Instead of introducing our own names and aliases, directly model SQLite
pragmas with the defaults that they also take in SQLite, to avoid
confusion.
Co-authored-by: Lorenz Leutgeb <lorenz.leutgeb@radicle.xyz>
Use proxy structs to control the serialized output of `FetcherState`.
These structs convert data inside the `FetcherState` into friendlier
output for the caller of `rad node debug`.
Since the service performs further I/O (e.g. uses SQLite), it can keep
the reactor runtime thread busy for long periods. Emit a warning if that
is the case.
100 ms is quite relaxed, this is to only catch severe cases and avoid
spamming the log.
The node being connected to may be blocking the connecting node.
In this case the service will emit an event that says the connecting
node is disconnected.
Check the events for this event as well as `Event::PeerConnected`.
Introduces the ability to explicitly block a peer via the node control
socket. Previously, the node only exposed follow and unfollow commands.
While the underlying policy database schema supported a Block variant,
there was no mechanism to trigger this state via the client handle.
The new block command:
1. Updates the node's follow policy to Block.
2. Immediately disconnects the peer if a session is active.
The previous resolution would favour one `Oid` over another, due to
the call to `Option::or`.
This was found to result in scenarios where an identity document being
advertised was older than the identity document that the fetching node
already has, and would not fetch namespaces by newly added delegates.
The resolution logic is updated to handle all cases for these `Oid`s,
and when they are both present, uses a commit graph check to see which
one is the latest.
An e2e test is added to check ensure behaviour works correctly.
The `Responder` is a oneshot channel where it sends one result and the
other side receives that result.
This surfaced that the `AnnounceRefs` command was returning one result
at a time. At the moment, this is only used for a single namespace,
the local user's.
Refactors every command that uses a `Sender` to use a `Responder`
instead. There is an exception for `QueryState` since its usage
differs slightly to the other cases.
To make the usage more ergonomic, constructors for the variants that
require a `Responder` are added.
The construction of the debug object is unwieldy, and error prone
(for example, renamed struct members have to be manually renamed
in the serialization code, see "refs" vs. "refsAt").
Use derived serializers where possible to make this easier to maintain.
Report: <https://www.cve.org/CVERecord?id=CVE-2025-58160>
This vulnerability was introduced via the `test-log` crate.
Updating to `0.2.19` in turn updates `tracing-subscriber` to `0.3.22`
which is in the acceptable upgrade range.
Using empty `Vec`s to mean "all refs" can be confusing. Avoid the chance
of confusion by introduction of a new type that clearly describes which
refs should be fetched.
Recent versions of Windows support Unix Domain Sockets natively, see
<https://devblogs.microsoft.com/commandline/af_unix-comes-to-windows/>.
By using that feature instead of Windows named pipes, the difference
for handling communication via the control socket comparing Unix-like
systems and Windows becomes smaller:
1. No special paths like `\.\pipe\…` have to be handled.
2. Not two I/O mechanisms are abstracted (named pipe and UDS) but
just one.
3. `winpipe` relies on background threads while `uds_windows` does
not.
Once the feature `windows_unix_domain_sockets` (which is tracked at
https://github.com/rust-lang/rust/issues/150487) stabilizes, it will
likely be possible to just drop the dependency `uds_windows` and use
the implementation in `std::os::windows::net` directly.
Wire up the new `FetcherService`. This reduces the `Service` fetch
methods down to:
- `fetch`
- `fetched`
- `dequeue_fetches`
- `fetch_refs_at`
This simplifies the code by off-loading the logic to the `fetcher`
family of types, rather than handling the intricacies in the `Service`
itself.
The `Service` now just performs the necessary I/O based on the
returned events from the `fetcher`.
This also removes the fetching state from the node sessions. This
follows the single responsibility, and sessions now only care about
their connectivity.
Breaking changes:
- The `Connected` state of a peer no longer contains fetching
information, which was being returned as part of the JSON payload
result.
- The `rad debug` information for ongoing fetches contained the number
listeners awaiting for results, this was removed.
Evaluate the `error!` logging in `radicle-node`.
The majority of cases, the `error!` is downgraded to `warn!`. These
cases are generally useful to know if there's an issue, but the
operator cannon necessarily do anything about it.
In a few cases, `debug!` was chosen. These are generally when an error
means that a result is not part of an accumulation, or the system will
eventually correct itself during another event or restart.
