core-agent-ide/codex-rs/exec-server/tests/common/lib.rs
Michael Bolin 1af2a37ada
chore: remove codex-core public protocol/shell re-exports (#12432)
## Why

`codex-rs/core/src/lib.rs` re-exported a broad set of types and modules
from `codex-protocol` and `codex-shell-command`. That made it easy for
workspace crates to import those APIs through `codex-core`, which in
turn hides dependency edges and makes it harder to reduce compile-time
coupling over time.

This change removes those public re-exports so call sites must import
from the source crates directly. Even when a crate still depends on
`codex-core` today, this makes dependency boundaries explicit and
unblocks future work to drop `codex-core` dependencies where possible.

## What Changed

- Removed public re-exports from `codex-rs/core/src/lib.rs` for:
- `codex_protocol::protocol` and related protocol/model types (including
`InitialHistory`)
  - `codex_protocol::config_types` (`protocol_config_types`)
- `codex_shell_command::{bash, is_dangerous_command, is_safe_command,
parse_command, powershell}`
- Migrated workspace Rust call sites to import directly from:
  - `codex_protocol::protocol`
  - `codex_protocol::config_types`
  - `codex_protocol::models`
  - `codex_shell_command`
- Added explicit `Cargo.toml` dependencies (`codex-protocol` /
`codex-shell-command`) in crates that now import those crates directly.
- Kept `codex-core` internal modules compiling by using `pub(crate)`
aliases in `core/src/lib.rs` (internal-only, not part of the public
API).
- Updated the two utility crates that can already drop a `codex-core`
dependency edge entirely:
  - `codex-utils-approval-presets`
  - `codex-utils-cli`

## Verification

- `cargo test -p codex-utils-approval-presets`
- `cargo test -p codex-utils-cli`
- `cargo check --workspace --all-targets`
- `just clippy`
2026-02-20 23:45:35 -08:00

