Files
OpenShell/CONTRIBUTING.md
Roland Huss c5f8366cd3 feat(sdk/go): add Go SDK foundation, types, and sandbox client (A) (#2271)
* feat(sdk/go): add Go SDK foundation, types, and sandbox client (A)

Add the Go SDK module with the full API contract and a working sandbox
client as the first vertical slice. All other resource clients are present
as stubs returning Unimplemented errors, to be replaced with real
implementations in subsequent PRs.

Contents:
- Module setup (go.mod, Makefile, mise.toml)
- All domain types (types/ package)
- Full ClientInterface with all sub-client accessors
- Shared infrastructure (errors, auth, gRPC connection, logging)
- Sandbox client with converter and tests (fully functional)
- Stub clients for remaining resources (exec, file, health, provider,
  profile, config, refresh, policy, service, ssh, tcp)

Part of the Go SDK decomposition plan (#2270).
Implements #2044.

* fix(sdk/go): address review feedback on PR #2271

- Make scheme parsing drive transport selection: http:// uses plaintext
  gRPC, https:// or no scheme uses TLS. Add regression tests.
- Add Resources and DriverConfig fields to SandboxTemplate and update
  both converter directions (SandboxFromProto/SandboxSpecToProto).
- Regenerate proto bindings from current canonical proto sources to
  eliminate drift (SigV4/MCP fields, params matchers, reserved fields).
- Run gofmt/goimports on all handwritten Go files.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* fix(sdk/go): address principal engineer review findings

- Remove dead boolCount function that would fail golangci-lint (#1)
- Emit EventAdded for the first watch event instead of EventModified,
  matching k8s watch semantics (#7)
- Add mutex locking to all mock server methods that access the shared
  sandboxes map, fixing latent race conditions (#12)
- Skip HealthCheck integration test that calls an unimplemented stub (#13)
- Scope doc.go examples: mark sections for sub-clients not yet available
  in this PR with "available in a future release" (#4)
- Document Config.Timeout/RetryPolicy/Logger and WatchOptions fields
  as reserved for future use (#2, #6)

Signed-off-by: Roland Huß <rhuss@redhat.com>

* refactor(sdk/go): migrate mise config to centralized task include

Move Go SDK mise configuration from standalone sdk/go/mise.toml into
the project's centralized pattern:

- Add Go tools (go, golangci-lint, protoc-gen-go, protoc-gen-go-grpc)
  to root mise.toml [tools] section
- Create tasks/go.toml with all SDK tasks using go: namespace prefix
  and dir=sdk/go for working directory
- Update sdk/go/Makefile to reference namespaced task names
- Update proto:sync default path for monorepo layout

Addresses review feedback from drew on PR #2271 regarding mise
convention alignment.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* refactor(sdk/go): remove UPSTREAM_VERSION standalone repo artifact

Remove sdk/go/proto/UPSTREAM_VERSION file and its exclusion from
proto:check. This was a leftover from the standalone repo prototype.
In a monorepo, proto drift is detectable via git diff between
sdk/go/proto/ and proto/ directly.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* refactor(sdk/go): switch proto generation from protoc to buf

Replace raw protoc invocations with buf for Go SDK proto code generation,
aligning with the TS SDK approach (PR #2122).
- Add repo-level buf.yaml declaring proto/ as the buf module with lint
  and breaking change detection config
- Add sdk/go/buf.gen.yaml configuring buf to generate Go code directly
  from root proto/ (no more vendored .proto copies)
- Delete vendored .proto source files from sdk/go/proto/
- Rewrite go:proto:gen and go:proto:check mise tasks to use buf
- Remove go:proto:sync and go:proto:clean tasks (no longer needed)
- Add proto target to sdk/go/Makefile
- Add buf 1.72.0 to root mise.toml tool dependencies
- Include options.proto in generation (was stripped from vendored copies)
- Regenerate all .pb.go files via the new buf pipeline
Signed-off-by: Roland Huß <rhuss@redhat.com>

* test(sdk/go): add proto-converter field coverage detection

Use protobuf reflection to enumerate all fields on key proto messages
(SandboxSpec, SandboxTemplate, SandboxStatus, SandboxCondition,
SandboxPolicy) and compare against explicit handled/skipped sets in the
converter tests.

