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/*
* Copyright (C) 2019 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "host/commands/assemble_cvd/disk_flags.h"
#include <sys/statvfs.h>
#include <fstream>
#include <string>
#include <vector>
#include <android-base/logging.h>
#include <android-base/parsebool.h>
#include <android-base/parseint.h>
#include <android-base/strings.h>
#include <fruit/fruit.h>
#include <gflags/gflags.h>
#include "common/libs/fs/shared_buf.h"
#include "common/libs/utils/files.h"
#include "common/libs/utils/flag_parser.h"
#include "common/libs/utils/result.h"
#include "common/libs/utils/size_utils.h"
#include "common/libs/utils/subprocess.h"
#include "host/commands/assemble_cvd/boot_config.h"
#include "host/commands/assemble_cvd/boot_image_utils.h"
#include "host/commands/assemble_cvd/bootconfig_args.h"
#include "host/commands/assemble_cvd/disk/disk.h"
#include "host/commands/assemble_cvd/disk_builder.h"
#include "host/commands/assemble_cvd/flags_defaults.h"
#include "host/commands/assemble_cvd/super_image_mixer.h"
#include "host/commands/assemble_cvd/vendor_dlkm_utils.h"
#include "host/libs/avb/avb.h"
#include "host/libs/config/cuttlefish_config.h"
#include "host/libs/config/data_image.h"
#include "host/libs/config/inject.h"
#include "host/libs/config/instance_nums.h"
#include "host/libs/vm_manager/gem5_manager.h"
DECLARE_string(system_image_dir);
DEFINE_string(boot_image, CF_DEFAULTS_BOOT_IMAGE,
"Location of cuttlefish boot image. If empty it is assumed to be "
"boot.img in the directory specified by -system_image_dir.");
DEFINE_string(
init_boot_image, CF_DEFAULTS_INIT_BOOT_IMAGE,
"Location of cuttlefish init boot image. If empty it is assumed to "
"be init_boot.img in the directory specified by -system_image_dir.");
DEFINE_string(data_image, CF_DEFAULTS_DATA_IMAGE,
"Location of the data partition image.");
DEFINE_string(super_image, CF_DEFAULTS_SUPER_IMAGE,
"Location of the super partition image.");
DEFINE_string(misc_info_txt, "", "Location of the misc_info.txt file.");
DEFINE_string(
vendor_boot_image, CF_DEFAULTS_VENDOR_BOOT_IMAGE,
"Location of cuttlefish vendor boot image. If empty it is assumed to "
"be vendor_boot.img in the directory specified by -system_image_dir.");
DEFINE_string(vbmeta_image, CF_DEFAULTS_VBMETA_IMAGE,
"Location of cuttlefish vbmeta image. If empty it is assumed to "
"be vbmeta.img in the directory specified by -system_image_dir.");
DEFINE_string(
vbmeta_system_image, CF_DEFAULTS_VBMETA_SYSTEM_IMAGE,
"Location of cuttlefish vbmeta_system image. If empty it is assumed to "
"be vbmeta_system.img in the directory specified by -system_image_dir.");
DEFINE_string(
vbmeta_vendor_dlkm_image, CF_DEFAULTS_VBMETA_VENDOR_DLKM_IMAGE,
"Location of cuttlefish vbmeta_vendor_dlkm image. If empty it is assumed "
"to "
"be vbmeta_vendor_dlkm.img in the directory specified by "
"-system_image_dir.");
DEFINE_string(
vbmeta_system_dlkm_image, CF_DEFAULTS_VBMETA_SYSTEM_DLKM_IMAGE,
"Location of cuttlefish vbmeta_system_dlkm image. If empty it is assumed "
"to "
"be vbmeta_system_dlkm.img in the directory specified by "
"-system_image_dir.");
DEFINE_string(
default_target_zip, CF_DEFAULTS_DEFAULT_TARGET_ZIP,
"Location of default target zip file.");
DEFINE_string(
system_target_zip, CF_DEFAULTS_SYSTEM_TARGET_ZIP,
"Location of system target zip file.");
DEFINE_string(android_efi_loader, CF_DEFAULTS_ANDROID_EFI_LOADER,
"Location of android EFI loader for android efi load flow.");
DEFINE_string(linux_kernel_path, CF_DEFAULTS_LINUX_KERNEL_PATH,
"Location of linux kernel for cuttlefish otheros flow.");
DEFINE_string(linux_initramfs_path, CF_DEFAULTS_LINUX_INITRAMFS_PATH,
"Location of linux initramfs.img for cuttlefish otheros flow.");
DEFINE_string(linux_root_image, CF_DEFAULTS_LINUX_ROOT_IMAGE,
"Location of linux root filesystem image for cuttlefish otheros flow.");
DEFINE_string(chromeos_disk, CF_DEFAULTS_CHROMEOS_DISK,
"Location of a complete ChromeOS GPT disk");
DEFINE_string(chromeos_kernel_path, CF_DEFAULTS_CHROMEOS_KERNEL_PATH,
"Location of the chromeos kernel for the chromeos flow.");
DEFINE_string(chromeos_root_image, CF_DEFAULTS_CHROMEOS_ROOT_IMAGE,
"Location of chromeos root filesystem image for chromeos flow.");
DEFINE_string(fuchsia_zedboot_path, CF_DEFAULTS_FUCHSIA_ZEDBOOT_PATH,
"Location of fuchsia zedboot path for cuttlefish otheros flow.");
DEFINE_string(fuchsia_multiboot_bin_path, CF_DEFAULTS_FUCHSIA_MULTIBOOT_BIN_PATH,
"Location of fuchsia multiboot bin path for cuttlefish otheros flow.");
DEFINE_string(fuchsia_root_image, CF_DEFAULTS_FUCHSIA_ROOT_IMAGE,
"Location of fuchsia root filesystem image for cuttlefish otheros flow.");
DEFINE_string(custom_partition_path, CF_DEFAULTS_CUSTOM_PARTITION_PATH,
"Location of custom image that will be passed as a \"custom\" partition"
"to rootfs and can be used by /dev/block/by-name/custom");
DEFINE_string(blank_metadata_image_mb, CF_DEFAULTS_BLANK_METADATA_IMAGE_MB,
"The size of the blank metadata image to generate, MB.");
DEFINE_string(
blank_sdcard_image_mb, CF_DEFAULTS_BLANK_SDCARD_IMAGE_MB,
"If enabled, the size of the blank sdcard image to generate, MB.");
DECLARE_string(ap_rootfs_image);
DECLARE_string(bootloader);
DECLARE_string(initramfs_path);
DECLARE_string(kernel_path);
