// SPDX-License-Identifier: GPL-2.0+
/*
* (C) Copyright 2008 Semihalf
*
* (C) Copyright 2000-2006
* Wolfgang Denk, DENX Software Engineering, wd@denx.de.
*/
#ifndef USE_HOSTCC
#include <common.h>
#include <bootstage.h>
#include <cpu_func.h>
#include <env.h>
#include <lmb.h>
#include <log.h>
#include <malloc.h>
#include <asm/cache.h>
#include <u-boot/crc.h>
#include <watchdog.h>
#ifdef CONFIG_SHOW_BOOT_PROGRESS
#include <status_led.h>
#endif
#include <rtc.h>
#include <gzip.h>
#include <image.h>
#include <lz4.h>
#include <mapmem.h>
#if IMAGE_ENABLE_FIT || IMAGE_ENABLE_OF_LIBFDT
#include <linux/libfdt.h>
#include <fdt_support.h>
#include <fpga.h>
#include <xilinx.h>
#endif
#include <asm/global_data.h>
#include <u-boot/md5.h>
#include <u-boot/sha1.h>
#include <linux/errno.h>
#include <asm/io.h>
#include <bzlib.h>
#include <linux/lzo.h>
#include <lzma/LzmaTypes.h>
#include <lzma/LzmaDec.h>
#include <lzma/LzmaTools.h>
#ifdef CONFIG_XZ
#include <xz/xz.h>
#include <xz/xz_config.h>
#include <xz/xz_lzma2.h>
#include <xz/xz_stream.h>
#endif
#ifdef CONFIG_MZ
#include <bootm.h>
#endif
#ifdef CONFIG_SSTAR_XZDEC
#include <../drivers/sstar/xzdec/drv_xzdec.h>
#endif
#include <linux/zstd.h>
#ifdef CONFIG_CMD_BDI
extern int do_bdinfo(struct cmd_tbl *cmdtp, int flag, int argc,
char *const argv[]);
#endif
DECLARE_GLOBAL_DATA_PTR;
#if CONFIG_IS_ENABLED(LEGACY_IMAGE_FORMAT)
static const image_header_t *image_get_ramdisk(ulong rd_addr, uint8_t arch,
int verify);
#endif
#else
#include "mkimage.h"
#include <u-boot/md5.h>
#include <time.h>
#include <image.h>
#ifndef __maybe_unused
# define __maybe_unused /* unimplemented */
#endif
#endif /* !USE_HOSTCC*/
#include <u-boot/crc.h>
#include <imximage.h>
#ifndef CONFIG_SYS_BARGSIZE
#define CONFIG_SYS_BARGSIZE 512
#endif
static const table_entry_t uimage_arch[] = {
{ IH_ARCH_INVALID, "invalid", "Invalid ARCH", },
{ IH_ARCH_ALPHA, "alpha", "Alpha", },
{ IH_ARCH_ARM, "arm", "ARM", },
{ IH_ARCH_I386, "x86", "Intel x86", },
{ IH_ARCH_IA64, "ia64", "IA64", },
{ IH_ARCH_M68K, "m68k", "M68K", },
{ IH_ARCH_MICROBLAZE, "microblaze", "MicroBlaze", },
{ IH_ARCH_MIPS, "mips", "MIPS", },
{ IH_ARCH_MIPS64, "mips64", "MIPS 64 Bit", },
{ IH_ARCH_NIOS2, "nios2", "NIOS II", },
{ IH_ARCH_PPC, "powerpc", "PowerPC", },
{ IH_ARCH_PPC, "ppc", "PowerPC", },
{ IH_ARCH_S390, "s390", "IBM S390", },
{ IH_ARCH_SH, "sh", "SuperH", },
{ IH_ARCH_SPARC, "sparc", "SPARC", },
{ IH_ARCH_SPARC64, "sparc64", "SPARC 64 Bit", },
{ IH_ARCH_BLACKFIN, "blackfin", "Blackfin", },
{ IH_ARCH_AVR32, "avr32", "AVR32", },
{ IH_ARCH_NDS32, "nds32", "NDS32", },
{ IH_ARCH_OPENRISC, "or1k", "OpenRISC 1000",},
{ IH_ARCH_SANDBOX, "sandbox", "Sandbox", },
{ IH_ARCH_ARM64, "arm64", "AArch64", },
{ IH_ARCH_ARC, "arc", "ARC", },
{ IH_ARCH_X86_64, "x86_64", "AMD x86_64", },
{ IH_ARCH_XTENSA, "xtensa", "Xtensa", },
{ IH_ARCH_RISCV, "riscv", "RISC-V", },
{ -1, "", "", },
};
static const table_entry_t uimage_os[] = {
{ IH_OS_INVALID, "invalid", "Invalid OS", },
{ IH_OS_ARM_TRUSTED_FIRMWARE, "arm-trusted-firmware", "ARM Trusted Firmware" },
{ IH_OS_LINUX, "linux", "Linux", },
#if defined(CONFIG_LYNXKDI) || defined(USE_HOSTCC)
{ IH_OS_LYNXOS, "lynxos", "LynxOS", },
#endif
{ IH_OS_NETBSD, "netbsd", "NetBSD", },
{ IH_OS_OSE, "ose", "Enea OSE", },
{ IH_OS_PLAN9, "plan9", "Plan 9", },
{ IH_OS_RTEMS, "rtems", "RTEMS", },
{ IH_OS_TEE, "tee", "Trusted Execution Environment" },
{ IH_OS_U_BOOT, "u-boot", "U-Boot", },
{ IH_OS_VXWORKS, "vxworks", "VxWorks", },
#if defined(CONFIG_CMD_ELF) || defined(USE_HOSTCC)
{ IH_OS_QNX, "qnx", "QNX", },
#endif
#if defined(CONFIG_INTEGRITY) || defined(USE_HOSTCC)
{ IH_OS_INTEGRITY,"integrity", "INTEGRITY", },
#endif
#ifdef USE_HOSTCC
{ IH_OS_4_4BSD, "4_4bsd", "4_4BSD", },
{ IH_OS_DELL, "dell", "Dell", },
{ IH_OS_ESIX, "esix", "Esix", },
{ IH_OS_FREEBSD, "freebsd", "FreeBSD", },
{ IH_OS_IRIX, "irix", "Irix", },
{ IH_OS_NCR, "ncr", "NCR", },
{ IH_OS_OPENBSD, "openbsd", "OpenBSD", },
{ IH_OS_PSOS, "psos", "pSOS", },
{ IH_OS_SCO, "sco", "SCO", },
{ IH_OS_SOLARIS, "solaris", "Solaris", },
{ IH_OS_SVR4, "svr4", "SVR4", },
#endif
#if defined(CONFIG_BOOTM_OPENRTOS) || defined(USE_HOSTCC)
{ IH_OS_OPENRTOS, "openrtos", "OpenRTOS", },
#endif
{ IH_OS_OPENSBI, "opensbi", "RISC-V OpenSBI", },
{ IH_OS_EFI, "efi", "EFI Firmware" },
#if defined(CONFIG_BOOTM_SS_RTOS) || defined(USE_HOSTCC)
{ IH_OS_SS_RTOS, "sigmastar-rtos", "SigmaStar-RTOS", },
#endif
#if defined(CONFIG_BOOTM_SS_HYPERVISOR) || defined(USE_HOSTCC)
{ IH_OS_SS_HYPERVISOR, "sigmastar-hyp", "SigmaStar-Hypervisor", },
#endif
{ -1, "", "", },
};
static const table_entry_t uimage_type[] = {
{ IH_TYPE_AISIMAGE, "aisimage", "Davinci AIS image",},
{ IH_TYPE_FILESYSTEM, "filesystem", "Filesystem Image", },
{ IH_TYPE_FIRMWARE, "firmware", "Firmware", },
{ IH_TYPE_FLATDT, "flat_dt", "Flat Device Tree", },
{ IH_TYPE_GPIMAGE, "gpimage", "TI Keystone SPL Image",},
{ IH_TYPE_KERNEL, "kernel", "Kernel Image", },
{ IH_TYPE_KERNEL_NOLOAD, "kernel_noload", "Kernel Image (no loading done)", },
