negative error code.
*/
-long lmb_reserve_flags(struct lmb *lmb, phys_addr_t base,
- phys_size_t size, enum lmb_flags flags);
-phys_addr_t lmb_alloc(struct lmb *lmb, phys_size_t size, ulong align);
-phys_addr_t lmb_alloc_base(struct lmb *lmb, phys_size_t size, ulong align,
- phys_addr_t max_addr);
-phys_addr_t lmb_alloc_addr(struct lmb *lmb, phys_addr_t base, phys_size_t size);
-phys_size_t lmb_get_free_size(struct lmb *lmb, phys_addr_t addr);
+long lmb_reserve_flags(phys_addr_t base, phys_size_t size,
+ enum lmb_flags flags);
+phys_addr_t lmb_alloc(phys_size_t size, ulong align);
+phys_addr_t lmb_alloc_base(phys_size_t size, ulong align, phys_addr_t max_addr);
+phys_addr_t lmb_alloc_addr(phys_addr_t base, phys_size_t size);
+phys_size_t lmb_get_free_size(phys_addr_t addr);
/**
* lmb_is_reserved_flags() - test if address is in reserved region with flag bits set
* The function checks if a reserved region comprising @addr exists which has
* all flag bits set which are set in @flags.
*
- * @lmb: the logical memory block struct
* @addr: address to be tested
* @flags: bitmap with bits to be tested
* Return: 1 if matching reservation exists, 0 otherwise
*/
-int lmb_is_reserved_flags(struct lmb *lmb, phys_addr_t addr, int flags);
+int lmb_is_reserved_flags(phys_addr_t addr, int flags);
+
+long lmb_free(phys_addr_t base, phys_size_t size);
-long lmb_free(struct lmb *lmb, phys_addr_t base, phys_size_t size);
+void lmb_dump_all(void);
+void lmb_dump_all_force(void);
-void lmb_dump_all(struct lmb *lmb);
-void lmb_dump_all_force(struct lmb *lmb);
+void board_lmb_reserve(void);
+void arch_lmb_reserve(void);
+void arch_lmb_reserve_generic(ulong sp, ulong end, ulong align);
-void board_lmb_reserve(struct lmb *lmb);
-void arch_lmb_reserve(struct lmb *lmb);
-void arch_lmb_reserve_generic(struct lmb *lmb, ulong sp, ulong end, ulong align);
+struct lmb *lmb_get(void);
+int lmb_push(struct lmb *store);
+void lmb_pop(struct lmb *store);
#endif /* __KERNEL__ */
}
fdt_set_totalsize(dtb, *buffer_size);
- if (image_setup_libfdt(&img, dtb, NULL)) {
+ if (image_setup_libfdt(&img, dtb, false)) {
log_err("failed to process device tree\n");
ret = EFI_INVALID_PARAMETER;
goto out;
return EFI_OUT_OF_RESOURCES;
}
- if (image_setup_libfdt(&img, fdt, NULL)) {
+ if (image_setup_libfdt(&img, fdt, false)) {
log_err("ERROR: failed to process device tree\n");
return EFI_LOAD_ERROR;
}
* Copyright (C) 2001 Peter Bergner.
*/
+#include <alist.h>
#include <efi_loader.h>
#include <image.h>
#include <mapmem.h>
#include <asm/global_data.h>
#include <asm/sections.h>
+#include <linux/kernel.h>
DECLARE_GLOBAL_DATA_PTR;
#define LMB_ALLOC_ANYWHERE 0
+#define LMB_ALIST_INITIAL_SIZE 4
-static void lmb_dump_region(struct lmb_region *rgn, char *name)
+static struct lmb lmb;
+
+static void lmb_dump_region(struct alist *lmb_rgn_lst, char *name)
{
+ struct lmb_region *rgn = lmb_rgn_lst->data;
unsigned long long base, size, end;
enum lmb_flags flags;
int i;
- printf(" %s.cnt = 0x%lx / max = 0x%lx\n", name, rgn->cnt, rgn->max);
+ printf(" %s.count = 0x%x\n", name, lmb_rgn_lst->count);
- for (i = 0; i < rgn->cnt; i++) {
- base = rgn->region[i].base;
- size = rgn->region[i].size;
+ for (i = 0; i < lmb_rgn_lst->count; i++) {
+ base = rgn[i].base;
+ size = rgn[i].size;
end = base + size - 1;
- flags = rgn->region[i].flags;
+ flags = rgn[i].flags;
printf(" %s[%d]\t[0x%llx-0x%llx], 0x%08llx bytes flags: %x\n",
name, i, base, end, size, flags);
}
}
-void lmb_dump_all_force(struct lmb *lmb)
+void lmb_dump_all_force(void)
{
printf("lmb_dump_all:\n");
- lmb_dump_region(&lmb->memory, "memory");
- lmb_dump_region(&lmb->reserved, "reserved");
+ lmb_dump_region(&lmb.free_mem, "memory");
+ lmb_dump_region(&lmb.used_mem, "reserved");
}
-void lmb_dump_all(struct lmb *lmb)
+void lmb_dump_all(void)
{
#ifdef DEBUG
- lmb_dump_all_force(lmb);
+ lmb_dump_all_force();
#endif
}
return 0;
}
-static long lmb_regions_overlap(struct lmb_region *rgn, unsigned long r1,
+static long lmb_regions_overlap(struct alist *lmb_rgn_lst, unsigned long r1,
unsigned long r2)
{
- phys_addr_t base1 = rgn->region[r1].base;
- phys_size_t size1 = rgn->region[r1].size;
- phys_addr_t base2 = rgn->region[r2].base;
- phys_size_t size2 = rgn->region[r2].size;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
+
+ phys_addr_t base1 = rgn[r1].base;
+ phys_size_t size1 = rgn[r1].size;
+ phys_addr_t base2 = rgn[r2].base;
+ phys_size_t size2 = rgn[r2].size;
return lmb_addrs_overlap(base1, size1, base2, size2);
}
-static long lmb_regions_adjacent(struct lmb_region *rgn, unsigned long r1,
+
+static long lmb_regions_adjacent(struct alist *lmb_rgn_lst, unsigned long r1,
unsigned long r2)
{
- phys_addr_t base1 = rgn->region[r1].base;
- phys_size_t size1 = rgn->region[r1].size;
- phys_addr_t base2 = rgn->region[r2].base;
- phys_size_t size2 = rgn->region[r2].size;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
+
+ phys_addr_t base1 = rgn[r1].base;
+ phys_size_t size1 = rgn[r1].size;
+ phys_addr_t base2 = rgn[r2].base;
+ phys_size_t size2 = rgn[r2].size;
return lmb_addrs_adjacent(base1, size1, base2, size2);
}
-static void lmb_remove_region(struct lmb_region *rgn, unsigned long r)
+static void lmb_remove_region(struct alist *lmb_rgn_lst, unsigned long r)
{
unsigned long i;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
- for (i = r; i < rgn->cnt - 1; i++) {
- rgn->region[i].base = rgn->region[i + 1].base;
- rgn->region[i].size = rgn->region[i + 1].size;
- rgn->region[i].flags = rgn->region[i + 1].flags;
+ for (i = r; i < lmb_rgn_lst->count - 1; i++) {
+ rgn[i].base = rgn[i + 1].base;
+ rgn[i].size = rgn[i + 1].size;
+ rgn[i].flags = rgn[i + 1].flags;
}
- rgn->cnt--;
+ lmb_rgn_lst->count--;
}
/* Assumption: base addr of region 1 < base addr of region 2 */
-static void lmb_coalesce_regions(struct lmb_region *rgn, unsigned long r1,
+static void lmb_coalesce_regions(struct alist *lmb_rgn_lst, unsigned long r1,
unsigned long r2)
{
- rgn->region[r1].size += rgn->region[r2].size;
- lmb_remove_region(rgn, r2);
+ struct lmb_region *rgn = lmb_rgn_lst->data;
+
+ rgn[r1].size += rgn[r2].size;
+ lmb_remove_region(lmb_rgn_lst, r2);
}
/*Assumption : base addr of region 1 < base addr of region 2*/
-static void lmb_fix_over_lap_regions(struct lmb_region *rgn, unsigned long r1,
- unsigned long r2)
+static void lmb_fix_over_lap_regions(struct alist *lmb_rgn_lst,
+ unsigned long r1, unsigned long r2)
{
- phys_addr_t base1 = rgn->region[r1].base;
- phys_size_t size1 = rgn->region[r1].size;
- phys_addr_t base2 = rgn->region[r2].base;
- phys_size_t size2 = rgn->region[r2].size;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
+
+ phys_addr_t base1 = rgn[r1].base;
+ phys_size_t size1 = rgn[r1].size;
+ phys_addr_t base2 = rgn[r2].base;
+ phys_size_t size2 = rgn[r2].size;
if (base1 + size1 > base2 + size2) {
printf("This will not be a case any time\n");
return;
}
- rgn->region[r1].size = base2 + size2 - base1;
- lmb_remove_region(rgn, r2);
+ rgn[r1].size = base2 + size2 - base1;
+ lmb_remove_region(lmb_rgn_lst, r2);
}
-void lmb_init(struct lmb *lmb)
-{
-#if IS_ENABLED(CONFIG_LMB_USE_MAX_REGIONS)
- lmb->memory.max = CONFIG_LMB_MAX_REGIONS;
- lmb->reserved.max = CONFIG_LMB_MAX_REGIONS;
-#else
- lmb->memory.max = CONFIG_LMB_MEMORY_REGIONS;
- lmb->reserved.max = CONFIG_LMB_RESERVED_REGIONS;
- lmb->memory.region = lmb->memory_regions;
- lmb->reserved.region = lmb->reserved_regions;
-#endif
- lmb->memory.cnt = 0;
- lmb->reserved.cnt = 0;
-}
-
-void arch_lmb_reserve_generic(struct lmb *lmb, ulong sp, ulong end, ulong align)
+void arch_lmb_reserve_generic(ulong sp, ulong end, ulong align)
{
ulong bank_end;
int bank;
if (bank_end > end)
bank_end = end - 1;
- lmb_reserve(lmb, sp, bank_end - sp + 1);
+ lmb_reserve(sp, bank_end - sp + 1);
if (gd->flags & GD_FLG_SKIP_RELOC)
- lmb_reserve(lmb, (phys_addr_t)(uintptr_t)_start, gd->mon_len);
+ lmb_reserve((phys_addr_t)(uintptr_t)_start, gd->mon_len);
break;
}
* Add reservations for all EFI memory areas that are not
* EFI_CONVENTIONAL_MEMORY.
