Files
pnpm/installing/package-requester/src/packageRequester.ts
Victor Sumner 61810aa684 feat: add --frozen-store for installs against a read-only store (#12190)
## What

Adds an opt-in `frozenStore` / `--frozen-store` setting (default `false`) that lets `pnpm install --offline --frozen-lockfile` run against a package store that lives on a **read-only filesystem** — a Nix store, a read-only bind mount, an OCI layer.

## Why

A normal install fails against such a store **not** because it writes package content, but because it unconditionally:

1. opens the SQLite `index.db` in WAL mode, which needs to create `-shm`/`-wal` sidecars in the store directory; and
2. writes a project-registry entry under the store.

Both fail with `attempt to write a readonly database` / `EROFS` on a read-only store directory, even when the store is complete and the lockfile is frozen. This blocks any deployment that wants an immutable, content-addressed store.

## How

When `frozenStore` is enabled, pnpm opens `index.db` through the SQLite **`immutable=1`** URI — which tells SQLite the file cannot change underneath it, so it bypasses the WAL/`-shm` sidecar machinery entirely and reads the raw file with zero sidecar creation — and suppresses every store-write path. Pair it with `--offline --frozen-lockfile` against a fully-populated store. It is incompatible with two settings that would write into the store, and each throws a clear config-conflict error before any network or store access: **`--force`** (which bypasses the no-write-on-hit skip → `ERR_PNPM_CONFIG_CONFLICT_FROZEN_STORE_WITH_FORCE`) and a configured **pnpr server** (which would fetch and write packages into the store → `ERR_PNPM_FROZEN_STORE_INCOMPATIBLE_WITH_PNPR`).

> Plain `SQLITE_OPEN_READ_ONLY` is **not** sufficient: opening a WAL-mode db read-only still tries to create the `-shm` sidecar, which fails on a read-only *directory*. `immutable=1` is the load-bearing piece.

> **Node.js requirement:** `node:sqlite` only passes `SQLITE_OPEN_URI` to SQLite (so the `immutable=1` query is honored rather than treated as part of a literal filename) starting in **v22.15.0** (22.x line), **v23.11.0**, and every **v24+**. pnpm's `engines` floor is `>=22.13`, so on a runtime older than that the frozen open is detected up front and fails with a clear `ERR_PNPM_FROZEN_STORE_UNSUPPORTED_NODE` instead of SQLite's cryptic "unable to open database file". (pacquet uses rusqlite with an explicit `SQLITE_OPEN_URI` flag, so it has no such floor.)

> The `immutable=1` URI path is also percent-encoded (`%`→`%25`, `?`→`%3f`, `#`→`%23`, in that order, leaving `/` literal) so a store path containing those characters doesn't truncate the path or inject a spurious query parameter — applied identically in both stacks.

### Build backstop under the global virtual store

Under the global virtual store (default), a package's directory lives **inside** the store (`{storeDir}/links/...`). Applying a patch or running an allowlisted lifecycle script writes into that directory — so on a frozen store it would crash mid-build with a raw `EROFS`. A fully-seeded store never reaches the build step (patched/built packages are imported from the side-effects cache and filtered out by the `isBuilt` gate), so any residual build candidate means the seed is **missing that package's build output**.

`buildModules` now refuses up front with `ERR_PNPM_FROZEN_STORE_NEEDS_BUILD` and actionable guidance ("rebuild the seed with their scripts enabled, or remove them from `onlyBuiltDependencies`") instead of failing cryptically once a script starts. The check is gated on the global virtual store — under the isolated linker, slot directories live in the writable project-local store, so builds there are fine. Non-allowlisted scripts never run, so they are not treated as a blocking write.

Bin-linking has its own read-only-store edge under the global virtual store. On a **warm** checkout (the project's `.bin/<name>` already points at the seed target) `linkBin` returns before touching the store, so it is write-free. But on a **fresh** checkout it (re)creates the bin and calls `fixBin`, whose `chmod` targets the bin's **source file inside the store** (`{storeDir}/links/...`) — which is refused with `EPERM`/`EACCES` on a read-only store, even though a complete seed already ships that bin executable (so the `chmod` is redundant). `@pnpm/bins.linker` now wraps that call in `ensureExecutable`: it swallows the refusal when the target is already executable and rethrows otherwise, so bin-linking is write-free against a frozen store on a cold checkout too, while a genuinely non-executable bin (a broken seed) still surfaces as an error.