{ IH_TYPE_KWBIMAGE, "kwbimage", "Kirkwood Boot Image",},
{ IH_TYPE_IMXIMAGE, "imximage", "Freescale i.MX Boot Image",},
{ IH_TYPE_IMX8IMAGE, "imx8image", "NXP i.MX8 Boot Image",},
{ IH_TYPE_IMX8MIMAGE, "imx8mimage", "NXP i.MX8M Boot Image",},
{ IH_TYPE_INVALID, "invalid", "Invalid Image", },
{ IH_TYPE_MULTI, "multi", "Multi-File Image", },
{ IH_TYPE_OMAPIMAGE, "omapimage", "TI OMAP SPL With GP CH",},
{ IH_TYPE_PBLIMAGE, "pblimage", "Freescale PBL Boot Image",},
{ IH_TYPE_RAMDISK, "ramdisk", "RAMDisk Image", },
{ IH_TYPE_SCRIPT, "script", "Script", },
{ IH_TYPE_SOCFPGAIMAGE, "socfpgaimage", "Altera SoCFPGA CV/AV preloader",},
{ IH_TYPE_SOCFPGAIMAGE_V1, "socfpgaimage_v1", "Altera SoCFPGA A10 preloader",},
{ IH_TYPE_STANDALONE, "standalone", "Standalone Program", },
{ IH_TYPE_UBLIMAGE, "ublimage", "Davinci UBL image",},
{ IH_TYPE_MXSIMAGE, "mxsimage", "Freescale MXS Boot Image",},
{ IH_TYPE_ATMELIMAGE, "atmelimage", "ATMEL ROM-Boot Image",},
{ IH_TYPE_X86_SETUP, "x86_setup", "x86 setup.bin", },
{ IH_TYPE_LPC32XXIMAGE, "lpc32xximage", "LPC32XX Boot Image", },
{ IH_TYPE_RKIMAGE, "rkimage", "Rockchip Boot Image" },
{ IH_TYPE_RKSD, "rksd", "Rockchip SD Boot Image" },
{ IH_TYPE_RKSPI, "rkspi", "Rockchip SPI Boot Image" },
{ IH_TYPE_VYBRIDIMAGE, "vybridimage", "Vybrid Boot Image", },
{ IH_TYPE_ZYNQIMAGE, "zynqimage", "Xilinx Zynq Boot Image" },
{ IH_TYPE_ZYNQMPIMAGE, "zynqmpimage", "Xilinx ZynqMP Boot Image" },
{ IH_TYPE_ZYNQMPBIF, "zynqmpbif", "Xilinx ZynqMP Boot Image (bif)" },
{ IH_TYPE_FPGA, "fpga", "FPGA Image" },
{ IH_TYPE_TEE, "tee", "Trusted Execution Environment Image",},
{ IH_TYPE_FIRMWARE_IVT, "firmware_ivt", "Firmware with HABv4 IVT" },
{ IH_TYPE_PMMC, "pmmc", "TI Power Management Micro-Controller Firmware",},
{ IH_TYPE_STM32IMAGE, "stm32image", "STMicroelectronics STM32 Image" },
{ IH_TYPE_MTKIMAGE, "mtk_image", "MediaTek BootROM loadable Image" },
{ IH_TYPE_COPRO, "copro", "Coprocessor Image"},
{ IH_TYPE_SUNXI_EGON, "sunxi_egon", "Allwinner eGON Boot Image" },
{ -1, "", "", },
};
static const table_entry_t uimage_comp[] = {
{ IH_COMP_NONE, "none", "uncompressed", },
{ IH_COMP_BZIP2, "bzip2", "bzip2 compressed", },
{ IH_COMP_GZIP, "gzip", "gzip compressed", },
{ IH_COMP_LZMA, "lzma", "lzma compressed", },
{ IH_COMP_LZMA2, "lzma2", "lzma2 compressed", },
{ IH_COMP_LZO, "lzo", "lzo compressed", },
{ IH_COMP_MZ, "mz", "mz compressed", },
{ IH_COMP_LZ4, "lz4", "lz4 compressed", },
{ IH_COMP_ZSTD, "zstd", "zstd compressed", },
{ -1, "", "", },
};
struct table_info {
const char *desc;
int count;
const table_entry_t *table;
};
static const struct comp_magic_map image_comp[] = {
{ IH_COMP_BZIP2, "bzip2", {0x42, 0x5a},},
{ IH_COMP_GZIP, "gzip", {0x1f, 0x8b},},
{ IH_COMP_LZMA, "lzma", {0x5d, 0x00},},
{ IH_COMP_LZO, "lzo", {0x89, 0x4c},},
{ IH_COMP_LZ4, "lz4", {0x04, 0x22},},
{ IH_COMP_NONE, "none", {}, },
};
static const struct table_info table_info[IH_COUNT] = {
{ "architecture", IH_ARCH_COUNT, uimage_arch },
{ "compression", IH_COMP_COUNT, uimage_comp },
{ "operating system", IH_OS_COUNT, uimage_os },
{ "image type", IH_TYPE_COUNT, uimage_type },
};
/*****************************************************************************/
/* Legacy format routines */
/*****************************************************************************/
int image_check_hcrc(const image_header_t *hdr)
{
ulong hcrc;
ulong len = image_get_header_size();
image_header_t header;
/* Copy header so we can blank CRC field for re-calculation */
memmove(&header, (char *)hdr, image_get_header_size());
image_set_hcrc(&header, 0);
hcrc = crc32(0, (unsigned char *)&header, len);
return (hcrc == image_get_hcrc(hdr));
}
int image_check_dcrc(const image_header_t *hdr)
{
ulong data = image_get_data(hdr);
ulong len = image_get_data_size(hdr);
ulong dcrc = crc32_wd(0, (unsigned char *)data, len, CHUNKSZ_CRC32);
return (dcrc == image_get_dcrc(hdr));
}
/**
* image_multi_count - get component (sub-image) count
* @hdr: pointer to the header of the multi component image
*
* image_multi_count() returns number of components in a multi
* component image.
*
* Note: no checking of the image type is done, caller must pass
* a valid multi component image.
*
* returns:
* number of components
*/
ulong image_multi_count(const image_header_t *hdr)
{
ulong i, count = 0;
uint32_t *size;
/* get start of the image payload, which in case of multi
* component images that points to a table of component sizes */
size = (uint32_t *)image_get_data(hdr);
/* count non empty slots */
for (i = 0; size[i]; ++i)
count++;
return count;
}
/**
* image_multi_getimg - get component data address and size
* @hdr: pointer to the header of the multi component image
* @idx: index of the requested component
* @data: pointer to a ulong variable, will hold component data address
* @len: pointer to a ulong variable, will hold component size
*
* image_multi_getimg() returns size and data address for the requested
* component in a multi component image.
