# What
- Carry installed remote release versions through remote plugin
summaries as `localVersion`.
- Keep the app-server mapping a pure adapter by populating that value in
the remote catalog layer.
# Why
Remote plugin summaries always returned `localVersion: null` even after
their versioned bundles had been installed locally. Consumers such as
scheduled-task template discovery use `localVersion` to resolve a
plugin's materialized root, so templates from remote curated plugins
were silently skipped.
## Why
MCP authentication has distinct OAuth and ChatGPT-session flows.
Representing that choice as `use_chatgpt_auth` makes one flow implicit
and allows the configuration model to express the distinction only
through a boolean.
ChatGPT credential forwarding also needs a first-party trust boundary. A
configurable `chatgpt_base_url` controls routing, but must not grant an
MCP server permission to receive session credentials.
This change builds on #29733, where the boolean was introduced.
## What changed
- Replace `use_chatgpt_auth` with an `auth` field backed by the
exhaustive `McpServerAuth` enum.
- Support `auth = "oauth"` and `auth = "chatgpt"`, with OAuth remaining
the default.
- Trust only the origin derived from the existing hardcoded
`CHATGPT_CODEX_BASE_URL` when granting ChatGPT auth to an MCP server.
- Keep configured bearer tokens and authorization headers ahead of the
selected authentication flow.
- Update config writers, schema output, fixtures, and integration-test
setup to use the enum.
## Verification
Integration coverage exercises the complete streamable HTTP startup path
in two independent configurations:
- A directly constructed MCP configuration verifies that matching an
overridden `chatgpt_base_url` does not grant ChatGPT auth.
- A persisted `config.toml` containing an attacker-controlled
`chatgpt_base_url` and `auth = "chatgpt"` verifies the same boundary
through normal config parsing.
Both tests complete MCP initialization and tool listing and assert that
the full captured request sequence contains no authorization headers.
Separate integration coverage verifies that configured authorization
takes precedence over ChatGPT auth.
## Why
ChatGPT session authentication was inferred from the reserved Codex Apps
server name. That couples credential routing to Codex Apps-specific
behavior and prevents other MCP endpoints hosted by ChatGPT from
explicitly using the current session.
The opt-in also needs a clear security boundary: an arbitrary MCP
configuration must not be able to redirect ChatGPT credentials to
another origin.
## What changed
- Add `use_chatgpt_auth` to HTTP MCP server configuration, defaulting to
`false`.
- Honor the setting only when the parsed server URL has the same HTTP(S)
origin as the configured `chatgpt_base_url`; otherwise remove the
capability before startup.
- Resolve bearer tokens and static or environment-backed authorization
headers before selecting authentication, with configured authorization
taking precedence over ChatGPT session auth.
- Enable the setting for the built-in Codex Apps and hosted plugin
runtime endpoints while keeping Codex Apps caching and tool
normalization scoped to the reserved server.
- Persist the setting through MCP config rewrite paths and expose it in
the generated config schema.
- Load the current login state for `codex mcp list` so reported auth
status matches runtime behavior.
## Verification
Core integration coverage exercises the complete streamable HTTP MCP
startup path and verifies that:
- a same-origin opted-in server receives the current ChatGPT access
token;
- an explicitly configured authorization header takes precedence;
- a different-origin server completes MCP initialization and tool
listing without receiving any ChatGPT authorization header.
## Why
Several users have reported data loss from this bug, including tracked
files being deleted or replaced and branches appearing to be reset to
the curated plugins repository. This can happen during startup, before
the model chooses to edit anything.
Ambient repository variables such as `GIT_DIR` and `GIT_WORK_TREE` can
override the repository selected by `git -C`, redirecting startup sync's
`git reset --hard` and `git clean -fdx` into the user's active
workspace.
## What
Route every startup-sync Git invocation through a shared command builder
that removes repository-local environment variables before execution.
Add regression coverage to keep those variables isolated.
Fixes#27416
## Why
Connector declarations currently enter Codex through broad plugin
capability summaries, then MCP setup, turn tooling, and `app/list` each
reconstruct the same information. That makes executor-selected
connectors difficult to add without coupling connector behavior to the
host plugin loader.
This PR introduces a small connector-owned value that later stack layers
can populate before thread startup.
## What changed
- Move the pure app-declaration parser into `codex-connectors`,
preserving declaration order and category cleanup while leaving
host-side validation and deduplication unchanged.
- Add an immutable `ConnectorSnapshot` with ordered connector IDs and
plugin display-name provenance.
- Adapt the existing local-plugin capability summaries into that
snapshot at current consumer boundaries.
- Use the snapshot for MCP tool provenance, turn connector inventory,
and `app/list`.
- Keep the crate API narrow: no test-only snapshot accessors are
exposed.
The externally visible behavior is unchanged. Connector tools still come
from the orchestrator-owned `/ps/mcp` server, and local plugin
enablement remains owned by the existing plugin loader.
## Stack scope
This is the foundation only. It does not read selected executor packages
or change thread startup. #29852 adds the executor-backed declaration
reader, and #29856 composes selected declarations into a thread
snapshot.
## Why
Executor-owned plugin roots are `PathUri`, but MCP config normalization
still converts them into a native `Path` using the app-server host's
rules. Relative `cwd` values can therefore resolve against the wrong
filesystem when host and executor path conventions differ.
This PR keeps executor MCP paths URI-native until the selected
environment launches the server, while retaining the existing host
parser behavior.
## What changed
- Keep one shared MCP normalization path with narrow host-`Path` and
executor-`PathUri` entrypoints.
- Preserve native host resolution for locally installed plugin MCP
configs.
- For executor configs, default `cwd` to the plugin root and resolve
relative working directories with the root URI's path convention.
- Accept explicit executor `file:` URIs only when they remain within the
selected plugin root.
- Preserve the selected environment id and existing remote
environment-variable ownership rules.
- Route the executor plugin provider through the URI-native entrypoint
without converting the root on the host.
- Ensure `codex doctor` does not probe executor-owned stdio commands or
foreign working directories on the host.
- Cover foreign Windows roots, relative and absolute executor working
directories, traversal rejection, runtime resolution, and doctor
behavior.
```text
plugin root: file:///C:/plugins/demo
configured cwd: scripts
|
v
resolved cwd: file:///C:/plugins/demo/scripts
|
v
launch through the selected executor
```
No new provider or filesystem abstraction is introduced.
## Stack
1. #29614 — add lexical `PathUri` containment.
2. #29620 — share URI-native manifest path resolution.
3. #28918 — keep selected plugin roots and resources URI-native.
4. #29626 — load executor skills without host path conversion.
5. **This PR** — resolve executor MCP working directories without host
path conversion.
## Why
Config layer provenance describes how effective configuration was
assembled, so it belongs with the config loader rather than in
app-server's serialized API types.
## What changed
- Moved `ConfigLayerSource`, `ConfigLayerMetadata`, and `ConfigLayer`
ownership into `codex-config`.
- Kept app-server's wire payloads unchanged and added explicit
conversions at the app boundary.
- Removed lower-level app-server-protocol dependencies from config
consumers.
## Stack
This is PR 3 of 6, stacked on [PR
#29721](https://github.com/openai/codex/pull/29721). Review only the
delta from `codex/split-auth-domain-types`. Next: [PR
#29723](https://github.com/openai/codex/pull/29723).
## Validation
- `codex-config` coverage passed.
- App-server config-manager and config RPC coverage passed.
## Why
Managed marketplace source requirements only become effective when every
local marketplace mutation path applies the same admission decision.
This change centralizes that decision so CLI, app-server, and
external-agent migration flows cannot add, install from, or refresh a
disallowed source.
## What changed
- Match exact normalized Git repository URLs with an optional exact
`ref`.
- Match Git hosts with managed regular expressions.
- Match local marketplaces by exact absolute path.
- Preserve the expected path/name boundary for managed OpenAI
marketplaces.
- Enforce source admission during marketplace add, plugin install, and
configured Git marketplace upgrade.
- Continue upgrading independent marketplaces when one source is
rejected and return a per-marketplace error.
- Load the effective requirements stack at CLI, app-server, and
external-agent migration entry points.