*
- * @lmb: lmb environment
* Return: 0 on success, 1 on failure
*/
-static __maybe_unused int efi_lmb_reserve(struct lmb *lmb)
+static __maybe_unused int efi_lmb_reserve(void)
{
struct efi_mem_desc *memmap = NULL, *map;
efi_uintn_t i, map_size = 0;
for (i = 0, map = memmap; i < map_size / sizeof(*map); ++map, ++i) {
if (map->type != EFI_CONVENTIONAL_MEMORY) {
- lmb_reserve_flags(lmb,
- map_to_sysmem((void *)(uintptr_t)
+ lmb_reserve_flags(map_to_sysmem((void *)(uintptr_t)
map->physical_start),
map->num_pages * EFI_PAGE_SIZE,
map->type == EFI_RESERVED_MEMORY_TYPE
return 0;
}
-static void lmb_reserve_common(struct lmb *lmb, void *fdt_blob)
+static void lmb_reserve_common(void *fdt_blob)
{
- arch_lmb_reserve(lmb);
- board_lmb_reserve(lmb);
+ arch_lmb_reserve();
+ board_lmb_reserve();
if (CONFIG_IS_ENABLED(OF_LIBFDT) && fdt_blob)
- boot_fdt_add_mem_rsv_regions(lmb, fdt_blob);
+ boot_fdt_add_mem_rsv_regions(fdt_blob);
if (CONFIG_IS_ENABLED(EFI_LOADER))
- efi_lmb_reserve(lmb);
+ efi_lmb_reserve();
}
/* Initialize the struct, add memory and call arch/board reserve functions */
-void lmb_init_and_reserve(struct lmb *lmb, struct bd_info *bd, void *fdt_blob)
+void lmb_init_and_reserve(struct bd_info *bd, void *fdt_blob)
{
int i;
- lmb_init(lmb);
-
for (i = 0; i < CONFIG_NR_DRAM_BANKS; i++) {
- if (bd->bi_dram[i].size) {
- lmb_add(lmb, bd->bi_dram[i].start,
- bd->bi_dram[i].size);
- }
+ if (bd->bi_dram[i].size)
+ lmb_add(bd->bi_dram[i].start, bd->bi_dram[i].size);
}
- lmb_reserve_common(lmb, fdt_blob);
+ lmb_reserve_common(fdt_blob);
}
/* Initialize the struct, add memory and call arch/board reserve functions */
-void lmb_init_and_reserve_range(struct lmb *lmb, phys_addr_t base,
- phys_size_t size, void *fdt_blob)
+void lmb_init_and_reserve_range(phys_addr_t base, phys_size_t size,
+ void *fdt_blob)
{
- lmb_init(lmb);
- lmb_add(lmb, base, size);
- lmb_reserve_common(lmb, fdt_blob);
+ lmb_add(base, size);
+ lmb_reserve_common(fdt_blob);
}
-/* This routine called with relocation disabled. */
-static long lmb_add_region_flags(struct lmb_region *rgn, phys_addr_t base,
+/**
+ * lmb_add_region_flags() - Add an lmb region to the given list
+ * @lmb_rgn_lst: LMB list to which region is to be added(free/used)
+ * @base: Start address of the region
+ * @size: Size of the region to be added
+ * @flags: Attributes of the LMB region
+ *
+ * Add a region of memory to the list. If the region does not exist, add
+ * it to the list. Depending on the attributes of the region to be added,
+ * the function might resize an already existing region or coalesce two
+ * adjacent regions.
+ *
+ *
+ * Returns: 0 if the region addition successful, -1 on failure
+ */
+static long lmb_add_region_flags(struct alist *lmb_rgn_lst, phys_addr_t base,
phys_size_t size, enum lmb_flags flags)
{
unsigned long coalesced = 0;
long adjacent, i;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
- if (rgn->cnt == 0) {
- rgn->region[0].base = base;
- rgn->region[0].size = size;
- rgn->region[0].flags = flags;
- rgn->cnt = 1;
- return 0;
- }
+ if (alist_err(lmb_rgn_lst))
+ return -1;
/* First try and coalesce this LMB with another. */
- for (i = 0; i < rgn->cnt; i++) {
- phys_addr_t rgnbase = rgn->region[i].base;
- phys_size_t rgnsize = rgn->region[i].size;
- phys_size_t rgnflags = rgn->region[i].flags;
+ for (i = 0; i < lmb_rgn_lst->count; i++) {
+ phys_addr_t rgnbase = rgn[i].base;
+ phys_size_t rgnsize = rgn[i].size;
+ phys_size_t rgnflags = rgn[i].flags;
phys_addr_t end = base + size - 1;
phys_addr_t rgnend = rgnbase + rgnsize - 1;
if (rgnbase <= base && end <= rgnend) {
if (adjacent > 0) {
if (flags != rgnflags)
break;
- rgn->region[i].base -= size;
- rgn->region[i].size += size;
+ rgn[i].base -= size;
+ rgn[i].size += size;
coalesced++;
break;
} else if (adjacent < 0) {
if (flags != rgnflags)
break;
- rgn->region[i].size += size;
+ rgn[i].size += size;
coalesced++;
break;
} else if (lmb_addrs_overlap(base, size, rgnbase, rgnsize)) {
}
}
- if (i < rgn->cnt - 1 && rgn->region[i].flags == rgn->region[i + 1].flags) {
- if (lmb_regions_adjacent(rgn, i, i + 1)) {
- lmb_coalesce_regions(rgn, i, i + 1);
- coalesced++;
- } else if (lmb_regions_overlap(rgn, i, i + 1)) {
- /* fix overlapping area */
- lmb_fix_over_lap_regions(rgn, i, i + 1);
- coalesced++;
+ if (lmb_rgn_lst->count && i < lmb_rgn_lst->count - 1) {
+ rgn = lmb_rgn_lst->data;
+ if (rgn[i].flags == rgn[i + 1].flags) {
+ if (lmb_regions_adjacent(lmb_rgn_lst, i, i + 1)) {
+ lmb_coalesce_regions(lmb_rgn_lst, i, i + 1);
+ coalesced++;
+ } else if (lmb_regions_overlap(lmb_rgn_lst, i, i + 1)) {
+ /* fix overlapping area */
+ lmb_fix_over_lap_regions(lmb_rgn_lst, i, i + 1);
+ coalesced++;
+ }
}
}
if (coalesced)
return coalesced;
- if (rgn->cnt >= rgn->max)
+
+ if (alist_full(lmb_rgn_lst) &&
+ !alist_expand_by(lmb_rgn_lst, lmb_rgn_lst->alloc))
return -1;
+ rgn = lmb_rgn_lst->data;
/* Couldn't coalesce the LMB, so add it to the sorted table. */
- for (i = rgn->cnt-1; i >= 0; i--) {
- if (base < rgn->region[i].base) {
- rgn->region[i + 1].base = rgn->region[i].base;
- rgn->region[i + 1].size = rgn->region[i].size;
- rgn->region[i + 1].flags = rgn->region[i].flags;
+ for (i = lmb_rgn_lst->count; i >= 0; i--) {
+ if (i && base < rgn[i - 1].base) {
+ rgn[i] = rgn[i - 1];
} else {
- rgn->region[i + 1].base = base;
- rgn->region[i + 1].size = size;
- rgn->region[i + 1].flags = flags;
+ rgn[i].base = base;
+ rgn[i].size = size;
+ rgn[i].flags = flags;
break;
}
}
- if (base < rgn->region[0].base) {
- rgn->region[0].base = base;
- rgn->region[0].size = size;
- rgn->region[0].flags = flags;
- }
-
- rgn->cnt++;
+ lmb_rgn_lst->count++;
return 0;
}
-static long lmb_add_region(struct lmb_region *rgn, phys_addr_t base,
+static long lmb_add_region(struct alist *lmb_rgn_lst, phys_addr_t base,
phys_size_t size)
{
- return lmb_add_region_flags(rgn, base, size, LMB_NONE);
