#include <common.h>
#include <asm/arch/fsp/fsp_support.h>
-void update_fsp_upd(struct upd_region_t *fsp_upd)
+void update_fsp_upd(struct upd_region *fsp_upd)
{
/* Override any UPD setting if required */
#include <asm/arch/fsp/fsp_support.h>
#include <asm/post.h>
-/**
- * Reads a 64-bit value from memory that may be unaligned.
- *
- * This function returns the 64-bit value pointed to by buf. The function
- * guarantees that the read operation does not produce an alignment fault.
- *
- * If the buf is NULL, then ASSERT().
- *
- * @buf: Pointer to a 64-bit value that may be unaligned.
- *
- * @return: The 64-bit value read from buf.
- */
-static u64 read_unaligned64(const u64 *buf)
-{
- ASSERT(buf != NULL);
-
- return *buf;
-}
-
/**
* Compares two GUIDs
*
- * If the GUIDs are identical then TRUE is returned.
- * If there are any bit differences in the two GUIDs, then FALSE is returned.
- *
- * If guid1 is NULL, then ASSERT().
- * If guid2 is NULL, then ASSERT().
+ * If the GUIDs are identical then true is returned.
+ * If there are any bit differences in the two GUIDs, then false is returned.
*
* @guid1: A pointer to a 128 bit GUID.
* @guid2: A pointer to a 128 bit GUID.
*
- * @retval TRUE: guid1 and guid2 are identical.
- * @retval FALSE: guid1 and guid2 are not identical.
+ * @retval true: guid1 and guid2 are identical.
+ * @retval false: guid1 and guid2 are not identical.
*/
-static unsigned char compare_guid(const struct efi_guid_t *guid1,
- const struct efi_guid_t *guid2)
+static bool compare_guid(const struct efi_guid *guid1,
+ const struct efi_guid *guid2)
{
- u64 guid1_low;
- u64 guid2_low;
- u64 guid1_high;
- u64 guid2_high;
-
- guid1_low = read_unaligned64((const u64 *)guid1);
- guid2_low = read_unaligned64((const u64 *)guid2);
- guid1_high = read_unaligned64((const u64 *)guid1 + 1);
- guid2_high = read_unaligned64((const u64 *)guid2 + 1);
-
- return (unsigned char)(guid1_low == guid2_low && guid1_high == guid2_high);
+ if (memcmp(guid1, guid2, sizeof(struct efi_guid)) == 0)
+ return true;
+ else
+ return false;
}
u32 __attribute__((optimize("O0"))) find_fsp_header(void)
{
+ /*
+ * This function may be called before the a stack is established,
+ * so special care must be taken. First, it cannot declare any local
+ * variable using stack. Only register variable can be used here.
+ * Secondly, some compiler version will add prolog or epilog code
+ * for the C function. If so the function call may not work before
+ * stack is ready.
+ *
+ * GCC 4.8.1 has been verified to be working for the following codes.
+ */
volatile register u8 *fsp asm("eax");
/* Initalize the FSP base */
fsp = (u8 *)CONFIG_FSP_ADDR;
/* Check the FV signature, _FVH */
- if (((struct fv_header_t *)fsp)->sign == 0x4856465F) {
+ if (((struct fv_header *)fsp)->sign == EFI_FVH_SIGNATURE) {
/* Go to the end of the FV header and align the address */
- fsp += ((struct fv_header_t *)fsp)->ext_hdr_off;
- fsp += ((struct fv_ext_header_t *)fsp)->ext_hdr_size;
+ fsp += ((struct fv_header *)fsp)->ext_hdr_off;
+ fsp += ((struct fv_ext_header *)fsp)->ext_hdr_size;
fsp = (u8 *)(((u32)fsp + 7) & 0xFFFFFFF8);
} else {
fsp = 0;
/* Check the FFS GUID */
if (fsp &&
- (((u32 *)&(((struct ffs_file_header_t *)fsp)->name))[0] == 0x912740BE) &&
- (((u32 *)&(((struct ffs_file_header_t *)fsp)->name))[1] == 0x47342284) &&
- (((u32 *)&(((struct ffs_file_header_t *)fsp)->name))[2] == 0xB08471B9) &&
- (((u32 *)&(((struct ffs_file_header_t *)fsp)->name))[3] == 0x0C3F3527)) {
+ ((struct ffs_file_header *)fsp)->name.data1 == FSP_GUID_DATA1 &&
+ ((struct ffs_file_header *)fsp)->name.data2 == FSP_GUID_DATA2 &&
+ ((struct ffs_file_header *)fsp)->name.data3 == FSP_GUID_DATA3 &&
+ ((struct ffs_file_header *)fsp)->name.data4[0] == FSP_GUID_DATA4_0 &&
+ ((struct ffs_file_header *)fsp)->name.data4[1] == FSP_GUID_DATA4_1 &&
+ ((struct ffs_file_header *)fsp)->name.data4[2] == FSP_GUID_DATA4_2 &&
+ ((struct ffs_file_header *)fsp)->name.data4[3] == FSP_GUID_DATA4_3 &&
+ ((struct ffs_file_header *)fsp)->name.data4[4] == FSP_GUID_DATA4_4 &&
+ ((struct ffs_file_header *)fsp)->name.data4[5] == FSP_GUID_DATA4_5 &&