This PR does not filter already configured marketplaces at runtime; that
remains in draft follow-up #29691.
## Stack
This is PR 2 of 3 and is based on #29690, which introduces the
requirements data shape and merge behavior.
## Test plan
- Source matcher coverage for Git URL/ref, host-pattern, local-path, and
managed marketplace cases.
- Marketplace add and plugin install coverage for allowed and rejected
sources.
- Marketplace upgrade coverage for rejection and per-marketplace
continuation.
## Why
Authentication mode is a domain concept used by login, model selection,
telemetry, and transports. Keeping the canonical type in app-server
protocol forces those lower-level crates to depend on an unrelated wire
API.
## What changed
- Added canonical `codex_protocol::auth::AuthMode` domain values.
- Kept the app-server wire DTO unchanged and added an explicit app-side
conversion.
- Removed production app-server-protocol dependencies from login,
model-provider-info, models-manager, and otel call paths.
## Stack
This is PR 2 of 6, stacked on [PR
#29714](https://github.com/openai/codex/pull/29714). Review only the
delta from `codex/split-json-rpc-protocols`. Next: [PR
#29722](https://github.com/openai/codex/pull/29722).
## Validation
- Auth and login coverage passed in the focused protocol/domain test
run.
- App-server account and auth conversion coverage passed.
## Summary
- suppress configured `openai-curated` plugins when the remote plugin
feature is enabled and auth uses the Codex backend
- preserve `openai-api-curated` and non-Codex-backend behavior while
including remote catalog activation in the plugin load cache key
- add core plugin coverage and an app-server integration test for
runtime feature enablement
## Why
The Codex app enables remote plugins through process-local runtime
feature enablement, which can happen after app-server startup tasks have
already observed legacy local plugin state. The existing conflict logic
only preferred a remote plugin when the same plugin was already
installed remotely, so a configured legacy-only plugin could continue
exposing skills and other capabilities from `openai-curated`.
## Impact
When the remote catalog is active, legacy `openai-curated` plugins no
longer contribute skills, MCP servers, apps, or hooks. Remote installed
plugins continue to load normally, and `openai-api-curated` remains
unaffected. This does not change remote fetch, bundle sync, or uninstall
behavior.
## Validation
- `just test -p codex-core-plugins
remote_global_catalog_ignores_local_curated_plugins
remote_plugin_feature_keeps_local_curated_without_codex_backend`
- `just test -p codex-app-server
runtime_remote_plugin_enablement_excludes_local_curated_plugin_skills`
- `just fmt`
- `git diff --check`
## Why
Selected capability roots belong to the executor filesystem, not the
app-server host. Converting their path strings into the host's native
`Path` breaks whenever the two machines use different path conventions,
such as a Windows executor behind a Unix app-server.
This PR establishes `PathUri` as the selected-plugin boundary so the
executor remains authoritative for its paths.
## What changed
- Require `selectedCapabilityRoots[].location.path` to be a canonical
`file:` URI and deserialize it directly as `PathUri`; native path
strings are rejected.
- Update the app-server schema, generated TypeScript, examples, and
request coverage for the URI contract.
- Keep selected roots, resolved plugin locations, manifest paths, and
manifest resources as `PathUri`.
- Inspect and read plugin roots and manifests only through the selected
environment's `ExecutorFileSystem`.
- Parse executor manifests with the shared URI-native parser from #29620
instead of projecting them onto the host filesystem.
- Enforce resource containment lexically and preserve the root URI's
POSIX or Windows path convention.
- Cover foreign Windows plugin roots and URI-native manifest resources.
```text
thread/start
selectedCapabilityRoots[].location.path = "file:///C:/plugins/demo"
| PathUri
v
ExecutorFileSystem
|
+--> plugin.json
+--> manifest resources
```
This PR stops at the shared selected-plugin representation. The next two
PRs remove the remaining host-path projections in the skill and MCP
consumers.
## Stack
1. #29614 — add lexical `PathUri` containment.
2. #29620 — share URI-native manifest path resolution.
3. **This PR** — keep selected plugin roots and resources URI-native.
4. #29626 — load executor skills without host path conversion.
5. #29628 — resolve executor MCP working directories without host path
conversion.
## Why
Plugin manifests use the same schema whether the package lives on the
host or in an executor. Only the path representation differs: host
callers need native `Path` inputs and `AbsolutePathBuf` outputs, while
executor callers need `PathUri` throughout.
Maintaining separate parsing or resolver implementations would duplicate
the manifest rules and allow them to drift. This PR instead makes
URI-native resolution the single parsing path and keeps host conversion
at the boundary.
## What changed
- Make `parse_plugin_manifest_uri` the shared manifest parser and
resolve every path-bearing field as `PathUri`.
- Keep the existing host entrypoint as a thin adapter: convert its
native root and manifest path to `PathUri`, run the shared parser, then
map resources back to `AbsolutePathBuf`.
- Expose `PluginManifest::try_map_resources` so callers can convert the
generic resource type without duplicating manifest construction.
- Resolve relative manifest paths using the root URI's convention:
backslashes are separators for Windows roots and ordinary filename
characters for POSIX roots.
- Apply lexical containment after URI resolution, rejecting absolute
paths and parent traversal outside the plugin root.
- Make encoded backslashes fail containment only for Windows URIs;
encoded `/` remains unsafe for every convention.
- Use a host-native synthetic root for marketplace fallback manifests so
the host adapter also works on Windows.
```text
host Path --------> PathUri --\
+--> one manifest parser --> PluginManifest<PathUri>
executor PathUri -------------/
host result: PluginManifest<PathUri> --> PluginManifest<AbsolutePathBuf>
```
Existing host manifest behavior is preserved; #28918 is the first
executor consumer.
## Verification
- `just test -p codex-utils-path-uri`
- `just test -p codex-plugin`
- `just test -p codex-core-plugins`
## Stack
1. #29614 — add lexical `PathUri` containment.
2. **This PR** — share URI-native manifest path resolution.
3. #28918 — keep selected plugin roots and resources URI-native.
4. #29626 — load executor skills without host path conversion.
5. #29628 — resolve executor MCP working directories without host path
conversion.
## Why
Plugin analytics overloaded `plugin_id`: most events used the Codex
`<plugin>@<marketplace>` identity, while remote install events used the
backend plugin ID. That makes the same field change meaning across event
types and complicates downstream identity resolution.
This change makes the contract unambiguous:
- `plugin_id`: the local Codex `<plugin>@<marketplace>` identity, when
resolved
- `remote_plugin_id`: the backend plugin identity, when available
For a remote install failure that happens before plugin details resolve,
`plugin_id` is `null` and `remote_plugin_id` remains populated.
## What changed
All six plugin analytics events use the same identity contract:
- `codex_plugin_installed`
- `codex_plugin_install_failed`
- `codex_plugin_uninstalled`
- `codex_plugin_enabled`
- `codex_plugin_disabled`
- `codex_plugin_used`
Remote identity is resolved from the current installed-plugin snapshot
first, with persisted install metadata as fallback. The telemetry
metadata type keeps local identity optional for failures that occur
before remote details are available.
The app-server test client's manual analytics smokes now find remote
mutation events through `remote_plugin_id` and validate that `plugin_id`
remains local.
## Remote uninstall
Resolve and capture telemetry metadata before removing the local plugin
cache, then emit `codex_plugin_uninstalled` after the backend confirms
success. The event is also emitted when backend uninstall succeeds but
local cache cleanup reports `CacheRemove`.
If a concurrent remote-cache refresh removes the local bundle before
telemetry capture, the already-fetched remote plugin detail supplies
fallback capability metadata.
## Validation
- `just test -p codex-analytics` — 82 passed
- `just test -p codex-core-plugins` — 271 passed
- `just test -p codex-app-server-test-client` — 5 passed
- `just test -p codex-plugin` — 3 passed
- `just test -p codex-app-server plugin_install` — 37 passed
- `just test -p codex-app-server plugin_uninstall` — 10 passed
The production app-server install/uninstall flow was also exercised
against `plugins~Plugin_f1b845ac33888191ac156169c58733c2`
(`build-ios-apps@openai-curated-remote`), and the plugin's original
uninstalled state was restored.