*
* Note: no checking of the image type is done, caller must pass
* a valid multi component image.
*
* returns:
* data address and size of the component, if idx is valid
* 0 in data and len, if idx is out of range
*/
void image_multi_getimg(const image_header_t *hdr, ulong idx,
ulong *data, ulong *len)
{
int i;
uint32_t *size;
ulong offset, count, img_data;
/* get number of component */
count = image_multi_count(hdr);
/* get start of the image payload, which in case of multi
* component images that points to a table of component sizes */
size = (uint32_t *)image_get_data(hdr);
/* get address of the proper component data start, which means
* skipping sizes table (add 1 for last, null entry) */
img_data = image_get_data(hdr) + (count + 1) * sizeof(uint32_t);
if (idx < count) {
*len = uimage_to_cpu(size[idx]);
offset = 0;
/* go over all indices preceding requested component idx */
for (i = 0; i < idx; i++) {
/* add up i-th component size, rounding up to 4 bytes */
offset += (uimage_to_cpu(size[i]) + 3) & ~3 ;
}
/* calculate idx-th component data address */
*data = img_data + offset;
} else {
*len = 0;
*data = 0;
}
}
static void image_print_type(const image_header_t *hdr)
{
const char __maybe_unused *os, *arch, *type, *comp;
os = genimg_get_os_name(image_get_os(hdr));
arch = genimg_get_arch_name(image_get_arch(hdr));
type = genimg_get_type_name(image_get_type(hdr));
comp = genimg_get_comp_name(image_get_comp(hdr));
printf("%s %s %s (%s)\n", arch, os, type, comp);
}
/**
* image_print_contents - prints out the contents of the legacy format image
* @ptr: pointer to the legacy format image header
* @p: pointer to prefix string
*
* image_print_contents() formats a multi line legacy image contents description.
* The routine prints out all header fields followed by the size/offset data
* for MULTI/SCRIPT images.
*
* returns:
* no returned results
*/
void image_print_contents(const void *ptr)
{
const image_header_t *hdr = (const image_header_t *)ptr;
const char __maybe_unused *p;
p = IMAGE_INDENT_STRING;
printf("%sImage Name: %.*s\n", p, IH_NMLEN, image_get_name(hdr));
if (IMAGE_ENABLE_TIMESTAMP) {
printf("%sCreated: ", p);
genimg_print_time((time_t)image_get_time(hdr));
}
printf("%sImage Type: ", p);
image_print_type(hdr);
printf("%sData Size: ", p);
genimg_print_size(image_get_data_size(hdr));
printf("%sLoad Address: %08x\n", p, image_get_load(hdr));
printf("%sEntry Point: %08x\n", p, image_get_ep(hdr));
if (image_check_type(hdr, IH_TYPE_MULTI) ||
image_check_type(hdr, IH_TYPE_SCRIPT)) {
int i;
ulong data, len;
ulong count = image_multi_count(hdr);
printf("%sContents:\n", p);
for (i = 0; i < count; i++) {
image_multi_getimg(hdr, i, &data, &len);
printf("%s Image %d: ", p, i);
genimg_print_size(len);
if (image_check_type(hdr, IH_TYPE_SCRIPT) && i > 0) {
/*
* the user may need to know offsets
* if planning to do something with
* multiple files
*/
printf("%s Offset = 0x%08lx\n", p, data);
}
}
} else if (image_check_type(hdr, IH_TYPE_FIRMWARE_IVT)) {
printf("HAB Blocks: 0x%08x 0x0000 0x%08x\n",
image_get_load(hdr) - image_get_header_size(),
(int)(image_get_size(hdr) + image_get_header_size()
+ sizeof(flash_header_v2_t) - 0x2060));
}
}
/**
* print_decomp_msg() - Print a suitable decompression/loading message
*
* @type: OS type (IH_OS_...)
* @comp_type: Compression type being used (IH_COMP_...)
* @is_xip: true if the load address matches the image start
*/
static void print_decomp_msg(int comp_type, int type, bool is_xip)
{
const char *name = genimg_get_type_name(type);
if (comp_type == IH_COMP_NONE)
printf(" %s %s\n", is_xip ? "XIP" : "Loading", name);
else
printf(" Uncompressing %s\n", name);
}
int image_decomp_type(const unsigned char *buf, ulong len)
{
const struct comp_magic_map *cmagic = image_comp;
if (len < 2)
return -EINVAL;
for (; cmagic->comp_id > 0; cmagic++) {
if (!memcmp(buf, cmagic->magic, 2))
break;
}
return cmagic->comp_id;
}
int image_decomp(int comp, ulong load, ulong image_start, int type,
void *load_buf, void *image_buf, ulong image_len,
uint unc_len, ulong *load_end)
{
int ret = 0;
*load_end = load;
print_decomp_msg(comp, type, load == image_start);
/*
* Load the image to the right place, decompressing if needed. After
* this, image_len will be set to the number of uncompressed bytes
* loaded, ret will be non-zero on error.
*/
switch (comp) {
case IH_COMP_NONE:
if (load == image_start)
break;
if (image_len <= unc_len)
memmove_wd(load_buf, image_buf, image_len, CHUNKSZ);
else
ret = -ENOSPC;
break;
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(GZIP)
case IH_COMP_GZIP: {
ret = gunzip(load_buf, unc_len, image_buf, &image_len);
break;
}
#endif /* CONFIG_GZIP */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(BZIP2)
case IH_COMP_BZIP2: {
uint size = unc_len;
/*
* If we've got less than 4 MB of malloc() space,
* use slower decompression algorithm which requires
* at most 2300 KB of memory.
*/
ret = BZ2_bzBuffToBuffDecompress(load_buf, &size,
image_buf, image_len,
CONFIG_SYS_MALLOC_LEN < (4096 * 1024), 0);
image_len = size;
break;
}
#endif /* CONFIG_BZIP2 */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(LZMA) || CONFIG_IS_ENABLED(XZ)
case IH_COMP_LZMA: {
#ifdef CONFIG_XZ
struct xz_buf b;
struct xz_dec *s;
enum xz_ret ret;
// printf(" Uncompressing %s ... \n", type_name);
xz_crc32_init();
/*
* Support up to 64 MiB dictionary. The actually needed memory
* is allocated once the headers have been parsed.