+ ((struct ffs_file_header *)fsp)->name.data4[6] == FSP_GUID_DATA4_6 &&
+ ((struct ffs_file_header *)fsp)->name.data4[7] == FSP_GUID_DATA4_7) {
/* Add the FFS header size to find the raw section header */
- fsp += sizeof(struct ffs_file_header_t);
+ fsp += sizeof(struct ffs_file_header);
} else {
fsp = 0;
}
if (fsp &&
- ((struct raw_section_t *)fsp)->type == EFI_SECTION_RAW) {
+ ((struct raw_section *)fsp)->type == EFI_SECTION_RAW) {
/* Add the raw section header size to find the FSP header */
- fsp += sizeof(struct raw_section_t);
+ fsp += sizeof(struct raw_section);
} else {
fsp = 0;
}
return (u32)fsp;
}
-void fsp_continue(struct shared_data_t *shared_data, u32 status, void *hob_list)
+void fsp_continue(struct shared_data *shared_data, u32 status, void *hob_list)
{
u32 stack_len;
u32 stack_base;
post_code(POST_MRC);
- ASSERT(status == 0);
+ assert(status == 0);
/* Get the migrated stack in normal memory */
- stack_base = (u32)get_bootloader_tmp_mem(hob_list, &stack_len);
- ASSERT(stack_base != 0);
+ stack_base = (u32)fsp_get_bootloader_tmp_mem(hob_list, &stack_len);
+ assert(stack_base != 0);
stack_top = stack_base + stack_len - sizeof(u32);
/*
* Old stack base is stored at the very end of the stack top,
* use it to calculate the migrated shared data base
*/
- shared_data = (struct shared_data_t *)(stack_base +
+ shared_data = (struct shared_data *)(stack_base +
((u32)shared_data - *(u32 *)stack_top));
/* The boot loader main function entry */
void fsp_init(u32 stack_top, u32 boot_mode, void *nvs_buf)
{
- struct shared_data_t shared_data;
+ struct shared_data shared_data;
fsp_init_f init;
- struct fsp_init_params_t params;
- struct fspinit_rtbuf_t rt_buf;
- struct vpd_region_t *fsp_vpd;
- struct fsp_header_t *fsp_hdr;
- struct fsp_init_params_t *params_ptr;
- struct upd_region_t *fsp_upd;
-
- fsp_hdr = (struct fsp_header_t *)find_fsp_header();
+ struct fsp_init_params params;
+ struct fspinit_rtbuf rt_buf;
+ struct vpd_region *fsp_vpd;
+ struct fsp_header *fsp_hdr;
+ struct fsp_init_params *params_ptr;
+ struct upd_region *fsp_upd;
+
+ fsp_hdr = (struct fsp_header *)find_fsp_header();
if (fsp_hdr == NULL) {
/* No valid FSP info header was found */
- ASSERT(FALSE);
+ panic("Invalid FSP header");
}
- fsp_upd = (struct upd_region_t *)&shared_data.fsp_upd;
- memset((void *)&rt_buf, 0, sizeof(struct fspinit_rtbuf_t));
+ fsp_upd = (struct upd_region *)&shared_data.fsp_upd;
+ memset(&rt_buf, 0, sizeof(struct fspinit_rtbuf));
/* Reserve a gap in stack top */
rt_buf.common.stack_top = (u32 *)stack_top - 32;
rt_buf.common.boot_mode = boot_mode;
- rt_buf.common.upd_data = (struct upd_region_t *)fsp_upd;
+ rt_buf.common.upd_data = (struct upd_region *)fsp_upd;
/* Get VPD region start */
- fsp_vpd = (struct vpd_region_t *)(fsp_hdr->img_base +
+ fsp_vpd = (struct vpd_region *)(fsp_hdr->img_base +
fsp_hdr->cfg_region_off);
/* Verifify the VPD data region is valid */
- ASSERT((fsp_vpd->img_rev == VPD_IMAGE_REV) &&
+ assert((fsp_vpd->img_rev == VPD_IMAGE_REV) &&
(fsp_vpd->sign == VPD_IMAGE_ID));
/* Copy default data from Flash */
memcpy(fsp_upd, (void *)(fsp_hdr->img_base + fsp_vpd->upd_offset),
- sizeof(struct upd_region_t));
+ sizeof(struct upd_region));
/* Verifify the UPD data region is valid */
- ASSERT(fsp_upd->terminator == 0x55AA);
+ assert(fsp_upd->terminator == UPD_TERMINATOR);
/* Override any UPD setting if required */
update_fsp_upd(fsp_upd);
- memset((void *)¶ms, 0, sizeof(struct fsp_init_params_t));
+ memset(¶ms, 0, sizeof(struct fsp_init_params));
params.nvs_buf = nvs_buf;
- params.rt_buf = (struct fspinit_rtbuf_t *)&rt_buf;
+ params.rt_buf = (struct fspinit_rtbuf *)&rt_buf;
params.continuation = (fsp_continuation_f)asm_continuation;
init = (fsp_init_f)(fsp_hdr->img_base + fsp_hdr->fsp_init);
/*
* Should never get here.
- * Control will continue from romstage_main_continue_asm.
+ * Control will continue from fsp_continue.
* This line below is to prevent the compiler from optimizing
* structure intialization.
+ *
+ * DO NOT REMOVE!
*/
init(¶ms);
-
- /*
- * Should never return.