Unhandled fields produce warnings (t.Log), not failures, so proto
contributors are not forced to fix SDK converters in the same PR. Stale
entries in the handled set (removed proto fields) do fail, since they
indicate the converter references something that no longer exists.

A follow-up CI workflow will create GitHub issues when converter drift
lands on main.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* fix(sdk/go): bump Go to 1.26 and fix errcheck lint violations

The upstream go.mod now has `toolchain go1.26.4`, which requires Go 1.26
to build golangci-lint. Bump the mise.toml Go version from 1.25 to 1.26
and wrap deferred Close() calls in test helpers to satisfy errcheck.

Assisted-By: 🤖 Claude Code

* feat(sdk/go): add ObjectMeta fields (annotations, workspace, deletion_timestamp)

Add three new proto ObjectMeta fields to Sandbox and Provider domain
types: Annotations (map), Workspace (string), and DeletionTimestamp
(*time.Time). Update converters in both directions, deep-copy maps at
the proto/SDK boundary, and add TimeFromMillisPtr/MillisFromTimePtr
helper functions.

Assisted-By: 🤖 Claude Code

* chore(sdk/go): regenerate proto bindings after rebase

Pick up workspace fields from upstream PR #2445 (Wire authorization
into workspace model). All request messages now include workspace
parameter in the generated Go bindings.

Assisted-By: 🤖 Claude Code

* feat(sdk/go): add workspace scoping to all RPC interfaces

Add workspace parameter to every sandbox-scoped RPC method across all
interfaces (Sandbox, Exec, File, Service, SSH, TCP, Config, Policy,
Provider, Profile, Refresh). The workspace string is passed as the
second parameter after ctx, following the convention workspace then
resource-name.

Key changes:
- SandboxInterface: all 10 methods gain workspace parameter
- sandbox_client.go: passes Workspace field in every proto request
- ListOptions: add AllWorkspaces field for cross-workspace queries
- All stub interfaces updated to match new signatures
- All sandbox client tests updated with "default" workspace

Assisted-By: 🤖 Claude Code

* chore(sdk/go): remove coverage.out from tracking

Assisted-By: 🤖 Claude Code

* fix(sdk/go): address review feedback from mrunalp

- Add RefreshStrategyAWSStsAssumeRole to match proto enum value 6,
  fulfilling the "all domain types upfront" contract
- Wrap context.DeadlineExceeded and context.Canceled in StatusError
  so IsDeadlineExceeded() and IsCancelled() helpers work correctly
- Return error from mapToStruct/SandboxSpecToProto instead of silently
  discarding structpb.NewStruct failures on invalid template maps

Signed-off-by: Roland Huss <rhuss@redhat.com>

* fix(sdk/go): address remaining review items

- Wire go:ci into root ci task so SDK is tested in repository CI
- Fix gofmt formatting on converter files
- Add goimports to mise.toml tools
- Add coverage.out to .gitignore
- Add Go SDK section to AGENTS.md and CONTRIBUTING.md
- Add regression tests for context-error wrapping (IsDeadlineExceeded,
  IsCancelled) and invalid template map rejection
- Remove panic from SandboxToProto, return error instead

Signed-off-by: Roland Huss <rhuss@redhat.com>

* fix(sdk/go): pin goimports version and update lockfile

Pin goimports to 0.48.0 instead of "latest" and regenerate mise.lock
to include the new entry.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* fix(sdk/go): TLS.Insecure means skip-verify, not plaintext

Align TLS.Insecure semantics with the Rust SDK: Insecure: true now
uses TLS with InsecureSkipVerify (skip cert verification) instead of
switching to plaintext. Only the http:// scheme triggers plaintext.

This fixes token auth against dev/k3d gateways: StaticToken and
RefreshableToken require transport security, which real TLS (even
with InsecureSkipVerify) satisfies, but plaintext does not.