*/
s = xz_dec_init(XZ_SINGLE, 16*1024);
if (s==NULL) {
printf(" xz_dec_init ERROR!!");
}
b.in = image_buf/*hardcore here*/;
b.in_pos = 0;
b.in_size = image_len;
b.out = load_buf;
b.out_pos = 0;
b.out_size = unc_len;
ret = xz_dec_run(s, &b);
// if(ret != XZ_OK || ret != XZ_STREAM_END)
// printf("\nXZ: uncompress erro %d\n", ret);
#ifdef __aarch64__
printf(" XZ: uncompressed size=0x%lx, ret=%d\n",b.out_pos, ret);
#else
printf(" XZ: uncompressed size=0x%x, ret=%d\n",b.out_pos, ret);
#endif
xz_dec_end(s);
break;
#else
SizeT lzma_len = unc_len;
ret = lzmaBuffToBuffDecompress(load_buf, &lzma_len,
image_buf, image_len);
image_len = lzma_len;
break;
#endif /* CONFIG_XZ */
}
#endif /* CONFIG_LZMA */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(LZMA2)
#if CONFIG_IS_ENABLED(SSTAR_XZDEC)
case IH_COMP_LZMA2: {
xzdec_handle handle = NULL;
xzdec_buf buf;
u32 size = 0;
u8 *comp_buf = NULL;
comp_buf = (u8 *)memalign(ARCH_DMA_MINALIGN, image_len);
if (!comp_buf)
{
printk(" sstar xzdec alloc memory fail!\n");
}
if (XZDEC_SUCCESS != drv_xzdec_init(0, comp_buf))
{
return 0;
}
handle = drv_xzdec_get(0);
buf.select = XZDEC_BDMA_MIU_TO_DEC;
buf.in = (u64)(unsigned long)image_buf;
buf.in_size = image_len;
buf.out = (u8 *)load_buf;
buf.head = image_buf;
if (XZDEC_SUCCESS != drv_xzdec_decode(handle, &buf))
{
return 0;
}
free((void *)comp_buf);
image_len = size;
break;
}
#endif
#endif /* CONFIG_LZMA2 */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(LZO)
case IH_COMP_LZO: {
size_t size = unc_len;
ret = lzop_decompress(image_buf, image_len, load_buf, &size);
image_len = size;
break;
}
#endif /* CONFIG_LZO */
#endif
#ifndef USE_HOSTCC
#ifdef CONFIG_MZ
case IH_COMP_MZ:
{
extern size_t tinfl_decompress_mem_to_mem(void *pOut_buf, size_t out_buf_len, const void *pSrc_buf, size_t src_buf_len, int flags);
int ret=-1;
// printf(" Uncompressing %s ... \n", type_name);
// printf(" 0x%08X, 0x%08X, 0x%08X, 0x%08X\n",load_buf, unc_len, image_buf, image_len);
if ((ret=tinfl_decompress_mem_to_mem(load_buf, unc_len, image_buf, image_len, 0)) <0) {
puts(" MZ: uncompress failed - must RESET board to recover\n");
return BOOTM_ERR_RESET;
}
else {
printf(" MZ: uncompressed size=0x%x\n",ret);
}
// *load_end = load + image_len;
break;
}
#endif /* CONFIG_MZ */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(LZ4)
case IH_COMP_LZ4: {
size_t size = unc_len;
ret = ulz4fn(image_buf, image_len, load_buf, &size);
image_len = size;
break;
}
#endif /* CONFIG_LZ4 */
#endif
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(ZSTD)
case IH_COMP_ZSTD: {
size_t size = unc_len;
ZSTD_DStream *dstream;
ZSTD_inBuffer in_buf;
ZSTD_outBuffer out_buf;
void *workspace;
size_t wsize;
wsize = ZSTD_DStreamWorkspaceBound(image_len);
workspace = malloc(wsize);
if (!workspace) {
debug("%s: cannot allocate workspace of size %zu\n", __func__,
wsize);
return -1;
}
dstream = ZSTD_initDStream(image_len, workspace, wsize);
if (!dstream) {
printf("%s: ZSTD_initDStream failed\n", __func__);
return ZSTD_getErrorCode(ret);
}
in_buf.src = image_buf;
in_buf.pos = 0;
in_buf.size = image_len;
out_buf.dst = load_buf;
out_buf.pos = 0;
out_buf.size = size;
while (1) {
size_t ret;
ret = ZSTD_decompressStream(dstream, &out_buf, &in_buf);
if (ZSTD_isError(ret)) {
printf("%s: ZSTD_decompressStream error %d\n", __func__,
ZSTD_getErrorCode(ret));
return ZSTD_getErrorCode(ret);
}
if (in_buf.pos >= image_len || !ret)
break;
}
image_len = out_buf.pos;
break;
}
#endif /* CONFIG_ZSTD */
#endif
default:
printf("Unimplemented compression type %d\n", comp);
return -ENOSYS;
}
*load_end = load + image_len;
return ret;
}
#ifndef USE_HOSTCC
#if CONFIG_IS_ENABLED(LEGACY_IMAGE_FORMAT)
/**
* image_get_ramdisk - get and verify ramdisk image
* @rd_addr: ramdisk image start address
* @arch: expected ramdisk architecture
* @verify: checksum verification flag
*
* image_get_ramdisk() returns a pointer to the verified ramdisk image
* header. Routine receives image start address and expected architecture
* flag. Verification done covers data and header integrity and os/type/arch
* fields checking.
*
* returns:
* pointer to a ramdisk image header, if image was found and valid
* otherwise, return NULL
*/
static const image_header_t *image_get_ramdisk(ulong rd_addr, uint8_t arch,
int verify)
{
const image_header_t *rd_hdr = (const image_header_t *)rd_addr;
if (!image_check_magic(rd_hdr)) {
puts("Bad Magic Number\n");
bootstage_error(BOOTSTAGE_ID_RD_MAGIC);
return NULL;
}
if (!image_check_hcrc(rd_hdr)) {
puts("Bad Header Checksum\n");
bootstage_error(BOOTSTAGE_ID_RD_HDR_CHECKSUM);
return NULL;
}
bootstage_mark(BOOTSTAGE_ID_RD_MAGIC);
image_print_contents(rd_hdr);
if (verify) {
puts(" Verifying Checksum ... ");
if (!image_check_dcrc(rd_hdr)) {
puts("Bad Data CRC\n");
bootstage_error(BOOTSTAGE_ID_RD_CHECKSUM);
return NULL;
}
puts("OK\n");
}
bootstage_mark(BOOTSTAGE_ID_RD_HDR_CHECKSUM);
if (!image_check_os(rd_hdr, IH_OS_LINUX) ||
!image_check_arch(rd_hdr, arch) ||
!image_check_type(rd_hdr, IH_TYPE_RAMDISK)) {
printf("No Linux %s Ramdisk Image\n",
genimg_get_arch_name(arch));
bootstage_error(BOOTSTAGE_ID_RAMDISK);
return NULL;
}
return rd_hdr;
}
#endif
#endif /* !USE_HOSTCC */
/*****************************************************************************/
/* Shared dual-format routines */
/*****************************************************************************/
#ifndef USE_HOSTCC
ulong image_load_addr = CONFIG_SYS_LOAD_ADDR; /* Default Load Address */
ulong image_save_addr; /* Default Save Address */
ulong image_save_size; /* Default Save Size (in bytes) */
static int on_loadaddr(const char *name, const char *value, enum env_op op,
int flags)
{
switch (op) {
case env_op_create:
case env_op_overwrite:
image_load_addr = hextoul(value, NULL);
break;
default:
break;
}
return 0;
}
U_BOOT_ENV_CALLBACK(loadaddr, on_loadaddr);
ulong env_get_bootm_low(void)
{
char *s = env_get("bootm_low");
if (s) {
ulong tmp = hextoul(s, NULL);
return tmp;
}
#if defined(CONFIG_SYS_SDRAM_BASE)
return CONFIG_SYS_SDRAM_BASE;
#elif defined(CONFIG_ARM) || defined(CONFIG_MICROBLAZE)
return gd->bd->bi_dram[0].start;
#else
return 0;
#endif
}
phys_size_t env_get_bootm_size(void)
{
phys_size_t tmp, size;
phys_addr_t start;
char *s = env_get("bootm_size");
if (s) {
tmp = (phys_size_t)simple_strtoull(s, NULL, 16);
return tmp;
}
start = gd->ram_base;
