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Code Issues Packages 1 Wiki Activity
denoland-deno/cli/standalone/binary.rs
snek 5f8be055db
refactor(unstable): otel configuration (#27333) 
split up otel config into user configurable and runtime configurable
parts. user configurable part is now set via env vars parsed according
to the otel spec. otel is now enabled via `OTEL_DENO=true`, and
`--unstable-otel` only acts as a guard.

Fixes: https://github.com/denoland/deno/issues/27273
2024-12-12 09:17:26 +01:00

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// Copyright 2018-2024 the Deno authors. All rights reserved. MIT license.
use std::borrow::Cow;
use std::collections::BTreeMap;
use std::collections::HashMap;
use std::collections::VecDeque;
use std::env;
use std::env::current_exe;
use std::ffi::OsString;
use std::fs;
use std::fs::File;
use std::future::Future;
use std::io::ErrorKind;
use std::io::Read;
use std::io::Seek;
use std::io::SeekFrom;
use std::io::Write;
use std::ops::Range;
use std::path::Component;
use std::path::Path;
use std::path::PathBuf;
use std::process::Command;
use std::sync::Arc;
use deno_ast::MediaType;
use deno_ast::ModuleKind;
use deno_ast::ModuleSpecifier;
use deno_config::workspace::PackageJsonDepResolution;
use deno_config::workspace::ResolverWorkspaceJsrPackage;
use deno_config::workspace::Workspace;
use deno_config::workspace::WorkspaceResolver;
use deno_core::anyhow::bail;
use deno_core::anyhow::Context;
use deno_core::error::AnyError;
use deno_core::futures::io::AllowStdIo;
use deno_core::futures::AsyncReadExt;
use deno_core::futures::AsyncSeekExt;
use deno_core::serde_json;
use deno_core::url::Url;
use deno_graph::source::RealFileSystem;
use deno_graph::ModuleGraph;
use deno_npm::resolution::SerializedNpmResolutionSnapshot;
use deno_npm::resolution::SerializedNpmResolutionSnapshotPackage;
use deno_npm::resolution::ValidSerializedNpmResolutionSnapshot;
use deno_npm::NpmPackageId;
use deno_npm::NpmSystemInfo;
use deno_runtime::deno_fs;
use deno_runtime::deno_fs::FileSystem;
use deno_runtime::deno_fs::RealFs;
use deno_runtime::deno_io::fs::FsError;
use deno_runtime::deno_node::PackageJson;
use deno_semver::npm::NpmVersionReqParseError;
use deno_semver::package::PackageReq;
use deno_semver::Version;
use deno_semver::VersionReqSpecifierParseError;
use deno_telemetry::OtelConfig;
use indexmap::IndexMap;
use log::Level;
use serde::Deserialize;
use serde::Serialize;
use crate::args::CaData;
use crate::args::CliOptions;
use crate::args::CompileFlags;
use crate::args::NpmInstallDepsProvider;
use crate::args::PermissionFlags;
use crate::args::UnstableConfig;
use crate::cache::DenoDir;
use crate::cache::FastInsecureHasher;
use crate::emit::Emitter;
use crate::file_fetcher::FileFetcher;
use crate::http_util::HttpClientProvider;
use crate::npm::CliNpmResolver;
use crate::npm::InnerCliNpmResolverRef;
use crate::resolver::CjsTracker;
use crate::shared::ReleaseChannel;
use crate::standalone::virtual_fs::VfsEntry;
use crate::util::archive;
use crate::util::fs::canonicalize_path_maybe_not_exists;
use crate::util::progress_bar::ProgressBar;
use crate::util::progress_bar::ProgressBarStyle;
use super::file_system::DenoCompileFileSystem;
use super::serialization::deserialize_binary_data_section;
use super::serialization::serialize_binary_data_section;
use super::serialization::DenoCompileModuleData;
use super::serialization::DeserializedDataSection;
use super::serialization::RemoteModulesStore;
use super::serialization::RemoteModulesStoreBuilder;
use super::virtual_fs::output_vfs;
use super::virtual_fs::FileBackedVfs;
use super::virtual_fs::VfsBuilder;
use super::virtual_fs::VfsFileSubDataKind;
use super::virtual_fs::VfsRoot;
use super::virtual_fs::VirtualDirectory;
/// A URL that can be designated as the base for relative URLs.