- * Control will continue from ContinuationFunc
- */
- ASSERT(FALSE);
}
-u32 fsp_notify(struct fsp_header_t *fsp_hdr, u32 phase)
+u32 fsp_notify(struct fsp_header *fsp_hdr, u32 phase)
{
fsp_notify_f notify;
- struct fsp_notify_params_t params;
- struct fsp_notify_params_t *params_ptr;
+ struct fsp_notify_params params;
+ struct fsp_notify_params *params_ptr;
u32 status;
if (!fsp_hdr)
- fsp_hdr = (struct fsp_header_t *)find_fsp_header();
+ fsp_hdr = (struct fsp_header *)find_fsp_header();
if (fsp_hdr == NULL) {
/* No valid FSP info header */
- ASSERT(FALSE);
+ panic("Invalid FSP header");
}
notify = (fsp_notify_f)(fsp_hdr->img_base + fsp_hdr->fsp_notify);
return status;
}
-u32 get_usable_lowmem_top(const void *hob_list)
+u32 fsp_get_usable_lowmem_top(const void *hob_list)
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
phys_addr_t phys_start;
u32 top;
hob.raw = (void *)hob_list;
/* * Collect memory ranges */
- top = 0x100000;
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == HOB_TYPE_RES_DESC) {
+ top = FSP_LOWMEM_BASE;
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == HOB_TYPE_RES_DESC) {
if (hob.res_desc->type == RES_SYS_MEM) {
phys_start = hob.res_desc->phys_start;
/* Need memory above 1MB to be collected here */
- if (phys_start >= 0x100000 &&
- phys_start < (phys_addr_t)0x100000000)
+ if (phys_start >= FSP_LOWMEM_BASE &&
+ phys_start < (phys_addr_t)FSP_HIGHMEM_BASE)
top += (u32)(hob.res_desc->len);
}
}
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
return top;
}
-u64 get_usable_highmem_top(const void *hob_list)
+u64 fsp_get_usable_highmem_top(const void *hob_list)
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
phys_addr_t phys_start;
u64 top;
hob.raw = (void *)hob_list;
/* Collect memory ranges */
- top = 0x100000000;
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == HOB_TYPE_RES_DESC) {
+ top = FSP_HIGHMEM_BASE;
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == HOB_TYPE_RES_DESC) {
if (hob.res_desc->type == RES_SYS_MEM) {
phys_start = hob.res_desc->phys_start;
/* Need memory above 1MB to be collected here */
- if (phys_start >= (phys_addr_t)0x100000000)
+ if (phys_start >= (phys_addr_t)FSP_HIGHMEM_BASE)
top += (u32)(hob.res_desc->len);
}
}
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
return top;
}
-u64 get_fsp_reserved_mem_from_guid(const void *hob_list, u64 *len,
- struct efi_guid_t *guid)
+u64 fsp_get_reserved_mem_from_guid(const void *hob_list, u64 *len,
+ struct efi_guid *guid)
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
/* Get the HOB list for processing */
hob.raw = (void *)hob_list;
/* Collect memory ranges */
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == HOB_TYPE_RES_DESC) {
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == HOB_TYPE_RES_DESC) {
if (hob.res_desc->type == RES_MEM_RESERVED) {
if (compare_guid(&hob.res_desc->owner, guid)) {
if (len)
}
}
}
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
return 0;
}
-u32 get_fsp_reserved_mem(const void *hob_list, u32 *len)
+u32 fsp_get_fsp_reserved_mem(const void *hob_list, u32 *len)
{
- const struct efi_guid_t guid = FSP_HOB_RESOURCE_OWNER_FSP_GUID;
+ const struct efi_guid guid = FSP_HOB_RESOURCE_OWNER_FSP_GUID;
u64 length;
u32 base;
- base = (u32)get_fsp_reserved_mem_from_guid(hob_list,
- &length, (struct efi_guid_t *)&guid);
+ base = (u32)fsp_get_reserved_mem_from_guid(hob_list,
+ &length, (struct efi_guid *)&guid);
if ((len != 0) && (base != 0))
*len = (u32)length;
return base;
}
-u32 get_tseg_reserved_mem(const void *hob_list, u32 *len)
+u32 fsp_get_tseg_reserved_mem(const void *hob_list, u32 *len)
{
- const struct efi_guid_t guid = FSP_HOB_RESOURCE_OWNER_TSEG_GUID;
+ const struct efi_guid guid = FSP_HOB_RESOURCE_OWNER_TSEG_GUID;
u64 length;
u32 base;
- base = (u32)get_fsp_reserved_mem_from_guid(hob_list,
- &length, (struct efi_guid_t *)&guid);
+ base = (u32)fsp_get_reserved_mem_from_guid(hob_list,
+ &length, (struct efi_guid *)&guid);
if ((len != 0) && (base != 0))
*len = (u32)length;
return base;
}
-void *get_next_hob(u16 type, const void *hob_list)
+void *fsp_get_next_hob(u16 type, const void *hob_list)
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
- ASSERT(hob_list != NULL);
+ assert(hob_list != NULL);
hob.raw = (u8 *)hob_list;
/* Parse the HOB list until end of list or matching type is found */
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == type)
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == type)
return hob.raw;
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
return NULL;
}
-void *get_next_guid_hob(const struct efi_guid_t *guid, const void *hob_list)
+void *fsp_get_next_guid_hob(const struct efi_guid *guid, const void *hob_list)
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
hob.raw = (u8 *)hob_list;
- while ((hob.raw = get_next_hob(HOB_TYPE_GUID_EXT,