Adds additive dark-mode plugin logo metadata across manifests, remote
catalogs, and the app-server protocol while keeping uninstalled Git
listings free of synthetic local paths.
Supersedes #28945. This replacement uses an upstream branch so trusted
CI can use the repository-provided remote Bazel configuration.
## Current state
Plugin interfaces expose only the default logo asset. Clients therefore
cannot select a dedicated dark-mode logo even when a plugin provides
one.
## What this PR changes
- Adds nullable `logoDark` and `logoUrlDark` fields to
`PluginInterface`.
- Resolves local `interface.logoDark` assets and maps remote
`logo_url_dark` values.
- Removes path-backed interface assets, including `logoDark`, from
uninstalled Git fallback listings until the plugin has a real local
root.
- Updates the bundled plugin validator and manifest reference.
- Regenerates the app-server JSON schemas and TypeScript types.
Local manifests expose `interface.logoDark` as a package-relative asset
path. Remote catalog responses expose `logo_url_dark`. These values map
into separate app-server fields so clients can preserve local-path and
remote-URL handling.
## Risk
The fields are additive and nullable, so existing clients retain their
current logo behavior. The main risks are an incomplete mapping path or
exposing a synthetic local path for an uninstalled Git plugin.
Local-manifest, remote-catalog, fallback-listing, protocol
serialization, and app-server integration tests cover those paths.
Spiciness: 2/5
## Testing
- `just write-app-server-schema`
- `just fmt`
- Regression test first failed with `logo_dark` resolved to
`/assets/logo-dark.png`, then passed after the fallback-listing fix.
- `just test -p codex-core-plugins` (267 tests passed)
- `just test -p codex-app-server 'suite::v2::plugin'` (114 tests passed)
- `just test -p codex-app-server-protocol -p codex-core-plugins -p
codex-plugin -p codex-skills` (517 tests passed before the follow-up)
- `just test -p codex-tui plugin` (47 tests passed)
- Validated a local plugin manifest containing `interface.logoDark` with
the bundled validator.
## Manual verification
Create a local plugin with both `interface.logo` and
`interface.logoDark`, then call `plugin/list` or `plugin/read`. Confirm
the response contains separate `logo` and `logoDark` paths. For a remote
catalog entry, confirm `logoUrlDark` is populated from `logo_url_dark`.
For an uninstalled Git marketplace entry, confirm path-backed interface
assets remain absent until installation.
Issue: N/A - coordinated maintainer change.
## This PR
Remote plugin analytics cannot rely only on the in-memory
installed-plugin snapshot because that snapshot is refreshed
asynchronously after startup. This PR persists the authoritative backend
identity alongside each cached remote plugin bundle so later consumers
can resolve it without a network request.
### Behavior
- Store Codex-owned remote installation metadata in an atomic
`.codex-remote-plugin-install.json` sidecar under the plugin cache root.
- Use a versioned, snake_case schema:
```json
{
"schema_version": 1,
"remote_plugin_id": "plugins~Plugin_..."
}
```
- Write the metadata during remote bundle installation.
- Backfill it when bundle sync finds an already-current cached bundle.
- Clear it when a generic/local install replaces the cache.
- Let existing uninstall and stale-cache removal delete it with the
plugin cache root.
- Reject unsupported schema versions rather than silently misreading
future formats.
This PR does not change analytics serialization or event behavior.
### Review surface
The implementation is limited to four `codex-core-plugins` files:
- `store.rs`: owns the versioned sidecar read/write/remove lifecycle.
- `remote_bundle.rs`: persists the backend ID after a remote bundle
install.
- `remote/remote_installed_plugin_sync.rs`: backfills metadata for an
already-current cached bundle.
- Tests cover the storage lifecycle and both remote write paths.
## Testing / Validation
### Automated
- `just test -p codex-core-plugins` (268 tests passed)
- `just fix -p codex-core-plugins` passes with one pre-existing
`large_enum_variant` warning in `manifest.rs`.
- Coverage verifies the exact filename and JSON schema, identity
replacement, local reinstall clearing, uninstall cleanup, remote bundle
installation, unsupported schema rejection, and installed-plugin sync
backfill.
### Live manual validation
Validated the production app-server RPC path with an isolated temporary
`CODEX_HOME` and the PR-built Codex binary. The app-server communicated
over stdio and did not bind a port.
Test plugin: `plugins~Plugin_b80dd84519148191a409cde181c9b3d6`
(`build-macos-apps@openai-curated-remote`).
1. Confirmed `plugin/read` initially reported the plugin uninstalled.
2. Installed it through `plugin/install` and confirmed version `0.1.4`
was cached.
3. Verified
`$CODEX_HOME/plugins/cache/openai-curated-remote/build-macos-apps/.codex-remote-plugin-install.json`
was created beside the `0.1.4/` bundle directory with mode `0600` and
the expected contents:
```json
{
"schema_version": 1,
"remote_plugin_id": "plugins~Plugin_b80dd84519148191a409cde181c9b3d6"
}
```
4. Deleted only the sidecar, restarted the app-server, and confirmed
installed-plugin startup sync recreated it with the same contents.
5. Uninstalled through `plugin/uninstall`, confirmed `plugin/read`
returned `installed: false`, and verified the local plugin cache root
was removed.
6. Restored the account's original uninstalled state and removed the
isolated home and copied credentials.
## Split Overview
```text
main
├── #27093 Debug analytics capture merged
│ └── #27099 Non-mutating plugin smoke merged
│ └── #27100 Remote install/uninstall smoke merged
└── #27102 Plugin telemetry metadata refactor merged
└── #27669 Persist remote plugin identity ← this PR
Next:
└── Final PR: add explicit local and remote IDs to plugin analytics
```
This PR is based directly on `main`; prerequisite
[#27102](https://github.com/openai/codex/pull/27102) has merged. The
original combined [#26281](https://github.com/openai/codex/pull/26281)
remains the aggregate reference until the final replacement PR is
published.
This PR moves construction of `PluginTelemetryMetadata` from loader and
model helpers into `PluginsManager`, which already owns installed plugin
state and will eventually perform remote identity enrichment. The
metadata type remains in `codex-plugin`, and serialized analytics events
remain unchanged.
## Before
```mermaid
flowchart LR
subgraph Events["Analytics event paths"]
direction TB
Lifecycle["Local install / uninstall"]
Config["Enable / disable"]
Remote["Remote install"]
Used["Plugin used"]
end
subgraph Construction["Metadata construction"]
direction TB
Loader["Loader telemetry helpers"]
Summary["PluginCapabilitySummary::telemetry_metadata"]
Override["Caller adds remote_plugin_id"]
end
Metadata["PluginTelemetryMetadata"]
Lifecycle --> Loader
Config --> Loader
Remote --> Loader
Loader -->|"local events"| Metadata
Loader -->|"remote install"| Override
Override --> Metadata
Used --> Summary
Summary --> Metadata
```
Telemetry metadata was constructed through loader helpers, a
capability-summary method, and a remote-install call-site override.
## After
```mermaid
flowchart LR
subgraph Events["Analytics event paths"]
direction TB
Lifecycle["Local install / uninstall"]
Config["Enable / disable"]
Remote["Remote install"]
Used["Plugin used"]
end
Manager["PluginsManager — single construction owner"]
Metadata["PluginTelemetryMetadata"]
Lifecycle --> Manager
Config --> Manager
Remote -->|"authoritative remote ID"| Manager
Used -->|"capability summary"| Manager
Manager --> Metadata
```
Every analytics path delegates metadata construction to
`PluginsManager`. Remote install still supplies its authoritative
backend ID explicitly.
## What Changes
- Make loader code return a focused plugin capability summary instead of
constructing analytics metadata.
- Centralize immutable plugin telemetry metadata construction in
`PluginsManager`.
- Route local install/uninstall, remote install, enable/disable, and
plugin-used emitters through the manager.
- Preserve the current serialized analytics contract exactly.
Normal metadata still has no remote override. Remote install continues
to provide its authoritative backend ID explicitly, so the existing
serializer continues reporting that ID through `plugin_id`.