The blocking predicate distinguishes the two write kinds: a **patch** is applied regardless of `ignoreScripts`, so a patched package is always blocked; a **lifecycle script** is suppressed under `ignoreScripts`, so an allowlisted build-requiring package is *not* blocked when scripts are off (it would write nothing). This avoids falsely rejecting a valid `--ignore-scripts` frozen install. **Optional dependencies are exempt**: a build or patch failure on an optional dependency is non-fatal at runtime, so a seed missing an optional package's build output skips that build (emitting the `skipped-optional-dependency` log) instead of blocking the install — in both stacks.

### Both stacks (parity rule)

**TypeScript pnpm CLI**
- Config plumbing (`@pnpm/config.reader`): `frozen-store` type, config-file key, default, `Config.frozenStore`.
- The read-only open branch (`@pnpm/store.index`): `immutable=1`, read-only statements, throwing mutators.
- Wiring through `@pnpm/store.controller` and `@pnpm/store.connection-manager` to the sole `StoreIndex` construction site.
- Gating the project-registry write (`@pnpm/installing.context`).
- The `--force` / pnpr-server conflict guards (`@pnpm/installing.deps-installer`) and CLI surface (`@pnpm/installing.commands`).
- **After-install rebuild** (`@pnpm/building.after-install`): the post-install rebuild opens its `StoreIndex` immutably under the flag, so re-reading the store for a rebuild never attempts a writable open against the frozen store.
- **Worker fix:** `@pnpm/worker` opens its *own* writable `StoreIndex` on every `readPkgFromCafs` cache hit, so a pure read crashed on a frozen store. `frozenStore` is threaded through to `getStoreIndex` and keyed into its connection cache.
- **Build backstop** (`@pnpm/building.during-install`): `buildModules` throws `ERR_PNPM_FROZEN_STORE_NEEDS_BUILD` for a GVS slot that would build/patch on a frozen store, honoring `ignoreScripts`; threaded from `@pnpm/installing.deps-installer`.
- **Bin-linking on a read-only store** (`@pnpm/bins.linker`): `linkBin` wraps the `fixBin` chmod in `ensureExecutable`, which tolerates `EPERM`/`EACCES` when the bin's store-resident source is already executable (a complete seed) and rethrows otherwise — so a fresh checkout against a frozen store links bins without crashing on the redundant chmod. Catch-on-failure keeps the writable hot path at zero added syscalls.

**Rust pacquet**
- A dedicated `open_immutable` / `shared_immutable_in` opens via `immutable=1`, selected only under the flag. Plain `open_readonly` keeps the ordinary `SQLITE_OPEN_READ_ONLY` open (WAL locking intact) because normal installs read the index while the same process's `StoreIndexWriter` writes it concurrently — an immutable connection skips all locking and change detection, so a concurrent writer would make those reads undefined.
- `--frozen-store` CLI flag + `frozenStore` workspace-yaml setting.
- The store-index writer is replaced with a drain-and-drop stub (`spawn_disabled`) and `init_store_dir_best_effort` is skipped under the flag.
- **Build backstop:** `build_modules` returns `BuildModulesError::FrozenStoreNeedsBuild` (`ERR_PNPM_FROZEN_STORE_NEEDS_BUILD`) under the same GVS + frozen-store condition, threaded from `config.frozen_store`. The gate keys off `should_run_scripts` (which already folds the allow-build policy), so it is correct without an explicit ignore-scripts branch — pacquet has no configurable ignore-scripts mode yet.

pacquet already separated read-only index access (`shared_readonly_in`, or `shared_immutable_in` under the flag) from writes, so it never had the worker-conflation bug; the flag makes the "no writes attempted" contract explicit and gates the remaining best-effort write attempts.