+ while ((hob.raw = fsp_get_next_hob(HOB_TYPE_GUID_EXT,
hob.raw)) != NULL) {
if (compare_guid(guid, &hob.guid->name))
break;
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
return hob.raw;
}
-void *get_guid_hob_data(const void *hob_list, u32 *len, struct efi_guid_t *guid)
+void *fsp_get_guid_hob_data(const void *hob_list, u32 *len,
+ struct efi_guid *guid)
{
u8 *guid_hob;
- guid_hob = get_next_guid_hob(guid, hob_list);
+ guid_hob = fsp_get_next_guid_hob(guid, hob_list);
if (guid_hob == NULL) {
return NULL;
} else {
if (len)
- *len = GET_GUID_HOB_DATA_SIZE(guid_hob);
+ *len = get_guid_hob_data_size(guid_hob);
- return GET_GUID_HOB_DATA(guid_hob);
+ return get_guid_hob_data(guid_hob);
}
}
-void *get_fsp_nvs_data(const void *hob_list, u32 *len)
+void *fsp_get_nvs_data(const void *hob_list, u32 *len)
{
- const struct efi_guid_t guid = FSP_NON_VOLATILE_STORAGE_HOB_GUID;
+ const struct efi_guid guid = FSP_NON_VOLATILE_STORAGE_HOB_GUID;
- return get_guid_hob_data(hob_list, len, (struct efi_guid_t *)&guid);
+ return fsp_get_guid_hob_data(hob_list, len, (struct efi_guid *)&guid);
}
-void *get_bootloader_tmp_mem(const void *hob_list, u32 *len)
+void *fsp_get_bootloader_tmp_mem(const void *hob_list, u32 *len)
{
- const struct efi_guid_t guid = FSP_BOOTLOADER_TEMP_MEM_HOB_GUID;
+ const struct efi_guid guid = FSP_BOOTLOADER_TEMP_MEM_HOB_GUID;
- return get_guid_hob_data(hob_list, len, (struct efi_guid_t *)&guid);
+ return fsp_get_guid_hob_data(hob_list, len, (struct efi_guid *)&guid);
}
int dram_init(void)
{
phys_size_t ram_size = 0;
- union hob_pointers_t hob;
+ union hob_pointers hob;
hob.raw = gd->arch.hob_list;
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == HOB_TYPE_RES_DESC) {
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == HOB_TYPE_RES_DESC) {
if (hob.res_desc->type == RES_SYS_MEM ||
hob.res_desc->type == RES_MEM_RESERVED) {
ram_size += hob.res_desc->len;
}
}
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
}
gd->ram_size = ram_size;
*/
ulong board_get_usable_ram_top(ulong total_size)
{
- return get_usable_lowmem_top(gd->arch.hob_list);
+ return fsp_get_usable_lowmem_top(gd->arch.hob_list);
}
unsigned install_e820_map(unsigned max_entries, struct e820entry *entries)
{
unsigned num_entries = 0;
- union hob_pointers_t hob;
+ union hob_pointers hob;
hob.raw = gd->arch.hob_list;
- while (!END_OF_HOB(hob)) {
- if (hob.hdr->type == HOB_TYPE_RES_DESC) {
+ while (!end_of_hob(hob)) {
+ if (get_hob_type(hob) == HOB_TYPE_RES_DESC) {
entries[num_entries].addr = hob.res_desc->phys_start;
entries[num_entries].size = hob.res_desc->len;
else if (hob.res_desc->type == RES_MEM_RESERVED)
entries[num_entries].type = E820_RESERVED;
}
- hob.raw = GET_NEXT_HOB(hob);
+ hob.raw = get_next_hob(hob);
num_entries++;
}
*/
typedef void (*fsp_continuation_f)(u32 status, void *hob_list);
-#pragma pack(1)
-
-struct fsp_init_params_t {
+struct fsp_init_params {
/* Non-volatile storage buffer pointer */
void *nvs_buf;
/* Runtime buffer pointer */
fsp_continuation_f continuation;
};
-struct common_buf_t {
+struct common_buf {
/*
* Stack top pointer used by the bootloader. The new stack frame will be
* set up at this location after FspInit API call.
u32 reserved[7]; /* Reserved */
};
-enum fsp_phase_t {
+enum fsp_phase {
/* Notification code for post PCI enuermation */
INIT_PHASE_PCI = 0x20,
/* Notification code before transfering control to the payload */
INIT_PHASE_BOOT = 0x40
};
-struct fsp_notify_params_t {
+struct fsp_notify_params {
/* Notification phase used for NotifyPhase API */
- enum fsp_phase_t phase;
+ enum fsp_phase phase;
};
-#pragma pack()
-
/* FspInit API function prototype */
-typedef u32 (*fsp_init_f)(struct fsp_init_params_t *param);
+typedef u32 (*fsp_init_f)(struct fsp_init_params *params);
/* FspNotify API function prototype */
-typedef u32 (*fsp_notify_f)(struct fsp_notify_params_t *param);
+typedef u32 (*fsp_notify_f)(struct fsp_notify_params *params);
#endif
#ifndef __FSP_FFS_H__
#define __FSP_FFS_H__
-#pragma pack(1)
-
/* Used to verify the integrity of the file */
-union ffs_integrity_t {
+union __packed ffs_integrity {
struct {
/*
* The IntegrityCheck.checksum.header field is an 8-bit
* Each file begins with the header that describe the
* contents and state of the files.
*/
-struct ffs_file_header_t {
+struct __packed ffs_file_header {
/*
* This GUID is the file name.
* It is used to uniquely identify the file.
*/
- struct efi_guid_t name;
+ struct efi_guid name;
/* Used to verify the integrity of the file */
- union ffs_integrity_t integrity;
+ union ffs_integrity integrity;
/* Identifies the type of file */
u8 type;
/* Declares various file attribute bits */
u8 state;
};
-struct ffs_file_header2_t {
+struct __packed ffs_file_header2 {
/*
* This GUID is the file name. It is used to uniquely identify the file.