For http:// + token auth (dev gateways without TLS), wrap the auth
provider to override RequireTransportSecurity, matching the Rust
SDK's behavior where http:// accepts any auth mode.

Transport decision table (matches Rust SDK crates/openshell-sdk):
  http://  + any TLS config  -> plaintext (TLS config ignored)
  https:// + Insecure: true  -> TLS, skip cert verify
  https:// + Insecure: false -> TLS, full verification
  no scheme                  -> same as https://

Signed-off-by: Roland Huss <rhuss@redhat.com>

* feat(sdk/go): add missing policy proto fields

Add 6 previously silently dropped fields to the network policy types
and converters, preventing security-relevant data loss on round-trip:

NetworkEndpoint fields 19-23:
- CredentialSigning: SigV4 re-signing mode
- SigningService: AWS service name for SigV4
- SigningRegion: AWS region override for SigV4
- JsonRpcMaxBodyBytes: JSON-RPC body inspection limit
- Mcp: MCP-specific policy options (new McpOptions type)

L7Allow and L7DenyRule field 9:
- Params: MCP params matcher map for tools/call filtering

New type McpOptions with StrictToolNames and AllowAllKnownMcpMethods
optional booleans matching the proto definitions.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* fix(sdk/go): enforce coverage test and extend to policy messages

Change coverage_test.go from t.Logf (silent) to t.Errorf so that
unhandled proto fields fail the test immediately. Add coverage tests
for NetworkEndpoint (23 fields), L7Allow (8 fields), L7DenyRule
(8 fields), and McpOptions (2 fields).

Any new proto field that is not in the handled set or explicitly
skipped now breaks the build, closing the silent-drift gap.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* ci(sdk/go): add Go SDK job to branch-checks workflow

Add a Go SDK job to branch-checks.yml that runs mise run go:ci
(lint, build, test, proto-check, docs-check) on every PR. This
ensures the SDK is tested in CI, not just locally.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* fix(sdk/go): address should-fix review items

#6 Fix broken godoc examples: add workspace parameter to all method
   calls in doc.go that were broken after workspace scoping.

#7 Add Err field to Event[T]: Watch error events now carry the
   underlying error instead of discarding it.

#8 Separate Unauthenticated from PermissionDenied: add
   ErrorUnauthenticated code and IsUnauthenticated() helper. gRPC
   Unauthenticated (401) now maps to its own code instead of
   collapsing into PermissionDenied (403).

#9 Add Unwrap to StatusError: replace dead Details field with Cause
   error field. StatusError.Unwrap() returns Cause, enabling
   errors.Is/As unwrapping. FromGRPCError and contextError both
   populate Cause.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* ci(sdk/go): add go:format:check to CI pipeline

Add gofmt format verification to go:ci. Catches unformatted Go files
before they reach the PR. Fix formatting on coverage_test.go.

Signed-off-by: Roland Huss <rhuss@redhat.com>

* chore(sdk/go): remove Makefile in favor of mise tasks

All build, lint, test, and proto-gen tasks are already defined in
tasks/go.toml and invoked via mise. The Makefile was a leftover
that duplicated this and raised questions in review.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* feat(sdk/go): sync proto bindings and add credential handle support

Regenerate Go proto bindings after rebase to pick up new
CredentialHandle message and Provider.credential_handles and
profile_workspace fields from upstream. Add domain types, converter
support, and proto field coverage tests for Provider and
CredentialHandle.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* fix(sdk/go): reject plaintext auth leak and fix watch error handling

Reject http:// addresses when the auth provider requires transport
security instead of silently stripping the requirement. Remove the
insecureAuthWrapper that overrode RequireTransportSecurity.

Fix watch stream error handling: use blocking send for terminal
errors so they are never silently dropped when the channel is full,
and wrap mid-stream errors with converter.FromGRPCError so SDK error
helpers like IsUnavailable work on watch Event.Err.