///
/// After creation, this URL may be used to get the key for a
/// module in the binary.
#[derive(Debug, Clone, Copy, PartialEq, Eq, Hash)]
pub struct StandaloneRelativeFileBaseUrl<'a>(&'a Url);
impl<'a> From<&'a Url> for StandaloneRelativeFileBaseUrl<'a> {
fn from(url: &'a Url) -> Self {
Self(url)
}
}
impl<'a> StandaloneRelativeFileBaseUrl<'a> {
pub fn new(url: &'a Url) -> Self {
debug_assert_eq!(url.scheme(), "file");
Self(url)
}
/// Gets the module map key of the provided specifier.
///
/// * Descendant file specifiers will be made relative to the base.
/// * Non-descendant file specifiers will stay as-is (absolute).
/// * Non-file specifiers will stay as-is.
pub fn specifier_key<'b>(&self, target: &'b Url) -> Cow<'b, str> {
if target.scheme() != "file" {
return Cow::Borrowed(target.as_str());
}
match self.0.make_relative(target) {
Some(relative) => {
if relative.starts_with("../") {
Cow::Borrowed(target.as_str())
} else {
Cow::Owned(relative)
}
}
None => Cow::Borrowed(target.as_str()),
}
}
pub fn inner(&self) -> &Url {
self.0
}
}
#[derive(Deserialize, Serialize)]
pub enum NodeModules {
Managed {
/// Relative path for the node_modules directory in the vfs.
node_modules_dir: Option<String>,
},
Byonm {
root_node_modules_dir: Option<String>,
},
}
#[derive(Deserialize, Serialize)]
pub struct SerializedWorkspaceResolverImportMap {
pub specifier: String,
pub json: String,
}
#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]
pub struct SerializedResolverWorkspaceJsrPackage {
pub relative_base: String,
pub name: String,
pub version: Option<Version>,
pub exports: IndexMap<String, String>,
}
#[derive(Deserialize, Serialize)]
pub struct SerializedWorkspaceResolver {
pub import_map: Option<SerializedWorkspaceResolverImportMap>,
pub jsr_pkgs: Vec<SerializedResolverWorkspaceJsrPackage>,
pub package_jsons: BTreeMap<String, serde_json::Value>,
pub pkg_json_resolution: PackageJsonDepResolution,
}
// Note: Don't use hashmaps/hashsets. Ensure the serialization
// is deterministic.
#[derive(Deserialize, Serialize)]
pub struct Metadata {
pub argv: Vec<String>,
pub seed: Option<u64>,
pub code_cache_key: Option<u64>,
pub permissions: PermissionFlags,
pub location: Option<Url>,
pub v8_flags: Vec<String>,
pub log_level: Option<Level>,
pub ca_stores: Option<Vec<String>>,
pub ca_data: Option<Vec<u8>>,
pub unsafely_ignore_certificate_errors: Option<Vec<String>>,
pub env_vars_from_env_file: IndexMap<String, String>,
pub workspace_resolver: SerializedWorkspaceResolver,
pub entrypoint_key: String,
pub node_modules: Option<NodeModules>,
pub unstable_config: UnstableConfig,
pub otel_config: OtelConfig,
}
fn write_binary_bytes(
mut file_writer: File,
original_bin: Vec<u8>,
metadata: &Metadata,
npm_snapshot: Option<SerializedNpmResolutionSnapshot>,
remote_modules: &RemoteModulesStoreBuilder,
vfs: VfsBuilder,
compile_flags: &CompileFlags,
) -> Result<(), AnyError> {
let data_section_bytes =
serialize_binary_data_section(metadata, npm_snapshot, remote_modules, vfs)
.context("Serializing binary data section.")?;
let target = compile_flags.resolve_target();
if target.contains("linux") {
libsui::Elf::new(&original_bin).append(
"d3n0l4nd",
&data_section_bytes,
&mut file_writer,
)?;
} else if target.contains("windows") {
let mut pe = libsui::PortableExecutable::from(&original_bin)?;
if let Some(icon) = compile_flags.icon.as_ref() {
let icon = std::fs::read(icon)?;
pe = pe.set_icon(&icon)?;
}
pe.write_resource("d3n0l4nd", data_section_bytes)?