DECLARE_bool(resume);
DECLARE_bool(use_overlay);
DECLARE_bool(use_16k);
namespace cuttlefish {
using APBootFlow = CuttlefishConfig::InstanceSpecific::APBootFlow;
using vm_manager::Gem5Manager;
Result<void> ResolveInstanceFiles() {
CF_EXPECT(!FLAGS_system_image_dir.empty(),
"--system_image_dir must be specified.");
if (FLAGS_use_16k) {
CF_EXPECT(FLAGS_kernel_path.empty(),
"--use_16k is not compatible with --kernel_path");
CF_EXPECT(FLAGS_initramfs_path.empty(),
"--use_16k is not compatible with --initramfs_path");
}
// It is conflict (invalid) to pass both kernel_path/initramfs_path
// and image file paths.
bool flags_kernel_initramfs_has_input = (FLAGS_kernel_path != "")
|| (FLAGS_initramfs_path != "");
bool flags_image_has_input =
(FLAGS_super_image != "") || (FLAGS_vendor_boot_image != "") ||
(FLAGS_vbmeta_vendor_dlkm_image != "") ||
(FLAGS_vbmeta_system_dlkm_image != "") || (FLAGS_boot_image != "");
CF_EXPECT(!(flags_kernel_initramfs_has_input && flags_image_has_input),
"Cannot pass both kernel_path/initramfs_path and image file paths");
std::vector<std::string> system_image_dir =
android::base::Split(FLAGS_system_image_dir, ",");
std::string default_boot_image = "";
std::string default_init_boot_image = "";
std::string default_data_image = "";
std::string default_super_image = "";
std::string default_misc_info_txt = "";
std::string default_vendor_boot_image = "";
std::string default_vbmeta_image = "";
std::string default_vbmeta_system_image = "";
std::string default_vbmeta_vendor_dlkm_image = "";
std::string default_vbmeta_system_dlkm_image = "";
std::string default_16k_kernel_image = "";
std::string default_16k_ramdisk_image = "";
std::string cur_system_image_dir;
std::string comma_str = "";
auto instance_nums =
CF_EXPECT(InstanceNumsCalculator().FromGlobalGflags().Calculate());
for (int instance_index = 0; instance_index < instance_nums.size(); instance_index++) {
if (instance_index < system_image_dir.size()) {
cur_system_image_dir = system_image_dir[instance_index];
} else {
// legacy variable or out of boundary. Vectorize by copy [0] to all instances
cur_system_image_dir = system_image_dir[0];
}
if (instance_index > 0) {
comma_str = ",";
}
// If user did not specify location of either of these files, expect them to
// be placed in --system_image_dir location.
default_boot_image += comma_str + cur_system_image_dir + "/boot.img";
default_init_boot_image += comma_str + cur_system_image_dir + "/init_boot.img";
default_data_image += comma_str + cur_system_image_dir + "/userdata.img";
default_super_image += comma_str + cur_system_image_dir + "/super.img";
default_misc_info_txt +=
comma_str + cur_system_image_dir + "/misc_info.txt";
default_vendor_boot_image += comma_str + cur_system_image_dir + "/vendor_boot.img";
default_vbmeta_image += comma_str + cur_system_image_dir + "/vbmeta.img";
default_vbmeta_system_image += comma_str + cur_system_image_dir + "/vbmeta_system.img";
default_vbmeta_vendor_dlkm_image +=
comma_str + cur_system_image_dir + "/vbmeta_vendor_dlkm.img";
default_vbmeta_system_dlkm_image +=
comma_str + cur_system_image_dir + "/vbmeta_system_dlkm.img";
if (FLAGS_use_16k) {
const auto kernel_16k = cur_system_image_dir + "/kernel_16k";
const auto ramdisk_16k = cur_system_image_dir + "/ramdisk_16k.img";
default_16k_kernel_image += comma_str + kernel_16k;
default_16k_ramdisk_image += comma_str + ramdisk_16k;
CF_EXPECT(FileExists(kernel_16k),
kernel_16k + " missing for launching 16k cuttlefish");
CF_EXPECT(FileExists(ramdisk_16k),
ramdisk_16k + " missing for launching 16k cuttlefish");
}
}
if (FLAGS_use_16k) {
LOG(INFO) << "Using 16k kernel: " << default_16k_kernel_image;
LOG(INFO) << "Using 16k ramdisk: " << default_16k_ramdisk_image;
SetCommandLineOptionWithMode("kernel_path",
default_16k_kernel_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("initramfs_path",
default_16k_ramdisk_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
}
SetCommandLineOptionWithMode("boot_image", default_boot_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("init_boot_image",
default_init_boot_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("data_image", default_data_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("super_image", default_super_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("misc_info_txt", default_misc_info_txt.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("vendor_boot_image",
default_vendor_boot_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("vbmeta_image", default_vbmeta_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("vbmeta_system_image",
default_vbmeta_system_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("vbmeta_vendor_dlkm_image",
default_vbmeta_vendor_dlkm_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
SetCommandLineOptionWithMode("vbmeta_system_dlkm_image",
default_vbmeta_system_dlkm_image.c_str(),
google::FlagSettingMode::SET_FLAGS_DEFAULT);
return {};
}
std::vector<ImagePartition> chromeos_composite_disk_config(
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions;
partitions.emplace_back(ImagePartition{
.label = "STATE",
.image_file_path = AbsolutePath(instance.chromeos_state_image()),
.type = kLinuxFilesystem,
.read_only = FLAGS_use_overlay,
});