Signed-off-by: Roland Huß <rhuss@redhat.com>

* fix(sdk/go): address review findings from multi-agent code review

- WaitReady now detects SandboxDeleting phase and returns immediately
  instead of polling indefinitely
- Watch goroutine defers streamCancel() to prevent context leaks
- Fix StopOnTerminal=false test to keep stream open (was wrong-reason
  pass due to stream ending, not StopOnTerminal logic)
- Add EventDeleted test covering the Deleting phase branch
- Add provider converter unit tests for CredentialHandle round-trip,
  nil handling, and empty maps

Signed-off-by: Roland Huß <rhuss@redhat.com>

---------

Signed-off-by: Roland Huß <rhuss@redhat.com>
Signed-off-by: Roland Huss <rhuss@redhat.com>
2026-08-05 20:25:44 +00:00

29 KiB

Contributing to OpenShell

OpenShell is built agent-first. We design systems and use agents to implement them. Your agent is your first collaborator — point it at this repo before opening issues, asking questions, or submitting code.

The Critical Rule

You must understand your code. Using AI agents to write code is not just acceptable, it's how this project works. But you must be able to explain what your changes do and how they interact with the rest of the system. If you can't, don't submit it.

Submitting agent-generated code without understanding it — regardless of how clean it looks — wastes maintainer time and will result in your PR being closed. Repeat offenders will be blocked from the project.

AI Usage

OpenShell is agent-first, not agent-only. The distinction matters:

  • Do use agents to explore the codebase, run diagnostics, generate code, and iterate on implementations.
  • Do use the skills in .agents/skills/ — they exist to make your agent effective.
  • Do interrogate your agent until you understand every edge case and interaction in your changes.
  • Don't submit code you can't explain without your agent open.
  • Don't use agents as a substitute for understanding the system. Read the architecture docs.

First-Time Contributors

We use a vouch system. This exists because AI makes it trivial to generate plausible-looking but low-quality contributions, and we can no longer trust by default.

  1. Open a Vouch Request discussion.
  2. Describe what you want to change and why.
  3. Write in your own words. AI-generated vouch requests will be denied.
  4. A maintainer will comment /vouch if approved.
  5. Once vouched, you can submit pull requests.

If you are not vouched, any pull request you open will be automatically closed. Org members and collaborators with push access bypass this check.

Finding Work

Issues labeled good first issue are scoped, well-documented, and friendly to new contributors. Start there. If you need guidance, comment on the issue.

An open issue is not necessarily accepted or ready to be worked on. Human contributors should look for state:accepted, good first issue, or help wanted, or ask a maintainer before starting. Unattended agents additionally require the appropriate human-applied agent:* request label; an agent directly asked to work on a specific issue does not. Roadmap placement describes sequencing and does not authorize work.

Before You Open an Issue

This project ships with agent skills that can diagnose problems, explore the codebase, generate policies, and walk you through common workflows. Before filing an issue:

  1. Clone the repo and point your coding agent at it.
  2. Load the relevant skill - debug-openshell-cluster for gateway or deployment problems, debug-inference for inference setup problems, openshell-cli for usage questions, generate-sandbox-policy for policy help.
  3. Have your agent investigate. Let it run diagnostics, read the architecture docs, and attempt a fix.
  4. If the agent cannot resolve it, open an issue with the agent's diagnostic output attached. The issue template requires this.

When to Open an Issue

  • A real bug that your agent confirmed and could not fix.
  • A feature proposal with a design — not a "please build this" request.
  • An infrastructure problem that the gateway deployment troubleshooting skill could not resolve.
  • An inference setup problem that the debug-inference skill could not resolve.
  • Security vulnerabilities must follow SECURITY.md — not GitHub issues.

When NOT to Open an Issue

  • Questions about how things work — your agent can answer these from the codebase and architecture docs.
  • Configuration problems - your agent can diagnose these with openshell-cli, debug-openshell-cluster, and debug-inference.
  • "How do I..." requests — the skills cover CLI usage, policy generation, TUI development, and more.

