/* * mkbootimg/main.c * * Copyright (C) 2017 - 2021 bzt (bztsrc@gitlab) * * Permission is hereby granted, free of charge, to any person * obtaining a copy of this software and associated documentation * files (the "Software"), to deal in the Software without * restriction, including without limitation the rights to use, copy, * modify, merge, publish, distribute, sublicense, and/or sell copies * of the Software, and to permit persons to whom the Software is * furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be * included in all copies or substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, * EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF * MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND * NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT * HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, * WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER * DEALINGS IN THE SOFTWARE. * * This file is part of the BOOTBOOT Protocol package. * @brief Bootable image creator main file * */ #include "main.h" #include "fs.h" #ifdef __WIN32__ #include #define ISHH(x) ((((x)>>30)&0xFFFFFFFF)==0xFFFFFFFF) #else #define ISHH(x) (((x)>>30)==0x3FFFFFFFF) #endif #if defined(MACOSX) || __WORDSIZE == 32 #define LL "ll" #else #define LL "l" #endif extern const char deflate_copyright[]; char **lang = NULL; /** * Get language dictionary */ char **getlang(int *argc, char **argv) { char *loc = NULL; int i; #ifdef __WIN32__ /* see https://docs.microsoft.com/en-us/windows/win32/intl/language-identifier-constants-and-strings */ switch((GetUserDefaultLangID() /* GetUserDefaultUILanguage() */) & 0xFF) { case 0x01: loc = "ar"; break; case 0x02: loc = "bg"; break; case 0x03: loc = "ca"; break; case 0x04: loc = "zh"; break; case 0x05: loc = "cs"; break; case 0x06: loc = "da"; break; case 0x07: loc = "de"; break; case 0x08: loc = "el"; break; case 0x0A: loc = "es"; break; case 0x0B: loc = "fi"; break; case 0x0C: loc = "fr"; break; case 0x0D: loc = "he"; break; case 0x0E: loc = "hu"; break; case 0x0F: loc = "is"; break; case 0x10: loc = "it"; break; case 0x11: loc = "jp"; break; case 0x12: loc = "ko"; break; case 0x13: loc = "nl"; break; case 0x14: loc = "no"; break; case 0x15: loc = "pl"; break; case 0x16: loc = "pt"; break; case 0x17: loc = "rm"; break; case 0x18: loc = "ro"; break; case 0x19: loc = "ru"; break; case 0x1A: loc = "hr"; break; case 0x1B: loc = "sk"; break; case 0x1C: loc = "sq"; break; case 0x1D: loc = "sv"; break; case 0x1E: loc = "th"; break; case 0x1F: loc = "tr"; break; case 0x20: loc = "ur"; break; case 0x21: loc = "id"; break; case 0x22: loc = "uk"; break; case 0x23: loc = "be"; break; case 0x24: loc = "sl"; break; case 0x25: loc = "et"; break; case 0x26: loc = "lv"; break; case 0x27: loc = "lt"; break; case 0x29: loc = "fa"; break; case 0x2A: loc = "vi"; break; case 0x2B: loc = "hy"; break; case 0x2D: loc = "bq"; break; case 0x2F: loc = "mk"; break; case 0x36: loc = "af"; break; case 0x37: loc = "ka"; break; case 0x38: loc = "fo"; break; case 0x39: loc = "hi"; break; case 0x3A: loc = "mt"; break; case 0x3C: loc = "gd"; break; case 0x3E: loc = "ms"; break; case 0x3F: loc = "kk"; break; case 0x40: loc = "ky"; break; case 0x45: loc = "bn"; break; case 0x47: loc = "gu"; break; case 0x4D: loc = "as"; break; case 