+ return lmb_add_region_flags(lmb_rgn_lst, base, size, LMB_NONE);
}
/* This routine may be called with relocation disabled. */
-long lmb_add(struct lmb *lmb, phys_addr_t base, phys_size_t size)
+long lmb_add(phys_addr_t base, phys_size_t size)
{
- struct lmb_region *_rgn = &(lmb->memory);
+ struct alist *lmb_rgn_lst = &lmb.free_mem;
- return lmb_add_region(_rgn, base, size);
+ return lmb_add_region(lmb_rgn_lst, base, size);
}
-long lmb_free(struct lmb *lmb, phys_addr_t base, phys_size_t size)
+long lmb_free(phys_addr_t base, phys_size_t size)
{
- struct lmb_region *rgn = &(lmb->reserved);
+ struct lmb_region *rgn;
+ struct alist *lmb_rgn_lst = &lmb.used_mem;
phys_addr_t rgnbegin, rgnend;
phys_addr_t end = base + size - 1;
int i;
rgnbegin = rgnend = 0; /* supress gcc warnings */
-
+ rgn = lmb_rgn_lst->data;
/* Find the region where (base, size) belongs to */
- for (i = 0; i < rgn->cnt; i++) {
- rgnbegin = rgn->region[i].base;
- rgnend = rgnbegin + rgn->region[i].size - 1;
+ for (i = 0; i < lmb_rgn_lst->count; i++) {
+ rgnbegin = rgn[i].base;
+ rgnend = rgnbegin + rgn[i].size - 1;
if ((rgnbegin <= base) && (end <= rgnend))
break;
}
/* Didn't find the region */
- if (i == rgn->cnt)
+ if (i == lmb_rgn_lst->count)
return -1;
/* Check to see if we are removing entire region */
if ((rgnbegin == base) && (rgnend == end)) {
- lmb_remove_region(rgn, i);
+ lmb_remove_region(lmb_rgn_lst, i);
return 0;
}
/* Check to see if region is matching at the front */
if (rgnbegin == base) {
- rgn->region[i].base = end + 1;
- rgn->region[i].size -= size;
+ rgn[i].base = end + 1;
+ rgn[i].size -= size;
return 0;
}
/* Check to see if the region is matching at the end */
if (rgnend == end) {
- rgn->region[i].size -= size;
+ rgn[i].size -= size;
return 0;
}
* We need to split the entry - adjust the current one to the
* beginging of the hole and add the region after hole.
*/
- rgn->region[i].size = base - rgn->region[i].base;
- return lmb_add_region_flags(rgn, end + 1, rgnend - end,
- rgn->region[i].flags);
+ rgn[i].size = base - rgn[i].base;
+ return lmb_add_region_flags(lmb_rgn_lst, end + 1, rgnend - end,
+ rgn[i].flags);
}
-long lmb_reserve_flags(struct lmb *lmb, phys_addr_t base, phys_size_t size,
- enum lmb_flags flags)
+long lmb_reserve_flags(phys_addr_t base, phys_size_t size, enum lmb_flags flags)
{
- struct lmb_region *_rgn = &(lmb->reserved);
+ struct alist *lmb_rgn_lst = &lmb.used_mem;
- return lmb_add_region_flags(_rgn, base, size, flags);
+ return lmb_add_region_flags(lmb_rgn_lst, base, size, flags);
}
-long lmb_reserve(struct lmb *lmb, phys_addr_t base, phys_size_t size)
+long lmb_reserve(phys_addr_t base, phys_size_t size)
{
- return lmb_reserve_flags(lmb, base, size, LMB_NONE);
+ return lmb_reserve_flags(base, size, LMB_NONE);
}
-static long lmb_overlaps_region(struct lmb_region *rgn, phys_addr_t base,
+static long lmb_overlaps_region(struct alist *lmb_rgn_lst, phys_addr_t base,
phys_size_t size)
{
unsigned long i;
+ struct lmb_region *rgn = lmb_rgn_lst->data;
- for (i = 0; i < rgn->cnt; i++) {
- phys_addr_t rgnbase = rgn->region[i].base;
- phys_size_t rgnsize = rgn->region[i].size;
+ for (i = 0; i < lmb_rgn_lst->count; i++) {
+ phys_addr_t rgnbase = rgn[i].base;
+ phys_size_t rgnsize = rgn[i].size;
if (lmb_addrs_overlap(base, size, rgnbase, rgnsize))
break;
}
- return (i < rgn->cnt) ? i : -1;
+ return (i < lmb_rgn_lst->count) ? i : -1;
}
static phys_addr_t lmb_align_down(phys_addr_t addr, phys_size_t size)
return addr & ~(size - 1);
}
-static phys_addr_t __lmb_alloc_base(struct lmb *lmb, phys_size_t size,
- ulong align, phys_addr_t max_addr)
+static phys_addr_t __lmb_alloc_base(phys_size_t size, ulong align,
+ phys_addr_t max_addr)
{
long i, rgn;
phys_addr_t base = 0;
phys_addr_t res_base;
+ struct lmb_region *lmb_used = lmb.used_mem.data;
+ struct lmb_region *lmb_memory = lmb.free_mem.data;
- for (i = lmb->memory.cnt - 1; i >= 0; i--) {
- phys_addr_t lmbbase = lmb->memory.region[i].base;
- phys_size_t lmbsize = lmb->memory.region[i].size;
+ for (i = lmb.free_mem.count - 1; i >= 0; i--) {
+ phys_addr_t lmbbase = lmb_memory[i].base;
+ phys_size_t lmbsize = lmb_memory[i].size;
if (lmbsize < size)
continue;
continue;
while (base && lmbbase <= base) {
- rgn = lmb_overlaps_region(&lmb->reserved, base, size);
+ rgn = lmb_overlaps_region(&lmb.used_mem, base, size);
if (rgn < 0) {
/* This area isn't reserved, take it */
- if (lmb_add_region(&lmb->reserved, base,
+ if (lmb_add_region(&lmb.used_mem, base,
size) < 0)
return 0;
return base;
}
- res_base = lmb->reserved.region[rgn].base;
+
+ res_base = lmb_used[rgn].base;
if (res_base < size)
break;
base = lmb_align_down(res_base - size, align);
return 0;
}
-phys_addr_t lmb_alloc(struct lmb *lmb, phys_size_t size, ulong align)
+phys_addr_t lmb_alloc(phys_size_t size, ulong align)
{
- return lmb_alloc_base(lmb, size, align, LMB_ALLOC_ANYWHERE);
+ return lmb_alloc_base(size, align, LMB_ALLOC_ANYWHERE);
}
-phys_addr_t lmb_alloc_base(struct lmb *lmb, phys_size_t size, ulong align, phys_addr_t max_addr)
+phys_addr_t lmb_alloc_base(phys_size_t size, ulong align, phys_addr_t max_addr)
{
phys_addr_t alloc;
- alloc = __lmb_alloc_base(lmb, size, align, max_addr);
+ alloc = __lmb_alloc_base(size, align, max_addr);
if (alloc == 0)
printf("ERROR: Failed to allocate 0x%lx bytes below 0x%lx.\n",
* Try to allocate a specific address range: must be in defined memory but not
* reserved
*/
-phys_addr_t lmb_alloc_addr(struct lmb *lmb, phys_addr_t base, phys_size_t size)
+phys_addr_t lmb_alloc_addr(phys_addr_t base, phys_size_t size)
{
long rgn;
+ struct lmb_region *lmb_memory = lmb.free_mem.data;
/* Check if the requested address is in one of the memory regions */
- rgn = lmb_overlaps_region(&lmb->memory, base, size);
+ rgn = lmb_overlaps_region(&lmb.free_mem, base, size);
if (rgn >= 0) {
/*
* Check if the requested end address is in the same memory
* region we found.