.build(&mut file_writer)?;
} else if target.contains("darwin") {
libsui::Macho::from(original_bin)?
.write_section("d3n0l4nd", data_section_bytes)?
.build_and_sign(&mut file_writer)?;
}
Ok(())
}
pub fn is_standalone_binary(exe_path: &Path) -> bool {
let Ok(data) = std::fs::read(exe_path) else {
return false;
};
libsui::utils::is_elf(&data)
|| libsui::utils::is_pe(&data)
|| libsui::utils::is_macho(&data)
}
pub struct StandaloneData {
pub fs: Arc<dyn deno_fs::FileSystem>,
pub metadata: Metadata,
pub modules: StandaloneModules,
pub npm_snapshot: Option<ValidSerializedNpmResolutionSnapshot>,
pub root_path: PathBuf,
pub vfs: Arc<FileBackedVfs>,
}
pub struct StandaloneModules {
remote_modules: RemoteModulesStore,
vfs: Arc<FileBackedVfs>,
}
impl StandaloneModules {
pub fn resolve_specifier<'a>(
&'a self,
specifier: &'a ModuleSpecifier,
) -> Result<Option<&'a ModuleSpecifier>, AnyError> {
if specifier.scheme() == "file" {
Ok(Some(specifier))
} else {
self.remote_modules.resolve_specifier(specifier)
}
}
pub fn has_file(&self, path: &Path) -> bool {
self.vfs.file_entry(path).is_ok()
}
pub fn read<'a>(
&'a self,
specifier: &'a ModuleSpecifier,
) -> Result<Option<DenoCompileModuleData<'a>>, AnyError> {
if specifier.scheme() == "file" {
let path = deno_path_util::url_to_file_path(specifier)?;
let bytes = match self.vfs.file_entry(&path) {
Ok(entry) => self
.vfs
.read_file_all(entry, VfsFileSubDataKind::ModuleGraph)?,
Err(err) if err.kind() == ErrorKind::NotFound => {
match RealFs.read_file_sync(&path, None) {
Ok(bytes) => bytes,
Err(FsError::Io(err)) if err.kind() == ErrorKind::NotFound => {
return Ok(None)
}
Err(err) => return Err(err.into()),
}
}
Err(err) => return Err(err.into()),
};
Ok(Some(DenoCompileModuleData {
media_type: MediaType::from_specifier(specifier),
specifier,
data: bytes,
}))
} else {
self.remote_modules.read(specifier)
}
}
}
/// This function will try to run this binary as a standalone binary
/// produced by `deno compile`. It determines if this is a standalone
/// binary by skipping over the trailer width at the end of the file,
/// then checking for the magic trailer string `d3n0l4nd`. If found,
/// the bundle is executed. If not, this function exits with `Ok(None)`.