## Testing

- **TS:** `store.index` frozen-mode-on-`0555`-directory test (reads work, writes throw `ERR_PNPM_FROZEN_STORE_WRITE`) plus a path-with-`?` open test — both gated on the runtime's immutable-URI support, with a complementary test asserting `ERR_PNPM_FROZEN_STORE_UNSUPPORTED_NODE` fires where that support is absent (the CI Node 22.13.0 path); `config.reader` round-trip; `deps-installer` `--force` and pnpr-server conflict guards; `worker`/`package-requester` unit tests. End-to-end on a `chmod -R 0555` store: install succeeds, `node_modules` materializes, no `-shm`/`-wal`/`-journal` sidecars; negative control without the flag fails as expected; incomplete store → clean offline error.
- **pacquet:** `open_immutable_reads_wal_db_on_readonly_directory` unit test plus the `immutable_sqlite_uri` encoding test and a path-with-`?` open test; yaml + CLI fold tests; **integration test** `frozen_store_installs_against_a_read_only_store` — primes a store, `chmod 0555` the tree, runs `install --frozen-lockfile --frozen-store --offline`, asserts success + materialized `node_modules` + zero sidecars. Confirmed load-bearing by reverting the `immutable=1` fix (test then fails).
- **Build backstop (both stacks):** `building/during-install` unit tests — approved-build-not-cached and patched-not-cached refuse; cached, non-allowlisted, and non-GVS cases pass through; **approved-build-under-`ignoreScripts` passes through while patched-under-`ignoreScripts` still refuses** — and the matching pacquet `build_modules` tests (`frozen_store_gvs_patch_not_seeded_refuses` + GVS-off / frozen-off controls). Each confirmed load-bearing by disabling the relevant guard and watching the corresponding test fail.
- **Bin-linking (`bins/linker`):** `ensureExecutable` tests with `fixBin` mocked to reject with `EPERM` — an already-executable bin source resolves (and `fixBin` is asserted called, so it isn't the warm skip-guard passing), a non-executable one rethrows `EPERM`. Confirmed end-to-end by running the built `linkBins` against a real `chflags uchg`-immutable store: the executable-seed case resolves and links the bin, the non-executable-seed control throws `EPERM`.

A changeset is included with `"pnpm": minor` and `"@pnpm/bins.linker": patch` (the read-only-store bin-linking fix).
2026-06-12 08:36:08 +02:00