* There may be only one instance of a file with the file name GUID of
* Name in any given firmware volume, except if the file type is
* EFI_FV_FILE_TYPE_FFS_PAD.
*/
- struct efi_guid_t name;
+ struct efi_guid name;
/* Used to verify the integrity of the file */
- union ffs_integrity_t integrity;
+ union ffs_integrity integrity;
/* Identifies the type of file */
u8 type;
/* Declares various file attribute bits */
/*
* The length of the file in bytes, including the FFS header.
* The length of the file data is either
- * (size - sizeof(struct ffs_file_header_t)). This calculation means a
+ * (size - sizeof(struct ffs_file_header)). This calculation means a
* zero-length file has a size of 24 bytes, which is
- * sizeof(struct ffs_file_header_t). Size is not required to be a
+ * sizeof(struct ffs_file_header). Size is not required to be a
* multiple of 8 bytes. Given a file F, the next file header is located
* at the next 8-byte aligned firmware volume offset following the last
* byte of the file F.
* If FFS_ATTRIB_LARGE_FILE is set in attr, then ext_size exists
* and size must be set to zero.
* If FFS_ATTRIB_LARGE_FILE is not set then
- * struct ffs_file_header_t is used.
+ * struct ffs_file_header is used.
*/
u32 ext_size;
};
#define EFI_SECTION_SMM_DEPEX 0x1C
/* Common section header */
-struct raw_section_t {
+struct __packed raw_section {
/*
* A 24-bit unsigned integer that contains the total size of
* the section in bytes, including the EFI_COMMON_SECTION_HEADER.
u8 type;
};
-struct raw_section2_t {
+struct __packed raw_section2 {
/*
* A 24-bit unsigned integer that contains the total size of
* the section in bytes, including the EFI_COMMON_SECTION_HEADER.
u32 ext_size;
};
-#pragma pack()
-
#endif
#define EFI_FVB2_ALIGNMENT_1G 0x001E0000
#define EFI_FVB2_ALIGNMENT_2G 0x001F0000
-struct fv_blkmap_entry_t {
+struct fv_blkmap_entry {
/* The number of sequential blocks which are of the same size */
u32 num_blocks;
/* The size of the blocks */
};
/* Describes the features and layout of the firmware volume */
-struct fv_header_t {
+struct fv_header {
/*
* The first 16 bytes are reserved to allow for the reset vector of
* processors whose reset vector is at address 0.
* Declares the file system with which the firmware volume
* is formatted.
*/
- struct efi_guid_t fs_guid;
+ struct efi_guid fs_guid;
/*
* Length in bytes of the complete firmware volume, including
* the header.
* An array of run-length encoded FvBlockMapEntry structures.
* The array is terminated with an entry of {0,0}.
*/
- struct fv_blkmap_entry_t block_map[1];
+ struct fv_blkmap_entry block_map[1];
};
-#define EFI_FVH_SIGNATURE SIGNATURE_32('_', 'F', 'V', 'H')
+#define EFI_FVH_SIGNATURE SIGNATURE_32('_', 'F', 'V', 'H')
/* Firmware Volume Header Revision definition */
#define EFI_FVH_REVISION 0x02
/* Extension header pointed by ExtHeaderOffset of volume header */
-struct fv_ext_header_t {
+struct fv_ext_header {
/* firmware volume name */
- struct efi_guid_t fv_name;
+ struct efi_guid fv_name;
/* Size of the rest of the extension header including this structure */
u32 ext_hdr_size;
};
* Describes the format and size of the data inside the HOB.
* All HOBs must contain this generic HOB header.
*/
-struct hob_header_t {
+struct hob_header {
u16 type; /* HOB type */
u16 len; /* HOB length */
u32 reserved; /* always zero */
};
/* Enumeration of memory types introduced in UEFI */
-enum efi_mem_type_t {
+enum efi_mem_type {
EFI_RESERVED_MEMORY_TYPE,
/*
* The code portions of a loaded application.
* exist outside the HOB list. This HOB type describes how memory is used,
* not the physical attributes of memory.
*/
-struct hob_mem_alloc_t {
- struct hob_header_t hdr;
+struct hob_mem_alloc {
+ struct hob_header hdr;
/*
* A GUID that defines the memory allocation region's type and purpose,
* as well as other fields within the memory allocation HOB. This GUID
* is used to define the additional data within the HOB that may be
- * present for the memory allocation HOB. Type efi_guid_t is defined in
+ * present for the memory allocation HOB. Type efi_guid is defined in
* InstallProtocolInterface() in the UEFI 2.0 specification.
*/
- struct efi_guid_t name;
+ struct efi_guid name;
/*
* The base address of memory allocated by this HOB.
* Type phys_addr_t is defined in AllocatePages() in the UEFI 2.0
* Type EFI_MEMORY_TYPE is defined in AllocatePages() in the UEFI 2.0
* specification.
*/
- enum efi_mem_type_t mem_type;
+ enum efi_mem_type mem_type;
/* padding */
u8 reserved[4];
};
* Describes the resource properties of all fixed, nonrelocatable resource
* ranges found on the processor host bus during the HOB producer phase.
*/
-struct hob_res_desc_t {
- struct hob_header_t hdr;
+struct hob_res_desc {
+ struct hob_header hdr;
/*
* A GUID representing the owner of the resource. This GUID is
* used by HOB consumer phase components to correlate device
* ownership of a resource.