pub fn extract_standalone(
cli_args: Cow<Vec<OsString>>,
) -> Result<Option<StandaloneData>, AnyError> {
let Some(data) = libsui::find_section("d3n0l4nd") else {
return Ok(None);
};
let DeserializedDataSection {
mut metadata,
npm_snapshot,
remote_modules,
mut vfs_dir,
vfs_files_data,
} = match deserialize_binary_data_section(data)? {
Some(data_section) => data_section,
None => return Ok(None),
};
let root_path = {
let maybe_current_exe = std::env::current_exe().ok();
let current_exe_name = maybe_current_exe
.as_ref()
.and_then(|p| p.file_name())
.map(|p| p.to_string_lossy())
// should never happen
.unwrap_or_else(|| Cow::Borrowed("binary"));
std::env::temp_dir().join(format!("deno-compile-{}", current_exe_name))
};
let cli_args = cli_args.into_owned();
metadata.argv.reserve(cli_args.len() - 1);
for arg in cli_args.into_iter().skip(1) {
metadata.argv.push(arg.into_string().unwrap());
}
let vfs = {
// align the name of the directory with the root dir
vfs_dir.name = root_path.file_name().unwrap().to_string_lossy().to_string();
let fs_root = VfsRoot {
dir: vfs_dir,
root_path: root_path.clone(),
start_file_offset: 0,
};
Arc::new(FileBackedVfs::new(Cow::Borrowed(vfs_files_data), fs_root))
};
let fs: Arc<dyn deno_fs::FileSystem> =
Arc::new(DenoCompileFileSystem::new(vfs.clone()));
Ok(Some(StandaloneData {
fs,
metadata,
modules: StandaloneModules {
remote_modules,
vfs: vfs.clone(),
},
npm_snapshot,
root_path,
vfs,
}))
}
pub struct WriteBinOptions<'a> {
pub writer: File,
pub display_output_filename: &'a str,
pub graph: &'a ModuleGraph,
pub root_dir_url: StandaloneRelativeFileBaseUrl<'a>,
pub entrypoint: &'a ModuleSpecifier,
pub include_files: &'a [ModuleSpecifier],
pub compile_flags: &'a CompileFlags,
}
pub struct DenoCompileBinaryWriter<'a> {
cjs_tracker: &'a CjsTracker,
cli_options: &'a CliOptions,
deno_dir: &'a DenoDir,
emitter: &'a Emitter,
file_fetcher: &'a FileFetcher,
http_client_provider: &'a HttpClientProvider,
npm_resolver: &'a dyn CliNpmResolver,
workspace_resolver: &'a WorkspaceResolver,
npm_system_info: NpmSystemInfo,
}
impl<'a> DenoCompileBinaryWriter<'a> {
#[allow(clippy::too_many_arguments)]
pub fn new(
cjs_tracker: &'a CjsTracker,
cli_options: &'a CliOptions,
deno_dir: &'a DenoDir,
emitter: &'a Emitter,
file_fetcher: &'a FileFetcher,
http_client_provider: &'a HttpClientProvider,
npm_resolver: &'a dyn CliNpmResolver,
workspace_resolver: &'a WorkspaceResolver,
npm_system_info: NpmSystemInfo,
) -> Self {
Self {
cjs_tracker,
cli_options,
deno_dir,
emitter,
file_fetcher,
http_client_provider,
npm_resolver,
workspace_resolver,
npm_system_info,
}
}
pub async fn write_bin(
&self,
options: WriteBinOptions<'_>,
) -> Result<(), AnyError> {
// Select base binary based on target
let mut original_binary =
self.get_base_binary(options.compile_flags).await?;
if options.compile_flags.no_terminal {
let target = options.compile_flags.resolve_target();
if !target.contains("windows") {
bail!(
"The `--no-terminal` flag is only available when targeting Windows (current: {})",
target,
)
}
set_windows_binary_to_gui(&mut original_binary)
.context("Setting windows binary to GUI.")?;
}
if options.compile_flags.icon.is_some() {
let target = options.compile_flags.resolve_target();
if !target.contains("windows") {
bail!(
"The `--icon` flag is only available when targeting Windows (current: {})",
target,
)
}
}
self.write_standalone_binary(options, original_binary).await
}
async fn get_base_binary(
&self,
compile_flags: &CompileFlags,
) -> Result<Vec<u8>, AnyError> {
// Used for testing.
//
// Phase 2 of the 'min sized' deno compile RFC talks
// about adding this as a flag.