partitions.emplace_back(ImagePartition{
.label = "linux_esp",
.image_file_path = AbsolutePath(instance.esp_image_path()),
.type = kEfiSystemPartition,
.read_only = FLAGS_use_overlay,
});
partitions.emplace_back(ImagePartition{
.label = "linux_root",
.image_file_path = AbsolutePath(instance.chromeos_root_image()),
.type = kLinuxFilesystem,
.read_only = FLAGS_use_overlay,
});
return partitions;
}
std::vector<ImagePartition> linux_composite_disk_config(
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions;
partitions.push_back(ImagePartition{
.label = "linux_esp",
.image_file_path = AbsolutePath(instance.esp_image_path()),
.type = kEfiSystemPartition,
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "linux_root",
.image_file_path = AbsolutePath(instance.linux_root_image()),
.read_only = FLAGS_use_overlay,
});
return partitions;
}
std::vector<ImagePartition> fuchsia_composite_disk_config(
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions;
partitions.push_back(ImagePartition{
.label = "fuchsia_esp",
.image_file_path = AbsolutePath(instance.esp_image_path()),
.type = kEfiSystemPartition,
.read_only = FLAGS_use_overlay,
});
return partitions;
}
std::vector<ImagePartition> android_composite_disk_config(
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions;
partitions.push_back(ImagePartition{
.label = "misc",
.image_file_path = AbsolutePath(instance.misc_image()),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "boot_a",
.image_file_path = AbsolutePath(instance.new_boot_image()),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "boot_b",
.image_file_path = AbsolutePath(instance.new_boot_image()),
.read_only = FLAGS_use_overlay,
});
const auto init_boot_path = instance.init_boot_image();
if (FileExists(init_boot_path)) {
partitions.push_back(ImagePartition{
.label = "init_boot_a",
.image_file_path = AbsolutePath(init_boot_path),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "init_boot_b",
.image_file_path = AbsolutePath(init_boot_path),
.read_only = FLAGS_use_overlay,
});
}
partitions.push_back(ImagePartition{
.label = "vendor_boot_a",
.image_file_path = AbsolutePath(instance.new_vendor_boot_image()),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vendor_boot_b",
.image_file_path = AbsolutePath(instance.new_vendor_boot_image()),
.read_only = FLAGS_use_overlay,
});
auto vbmeta_image = instance.new_vbmeta_image();
if (!FileExists(vbmeta_image)) {
vbmeta_image = instance.vbmeta_image();
}
partitions.push_back(ImagePartition{
.label = "vbmeta_a",
.image_file_path = AbsolutePath(vbmeta_image),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vbmeta_b",
.image_file_path = AbsolutePath(vbmeta_image),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vbmeta_system_a",
.image_file_path = AbsolutePath(instance.vbmeta_system_image()),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vbmeta_system_b",
.image_file_path = AbsolutePath(instance.vbmeta_system_image()),
.read_only = FLAGS_use_overlay,
});
auto vbmeta_vendor_dlkm_img = instance.new_vbmeta_vendor_dlkm_image();
if (!FileExists(vbmeta_vendor_dlkm_img)) {
vbmeta_vendor_dlkm_img = instance.vbmeta_vendor_dlkm_image();
}
if (FileExists(vbmeta_vendor_dlkm_img)) {
partitions.push_back(ImagePartition{
.label = "vbmeta_vendor_dlkm_a",
.image_file_path = AbsolutePath(vbmeta_vendor_dlkm_img),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vbmeta_vendor_dlkm_b",
.image_file_path = AbsolutePath(vbmeta_vendor_dlkm_img),
.read_only = FLAGS_use_overlay,
});
}
auto vbmeta_system_dlkm_img = instance.new_vbmeta_system_dlkm_image();
if (!FileExists(vbmeta_system_dlkm_img)) {
vbmeta_system_dlkm_img = instance.vbmeta_system_dlkm_image();
}
if (FileExists(vbmeta_system_dlkm_img)) {
partitions.push_back(ImagePartition{
.label = "vbmeta_system_dlkm_a",
.image_file_path = AbsolutePath(vbmeta_system_dlkm_img),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "vbmeta_system_dlkm_b",
.image_file_path = AbsolutePath(vbmeta_system_dlkm_img),
.read_only = FLAGS_use_overlay,
});
}
auto super_image = instance.new_super_image();
if (!FileExists(super_image)) {
super_image = instance.super_image();
}
partitions.push_back(ImagePartition{
.label = "super",
.image_file_path = AbsolutePath(super_image),
.read_only = FLAGS_use_overlay,
});
auto data_image = instance.new_data_image();
if (!FileExists(data_image)) {
data_image = instance.data_image();
}
partitions.push_back(ImagePartition{
.label = "userdata",
.image_file_path = AbsolutePath(data_image),
.read_only = FLAGS_use_overlay,
});
partitions.push_back(ImagePartition{
.label = "metadata",
.image_file_path = AbsolutePath(instance.metadata_image()),
.read_only = FLAGS_use_overlay,
});
const auto custom_partition_path = instance.custom_partition_path();
if (!custom_partition_path.empty()) {
partitions.push_back(ImagePartition{
.label = "custom",
.image_file_path = AbsolutePath(custom_partition_path),
.read_only = FLAGS_use_overlay,
});
}
return partitions;
}
std::vector<ImagePartition> AndroidEfiLoaderCompositeDiskConfig(
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions =
android_composite_disk_config(instance);
// Cuttlefish uboot EFI bootflow by default looks at the first partition
// for EFI application. Thus we put "android_esp" at the beginning.