*/
- struct efi_guid_t owner;
+ struct efi_guid owner;
u32 type;
u32 attr;
/* The physical start address of the resource region */
* Allows writers of executable content in the HOB producer phase to
* maintain and manage HOBs with specific GUID.
*/
-struct hob_guid_t {
- struct hob_header_t hdr;
+struct hob_guid {
+ struct hob_header hdr;
/* A GUID that defines the contents of this HOB */
- struct efi_guid_t name;
+ struct efi_guid name;
/* GUID specific data goes here */
};
/* Union of all the possible HOB Types */
-union hob_pointers_t {
- struct hob_header_t *hdr;
- struct hob_mem_alloc_t *mem_alloc;
- struct hob_res_desc_t *res_desc;
- struct hob_guid_t *guid;
+union hob_pointers {
+ struct hob_header *hdr;
+ struct hob_mem_alloc *mem_alloc;
+ struct hob_res_desc *res_desc;
+ struct hob_guid *guid;
u8 *raw;
};
/**
- * Returns the type of a HOB.
+ * get_hob_type() - return the type of a HOB
*
* This macro returns the type field from the HOB header for the
* HOB specified by hob.
*
* @return: HOB type.
*/
-#define GET_HOB_TYPE(hob) \
- ((*(struct hob_header_t **)&(hob))->type)
+static inline u16 get_hob_type(union hob_pointers hob)
+{
+ return hob.hdr->type;
+}
/**
- * Returns the length, in bytes, of a HOB.
+ * get_hob_length() - return the length, in bytes, of a HOB
*
* This macro returns the len field from the HOB header for the
* HOB specified by hob.
*
* @return: HOB length.
*/
-#define GET_HOB_LENGTH(hob) \
- ((*(struct hob_header_t **)&(hob))->len)
+static inline u16 get_hob_length(union hob_pointers hob)
+{
+ return hob.hdr->len;
+}
/**
- * Returns a pointer to the next HOB in the HOB list.
+ * get_next_hob() - return a pointer to the next HOB in the HOB list
*
* This macro returns a pointer to HOB that follows the HOB specified by hob
* in the HOB List.
*
* @return: A pointer to the next HOB in the HOB list.
*/
-#define GET_NEXT_HOB(hob) \
- (void *)(*(u8 **)&(hob) + GET_HOB_LENGTH(hob))
+static inline void *get_next_hob(union hob_pointers hob)
+{
+ return (void *)(*(u8 **)&(hob) + get_hob_length(hob));
+}
/**
- * Determines if a HOB is the last HOB in the HOB list.
+ * end_of_hob() - determine if a HOB is the last HOB in the HOB list
*
* This macro determine if the HOB specified by hob is the last HOB in the
- * HOB list. If hob is last HOB in the HOB list, then TRUE is returned.
- * Otherwise, FALSE is returned.
+ * HOB list. If hob is last HOB in the HOB list, then true is returned.
+ * Otherwise, false is returned.
*
* @hob: A pointer to a HOB.
*
- * @retval TRUE: The HOB specified by hob is the last HOB in the HOB list.
- * @retval FALSE: The HOB specified by hob is not the last HOB in the HOB list.
+ * @retval true: The HOB specified by hob is the last HOB in the HOB list.
+ * @retval false: The HOB specified by hob is not the last HOB in the HOB list.
*/
-#define END_OF_HOB(hob) (GET_HOB_TYPE(hob) == (u16)HOB_TYPE_EOH)
+static inline bool end_of_hob(union hob_pointers hob)
+{
+ return get_hob_type(hob) == HOB_TYPE_EOH;
+}
/**
- * Returns a pointer to data buffer from a HOB of type HOB_TYPE_GUID_EXT.
+ * get_guid_hob_data() - return a pointer to data buffer from a HOB of
+ * type HOB_TYPE_GUID_EXT
*
* This macro returns a pointer to the data buffer in a HOB specified by hob.
* hob is assumed to be a HOB of type HOB_TYPE_GUID_EXT.
*
* @return: A pointer to the data buffer in a HOB.
*/
-#define GET_GUID_HOB_DATA(hob) \
- (void *)(*(u8 **)&(hob) + sizeof(struct hob_guid_t))
+static inline void *get_guid_hob_data(u8 *hob)
+{
+ return (void *)(hob + sizeof(struct hob_guid));
+}
/**
- * Returns the size of the data buffer from a HOB of type HOB_TYPE_GUID_EXT.
+ * get_guid_hob_data_size() - return the size of the data buffer from a HOB
+ * of type HOB_TYPE_GUID_EXT
*
* This macro returns the size, in bytes, of the data buffer in a HOB
* specified by hob. hob is assumed to be a HOB of type HOB_TYPE_GUID_EXT.
*
* @return: The size of the data buffer.
