feat: add main features

Agents for developpement added + frontend add + backend added. Git viewer created + agent and template creator + layout and project creator
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2026-06-06 01:27:01 +02:00
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//! [`PortablePtyAdapter`] — local [`PtyPort`] implementation over the
//! `portable-pty` crate (ARCHITECTURE §5, L3).
//!
//! # Design
//!
//! `portable-pty` is a blocking, thread-oriented API: a master PTY gives a
//! `Box<dyn Read>` reader and a `Box<dyn Write>` writer, and the child process is
//! waited on a thread. We bridge that to the domain [`PtyPort`] as follows:
//!
//! - [`PtyHandle`] only carries a [`SessionId`]; the *real* OS handles (master
//! PTY, writer, child) live in this adapter's registry keyed by that id. The
//! domain never sees an OS handle (ARCHITECTURE §4).
//! - On [`spawn`](PtyPort::spawn) we open a PTY pair, spawn the command in the
//! slave, then start **one reader thread** that pumps bytes from the master
//! into an [`std::sync::mpsc`] channel. [`subscribe_output`](PtyPort::subscribe_output)
//! hands back the receiver wrapped as the domain's blocking [`OutputStream`]
//! iterator; the presentation layer drains it on its own thread and forwards
//! chunks to the per-session Tauri channel (the `PtyBridge`).
//! - [`write`](PtyPort::write) / [`resize`](PtyPort::resize) act on the stored
//! writer / master. [`kill`](PtyPort::kill) terminates the child, joins the
//! reader thread, and returns the [`ExitStatus`].
//!
//! # Cross-platform note (spike, ARCHITECTURE §13.1)
//!
//! `portable-pty` abstracts ConPTY on Windows, but exit-code/signal semantics
//! differ: a Unix process killed by a signal reports `code: None` here, while
//! ConPTY surfaces a numeric code. Resize uses the same `PtySize` everywhere.
//! Points to validate on Windows: child `kill()` actually tears down ConPTY, and
//! the reader thread observes EOF promptly on exit. The code below avoids any
//! Unix-only assumption (no raw fds, no signals) so it should port as-is.
use std::collections::HashMap;
use std::io::{Read, Write};
use std::sync::mpsc::{self, Receiver, Sender};
use std::sync::Mutex;
use std::thread::JoinHandle;
use async_trait::async_trait;
use portable_pty::{Child, CommandBuilder, MasterPty, NativePtySystem, PtySystem};
use domain::ports::{ExitStatus, OutputStream, PtyError, PtyHandle, PtyPort, SpawnSpec};
use domain::terminal::PtySize;
use domain::SessionId;
/// Size of each read buffer pumped from the master PTY.
const READ_BUF: usize = 8 * 1024;
/// A live PTY owned by the adapter.
struct LivePty {
/// Master side — used for resize.
master: Box<dyn MasterPty + Send>,
/// Writer into the PTY (child stdin).
writer: Box<dyn Write + Send>,
/// The spawned child process.
child: Box<dyn Child + Send + Sync>,
/// Receiver end of the output channel; taken once by `subscribe_output`.
output_rx: Option<Receiver<Vec<u8>>>,
/// Handle of the reader thread, joined on kill.
reader: Option<JoinHandle<()>>,
}
/// Local PTY adapter backed by `portable-pty`'s native PTY system.
///
/// Thread-safe: the registry of live PTYs is behind a [`Mutex`]; the adapter is
/// cloneable-as-`Arc` and injected as `Arc<dyn PtyPort>` at the composition root.
#[derive(Default)]
pub struct PortablePtyAdapter {
sessions: Mutex<HashMap<SessionId, LivePty>>,
}
impl PortablePtyAdapter {
/// Creates an empty adapter.
#[must_use]
pub fn new() -> Self {
Self {
sessions: Mutex::new(HashMap::new()),
}
}
}
/// Maps the domain [`PtySize`] to the `portable-pty` one.
fn to_pty_size(size: PtySize) -> portable_pty::PtySize {
portable_pty::PtySize {
rows: size.rows,
cols: size.cols,
pixel_width: 0,
pixel_height: 0,
}
}
/// Builds the `portable-pty` command from a domain [`SpawnSpec`].