size = gd->ram_size;
if (start + size > gd->ram_top)
size = gd->ram_top - start;
s = env_get("bootm_low");
if (s)
tmp = (phys_size_t)simple_strtoull(s, NULL, 16);
else
tmp = start;
return size - (tmp - start);
}
phys_size_t env_get_bootm_mapsize(void)
{
phys_size_t tmp;
char *s = env_get("bootm_mapsize");
if (s) {
tmp = (phys_size_t)simple_strtoull(s, NULL, 16);
return tmp;
}
#if defined(CONFIG_SYS_BOOTMAPSZ)
return CONFIG_SYS_BOOTMAPSZ;
#else
return env_get_bootm_size();
#endif
}
void memmove_wd(void *to, void *from, size_t len, ulong chunksz)
{
if (to == from)
return;
#if defined(CONFIG_HW_WATCHDOG) || defined(CONFIG_WATCHDOG)
if (to > from) {
from += len;
to += len;
}
while (len > 0) {
size_t tail = (len > chunksz) ? chunksz : len;
WATCHDOG_RESET();
if (to > from) {
to -= tail;
from -= tail;
}
memmove(to, from, tail);
if (to < from) {
to += tail;
from += tail;
}
len -= tail;
}
#else /* !(CONFIG_HW_WATCHDOG || CONFIG_WATCHDOG) */
memmove(to, from, len);
#endif /* CONFIG_HW_WATCHDOG || CONFIG_WATCHDOG */
}
#else /* USE_HOSTCC */
void memmove_wd(void *to, void *from, size_t len, ulong chunksz)
{
memmove(to, from, len);
}
#endif /* !USE_HOSTCC */
void genimg_print_size(uint32_t size)
{
#ifndef USE_HOSTCC
printf("%d Bytes = ", size);
print_size(size, "\n");
#else
printf("%d Bytes = %.2f KiB = %.2f MiB\n",
size, (double)size / 1.024e3,
(double)size / 1.048576e6);
#endif
}
#if IMAGE_ENABLE_TIMESTAMP
void genimg_print_time(time_t timestamp)
{
#ifndef USE_HOSTCC
struct rtc_time tm;
rtc_to_tm(timestamp, &tm);
printf("%4d-%02d-%02d %2d:%02d:%02d UTC\n",
tm.tm_year, tm.tm_mon, tm.tm_mday,
tm.tm_hour, tm.tm_min, tm.tm_sec);
#else
printf("%s", ctime(×tamp));
#endif
}
#endif
const table_entry_t *get_table_entry(const table_entry_t *table, int id)
{
for (; table->id >= 0; ++table) {
if (table->id == id)
return table;
}
return NULL;
}
static const char *unknown_msg(enum ih_category category)
{
static const char unknown_str[] = "Unknown ";
static char msg[30];
strcpy(msg, unknown_str);
strncat(msg, table_info[category].desc,
sizeof(msg) - sizeof(unknown_str));
return msg;
}
/**
* genimg_get_cat_name - translate entry id to long name
* @category: category to look up (enum ih_category)
* @id: entry id to be translated
*
* This will scan the translation table trying to find the entry that matches
* the given id.
*
* @return long entry name if translation succeeds; error string on failure
*/
const char *genimg_get_cat_name(enum ih_category category, uint id)
{
const table_entry_t *entry;
entry = get_table_entry(table_info[category].table, id);
if (!entry)
return unknown_msg(category);
#if defined(USE_HOSTCC) || !defined(CONFIG_NEEDS_MANUAL_RELOC)
return entry->lname;
#else
return entry->lname + gd->reloc_off;
#endif
}
/**
* genimg_get_cat_short_name - translate entry id to short name
* @category: category to look up (enum ih_category)
* @id: entry id to be translated
*
* This will scan the translation table trying to find the entry that matches
* the given id.
*
* @return short entry name if translation succeeds; error string on failure
*/
const char *genimg_get_cat_short_name(enum ih_category category, uint id)
{
const table_entry_t *entry;
entry = get_table_entry(table_info[category].table, id);
if (!entry)
return unknown_msg(category);
#if defined(USE_HOSTCC) || !defined(CONFIG_NEEDS_MANUAL_RELOC)
return entry->sname;
#else
return entry->sname + gd->reloc_off;
#endif
}
int genimg_get_cat_count(enum ih_category category)
{
return table_info[category].count;
}
const char *genimg_get_cat_desc(enum ih_category category)
{
return table_info[category].desc;
}
/**
* genimg_cat_has_id - check whether category has entry id
* @category: category to look up (enum ih_category)
* @id: entry id to be checked
*
* This will scan the translation table trying to find the entry that matches
* the given id.
*
* @return true if category has entry id; false if not
*/
bool genimg_cat_has_id(enum ih_category category, uint id)
{
if (get_table_entry(table_info[category].table, id))
return true;
return false;
}
/**
* get_table_entry_name - translate entry id to long name
* @table: pointer to a translation table for entries of a specific type
* @msg: message to be returned when translation fails
* @id: entry id to be translated
*
* get_table_entry_name() will go over translation table trying to find
* entry that matches given id. If matching entry is found, its long
* name is returned to the caller.
*
* returns:
* long entry name if translation succeeds
* msg otherwise
*/
char *get_table_entry_name(const table_entry_t *table, char *msg, int id)
{
table = get_table_entry(table, id);
if (!table)
return msg;
#if defined(USE_HOSTCC) || !defined(CONFIG_NEEDS_MANUAL_RELOC)
return table->lname;
#else
return table->lname + gd->reloc_off;
#endif
}
const char *genimg_get_os_name(uint8_t os)
{
return (get_table_entry_name(uimage_os, "Unknown OS", os));
}
const char *genimg_get_arch_name(uint8_t arch)
{
return (get_table_entry_name(uimage_arch, "Unknown Architecture",
arch));
}
const char *genimg_get_type_name(uint8_t type)
{
return (get_table_entry_name(uimage_type, "Unknown Image", type));
}
const char *genimg_get_comp_name(uint8_t comp)
{
return (get_table_entry_name(uimage_comp, "Unknown Compression",
comp));
}
static const char *genimg_get_short_name(const table_entry_t *table, int val)
{
table = get_table_entry(table, val);
if (!table)
return "unknown";
#if defined(USE_HOSTCC) || !defined(CONFIG_NEEDS_MANUAL_RELOC)
return table->sname;
#else
return table->sname + gd->reloc_off;
#endif
}
const char *genimg_get_type_short_name(uint8_t type)
{
return genimg_get_short_name(uimage_type, type);
}
const char *genimg_get_comp_short_name(uint8_t comp)
{
return genimg_get_short_name(uimage_comp, comp);
}
const char *genimg_get_os_short_name(uint8_t os)
{
return genimg_get_short_name(uimage_os, os);
}
const char *genimg_get_arch_short_name(uint8_t arch)
{
return genimg_get_short_name(uimage_arch, arch);
}
/**
* get_table_entry_id - translate short entry name to id
* @table: pointer to a translation table for entries of a specific type
* @table_name: to be used in case of error
* @name: entry short name to be translated
*
* get_table_entry_id() will go over translation table trying to find
* entry that matches given short name. If matching entry is found,
* its id returned to the caller.