Agent Skills for Contributors

Skills live in .agents/skills/. Your agent's harness can discover and load them natively. Here is the full inventory:

Category Skill Purpose
Getting Started openshell-cli CLI usage, sandbox lifecycle, provider management, BYOC workflows
Getting Started debug-openshell-cluster Diagnose gateway deployment and health issues
Getting Started debug-inference Diagnose inference.local, host-backed local inference, and direct external inference setup issues
Contributing create-spike Investigate a problem, produce a structured GitHub issue
Contributing create-rfc Create RFC proposals from the repository template
Contributing build-from-issue Plan and implement work from a GitHub issue (maintainer workflow)
Contributing create-github-issue Create well-structured GitHub issues
Contributing create-github-pr Create pull requests with proper conventions
Reviewing review-github-pr Summarize PR diffs and key design decisions
Reviewing review-security-changes Review code changes for security vulnerabilities and boundary regressions
Reviewing review-security-issue Assess security issues for severity and remediation
Reviewing fix-security-issue Implement an approved security remediation plan
Reviewing watch-github-actions Monitor CI pipeline status and logs
Reviewing launch-openshell-gator Launch and supervise OpenShell gator agents for issue and PR monitoring
Reviewing test-release-canary Dispatch and iterate on the Release Canary workflow that smoke-tests published artifacts
Triage triage-issue Assess, classify, and route community-filed issues
Platform generate-sandbox-policy Generate YAML sandbox policies from requirements or API docs
Platform helm-dev-environment Start and manage the local Kubernetes development environment
Platform tui-development Development guide for the ratatui-based terminal UI
Documentation update-docs Scan recent commits and draft doc updates for user-facing changes
Maintenance sync-agent-infra Detect and fix drift across agent-first infrastructure files
Reference sbom Generate SBOMs and resolve dependency licenses

Workflow Chains

Skills connect into pipelines. Individual skill files don't describe these relationships.

  • Community inflow: triage-issue → human disposition and roadmap placement → create-spike when needed → build-from-issue
  • Internal development: create-spike → human disposition and roadmap placement → build-from-issue
  • Security: review-security-issue → fix-security-issue
  • Policy iteration: openshell-cli → generate-sandbox-policy

Issue Lifecycle, Roadmap, and Agent Work

OpenShell separates technical assessment, roadmap decisions, sequencing, and agent delegation.

An open issue is not automatically accepted or ready for implementation. Check its state:* label before starting work, and ask a maintainer when its status is unclear.

The Four Decisions

Each issue can require four independent decisions:

Decision Question Recorded by
Assessment Is the report technically valid, and is there enough evidence to act on it? state:*
Disposition Should OpenShell pursue the work? state:accepted or closure as not planned
Sequencing Where does accepted work sit relative to everything else? Placement on the OpenShell Roadmap
Ownership Will a human implement the issue, will a user directly instruct an agent, or will a maintainer queue it for an unattended agent? Direct instruction or optional agent:* workflow

Completing one decision does not imply the others. state:validated confirms that the factual assessment is complete, but it does not mean the project has accepted the work. Roadmap placement communicates sequencing, but it does not authorize an agent to begin.

Who Controls Each Decision

Agents investigate issues, collect evidence, and report technical findings. Humans retain the product and investment decisions.

Action Who performs it
Assess technical validity and impact Triage agent or human triager
Request missing evidence Triage agent or human triager
Mark the assessment complete with state:validated Triage agent or human triager
Accept or decline the work Maintainer
Place the issue on the roadmap or move it Maintainer
Directly request an agent plan User
Queue an agent plan with agent:plan-requested Maintainer
Produce a plan, implement it, and open a pull request Agent
Directly request agent implementation User
Queue approved implementation with agent:implementation-requested Maintainer

Agents do not apply state:accepted, place issues on the roadmap, or apply agent:plan-requested or agent:implementation-requested.

Issue State

The state:* namespace records the issue's disposition for all contributors, regardless of who might implement it.

State Meaning Normal next action
state:triage-needed The issue has not been assessed. New issues from users without repository write access receive this automatically. Investigate the report and record the result.
state:needs-info The assessment needs specific evidence or reproduction details. The reporter or another contributor supplies the requested information.
state:validated The factual assessment is complete. A maintainer accepts the issue, declines it, or asks for more evidence.
state:accepted A maintainer decided that OpenShell should pursue the issue. A human may implement it, or a maintainer may delegate work to an agent.