partitions.insert(
partitions.begin(),
ImagePartition{
.label = "android_esp",
.image_file_path = AbsolutePath(instance.esp_image_path()),
.type = kEfiSystemPartition,
.read_only = FLAGS_use_overlay,
});
return partitions;
}
std::vector<ImagePartition> GetApCompositeDiskConfig(const CuttlefishConfig& config,
const CuttlefishConfig::InstanceSpecific& instance) {
std::vector<ImagePartition> partitions;
if (instance.ap_boot_flow() == APBootFlow::Grub) {
partitions.push_back(ImagePartition{
.label = "ap_esp",
.image_file_path = AbsolutePath(instance.ap_esp_image_path()),
.read_only = FLAGS_use_overlay,
});
}
partitions.push_back(ImagePartition{
.label = "ap_rootfs",
.image_file_path = AbsolutePath(config.ap_rootfs_image()),
.read_only = FLAGS_use_overlay,
});
return partitions;
}
std::vector<ImagePartition> GetOsCompositeDiskConfig(
const CuttlefishConfig::InstanceSpecific& instance) {
switch (instance.boot_flow()) {
case CuttlefishConfig::InstanceSpecific::BootFlow::Android:
return android_composite_disk_config(instance);
case CuttlefishConfig::InstanceSpecific::BootFlow::AndroidEfiLoader:
return AndroidEfiLoaderCompositeDiskConfig(instance);
case CuttlefishConfig::InstanceSpecific::BootFlow::ChromeOs:
return chromeos_composite_disk_config(instance);
case CuttlefishConfig::InstanceSpecific::BootFlow::ChromeOsDisk:
return {};
case CuttlefishConfig::InstanceSpecific::BootFlow::Linux:
return linux_composite_disk_config(instance);
case CuttlefishConfig::InstanceSpecific::BootFlow::Fuchsia:
return fuchsia_composite_disk_config(instance);
}
}
DiskBuilder OsCompositeDiskBuilder(const CuttlefishConfig& config,
const CuttlefishConfig::InstanceSpecific& instance) {
auto builder =
DiskBuilder()
.VmManager(config.vm_manager())
.CrosvmPath(instance.crosvm_binary())
.ConfigPath(instance.PerInstancePath("os_composite_disk_config.txt"))
.ResumeIfPossible(FLAGS_resume);
if (instance.boot_flow() ==
CuttlefishConfig::InstanceSpecific::BootFlow::ChromeOsDisk) {
return builder.EntireDisk(instance.chromeos_disk())
.CompositeDiskPath(instance.chromeos_disk());
}
return builder.Partitions(GetOsCompositeDiskConfig(instance))
.HeaderPath(instance.PerInstancePath("os_composite_gpt_header.img"))
.FooterPath(instance.PerInstancePath("os_composite_gpt_footer.img"))
.CompositeDiskPath(instance.os_composite_disk_path());
}
DiskBuilder ApCompositeDiskBuilder(const CuttlefishConfig& config,
const CuttlefishConfig::InstanceSpecific& instance) {
return DiskBuilder()
.Partitions(GetApCompositeDiskConfig(config, instance))
.VmManager(config.vm_manager())
.CrosvmPath(instance.crosvm_binary())
.ConfigPath(instance.PerInstancePath("ap_composite_disk_config.txt"))
.HeaderPath(instance.PerInstancePath("ap_composite_gpt_header.img"))
.FooterPath(instance.PerInstancePath("ap_composite_gpt_footer.img"))
.CompositeDiskPath(instance.ap_composite_disk_path())
.ResumeIfPossible(FLAGS_resume);
}
static uint64_t AvailableSpaceAtPath(const std::string& path) {
struct statvfs vfs {};
if (statvfs(path.c_str(), &vfs) != 0) {
int error_num = errno;
LOG(ERROR) << "Could not find space available at " << path << ", error was "
<< strerror(error_num);
return 0;
}
// f_frsize (block size) * f_bavail (free blocks) for unprivileged users.