671 lines
22 KiB
TypeScript

import { createReadStream, promises as fs } from 'node:fs'
import path from 'node:path'
import { packageIsInstallable } from '@pnpm/config.package-is-installable'
import { fetchingProgressLogger, progressLogger } from '@pnpm/core-loggers'
import { depPathToFilename } from '@pnpm/deps.path'
import { PnpmError } from '@pnpm/error'
import type {
DirectoryFetcherResult,
Fetchers,
FetchOptions,
FetchResult,
} from '@pnpm/fetching.fetcher-base'
import { pickFetcher } from '@pnpm/fetching.pick-fetcher'
import gfs from '@pnpm/fs.graceful-fs'
import type { CustomFetcher } from '@pnpm/hooks.types'
import { logger } from '@pnpm/logger'
import {
type AtomicResolution,
type DirectoryResolution,
type PlatformAssetResolution,
type PreferredVersions,
type Resolution,
type ResolveFunction,
resolvePlatformSelector,
type ResolveResult,
selectPlatformVariant,
type TarballResolution,
} from '@pnpm/resolving.resolver-base'
import {
normalizeBundledManifest,
} from '@pnpm/store.cafs'
import type { Cafs } from '@pnpm/store.cafs-types'
import type {
BundledManifest,
FetchPackageToStoreFunction,
FetchPackageToStoreOptions,
GetFilesIndexFilePath,
PackageResponse,
PkgNameVersion,
PkgRequestFetchResult,
RequestPackageFunction,
RequestPackageOptions,
WantedDependency,
} from '@pnpm/store.controller-types'
import { pickStoreIndexKey } from '@pnpm/store.index'
import type { DependencyManifest, SupportedArchitectures } from '@pnpm/types'
import {
calcMaxWorkers,
readPkgFromCafs as _readPkgFromCafs,
type ReadPkgFromCafsOptions,
type ReadPkgFromCafsResult,
} from '@pnpm/worker'
import { familySync } from 'detect-libc'
import { loadJsonFile } from 'load-json-file'
import pDefer, { type DeferredPromise } from 'p-defer'
import PQueue from 'p-queue'
import { pShare } from 'promise-share'
import { pick } from 'ramda'
import ssri from 'ssri'
let currentLibc: 'glibc' | 'musl' | undefined | null
function getLibcFamilySync () {
if (currentLibc === undefined) {
currentLibc = familySync() as unknown as typeof currentLibc
}
return currentLibc
}
const TARBALL_INTEGRITY_FILENAME = 'tarball-integrity'
const packageRequestLogger = logger('package-requester')
export function createPackageRequester (
opts: {
engineStrict?: boolean
force?: boolean
nodeVersion?: string
pnpmVersion?: string
resolve: ResolveFunction
fetchers: Fetchers
cafs: Cafs
ignoreFile?: (filename: string) => boolean
networkConcurrency?: number
storeDir: string
verifyStoreIntegrity: boolean
virtualStoreDirMaxLength: number
strictStorePkgContentCheck?: boolean
customFetchers?: CustomFetcher[]
frozenStore?: boolean
}
): RequestPackageFunction & {
fetchPackageToStore: FetchPackageToStoreFunction
getFilesIndexFilePath: GetFilesIndexFilePath
requestPackage: RequestPackageFunction
} {
opts = opts || {}
// Downloads are I/O-bound, not CPU-bound: a low-latency registry only
// saturates with enough requests in flight, so the floor matters more
// than the per-core scaling — a CPU-derived floor left 4-core CI
// runners draining multi-hundred-tarball installs 16 at a time.
const networkConcurrency = opts.networkConcurrency ?? Math.min(96, Math.max(calcMaxWorkers() * 3, 64))
const requestsQueue = new PQueue({
concurrency: networkConcurrency,
})
const fetch = fetcher.bind(null, opts.fetchers, opts.cafs, opts.customFetchers)
const readPkgFromCafs = _readPkgFromCafs.bind(null, {
storeDir: opts.storeDir,
verifyStoreIntegrity: opts.verifyStoreIntegrity,
strictStorePkgContentCheck: opts.strictStorePkgContentCheck,
frozenStore: opts.frozenStore,
})
const fetchPackageToStore = fetchToStore.bind(null, {
readPkgFromCafs,
fetch,
fetchingLocker: new Map(),
requestsQueue: Object.assign(requestsQueue, {
counter: 0,
concurrency: networkConcurrency,
}),
storeDir: opts.storeDir,
virtualStoreDirMaxLength: opts.virtualStoreDirMaxLength,
strictStorePkgContentCheck: opts.strictStorePkgContentCheck,
})
