}
size = load_elf(palcode_filename, cpu_alpha_superpage_to_phys,
NULL, &palcode_entry, &palcode_low, &palcode_high,
- 0, EM_ALPHA, 0);
+ 0, EM_ALPHA, 0, 0);
if (size < 0) {
error_report("could not load palcode '%s'", palcode_filename);
exit(1);
size = load_elf(kernel_filename, cpu_alpha_superpage_to_phys,
NULL, &kernel_entry, &kernel_low, &kernel_high,
- 0, EM_ALPHA, 0);
+ 0, EM_ALPHA, 0, 0);
if (size < 0) {
error_report("could not load kernel '%s'", kernel_filename);
exit(1);
if (kernel_filename) {
image_size = load_elf(kernel_filename, NULL, NULL, &entry, &lowaddr,
- NULL, big_endian, EM_ARM, 1);
+ NULL, big_endian, EM_ARM, 1, 0);
if (image_size < 0) {
image_size = load_image_targphys(kernel_filename, 0, mem_size);
lowaddr = 0;
/* Assume that raw images are linux kernels, and ELF images are not. */
kernel_size = load_elf(info->kernel_filename, NULL, NULL, &elf_entry,
&elf_low_addr, &elf_high_addr, big_endian,
- elf_machine, 1);
+ elf_machine, 1, 0);
if (kernel_size > 0 && have_dtb(info)) {
/* If there is still some room left at the base of RAM, try and put
* the DTB there like we do for images loaded with -bios or -pflash.
/* return < 0 if error, otherwise the number of bytes loaded in memory */
int load_elf(const char *filename, uint64_t (*translate_fn)(void *, uint64_t),
void *translate_opaque, uint64_t *pentry, uint64_t *lowaddr,
- uint64_t *highaddr, int big_endian, int elf_machine, int clear_lsb)
+ uint64_t *highaddr, int big_endian, int elf_machine,
+ int clear_lsb, int data_swab)
{
int fd, data_order, target_data_order, must_swab, ret = ELF_LOAD_FAILED;
uint8_t e_ident[EI_NIDENT];
lseek(fd, 0, SEEK_SET);
if (e_ident[EI_CLASS] == ELFCLASS64) {
ret = load_elf64(filename, fd, translate_fn, translate_opaque, must_swab,
- pentry, lowaddr, highaddr, elf_machine, clear_lsb);
+ pentry, lowaddr, highaddr, elf_machine, clear_lsb,
+ data_swab);
} else {
ret = load_elf32(filename, fd, translate_fn, translate_opaque, must_swab,
- pentry, lowaddr, highaddr, elf_machine, clear_lsb);
+ pentry, lowaddr, highaddr, elf_machine, clear_lsb,
+ data_swab);
}
fail:
/* Boots a kernel elf binary, os/linux-2.6/vmlinux from the axis
devboard SDK. */
image_size = load_elf(li->image_filename, translate_kernel_address, NULL,
- &entry, NULL, &high, 0, EM_CRIS, 0);
+ &entry, NULL, &high, 0, EM_CRIS, 0, 0);
li->entry = entry;
if (image_size < 0) {
/* Takes a kimage from the axis devboard SDK. */
}
kernel_size = load_elf(kernel_filename, NULL, NULL, &elf_entry,
- &elf_low, &elf_high, 0, I386_ELF_MACHINE, 0);
+ &elf_low, &elf_high, 0, I386_ELF_MACHINE,
+ 0, 0);
if (kernel_size < 0) {
fprintf(stderr, "Error while loading elf kernel\n");
exit(1);
int kernel_size;
kernel_size = load_elf(kernel_filename, NULL, NULL, &entry, NULL, NULL,
- 1, EM_LATTICEMICO32, 0);
+ 1, EM_LATTICEMICO32, 0, 0);
reset_info->bootstrap_pc = entry;
if (kernel_size < 0) {
int kernel_size;
kernel_size = load_elf(kernel_filename, NULL, NULL, &entry, NULL, NULL,
- 1, EM_LATTICEMICO32, 0);
+ 1, EM_LATTICEMICO32, 0, 0);
reset_info->bootstrap_pc = entry;
if (kernel_size < 0) {
/* Boots a kernel elf binary. */
kernel_size = load_elf(kernel_filename, NULL, NULL, &entry, NULL, NULL,
- 1, EM_LATTICEMICO32, 0);
+ 1, EM_LATTICEMICO32, 0, 0);
reset_info->bootstrap_pc = entry;
if (kernel_size < 0) {
}