return static_cast<uint64_t>(vfs.f_frsize) * vfs.f_bavail;
}
Result<void> InitializeChromeOsState(
const CuttlefishConfig::InstanceSpecific& instance) {
using BootFlow = CuttlefishConfig::InstanceSpecific::BootFlow;
if (instance.boot_flow() != BootFlow::ChromeOs) {
return {};
} else if (FileExists(instance.chromeos_state_image())) {
return {};
}
CF_EXPECT(CreateBlankImage(instance.chromeos_state_image(), 8096, "ext4"));
return {};
}
Result<void> InitializeMetadataImage(
const CuttlefishConfig::InstanceSpecific& instance) {
if (FileExists(instance.metadata_image()) &&
FileSize(instance.metadata_image()) == instance.blank_metadata_image_mb()
<< 20) {
return {};
}
CF_EXPECT(CreateBlankImage(instance.metadata_image(),
instance.blank_metadata_image_mb(), "none"),
"Failed to create \"" << instance.metadata_image()
<< "\" with size "
<< instance.blank_metadata_image_mb());
return {};
}
Result<void> InitializeAccessKregistryImage(
const CuttlefishConfig::InstanceSpecific& instance) {
auto access_kregistry = instance.access_kregistry_path();
if (FileExists(access_kregistry)) {
return {};
}
CF_EXPECT(CreateBlankImage(access_kregistry, 2 /* mb */, "none"),
"Failed to create \"" << access_kregistry << "\"");
return {};
}
Result<void> InitializeHwcomposerPmemImage(
const CuttlefishConfig::InstanceSpecific& instance) {
if (FileExists(instance.hwcomposer_pmem_path())) {
return {};
}
CF_EXPECT(
CreateBlankImage(instance.hwcomposer_pmem_path(), 2 /* mb */, "none"),
"Failed creating \"" << instance.hwcomposer_pmem_path() << "\"");
return {};
}
Result<void> InitializePstore(
const CuttlefishConfig::InstanceSpecific& instance) {
if (FileExists(instance.pstore_path())) {
return {};
}
CF_EXPECT(CreateBlankImage(instance.pstore_path(), 2 /* mb */, "none"),
"Failed to create \"" << instance.pstore_path() << "\"");
return {};
}
Result<void> InitializePflash(
const CuttlefishConfig::InstanceSpecific& instance) {
if (FileExists(instance.pflash_path())) {
return {};
}
auto boot_size_mb = FileSize(instance.bootloader()) / (1 << 20);
// Pad out bootloader space to 4MB
CF_EXPECTF(CreateBlankImage(instance.pflash_path(), 4 - boot_size_mb, "none"),
"Failed to create '{}'", instance.pflash_path());
return {};
}
Result<void> InitializeSdCard(
const CuttlefishConfig& config,
const CuttlefishConfig::InstanceSpecific& instance) {
if (!(instance.use_sdcard() && !instance.protected_vm())) {
return {};
}
if (FileExists(instance.sdcard_path())) {
return {};
}
CF_EXPECT(CreateBlankImage(instance.sdcard_path(),
instance.blank_sdcard_image_mb(), "sdcard"),
"Failed to create \"" << instance.sdcard_path() << "\"");
if (config.vm_manager() == VmmMode::kQemu) {
const std::string crosvm_path = instance.crosvm_binary();
CreateQcowOverlay(crosvm_path, instance.sdcard_path(),
instance.sdcard_overlay_path());
}
return {};
}
Result<void> VbmetaEnforceMinimumSize(
const CuttlefishConfig::InstanceSpecific& instance) {
// libavb expects to be able to read the maximum vbmeta size, so we must
// provide a partition which matches this or the read will fail
for (const auto& vbmeta_image :
{instance.vbmeta_image(), instance.new_vbmeta_image(),
instance.vbmeta_system_image(), instance.vbmeta_vendor_dlkm_image(),
instance.vbmeta_system_dlkm_image()}) {
// In some configurations of cuttlefish, the vendor dlkm vbmeta image does
// not exist
if (FileExists(vbmeta_image)) {
CF_EXPECT(EnforceVbMetaSize(vbmeta_image));
}
}
return {};
}
Result<void> BootloaderPresentCheck(
const CuttlefishConfig::InstanceSpecific& instance) {
CF_EXPECT(FileHasContent(instance.bootloader()),
"File not found: " << instance.bootloader());
return {};
}
static fruit::Component<> DiskChangesComponent(
const FetcherConfig* fetcher, const CuttlefishConfig* config,
const CuttlefishConfig::InstanceSpecific* instance) {
return fruit::createComponent()
.bindInstance(*fetcher)
.bindInstance(*config)
.bindInstance(*instance)
.install(CuttlefishKeyAvbComponent)
.install(AutoSetup<InitializeMetadataImage>::Component)
.install(AutoSetup<InitializeChromeOsState>::Component)
.install(KernelRamdiskRepackerComponent)
.install(AutoSetup<VbmetaEnforceMinimumSize>::Component)
.install(AutoSetup<BootloaderPresentCheck>::Component)
.install(AutoSetup<Gem5ImageUnpacker>::Component)
.install(AutoSetup<InitializeMiscImage>::Component)
// Create esp if necessary
.install(InitializeEspImageComponent)
.install(SuperImageRebuilderComponent);
}
static fruit::Component<> DiskChangesPerInstanceComponent(
const FetcherConfig* fetcher, const CuttlefishConfig* config,
const CuttlefishConfig::InstanceSpecific* instance) {
return fruit::createComponent()
.bindInstance(*fetcher)
.bindInstance(*config)
.bindInstance(*instance)
.install(AutoSetup<InitializeAccessKregistryImage>::Component)
.install(AutoSetup<InitBootloaderEnvPartition>::Component)
.install(AutoSetup<InitializeFactoryResetProtected>::Component)
.install(AutoSetup<InitializeHwcomposerPmemImage>::Component)
.install(AutoSetup<InitializePstore>::Component)
.install(AutoSetup<InitializeSdCard>::Component)
.install(AutoSetup<GeneratePersistentBootconfig>::Component)
.install(AutoSetup<GeneratePersistentVbmeta>::Component)