201 lines
6.5 KiB
Rust

use codex_core::MCP_SANDBOX_STATE_METHOD;
use codex_core::SandboxState;
use codex_protocol::protocol::SandboxPolicy;
use codex_utils_cargo_bin::find_resource;
use rmcp::ClientHandler;
use rmcp::ErrorData as McpError;
use rmcp::RoleClient;
use rmcp::Service;
use rmcp::model::ClientCapabilities;
use rmcp::model::ClientInfo;
use rmcp::model::ClientRequest;
use rmcp::model::CreateElicitationRequestParams;
use rmcp::model::CreateElicitationResult;
use rmcp::model::CustomRequest;
use rmcp::model::ElicitationAction;
use rmcp::model::ServerResult;
use rmcp::service::RunningService;
use rmcp::transport::ConfigureCommandExt;
use rmcp::transport::TokioChildProcess;
use serde_json::json;
use std::collections::HashSet;
use std::path::Path;
use std::path::PathBuf;
use std::process::Stdio;
use std::sync::Arc;
use std::sync::Mutex;
use tokio::process::Command;
pub async fn create_transport<P>(
codex_home: P,
dotslash_cache: P,
) -> anyhow::Result<TokioChildProcess>
where
P: AsRef<Path>,
{
// `bash` is a test resource rather than a binary target, so we must use
// `find_resource!` to locate it instead of `cargo_bin()`.
let bash = find_resource!("../suite/bash")?;
// Need to ensure the artifact associated with the bash DotSlash file is
// available before it is run in a read-only sandbox.
let status = Command::new("dotslash")
.arg("--")
.arg("fetch")
.arg(bash.clone())
.env("DOTSLASH_CACHE", dotslash_cache.as_ref())
.status()
.await?;
assert!(status.success(), "dotslash fetch failed: {status:?}");
create_transport_with_shell_path(codex_home, dotslash_cache, bash).await
}
pub async fn create_transport_with_shell_path<P, Q, R>(
codex_home: P,
dotslash_cache: Q,
shell_path: R,
) -> anyhow::Result<TokioChildProcess>
where
P: AsRef<Path>,
Q: AsRef<Path>,
R: AsRef<Path>,
{
let mcp_executable = codex_utils_cargo_bin::cargo_bin("codex-exec-mcp-server")?;
let execve_wrapper = codex_utils_cargo_bin::cargo_bin("codex-execve-wrapper")?;
let transport = TokioChildProcess::new(Command::new(&mcp_executable).configure(|cmd| {
cmd.arg("--bash").arg(shell_path.as_ref());
cmd.arg("--execve").arg(&execve_wrapper);
cmd.env("CODEX_HOME", codex_home.as_ref());
cmd.env("DOTSLASH_CACHE", dotslash_cache.as_ref());
// Important: pipe stdio so rmcp can speak JSON-RPC over stdin/stdout
cmd.stdin(Stdio::piped());
cmd.stdout(Stdio::piped());
// Optional but very helpful while debugging:
cmd.stderr(Stdio::inherit());
}))?;
Ok(transport)
}
pub async fn write_default_execpolicy<P>(policy: &str, codex_home: P) -> anyhow::Result<()>
where
P: AsRef<Path>,
{
let policy_dir = codex_home.as_ref().join("rules");
tokio::fs::create_dir_all(&policy_dir).await?;
tokio::fs::write(policy_dir.join("default.rules"), policy).await?;
Ok(())
}
pub async fn notify_readable_sandbox<P, S>(
sandbox_cwd: P,
codex_linux_sandbox_exe: Option<PathBuf>,
service: &RunningService<RoleClient, S>,
) -> anyhow::Result<ServerResult>
where
P: AsRef<Path>,
S: Service<RoleClient> + ClientHandler,
{
let sandbox_state = SandboxState {
sandbox_policy: SandboxPolicy::new_read_only_policy(),
codex_linux_sandbox_exe,
sandbox_cwd: sandbox_cwd.as_ref().to_path_buf(),
use_linux_sandbox_bwrap: false,
};
send_sandbox_state_update(sandbox_state, service).await
}
pub async fn notify_writable_sandbox_only_one_folder<P, S>(
writable_folder: P,
codex_linux_sandbox_exe: Option<PathBuf>,
service: &RunningService<RoleClient, S>,
) -> anyhow::Result<ServerResult>
where
P: AsRef<Path>,
S: Service<RoleClient> + ClientHandler,
{
let sandbox_state = SandboxState {
sandbox_policy: SandboxPolicy::WorkspaceWrite {
// Note that sandbox_cwd will already be included as a writable root
// when the sandbox policy is expanded.
writable_roots: vec![],
read_only_access: Default::default(),
network_access: false,
// Disable writes to temp dir because this is a test, so
// writable_folder is likely also under /tmp and we want to be
// strict about what is writable.
exclude_tmpdir_env_var: true,
exclude_slash_tmp: true,
},
codex_linux_sandbox_exe,
sandbox_cwd: writable_folder.as_ref().to_path_buf(),
use_linux_sandbox_bwrap: false,
};
send_sandbox_state_update(sandbox_state, service).await
}
async fn send_sandbox_state_update<S>(
sandbox_state: SandboxState,
service: &RunningService<RoleClient, S>,
) -> anyhow::Result<ServerResult>
where
S: Service<RoleClient> + ClientHandler,
{
let response = service
.send_request(ClientRequest::CustomRequest(CustomRequest::new(
MCP_SANDBOX_STATE_METHOD,
Some(serde_json::to_value(sandbox_state)?),
)))
.await?;
Ok(response)
}
pub struct InteractiveClient {
pub elicitations_to_accept: HashSet<String>,
pub elicitation_requests: Arc<Mutex<Vec<CreateElicitationRequestParams>>>,
}
impl ClientHandler for InteractiveClient {
fn get_info(&self) -> ClientInfo {
let capabilities = ClientCapabilities::builder().enable_elicitation().build();
ClientInfo {
capabilities,
..Default::default()
}
}
fn create_elicitation(
&self,
request: CreateElicitationRequestParams,
_context: rmcp::service::RequestContext<RoleClient>,
) -> impl std::future::Future<Output = Result<CreateElicitationResult, McpError>> + Send + '_
{
self.elicitation_requests
.lock()
.unwrap()
.push(request.clone());
let message = match &request {
CreateElicitationRequestParams::FormElicitationParams { message, .. }
| CreateElicitationRequestParams::UrlElicitationParams { message, .. } => message,
};
let accept = self.elicitations_to_accept.contains(message);
async move {
if accept {
Ok(CreateElicitationResult {
action: ElicitationAction::Accept,
content: Some(json!({ "approve": true })),
})
} else {
Ok(CreateElicitationResult {
action: ElicitationAction::Decline,
content: None,
})
}
}
}
}