0x4E: loc = "mr"; break; case 0x4F: loc = "sa"; break; case 0x53: loc = "kh"; break; case 0x54: loc = "lo"; break; case 0x56: loc = "gl"; break; case 0x5E: loc = "am"; break; case 0x62: loc = "fy"; break; case 0x68: loc = "ha"; break; case 0x6D: loc = "ba"; break; case 0x6E: loc = "lb"; break; case 0x6F: loc = "kl"; break; case 0x7E: loc = "br"; break; case 0x92: loc = "ku"; break; case 0x09: default: loc = "en"; break; } #endif if(!loc) loc = getenv("LANG"); if(!loc) loc = "en"; if(*argc > 2 && !strcmp(argv[1], "-l")) { loc = argv[2]; (*argc) -= 2; argv += 2; } for(i = 0; i < NUMLANGS; i++) if(!strncmp(loc, dict[i][0], strlen(dict[i][0]))) break; if(i >= NUMLANGS) { i = 0; loc = "en"; } lang = &dict[i][1]; return argv; } /** * Parse the mkbootimg json configuration file */ void parsejson(char *json) { char *tmp, key[64]; int i; tmp = json_get(json, "diskguid"); getguid(tmp, &diskguid); free(tmp); tmp = json_get(json, "disksize"); if(tmp) { disk_size = atoi(tmp); } free(tmp); tmp = json_get(json, "align"); if(tmp) { disk_align = atoi(tmp); } free(tmp); memset(initrd_dir, 0, NUMARCH*sizeof(void*)); memset(initrd_buf, 0, NUMARCH*sizeof(void*)); for(i = 0; i < NUMARCH; i++) { sprintf(key, "initrd.file.%d", i); tmp = json_get(json, key); if(!i && (!tmp || !*tmp)) tmp = json_get(json, "initrd.file"); if(tmp && *tmp) { initrd_buf[i] = readfileall(tmp); initrd_size[i] = read_size; if(!initrd_buf[i] || !read_size) { fprintf(stderr,"mkbootimg: %s %s\r\n",lang[ERR_INITRDIMG],tmp); exit(1); } free(tmp); } else { sprintf(key, "initrd.directory.%d", i); initrd_dir[i] = json_get(json, key); if(!i && !initrd_dir[i]) initrd_dir[i] = json_get(json, "initrd.directory"); } if(!initrd_dir[i] && !initrd_buf[i]) break; } if((!initrd_dir[0] || !initrd_dir[0][0]) && !initrd_buf[0]) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_NOINITRD]); exit(1); } if(initrd_dir[0]) { tmp = json_get(json, "initrd.type"); if(!tmp || !*tmp) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_NOINITRDTYPE]); exit(1); } if(strcmp(tmp, "fat16") && strcmp(tmp, "fat32")) for(i = 0; fsdrv[i].name && fsdrv[i].add; i++) if(!strcmp(tmp, fsdrv[i].name)) { rd_open = fsdrv[i].open; rd_add = fsdrv[i].add; rd_close = fsdrv[i].close; break; } if(!rd_add) { fprintf(stderr,"mkbootimg: %s %s. %s:", lang[ERR_BADINITRDTYPE],tmp,lang[ERR_ACCEPTVALUES]); for(i = 0; fsdrv[i].name && fsdrv[i].add; i++) fprintf(stderr,"%s %s",i ? "," : "",fsdrv[i].name); fprintf(stderr,"\r\n"); exit(1); } free(tmp); } tmp = json_get(json, "initrd.gzip"); if(tmp && tmp[0] != '1' && tmp[0] != 't' && tmp[0] != 'y') initrd_gzip = 0; free(tmp); tmp = json_get(json, "config"); if(tmp && *tmp) { config = (char*)readfileall(tmp); if(!config || !*config) { fprintf(stderr,"mkbootimg: %s %s\r\n",lang[ERR_NOCONF],tmp); exit(1); } if(read_size > 4095) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_BIGCONF]); exit(1); } } free(tmp); tmp = json_get(json, "iso9660"); if(tmp && (*tmp=='1' || *tmp=='t' || *tmp=='y')) { iso9660 = 1; } free(tmp); tmp = json_get(json, "partitions.0.type"); if(!tmp || !*tmp) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_NOPART]); exit(1); } if(tmp && !memcmp(tmp, "fat32", 5)) boot_fat = 32; free(tmp); tmp = json_get(json, "partitions.0.size"); if(!tmp || !