.install(AutoSetup<InitializeInstanceCompositeDisk>::Component)
.install(AutoSetup<InitializeDataImage>::Component)
.install(AutoSetup<InitializePflash>::Component);
}
Result<void> DiskImageFlagsVectorization(CuttlefishConfig& config, const FetcherConfig& fetcher_config) {
std::vector<std::string> boot_image =
android::base::Split(FLAGS_boot_image, ",");
std::vector<std::string> init_boot_image =
android::base::Split(FLAGS_init_boot_image, ",");
std::vector<std::string> data_image =
android::base::Split(FLAGS_data_image, ",");
std::vector<std::string> super_image =
android::base::Split(FLAGS_super_image, ",");
std::vector<std::string> misc_info =
android::base::Split(FLAGS_misc_info_txt, ",");
std::vector<std::string> vendor_boot_image =
android::base::Split(FLAGS_vendor_boot_image, ",");
std::vector<std::string> vbmeta_image =
android::base::Split(FLAGS_vbmeta_image, ",");
std::vector<std::string> vbmeta_system_image =
android::base::Split(FLAGS_vbmeta_system_image, ",");
auto vbmeta_vendor_dlkm_image =
android::base::Split(FLAGS_vbmeta_vendor_dlkm_image, ",");
auto vbmeta_system_dlkm_image =
android::base::Split(FLAGS_vbmeta_system_dlkm_image, ",");
std::vector<std::string> default_target_zip_vec =
android::base::Split(FLAGS_default_target_zip, ",");
std::vector<std::string> system_target_zip_vec =
android::base::Split(FLAGS_system_target_zip, ",");
std::vector<std::string> android_efi_loader =
android::base::Split(FLAGS_android_efi_loader, ",");
std::vector<std::string> chromeos_disk =
android::base::Split(FLAGS_chromeos_disk, ",");
std::vector<std::string> chromeos_kernel_path =
android::base::Split(FLAGS_chromeos_kernel_path, ",");
std::vector<std::string> chromeos_root_image =
android::base::Split(FLAGS_chromeos_root_image, ",");
std::vector<std::string> linux_kernel_path =
android::base::Split(FLAGS_linux_kernel_path, ",");
std::vector<std::string> linux_initramfs_path =
android::base::Split(FLAGS_linux_initramfs_path, ",");
std::vector<std::string> linux_root_image =
android::base::Split(FLAGS_linux_root_image, ",");
std::vector<std::string> fuchsia_zedboot_path =
android::base::Split(FLAGS_fuchsia_zedboot_path, ",");
std::vector<std::string> fuchsia_multiboot_bin_path =
android::base::Split(FLAGS_fuchsia_multiboot_bin_path, ",");
std::vector<std::string> fuchsia_root_image =
android::base::Split(FLAGS_fuchsia_root_image, ",");
std::vector<std::string> custom_partition_path =
android::base::Split(FLAGS_custom_partition_path, ",");
std::vector<std::string> bootloader =
android::base::Split(FLAGS_bootloader, ",");
std::vector<std::string> initramfs_path =
android::base::Split(FLAGS_initramfs_path, ",");
std::vector<std::string> kernel_path =
android::base::Split(FLAGS_kernel_path, ",");
std::vector<std::string> blank_metadata_image_mb =
android::base::Split(FLAGS_blank_metadata_image_mb, ",");
std::vector<std::string> blank_sdcard_image_mb =
android::base::Split(FLAGS_blank_sdcard_image_mb, ",");
std::string cur_kernel_path;
std::string cur_initramfs_path;
std::string cur_boot_image;
std::string cur_vendor_boot_image;
std::string cur_super_image;
int value{};
int instance_index = 0;
auto instance_nums =
CF_EXPECT(InstanceNumsCalculator().FromGlobalGflags().Calculate());
for (const auto& num : instance_nums) {
auto instance = config.ForInstance(num);
if (instance_index >= misc_info.size()) {
instance.set_misc_info_txt(misc_info[0]);
} else {
instance.set_misc_info_txt(misc_info[instance_index]);
}
if (instance_index >= boot_image.size()) {
cur_boot_image = boot_image[0];
} else {
cur_boot_image = boot_image[instance_index];
}
instance.set_boot_image(cur_boot_image);
instance.set_new_boot_image(cur_boot_image);
if (instance_index >= init_boot_image.size()) {
instance.set_init_boot_image(init_boot_image[0]);
} else {
instance.set_init_boot_image(init_boot_image[instance_index]);
}
if (instance_index >= vendor_boot_image.size()) {
cur_vendor_boot_image = vendor_boot_image[0];
} else {
cur_vendor_boot_image = vendor_boot_image[instance_index];
}
instance.set_vendor_boot_image(cur_vendor_boot_image);
instance.set_new_vendor_boot_image(cur_vendor_boot_image);
if (instance_index >= vbmeta_image.size()) {
instance.set_vbmeta_image(vbmeta_image[0]);
} else {
instance.set_vbmeta_image(vbmeta_image[instance_index]);
}
if (instance_index >= vbmeta_system_image.size()) {
instance.set_vbmeta_system_image(vbmeta_system_image[0]);
} else {
instance.set_vbmeta_system_image(vbmeta_system_image[instance_index]);
}
if (instance_index >= vbmeta_vendor_dlkm_image.size()) {
instance.set_vbmeta_vendor_dlkm_image(vbmeta_vendor_dlkm_image[0]);
} else {
instance.set_vbmeta_vendor_dlkm_image(
vbmeta_vendor_dlkm_image[instance_index]);
}
if (instance_index >= vbmeta_system_dlkm_image.size()) {
instance.set_vbmeta_system_dlkm_image(vbmeta_system_dlkm_image[0]);
} else {
instance.set_vbmeta_system_dlkm_image(
vbmeta_system_dlkm_image[instance_index]);
}
if (instance_index >= super_image.size()) {
cur_super_image = super_image[0];
} else {
cur_super_image = super_image[instance_index];
}
instance.set_super_image(cur_super_image);