*/
- if (lmb_addrs_overlap(lmb->memory.region[rgn].base,
- lmb->memory.region[rgn].size,
+ if (lmb_addrs_overlap(lmb_memory[rgn].base,
+ lmb_memory[rgn].size,
base + size - 1, 1)) {
/* ok, reserve the memory */
- if (lmb_reserve(lmb, base, size) >= 0)
+ if (lmb_reserve(base, size) >= 0)
return base;
}
}
}
/* Return number of bytes from a given address that are free */
-phys_size_t lmb_get_free_size(struct lmb *lmb, phys_addr_t addr)
+phys_size_t lmb_get_free_size(phys_addr_t addr)
{
int i;
long rgn;
+ struct lmb_region *lmb_used = lmb.used_mem.data;
+ struct lmb_region *lmb_memory = lmb.free_mem.data;
/* check if the requested address is in the memory regions */
- rgn = lmb_overlaps_region(&lmb->memory, addr, 1);
+ rgn = lmb_overlaps_region(&lmb.free_mem, addr, 1);
if (rgn >= 0) {
- for (i = 0; i < lmb->reserved.cnt; i++) {
- if (addr < lmb->reserved.region[i].base) {
+ for (i = 0; i < lmb.used_mem.count; i++) {
+ if (addr < lmb_used[i].base) {
/* first reserved range > requested address */
- return lmb->reserved.region[i].base - addr;
+ return lmb_used[i].base - addr;
}
- if (lmb->reserved.region[i].base +
- lmb->reserved.region[i].size > addr) {
+ if (lmb_used[i].base +
+ lmb_used[i].size > addr) {
/* requested addr is in this reserved range */
return 0;
}
}
/* if we come here: no reserved ranges above requested addr */
- return lmb->memory.region[lmb->memory.cnt - 1].base +
- lmb->memory.region[lmb->memory.cnt - 1].size - addr;
+ return lmb_memory[lmb.free_mem.count - 1].base +
+ lmb_memory[lmb.free_mem.count - 1].size - addr;
}
return 0;
}
-int lmb_is_reserved_flags(struct lmb *lmb, phys_addr_t addr, int flags)
+int lmb_is_reserved_flags(phys_addr_t addr, int flags)
{
int i;
+ struct lmb_region *lmb_used = lmb.used_mem.data;
- for (i = 0; i < lmb->reserved.cnt; i++) {
- phys_addr_t upper = lmb->reserved.region[i].base +
- lmb->reserved.region[i].size - 1;
- if ((addr >= lmb->reserved.region[i].base) && (addr <= upper))
- return (lmb->reserved.region[i].flags & flags) == flags;
+ for (i = 0; i < lmb.used_mem.count; i++) {
+ phys_addr_t upper = lmb_used[i].base +
+ lmb_used[i].size - 1;
+ if (addr >= lmb_used[i].base && addr <= upper)
+ return (lmb_used[i].flags & flags) == flags;
}
return 0;
}
-__weak void board_lmb_reserve(struct lmb *lmb)
+__weak void board_lmb_reserve(void)
{
/* please define platform specific board_lmb_reserve() */
}
-__weak void arch_lmb_reserve(struct lmb *lmb)
+__weak void arch_lmb_reserve(void)
{
/* please define platform specific arch_lmb_reserve() */
}
+
+static int lmb_setup(void)
+{
+ bool ret;
+
+ ret = alist_init(&lmb.free_mem, sizeof(struct lmb_region),
+ (uint)LMB_ALIST_INITIAL_SIZE);
+ if (!ret) {
+ log_debug("Unable to initialise the list for LMB free memory\n");
+ return -ENOMEM;
+ }
+
+ ret = alist_init(&lmb.used_mem, sizeof(struct lmb_region),
+ (uint)LMB_ALIST_INITIAL_SIZE);
+ if (!ret) {
+ log_debug("Unable to initialise the list for LMB used memory\n");
+ return -ENOMEM;
+ }
+
+ return 0;
+}
+
+/**
+ * lmb_init() - Initialise the LMB module
+ *
+ * Initialise the LMB lists needed for keeping the memory map. There
+ * are two lists, in form of alloced list data structure. One for the
+ * available memory, and one for the used memory. Initialise the two
+ * lists as part of board init. Add memory to the available memory
+ * list and reserve common areas by adding them to the used memory
+ * list.
+ *
+ * Return: 0 on success, -ve on error
+ */
+int lmb_init(void)
+{
+ int ret;
+
+ ret = lmb_setup();
+ if (ret) {
+ log_info("Unable to init LMB\n");
+ return ret;
+ }
+
+ return 0;
+}
+
+#if CONFIG_IS_ENABLED(UNIT_TEST)
+struct lmb *lmb_get(void)
+{
+ return &lmb;
+}
+
+int lmb_push(struct lmb *store)
+{
+ int ret;
+
+ *store = lmb;
+ ret = lmb_setup();
+ if (ret)
+ return ret;
+
+ return 0;
+}
+
+void lmb_pop(struct lmb *store)
+{
+ alist_uninit(&lmb.free_mem);
+ alist_uninit(&lmb.used_mem);
+ lmb = *store;
+}
+#endif /* UNIT_TEST */
static int tftp_init_load_addr(void)
{
#ifdef CONFIG_LMB
- struct lmb lmb;
phys_size_t max_size;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
- max_size = lmb_get_free_size(&lmb, image_load_addr);
+ max_size = lmb_get_free_size(image_load_addr);
if (!max_size)
return -1;
*/
static int wget_init_load_size(void)
{
- struct lmb lmb;
phys_size_t max_size;
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
+ lmb_init_and_reserve(gd->bd, (void *)gd->fdt_blob);
- max_size = lmb_get_free_size(&lmb, image_load_addr);
+ max_size = lmb_get_free_size(image_load_addr);
if (!max_size)
return -1;
* Copyright 2023 Marek Vasut <marek.vasut+renesas@mailbox.org>
*/
+#include <alist.h>
#include <console.h>
#include <mapmem.h>
#include <asm/global_data.h>
}
static int lmb_test_dump_region(struct unit_test_state *uts,
- struct lmb_region *rgn, char *name)
+ struct alist *lmb_rgn_lst, char *name)
{
+ struct lmb_region *rgn = lmb_rgn_lst->data;
unsigned long long base, size, end;
enum lmb_flags flags;
int i;
- ut_assert_nextline(" %s.cnt = 0x%lx / max = 0x%lx", name, rgn->cnt, rgn->max);
+ ut_assert_nextline(" %s.count = 0x%hx", name, lmb_rgn_lst->count);
- for (i = 0; i < rgn->cnt; i++) {
- base = rgn->region[i].base;
- size = rgn->region[i].size;
+ for (i = 0; i < lmb_rgn_lst->count; i++) {
+ base = rgn[i].base;
+ size = rgn[i].size;
end = base + size - 1;
- flags = rgn->region[i].flags;
-
- /*
- * this entry includes the stack (get_sp()) on many platforms
- * so will different each time lmb_init_and_reserve() is called.
- * We could instead have the bdinfo command put its lmb region
- * in a known location, so we can check it directly, rather than
- * calling lmb_init_and_reserve() to create a new (and hopefully
- * identical one). But for now this seems good enough.