const requestPackage = resolveAndFetch.bind(null, {
engineStrict: opts.engineStrict,
nodeVersion: opts.nodeVersion,
pnpmVersion: opts.pnpmVersion,
force: opts.force,
fetchPackageToStore,
requestsQueue,
resolve: opts.resolve,
storeDir: opts.storeDir,
})
return Object.assign(requestPackage, {
fetchPackageToStore,
getFilesIndexFilePath: getFilesIndexFilePath.bind(null, {
storeDir: opts.storeDir,
virtualStoreDirMaxLength: opts.virtualStoreDirMaxLength,
}),
requestPackage,
})
}
async function resolveAndFetch (
ctx: {
engineStrict?: boolean
force?: boolean
nodeVersion?: string
pnpmVersion?: string
requestsQueue: { add: <T>(fn: () => Promise<T>, opts: { priority: number }) => Promise<T> }
resolve: ResolveFunction
fetchPackageToStore: FetchPackageToStoreFunction
storeDir: string
},
wantedDependency: WantedDependency & { optional?: boolean },
options: RequestPackageOptions
): Promise<PackageResponse> {
let resolution = options.currentPkg?.resolution as Resolution
let pkgId = options.currentPkg?.id
// When we have a currentPkg but a resolution is still performed due to
// options.skipFetch, it's necessary to make sure the resolution doesn't
// accidentally return a newer version of the package. When skipFetch is
// set, the resolved package shouldn't be different. This is done by
// overriding the preferredVersions object to only contain the current
// package's version.
//
// A naive approach would be to change the bare specifier to be the exact
// version of the current pkg if the bare specifier is a range, but this
// would cause the version returned for calcSpecifier to be different.
const preferredVersions: PreferredVersions = (resolution && !options.update && options.currentPkg?.name != null && options.currentPkg?.version != null)
? {
...options.preferredVersions,
[options.currentPkg.name]: { [options.currentPkg.version]: 'version' },
}
: options.preferredVersions
const resolveResult = await ctx.requestsQueue.add<ResolveResult>(async () => ctx.resolve(wantedDependency, {
...options,
preferredVersions,
currentPkg: (options.currentPkg?.id && options.currentPkg?.resolution)
? {
id: options.currentPkg.id,
name: options.currentPkg.name,
version: options.currentPkg.version,
resolution: options.currentPkg.resolution,
publishedAt: options.currentPkg.publishedAt,
}
: undefined,
}), { priority: options.downloadPriority })
let { manifest } = resolveResult
const {
latest,
resolvedVia,
publishedAt,
normalizedBareSpecifier,
alias,
policyViolation,
} = resolveResult
// Check if the integrity has changed between the current and newly resolved package
// Use 'in' check to safely access integrity from any resolution type that has it
const previousResolution = options.currentPkg?.resolution
const previousIntegrity = previousResolution && 'integrity' in previousResolution ? previousResolution.integrity : undefined
const newIntegrity = 'integrity' in resolveResult.resolution ? resolveResult.resolution.integrity : undefined
const integrityChanged = previousIntegrity != null && newIntegrity != null && previousIntegrity !== newIntegrity
const updated = pkgId !== resolveResult.id || !resolution || integrityChanged
resolution = resolveResult.resolution
pkgId = resolveResult.id
// URL/tarball resolvers don't return an integrity, because it is only known
// after the tarball is downloaded. When a package is reused from the lockfile
// without being re-fetched, the freshly resolved resolution has no integrity,
// so carry it over from the current resolution instead of dropping it.
// https://github.com/pnpm/pnpm/issues/12001
if (
!updated &&
typeof previousIntegrity === 'string' &&
!resolution.type &&
!(resolution as TarballResolution).integrity
) {
(resolution as TarballResolution).integrity = previousIntegrity
}
const id = pkgId!
if ('type' in resolution && resolution.type === 'directory' && !id.startsWith('file:')) {
if (manifest == null) {