*/
-#define GET_GUID_HOB_DATA_SIZE(hob) \
- (u16)(GET_HOB_LENGTH(hob) - sizeof(struct hob_guid_t))
+static inline u16 get_guid_hob_data_size(u8 *hob)
+{
+ union hob_pointers hob_p = *(union hob_pointers *)hob;
+ return get_hob_length(hob_p) - sizeof(struct hob_guid);
+}
/* FSP specific GUID HOB definitions */
+#define FSP_GUID_DATA1 0x912740be
+#define FSP_GUID_DATA2 0x2284
+#define FSP_GUID_DATA3 0x4734
+#define FSP_GUID_DATA4_0 0xb9
+#define FSP_GUID_DATA4_1 0x71
+#define FSP_GUID_DATA4_2 0x84
+#define FSP_GUID_DATA4_3 0xb0
+#define FSP_GUID_DATA4_4 0x27
+#define FSP_GUID_DATA4_5 0x35
+#define FSP_GUID_DATA4_6 0x3f
+#define FSP_GUID_DATA4_7 0x0c
+
#define FSP_HEADER_GUID \
{ \
- 0x912740be, 0x2284, 0x4734, \
- {0xb9, 0x71, 0x84, 0xb0, 0x27, 0x35, 0x3f, 0x0c} \
+ FSP_GUID_DATA1, FSP_GUID_DATA2, FSP_GUID_DATA3, \
+ { FSP_GUID_DATA4_0, FSP_GUID_DATA4_1, FSP_GUID_DATA4_2, \
+ FSP_GUID_DATA4_3, FSP_GUID_DATA4_4, FSP_GUID_DATA4_5, \
+ FSP_GUID_DATA4_6, FSP_GUID_DATA4_7 } \
}
#define FSP_NON_VOLATILE_STORAGE_HOB_GUID \
#define FSP_HEADER_OFF 0x94 /* Fixed FSP header offset in the FSP image */
-#pragma pack(1)
-
-struct fsp_header_t {
+struct __packed fsp_header {
u32 sign; /* 'FSPH' */
u32 hdr_len; /* header length */
u8 reserved1[3];
u32 reserved2;
};
-#pragma pack()
-
#endif
#ifndef __FSP_PLATFORM_H__
#define __FSP_PLATFORM_H__
-#pragma pack(1)
-
-struct fspinit_rtbuf_t {
- struct common_buf_t common; /* FSP common runtime data structure */
+struct fspinit_rtbuf {
+ struct common_buf common; /* FSP common runtime data structure */
};
-#pragma pack()
-
#endif
#include "fsp_bootmode.h"
#include "fsp_vpd.h"
-struct shared_data_t {
- struct fsp_header_t *fsp_hdr;
+struct shared_data {
+ struct fsp_header *fsp_hdr;
u32 *stack_top;
- struct upd_region_t fsp_upd;
+ struct upd_region fsp_upd;
};
+#define FSP_LOWMEM_BASE 0x100000UL
+#define FSP_HIGHMEM_BASE 0x100000000ULL
+
+/**
+ * FSP Continuation assembly helper routine
+ *
+ * This routine jumps to the C version of FSP continuation function
+ */
void asm_continuation(void);
+/**
+ * FSP initialization complete
+ *
+ * This is the function that indicates FSP initialization is complete and jumps
+ * back to the bootloader with HOB list pointer as the parameter.
+ *
+ * @hob_list: HOB list pointer
+ */
void fsp_init_done(void *hob_list);
/**
*
* @retval: Never returns
*/
-void fsp_continue(struct shared_data_t *shared_data, u32 status,
+void fsp_continue(struct shared_data *shared_data, u32 status,
void *hob_list);
/**
* Find FSP header offset in FSP image
*
- * If this function is called before the a stack is established, special care
- * must be taken. First, it cannot declare any local variable using stack.
- * Only register variable can be used here. Secondly, some compiler version
- * will add prolog or epilog code for the C function. If so the function call
- * may not work before stack is ready. GCC 4.8.1 has been verified to be
- * working for the following code.
- *
* @retval: the offset of FSP header. If signature is invalid, returns 0.
*/
u32 find_fsp_header(void);
* FSP notification wrapper function
*
* @fsp_hdr: Pointer to FSP information header
- * @phase: FSP initialization phase defined in enum fsp_phase_t
+ * @phase: FSP initialization phase defined in enum fsp_phase
*
* @retval: compatible status code with EFI_STATUS defined in PI spec
*/
-u32 fsp_notify(struct fsp_header_t *fsp_hdr, u32 phase);
+u32 fsp_notify(struct fsp_header *fsp_hdr, u32 phase);
/**
* This function retrieves the top of usable low memory.
*
* @retval: Usable low memory top.
*/
-u32 get_usable_lowmem_top(const void *hob_list);
+u32 fsp_get_usable_lowmem_top(const void *hob_list);
/**
* This function retrieves the top of usable high memory.
*
* @retval: Usable high memory top.
*/
-u64 get_usable_highmem_top(const void *hob_list);
+u64 fsp_get_usable_highmem_top(const void *hob_list);
/**
* This function retrieves a special reserved memory region.
* @retval: Reserved region start address.
* 0 if this region does not exist.
*/
-u64 get_fsp_reserved_mem_from_guid(const void *hob_list,
- u64 *len, struct efi_guid_t *guid);
+u64 fsp_get_reserved_mem_from_guid(const void *hob_list,
+ u64 *len, struct efi_guid *guid);
/**
* This function retrieves the FSP reserved normal memory.
* @retval: FSP reserved memory base
* 0 if this region does not exist.
*/
-u32 get_fsp_reserved_mem(const void *hob_list, u32 *len);
+u32 fsp_get_fsp_reserved_mem(const void *hob_list, u32 *len);
/**
* This function retrieves the TSEG reserved normal memory.
* @retval NULL: Failed to find the TSEG reserved memory.
* @retval others: TSEG reserved memory base.
*/
-u32 get_tseg_reserved_mem(const void *hob_list, u32 *len);
+u32 fsp_get_tseg_reserved_mem(const void *hob_list, u32 *len);
/**
* Returns the next instance of a HOB type from the starting HOB.
*
* @retval: A HOB object with matching type; Otherwise NULL.
*/
-void *get_next_hob(u16 type, const void *hob_list);
+void *fsp_get_next_hob(u16 type, const void *hob_list);
/**
* Returns the next instance of the matched GUID HOB from the starting HOB.