Evaluate the `warn!` logging in `radicle-node`.
If the event is a result of something being suspicious in the running
of the protocol, then it remains a `warn!`.
However, if the system ends up ignoring the event and can continue
without issues, the log level is reduced to `debug!`.
Instead of changing `impl From<SystemTime> for LocalTime` to `TryFrom`,
the implementation was removed, as there are not many callsites, and
they are well served by `LocalTime::now`.
radicle-localtime: drop TryFrom SystemTime
radicle-node: switch SystemTime usage with LocalTime
Introduce the `radicle-core` crate for housing data types that are at
the core of the Radicle protocol. The initial data type being added is
`RepoId`. To make the crate as lightweight as possible many of
dependencies are optional and gated by feature flags.
The crate is marked as `no_std` even though it unconditionally depends
on `radicle-crypto`, which is *not* `no_std`. This is to invite
refactoring of `radicle-crypto` to `no_std` at a later time.
The `localtime` crate was defined by cloudhead, and is a minimal
repository with a single `lib.rs`.
Instead of using it as an external dependency, copy the code directly
into a new workspace crate `radicle-localtime`.
The default `serde` implementation goes through the `LocalTime`'s
seconds values rather than milliseconds, since this is the more common
format. This allows the removal of the `serde_ext` functions.
The one place milliseconds was used was for the
`radicle::cob::common::Timestamp` type, where the `Serialize` and
`Deserialize` implementations are manually written.
It also adds a `schemars` feature to remove `schemars_ext` functions
in `radicle` as well.
Instead of logging all IO errors as an error, match on the kind of the
error, logging an info message, otherwise an error.
These errors are informational, and cannot necessarily be resolved by
the node operator – since it is a matter of not being able to connect
to another end.
The following block did not need mutable access to the `outbound`
value.
To avoid confusion around mutable access, the call was downgraded to
`get` so that the reader can safely know there is no mutation
happening.
The `struct Epoch` introduced in e404f1038f
inadvertently made `radicle-node` suffer from
https://github.com/rust-lang/rust/issues/87906
That is, updating of the "current time" was skewed *way more*
than expected by a slowly ticking monotonic clock. Such slow
ticking can be caused by suspending the system.
The test 'test_concurrent_fetches' is broken. It asserts over empty
sets nullifying its utility. Correct the test by changing it so that
sets to be asserted against are cloned.
`fn handle_events` would panic, if there were multiple events for one
token, and the first one that happened to be handled was an error.
Indeed it is concerning if a token is encountered that was never
registered before. However, tokens that were just deregistered must be
tracked.
Using `Vec` here seems a bit costly, in the future,
`smallvec::SmallVec` could be considered.
The "unregister" methods are renamed to "deregister" to better line up
with `mio` vocabulary.
Log statements that helped analysis of the panic that occurred here
are overhauled and improved, requiring a `Debug` bound on types that
obviously implement it.
Make `git2` an *optional* dependency of `radicle-cob`, and refactor
`radicle` to depend on crates that in turn do not depend on `git2`
*non-optionally*
The main offending dependency of `radicle-cob` is `radicle-git-ext`
from the `radicle-git` workspace in repository
(rad:z6cFWeWpnZNHh9rUW8phgA3b5yGt) which *non-optionally* depends on
`git2`.
So, to achieve removal of this dependency:
1. The crate is refactored to depend on the new crates
`radicle-git-ref-format` `radicle-git-metadata`, and
`radicle-oid` introduced in the previous commits, instead of
`radicle-git-ext`.
2. Some code from the `radicle-git-ext` crate in the `radicle-git`
workspace in repository (rad:z6cFWeWpnZNHh9rUW8phgA3b5yGt) is
copied. See `crates/radicle-cob/src/backend/git/commit.rs`.
This cascades to `radicle` and its dependents.
Firstly, the there is an
`impl Deref<Target=git2::Oid> for radicle_git_ext::Oid`. This made
it very convenient to just deref to obtain the wrapped `git2::Oid`,
so there are many expressions of the shape `*oid` in `radicle` and
its dependents. However `radicle-oid` does not provide
`impl Deref<Target=git2::Oid> for radicle_oid::Oid`, as notably,
`Target` is an associated type, and not a type parameter, so an
implementation of `Deref` would tie the new `Oid` too tightly to a
particular implementation.
Instead, work with `impl From<radicle_oid::Oid> for git2::Oid`
(which can be enabled using the feature flag `radicle-oid/git2`).