*tmp) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_NOPARTSIZE]); exit(1); } boot_size = atoi(tmp); free(tmp); if(boot_size < 16) boot_size = 16; if(!diskguid.Data1) diskguid.Data1 = crc32(0,(uint8_t*)&t, sizeof(time_t)) ^ 0x08040201; if(!diskguid.Data2 && !diskguid.Data3) { ((uint32_t*)&diskguid)[1] = crc32(0,(uint8_t*)&diskguid.Data1, 4); ((uint32_t*)&diskguid)[2] = crc32(0,(uint8_t*)&diskguid.Data2, 4) ^ (unsigned long int)t; ((uint32_t*)&diskguid)[3] = crc32(0,(uint8_t*)&diskguid.Data3, 4); } } /** * Parse the BOOTBOOT configuration file */ void parseconfig() { char *ptr = config, *e; while(ptr && *ptr) { if(ptr[0]==' '||ptr[0]=='\t'||ptr[0]=='\r'||ptr[0]=='\n') { ptr++; continue; } if((ptr[0]=='/'&&ptr[1]=='/')||ptr[0]=='#') { while(ptr[0]!=0 && ptr[0]!='\r' && ptr[0]!='\n') ptr++; } if(ptr[0]=='/'&&ptr[1]=='*') { ptr+=2; while(ptr[0]!=0 && ptr[-1]!='*' && ptr[0]!='/') ptr++; } if(!memcmp(ptr, "kernel=", 7)) { ptr += 7; for(e = ptr; *e && *e != '\r' && *e != '\n'; e++); kernelname = malloc(e - ptr + 1); if(!kernelname) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_MEM]); exit(1); } memcpy(kernelname, ptr, e - ptr); kernelname[e - ptr] = 0; break; } ptr++; } if(!kernelname || !*kernelname) { kernelname = malloc(10); if(!kernelname) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_MEM]); exit(1); } strcpy(kernelname, "sys/core"); } } /** * Parse the ELF or PE kernel executable */ void parsekernel(int idx, unsigned char *data, int v) { Elf64_Ehdr *ehdr; Elf64_Phdr *phdr; Elf64_Shdr *shdr, *strt, *sym_sh = NULL, *str_sh = NULL; Elf64_Sym *sym = NULL, *s; pe_hdr *pehdr; pe_sym *ps; uint32_t i, n = 0, bss = 0, strsz = 0, syment = 0, ma, fa; uint64_t core_ptr = 0, core_size = 0, core_addr = 0, entrypoint = 0, mm_addr = 0, fb_addr = 0, bb_addr = 0, env_addr = 0; char *strtable, *name; ehdr=(Elf64_Ehdr *)(data); pehdr=(pe_hdr*)(data + ((mz_hdr*)(data))->peaddr); /* do not translate stdout, it might be parsed by scripts. Only translate stderr */ if(v) printf("File format: "); if((!memcmp(ehdr->e_ident,ELFMAG,SELFMAG)||!memcmp(ehdr->e_ident,"OS/Z",4)) && ehdr->e_ident[EI_CLASS]==ELFCLASS64 && ehdr->e_ident[EI_DATA]==ELFDATA2LSB) { if(v) printf("ELF64\r\nArchitecture: %s\r\n", ehdr->e_machine==EM_AARCH64 ? "AArch64" : (ehdr->e_machine==EM_X86_64 ? "x86_64" : (ehdr->e_machine==EM_RISCV ? "riscv64" : "invalid"))); if(ehdr->e_machine == EM_AARCH64) { ma = 2*1024*1024-1; fa = 4095; initrd_arch[idx] = 1; } else if(ehdr->e_machine == EM_X86_64) { ma = 4095; fa = 2*1024*1024-1; initrd_arch[idx] = 2; } else if(ehdr->e_machine == EM_RISCV) { ma = 4095; fa = 2*1024*1024-1; initrd_arch[idx] = 3; } else { fprintf(stderr,"mkbootimg: %s. %s: e_machine 62, 183, 243.\r\n",lang[ERR_BADARCH],lang[ERR_ACCEPTVALUES]); exit(1); } phdr=(Elf64_Phdr *)((uint8_t *)ehdr+ehdr->e_phoff); for(i=0;ie_phnum;i++){ if(phdr->p_type==PT_LOAD) { n++; core_size = phdr->p_filesz + (ehdr->e_type==3?0x4000:0); bss = phdr->p_memsz - core_size; core_addr = phdr->p_vaddr; entrypoint = ehdr->e_entry; break; } phdr=(Elf64_Phdr *)((uint8_t *)phdr+ehdr->e_phentsize); } if(n != 1) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_MORESEG]); exit(1); } if(v) printf("Entry point: %08" LL "x ", (unsigned long int)entrypoint); if(entrypoint < core_addr || entrypoint > core_addr+core_size) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_BADENTRYP]); exit(1); } if(ehdr->e_shoff > 0) { shdr = (Elf64_Shdr *)((uint8_t *)ehdr + ehdr->e_shoff); strt = (Elf64_Shdr *)((uint8_t *)shdr+(uint64_t)ehdr->e_shstrndx*(uint64_t)ehdr->e_shentsize); strtable = (char *)ehdr + strt->sh_offset; for(i = 0; i < ehdr->e_shnum; i++){ /* checking shdr->sh_type is not enough, there can be multiple SHT_STRTAB records... */ if(!memcmp(strtable + shdr->sh_name, ".symtab", 8)) sym_sh = shdr; if(!memcmp(strtable + shdr->sh_name, ".strtab", 8)) str_sh = shdr; shdr = (Elf64_Shdr *)((uint8_t *)shdr + ehdr->e_shentsize); } if(str_sh && sym_sh) { strtable = (char *)ehdr + str_sh->sh_offset; strsz = str_sh->sh_size; sym = (Elf64_Sym *)((uint8_t*)ehdr + sym_sh->sh_offset); syment = sym_sh->sh_entsize; if(str_sh->sh_offset && strsz > 0 && sym_sh->sh_offset && syment > 0) for(s = sym, i = 0; i<(strtable-(char*)sym)/syment && s->st_name < strsz; i++, s++) { if(!memcmp(strtable + s->st_name, "bootboot", 9)) bb_addr = s->st_value; if(!memcmp(strtable + s->st_name, "environment", 12)) env_addr = s->st_value; if(!memcmp(strtable + s->st_name, "mmio", 4)) mm_addr = s->st_value; if(!memcmp(strtable + s->st_name, "fb", 3)) fb_addr = s->st_value; } } } } else if(((mz_hdr*)(data))->magic==MZ_MAGIC && ((mz_hdr*)(data))->peaddr<65536 && pehdr->magic == PE_MAGIC && pehdr->file_type == PE_OPT_MAGIC_PE32PLUS) { if(v) printf("PE32+\r\nArchitecture: %s\r\n", pehdr->machine == IMAGE_FILE_MACHINE_ARM64 ? "AArch64" : ( pehdr->machine == IMAGE_FILE_MACHINE_AMD64 ? "x86_64" : ( pehdr->machine == IMAGE_FILE_MACHINE_RISCV64 ? "riscv64" : "invalid"))); if(pehdr->machine == IMAGE_FILE_MACHINE_ARM64) { ma = 2*1024*1024-1; fa = 4095; initrd_arch[idx] = 1; } else if(pehdr->machine == IMAGE_FILE_MACHINE_AMD64) { ma = 4095; fa = 2*1024*1024-1; initrd_arch[idx] = 2; } else if(pehdr->machine == IMAGE_FILE_MACHINE_RISCV64){ma = 4095; fa = 2*1024*1024-1; initrd_arch[idx] = 3; } else { fprintf(stderr,"mkbootimg: %s. %s: pe_hdr.machine 0x8664, 0xAA64, 0x5064\r\n",lang[ERR_BADARCH],lang[ERR_ACCEPTVALUES]); exit(1); } core_size = (pehdr->entry_point-pehdr->code_base) + pehdr->text_size + pehdr->data_size; bss = pehdr->bss_size; core_addr = (int64_t)pehdr->code_base; entrypoint = (int64_t)pehdr->entry_point; if(v) printf("Entry point: %08" LL "x ", (unsigned long int)entrypoint); if(entrypoint < core_addr || entrypoint > core_addr+pehdr->text_size) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_BADENTRYP]); exit(1); } if(pehdr->sym_table > 0 && pehdr->numsym > 0) { strtable = (char *)pehdr + pehdr->sym_table + pehdr->numsym * 18 + 4; for(i = 0; i < pehdr->numsym; i++) { ps = (pe_sym*)((uint8_t *)pehdr + pehdr->sym_table + i * 18); name = !ps->iszero ? (char*)&ps->iszero : strtable + ps->nameoffs; if(!memcmp(name, "bootboot", 9)) bb_addr = (int64_t)ps->value; if(!memcmp(name, "environment", 12)) env_addr = (int64_t)ps->value; if(!memcmp(name, "mmio", 4)) mm_addr = (int64_t)ps->value; if(!memcmp(name, "fb", 3)) fb_addr = (int64_t)ps->value; i += ps->auxsyms; } } } else { if(v) printf("unknown\r\n"); fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_INVALIDEXE]); exit(1); } if(v) printf("OK\r\n"); if(mm_addr) { if(v) printf("mmio: %08" LL "x ", (unsigned long