if (instance_index >= data_image.size()) {
instance.set_data_image(data_image[0]);
} else {
instance.set_data_image(data_image[instance_index]);
}
if (instance_index >= android_efi_loader.size()) {
instance.set_android_efi_loader(android_efi_loader[0]);
} else {
instance.set_android_efi_loader(android_efi_loader[instance_index]);
}
if (instance_index >= chromeos_disk.size()) {
instance.set_chromeos_disk(chromeos_disk[0]);
} else {
instance.set_chromeos_disk(chromeos_disk[instance_index]);
}
if (instance_index >= chromeos_kernel_path.size()) {
instance.set_chromeos_kernel_path(chromeos_kernel_path[0]);
} else {
instance.set_chromeos_kernel_path(chromeos_kernel_path[instance_index]);
}
if (instance_index >= chromeos_root_image.size()) {
instance.set_chromeos_root_image(chromeos_root_image[0]);
} else {
instance.set_chromeos_root_image(chromeos_root_image[instance_index]);
}
if (instance_index >= linux_kernel_path.size()) {
instance.set_linux_kernel_path(linux_kernel_path[0]);
} else {
instance.set_linux_kernel_path(linux_kernel_path[instance_index]);
}
if (instance_index >= linux_initramfs_path.size()) {
instance.set_linux_initramfs_path(linux_initramfs_path[0]);
} else {
instance.set_linux_initramfs_path(linux_initramfs_path[instance_index]);
}
if (instance_index >= linux_root_image.size()) {
instance.set_linux_root_image(linux_root_image[0]);
} else {
instance.set_linux_root_image(linux_root_image[instance_index]);
}
if (instance_index >= fuchsia_zedboot_path.size()) {
instance.set_fuchsia_zedboot_path(fuchsia_zedboot_path[0]);
} else {
instance.set_fuchsia_zedboot_path(fuchsia_zedboot_path[instance_index]);
}
if (instance_index >= fuchsia_multiboot_bin_path.size()) {
instance.set_fuchsia_multiboot_bin_path(fuchsia_multiboot_bin_path[0]);
} else {
instance.set_fuchsia_multiboot_bin_path(fuchsia_multiboot_bin_path[instance_index]);
}
if (instance_index >= fuchsia_root_image.size()) {
instance.set_fuchsia_root_image(fuchsia_root_image[0]);
} else {
instance.set_fuchsia_root_image(fuchsia_root_image[instance_index]);
}
if (instance_index >= custom_partition_path.size()) {
instance.set_custom_partition_path(custom_partition_path[0]);
} else {
instance.set_custom_partition_path(custom_partition_path[instance_index]);
}
if (instance_index >= bootloader.size()) {
instance.set_bootloader(bootloader[0]);
} else {
instance.set_bootloader(bootloader[instance_index]);
}
if (instance_index >= kernel_path.size()) {
cur_kernel_path = kernel_path[0];
} else {
cur_kernel_path = kernel_path[instance_index];
}
instance.set_kernel_path(cur_kernel_path);
if (instance_index >= initramfs_path.size()) {
cur_initramfs_path = initramfs_path[0];
} else {
cur_initramfs_path = initramfs_path[instance_index];
}
instance.set_initramfs_path(cur_initramfs_path);
using android::base::ParseInt;
if (instance_index >= blank_metadata_image_mb.size()) {
CF_EXPECTF(ParseInt(blank_metadata_image_mb[0], &value), "'{}'",
blank_metadata_image_mb[0]);
} else {
CF_EXPECTF(ParseInt(blank_metadata_image_mb[instance_index], &value),
"'{}'", blank_metadata_image_mb[value]);
}
instance.set_blank_metadata_image_mb(value);
if (instance_index >= blank_sdcard_image_mb.size()) {
CF_EXPECTF(ParseInt(blank_sdcard_image_mb[0], &value), "'{}'",
blank_sdcard_image_mb[0]);
} else {
CF_EXPECTF(ParseInt(blank_sdcard_image_mb[instance_index], &value),
"'{}'", blank_sdcard_image_mb[instance_index]);
}
instance.set_blank_sdcard_image_mb(value);
// Repacking a boot.img changes boot_image and vendor_boot_image paths
const CuttlefishConfig& const_config = const_cast<const CuttlefishConfig&>(config);
const CuttlefishConfig::InstanceSpecific const_instance = const_config.ForInstance(num);
if (cur_kernel_path.size() && config.vm_manager() != VmmMode::kGem5) {
const std::string new_boot_image_path =
const_instance.PerInstancePath("boot_repacked.img");
// change the new flag value to corresponding instance
instance.set_new_boot_image(new_boot_image_path.c_str());
}
instance.set_new_data_image(const_instance.PerInstancePath("userdata.img"));
if (instance_index >= data_image.size()) {
instance.set_data_image(data_image[0]);
} else {
instance.set_data_image(data_image[instance_index]);
}
if (cur_kernel_path.size() || cur_initramfs_path.size()) {
const std::string new_vendor_boot_image_path =
const_instance.PerInstancePath("vendor_boot_repacked.img");
// Repack the vendor boot images if kernels and/or ramdisks are passed in.
if (cur_initramfs_path.size()) {
// change the new flag value to corresponding instance
instance.set_new_vendor_boot_image(new_vendor_boot_image_path.c_str());
}
}
if (instance_index >= default_target_zip_vec.size()) {
instance.set_default_target_zip(default_target_zip_vec[0]);
} else {
instance.set_default_target_zip(default_target_zip_vec[instance_index]);
}
if (instance_index >= system_target_zip_vec.size()) {
instance.set_system_target_zip(system_target_zip_vec[0]);
} else {
instance.set_system_target_zip(system_target_zip_vec[instance_index]);
}
// We will need to rebuild vendor_dlkm if custom ramdisk is specified, as a
// result super image would need to be rebuilt as well.