This explains the changes from `*oid` to `oid.into()` at every
transition to "`git2` land".
Secondly, `radicle` and its dependents are refactored to also depend
on `radicle-git-ref-format` and (much less prominently)
`radicle-git-metadata` instead of `radicle-git-ext`
This is to avoid pulling in `git2` via these dependencies.
Thirdly, as the re-exports in `crates/radicle/src/git.rs` change,
they are at the same time also cleaned up. Notably, the types from
`radicle-git-ref-format` are re-exported under `fmt` only, not "twice".
While overall this obviously is very much a breaking change, these
changes should mostly amount to changing from `Deref` to `Into`, i.e.,
`*oid` → `oid.into()` and rewriting imports for `radicle::fmt`.
This is indicated by the mostly mechanical nature of the changes to
`crates/radicle-{cli,node,remote-helper}`.
The dependencies `netservices`, `io-reactor` and `popol` served us well,
however they do not support Windows and are not actively maintained.
This change removes the aforementioned dependencies (and `libc` along
with them). It reuses the integration with `cyphernet` from
`netservices` for Noise and SOCKS.
The new module `reactor` is a rewrite of `io-reactor` on top of Mio.
Note that no tests were changed.
While it is possible to pass the passphrase via the environment, e.g.
`EnvironmentFile=<path to file that contains "RAD_PASSPHRASE=…">`
this is less secure than passing it via a file, because the environment
is inherited down the process tree.
Thus, allow using a systemd credential. The ID of the credential must be
xyz.radicle.node.passphrase
and is not user-configurable.
Passing the passphrase via file is now possible with
`LoadCredential=xyz.radicle.node.passphrase:<path to file that contains passphrase>`
This requires just a bit of plumbing in `radicle-node`.
Because this mechanism is more secure than using the environment
variable `RAD_PASSPHRASE`, it takes priority. That is, if both the
systemd credential is available, *and* the environment variable
`RAD_PASSPHRASE` is set, the former is preferred.
Heads-up:
1. The contents of the file must be valid UTF-8 (see documentation of
`std::fs::read_to_string`). Assuming that the passphrase is at some
point chosen by the user and typed on a keyboard, this does not
seem like a severe restriction.
2. The contents of the file are not processed otherwise, i.e. line
breaks (notably at the end of the file) are not stripped.
The related `issue/8bd040e9de05e7fc27e373ebc1649ff4ad930e7a` asked for a
very similar feature: Passing the passphrase via a file named by the
value of the of the environment variable `RAD_PASSPHRASE_FILE`.
It was also briefly discussed at
<https://radicle.zulipchat.com/#narrow/channel/369277-heartwood/topic/.60RAD_PASSPHRASE_FILE.60/with/529104447>.
While it is possible to use systemd credentials via
LoadCredential=xyz.radicle.node.secret:…
ExecStart=radicle-node … --secret "${CREDENTIALS_DIRECTORY}/xyz.radicle.node.secret"
Make usage more convenient and directly support passing the secret key
via a systemd credential. The ID of the credential must be
xyz.radicle.node.secret
and is not user-configurable.
A systemd service unit file might contain:
LoadCredential=xyz.radicle.node.secret:…
ExecStart=radicle-node …
This requires just a bit of plumbing in `radicle-node`.
The preference order for the path of the secret key is:
1. The command line argument `--secret`.
2. The systemd credential.
3. The configuration file.
4. The default location to preserve backward compatibility.
The reason to prefer the systemd credential over the configuration file
is that it uses a mechanism that is influenced by the environment of the
process, which is deemed "closer at runtime" or "more dynamic" than a
configuration file. Ad-hoc overrides are still possible via the
commandline argument.
The "seeds" command does only take a repository ID, and
carries the implicit assumption that the namespace with the same public
key as the Node ID of the receiving `radicle-node` process should be
used as reference for determining whether other nodes are in sync,
but no other namespace.
In the spirit of separating user and node identity, relax this, so that
the command also carries the public keys relative to which the sync
status should be computed. This allows to inspect sync status for
arbitrary namespaces via command.
For now, this feature is not exposed to the CLI, but `rad sync status`
always passes the public key of the active profile.
Yorgos Saslis
Fintan Halpenny
Lorenz Leutgeb
Adrian Duke
Yaroslav Halchenko
Lorenz Leutgeb