kernel_size = load_elf(kernel_filename, NULL, NULL, &elf_entry,
- NULL, NULL, 1, EM_68K, 0);
+ NULL, NULL, 1, EM_68K, 0, 0);
entry = elf_entry;
if (kernel_size < 0) {
kernel_size = load_uimage(kernel_filename, &entry, NULL, NULL,
/* Load kernel. */
if (kernel_filename) {
kernel_size = load_elf(kernel_filename, NULL, NULL, &elf_entry,
- NULL, NULL, 1, EM_68K, 0);
+ NULL, NULL, 1, EM_68K, 0, 0);
entry = elf_entry;
if (kernel_size < 0) {
kernel_size = load_uimage(kernel_filename, &entry, NULL, NULL,
}
kernel_size = load_elf(kernel_filename, NULL, NULL, &elf_entry,
- NULL, NULL, 1, EM_68K, 0);
+ NULL, NULL, 1, EM_68K, 0, 0);
entry = elf_entry;
if (kernel_size < 0) {
kernel_size = load_uimage(kernel_filename, &entry, NULL, NULL,
/* Boots a kernel elf binary. */
kernel_size = load_elf(kernel_filename, NULL, NULL,
&entry, &low, &high,
- big_endian, EM_MICROBLAZE, 0);
+ big_endian, EM_MICROBLAZE, 0, 0);
base32 = entry;
if (base32 == 0xc0000000) {
kernel_size = load_elf(kernel_filename, translate_kernel_address,
NULL, &entry, NULL, NULL,
- big_endian, EM_MICROBLAZE, 0);
+ big_endian, EM_MICROBLAZE, 0, 0);
}
/* Always boot into physical ram. */
boot_info.bootstrap_pc = (uint32_t)entry;
if (load_elf(loaderparams.kernel_filename, cpu_mips_kseg0_to_phys, NULL,
(uint64_t *)&kernel_entry, (uint64_t *)&kernel_low,
- (uint64_t *)&kernel_high, 0, EM_MIPS, 1) < 0) {
+ (uint64_t *)&kernel_high, 0, EM_MIPS, 1, 0) < 0) {
fprintf(stderr, "qemu: could not load kernel '%s'\n",
loaderparams.kernel_filename);
exit(1);
if (load_elf(loaderparams.kernel_filename, cpu_mips_kseg0_to_phys, NULL,
(uint64_t *)&kernel_entry, NULL, (uint64_t *)&kernel_high,
- big_endian, EM_MIPS, 1) < 0) {
+ big_endian, EM_MIPS, 1, 0) < 0) {
fprintf(stderr, "qemu: could not load kernel '%s'\n",
loaderparams.kernel_filename);
exit(1);
kernel_size = load_elf(loaderparams.kernel_filename, cpu_mips_kseg0_to_phys,
NULL, (uint64_t *)&entry, NULL,
(uint64_t *)&kernel_high, big_endian,
- EM_MIPS, 1);
+ EM_MIPS, 1, 0);
if (kernel_size >= 0) {
if ((entry & ~0x7fffffffULL) == 0x80000000)
entry = (int32_t)entry;
kernel_size = load_elf(loaderparams.kernel_filename, cpu_mips_kseg0_to_phys,
NULL, (uint64_t *)&entry, NULL,
(uint64_t *)&kernel_high, big_endian,
- EM_MIPS, 1);
+ EM_MIPS, 1, 0);
if (kernel_size >= 0) {
if ((entry & ~0x7fffffffULL) == 0x80000000)
entry = (int32_t)entry;
ram_addr_t initrd_offset;
kernel_size = load_elf(loader_params->kernel_filename, NULL, NULL,
- &entry, &kernel_low, &kernel_high, 1, EM_MOXIE, 0);
+ &entry, &kernel_low, &kernel_high, 1, EM_MOXIE,
+ 0, 0);
if (kernel_size <= 0) {
fprintf(stderr, "qemu: could not load kernel '%s'\n",
if (kernel_filename && !qtest_enabled()) {
kernel_size = load_elf(kernel_filename, NULL, NULL,
- &elf_entry, NULL, NULL, 1, EM_OPENRISC, 1);
+ &elf_entry, NULL, NULL, 1, EM_OPENRISC,
+ 1, 0);
entry = elf_entry;
if (kernel_size < 0) {
kernel_size = load_uimage(kernel_filename,
if (filename) {
if (s->elf_machine != EM_NONE) {
bios_size = load_elf(filename, NULL, NULL, NULL,
- NULL, NULL, 1, s->elf_machine, 0);
+ NULL, NULL, 1, s->elf_machine, 0, 0);
}
if (bios_size < 0) {
bios_size = get_image_size(filename);
filename = qemu_find_file(QEMU_FILE_TYPE_BIOS, bios_name);
bios_size = load_elf(filename, NULL, NULL, &bios_entry, &loadaddr, NULL,