*
* returns:
* entry id if translation succeeds
* -1 otherwise
*/
int get_table_entry_id(const table_entry_t *table,
const char *table_name, const char *name)
{
const table_entry_t *t;
for (t = table; t->id >= 0; ++t) {
#ifdef CONFIG_NEEDS_MANUAL_RELOC
if (t->sname && strcasecmp(t->sname + gd->reloc_off, name) == 0)
#else
if (t->sname && strcasecmp(t->sname, name) == 0)
#endif
return (t->id);
}
debug("Invalid %s Type: %s\n", table_name, name);
return -1;
}
int genimg_get_os_id(const char *name)
{
return (get_table_entry_id(uimage_os, "OS", name));
}
int genimg_get_arch_id(const char *name)
{
return (get_table_entry_id(uimage_arch, "CPU", name));
}
int genimg_get_type_id(const char *name)
{
return (get_table_entry_id(uimage_type, "Image", name));
}
int genimg_get_comp_id(const char *name)
{
return (get_table_entry_id(uimage_comp, "Compression", name));
}
#ifndef USE_HOSTCC
/**
* genimg_get_kernel_addr_fit - get the real kernel address and return 2
* FIT strings
* @img_addr: a string might contain real image address
* @fit_uname_config: double pointer to a char, will hold pointer to a
* configuration unit name
* @fit_uname_kernel: double pointer to a char, will hold pointer to a subimage
* name
*
* genimg_get_kernel_addr_fit get the real kernel start address from a string
* which is normally the first argv of bootm/bootz
*
* returns:
* kernel start address
*/
ulong genimg_get_kernel_addr_fit(char * const img_addr,
const char **fit_uname_config,
const char **fit_uname_kernel)
{
ulong kernel_addr;
/* find out kernel image address */
if (!img_addr) {
kernel_addr = image_load_addr;
debug("* kernel: default image load address = 0x%08lx\n",
image_load_addr);
#if CONFIG_IS_ENABLED(FIT)
} else if (fit_parse_conf(img_addr, image_load_addr, &kernel_addr,
fit_uname_config)) {
debug("* kernel: config '%s' from image at 0x%08lx\n",
*fit_uname_config, kernel_addr);
} else if (fit_parse_subimage(img_addr, image_load_addr, &kernel_addr,
fit_uname_kernel)) {
debug("* kernel: subimage '%s' from image at 0x%08lx\n",
*fit_uname_kernel, kernel_addr);
#endif
} else {
kernel_addr = hextoul(img_addr, NULL);
debug("* kernel: cmdline image address = 0x%08lx\n",
kernel_addr);
}
return kernel_addr;
}
/**
* genimg_get_kernel_addr() is the simple version of
* genimg_get_kernel_addr_fit(). It ignores those return FIT strings
*/
ulong genimg_get_kernel_addr(char * const img_addr)
{
const char *fit_uname_config = NULL;
const char *fit_uname_kernel = NULL;
return genimg_get_kernel_addr_fit(img_addr, &fit_uname_config,
&fit_uname_kernel);
}
/**
* genimg_get_format - get image format type
* @img_addr: image start address
*
* genimg_get_format() checks whether provided address points to a valid
* legacy or FIT image.
*
* New uImage format and FDT blob are based on a libfdt. FDT blob
* may be passed directly or embedded in a FIT image. In both situations
* genimg_get_format() must be able to dectect libfdt header.
*
* returns:
* image format type or IMAGE_FORMAT_INVALID if no image is present
*/
int genimg_get_format(const void *img_addr)
{
#if CONFIG_IS_ENABLED(LEGACY_IMAGE_FORMAT)
const image_header_t *hdr;
hdr = (const image_header_t *)img_addr;
if (image_check_magic(hdr))
return IMAGE_FORMAT_LEGACY;
#endif
#if IMAGE_ENABLE_FIT || IMAGE_ENABLE_OF_LIBFDT
if (fdt_check_header(img_addr) == 0)
return IMAGE_FORMAT_FIT;
#endif
#ifdef CONFIG_ANDROID_BOOT_IMAGE
if (android_image_check_header(img_addr) == 0)
return IMAGE_FORMAT_ANDROID;
#endif
return IMAGE_FORMAT_INVALID;
}
/**
* fit_has_config - check if there is a valid FIT configuration
* @images: pointer to the bootm command headers structure
*
* fit_has_config() checks if there is a FIT configuration in use
* (if FTI support is present).
*
* returns:
* 0, no FIT support or no configuration found
* 1, configuration found
*/
int genimg_has_config(bootm_headers_t *images)
{
#if IMAGE_ENABLE_FIT
if (images->fit_uname_cfg)
return 1;
#endif
return 0;
}
/**
* boot_get_ramdisk - main ramdisk handling routine
* @argc: command argument count
* @argv: command argument list
* @images: pointer to the bootm images structure
* @arch: expected ramdisk architecture
* @rd_start: pointer to a ulong variable, will hold ramdisk start address
* @rd_end: pointer to a ulong variable, will hold ramdisk end
*
* boot_get_ramdisk() is responsible for finding a valid ramdisk image.
* Curently supported are the following ramdisk sources:
* - multicomponent kernel/ramdisk image,
* - commandline provided address of decicated ramdisk image.
*
* returns:
* 0, if ramdisk image was found and valid, or skiped
* rd_start and rd_end are set to ramdisk start/end addresses if
* ramdisk image is found and valid
*
* 1, if ramdisk image is found but corrupted, or invalid
* rd_start and rd_end are set to 0 if no ramdisk exists
*/
int boot_get_ramdisk(int argc, char *const argv[], bootm_headers_t *images,
uint8_t arch, ulong *rd_start, ulong *rd_end)
{
ulong rd_addr, rd_load;
ulong rd_data, rd_len;
#if CONFIG_IS_ENABLED(LEGACY_IMAGE_FORMAT)
const image_header_t *rd_hdr;
#endif
void *buf;
#ifdef CONFIG_SUPPORT_RAW_INITRD
char *end;
#endif
#if IMAGE_ENABLE_FIT
const char *fit_uname_config = images->fit_uname_cfg;
const char *fit_uname_ramdisk = NULL;
ulong default_addr;
int rd_noffset;
#endif
const char *select = NULL;
*rd_start = 0;
*rd_end = 0;
if (argc >= 2)
select = argv[1];
/*
* Look for a '-' which indicates to ignore the
* ramdisk argument
*/
if (select && strcmp(select, "-") == 0) {
debug("## Skipping init Ramdisk\n");
rd_len = rd_data = 0;
} else if (select || genimg_has_config(images)) {
#if IMAGE_ENABLE_FIT
if (select) {
/*
* If the init ramdisk comes from the FIT image and
* the FIT image address is omitted in the command
* line argument, try to use os FIT image address or
* default load address.
*/
if (images->fit_uname_os)
default_addr = (ulong)images->fit_hdr_os;
else
default_addr = image_load_addr;
if (fit_parse_conf(select, default_addr,
&rd_addr, &fit_uname_config)) {
debug("* ramdisk: config '%s' from image at "
"0x%08lx\n",
fit_uname_config, rd_addr);
} else if (fit_parse_subimage(select, default_addr,
&rd_addr, &fit_uname_ramdisk)) {
debug("* ramdisk: subimage '%s' from image at "
"0x%08lx\n",
fit_uname_ramdisk, rd_addr);
} else
#endif
{
rd_addr = hextoul(select, NULL);
debug("* ramdisk: cmdline image address = "
"0x%08lx\n",
rd_addr);
}
#if IMAGE_ENABLE_FIT
} else {
/* use FIT configuration provided in first bootm
* command argument. If the property is not defined,
* quit silently.
*/
rd_addr = map_to_sysmem(images->fit_hdr_os);
rd_noffset = fit_get_node_from_config(images,
FIT_RAMDISK_PROP, rd_addr);
if (rd_noffset == -ENOENT)
return 0;
else if (rd_noffset < 0)
return 1;
}
#endif
/*
* Check if there is an initrd image at the
* address provided in the second bootm argument
* check image type, for FIT images get FIT node.