- */
+ flags = rgn[i].flags;
+
if (!IS_ENABLED(CONFIG_SANDBOX) && i == 3) {
ut_assert_nextlinen(" %s[%d]\t[", name, i);
continue;
}
- ut_assert_nextline(" %s[%d]\t[0x%llx-0x%llx], 0x%08llx bytes flags: %x",
- name, i, base, end, size, flags);
+ ut_assert_nextlinen(" %s[%d]\t[0x%llx-0x%llx], 0x%08llx bytes flags: ",
+ name, i, base, end, size);
}
return 0;
}
-static int lmb_test_dump_all(struct unit_test_state *uts, struct lmb *lmb)
+static int lmb_test_dump_all(struct unit_test_state *uts)
{
+ struct lmb *lmb = lmb_get();
+
ut_assert_nextline("lmb_dump_all:");
- ut_assertok(lmb_test_dump_region(uts, &lmb->memory, "memory"));
- ut_assertok(lmb_test_dump_region(uts, &lmb->reserved, "reserved"));
+ ut_assertok(lmb_test_dump_region(uts, &lmb->free_mem, "memory"));
+ ut_assertok(lmb_test_dump_region(uts, &lmb->used_mem, "reserved"));
return 0;
}
#endif
if (IS_ENABLED(CONFIG_LMB) && gd->fdt_blob) {
- struct lmb lmb;
-
- lmb_init_and_reserve(&lmb, gd->bd, (void *)gd->fdt_blob);
- ut_assertok(lmb_test_dump_all(uts, &lmb));
+ ut_assertok(lmb_test_dump_all(uts));
if (IS_ENABLED(CONFIG_OF_REAL))
ut_assert_nextline("devicetree = %s", fdtdec_get_srcname());
}
* (C) Copyright 2018 Simon Goldschmidt
*/
+#include <alist.h>
#include <dm.h>
#include <lmb.h>
#include <log.h>
#include <test/test.h>
#include <test/ut.h>
-static inline bool lmb_is_nomap(struct lmb_property *m)
+static inline bool lmb_is_nomap(struct lmb_region *m)
{
return m->flags & LMB_NOMAP;
}
-static int check_lmb(struct unit_test_state *uts, struct lmb *lmb,
- phys_addr_t ram_base, phys_size_t ram_size,
- unsigned long num_reserved,
+static int check_lmb(struct unit_test_state *uts, struct alist *mem_lst,
+ struct alist *used_lst, phys_addr_t ram_base,
+ phys_size_t ram_size, unsigned long num_reserved,
phys_addr_t base1, phys_size_t size1,
phys_addr_t base2, phys_size_t size2,
phys_addr_t base3, phys_size_t size3)
{
+ struct lmb_region *mem, *used;
+
+ mem = mem_lst->data;
+ used = used_lst->data;
+
if (ram_size) {
- ut_asserteq(lmb->memory.cnt, 1);
- ut_asserteq(lmb->memory.region[0].base, ram_base);
- ut_asserteq(lmb->memory.region[0].size, ram_size);
+ ut_asserteq(mem_lst->count, 1);
+ ut_asserteq(mem[0].base, ram_base);
+ ut_asserteq(mem[0].size, ram_size);
}
- ut_asserteq(lmb->reserved.cnt, num_reserved);
+ ut_asserteq(used_lst->count, num_reserved);
if (num_reserved > 0) {
- ut_asserteq(lmb->reserved.region[0].base, base1);
- ut_asserteq(lmb->reserved.region[0].size, size1);
+ ut_asserteq(used[0].base, base1);
+ ut_asserteq(used[0].size, size1);
}
if (num_reserved > 1) {
- ut_asserteq(lmb->reserved.region[1].base, base2);
- ut_asserteq(lmb->reserved.region[1].size, size2);
+ ut_asserteq(used[1].base, base2);
+ ut_asserteq(used[1].size, size2);
}
if (num_reserved > 2) {
- ut_asserteq(lmb->reserved.region[2].base, base3);
- ut_asserteq(lmb->reserved.region[2].size, size3);
+ ut_asserteq(used[2].base, base3);
+ ut_asserteq(used[2].size, size3);
}
return 0;
}
-#define ASSERT_LMB(lmb, ram_base, ram_size, num_reserved, base1, size1, \
+#define ASSERT_LMB(mem_lst, used_lst, ram_base, ram_size, num_reserved, base1, size1, \
base2, size2, base3, size3) \
- ut_assert(!check_lmb(uts, lmb, ram_base, ram_size, \
+ ut_assert(!check_lmb(uts, mem_lst, used_lst, ram_base, ram_size, \
num_reserved, base1, size1, base2, size2, base3, \
size3))
-/*
- * Test helper function that reserves 64 KiB somewhere in the simulated RAM and
- * then does some alloc + free tests.
- */
+static int setup_lmb_test(struct unit_test_state *uts, struct lmb *store,
+ struct alist **mem_lstp, struct alist **used_lstp)
+{
+ struct lmb *lmb;
+
+ ut_assertok(lmb_push(store));
+ lmb = lmb_get();
+ *mem_lstp = &lmb->free_mem;
+ *used_lstp = &lmb->used_mem;
+
+ return 0;
+}
+
static int test_multi_alloc(struct unit_test_state *uts, const phys_addr_t ram,
const phys_size_t ram_size, const phys_addr_t ram0,
const phys_size_t ram0_size,
const phys_addr_t ram_end = ram + ram_size;
const phys_addr_t alloc_64k_end = alloc_64k_addr + 0x10000;
- struct lmb lmb;
long ret;
+ struct alist *mem_lst, *used_lst;
+ struct lmb_region *mem, *used;
phys_addr_t a, a2, b, b2, c, d;
+ struct lmb store;
/* check for overflow */
ut_assert(ram_end == 0 || ram_end > ram);
ut_assert(alloc_64k_addr >= ram + 8);
ut_assert(alloc_64k_end <= ram_end - 8);
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
+ mem = mem_lst->data;
+ used = used_lst->data;
if (ram0_size) {
- ret = lmb_add(&lmb, ram0, ram0_size);
+ ret = lmb_add(ram0, ram0_size);
ut_asserteq(ret, 0);
}
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
if (ram0_size) {
- ut_asserteq(lmb.memory.cnt, 2);
- ut_asserteq(lmb.memory.region[0].base, ram0);
- ut_asserteq(lmb.memory.region[0].size, ram0_size);
- ut_asserteq(lmb.memory.region[1].base, ram);
- ut_asserteq(lmb.memory.region[1].size, ram_size);
+ ut_asserteq(mem_lst->count, 2);
+ ut_asserteq(mem[0].base, ram0);
+ ut_asserteq(mem[0].size, ram0_size);
+ ut_asserteq(mem[1].base, ram);
+ ut_asserteq(mem[1].size, ram_size);
} else {
- ut_asserteq(lmb.memory.cnt, 1);
- ut_asserteq(lmb.memory.region[0].base, ram);
- ut_asserteq(lmb.memory.region[0].size, ram_size);
+ ut_asserteq(mem_lst->count, 1);
+ ut_asserteq(mem[0].base, ram);
+ ut_asserteq(mem[0].size, ram_size);
}
/* reserve 64KiB somewhere */
- ret = lmb_reserve(&lmb, alloc_64k_addr, 0x10000);
+ ret = lmb_reserve(alloc_64k_addr, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 1, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 1, alloc_64k_addr, 0x10000,
0, 0, 0, 0);
/* allocate somewhere, should be at the end of RAM */
- a = lmb_alloc(&lmb, 4, 1);
+ a = lmb_alloc(4, 1);
ut_asserteq(a, ram_end - 4);
- ASSERT_LMB(&lmb, 0, 0, 2, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2, alloc_64k_addr, 0x10000,
ram_end - 4, 4, 0, 0);
/* alloc below end of reserved region -> below reserved region */
- b = lmb_alloc_base(&lmb, 4, 1, alloc_64k_end);
+ b = lmb_alloc_base(4, 1, alloc_64k_end);
ut_asserteq(b, alloc_64k_addr - 4);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 4, 0x10000 + 4, ram_end - 4, 4, 0, 0);
/* 2nd time */
- c = lmb_alloc(&lmb, 4, 1);
+ c = lmb_alloc(4, 1);
ut_asserteq(c, ram_end - 8);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 4, 0x10000 + 4, ram_end - 8, 8, 0, 0);
- d = lmb_alloc_base(&lmb, 4, 1, alloc_64k_end);
+ d = lmb_alloc_base(4, 1, alloc_64k_end);
ut_asserteq(d, alloc_64k_addr - 8);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 0x10000 + 8, ram_end - 8, 8, 0, 0);
- ret = lmb_free(&lmb, a, 4);
+ ret = lmb_free(a, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 0x10000 + 8, ram_end - 8, 4, 0, 0);
/* allocate again to ensure we get the same address */
- a2 = lmb_alloc(&lmb, 4, 1);
+ a2 = lmb_alloc(4, 1);
ut_asserteq(a, a2);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 0x10000 + 8, ram_end - 8, 8, 0, 0);
- ret = lmb_free(&lmb, a2, 4);
+ ret = lmb_free(a2, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 0x10000 + 8, ram_end - 8, 4, 0, 0);
- ret = lmb_free(&lmb, b, 4);
+ ret = lmb_free(b, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 3,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 3,
alloc_64k_addr - 8, 4, alloc_64k_addr, 0x10000,
ram_end - 8, 4);
/* allocate again to ensure we get the same address */
- b2 = lmb_alloc_base(&lmb, 4, 1, alloc_64k_end);
+ b2 = lmb_alloc_base(4, 1, alloc_64k_end);
ut_asserteq(b, b2);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 0x10000 + 8, ram_end - 8, 4, 0, 0);
- ret = lmb_free(&lmb, b2, 4);
+ ret = lmb_free(b2, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 3,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 3,
alloc_64k_addr - 8, 4, alloc_64k_addr, 0x10000,
ram_end - 8, 4);
- ret = lmb_free(&lmb, c, 4);
+ ret = lmb_free(c, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 2,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 2,
alloc_64k_addr - 8, 4, alloc_64k_addr, 0x10000, 0, 0);