*
* @retval: A HOB object with matching GUID; Otherwise NULL.
*/
-void *get_next_guid_hob(const struct efi_guid_t *guid, const void *hob_list);
+void *fsp_get_next_guid_hob(const struct efi_guid *guid, const void *hob_list);
/**
* This function retrieves a GUID HOB data buffer and size.
* @retval NULL: Failed to find the GUID HOB.
* @retval others: GUID HOB data buffer pointer.
*/
-void *get_guid_hob_data(const void *hob_list, u32 *len,
- struct efi_guid_t *guid);
+void *fsp_get_guid_hob_data(const void *hob_list, u32 *len,
+ struct efi_guid *guid);
/**
* This function retrieves FSP Non-volatile Storage HOB buffer and size.
* @retval NULL: Failed to find the NVS HOB.
* @retval others: FSP NVS data buffer pointer.
*/
-void *get_fsp_nvs_data(const void *hob_list, u32 *len);
+void *fsp_get_nvs_data(const void *hob_list, u32 *len);
/**
* This function retrieves Bootloader temporary stack buffer and size.
* @retval NULL: Failed to find the bootloader temporary stack HOB.
* @retval others: Bootloader temporary stackbuffer pointer.
*/
-void *get_bootloader_tmp_mem(const void *hob_list, u32 *len);
+void *fsp_get_bootloader_tmp_mem(const void *hob_list, u32 *len);
/**
* This function overrides the default configurations in the UPD data region.
*
- * @fsp_upd: A pointer to the upd_region_t data strcture
+ * @fsp_upd: A pointer to the upd_region data strcture
*
* @return: None
*/
-void update_fsp_upd(struct upd_region_t *fsp_upd);
+void update_fsp_upd(struct upd_region *fsp_upd);
#endif
#ifndef __FSP_TYPES_H__
#define __FSP_TYPES_H__
-/*
- * Boolean true value. UEFI Specification defines this value to be 1,
- * but this form is more portable.
- */
-#define TRUE ((unsigned char)(1 == 1))
-
-/*
- * Boolean false value. UEFI Specification defines this value to be 0,
- * but this form is more portable.
- */
-#define FALSE ((unsigned char)(0 == 1))
-
/* 128 bit buffer containing a unique identifier value */
-struct efi_guid_t {
+struct efi_guid {
u32 data1;
u16 data2;
u16 data3;
#define SIGNATURE_64(A, B, C, D, E, F, G, H) \
(SIGNATURE_32(A, B, C, D) | ((u64)(SIGNATURE_32(E, F, G, H)) << 32))
-/* Assertion for debug */
-#define ASSERT(exp) do { if (!(exp)) for (;;); } while (FALSE)
-
/*
* Define FSP API return status code.
* Compatiable with EFI_STATUS defined in PI Spec.
#ifndef __VPDHEADER_H__
#define __VPDHEADER_H__
-#pragma pack(1)
+#define UPD_TERMINATOR 0x55AA
-struct upd_region_t {
+struct __packed upd_region {
u64 sign; /* Offset 0x0000 */
u64 reserved; /* Offset 0x0008 */
u8 dummy[240]; /* Offset 0x0010 */
#define VPD_IMAGE_ID 0x445056574F4E4E4D /* 'MNNOWVPD' */
#define VPD_IMAGE_REV 0x00000301
-struct vpd_region_t {
+struct __packed vpd_region {
u64 sign; /* Offset 0x0000 */
u32 img_rev; /* Offset 0x0008 */
u32 upd_offset; /* Offset 0x000C */
u8 pcie_port_ioh; /* Offset 0x0029 */
};
-#pragma pack()
-
#endif
"Memory Allocation",
"Resource Descriptor",
"GUID Extension",
- "Firmware Volumn",
+ "Firmware Volume",
"CPU",
"Memory Pool",
"reserved",
- "Firmware Volumn 2",
+ "Firmware Volume 2",
"Load PEIM Unused",
"UEFI Capsule",
};
int do_hob(cmd_tbl_t *cmdtp, int flag, int argc, char * const argv[])
{
- union hob_pointers_t hob;
+ union hob_pointers hob;
u16 type;
char *desc;
int i = 0;
printf("No. | Address | Type | Length in Bytes\n");
printf("----|----------|---------------------|----------------\n");
- while (!END_OF_HOB(hob)) {
+ while (!end_of_hob(hob)) {
printf("%-3d | %08x | ", i, (unsigned int)hob.raw);
- type = hob.hdr->type;
+ type = get_hob_type(hob);
if (type == HOB_TYPE_UNUSED)
desc = "*Unused*";
else if (type == HOB_TYPE_EOH)
- desc = "**END OF HOB**";
+ desc = "*END OF HOB*";
else if (type >= 0 && type <= ARRAY_SIZE(hob_type))
desc = hob_type[type];
else
- desc = "!!!Invalid Type!!!";
- printf("%-19s | %-15d\n", desc, hob.hdr->len);
- hob.raw = GET_NEXT_HOB(hob);
+ desc = "*Invalid Type*";
+ printf("%-19s | %-15d\n", desc, get_hob_length(hob));
+ hob.raw = get_next_hob(hob);
i++;
}
return 0;
}
-/* -------------------------------------------------------------------- */
-
U_BOOT_CMD(
hob, 1, 1, do_hob,
- "print FSP Hand-Off Block information",
+ "print Firmware Support Package (FSP) Hand-Off Block information",
""
);
projects / karo-tx-uboot.git / commitdiff