fn to_command(spec: &SpawnSpec) -> CommandBuilder {
let mut cmd = CommandBuilder::new(&spec.command);
cmd.args(&spec.args);
cmd.cwd(spec.cwd.as_str());
for (k, v) in &spec.env {
cmd.env(k, v);
}
cmd
}
#[async_trait]
impl PtyPort for PortablePtyAdapter {
async fn spawn(&self, spec: SpawnSpec, size: PtySize) -> Result<PtyHandle, PtyError> {
let pty_system = NativePtySystem::default();
let pair = pty_system
.openpty(to_pty_size(size))
.map_err(|e| PtyError::Spawn(e.to_string()))?;
let cmd = to_command(&spec);
let child = pair
.slave
.spawn_command(cmd)
.map_err(|e| PtyError::Spawn(e.to_string()))?;
// The slave is held by the child; drop our copy so EOF propagates on exit.
drop(pair.slave);
let writer = pair
.master
.take_writer()
.map_err(|e| PtyError::Io(e.to_string()))?;
let mut reader = pair
.master
.try_clone_reader()
.map_err(|e| PtyError::Io(e.to_string()))?;
// One reader thread per PTY pumps bytes into the output channel until EOF.
let (tx, rx): (Sender<Vec<u8>>, Receiver<Vec<u8>>) = mpsc::channel();
let reader_handle = std::thread::spawn(move || {
let mut buf = [0u8; READ_BUF];
loop {
match reader.read(&mut buf) {
Ok(0) => break,
Ok(n) => {
// Receiver gone (session closed) → stop pumping.
if tx.send(buf[..n].to_vec()).is_err() {
break;
}
}
Err(_) => break,
}
}
});
// The PTY layer owns the handle identity: it mints a fresh session id and
// the caller (the `OpenTerminal` use case) adopts it as the
// `TerminalSession.id`. This keeps the OS handle out of the domain while
// giving everyone a single, agreed-upon id (ARCHITECTURE §4).
let handle = PtyHandle {
session_id: SessionId::new_random(),
};
let live = LivePty {
master: pair.master,
writer,
child,
output_rx: Some(rx),
reader: Some(reader_handle),
};
self.sessions
.lock()
.map_err(|_| PtyError::Io("pty registry poisoned".to_owned()))?
.insert(handle.session_id, live);
Ok(handle)
}
fn write(&self, handle: &PtyHandle, data: &[u8]) -> Result<(), PtyError> {
let mut map = self
.sessions
.lock()
.map_err(|_| PtyError::Io("pty registry poisoned".to_owned()))?;
let live = map.get_mut(&handle.session_id).ok_or(PtyError::NotFound)?;
live.writer
.write_all(data)
.map_err(|e| PtyError::Io(e.to_string()))?;
live.writer
.flush()
.map_err(|e| PtyError::Io(e.to_string()))
}
fn resize(&self, handle: &PtyHandle, size: PtySize) -> Result<(), PtyError> {
let map = self
.sessions
.lock()
.map_err(|_| PtyError::Io("pty registry poisoned".to_owned()))?;
let live = map.get(&handle.session_id).ok_or(PtyError::NotFound)?;
live.master
.resize(to_pty_size(size))
.map_err(|e| PtyError::Io(e.to_string()))
}
fn subscribe_output(&self, handle: &PtyHandle) -> Result<OutputStream, PtyError> {
let mut map = self
.sessions
.lock()
.map_err(|_| PtyError::Io("pty registry poisoned".to_owned()))?;
let live = map.get_mut(&handle.session_id).ok_or(PtyError::NotFound)?;
let rx = live
.output_rx
.take()
.ok_or_else(|| PtyError::Io("output already subscribed".to_owned()))?;
Ok(Box::new(rx.into_iter()))
}
async fn kill(&self, handle: &PtyHandle) -> Result<ExitStatus, PtyError> {
// Remove from the registry so the writer/master drop and the child is
// fully owned here while we tear it down.
let mut live = {
let mut map = self
.sessions
.lock()
.map_err(|_| PtyError::Io("pty registry poisoned".to_owned()))?;
map.remove(&handle.session_id).ok_or(PtyError::NotFound)?
};
// Ask the child to terminate, then wait for its real status.
let _ = live.child.kill();
let status = live
.child
.wait()
.map_err(|e| PtyError::Io(e.to_string()))?;
// Dropping master/writer closes the PTY; the reader thread then sees EOF.
drop(live.output_rx.take());
if let Some(reader) = live.reader.take() {
let _ = reader.join();
}
Ok(ExitStatus {
code: exit_code(&status),
})
}
}
/// Extracts a portable exit code. `portable-pty`'s `ExitStatus` exposes
/// `exit_code(): u32`; `0` is success. We surface it as `i32`.
fn exit_code(status: &portable_pty::ExitStatus) -> Option<i32> {
Some(status.exit_code() as i32)
}