- ret = lmb_free(&lmb, d, 4);
+ ret = lmb_free(d, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, 0, 0, 1, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, 0, 0, 1, alloc_64k_addr, 0x10000,
0, 0, 0, 0);
if (ram0_size) {
- ut_asserteq(lmb.memory.cnt, 2);
- ut_asserteq(lmb.memory.region[0].base, ram0);
- ut_asserteq(lmb.memory.region[0].size, ram0_size);
- ut_asserteq(lmb.memory.region[1].base, ram);
- ut_asserteq(lmb.memory.region[1].size, ram_size);
+ ut_asserteq(mem_lst->count, 2);
+ ut_asserteq(mem[0].base, ram0);
+ ut_asserteq(mem[0].size, ram0_size);
+ ut_asserteq(mem[1].base, ram);
+ ut_asserteq(mem[1].size, ram_size);
} else {
- ut_asserteq(lmb.memory.cnt, 1);
- ut_asserteq(lmb.memory.region[0].base, ram);
- ut_asserteq(lmb.memory.region[0].size, ram_size);
+ ut_asserteq(mem_lst->count, 1);
+ ut_asserteq(mem[0].base, ram);
+ ut_asserteq(mem[0].size, ram_size);
}
+ lmb_pop(&store);
+
return 0;
}
const phys_size_t big_block_size = 0x10000000;
const phys_addr_t ram_end = ram + ram_size;
const phys_addr_t alloc_64k_addr = ram + 0x10000000;
- struct lmb lmb;
+ struct alist *mem_lst, *used_lst;
long ret;
phys_addr_t a, b;
+ struct lmb store;
/* check for overflow */
ut_assert(ram_end == 0 || ram_end > ram);
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
/* reserve 64KiB in the middle of RAM */
- ret = lmb_reserve(&lmb, alloc_64k_addr, 0x10000);
+ ret = lmb_reserve(alloc_64k_addr, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, alloc_64k_addr, 0x10000,
0, 0, 0, 0);
/* allocate a big block, should be below reserved */
- a = lmb_alloc(&lmb, big_block_size, 1);
+ a = lmb_alloc(big_block_size, 1);
ut_asserteq(a, ram);
- ASSERT_LMB(&lmb, ram, ram_size, 1, a,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, a,
big_block_size + 0x10000, 0, 0, 0, 0);
/* allocate 2nd big block */
/* This should fail, printing an error */
- b = lmb_alloc(&lmb, big_block_size, 1);
+ b = lmb_alloc(big_block_size, 1);
ut_asserteq(b, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, a,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, a,
big_block_size + 0x10000, 0, 0, 0, 0);
- ret = lmb_free(&lmb, a, big_block_size);
+ ret = lmb_free(a, big_block_size);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, alloc_64k_addr, 0x10000,
0, 0, 0, 0);
/* allocate too big block */
/* This should fail, printing an error */
- a = lmb_alloc(&lmb, ram_size, 1);
+ a = lmb_alloc(ram_size, 1);
ut_asserteq(a, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, alloc_64k_addr, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, alloc_64k_addr, 0x10000,
0, 0, 0, 0);
+ lmb_pop(&store);
+
return 0;
}
{
const phys_size_t ram_size = 0x20000000;
const phys_addr_t ram_end = ram + ram_size;
- struct lmb lmb;
long ret;
phys_addr_t a, b;
+ struct lmb store;
+ struct alist *mem_lst, *used_lst;
const phys_addr_t alloc_size_aligned = (alloc_size + align - 1) &
~(align - 1);
/* check for overflow */
ut_assert(ram_end == 0 || ram_end > ram);
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
/* allocate a block */
- a = lmb_alloc(&lmb, alloc_size, align);
+ a = lmb_alloc(alloc_size, align);
ut_assert(a != 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram + ram_size - alloc_size_aligned,
- alloc_size, 0, 0, 0, 0);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1,
+ ram + ram_size - alloc_size_aligned, alloc_size, 0, 0, 0, 0);
+
/* allocate another block */
- b = lmb_alloc(&lmb, alloc_size, align);
+ b = lmb_alloc(alloc_size, align);
ut_assert(b != 0);
if (alloc_size == alloc_size_aligned) {
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram + ram_size -
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram + ram_size -
(alloc_size_aligned * 2), alloc_size * 2, 0, 0, 0,
0);
} else {
- ASSERT_LMB(&lmb, ram, ram_size, 2, ram + ram_size -
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, ram + ram_size -
(alloc_size_aligned * 2), alloc_size, ram + ram_size
- alloc_size_aligned, alloc_size, 0, 0);
}
/* and free them */
- ret = lmb_free(&lmb, b, alloc_size);
+ ret = lmb_free(b, alloc_size);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram + ram_size - alloc_size_aligned,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1,
+ ram + ram_size - alloc_size_aligned,
alloc_size, 0, 0, 0, 0);
- ret = lmb_free(&lmb, a, alloc_size);
+ ret = lmb_free(a, alloc_size);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
/* allocate a block with base*/
- b = lmb_alloc_base(&lmb, alloc_size, align, ram_end);
+ b = lmb_alloc_base(alloc_size, align, ram_end);
ut_assert(a == b);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram + ram_size - alloc_size_aligned,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1,
+ ram + ram_size - alloc_size_aligned,
alloc_size, 0, 0, 0, 0);
/* and free it */
- ret = lmb_free(&lmb, b, alloc_size);
+ ret = lmb_free(b, alloc_size);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+
+ lmb_pop(&store);
return 0;
}
{
const phys_addr_t ram = 0;
const phys_size_t ram_size = 0x20000000;
- struct lmb lmb;
+ struct lmb store;
+ struct alist *mem_lst, *used_lst;
long ret;
phys_addr_t a, b;
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
/* allocate nearly everything */
- a = lmb_alloc(&lmb, ram_size - 4, 1);
+ a = lmb_alloc(ram_size - 4, 1);
ut_asserteq(a, ram + 4);
- ASSERT_LMB(&lmb, ram, ram_size, 1, a, ram_size - 4,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, a, ram_size - 4,
0, 0, 0, 0);
/* allocate the rest */
/* This should fail as the allocated address would be 0 */
- b = lmb_alloc(&lmb, 4, 1);
+ b = lmb_alloc(4, 1);
ut_asserteq(b, 0);
/* check that this was an error by checking lmb */
- ASSERT_LMB(&lmb, ram, ram_size, 1, a, ram_size - 4,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, a, ram_size - 4,
0, 0, 0, 0);
/* check that this was an error by freeing b */
- ret = lmb_free(&lmb, b, 4);
+ ret = lmb_free(b, 4);
ut_asserteq(ret, -1);
- ASSERT_LMB(&lmb, ram, ram_size, 1, a, ram_size - 4,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, a, ram_size - 4,
0, 0, 0, 0);
- ret = lmb_free(&lmb, a, ram_size - 4);
+ ret = lmb_free(a, ram_size - 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 0, 0, 0, 0, 0, 0, 0);
+
+ lmb_pop(&store);
return 0;
}
{
const phys_addr_t ram = 0x40000000;
const phys_size_t ram_size = 0x20000000;
- struct lmb lmb;
+ struct lmb store;
+ struct alist *mem_lst, *used_lst;
long ret;
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
- ret = lmb_reserve(&lmb, 0x40010000, 0x10000);
+ ret = lmb_reserve(0x40010000, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x10000,
0, 0, 0, 0);
- /* allocate overlapping region should fail */
- ret = lmb_reserve(&lmb, 0x40011000, 0x10000);
- ut_asserteq(ret, -1);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x10000,
+
+ /* allocate overlapping region should return the coalesced count */
+ ret = lmb_reserve(0x40011000, 0x10000);
+ ut_asserteq(ret, 1);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x11000,
0, 0, 0, 0);
/* allocate 3nd region */
- ret = lmb_reserve(&lmb, 0x40030000, 0x10000);
+ ret = lmb_reserve(0x40030000, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 2, 0x40010000, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, 0x40010000, 0x11000,
0x40030000, 0x10000, 0, 0);
/* allocate 2nd region , This should coalesced all region into one */
- ret = lmb_reserve(&lmb, 0x40020000, 0x10000);
+ ret = lmb_reserve(0x40020000, 0x10000);
ut_assert(ret >= 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x30000,
0, 0, 0, 0);
/* allocate 2nd region, which should be added as first region */
- ret = lmb_reserve(&lmb, 0x40000000, 0x8000);
+ ret = lmb_reserve(0x40000000, 0x8000);
ut_assert(ret >= 0);
- ASSERT_LMB(&lmb, ram, ram_size, 2, 0x40000000, 0x8000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, 0x40000000, 0x8000,
0x40010000, 0x30000, 0, 0);
/* allocate 3rd region, coalesce with first and overlap with second */