throw new Error(`Couldn't read package.json of local dependency ${wantedDependency.alias ? wantedDependency.alias + '@' : ''}${wantedDependency.bareSpecifier ?? ''}`)
}
return {
body: {
id,
isLocal: true,
manifest,
resolution: resolution as DirectoryResolution,
resolvedVia,
updated,
normalizedBareSpecifier,
alias,
},
}
}
let isInstallable: boolean | null | undefined = (
ctx.force === true ||
(
manifest == null
? undefined
: packageIsInstallable(id, manifest, {
engineStrict: ctx.engineStrict,
lockfileDir: options.lockfileDir,
nodeVersion: ctx.nodeVersion,
optional: wantedDependency.optional === true,
supportedArchitectures: options.supportedArchitectures,
})
)
)
// We can skip fetching the package only if the manifest
// is present after resolution AND the content of the package has not changed
if ((options.skipFetch === true || isInstallable === false) && !integrityChanged && (manifest != null)) {
return {
body: {
id,
isLocal: false as const,
isInstallable: isInstallable ?? undefined,
latest,
manifest,
normalizedBareSpecifier,
resolution,
resolvedVia,
updated,
publishedAt,
alias,
policyViolation,
},
}
}
const pkg: PkgNameVersion = manifest != null ? pick(['name', 'version'], manifest) : {}
const fetchResult = ctx.fetchPackageToStore({
allowBuild: options.allowBuild,
fetchRawManifest: true,
force: integrityChanged,
ignoreScripts: options.ignoreScripts,
lockfileDir: options.lockfileDir,
pkg: {
...(options.expectedPkg?.name != null
? (updated ? { name: options.expectedPkg.name, version: pkg.version } : options.expectedPkg)
: pkg
),
id,
resolution,
},
onFetchError: options.onFetchError,
supportedArchitectures: options.supportedArchitectures,
})
if (!manifest) {
const fetchedResult = await fetchResult.fetching()
if (fetchedResult.bundledManifest) {
manifest = fetchedResult.bundledManifest as DependencyManifest
} else if (fetchedResult.files.filesMap.has('package.json')) {
const loadedManifest = await loadJsonFile<Record<string, unknown>>(fetchedResult.files.filesMap.get('package.json')!)
// Skip placeholder package.json added as a completion marker by the worker
// for packages that genuinely lack one.
if (!loadedManifest._pnpmPlaceholder) {
manifest = loadedManifest as unknown as DependencyManifest
}
}
// Add integrity to resolution if it was computed during fetching (only for TarballResolution)
if (fetchedResult.integrity && !resolution.type && !(resolution as TarballResolution).integrity) {
(resolution as TarballResolution).integrity = fetchedResult.integrity
}
}
// Check installability now that we have the manifest (for git/tarball packages without registry metadata)
if (isInstallable === undefined && manifest != null) {
isInstallable = ctx.force === true || packageIsInstallable(id, manifest, {
engineStrict: ctx.engineStrict,
lockfileDir: options.lockfileDir,
nodeVersion: ctx.nodeVersion,
optional: wantedDependency.optional === true,
supportedArchitectures: options.supportedArchitectures,
})
}
return {
body: {
id,
isLocal: false as const,
isInstallable: isInstallable ?? undefined,
latest,
manifest,
normalizedBareSpecifier,
resolution,
resolvedVia,
updated,
publishedAt,
alias,
policyViolation,
},
fetching: fetchResult.fetching,
filesIndexFile: fetchResult.filesIndexFile,
}
}
interface FetchLock {
fetching: Promise<PkgRequestFetchResult>
filesIndexFile: string
fetchRawManifest?: boolean
}
interface GetFilesIndexFilePathResult {
target: string
filesIndexFile: string
resolution: AtomicResolution
}
function getFilesIndexFilePath (
ctx: {
storeDir: string
virtualStoreDirMaxLength: number
},
opts: Pick<FetchPackageToStoreOptions, 'pkg' | 'ignoreScripts' | 'supportedArchitectures'>
): GetFilesIndexFilePathResult {
const targetRelative = depPathToFilename(opts.pkg.id, ctx.virtualStoreDirMaxLength)
const target = path.join(ctx.storeDir, targetRelative)
const built = !opts.ignoreScripts
let resolution: AtomicResolution
if (opts.pkg.resolution.type === 'variations') {