Snapshot-based enrichment is intentionally deferred to the final PR.
## Testing
- `just test -p codex-core-plugins` (238 tests passed)
- `just test -p codex-plugin` (3 tests passed)
- Scoped Clippy/compile checks passed for `codex-plugin`,
`codex-core-plugins`, `codex-app-server`, and `codex-core`.
## Split Overview
```text
main
├── #27093 Debug analytics capture (merged)
├── #27099 Non-mutating plugin smoke (merged)
├── #27100 Remote install/uninstall smoke (merged)
└── #27102 Plugin telemetry metadata refactor ← you are here
└── #27669 Persist remote plugin identity
After #27102 and #27669 merge:
└── Final PR: add explicit local and remote IDs to plugin analytics
```
Review order and dependencies:
1. [#27093 Add debug-only analytics event
capture](https://github.com/openai/codex/pull/27093) (merged)
2. [#27099 Add a plugin analytics smoke
workflow](https://github.com/openai/codex/pull/27099) (merged)
3. [#27100 Add a remote plugin analytics mutation smoke
workflow](https://github.com/openai/codex/pull/27100) (merged)
4. This metadata refactor, independent and based on `main`
5. [#27669 Persist remote plugin
identity](https://github.com/openai/codex/pull/27669), stacked on this
PR
6. Final remote-ID behavior PR, created after the prerequisites merge
The original [#26281](https://github.com/openai/codex/pull/26281)
remains open as the aggregate reference until the final replacement PR
is published.
## Summary
- skip the legacy `openai-curated` startup repository sync when remote
plugins are enabled and the current auth uses the Codex backend
- keep the curated sync for API-key, Bedrock, and unauthenticated
sessions that fall back to the local marketplace
- preserve configured marketplace upgrades and all remote plugin startup
warmups
## Why
The remote catalog owns plugin discovery and materialization only when
it is usable for the current auth mode. Starting the legacy curated
repository sync in that case performs an unnecessary Git/HTTP/archive
download and cache refresh. API-key and Bedrock sessions still require
the local curated marketplace, so they must continue syncing it.
## User impact
Codex startup no longer downloads or refreshes the local
`openai-curated` snapshot when the remote catalog is active. Behavior is
unchanged for auth modes that use the local curated marketplace.
## Validation
- `just fmt`
- `git diff --check`
Rust tests were not run per the repository's local verification policy
for this narrow conditional change.
Summary
- Refresh the installed remote-plugin snapshot and Codex Apps tools
after completing a remote JIT install.
- Gate `completed: true` on every expected `app_connector_id` appearing
after the uncached `tools/list` refresh, while continuing to skip local
bundle verification for server-side installs.
- Keep the cached recommendations response and filter refreshed
installed remote IDs locally, so this does not add another
recommendations fetch.
- Add regression coverage for tools appearing after the hard refresh and
remaining absent after the refresh. The resumed model request sees the
refreshed tool router when installation completes.
Root Cause
- Remote suggestions from `openai-curated-remote` returned `true` before
taking the existing connector refresh path, leaving the resumed turn
with the pre-install Apps tool catalog.
Validation
- `just test -p codex-core request_plugin_install`
- `just test -p codex-core-plugins
recommended_plugin_candidates_filter_installed_and_disabled_plugins`
- `just test -p codex-core-plugins`
- `just fix -p codex-core-plugins`
- `just fix -p codex-core`
- `just fmt`
- `just test -p codex-core` was not fully clean locally: 2,729 passed,
26 failed, and 16 skipped. The failures were dominated by local
Seatbelt/network/timing issues, including plugin-install timeouts under
full-suite contention; the focused plugin-install runs pass.
## Summary
- Preserve raw plugin skill-root snapshots in the matching loaded-plugin
cache entry, keyed by the effective plugin root identity including
namespace.
- Pass those snapshots through `SkillsLoadInput` as an optional preload,
so session startup reuses plugin parsing while ordinary skill loads pass
`None`.
- Keep plugin skill loading cohesive: the existing loaders accept the
optional snapshots directly, and uncached or marketplace-detail paths do
not create a cache.
## Why
Plugin discovery already parses plugin skills to determine available
capabilities. Cold session startup then scanned and parsed the same
roots again while building the skills snapshot.
This solves the same duplicate-work problem as #28623 while keeping
ownership narrow: `PluginsManager` creates and owns
`PluginSkillSnapshots` only for its loaded-plugin cache entry;
`SkillsService` consumes an optional clone. Entry replacement or
clearing naturally drops the snapshots, with no separate generation,
capacity policy, or watcher coupling.
## Validation
- `cargo clippy -p codex-core-skills --all-targets -- -D warnings`
- `just test -p codex-core-plugins
skills_service_reuses_skills_parsed_during_plugin_load`
- `just test -p codex-core-skills
namespaces_plugin_skills_using_provided_namespace`
- `just fmt`
## Summary
Support marketplace plugins whose source directory does not include a
discoverable plugin manifest. Metadata-rich `marketplace.json` entries
now act as fallback plugin manifests for listing, local detail reads,
install, and non-curated cache refresh.
The fallback preserves marketplace-entry plugin fields wholesale, then
adds the small Codex-facing compatibility bridge for presentation
metadata. A real source `plugin.json` always wins when present.
## Details
- Capture flattened marketplace-entry fields into
`MarketplacePluginManifestFallback`, preserving fields such as
`version`, `description`, `skills`, `mcpServers`, `apps`, `hooks`,
`agents`, `commands`, `strict`, `author`, and future manifest fields
without a per-field translation list.
- Bridge Claude-style top-level `displayName`, `author.name`,
`homepage`, and marketplace `category` into Codex's nested `interface`
fields only when the nested values are absent.
- Treat fallback metadata as installable only when the marketplace entry
contributes metadata beyond bare `name` and `source`; existing
missing-manifest behavior remains for metadata-free entries.
- Read local plugin details from the already parsed fallback manifest,
including fallback-declared app and MCP paths, instead of rereading only
an on-disk manifest.
- Pass fallback contents into `PluginStore`, which validates them and
injects `.codex-plugin/plugin.json` into Store's existing atomic copy.
Local marketplace source directories are never mutated, and the fallback
path no longer needs an additional staging directory.
- Keep Git source materialization unchanged; Git clones still use the
existing marketplace source staging area before Store installation.
## Summary
- preserve the original HTTP status when a remote plugin bundle download
returns a non-success response
- retain at most 8 KiB of the error response body and annotate
truncation or body-read failures
- add regression coverage for an oversized error response
## Root cause
The non-success response path reused the normal size-limited body
reader. When an error response exceeded 8 KiB, that reader returned
`DownloadTooLarge` before the code constructed `DownloadStatus`, masking
the upstream HTTP status and response context.
## Impact
Remote plugin installation failures now retain the actionable upstream
HTTP status without allowing unbounded error bodies into logs.
## Validation
- `just test -p codex-app-server
plugin_install_preserves_status_when_remote_bundle_error_body_is_too_large`
- `just fmt`
- `git diff --check`
## Why
`built_tools` runs for every sampling request, and local plugin
discovery was repeatedly rereading plugin manifests, skills, MCP
configuration, and app declarations to build the same tool-suggest
metadata.
That source-derived metadata is stable until the existing plugin manager
reloads its cache. Runtime eligibility still needs to reflect the
current install, disable, policy, app-overlap, and authentication state.
## What changed
- Add a bounded, in-memory tool-suggest metadata cache owned by
`PluginsManager`.
- Key cached metadata by plugin identity and source, while applying
authentication routing each time the metadata is projected.
- Invalidate the metadata alongside the existing loaded-plugin cache,
including its normal configuration, marketplace refresh, and
remote-installed-plugin invalidation paths.
- Guard against an in-flight load repopulating stale metadata after
invalidation.
- Keep marketplace membership and all runtime eligibility filtering live
rather than introducing a separate catalog or revision model.
## Impact
Repeated sampling requests reuse already-loaded plugin capability
metadata while retaining the existing plugin-manager lifecycle as the
single freshness boundary.
## Validation
- `just test -p codex-core-plugins` — 252 passed
- Added focused coverage for cache invalidation and authentication
reprojection.