- ret = lmb_reserve(&lmb, 0x40008000, 0x10000);
+ ret = lmb_reserve(0x40008000, 0x10000);
ut_assert(ret >= 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40000000, 0x40000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40000000, 0x40000,
0, 0, 0, 0);
+
+ lmb_pop(&store);
+
return 0;
}
LIB_TEST(lib_test_lmb_overlapping_reserve, 0);
*/
static int test_alloc_addr(struct unit_test_state *uts, const phys_addr_t ram)
{
+ struct lmb store;
+ struct alist *mem_lst, *used_lst;
const phys_size_t ram_size = 0x20000000;
const phys_addr_t ram_end = ram + ram_size;
const phys_size_t alloc_addr_a = ram + 0x8000000;
const phys_size_t alloc_addr_b = ram + 0x8000000 * 2;
const phys_size_t alloc_addr_c = ram + 0x8000000 * 3;
- struct lmb lmb;
long ret;
phys_addr_t a, b, c, d, e;
/* check for overflow */
ut_assert(ram_end == 0 || ram_end > ram);
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
/* reserve 3 blocks */
- ret = lmb_reserve(&lmb, alloc_addr_a, 0x10000);
+ ret = lmb_reserve(alloc_addr_a, 0x10000);
ut_asserteq(ret, 0);
- ret = lmb_reserve(&lmb, alloc_addr_b, 0x10000);
+ ret = lmb_reserve(alloc_addr_b, 0x10000);
ut_asserteq(ret, 0);
- ret = lmb_reserve(&lmb, alloc_addr_c, 0x10000);
+ ret = lmb_reserve(alloc_addr_c, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 3, alloc_addr_a, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 3, alloc_addr_a, 0x10000,
alloc_addr_b, 0x10000, alloc_addr_c, 0x10000);
/* allocate blocks */
- a = lmb_alloc_addr(&lmb, ram, alloc_addr_a - ram);
+ a = lmb_alloc_addr(ram, alloc_addr_a - ram);
ut_asserteq(a, ram);
- ASSERT_LMB(&lmb, ram, ram_size, 3, ram, 0x8010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 3, ram, 0x8010000,
alloc_addr_b, 0x10000, alloc_addr_c, 0x10000);
- b = lmb_alloc_addr(&lmb, alloc_addr_a + 0x10000,
+ b = lmb_alloc_addr(alloc_addr_a + 0x10000,
alloc_addr_b - alloc_addr_a - 0x10000);
ut_asserteq(b, alloc_addr_a + 0x10000);
- ASSERT_LMB(&lmb, ram, ram_size, 2, ram, 0x10010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, ram, 0x10010000,
alloc_addr_c, 0x10000, 0, 0);
- c = lmb_alloc_addr(&lmb, alloc_addr_b + 0x10000,
+ c = lmb_alloc_addr(alloc_addr_b + 0x10000,
alloc_addr_c - alloc_addr_b - 0x10000);
ut_asserteq(c, alloc_addr_b + 0x10000);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, 0x18010000,
0, 0, 0, 0);
- d = lmb_alloc_addr(&lmb, alloc_addr_c + 0x10000,
+ d = lmb_alloc_addr(alloc_addr_c + 0x10000,
ram_end - alloc_addr_c - 0x10000);
ut_asserteq(d, alloc_addr_c + 0x10000);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, ram_size,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, ram_size,
0, 0, 0, 0);
/* allocating anything else should fail */
- e = lmb_alloc(&lmb, 1, 1);
+ e = lmb_alloc(1, 1);
ut_asserteq(e, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, ram_size,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, ram_size,
0, 0, 0, 0);
- ret = lmb_free(&lmb, d, ram_end - alloc_addr_c - 0x10000);
+ ret = lmb_free(d, ram_end - alloc_addr_c - 0x10000);
ut_asserteq(ret, 0);
/* allocate at 3 points in free range */
- d = lmb_alloc_addr(&lmb, ram_end - 4, 4);
+ d = lmb_alloc_addr(ram_end - 4, 4);
ut_asserteq(d, ram_end - 4);
- ASSERT_LMB(&lmb, ram, ram_size, 2, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, ram, 0x18010000,
d, 4, 0, 0);
- ret = lmb_free(&lmb, d, 4);
+ ret = lmb_free(d, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, 0x18010000,
0, 0, 0, 0);
- d = lmb_alloc_addr(&lmb, ram_end - 128, 4);
+ d = lmb_alloc_addr(ram_end - 128, 4);
ut_asserteq(d, ram_end - 128);
- ASSERT_LMB(&lmb, ram, ram_size, 2, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, ram, 0x18010000,
d, 4, 0, 0);
- ret = lmb_free(&lmb, d, 4);
+ ret = lmb_free(d, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, 0x18010000,
0, 0, 0, 0);
- d = lmb_alloc_addr(&lmb, alloc_addr_c + 0x10000, 4);
+ d = lmb_alloc_addr(alloc_addr_c + 0x10000, 4);
ut_asserteq(d, alloc_addr_c + 0x10000);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, 0x18010004,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, 0x18010004,
0, 0, 0, 0);
- ret = lmb_free(&lmb, d, 4);
+ ret = lmb_free(d, 4);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram, 0x18010000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram, 0x18010000,
0, 0, 0, 0);
/* allocate at the bottom */
- ret = lmb_free(&lmb, a, alloc_addr_a - ram);
+ ret = lmb_free(a, alloc_addr_a - ram);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, ram + 0x8000000, 0x10010000,
- 0, 0, 0, 0);
- d = lmb_alloc_addr(&lmb, ram, 4);
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, ram + 0x8000000,
+ 0x10010000, 0, 0, 0, 0);
+
+ d = lmb_alloc_addr(ram, 4);
ut_asserteq(d, ram);
- ASSERT_LMB(&lmb, ram, ram_size, 2, d, 4,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, d, 4,
ram + 0x8000000, 0x10010000, 0, 0);
/* check that allocating outside memory fails */
if (ram_end != 0) {
- ret = lmb_alloc_addr(&lmb, ram_end, 1);
+ ret = lmb_alloc_addr(ram_end, 1);
ut_asserteq(ret, 0);
}
if (ram != 0) {
- ret = lmb_alloc_addr(&lmb, ram - 1, 1);
+ ret = lmb_alloc_addr(ram - 1, 1);
ut_asserteq(ret, 0);
}
+ lmb_pop(&store);
+
return 0;
}
static int test_get_unreserved_size(struct unit_test_state *uts,
const phys_addr_t ram)
{
+ struct lmb store;
+ struct alist *mem_lst, *used_lst;
const phys_size_t ram_size = 0x20000000;
const phys_addr_t ram_end = ram + ram_size;
const phys_size_t alloc_addr_a = ram + 0x8000000;
const phys_size_t alloc_addr_b = ram + 0x8000000 * 2;
const phys_size_t alloc_addr_c = ram + 0x8000000 * 3;
- struct lmb lmb;
long ret;
phys_size_t s;
/* check for overflow */
ut_assert(ram_end == 0 || ram_end > ram);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
- lmb_init(&lmb);
-
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
/* reserve 3 blocks */
- ret = lmb_reserve(&lmb, alloc_addr_a, 0x10000);
+ ret = lmb_reserve(alloc_addr_a, 0x10000);
ut_asserteq(ret, 0);
- ret = lmb_reserve(&lmb, alloc_addr_b, 0x10000);
+ ret = lmb_reserve(alloc_addr_b, 0x10000);
ut_asserteq(ret, 0);
- ret = lmb_reserve(&lmb, alloc_addr_c, 0x10000);
+ ret = lmb_reserve(alloc_addr_c, 0x10000);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 3, alloc_addr_a, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 3, alloc_addr_a, 0x10000,
alloc_addr_b, 0x10000, alloc_addr_c, 0x10000);
/* check addresses in between blocks */
- s = lmb_get_free_size(&lmb, ram);
+ s = lmb_get_free_size(ram);
ut_asserteq(s, alloc_addr_a - ram);
- s = lmb_get_free_size(&lmb, ram + 0x10000);
+ s = lmb_get_free_size(ram + 0x10000);
ut_asserteq(s, alloc_addr_a - ram - 0x10000);
- s = lmb_get_free_size(&lmb, alloc_addr_a - 4);
+ s = lmb_get_free_size(alloc_addr_a - 4);
ut_asserteq(s, 4);
- s = lmb_get_free_size(&lmb, alloc_addr_a + 0x10000);
+ s = lmb_get_free_size(alloc_addr_a + 0x10000);
ut_asserteq(s, alloc_addr_b - alloc_addr_a - 0x10000);
- s = lmb_get_free_size(&lmb, alloc_addr_a + 0x20000);
+ s = lmb_get_free_size(alloc_addr_a + 0x20000);
ut_asserteq(s, alloc_addr_b - alloc_addr_a - 0x20000);
- s = lmb_get_free_size(&lmb, alloc_addr_b - 4);
+ s = lmb_get_free_size(alloc_addr_b - 4);
ut_asserteq(s, 4);
- s = lmb_get_free_size(&lmb, alloc_addr_c + 0x10000);
+ s = lmb_get_free_size(alloc_addr_c + 0x10000);
ut_asserteq(s, ram_end - alloc_addr_c - 0x10000);
- s = lmb_get_free_size(&lmb, alloc_addr_c + 0x20000);
+ s = lmb_get_free_size(alloc_addr_c + 0x20000);
ut_asserteq(s, ram_end - alloc_addr_c - 0x20000);
- s = lmb_get_free_size(&lmb, ram_end - 4);
+ s = lmb_get_free_size(ram_end - 4);
ut_asserteq(s, 4);
+ lmb_pop(&store);
+
return 0;
}
}
LIB_TEST(lib_test_lmb_get_free_size, 0);
-#ifdef CONFIG_LMB_USE_MAX_REGIONS
-static int lib_test_lmb_max_regions(struct unit_test_state *uts)
-{
- const phys_addr_t ram = 0x00000000;
- /*
- * All of 32bit memory space will contain regions for this test, so
- * we need to scale ram_size (which in this case is the size of the lmb
- * region) to match.