resolution = findResolution(opts.pkg.resolution.variants, opts.supportedArchitectures)
} else {
resolution = opts.pkg.resolution
}
return {
target,
filesIndexFile: pickStoreIndexKey(resolution as TarballResolution, opts.pkg.id, { built }),
resolution,
}
}
function findResolution (resolutionVariants: PlatformAssetResolution[], supportedArchitectures?: SupportedArchitectures): AtomicResolution {
const selector = resolvePlatformSelector(supportedArchitectures, {
platform: process.platform,
arch: process.arch,
libc: getLibcFamilySync(),
})
const variant = selectPlatformVariant(resolutionVariants, selector)
if (!variant) {
const resolutionTargets = resolutionVariants.map((variant) => variant.targets)
throw new PnpmError('NO_RESOLUTION_MATCHED', `Cannot find a resolution variant for the current platform in these resolutions: ${JSON.stringify(resolutionTargets)}`)
}
return variant.resolution
}
function fetchToStore (
ctx: {
readPkgFromCafs: (
filesIndexFile: string,
opts?: ReadPkgFromCafsOptions
) => Promise<ReadPkgFromCafsResult>
fetch: (
packageId: string,
resolution: AtomicResolution,
opts: FetchOptions
) => Promise<FetchResult>
fetchingLocker: Map<string, FetchLock>
requestsQueue: {
add: <T>(fn: () => Promise<T>, opts: { priority: number }) => Promise<T>
counter: number
concurrency: number
}
storeDir: string
virtualStoreDirMaxLength: number
strictStorePkgContentCheck?: boolean
},
opts: FetchPackageToStoreOptions
): {
filesIndexFile: string
fetching: () => Promise<PkgRequestFetchResult>
} {
if (!opts.pkg.name) {
opts.fetchRawManifest = true
}
if (!ctx.fetchingLocker.has(opts.pkg.id)) {
const fetching = pDefer<PkgRequestFetchResult>()
const { filesIndexFile, target, resolution } = getFilesIndexFilePath(ctx, opts)
doFetchToStore(filesIndexFile, fetching, target, resolution)
ctx.fetchingLocker.set(opts.pkg.id, {
fetching: removeKeyOnFail(fetching.promise),
filesIndexFile,
fetchRawManifest: opts.fetchRawManifest,
})
// When files resolves, the cached result has to set fromStore to true, without
// affecting previous invocations: so we need to replace the cache.
//
// Changing the value of fromStore is needed for correct reporting of `pnpm server`.
// Otherwise, if a package was not in store when the server started, it will always be
// reported as "downloaded" instead of "reused".
fetching.promise.then((cache) => {
progressLogger.debug({
packageId: opts.pkg.id,
requester: opts.lockfileDir,
status: cache.files.resolvedFrom === 'remote'
? 'fetched'
: 'found_in_store',
})
// If it's already in the store, we don't need to update the cache
if (cache.files.resolvedFrom !== 'remote') {
return
}
const tmp = ctx.fetchingLocker.get(opts.pkg.id)
// If fetching failed then it was removed from the cache.
// It is OK. In that case there is no need to update it.
if (tmp == null) return
ctx.fetchingLocker.set(opts.pkg.id, {
...tmp,
fetching: Promise.resolve({
...cache,
files: {
...cache.files,
resolvedFrom: 'store',
},
}),
})
})
.catch(() => {
ctx.fetchingLocker.delete(opts.pkg.id)
})
}
const result = ctx.fetchingLocker.get(opts.pkg.id)!
if (opts.fetchRawManifest && !result.fetchRawManifest) {
result.fetching = removeKeyOnFail(
result.fetching.then(async ({ files }) => {
if (!files.filesMap.has('package.json')) return {
files,
bundledManifest: undefined,
}
return {
files,
bundledManifest: await readBundledManifest(files.filesMap.get('package.json')!),
}
})
)
result.fetchRawManifest = true
}
return {
fetching: pShare(result.fetching),
filesIndexFile: result.filesIndexFile,
}
async function removeKeyOnFail<T> (p: Promise<T>): Promise<T> {
try {
return await p
} catch (err: any) { // eslint-disable-line
ctx.fetchingLocker.delete(opts.pkg.id)
if (opts.onFetchError) {
throw opts.onFetchError(err)
}
throw err
}
}
async function doFetchToStore (
filesIndexFile: string,
fetching: DeferredPromise<PkgRequestFetchResult>,
target: string,
resolution: AtomicResolution
) {
try {
const isLocalTarballDep = opts.pkg.id.startsWith('file:')