int)mm_addr); if(!ISHH(mm_addr)) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: mmio %s\r\n",lang[ERR_BADADDR]); exit(1); } if(mm_addr & ma) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: mmio ");fprintf(stderr,lang[ERR_BADALIGN],ma+1);fprintf(stderr,"\r\n"); exit(1); } if(v) printf("OK\r\n"); } if(fb_addr) { if(v) printf("fb: %08" LL "x ", (unsigned long int)fb_addr); if(!ISHH(fb_addr)) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: fb %s\r\n",lang[ERR_BADALIGN]); exit(1); } if(fb_addr & fa) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: fb ");fprintf(stderr,lang[ERR_BADALIGN],fa+1);fprintf(stderr,"\r\n"); exit(1); } if(v) printf("OK\r\n"); } if(bb_addr) { if(v) printf("bootboot: %08" LL "x ", (unsigned long int)bb_addr); if(!ISHH(bb_addr)) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: bootboot %s\r\n",lang[ERR_BADADDR]); exit(1); } if(bb_addr & 4095) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: bootboot %s\r\n",lang[ERR_PAGEALIGN]); exit(1); } if(v) printf("OK\r\n"); } if(env_addr) { if(v) printf("environment: %08" LL "x ", (unsigned long int)env_addr); if(!ISHH(env_addr)) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: environment %s\r\n",lang[ERR_BADADDR]); exit(1); } if(env_addr & 4095) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: environment %s\r\n",lang[ERR_PAGEALIGN]); exit(1); } if(v) printf("OK\r\n"); } if(v) printf("Load segment: %08" LL "x size %" LL "dK offs %" LL "x ", (unsigned long int)core_addr, (long int)(core_size + bss + 1024)/1024, (unsigned long int)core_ptr); if(!ISHH(core_addr)) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: segment %s\r\n",lang[ERR_BADADDR]); exit(1); } if(core_addr & 4095) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: segment %s\r\n",lang[ERR_PAGEALIGN]); exit(1); } if(core_size + bss > 16 * 1024 * 1024) { if(v) { printf("invalid\r\n"); } fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_BIGSEG]); exit(1); } if(v) { if(!mm_addr && !fb_addr && !bb_addr && !env_addr) printf("OKr\nComplies with BOOTBOOT Protocol Level 1, %s\r\n",lang[STATADDR]); else printf("OK\r\nComplies with BOOTBOOT Protocol Level %s2, %s\r\n", (!mm_addr || (mm_addr&0xFFFFFFFF)==0xf8000000) && (!fb_addr || (fb_addr&0xFFFFFFFF)==0xfc000000) && (!bb_addr || (bb_addr&0xFFFFFFFF)==0xffe00000) && (!env_addr || (env_addr&0xFFFFFFFF)==0xffe01000) && ((core_addr&0xFFFFFFFF)==0xffe02000) ? "1 and " : "", lang[DYNADDR]); } } /** * Create a ROM image of the initrd */ void makerom() { int i, size; unsigned char *buf, c=0; FILE *f; size=((initrd_size[0]+32+511)/512)*512; if(!initrd_buf[0] || size < 1) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_NOINITRD]); exit(1); } buf=(unsigned char*)malloc(size+1); if(!buf) { fprintf(stderr,"mkbootimg: %s\r\n",lang[ERR_MEM]); exit(1); } memset(buf, 0, size+1); /* Option ROM header */ buf[0]=0x55; buf[1]=0xAA; buf[2]=(initrd_size[0]+32+511)/512; /* asm "xor ax,ax; retf" */ buf[3]=0x31; buf[4]=0xC0; buf[5]=0xCB; /* identifier, size and data */ memcpy(buf+8,"INITRD",6); memcpy(buf+16,&initrd_size[0],4); memcpy(buf+32,initrd_buf[0],initrd_size[0]); /* checksum */ for(i=0;i\r\n" " ./mkbootimg <%s> initrd.rom\r\n" " ./mkbootimg <%s> bootpart.bin\r\n" " ./mkbootimg <%s> <%s>\r\n\r\n",lang[HELP3],lang[HELP4], lang[HELP4],lang[HELP4],lang[HELP5]); printf( "%s:\n" " ./mkbootimg