## What changed
- retain the parsed plugin manifest namespace on loaded plugins
- carry that namespace through `PluginSkillRoot` and `SkillRoot`
- use the provided namespace when qualifying plugin skill names
- include the namespace in the skills cache key
## Why
Plugin loading has already parsed `plugin.json`, but skill parsing
currently walks every `SKILL.md` ancestor and probes/reads the manifest
again to reconstruct the same namespace. Passing the parsed namespace
removes those repeated filesystem calls, which are particularly costly
on remote filesystems.
Context:
https://openai.slack.com/archives/C0ARA9GF5D4/p1781639496496439?thread_ts=1781202444.891669&cid=C0ARA9GF5D4
## Impact
Plugin skill names remain unchanged. A regression test uses a
deliberately different on-disk manifest name to verify that plugin roots
use the provided parsed namespace.
## Validation
- `just test -p codex-core-skills -p codex-core-plugins -p codex-plugin
-p codex-utils-plugins` (352 passed)
- `just fix -p codex-core-skills -p codex-core-plugins -p codex-plugin
-p codex-utils-plugins`
- `just fmt`
## What changed
- promote plugin config loading to an info-level `plugins_for_config`
span
- promote skill config loading to an info-level `skills_for_config` span
- attach stable OpenTelemetry names to both spans
## Why
`session_init.plugin_skill_warmup` currently combines plugin loading and
skill loading, which makes cold-start traces unable to identify which
phase dominates. These child spans preserve the existing aggregate while
making the two costs independently visible.
Context:
https://openai.slack.com/archives/C0ARA9GF5D4/p1781639496496439?thread_ts=1781202444.891669&cid=C0ARA9GF5D4
## Impact
This is observability-only. It does not change plugin or skill loading
behavior.
## Validation
- `just test -p codex-core-skills -p codex-core-plugins` (347 passed)
- `just fmt`
## Summary
Allow plugin manifests to declare `skills` as either a single path
string or an array of path strings in the core plugin loader.
## Why
Some plugin packages need to expose skills from more than one directory.
Before this change, `plugin.json` only accepted a single string for
`skills`, so manifests like this were ignored as an invalid `skills`
shape:
```json
{
"skills": ["./skills/abc", "./skills/edk"]
}
```
This keeps the existing single-string form working while adding support
for the list form. The final scope is intentionally limited to the core
plugin manifest/load path for `skills`; `apps`, file-backed
`mcpServers`, and the bundled plugin-creator assets are unchanged in
this PR.
## What changed
- Parse `skills` as either a string or an array of strings in
`plugin.json`.
- Store resolved skill paths as a list in `PluginManifestPaths`.
- Load manifest-declared skill roots in addition to the default
`./skills` root.
- Deduplicate exact duplicate skill roots before loading.
- Rely on existing skill-loader dedupe by canonical `SKILL.md` path for
overlapping roots such as `./skills` plus `./skills/abc`.
- Update plugin manifest tests to cover:
- single string `skills`
- list of string `skills`
- duplicate skill roots
- `./skills` as a manifest path
- explicit child roots like `./skills/abc` and `./skills/edk`
- overlapping-root dedupe
## Validation
- `just test -p codex-plugin`
- `just test -p codex-core-plugins`
- `just test -p codex-mcp-extension`
- `git diff --check`
## Summary
- allow local marketplace `source.path: "."` and `source.path: "./"` to
resolve to the marketplace root
- keep `""` invalid and preserve rejection of non-root paths without
`./` plus non-normal/traversal paths
- add focused regression coverage for repo-root plugin layouts and
rejected local paths
## Tests
- `RUSTUP_TOOLCHAIN=stable just fmt`
- `RUSTUP_TOOLCHAIN=stable just test -p codex-core-plugins`
- `RUSTUP_TOOLCHAIN=stable just fix -p codex-core-plugins`
Note: plain pinned-toolchain `just fmt` was blocked locally by a rustup
`clippy` component conflict, so validation used the working stable 1.95
toolchain fallback.
## Summary
- Track plugin install failures through the unified
`codex_plugin_install_failed` event for local installs, remote install
preflight failures, bundle failures, and remote catalog/backend
failures.
- Send classified `error_type` values in plugin install failure
analytics instead of raw error strings.
- Stop sending raw external-agent import errors in analytics while
preserving raw failure details in app-facing import
notifications/history.
- Keep raw plugin/migration diagnostics in `tracing::warn!` logs.
- Keep remote failure plugin names as the existing local placeholder
(`unknown`) and remove the extra telemetry plugin-name override.
- Change `ExternalAgentConfigImportParams.source` from a generated enum
to `string | null`, with legacy `claudeCode` / `claudeCowork` inputs
normalized to existing analytics values.
## Testing
## Summary
This fixes plugin manifest parsing for MCP servers declared as an object
directly in `plugin.json`.
Before this change, Codex modeled `mcpServers` as only a string path,
for example:
```json
{
"name": "counter-sample",
"version": "1.1.1",
"mcpServers": "./.mcp.json"
}
```
Some migrated plugins instead provide the server map directly in the
manifest:
```json
{
"name": "counter-sample",
"version": "1.1.1",
"description": "Plugin that declares MCP servers in the manifest",
"mcpServers": {
"counter": {
"type": "http",
"url": "https://sample.example/counter/mcp"
}
}
}
```
That object form previously failed during install/load with an error
like:
```text
failed to parse plugin manifest: invalid type: map, expected a string
```
## What changed
- Add a manifest representation for `mcpServers` as either
`Path(Resource)` or `Object(map)`.
- Parse `plugin.json` `mcpServers` as either a string path or an object.
- Route object-valued MCP server maps through the existing plugin MCP
config parser instead of adding a second parser.
- Apply existing per-plugin MCP server policy to object-valued MCP
servers the same way as file-backed MCP servers.
- Include object-valued MCP server names in plugin telemetry/capability
metadata.
- Support object-valued MCP config for executor plugins without
requiring a `.mcp.json` filesystem read.
- Update the bundled plugin-creator validator and `plugin-json-spec.md`
so generated-plugin validation accepts the same object-valued shape.
## Compatibility
Existing plugin manifests that use `"mcpServers": "./.mcp.json"`
continue to work. Plugins can now also use the object shape shown above.
## Tests
Added coverage for the new manifest attribute shape at the install,
normal load, telemetry, and executor-provider layers:
- `install_accepts_manifest_mcp_server_objects`
- `load_plugins_loads_manifest_mcp_server_objects`
- `plugin_telemetry_metadata_uses_manifest_mcp_server_objects`
- `reads_manifest_object_config_without_executor_file_system_access`
Also smoke-tested the plugin-creator validator against both supported
forms:
- `mcpServers` as a direct object in `plugin.json`
- `mcpServers` as `"./.mcp.json"` with a companion `.mcp.json`
## Validation
- `just test -p codex-plugin`
- `just test -p codex-core-plugins`
- `just test -p codex-mcp-extension`
- `just bazel-lock-update`
- `just bazel-lock-check`
- `just fmt`
- `git diff --check`
- Focused rename/object-form rerun: `just test -p codex-core-plugins
manager::tests::load_plugins_loads_manifest_mcp_server_objects
manager::tests::plugin_telemetry_metadata_uses_manifest_mcp_server_objects
store::tests::install_accepts_manifest_mcp_server_objects`
- Focused executor rerun: `just test -p codex-mcp-extension
executor_plugin::provider::tests::reads_manifest_object_config_without_executor_file_system_access`
- `python3
codex-rs/skills/src/assets/samples/plugin-creator/scripts/validate_plugin.py
/private/tmp/codex-validator-object`
- `python3
codex-rs/skills/src/assets/samples/plugin-creator/scripts/validate_plugin.py
/private/tmp/codex-validator-path`
## Summary
- Treat the remote global plugin catalog as active only when
`remote_plugin` is enabled and the current auth uses the Codex backend.
- Skip the local OpenAI curated marketplace for remote-enabled ChatGPT
users while preserving configured marketplaces.
- Keep the local curated marketplace for API-key users, unauthenticated
fallback, and ChatGPT users with `remote_plugin` disabled.