if let Some(path) = get_dev_binary_path() {
return std::fs::read(&path).with_context(|| {
format!("Could not find denort at '{}'", path.to_string_lossy())
});
}
let target = compile_flags.resolve_target();
let binary_name = format!("denort-{target}.zip");
let binary_path_suffix =
match crate::version::DENO_VERSION_INFO.release_channel {
ReleaseChannel::Canary => {
format!(
"canary/{}/{}",
crate::version::DENO_VERSION_INFO.git_hash,
binary_name
)
}
_ => {
format!("release/v{}/{}", env!("CARGO_PKG_VERSION"), binary_name)
}
};
let download_directory = self.deno_dir.dl_folder_path();
let binary_path = download_directory.join(&binary_path_suffix);
if !binary_path.exists() {
self
.download_base_binary(&download_directory, &binary_path_suffix)
.await
.context("Setting up base binary.")?;
}
let read_file = |path: &Path| -> Result<Vec<u8>, AnyError> {
std::fs::read(path).with_context(|| format!("Reading {}", path.display()))
};
let archive_data = read_file(&binary_path)?;
let temp_dir = tempfile::TempDir::new()?;
let base_binary_path = archive::unpack_into_dir(archive::UnpackArgs {
exe_name: "denort",
archive_name: &binary_name,
archive_data: &archive_data,
is_windows: target.contains("windows"),
dest_path: temp_dir.path(),
})?;
let base_binary = read_file(&base_binary_path)?;
drop(temp_dir); // delete the temp dir
Ok(base_binary)
}
async fn download_base_binary(
&self,
output_directory: &Path,
binary_path_suffix: &str,
) -> Result<(), AnyError> {
let download_url = format!("https://dl.deno.land/{binary_path_suffix}");
let maybe_bytes = {
let progress_bars = ProgressBar::new(ProgressBarStyle::DownloadBars);
let progress = progress_bars.update(&download_url);
self
.http_client_provider
.get_or_create()?
.download_with_progress_and_retries(
download_url.parse()?,
None,
&progress,
)
.await?
};
let bytes = match maybe_bytes {
Some(bytes) => bytes,
None => {
bail!("Download could not be found, aborting");
}
};
let create_dir_all = |dir: &Path| {
std::fs::create_dir_all(dir)
.with_context(|| format!("Creating {}", dir.display()))
};
create_dir_all(output_directory)?;
let output_path = output_directory.join(binary_path_suffix);
create_dir_all(output_path.parent().unwrap())?;
std::fs::write(&output_path, bytes)
.with_context(|| format!("Writing {}", output_path.display()))?;
Ok(())
}
/// This functions creates a standalone deno binary by appending a bundle
/// and magic trailer to the currently executing binary.
#[allow(clippy::too_many_arguments)]
async fn write_standalone_binary(
&self,
options: WriteBinOptions<'_>,
original_bin: Vec<u8>,
) -> Result<(), AnyError> {
let WriteBinOptions {
writer,
display_output_filename,
graph,
root_dir_url,
entrypoint,
include_files,
compile_flags,
} = options;
let ca_data = match self.cli_options.ca_data() {
Some(CaData::File(ca_file)) => Some(
std::fs::read(ca_file).with_context(|| format!("Reading {ca_file}"))?,
),
Some(CaData::Bytes(bytes)) => Some(bytes.clone()),
None => None,
};
let root_path = root_dir_url.inner().to_file_path().unwrap();
let (maybe_npm_vfs, node_modules, npm_snapshot) =
match self.npm_resolver.as_inner() {
InnerCliNpmResolverRef::Managed(managed) => {
let snapshot =
managed.serialized_valid_snapshot_for_system(&self.npm_system_info);
if !snapshot.as_serialized().packages.is_empty() {
let npm_vfs_builder = self
.build_npm_vfs(&root_path)
.context("Building npm vfs.")?;
(
Some(npm_vfs_builder),
Some(NodeModules::Managed {
node_modules_dir: self
.npm_resolver
.root_node_modules_path()
.map(|path| {
root_dir_url
.specifier_key(
&ModuleSpecifier::from_directory_path(path).unwrap(),
)
.into_owned()
}),
}),
Some(snapshot),
)
} else {
(None, None, None)
}
}
InnerCliNpmResolverRef::Byonm(resolver) => {
let npm_vfs_builder = self.build_npm_vfs(&root_path)?;
(
Some(npm_vfs_builder),
Some(NodeModules::Byonm {
root_node_modules_dir: resolver.root_node_modules_path().map(
|node_modules_dir| {
root_dir_url
.specifier_key(
&ModuleSpecifier::from_directory_path(node_modules_dir)
.unwrap(),
)
.into_owned()
},
),
}),
None,
)
}
};
let mut vfs = if let Some(npm_vfs) = maybe_npm_vfs {
npm_vfs
} else {
VfsBuilder::new(root_path.clone())?