- */
- const phys_size_t ram_size = ((0xFFFFFFFF >> CONFIG_LMB_MAX_REGIONS)
- + 1) * CONFIG_LMB_MAX_REGIONS;
- const phys_size_t blk_size = 0x10000;
- phys_addr_t offset;
- struct lmb lmb;
- int ret, i;
-
- lmb_init(&lmb);
-
- ut_asserteq(lmb.memory.cnt, 0);
- ut_asserteq(lmb.memory.max, CONFIG_LMB_MAX_REGIONS);
- ut_asserteq(lmb.reserved.cnt, 0);
- ut_asserteq(lmb.reserved.max, CONFIG_LMB_MAX_REGIONS);
-
- /* Add CONFIG_LMB_MAX_REGIONS memory regions */
- for (i = 0; i < CONFIG_LMB_MAX_REGIONS; i++) {
- offset = ram + 2 * i * ram_size;
- ret = lmb_add(&lmb, offset, ram_size);
- ut_asserteq(ret, 0);
- }
- ut_asserteq(lmb.memory.cnt, CONFIG_LMB_MAX_REGIONS);
- ut_asserteq(lmb.reserved.cnt, 0);
-
- /* error for the (CONFIG_LMB_MAX_REGIONS + 1) memory regions */
- offset = ram + 2 * (CONFIG_LMB_MAX_REGIONS + 1) * ram_size;
- ret = lmb_add(&lmb, offset, ram_size);
- ut_asserteq(ret, -1);
-
- ut_asserteq(lmb.memory.cnt, CONFIG_LMB_MAX_REGIONS);
- ut_asserteq(lmb.reserved.cnt, 0);
-
- /* reserve CONFIG_LMB_MAX_REGIONS regions */
- for (i = 0; i < CONFIG_LMB_MAX_REGIONS; i++) {
- offset = ram + 2 * i * blk_size;
- ret = lmb_reserve(&lmb, offset, blk_size);
- ut_asserteq(ret, 0);
- }
-
- ut_asserteq(lmb.memory.cnt, CONFIG_LMB_MAX_REGIONS);
- ut_asserteq(lmb.reserved.cnt, CONFIG_LMB_MAX_REGIONS);
-
- /* error for the 9th reserved blocks */
- offset = ram + 2 * (CONFIG_LMB_MAX_REGIONS + 1) * blk_size;
- ret = lmb_reserve(&lmb, offset, blk_size);
- ut_asserteq(ret, -1);
-
- ut_asserteq(lmb.memory.cnt, CONFIG_LMB_MAX_REGIONS);
- ut_asserteq(lmb.reserved.cnt, CONFIG_LMB_MAX_REGIONS);
-
- /* check each regions */
- for (i = 0; i < CONFIG_LMB_MAX_REGIONS; i++)
- ut_asserteq(lmb.memory.region[i].base, ram + 2 * i * ram_size);
-
- for (i = 0; i < CONFIG_LMB_MAX_REGIONS; i++)
- ut_asserteq(lmb.reserved.region[i].base, ram + 2 * i * blk_size);
-
- return 0;
-}
-LIB_TEST(lib_test_lmb_max_regions, 0);
-#endif
-
static int lib_test_lmb_flags(struct unit_test_state *uts)
{
+ struct lmb store;
+ struct lmb_region *mem, *used;
+ struct alist *mem_lst, *used_lst;
const phys_addr_t ram = 0x40000000;
const phys_size_t ram_size = 0x20000000;
- struct lmb lmb;
long ret;
- lmb_init(&lmb);
+ ut_assertok(setup_lmb_test(uts, &store, &mem_lst, &used_lst));
+ mem = mem_lst->data;
+ used = used_lst->data;
- ret = lmb_add(&lmb, ram, ram_size);
+ ret = lmb_add(ram, ram_size);
ut_asserteq(ret, 0);
/* reserve, same flag */
- ret = lmb_reserve_flags(&lmb, 0x40010000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40010000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x10000,
0, 0, 0, 0);
/* reserve again, same flag */
- ret = lmb_reserve_flags(&lmb, 0x40010000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40010000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x10000,
0, 0, 0, 0);
/* reserve again, new flag */
- ret = lmb_reserve_flags(&lmb, 0x40010000, 0x10000, LMB_NONE);
+ ret = lmb_reserve_flags(0x40010000, 0x10000, LMB_NONE);
ut_asserteq(ret, -1);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x10000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x10000,
0, 0, 0, 0);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[0]), 1);
+ ut_asserteq(lmb_is_nomap(&used[0]), 1);
/* merge after */
- ret = lmb_reserve_flags(&lmb, 0x40020000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40020000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 1);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40010000, 0x20000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40010000, 0x20000,
0, 0, 0, 0);
/* merge before */
- ret = lmb_reserve_flags(&lmb, 0x40000000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40000000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 1);
- ASSERT_LMB(&lmb, ram, ram_size, 1, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 1, 0x40000000, 0x30000,
0, 0, 0, 0);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[0]), 1);
+ ut_asserteq(lmb_is_nomap(&used[0]), 1);
- ret = lmb_reserve_flags(&lmb, 0x40030000, 0x10000, LMB_NONE);
+ ret = lmb_reserve_flags(0x40030000, 0x10000, LMB_NONE);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 2, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, 0x40000000, 0x30000,
0x40030000, 0x10000, 0, 0);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[0]), 1);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[1]), 0);
+ ut_asserteq(lmb_is_nomap(&used[0]), 1);
+ ut_asserteq(lmb_is_nomap(&used[1]), 0);
/* test that old API use LMB_NONE */
- ret = lmb_reserve(&lmb, 0x40040000, 0x10000);
+ ret = lmb_reserve(0x40040000, 0x10000);
ut_asserteq(ret, 1);
- ASSERT_LMB(&lmb, ram, ram_size, 2, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 2, 0x40000000, 0x30000,
0x40030000, 0x20000, 0, 0);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[0]), 1);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[1]), 0);
+ ut_asserteq(lmb_is_nomap(&used[0]), 1);
+ ut_asserteq(lmb_is_nomap(&used[1]), 0);
- ret = lmb_reserve_flags(&lmb, 0x40070000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40070000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 3, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 3, 0x40000000, 0x30000,
0x40030000, 0x20000, 0x40070000, 0x10000);
- ret = lmb_reserve_flags(&lmb, 0x40050000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40050000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 0);
- ASSERT_LMB(&lmb, ram, ram_size, 4, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 4, 0x40000000, 0x30000,
0x40030000, 0x20000, 0x40050000, 0x10000);
/* merge with 2 adjacent regions */
- ret = lmb_reserve_flags(&lmb, 0x40060000, 0x10000, LMB_NOMAP);
+ ret = lmb_reserve_flags(0x40060000, 0x10000, LMB_NOMAP);
ut_asserteq(ret, 2);
- ASSERT_LMB(&lmb, ram, ram_size, 3, 0x40000000, 0x30000,
+ ASSERT_LMB(mem_lst, used_lst, ram, ram_size, 3, 0x40000000, 0x30000,
0x40030000, 0x20000, 0x40050000, 0x30000);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[0]), 1);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[1]), 0);
- ut_asserteq(lmb_is_nomap(&lmb.reserved.region[2]), 1);
+ ut_asserteq(lmb_is_nomap(&used[0]), 1);
+ ut_asserteq(lmb_is_nomap(&used[1]), 0);
+ ut_asserteq(lmb_is_nomap(&used[2]), 1);
+
+ lmb_pop(&store);
return 0;
}
projects / u-boot.git / commitdiff