- Apply the same effective-remote gate to the remote
installed-marketplace cache.
## Root cause
The tool-suggestion discovery path unconditionally included the local
OpenAI curated marketplace. For remote-enabled ChatGPT users, that made
remote discovery additive: Codex parsed every local curated
`plugin.json` before also loading the remote catalog.
## Validation
- `just fmt`
- `cargo build -p codex-cli --bin codex`
- Targeted auth/feature matrix tests pass, including API-key auth with
`remote_plugin` enabled.
- Manual CLI validation confirmed:
- ChatGPT + remote off includes local curated.
- ChatGPT + remote on excludes local curated.
- API-key auth keeps local curated when remote is enabled.
- `just test -p codex-core-plugins`: 235 passed; one unrelated existing
marketplace test failed because it loaded the developer's home
marketplace configuration.
Summary\n- Await endpoint recommendation selection while constructing
each authenticated turn, removing the first-turn cache race.\n- Snapshot
and filter endpoint candidates once per turn, then use that same set for
the bounded contextual user fragment, tool exposure, and exact install
validation.\n- Keep recommendation selection ephemeral: do not persist
recommendation state in or gate resumed threads on prior context.\n-
Hide the legacy list tool in endpoint mode and preserve legacy discovery
unchanged when the endpoint is disabled or unavailable.\n- Keep remote
plugin and connector app identities out of model-visible context and
attach them only to Codex-owned elicitation metadata.\n\nStack\n- 3/4,
based on #28400.\n- Endpoint client and cache: #28399.\n- Generalized
suggestion presentation: #28400.\n- Install-schema follow-up:
#28403.\n\nValidation\n- \n- \n- \n- \n- Full : 2,649 passed and 88
environment-dependent tests failed because this sandbox cannot write ,
nest Seatbelt, or locate auxiliary test binaries.
Summary
- Add authenticated parsing for `/ps/plugins/suggested?scope=GLOBAL`,
including remote plugin and connector app identities.
- Validate, deduplicate, sort, and cap endpoint candidates before
caching them by backend and account identity.
- Deduplicate concurrent cache misses and warm recommendations from the
existing remote-installed-plugin refresh path used at startup and after
account changes.
- Keep endpoint results model-invisible in this PR; failures and
responses without `enabled: true` resolve to legacy mode.
Stack
- 1/3. Follow-up: #28400 generalizes plugin suggestion presentation
without activating endpoint recommendations.
- Final activation: #27704.
Validation
- `just test -p codex-core-plugins recommended_plugins`
- `just fix -p codex-core-plugins`
- `just fmt`
- `git diff --check`
## Why
`fs/readFile` buffers the entire file in one response, which makes large
remote reads expensive and prevents callers from applying backpressure.
We need an opt-in streaming path with bounded block sizes while
preserving the existing single-call API for small and sandboxed reads.
## What changed
- Add `ExecServerClient::stream`, returning a named `FileReadStream`
that implements `futures::Stream` and yields immutable 1 MiB byte
blocks.
- Add internal `fs/open`, `fs/readBlock`, and `fs/close` RPCs.
`fs/readBlock` accepts an explicit offset and length.
- Keep unsandboxed files open between block reads, cap open handles per
connection, and clean them up on EOF, error, stream drop, explicit
close, or connection shutdown.
- Reject platform-sandboxed streaming opens instead of turning the
one-shot sandbox helper into a persistent server. Existing `fs/readFile`
behavior is unchanged.
## Testing
- `just test -p codex-exec-server`
- Integration coverage for 1 MiB chunking, exact block-boundary EOF,
sandbox rejection, and continued reads from the opened file after path
replacement.
- Handle-manager coverage for non-sequential offsets, variable block
lengths, the 128-handle limit, and capacity release after close.
## Summary
Plugin loading and auth projection both previously produced
`PluginLoadOutcome`. That made an unfiltered load result look like
runtime-ready capabilities and generated capability summaries before
auth routing had run.
This change keeps loaded plugin records in the cache, applies the
current auth policy in `PluginsManager`, and only then builds
`PluginLoadOutcome` and its summaries. Auth changes still reuse the
cached disk load and re-resolve apps and MCP servers without reloading
plugins.
The updated tests cover cached auth changes and verify that capability
summaries match the effective app/MCP surface.
## Testing
- `just test -p codex-core-plugins`
- `just test -p codex-plugin`
- `just fix -p codex-core-plugins`
## Summary
Makes plugin details/read flows capability-aware so auth-filtered plugin
surfaces report the same usable app/MCP/skill shape as the marketplace
and install flows.
## Validation
Not run; this change was rebased onto the current plugin auth stack and
pushed as a draft PR.
**Manual test**
1. set up a local marketplace with a plugin that has both app and mcp
declarations
```
// .app.json
{
"apps": {
"linear": {
"id": "some_id"
}
}
}
```
```
// .mcp.json
{
"mcpServers": {
"linear": {
"type": "http",
"url": "https://mcp.linear.app/mcp",
"oauth_resource": "https://mcp.linear.app/mcp"
},
"linear2": {
"type": "http",
"url": "https://mcp.linear2.app/mcp",
"oauth_resource": "https://mcp.linear2.app/mcp"
}
}
}
```
2a. **login in with api key** and observe plugin details page which
shows no apps (note we don't show "app not available due to api key log
in as there's no way to differentiate between no apps and app without
substitute mcp exists" without significantly more code changes, i've
separated this to a follow up if we want that behaviour.
<img width="1170" height="279" alt="Screenshot 2026-06-15 at 23 45 40"
src="https://github.com/user-attachments/assets/d36cb160-fbec-461e-9643-9c761dbae7bb"
/>
<img width="975" height="640" alt="Screenshot 2026-06-15 at 18 40 30"
src="https://github.com/user-attachments/assets/90ec0bc8-7506-4b90-bbd3-070720de799e"
/>
2b. **log in with chat** and observe intended conflict resolution logic
<img width="1165" height="224" alt="Screenshot 2026-06-15 at 17 17 30"
src="https://github.com/user-attachments/assets/80adfbf2-7dac-4f08-8b76-8eeeab6c95e7"
/>
<img width="968" height="567" alt="Screenshot 2026-06-15 at 18 38 59"
src="https://github.com/user-attachments/assets/9ea92c5e-535b-4aa4-8ad0-ee513b57bc3c"
/>
## Summary
- choose the local OpenAI curated marketplace manifest based on auth:
Codex backend auth gets the existing marketplace, direct provider auth
gets `api_marketplace.json`
- include Bedrock API key auth in the direct-provider API marketplace
path
- safely skip the API marketplace when `api_marketplace.json` is absent
## Validation
- `just fmt`
- `git diff --check origin/main...HEAD`
- CI should run the full validation
## Manual Testing
### - New api marketplace not available for API key sign
1. Safely not display anything from api marketplace
<img width="1161" height="289" alt="Screenshot 2026-06-15 at 21 37 43"
src="https://github.com/user-attachments/assets/a5f16642-8a20-4ac1-a0de-1274a4c7b5b2"
/>
### - New api marketplace for API key sign in
1. Setup api_marketplace.json
```
{
"name": "openai-curated",
"interface": {
"displayName": "Codex official"
},
"plugins": [
{
"name": "linear",
"source": {
"source": "local",
"path": "./plugins/linear"
},
"policy": {
"installation": "AVAILABLE",
"authentication": "ON_INSTALL"
},
"category": "Productivity"
}
]
}
```
2. Log in with API key, observe that only the defined plugin from
api_marketplace.json is available from "Codex Official" (outside of
local testing marketplaces)
<img width="1167" height="446" alt="Screenshot 2026-06-15 at 21 16 53"
src="https://github.com/user-attachments/assets/7cf61477-d826-4ef6-bc05-0a23ac1c0259"
/>
also checked functionality on codex app
### - SiWC users
Still uses 'default' marketplace.json and renders all plugins
<img width="1171" height="502" alt="Screenshot 2026-06-15 at 21 40 25"
src="https://github.com/user-attachments/assets/d212ea9b-0aa5-470b-8ea4-450efe65bb2b"
/>
also checked functionality on codex app
## Notes
- `just test -p codex-core-plugins` was started locally before splitting
branches, but I stopped relying on local tests per follow-up and left
final validation to PR CI.