};
for include_file in include_files {
let path = deno_path_util::url_to_file_path(include_file)?;
if path.is_dir() {
// TODO(#26941): we should analyze if any of these are
// modules in order to include their dependencies
vfs
.add_dir_recursive(&path)
.with_context(|| format!("Including {}", path.display()))?;
} else {
vfs
.add_file_at_path(&path)
.with_context(|| format!("Including {}", path.display()))?;
}
}
let mut remote_modules_store = RemoteModulesStoreBuilder::default();
let mut code_cache_key_hasher = if self.cli_options.code_cache_enabled() {
Some(FastInsecureHasher::new_deno_versioned())
} else {
None
};
for module in graph.modules() {
if module.specifier().scheme() == "data" {
continue; // don't store data urls as an entry as they're in the code
}
if let Some(hasher) = &mut code_cache_key_hasher {
if let Some(source) = module.source() {
hasher.write(module.specifier().as_str().as_bytes());
hasher.write(source.as_bytes());
}
}
let (maybe_source, media_type) = match module {
deno_graph::Module::Js(m) => {
let source = if m.media_type.is_emittable() {
let is_cjs = self.cjs_tracker.is_cjs_with_known_is_script(
&m.specifier,
m.media_type,
m.is_script,
)?;
let module_kind = ModuleKind::from_is_cjs(is_cjs);
let source = self
.emitter
.emit_parsed_source(
&m.specifier,
m.media_type,
module_kind,
&m.source,
)
.await?;
source.into_bytes()
} else {
m.source.as_bytes().to_vec()
};
(Some(source), m.media_type)
}
deno_graph::Module::Json(m) => {
(Some(m.source.as_bytes().to_vec()), m.media_type)
}
deno_graph::Module::Wasm(m) => {
(Some(m.source.to_vec()), MediaType::Wasm)
}
deno_graph::Module::Npm(_)
| deno_graph::Module::Node(_)
| deno_graph::Module::External(_) => (None, MediaType::Unknown),
};
if module.specifier().scheme() == "file" {
let file_path = deno_path_util::url_to_file_path(module.specifier())?;
vfs
.add_file_with_data(
&file_path,
match maybe_source {
Some(source) => source,
None => RealFs.read_file_sync(&file_path, None)?.into_owned(),
},
VfsFileSubDataKind::ModuleGraph,
)
.with_context(|| {
format!("Failed adding '{}'", file_path.display())
})?;
} else if let Some(source) = maybe_source {
remote_modules_store.add(module.specifier(), media_type, source);
}
}
remote_modules_store.add_redirects(&graph.redirects);
let env_vars_from_env_file = match self.cli_options.env_file_name() {
Some(env_filenames) => {
let mut aggregated_env_vars = IndexMap::new();
for env_filename in env_filenames.iter().rev() {
log::info!("{} Environment variables from the file \"{}\" were embedded in the generated executable file", crate::colors::yellow("Warning"), env_filename);
let env_vars = get_file_env_vars(env_filename.to_string())?;
aggregated_env_vars.extend(env_vars);
}
aggregated_env_vars
}
None => Default::default(),
};
let metadata = Metadata {
argv: compile_flags.args.clone(),
seed: self.cli_options.seed(),
code_cache_key: code_cache_key_hasher.map(|h| h.finish()),
location: self.cli_options.location_flag().clone(),
permissions: self.cli_options.permission_flags().clone(),
v8_flags: self.cli_options.v8_flags().clone(),
unsafely_ignore_certificate_errors: self
.cli_options
.unsafely_ignore_certificate_errors()
.clone(),
log_level: self.cli_options.log_level(),
ca_stores: self.cli_options.ca_stores().clone(),
ca_data,
env_vars_from_env_file,
entrypoint_key: root_dir_url.specifier_key(entrypoint).into_owned(),
workspace_resolver: SerializedWorkspaceResolver {
import_map: self.workspace_resolver.maybe_import_map().map(|i| {
SerializedWorkspaceResolverImportMap {
specifier: if i.base_url().scheme() == "file" {
root_dir_url.specifier_key(i.base_url()).into_owned()
} else {
// just make a remote url local
"deno.json".to_string()
},
json: i.to_json(),
}
}),
jsr_pkgs: self
.workspace_resolver
.jsr_packages()
.map(|pkg| SerializedResolverWorkspaceJsrPackage {
relative_base: root_dir_url.specifier_key(&pkg.base).into_owned(),
name: pkg.name.clone(),
version: pkg.version.clone(),
exports: pkg.exports.clone(),
})
.collect(),
package_jsons: self
.workspace_resolver