*/
buf = map_sysmem(rd_addr, 0);
switch (genimg_get_format(buf)) {
#if CONFIG_IS_ENABLED(LEGACY_IMAGE_FORMAT)
case IMAGE_FORMAT_LEGACY:
printf("## Loading init Ramdisk from Legacy "
"Image at %08lx ...\n", rd_addr);
bootstage_mark(BOOTSTAGE_ID_CHECK_RAMDISK);
rd_hdr = image_get_ramdisk(rd_addr, arch,
images->verify);
if (rd_hdr == NULL)
return 1;
rd_data = image_get_data(rd_hdr);
rd_len = image_get_data_size(rd_hdr);
rd_load = image_get_load(rd_hdr);
break;
#endif
#if IMAGE_ENABLE_FIT
case IMAGE_FORMAT_FIT:
rd_noffset = fit_image_load(images,
rd_addr, &fit_uname_ramdisk,
&fit_uname_config, arch,
IH_TYPE_RAMDISK,
BOOTSTAGE_ID_FIT_RD_START,
FIT_LOAD_OPTIONAL_NON_ZERO,
&rd_data, &rd_len);
if (rd_noffset < 0)
return 1;
images->fit_hdr_rd = map_sysmem(rd_addr, 0);
images->fit_uname_rd = fit_uname_ramdisk;
images->fit_noffset_rd = rd_noffset;
break;
#endif
default:
#ifdef CONFIG_SUPPORT_RAW_INITRD
end = NULL;
if (select)
end = strchr(select, ':');
if (end) {
rd_len = hextoul(++end, NULL);
rd_data = rd_addr;
} else
#endif
{
puts("Wrong Ramdisk Image Format\n");
rd_data = rd_len = rd_load = 0;
return 1;
}
}
} else if (images->legacy_hdr_valid &&
image_check_type(&images->legacy_hdr_os_copy,
IH_TYPE_MULTI)) {
/*
* Now check if we have a legacy mult-component image,
* get second entry data start address and len.
*/
bootstage_mark(BOOTSTAGE_ID_RAMDISK);
printf("## Loading init Ramdisk from multi component "
"Legacy Image at %08lx ...\n",
(ulong)images->legacy_hdr_os);
image_multi_getimg(images->legacy_hdr_os, 1, &rd_data, &rd_len);
} else {
/*
* no initrd image
*/
bootstage_mark(BOOTSTAGE_ID_NO_RAMDISK);
rd_len = rd_data = 0;
}
if (!rd_data) {
debug("## No init Ramdisk\n");
} else {
*rd_start = rd_data;
*rd_end = rd_data + rd_len;
}
debug(" ramdisk start = 0x%08lx, ramdisk end = 0x%08lx\n",
*rd_start, *rd_end);
return 0;
}
#ifdef CONFIG_SYS_BOOT_RAMDISK_HIGH
/**
* 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
* start address (after possible relocation)
* @initrd_end: pointer to a ulong variable, will hold final init ramdisk
* end address (after possible relocation)
*
* boot_ramdisk_high() takes a relocation hint from "initrd_high" environment
* variable and if requested ramdisk data is moved to a specified location.
*
* Initrd_start and initrd_end are set to final (after relocation) ramdisk
* start/end addresses if ramdisk image start and len were provided,
* otherwise set initrd_start and initrd_end set to zeros.
*
* returns:
* 0 - success
* -1 - failure
*/
int boot_ramdisk_high(struct lmb *lmb, ulong rd_data, ulong rd_len,
ulong *initrd_start, ulong *initrd_end)
{
char *s;
ulong initrd_high;
int initrd_copy_to_ram = 1;
s = env_get("initrd_high");
if (s) {
/* a value of "no" or a similar string will act like 0,
* turning the "load high" feature off. This is intentional.
*/
initrd_high = hextoul(s, NULL);
if (initrd_high == ~0)
initrd_copy_to_ram = 0;
} else {
initrd_high = env_get_bootm_mapsize() + env_get_bootm_low();
}
debug("## initrd_high = 0x%08lx, copy_to_ram = %d\n",
initrd_high, initrd_copy_to_ram);
if (rd_data) {
if (!initrd_copy_to_ram) { /* zero-copy ramdisk support */
debug(" in-place initrd\n");
*initrd_start = rd_data;
*initrd_end = rd_data + rd_len;
lmb_reserve(lmb, rd_data, rd_len);
} else {
if (initrd_high)
*initrd_start = (ulong)lmb_alloc_base(lmb,
rd_len, 0x1000, initrd_high);
else
*initrd_start = (ulong)lmb_alloc(lmb, rd_len,
0x1000);
if (*initrd_start == 0) {
puts("ramdisk - allocation error\n");
goto error;
}
bootstage_mark(BOOTSTAGE_ID_COPY_RAMDISK);
*initrd_end = *initrd_start + rd_len;
printf(" Loading Ramdisk to %08lx, end %08lx ... ",
*initrd_start, *initrd_end);
memmove_wd((void *)*initrd_start,
(void *)rd_data, rd_len, CHUNKSZ);
#ifdef CONFIG_MP
/*
* Ensure the image is flushed to memory to handle
* AMP boot scenarios in which we might not be
* HW cache coherent
*/
flush_cache((unsigned long)*initrd_start,
ALIGN(rd_len, ARCH_DMA_MINALIGN));
#endif
puts("OK\n");
}
} else {
*initrd_start = 0;
*initrd_end = 0;
}
debug(" ramdisk load start = 0x%08lx, ramdisk load end = 0x%08lx\n",
*initrd_start, *initrd_end);
return 0;
error:
return -1;
}
#endif /* CONFIG_SYS_BOOT_RAMDISK_HIGH */
int boot_get_setup(bootm_headers_t *images, uint8_t arch,
ulong *setup_start, ulong *setup_len)
{
#if IMAGE_ENABLE_FIT
return boot_get_setup_fit(images, arch, setup_start, setup_len);
#else
return -ENOENT;
#endif
}
#if IMAGE_ENABLE_FIT
#if defined(CONFIG_FPGA)
int boot_get_fpga(int argc, char *const argv[], bootm_headers_t *images,
uint8_t arch, const ulong *ld_start, ulong * const ld_len)
{
ulong tmp_img_addr, img_data, img_len;
void *buf;
int conf_noffset;
int fit_img_result;
const char *uname, *name;
int err;
int devnum = 0; /* TODO support multi fpga platforms */
/* Check to see if the images struct has a FIT configuration */
if (!genimg_has_config(images)) {
debug("## FIT configuration was not specified\n");
return 0;
}
/*
* Obtain the os FIT header from the images struct
*/
tmp_img_addr = map_to_sysmem(images->fit_hdr_os);
buf = map_sysmem(tmp_img_addr, 0);
/*
* Check image type. For FIT images get FIT node
* and attempt to locate a generic binary.