- 1, PPC_ELF_MACHINE, 0);
+ 1, PPC_ELF_MACHINE, 0, 0);
if (bios_size < 0) {
/*
* Hrm. No ELF image? Try a uImage, maybe someone is giving us an
/* Load OpenBIOS (ELF) */
if (filename) {
bios_size = load_elf(filename, NULL, NULL, NULL,
- NULL, NULL, 1, PPC_ELF_MACHINE, 0);
+ NULL, NULL, 1, PPC_ELF_MACHINE, 0, 0);
g_free(filename);
} else {
kernel_base = KERNEL_LOAD_ADDR;
kernel_size = load_elf(kernel_filename, translate_kernel_address, NULL,
- NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE, 0);
+ NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE,
+ 0, 0);
if (kernel_size < 0)
kernel_size = load_aout(kernel_filename, kernel_base,
ram_size - kernel_base, bswap_needed,
/* Load OpenBIOS (ELF) */
if (filename) {
bios_size = load_elf(filename, 0, NULL, NULL, NULL, NULL,
- 1, PPC_ELF_MACHINE, 0);
+ 1, PPC_ELF_MACHINE, 0, 0);
g_free(filename);
} else {
bios_size = -1;
#endif
kernel_base = KERNEL_LOAD_ADDR;
kernel_size = load_elf(kernel_filename, translate_kernel_address, NULL,
- NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE, 0);
+ NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE,
+ 0, 0);
if (kernel_size < 0)
kernel_size = load_aout(kernel_filename, kernel_base,
ram_size - kernel_base, bswap_needed,
NULL, NULL);
if (success < 0) {
success = load_elf(kernel_filename, NULL, NULL, &elf_entry,
- &elf_lowaddr, NULL, 1, PPC_ELF_MACHINE, 0);
+ &elf_lowaddr, NULL, 1, PPC_ELF_MACHINE,
+ 0, 0);
entry = elf_entry;
loadaddr = elf_lowaddr;
}
uint64_t lowaddr = 0;
kernel_size = load_elf(kernel_filename, translate_kernel_address, NULL,
- NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE, 0);
+ NULL, &lowaddr, NULL, 1, PPC_ELF_MACHINE,
+ 0, 0);
if (kernel_size == ELF_LOAD_WRONG_ENDIAN) {
kernel_size = load_elf(kernel_filename,
translate_kernel_address, NULL,
- NULL, &lowaddr, NULL, 0, PPC_ELF_MACHINE, 0);
+ NULL, &lowaddr, NULL, 0, PPC_ELF_MACHINE,
+ 0, 0);
kernel_le = kernel_size > 0;
}
if (kernel_size < 0) {
/* Boots a kernel elf binary. */
kernel_size = load_elf(kernel_filename, NULL, NULL,
- &entry, &low, &high, 1, PPC_ELF_MACHINE, 0);
+ &entry, &low, &high, 1, PPC_ELF_MACHINE,
+ 0, 0);
boot_info.bootstrap_pc = entry & 0x00ffffff;
if (kernel_size < 0) {
bios_size = load_elf(bios_filename, bios_translate_addr, &fwbase,
&ipl->bios_start_addr, NULL, NULL, 1,
- EM_S390, 0);
+ EM_S390, 0, 0);
if (bios_size > 0) {
/* Adjust ELF start address to final location */
ipl->bios_start_addr += fwbase;
if (ipl->kernel) {
kernel_size = load_elf(ipl->kernel, NULL, NULL, &pentry, NULL,
- NULL, 1, EM_S390, 0);
+ NULL, 1, EM_S390, 0, 0);
if (kernel_size < 0) {
kernel_size = load_image_targphys(ipl->kernel, 0, ram_size);
}
uint64_t entry;
kernel_size = load_elf(kernel_filename, NULL, NULL, &entry, NULL, NULL,
- 1 /* big endian */, EM_SPARC, 0);
+ 1 /* big endian */, EM_SPARC, 0, 0);
if (kernel_size < 0) {
fprintf(stderr, "qemu: could not load kernel '%s'\n",
kernel_filename);
bswap_needed = 0;
#endif
kernel_size = load_elf(kernel_filename, translate_kernel_address, NULL,
- NULL, NULL, NULL, 1, EM_SPARC, 0);
+ NULL, NULL, NULL, 1, EM_SPARC, 0, 0);
if (kernel_size < 0)
kernel_size = load_aout(kernel_filename, KERNEL_LOAD_ADDR,
RAM_size - KERNEL_LOAD_ADDR, bswap_needed,
filename = qemu_find_file(QEMU_FILE_TYPE_BIOS, bios_name);
if (filename) {