Keep one of these states on an open issue. When new evidence resolves a state:needs-info request, reassess the issue and move it to state:validated if the evidence is sufficient.

state:stale is an inactivity marker, not a lifecycle decision. Accepted issues and issues awaiting human disposition are exempt from stale handling. An issue in state:needs-info can become stale if no new evidence arrives.

Assessing an Incoming Issue

Triage checks the report, its diagnostic evidence, related issues, current releases, and the relevant code paths. The assessment ends in one of these outcomes:

Outcome State or resolution
A bug is confirmed. Replace the intake state with state:validated.
A feature proposal is technically coherent and feasible. Replace the intake state with state:validated.
The report is credible but needs a deeper investigation or spike. Add the spike label when available and use state:validated so a human can decide whether to invest in the investigation.
Critical evidence is missing, or a faithful attempt cannot reproduce the problem. Use state:needs-info and request the exact evidence needed.
A released change already fixes the behavior. Explain the fix and version. Close the issue only when the causal link is clear; otherwise request a retest.
Another issue is the canonical report. Link the canonical issue and close the duplicate.
The behavior is expected or caused by unsupported configuration. Explain the finding and close the issue with the appropriate GitHub reason.
The report describes a security vulnerability. Stop public triage and follow the private process in SECURITY.md.

Triage establishes facts and impact. It does not decide whether the project should spend time on the work.

Human Disposition

When an issue reaches state:validated, a maintainer chooses one of three paths:

  • Accept: replace state:validated with state:accepted and place it on the roadmap.
  • Decline: close it as not planned and record the rationale.
  • Await more evidence: replace state:validated with state:needs-info and leave it off the roadmap.

Do not use state:accepted as shorthand for technical validity, roadmap sequencing, or agent authorization. It records only the human decision that OpenShell should pursue the work.

Roadmap

OpenShell does not use priority labels. Sequencing comes from the OpenShell Roadmap: a maintainer associates an accepted issue with a roadmap item, and the roadmap item's own timing carries the urgency. Issues tracked on the roadmap carry the roadmap label.

An accepted issue with no roadmap association is real work the project intends to do, but it is not scheduled. Ask a maintainer before starting on one.

Roadmap placement does not assign an owner. A roadmap issue still needs a human contributor, a direct user instruction to an agent, or an unattended-agent queue label.

good first issue and help wanted describe contributor suitability, not sequencing.

Human or Agent Ownership

A human contributor may implement an accepted issue without any agent:* label. Before starting, check for an assignee, linked pull request, active branch, or comment that shows someone else is already working on it.

Maintainers use the agent:* workflow to queue work for always-on or unattended agents that scan issues. Keep exactly one agent-workflow label on the issue at a time. When a user directly asks an agent to plan or implement a specific issue, that instruction authorizes the requested phase and the corresponding request label is not required.

Agent workflow Applied by Meaning
agent:plan-requested Maintainer Ask an agent to produce an implementation plan.
agent:plan-ready Agent The plan is ready for human review.
agent:implementation-requested Maintainer The plan is approved and an agent may implement it.
agent:in-progress Agent Authorized implementation is underway.
agent:pr-opened Agent The implementation produced a pull request.

The normal delegated workflow is:

state:accepted
  |
  +-- agent:plan-requested
        |
        +-- agent:plan-ready
              |
              +-- agent:implementation-requested
                    |
                    +-- agent:in-progress
                          |
                          +-- agent:pr-opened

agent:plan-requested authorizes an unattended agent to pick up planning, not implementation. agent:implementation-requested confirms that a human reviewed the plan and authorizes an unattended agent to pick up implementation. Agents never apply either request label. Planning authority does not imply implementation authority.

Spikes

Use a spike when the report is credible but technical uncertainty prevents a buildable plan. The triage assessment should identify the unknowns and the evidence the spike needs to produce.