*/
switch (genimg_get_format(buf)) {
case IMAGE_FORMAT_FIT:
conf_noffset = fit_conf_get_node(buf, images->fit_uname_cfg);
uname = fdt_stringlist_get(buf, conf_noffset, FIT_FPGA_PROP, 0,
NULL);
if (!uname) {
debug("## FPGA image is not specified\n");
return 0;
}
fit_img_result = fit_image_load(images,
tmp_img_addr,
(const char **)&uname,
&(images->fit_uname_cfg),
arch,
IH_TYPE_FPGA,
BOOTSTAGE_ID_FPGA_INIT,
FIT_LOAD_OPTIONAL_NON_ZERO,
&img_data, &img_len);
debug("FPGA image (%s) loaded to 0x%lx/size 0x%lx\n",
uname, img_data, img_len);
if (fit_img_result < 0) {
/* Something went wrong! */
return fit_img_result;
}
if (!fpga_is_partial_data(devnum, img_len)) {
name = "full";
err = fpga_loadbitstream(devnum, (char *)img_data,
img_len, BIT_FULL);
if (err)
err = fpga_load(devnum, (const void *)img_data,
img_len, BIT_FULL);
} else {
name = "partial";
err = fpga_loadbitstream(devnum, (char *)img_data,
img_len, BIT_PARTIAL);
if (err)
err = fpga_load(devnum, (const void *)img_data,
img_len, BIT_PARTIAL);
}
if (err)
return err;
printf(" Programming %s bitstream... OK\n", name);
break;
default:
printf("The given image format is not supported (corrupt?)\n");
return 1;
}
return 0;
}
#endif
static void fit_loadable_process(uint8_t img_type,
ulong img_data,
ulong img_len)
{
int i;
const unsigned int count =
ll_entry_count(struct fit_loadable_tbl, fit_loadable);
struct fit_loadable_tbl *fit_loadable_handler =
ll_entry_start(struct fit_loadable_tbl, fit_loadable);
/* For each loadable handler */
for (i = 0; i < count; i++, fit_loadable_handler++)
/* matching this type */
if (fit_loadable_handler->type == img_type)
/* call that handler with this image data */
fit_loadable_handler->handler(img_data, img_len);
}
int boot_get_loadable(int argc, char *const argv[], bootm_headers_t *images,
uint8_t arch, const ulong *ld_start, ulong * const ld_len)
{
/*
* These variables are used to hold the current image location
* in system memory.
*/
ulong tmp_img_addr;
/*
* These two variables are requirements for fit_image_load, but
* their values are not used
*/
ulong img_data, img_len;
void *buf;
int loadables_index;
int conf_noffset;
int fit_img_result;
const char *uname;
uint8_t img_type;
/* Check to see if the images struct has a FIT configuration */
if (!genimg_has_config(images)) {
debug("## FIT configuration was not specified\n");
return 0;
}
/*
* Obtain the os FIT header from the images struct
*/
tmp_img_addr = map_to_sysmem(images->fit_hdr_os);
buf = map_sysmem(tmp_img_addr, 0);
/*
* Check image type. For FIT images get FIT node
* and attempt to locate a generic binary.
*/
switch (genimg_get_format(buf)) {
case IMAGE_FORMAT_FIT:
conf_noffset = fit_conf_get_node(buf, images->fit_uname_cfg);
for (loadables_index = 0;
uname = fdt_stringlist_get(buf, conf_noffset,
FIT_LOADABLE_PROP, loadables_index,
NULL), uname;
loadables_index++)
{
fit_img_result = fit_image_load(images,
tmp_img_addr,
&uname,
&(images->fit_uname_cfg), arch,
IH_TYPE_LOADABLE,
BOOTSTAGE_ID_FIT_LOADABLE_START,
FIT_LOAD_OPTIONAL_NON_ZERO,
&img_data, &img_len);
if (fit_img_result < 0) {
/* Something went wrong! */
return fit_img_result;
}
fit_img_result = fit_image_get_node(buf, uname);
if (fit_img_result < 0) {
/* Something went wrong! */
return fit_img_result;
}
fit_img_result = fit_image_get_type(buf,
fit_img_result,
&img_type);
if (fit_img_result < 0) {
/* Something went wrong! */
return fit_img_result;
}
fit_loadable_process(img_type, img_data, img_len);
}
break;
default:
printf("The given image format is not supported (corrupt?)\n");
return 1;
}
return 0;
}
#endif
#ifdef CONFIG_SYS_BOOT_GET_CMDLINE
/**
* 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
*
* boot_get_cmdline() allocates space for kernel command line below
* BOOTMAPSZ + env_get_bootm_low() address. If "bootargs" U-Boot environment
* variable is present its contents is copied to allocated kernel
* command line.
*
* returns:
* 0 - success
* -1 - failure
*/
int boot_get_cmdline(struct lmb *lmb, ulong *cmd_start, ulong *cmd_end)
{
char *cmdline;
char *s;
cmdline = (char *)(ulong)lmb_alloc_base(lmb, CONFIG_SYS_BARGSIZE, 0xf,
env_get_bootm_mapsize() + env_get_bootm_low());
if (cmdline == NULL)
return -1;
s = env_get("bootargs");
if (!s)
s = "";
strcpy(cmdline, s);
*cmd_start = (ulong) & cmdline[0];
*cmd_end = *cmd_start + strlen(cmdline);
debug("## cmdline at 0x%08lx ... 0x%08lx\n", *cmd_start, *cmd_end);
return 0;
}
#endif /* CONFIG_SYS_BOOT_GET_CMDLINE */
#ifdef CONFIG_SYS_BOOT_GET_KBD
/**
* 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
* BOOTMAPSZ + env_get_bootm_low() address and kernel board info is initialized
* with the current u-boot board info data.
*
* returns:
* 0 - success
* -1 - failure
*/
int boot_get_kbd(struct lmb *lmb, struct bd_info **kbd)
{
*kbd = (struct bd_info *)(ulong)lmb_alloc_base(lmb,
sizeof(struct bd_info),
0xf,
env_get_bootm_mapsize() + env_get_bootm_low());
if (*kbd == NULL)
return -1;
**kbd = *(gd->bd);
debug("## kernel board info at 0x%08lx\n", (ulong)*kbd);
#if defined(DEBUG) && defined(CONFIG_CMD_BDI)
do_bdinfo(NULL, 0, 0, NULL);
#endif
return 0;
}
#endif /* CONFIG_SYS_BOOT_GET_KBD */
#ifdef CONFIG_LMB
int image_setup_linux(bootm_headers_t *images)
{
ulong of_size = images->ft_len;
char **of_flat_tree = &images->ft_addr;
struct lmb *lmb = &images->lmb;
int ret;
if (IMAGE_ENABLE_OF_LIBFDT)
boot_fdt_add_mem_rsv_regions(lmb, *of_flat_tree);
if (IMAGE_BOOT_GET_CMDLINE) {
ret = boot_get_cmdline(lmb, &images->cmdline_start,
&images->cmdline_end);
if (ret) {
puts("ERROR with allocation of cmdline\n");
return ret;
}
}
if (IMAGE_ENABLE_OF_LIBFDT) {
ret = boot_relocate_fdt(lmb, of_flat_tree, &of_size);
if (ret)
return ret;
}
if (IMAGE_ENABLE_OF_LIBFDT && of_size) {
ret = image_setup_libfdt(images, *of_flat_tree, of_size, lmb);
if (ret)
return ret;
}
return 0;
}
#endif /* CONFIG_LMB */
#endif /* !USE_HOSTCC */
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这篇博客详细介绍了如何重建 Broadcom 为 Linux 设备提供的无线驱动模块、wl.exe 实用程序和 USB 下载器。它包含了所需的所有源代码和步骤，包括解压 .tar.gz 子包，然后分别在 src/wl/linux、src/wl/exe 和 src/usbdev/usbdl 目录下执行 make 命令来编译驱动、实用程序和下载器。
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