const isLocalPkg = resolution.type === 'directory'
if (
!opts.force &&
(
!isLocalTarballDep ||
await tarballIsUpToDate(opts.pkg.resolution as any, target, opts.lockfileDir) // eslint-disable-line
) &&
!isLocalPkg
) {
const { verified, files, bundledManifest } = await ctx.readPkgFromCafs(filesIndexFile, {
readManifest: opts.fetchRawManifest,
expectedPkg: opts.pkg,
})
if (verified) {
fetching.resolve({
files,
bundledManifest,
})
return
}
if ((files?.filesMap) != null) {
packageRequestLogger.warn({
message: `Refetching ${target} to store. It was either modified or had no integrity checksums`,
prefix: opts.lockfileDir,
})
}
}
// We fetch into targetStage directory first and then fs.rename() it to the
// target directory.
// Tarballs are requested first because they are bigger than metadata files.
// However, when one line is left available, allow it to be picked up by a metadata request.
// This is done in order to avoid situations when tarballs are downloaded in chunks
// As many tarballs should be downloaded simultaneously as possible.
const priority = (++ctx.requestsQueue.counter % ctx.requestsQueue.concurrency === 0 ? -1 : 1) * 1000
const fetchedPackage = await ctx.requestsQueue.add(async () => ctx.fetch(
opts.pkg.id,
resolution,
{
allowBuild: opts.allowBuild,
filesIndexFile,
lockfileDir: opts.lockfileDir,
readManifest: opts.fetchRawManifest,
onProgress: (downloaded) => {
fetchingProgressLogger.debug({
downloaded,
packageId: opts.pkg.id,
status: 'in_progress',
})
},
onStart: (size, attempt) => {
fetchingProgressLogger.debug({
attempt,
packageId: opts.pkg.id,
size,
status: 'started',
})
},
pkg: {
name: opts.pkg.name,
version: opts.pkg.version,
},
}
), { priority })
const integrity = (opts.pkg.resolution as TarballResolution).integrity ?? fetchedPackage.integrity
if (isLocalTarballDep && integrity) {
await fs.mkdir(target, { recursive: true })
await gfs.writeFile(path.join(target, TARBALL_INTEGRITY_FILENAME), integrity, 'utf8')
}
fetching.resolve({
files: {
resolvedFrom: fetchedPackage.local ? 'local-dir' : 'remote',
filesMap: fetchedPackage.filesMap,
packageImportMethod: (fetchedPackage as DirectoryFetcherResult).packageImportMethod,
requiresBuild: fetchedPackage.requiresBuild,
},
bundledManifest: fetchedPackage.manifest,
integrity,
})
} catch (err: any) { // eslint-disable-line
fetching.reject(err)
}
}
}
async function readBundledManifest (pkgJsonPath: string): Promise<BundledManifest | undefined> {
return normalizeBundledManifest(await loadJsonFile<DependencyManifest>(pkgJsonPath))
}
async function tarballIsUpToDate (
resolution: {
integrity?: string
registry?: string
tarball: string
},
pkgInStoreLocation: string,
lockfileDir: string
) {
let currentIntegrity!: string
try {
currentIntegrity = (await gfs.readFile(path.join(pkgInStoreLocation, TARBALL_INTEGRITY_FILENAME), 'utf8'))
} catch (err: any) { // eslint-disable-line
return false
}
if (resolution.integrity && currentIntegrity !== resolution.integrity) return false
const tarball = path.join(lockfileDir, resolution.tarball.slice(5))
const tarballStream = createReadStream(tarball)
try {
return Boolean(await ssri.checkStream(tarballStream, currentIntegrity))
} catch (err: any) { // eslint-disable-line
return false
}
}
async function fetcher (
fetcherByHostingType: Fetchers,
cafs: Cafs,
customFetchers: CustomFetcher[] | undefined,
packageId: string,
resolution: AtomicResolution,
opts: FetchOptions
): Promise<FetchResult> {
try {
// pickFetcher now handles custom fetcher hooks internally
const fetch = await pickFetcher(fetcherByHostingType, resolution, {
customFetchers,
packageId,
})
const result = await fetch(cafs, resolution as any, opts) // eslint-disable-line @typescript-eslint/no-explicit-any
return result
} catch (err: any) { // eslint-disable-line
packageRequestLogger.warn({
message: `Fetching ${packageId} failed!`,
prefix: opts.lockfileDir,
})
throw err
}
}