.package_jsons()
.map(|pkg_json| {
(
root_dir_url
.specifier_key(&pkg_json.specifier())
.into_owned(),
serde_json::to_value(pkg_json).unwrap(),
)
})
.collect(),
pkg_json_resolution: self.workspace_resolver.pkg_json_dep_resolution(),
},
node_modules,
unstable_config: UnstableConfig {
legacy_flag_enabled: false,
bare_node_builtins: self.cli_options.unstable_bare_node_builtins(),
detect_cjs: self.cli_options.unstable_detect_cjs(),
sloppy_imports: self.cli_options.unstable_sloppy_imports(),
features: self.cli_options.unstable_features(),
npm_lazy_caching: self.cli_options.unstable_npm_lazy_caching(),
},
otel_config: self.cli_options.otel_config(),
};
output_vfs(&vfs, display_output_filename);
write_binary_bytes(
writer,
original_bin,
&metadata,
npm_snapshot.map(|s| s.into_serialized()),
&remote_modules_store,
vfs,
compile_flags,
)
.context("Writing binary bytes")
}
fn build_npm_vfs(&self, root_path: &Path) -> Result<VfsBuilder, AnyError> {
fn maybe_warn_different_system(system_info: &NpmSystemInfo) {
if system_info != &NpmSystemInfo::default() {
log::warn!("{} The node_modules directory may be incompatible with the target system.", crate::colors::yellow("Warning"));
}
}
match self.npm_resolver.as_inner() {
InnerCliNpmResolverRef::Managed(npm_resolver) => {
if let Some(node_modules_path) = npm_resolver.root_node_modules_path() {
maybe_warn_different_system(&self.npm_system_info);
let mut builder = VfsBuilder::new(root_path.to_path_buf())?;
builder.add_dir_recursive(node_modules_path)?;
Ok(builder)
} else {
// DO NOT include the user's registry url as it may contain credentials,
// but also don't make this dependent on the registry url
let global_cache_root_path = npm_resolver.global_cache_root_path();
let mut builder =
VfsBuilder::new(global_cache_root_path.to_path_buf())?;
let mut packages =
npm_resolver.all_system_packages(&self.npm_system_info);
packages.sort_by(|a, b| a.id.cmp(&b.id)); // determinism
for package in packages {
let folder =
npm_resolver.resolve_pkg_folder_from_pkg_id(&package.id)?;
builder.add_dir_recursive(&folder)?;
}
// Flatten all the registries folders into a single ".deno_compile_node_modules/localhost" folder
// that will be used by denort when loading the npm cache. This avoids us exposing
// the user's private registry information and means we don't have to bother
// serializing all the different registry config into the binary.
builder.with_root_dir(|root_dir| {
root_dir.name = ".deno_compile_node_modules".to_string();
let mut new_entries = Vec::with_capacity(root_dir.entries.len());
let mut localhost_entries = IndexMap::new();
for entry in std::mem::take(&mut root_dir.entries) {
match entry {
VfsEntry::Dir(dir) => {
for entry in dir.entries {
log::debug!(
"Flattening {} into node_modules",
entry.name()
);
if let Some(existing) =
localhost_entries.insert(entry.name().to_string(), entry)
{
panic!(
"Unhandled scenario where a duplicate entry was found: {:?}",
existing
);
}
}
}
VfsEntry::File(_) | VfsEntry::Symlink(_) => {
new_entries.push(entry);
}
}
}
new_entries.push(VfsEntry::Dir(VirtualDirectory {
name: "localhost".to_string(),
entries: localhost_entries.into_iter().map(|(_, v)| v).collect(),
}));
// needs to be sorted by name
new_entries.sort_by(|a, b| a.name().cmp(b.name()));
root_dir.entries = new_entries;
});
builder.set_new_root_path(root_path.to_path_buf())?;
Ok(builder)
}
}
InnerCliNpmResolverRef::Byonm(_) => {
maybe_warn_different_system(&self.npm_system_info);
let mut builder = VfsBuilder::new(root_path.to_path_buf())?;
for pkg_json in self.cli_options.workspace().package_jsons() {
builder.add_file_at_path(&pkg_json.path)?;
}
// traverse and add all the node_modules directories in the workspace
let mut pending_dirs = VecDeque::new();
pending_dirs.push_back(
self
.cli_options
.workspace()
.root_dir()
.to_file_path()
.unwrap(),
);
while let Some(pending_dir) = pending_dirs.pop_front() {
let mut entries = fs::read_dir(&pending_dir)
.with_context(|| {
format!("Failed reading: {}", pending_dir.display())
})?