if (CF_EXPECT(SuperImageNeedsRebuilding(fetcher_config,
const_instance.default_target_zip(),
const_instance.system_target_zip())) ||
cur_initramfs_path.size()) {
const std::string new_super_image_path =
const_instance.PerInstancePath("super.img");
instance.set_new_super_image(new_super_image_path);
const std::string new_vbmeta_image_path =
const_instance.PerInstancePath("os_vbmeta.img");
instance.set_new_vbmeta_image(new_vbmeta_image_path);
}
instance.set_new_vbmeta_vendor_dlkm_image(
const_instance.PerInstancePath("vbmeta_vendor_dlkm_repacked.img"));
instance.set_new_vbmeta_system_dlkm_image(
const_instance.PerInstancePath("vbmeta_system_dlkm_repacked.img"));
instance_index++;
}
return {};
}
Result<void> CreateDynamicDiskFiles(const FetcherConfig& fetcher_config,
const CuttlefishConfig& config) {
for (const auto& instance : config.Instances()) {
// TODO(schuffelen): Unify this with the other injector created in
// assemble_cvd.cpp
fruit::Injector<> injector(DiskChangesComponent, &fetcher_config, &config,
&instance);
for (auto& late_injected : injector.getMultibindings<LateInjected>()) {
CF_EXPECT(late_injected->LateInject(injector));
}
const auto& features = injector.getMultibindings<SetupFeature>();
CF_EXPECT(SetupFeature::RunSetup(features));
fruit::Injector<> instance_injector(DiskChangesPerInstanceComponent,
&fetcher_config, &config, &instance);
for (auto& late_injected :
instance_injector.getMultibindings<LateInjected>()) {
CF_EXPECT(late_injected->LateInject(instance_injector));
}
const auto& instance_features =
instance_injector.getMultibindings<SetupFeature>();
CF_EXPECT(SetupFeature::RunSetup(instance_features),
"instance = \"" << instance.instance_name() << "\"");
// Check if filling in the sparse image would run out of disk space.
auto existing_sizes = SparseFileSizes(instance.data_image());
CF_EXPECT(existing_sizes.sparse_size > 0 || existing_sizes.disk_size > 0,
"Unable to determine size of \"" << instance.data_image()
<< "\". Does this file exist?");
auto available_space = AvailableSpaceAtPath(instance.data_image());
if (available_space <
existing_sizes.sparse_size - existing_sizes.disk_size) {
// TODO(schuffelen): Duplicate this check in run_cvd when it can run on a
// separate machine
return CF_ERR("Not enough space remaining in fs containing \""
<< instance.data_image() << "\", wanted "
<< (existing_sizes.sparse_size - existing_sizes.disk_size)
<< ", got " << available_space);
} else {
LOG(DEBUG) << "Available space: " << available_space;
LOG(DEBUG) << "Sparse size of \"" << instance.data_image()
<< "\": " << existing_sizes.sparse_size;
LOG(DEBUG) << "Disk size of \"" << instance.data_image()
<< "\": " << existing_sizes.disk_size;
}
auto os_disk_builder = OsCompositeDiskBuilder(config, instance);
const auto os_built_composite = CF_EXPECT(os_disk_builder.BuildCompositeDiskIfNecessary());
auto ap_disk_builder = ApCompositeDiskBuilder(config, instance);
if (instance.ap_boot_flow() != APBootFlow::None) {
CF_EXPECT(ap_disk_builder.BuildCompositeDiskIfNecessary());
}
if (os_built_composite) {
if (FileExists(instance.access_kregistry_path())) {
CF_EXPECT(CreateBlankImage(instance.access_kregistry_path(), 2 /* mb */,
"none"),
"Failed for \"" << instance.access_kregistry_path() << "\"");
}
if (FileExists(instance.hwcomposer_pmem_path())) {
CF_EXPECT(CreateBlankImage(instance.hwcomposer_pmem_path(), 2 /* mb */,
"none"),
"Failed for \"" << instance.hwcomposer_pmem_path() << "\"");
}
if (FileExists(instance.pstore_path())) {
CF_EXPECT(CreateBlankImage(instance.pstore_path(), 2 /* mb */, "none"),
"Failed for\"" << instance.pstore_path() << "\"");
}
}
if (!instance.protected_vm()) {
os_disk_builder.OverlayPath(instance.PerInstancePath("overlay.img"));
CF_EXPECT(os_disk_builder.BuildOverlayIfNecessary());
if (instance.ap_boot_flow() != APBootFlow::None) {
ap_disk_builder.OverlayPath(instance.PerInstancePath("ap_overlay.img"));
CF_EXPECT(ap_disk_builder.BuildOverlayIfNecessary());
}
}
}
for (auto instance : config.Instances()) {
// Check that the files exist
for (const auto& file : instance.virtual_disk_paths()) {
if (!file.empty()) {
CF_EXPECT(FileHasContent(file), "File not found: \"" << file << "\"");
}
}
// Gem5 Simulate per-instance what the bootloader would usually do
// Since on other devices this runs every time, just do it here every time
if (config.vm_manager() == VmmMode::kGem5) {
RepackGem5BootImage(instance.PerInstancePath("initrd.img"),
instance.persistent_bootconfig_path(),
config.assembly_dir(), instance.initramfs_path());
}
}
return {};
}
} // namespace cuttlefish