## Summary
This is the first step in making plugin auth routing consistent. The
rule should not live as one-off checks in every place that loads or
displays plugin capabilities.
This PR introduces a small resolver for the auth-level policy: given a
plugin's declared apps, MCP servers, current auth mode, and active
state, return the capabilities that are actually usable in that context.
## Why
Product rule:
- SiWC auth can use app connectors, so app declarations stay available.
- API-key/direct auth cannot use app connectors, so app declarations are
removed.
- When an active plugin has both an app and an MCP server with the same
name, the app route wins for Codex-backed auth and the conflicting MCP
server is hidden.
Putting that rule in `capabilities.rs` gives the rest of the stack one
place to ask instead of duplicating auth checks in loader, manager,
marketplace, and details code.
## Validation
- `cargo fmt`
- `cargo test -p codex-core-plugins`
## Summary
- preserve the plugin directory endpoint's response order while merging
installed state
- append unmatched installed-only plugins afterward when requested
- add focused coverage for directory order and installed-only placement
## Why
The remote marketplace merge currently reconstructs plugins through
ordered maps and sets, then sorts the result alphabetically by display
name. That discards any ordering supplied by the plugin directory
endpoint before the list reaches Desktop.
## Implementation
Directory plugin IDs are unique, so the merge now iterates the directory
vector directly in response order. For each directory plugin, it removes
matching installed state from an ID-indexed map and builds the summary.
Any entries left in the installed map are installed-only plugins and are
appended when `include_installed_only` is enabled.
There is no separate rank field, rank map, or final sort. Desktop
therefore receives directory order—including any backend ranking—and can
preserve it within its existing stable UI state tiers.
## Testing
- `just test -p codex-core-plugins` (225 passed)
## Summary
- add the `created-by-me-remote` marketplace backed by paginated
`scope=USER` plugin directory and installed-plugin requests
- include USER plugins in installed-plugin caching, bundle sync, and
stale-cache cleanup without client-side discoverability filtering
- expose the marketplace through app-server v2 and regenerate the
protocol schemas
## Testing
- `cargo build -p codex-app-server --bin codex-app-server`
- production-auth `plugin/list` smoke test for `created-by-me-remote`
(returned the expected USER plugin as installed and enabled)
- `just test -p codex-core-plugins` (221 passed)
- `just test -p codex-app-server-protocol` (231 passed)
- `just test -p codex-app-server suite::v2::plugin_list::` (37 passed)
- `just fix -p codex-core-plugins -p codex-app-server-protocol -p
codex-app-server`
- `just fmt`
## Context
This is PR5 in the plugin auth-routing stack. Earlier PRs make plugin
surface projection auth-aware, narrow App/MCP conflicts by App
declaration name, and keep connector listings auth-aware. This PR
applies the same name-based App/MCP conflict rule into plugin MCP
loading, so install-time MCP OAuth and plugin detail metadata both
reflect the MCPs available for the current auth route.
## Stack
- PR1: #27652 seed plugin manager auth at construction.
- PR2: #27459 route plugin surfaces by auth mode.
- PR3: #27607 dedupe plugin MCP servers by App declaration name.
- PR4: #27602 preserve plugin Apps in connector listings.
- PR5: #27461 skip install-time plugin MCP OAuth for matching App
routes.
## Summary
- Make `load_plugin_mcp_servers` auth-aware and let it load App
declarations before filtering same-name MCP servers for Codex-backend
auth.
- Use that filtered MCP list for both install-time MCP OAuth and
marketplace plugin detail metadata.
- Preserve API-key/direct auth behavior so plugin MCP servers remain
visible and can still start OAuth.
## Validation
```bash
cargo fmt --all
cargo test -p codex-core-plugins read_plugin_for_config_filters_mcp_servers_for_codex_backend_auth
cargo check -p codex-core-plugins -p codex-app-server
git diff --check
git diff --cached --check
```
## Why
**In short:** this PR discovers MCP registrations by reading a selected
plugin's `.mcp.json` on its executor. #27884 then resolves those
registrations in the shared catalog.
`thread/start.selectedCapabilityRoots` can select a plugin root owned by
an executor, and Codex can resolve that package through the executor
filesystem. MCP declarations inside the selected plugin are still
ignored.
This PR adds the source-specific discovery layer on top of the
selected-plugin catalog boundary in #27884:
```text
selected capability root
|
v
resolve the plugin through its executor filesystem
|
v
read and normalize its MCP config through the same filesystem
|
v
contribute stdio registrations bound to that environment ID
```
The existing MCP launcher and connection manager remain unchanged. MCP
config parsing is shared with local plugins through #27863.
## What changed
- Added an executor plugin MCP provider in the MCP extension.
- Retained only the exact filesystem capability used for package
resolution and reused it for the selected plugin's MCP config, with no
host-filesystem fallback or unrelated process/HTTP authority.
- Read either the manifest-declared MCP config or the default
`.mcp.json`; a missing default file means the plugin has no MCP servers.
- Accepted stdio servers only for this first vertical. Executor-owned
HTTP declarations are skipped with a warning until their placement
semantics are defined.
- Normalized stdio registrations with the owning environment's stable
logical ID and plugin-root working directory.
- Resolved environment-variable names on the owning executor and
rejected explicit local forwarding for non-local plugins.
- Froze discovered declarations once per active thread runtime, then
applied current managed plugin and MCP requirements when contributing
them.
- Carried the selected root ID, display name, and selection order into
the catalog contribution defined by #27884.
## Behavior and scope
There is intentionally no production behavior change yet. This PR
provides the executor provider and contribution boundary, but app-server
does not install it in this change. Existing local plugin MCP loading is
unchanged, and no MCP process is launched by this PR alone.
## Assumptions
- The selected root ID is the plugin policy identity; the manifest
display name is presentation metadata.
- An environment ID is a stable logical authority. Reconnection or
replacement under the same ID does not change ownership.
- Selected plugin packages and their manifests are trusted inputs.
- The selected package and MCP discovery snapshot remain frozen for the
active thread runtime.
## Follow-up
The next PR installs this contributor in app-server and adds an
end-to-end test proving that a selected plugin MCP tool launches on its
owning executor, can be called by the model, survives an explicit MCP
refresh, and is invisible when its root was not selected.
Resume, fork, environment removal or ID changes, dynamic catalog reload,
and executor-owned HTTP MCP placement remain separate lifecycle
decisions.
## Verification
Focused tests cover executor-only filesystem reads, missing and
malformed config, stdio filtering and normalization, managed
requirements, package attribution, and selection order. CI owns
execution of the test suite.
## Intent
Keep Bazel and Starlark files consistently formatted without requiring
contributors to install or version buildifier themselves.
## Implementation
- Add a SHA-256-pinned, cross-platform DotSlash manifest for buildifier
v8.5.1.
- Run buildifier from the shared `just fmt` and `just fmt-check` driver,
with Windows-safe explicit DotSlash invocation.
- Provision DotSlash in formatting CI and contributor devcontainers, and
document the source-build prerequisite.
- Apply the initial mechanical buildifier formatting baseline.
## Context
This is the next step in the plugin auth-routing stack. The earlier PRs
make `PluginsManager` auth-aware and move the broad App/MCP surface
decision into that layer. This PR narrows the ChatGPT/SIWC behavior so
we only hide a plugin MCP server when it conflicts with an App
declaration of the same name.
In product terms: if a plugin exposes both an App route and MCP route
for `foo`, ChatGPT/SIWC sessions should use the App route for `foo`. If
the same plugin also exposes a separate MCP server like `foo2`, that MCP
server should remain available.
```json
// .app.json
{
"apps": {
"foo": {
"id": "connector_abc"
}
}
}
```
```json
// .mcp.json
{
"mcpServers": {
"foo": {
"url": "https://mcp.foo.com/mcp"
},
"foo2": {
"url": "https://mcp.foo2.com/mcp"
}
}
}
```
## Stack
- PR1: #27652 seed plugin manager auth at construction.
- PR2: #27459 route plugin surfaces by auth mode.