.collect::<Result<Vec<_>, _>>()?;
entries.sort_by_cached_key(|entry| entry.file_name()); // determinism
for entry in entries {
let path = entry.path();
if !path.is_dir() {
continue;
}
if path.ends_with("node_modules") {
builder.add_dir_recursive(&path)?;
} else {
pending_dirs.push_back(path);
}
}
}
Ok(builder)
}
}
}
}
fn get_denort_path(deno_exe: PathBuf) -> Option<OsString> {
let mut denort = deno_exe;
denort.set_file_name(if cfg!(windows) {
"denort.exe"
} else {
"denort"
});
denort.exists().then(|| denort.into_os_string())
}
fn get_dev_binary_path() -> Option<OsString> {
env::var_os("DENORT_BIN").or_else(|| {
env::current_exe().ok().and_then(|exec_path| {
if exec_path
.components()
.any(|component| component == Component::Normal("target".as_ref()))
{
get_denort_path(exec_path)
} else {
None
}
})
})
}
/// This function returns the environment variables specified
/// in the passed environment file.
fn get_file_env_vars(
filename: String,
) -> Result<IndexMap<String, String>, dotenvy::Error> {
let mut file_env_vars = IndexMap::new();
for item in dotenvy::from_filename_iter(filename)? {
let Ok((key, val)) = item else {
continue; // this failure will be warned about on load
};
file_env_vars.insert(key, val);
}
Ok(file_env_vars)
}
/// This function sets the subsystem field in the PE header to 2 (GUI subsystem)
/// For more information about the PE header: https://learn.microsoft.com/en-us/windows/win32/debug/pe-format
fn set_windows_binary_to_gui(bin: &mut [u8]) -> Result<(), AnyError> {
// Get the PE header offset located in an i32 found at offset 60
// See: https://learn.microsoft.com/en-us/windows/win32/debug/pe-format#ms-dos-stub-image-only
let start_pe = u32::from_le_bytes((bin[60..64]).try_into()?);
// Get image type (PE32 or PE32+) indicates whether the binary is 32 or 64 bit
// The used offset and size values can be found here:
// https://learn.microsoft.com/en-us/windows/win32/debug/pe-format#optional-header-image-only
let start_32 = start_pe as usize + 28;
let magic_32 =
u16::from_le_bytes(bin[(start_32)..(start_32 + 2)].try_into()?);
let start_64 = start_pe as usize + 24;
let magic_64 =
u16::from_le_bytes(bin[(start_64)..(start_64 + 2)].try_into()?);
// Take the standard fields size for the current architecture (32 or 64 bit)
// This is the ofset for the Windows-Specific fields
let standard_fields_size = if magic_32 == 0x10b {
28
} else if magic_64 == 0x20b {
24
} else {
bail!("Could not find a matching magic field in the PE header")
};
// Set the subsystem field (offset 68) to 2 (GUI subsystem)
// For all possible options, see: https://learn.microsoft.com/en-us/windows/win32/debug/pe-format#optional-header-windows-specific-fields-image-only
let subsystem_offset = 68;
let subsystem_start =
start_pe as usize + standard_fields_size + subsystem_offset;
let subsystem: u16 = 2;
bin[(subsystem_start)..(subsystem_start + 2)]
.copy_from_slice(&subsystem.to_le_bytes());
Ok(())
}
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