ret = load_elf(filename, translate_prom_address, &addr, NULL,
- NULL, NULL, 1, EM_SPARC, 0);
+ NULL, NULL, 1, EM_SPARC, 0, 0);
if (ret < 0 || ret > PROM_SIZE_MAX) {
ret = load_image_targphys(filename, addr, PROM_SIZE_MAX);
}
bswap_needed = 0;
#endif
kernel_size = load_elf(kernel_filename, NULL, NULL, kernel_entry,
- kernel_addr, &kernel_top, 1, EM_SPARCV9, 0);
+ kernel_addr, &kernel_top, 1, EM_SPARCV9, 0, 0);
if (kernel_size < 0) {
*kernel_addr = KERNEL_LOAD_ADDR;
*kernel_entry = KERNEL_LOAD_ADDR;
filename = qemu_find_file(QEMU_FILE_TYPE_BIOS, bios_name);
if (filename) {
ret = load_elf(filename, translate_prom_address, &addr,
- NULL, NULL, NULL, 1, EM_SPARCV9, 0);
+ NULL, NULL, NULL, 1, EM_SPARCV9, 0, 0);
if (ret < 0 || ret > PROM_SIZE_MAX) {
ret = load_image_targphys(filename, addr, PROM_SIZE_MAX);
}
kernel_size = load_elf(tricoretb_binfo.kernel_filename, NULL,
NULL, (uint64_t *)&entry, NULL,
NULL, 0,
- EM_TRICORE, 1);
+ EM_TRICORE, 1, 0);
if (kernel_size <= 0) {
error_report("qemu: no kernel file '%s'",
tricoretb_binfo.kernel_filename);
uint64_t elf_lowaddr;
#ifdef TARGET_WORDS_BIGENDIAN
int success = load_elf(kernel_filename, translate_phys_addr, cpu,
- &elf_entry, &elf_lowaddr, NULL, 1, EM_XTENSA, 0);
+ &elf_entry, &elf_lowaddr, NULL, 1, EM_XTENSA, 0, 0);
#else
int success = load_elf(kernel_filename, translate_phys_addr, cpu,
- &elf_entry, &elf_lowaddr, NULL, 0, EM_XTENSA, 0);
+ &elf_entry, &elf_lowaddr, NULL, 0, EM_XTENSA, 0, 0);
#endif
if (success > 0) {
env->pc = elf_entry;
uint64_t elf_entry;
uint64_t elf_lowaddr;
int success = load_elf(kernel_filename, translate_phys_addr, cpu,
- &elf_entry, &elf_lowaddr, NULL, be, EM_XTENSA, 0);
+ &elf_entry, &elf_lowaddr, NULL, be, EM_XTENSA, 0, 0);
if (success > 0) {
entry_point = elf_entry;
} else {
void *translate_opaque,
int must_swab, uint64_t *pentry,
uint64_t *lowaddr, uint64_t *highaddr,
- int elf_machine, int clear_lsb)
+ int elf_machine, int clear_lsb, int data_swab)
{
struct elfhdr ehdr;
struct elf_phdr *phdr = NULL, *ph;
addr = ph->p_paddr;
}
+ if (data_swab) {
+ int j;
+ for (j = 0; j < file_size; j += (1 << data_swab)) {
+ uint8_t *dp = data + j;
+ switch (data_swab) {
+ case (1):
+ *(uint16_t *)dp = bswap16(*(uint16_t *)dp);
+ break;
+ case (2):
+ *(uint32_t *)dp = bswap32(*(uint32_t *)dp);
+ break;
+ case (3):
+ *(uint64_t *)dp = bswap64(*(uint64_t *)dp);
+ break;
+ default:
+ g_assert_not_reached();
+ }
+ }
+ }
+
/* the entry pointer in the ELF header is a virtual
* address, if the text segments paddr and vaddr differ
* we need to adjust the entry */
* @elf_machine: Expected ELF machine type
* @clear_lsb: Set to mask off LSB of addresses (Some architectures use
* this for non-address data)
+ * @data_swab: Set to order of byte swapping for data. 0 for no swap, 1
+ * for swapping bytes within halfwords, 2 for bytes within
+ * words and 3 for within doublewords.
*
* Load an ELF file's contents to the emulated system's address space.
* Clients may optionally specify a callback to perform address
int load_elf(const char *filename, uint64_t (*translate_fn)(void *, uint64_t),
void *translate_opaque, uint64_t *pentry, uint64_t *lowaddr,
uint64_t *highaddr, int big_endian, int elf_machine,
- int clear_lsb);
+ int clear_lsb, int data_swab);
/** load_elf_hdr:
* @filename: Path of ELF file