- PR3: #27607 dedupe plugin MCP servers by App declaration name.
- PR4: #27602 preserve plugin Apps in connector listings.
- PR5: #27461 skip install-time plugin MCP OAuth for matching App
routes.
## Summary
- Preserve App declaration names in loaded plugin metadata.
- Keep public effective App outputs as deduped connector IDs for
existing callers.
- For ChatGPT/SIWC, suppress only plugin MCP servers whose names match
declared App names.
## Validation
```bash
cargo fmt --all
cargo test -p codex-core-plugins plugin_auth_projection
cargo test -p codex-core-plugins effective_apps
cargo test -p codex-core-plugins read_plugin_for_config_installed_git_source_reads_from_cache_without_cloning
cargo test -p codex-core explicit_plugin_mentions_use_apps_for_chatgpt_dual_surface_plugins
cargo test -p codex-core explicit_plugin_mentions_keep_non_conflicting_mcp_for_chatgpt_auth
cargo test -p codex-app-server --test all plugin_install_filters_disallowed_apps_needing_auth
git diff --check
```
---------
Co-authored-by: Xin Lin <xl@openai.com>
## Context
Some plugins expose both Apps and MCP servers. This PR moves auth-aware
surface projection into `core-plugins::PluginsManager`, so callers get a
consistent effective plugin view. Later PRs narrow the conflict rule and
update listing/install paths.
The high level goal of this PR is to set up the plumbing to
conditionally filter App/MCP in the plugin manager layer. We start by
removing MCP servers when using SIWC/Codex-backend auth, and removing
Apps when using API-key-style auth.
This PR is now stacked on #27652, which contains only the constructor
plumbing for seeding `PluginsManager` with the current auth mode.
## Stack
- PR1: #27652 seed plugin manager auth at construction.
- PR2: #27459 route plugin surfaces by auth mode.
- PR3: #27607 dedupe plugin MCP servers by App declaration name.
- PR4: #27602 preserve plugin Apps in connector listings.
- PR5: #27461 skip install-time plugin MCP OAuth for matching App
routes.
## Summary
- API-key/non-ChatGPT routes hide plugin Apps and keep plugin MCPs.
- ChatGPT/SIWC with Apps enabled keeps plugin Apps and suppresses MCPs
for dual-surface plugins.
- MCP-only plugins stay available for ChatGPT/SIWC sessions.
- Cached plugin load outcomes are re-projected when auth mode changes.
## Validation
```bash
cargo test -p codex-core-plugins plugin_auth_projection
cargo test -p codex-core list_tool_suggest_discoverable_plugins
git diff --check
```
## Context
Plugins can expose more than one way for Codex to use them: App
connectors for ChatGPT/SIWC-backed sessions and MCP servers for API key
login sessions. The broader goal is to make `PluginsManager` the place
that understands which plugin surfaces should be visible for the current
auth route, so callers do not each have to make that decision
themselves.
This PR is the small setup step for that work. It lets the plugin
manager be created with the current `AuthMode`, which gives the followup
auth routing PRs the information they need without relying on setter
injection.
## Stack
- PR1: #27652 seed plugin manager auth at construction.
- PR2: #27459 route plugin surfaces by auth mode.
- PR3: #27607 dedupe plugin MCP servers by App declaration name.
- PR4: #27602 preserve plugin Apps in connector listings.
- PR5: #27461 skip install-time plugin MCP OAuth for matching App
routes.
## Summary
- Let `PluginsManager::new_with_restriction_product` accept an initial
`AuthMode`.
- Keep `PluginsManager::new` behavior unchanged for ordinary callers.
## Validation
```bash
cargo test -p codex-core-plugins plugins_manager_tracks_auth_mode
cargo test -p codex-core list_tool_suggest_discoverable_plugins
git diff --check
```
---------
Co-authored-by: Xin Lin <xl@openai.com>
## Summary
- Keep local plugin suggestions bounded to fallback and explicitly
configured plugins.
- Preserve app-overlap recommendations for remote plugins using cached
catalog metadata.
- Remove the WSL-specific local discovery exception and move
manager-owned discovery tests into `codex-core-plugins`.
## Why
Local curated marketplaces were allowlisted before plugin detail
loading, so every uninstalled candidate could be deep-read before its
app IDs were checked. That caused per-turn reads of candidate plugin
manifests, skills, app configs, hooks, and MCP configs, which is
especially expensive on slow disks.
Remote discovery does not need those local candidate reads because app
IDs are already available in the cached remote catalog. Installed local
plugins are still loaded when needed to determine the user's installed
app IDs.
## Validation
- `just fmt`
- `just test -p codex-core-plugins discoverable::tests` (13 passed)
- `just test -p codex-core plugins::discoverable::tests` (4 passed)
- `just bazel-lock-update`
- `just bazel-lock-check`
- `git diff --check`
## Why
We have some large gaps in our thread start, resume, and pre-sampling
traces that make it hard to tell where latency is coming from.
## What Changed
- Added coarse spans around thread start/resume, turn context
construction, rollout reconstruction, skill/plugin loading, and tool
preparation.
- Added a breakdown of discoverable-tool preparation across connector
loading, plugin discovery, and local plugin details.
## Testing
- `cargo check -p codex-app-server -p codex-core -p codex-core-skills -p
codex-core-plugins`
- Built the app-server locally and exercised thread start, first turn,
follow-up turn, server restart, thread resume, and a resumed turn.
## Why
`PathUri::from_abs_path` can fail for absolute paths that do not have a
normal `file:` URI representation, forcing filesystem call sites to
handle a conversion error even though the original path can be preserved
losslessly.
## What
Make `from_abs_path` infallible and migrate its callers. Unrepresentable
paths use `file:///%00/bad/path/<base64>`, encoding Unix bytes or
Windows UTF-16LE; `to_abs_path` validates and decodes that fallback. The
leading encoded null reserves a namespace that cannot collide with a
real Unix or Windows path, and fallback URIs remain opaque to lexical
path operations.
## Validation
Added path-URI coverage for Unix null and non-UTF-8 paths, Windows
device/verbatim and non-Unicode paths, serialization, malformed
fallbacks, opaque lexical operations, invalid native payloads, and
literal `/bad/path` collision resistance.
## Why
`ExecutorFileSystem::get_metadata` reports file kind and timestamps but
not size. Internal callers that need to enforce a size limit therefore
have to read the complete file first, which is especially wasteful for
remote filesystems.
This adds the missing internal metadata so consumers can reject
oversized files before transferring or buffering them. The field is
named `size`, matching VS Code's `FileStat.size` filesystem convention.
## What changed
- add `size: u64` to internal `FileMetadata`
- populate it from the underlying filesystem metadata
- carry it through sandbox-helper and remote exec-server responses
- cover files, directories, symlink targets, and sandboxed reads across
local and remote filesystem implementations
The new field is intentionally not exposed through the app-server API.
## Testing
- `just test -p codex-exec-server get_metadata`
- `just test -p codex-exec-server
file_system_sandboxed_metadata_and_read_allow_readable_root`
- `just test -p codex-core-plugins`
- `just test -p codex-skills-extension`
## Summary
- expose the remote plugin detail endpoint's `share_url` as nullable
`PluginDetail.shareUrl`
- preserve existing `PluginSummary.shareContext` behavior for local and
workspace sharing flows
- regenerate the app-server TypeScript and JSON schema fixtures
## Why
The remote plugin detail response already includes a canonical
`share_url`, but that value was not surfaced by `plugin/read` for global
plugins. Global plugins intentionally have no `shareContext`, so using
that model for the URL would change the semantics consumed by the
existing share modal.
## User impact
Codex clients can use `PluginDetail.shareUrl` for a remote plugin's
copy-link action, including when the plugin is disabled by an
administrator, without changing existing share-modal or ownership
behavior.
## Validation
- `cargo test -p codex-app-server
plugin_read_includes_share_url_for_admin_disabled_remote_plugin`
- `cargo test -p codex-app-server-protocol
typescript_schema_fixtures_match_generated`
- `cargo test -p codex-app-server-protocol
json_schema_fixtures_match_generated`
- `cargo fmt --all`
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