A maintainer first decides whether OpenShell should invest in the investigation. If accepted, the maintainer places it on the roadmap and may request agent work. The spike records its findings in an issue and uses:

  • state:validated when the evidence supports a human accept or decline decision.
  • state:needs-info when material evidence or an external decision is still missing.

A completed spike does not automatically authorize implementation. The resulting issue follows the same human disposition process.

Security Issues

Do not file or discuss suspected vulnerabilities in a public GitHub issue. Follow the disclosure instructions in SECURITY.md.

Maintainers use the specialized security review and remediation workflow for an authorized security issue. For unattended processing, it uses the same queue controls:

  1. A maintainer applies agent:plan-requested to request a security review and remediation plan.
  2. The review agent replaces it with agent:plan-ready.
  3. A maintainer reviews the plan and applies agent:implementation-requested.
  4. The remediation agent implements the approved plan.

A user may instead directly request review or remediation from the specialized skill. The direct request replaces the corresponding queue label, but a request for review still does not authorize remediation. General implementation agents do not process issues labeled topic:security.

When an Issue Is Ready for Work

You are Ready when
A human contributor The issue has state:accepted, invites contribution or has maintainer confirmation, and has no conflicting owner or implementation.
An unattended agent scanning for planning work The issue has state:accepted and the human-applied agent:plan-requested label.
An unattended agent scanning for implementation work The issue has state:accepted, an approved plan, and the human-applied agent:implementation-requested label.
An agent directly instructed by a user The issue has state:accepted, no conflicting owner or implementation, and the instruction explicitly requests the phase the agent will perform.

Issues with state:triage-needed, state:needs-info, or state:validated are not ready for implementation. Roadmap placement alone never makes an issue ready.

Stale Issues

Inactive issues and pull requests are automatically labeled state:stale after 14 days without activity. Automated closing is currently disabled. Comment on the item or remove state:stale to keep it active. Issues awaiting triage or human disposition, accepted issues, active agent workflows, and roadmap issues are exempt. state:needs-info may become stale when no new evidence arrives.

Prerequisites

Install mise. This is used to set up the development environment.

# Install mise (macOS/Linux)
curl https://mise.run | sh

After installing mise, activate it with mise activate or add it to your shell.

Shell setup examples:

# Bash
echo 'eval "$(~/.local/bin/mise activate bash)"' >> ~/.bashrc

# Fish
echo '~/.local/bin/mise activate fish | source' >> ~/.config/fish/config.fish

# Zsh
echo 'eval "$(~/.local/bin/mise activate zsh)"' >> ~/.zshrc

Project requirements:

  • Rust 1.90+
  • Python 3.11+
  • Docker (running)
  • Z3 solver library (for the policy prover crate)

Optional: Bazel (experimental)

Install Bazelisk, which auto-downloads the Bazel version pinned in .bazelversion:

# macOS
brew install bazelisk

# npm (any platform)
npm install -g @bazel/bazelisk

Bazel builds Z3 from source, so no system Z3 installation is needed when using Bazel. If you have previously built with Cargo, add Cargo's output directory to .bazelignore to prevent conflicts:

echo "target" >> .bazelignore

macOS build tools

Install Apple Command Line Tools before building locally:

xcode-select --install

If Cargo fails while building protobuf-src with an error such as fatal error: 'utility' file not found, fatal error: 'cstdlib' file not found, or A compiler with support for C++11 language features is required, your Command Line Tools install may not expose the libc++ headers on the compiler's default include path. Reinstall Command Line Tools to correct the error:

sudo rm -rf /Library/Developer/CommandLineTools
xcode-select --install

Z3 installation

The openshell-prover crate links against the system Z3 library via pkg-config.