check mykernel/c/mykernel.x86_64.elf\r\n" " ./mkbootimg myos.json initrd.rom\r\n" " ./mkbootimg myos.json bootpart.bin\r\n" " ./mkbootimg myos.json myos.img\r\n", lang[HELP6]); return 0; } if(!strcmp(argv[1], "check")) { data = readfileall(argv[2]); if(!data || read_size < 16) { fprintf(stderr,"mkbootimg: %s %s\r\n",lang[ERR_KRNL],argv[2]); exit(1); } parsekernel(0, data, 1); } else { t = time(NULL); ts = gmtime(&t); memset(kfn, 0, sizeof(kfn)); /* <- make valgrind happy with sprintf */ json = (char*)readfileall(argv[1]); if(!json || !*json) { fprintf(stderr,"mkbootimg: %s %s\r\n",lang[ERR_JSON],argv[1]); exit(1); } parsejson(json); parseconfig(); for(i = 0; i < NUMARCH; i++) if(initrd_dir[i]) { sprintf(kfn, "%s/%s", initrd_dir[i], kernelname); data = readfileall(kfn); if(!data || read_size < 16) { fprintf(stderr,"mkbootimg: %s %s\r\n",lang[ERR_KRNL],kfn); exit(1); } if(!memcmp(data + 54, "FAT1", 4) || !memcmp(data + 82, "FAT3", 4)) { fprintf(stderr,"mkbootimg: %s %s\r\n", lang[ERR_BADINITRDTYPE],"FAT"); exit(1); } parsekernel(i, data, 0); free(data); skipbytes = strlen(initrd_dir[i]) + 1; fs_base = NULL; fs_len = 0; fs_no = 0; if(rd_open) (*rd_open)(NULL); parsedir(initrd_dir[i], 0); if(rd_close) (*rd_close)(); initrdcompress(); initrd_buf[i] = fs_base; initrd_size[i] = fs_len; free(initrd_dir[i]); } else if(initrd_buf[i]) { fs_base = initrd_buf[i]; fs_len = initrd_size[i]; if(initrd_buf[i][0] == 0x1f && initrd_buf[i][1] == 0x8b) { initrduncompress(); initrd_buf[i] = fs_base; initrd_size[i] = fs_len; } for(j = 0, kfn[0] = 0; j < fs_len - 512; j++) { ehdr=(Elf64_Ehdr *)(fs_base + j); pehdr=(pe_hdr*)(fs_base + j + ((mz_hdr*)(fs_base + j))->peaddr); if(((!memcmp(ehdr->e_ident,ELFMAG,SELFMAG)||!memcmp(ehdr->e_ident,"OS/Z",4)) && ehdr->e_ident[EI_CLASS]==ELFCLASS64 && ehdr->e_ident[EI_DATA]==ELFDATA2LSB) || (((mz_hdr*)(fs_base + j))->magic==MZ_MAGIC && ((mz_hdr*)(fs_base + j))->peaddr<65536 && pehdr->magic == PE_MAGIC && pehdr->file_type == PE_OPT_MAGIC_PE32PLUS)) { parsekernel(i, fs_base + j, 0); kfn[0] = 1; break; } } if(!kfn[0]) { fprintf(stderr,"mkbootimg: %s initrd #%d\r\n",lang[ERR_LOCKRNL],i+1); exit(1); } if(initrd_gzip) { initrdcompress(); initrd_buf[i] = fs_base; initrd_size[i] = fs_len; } } else break; if(initrd_arch[1] && initrd_arch[1] == initrd_arch[0]) { initrd_size[1] = 0; initrd_arch[1] = 0; } if(!strcmp(argv[2], "initrd.rom")) makerom(); else if(!strcmp(argv[2], "initrd.bin")) { /* write out */ f=fopen("initrd.bin","wb"); if(!f) { fprintf(stderr,"mkbootimg: %s %s\r\n", lang[ERR_WRITE], "initrd.bin"); exit(3); } fwrite(initrd_buf[0],initrd_size[0],1,f); fclose(f); printf("mkbootimg: %s %s.\r\n", "initrd.bin", lang[SAVED]); } else if(!flashmapadd(argv[2])) { esp_makepart(); if(!strcmp(argv[2], "bootpart.bin")) { /* write out */ f=fopen("bootpart.bin","wb"); if(!f) { fprintf(stderr,"mkbootimg: %s %s\r\n", lang[ERR_WRITE], "bootpart.bin"); exit(3); } fwrite(esp,esp_size,1,f); fclose(f); printf("mkbootimg: %s %s.\r\n", "bootpart.bin", lang[SAVED]); } else { gpt_maketable(); img_write(argv[2]); free(gpt); } free(esp); } free(kernelname); free(initrd_buf[0]); if(initrd_buf[1]) free(initrd_buf[1]); if(initrd_buf[2]) free(initrd_buf[2]); if(config) free(config); free(json); } return 0; }