# macOS
brew install z3

# Ubuntu / Debian
sudo apt install libz3-dev

# Fedora
sudo dnf install z3-devel

If you prefer not to install Z3 system-wide, you can compile it from source as a one-time step:

cargo build -p openshell-prover --features bundled-z3

Getting Started

# One-time trust
mise trust

# Run a standalone gateway for local development
mise run gateway

Building the openshell CLI

Inside this repository, openshell is a local shortcut script at scripts/bin/openshell. The script will

  1. Build openshell-cli if needed.
  2. Run the local debug CLI binary under target/debug/openshell.

Because mise adds scripts/bin to PATH for this project, you can run openshell directly from the repo.

openshell --help
openshell sandbox create -- codex

Rust build cache

Mise preserves an existing SCCACHE_DIR so each environment can choose where to store compiler cache entries. When SCCACHE_DIR is unset, OpenShell uses the worktree-local .cache/sccache directory. To make cache entries available to multiple worktrees on a workstation, set the variable to a user-level directory before activating mise. For example:

export SCCACHE_DIR="$HOME/.cache/openshell/sccache"

CI can select a different directory or configure a remote sccache backend without changing the workstation setting. Cargo output remains in each worktree's target/ directory.

OpenShell does not set SCCACHE_BASEDIRS. Sccache loads base directories when its machine-local daemon starts, but the correct workspace root differs for each worktree. Cache reuse therefore depends on the compiler inputs: outputs that embed absolute paths, including Rust dependencies in some builds, can still miss across worktrees.

Main Tasks

These are the primary mise tasks for day-to-day development:

Task Purpose
mise run gateway Run a standalone gateway for local development
mise run sandbox Create or reconnect to the dev sandbox
mise run test Default test suite
mise run e2e Default end-to-end test lane
mise run ci Full local CI checks (lint, compile/type checks, tests)
mise run docs Validate Fern docs locally
mise run helm:docs Regenerate the Helm chart README
mise run clean Clean build artifacts

Bazel targets (experimental)

Important

Bazel support is experimental and under evaluation via RFC 0012. It may be removed at any time depending on the RFC outcome. Feedback is welcome: open an issue or find us on CNCF Slack in #openshell-dev.

The following Bazel commands are available alongside the mise tasks above. Cargo and mise remain the primary build system.

Task Bazel command Notes
Build everything bazel build //... All crates and protos
Run all tests bazel test //... Unit tests only, no E2E
Build the CLI bazel build //crates/openshell-cli:openshell
Build the gateway bazel build //crates/openshell-server:openshell-gateway
Build the supervisor bazel build //crates/openshell-sandbox:openshell-sandbox-bin
Clean bazel clean

Bazel does not yet cover mise run gateway, mise run sandbox, mise run e2e, mise run docs, or mise run helm:docs. Those are runtime and infrastructure tasks that remain with mise. Additional Bazel targets will be added over time as the experiment progresses.

Project Structure

Path Purpose
crates/ Rust crates
python/ Python SDK and bindings
sdk/go/ Go SDK (types, gRPC clients, converters)
proto/ Protocol buffer definitions
tasks/ mise task definitions and build scripts
deploy/ Dockerfiles, Helm chart, Kubernetes manifests
docs/ Published Fern docs source, navigation, and content assets
fern/ Fern site config, components, and theme assets
architecture/ Architecture docs and plans
rfc/ Request for Comments proposals
.agents/ Agent skills and persona definitions

RFCs

New features always start as GitHub issues using the feature request template. For cross-cutting architectural decisions, API contract changes, or process proposals that need broad consensus, maintainers may ask for an RFC from the issue and assign an RFC number there. RFCs live in rfc/. See rfc/README.md for the full lifecycle and guidelines.

Documentation

If your change affects user-facing behavior (new flags, changed defaults, new features, bug fixes that contradict existing docs), update the relevant pages under docs/ in the same PR and adjust docs/index.yml if navigation changes. For explicit navigation entries, keep page: aligned with sidebar-title when present and put relative slug: values in docs/index.yml. Reserve frontmatter slug for folder-discovered pages or absolute URL overrides.

To ensure your doc changes follow NVIDIA documentation style, use the update-docs skill. It scans commits, identifies doc pages that need updates, and drafts content that follows the style guide in docs/CONTRIBUTING.mdx.

To preview Fern docs locally:

mise run docs:serve

To run non-interactive validation:

mise run docs

PRs that touch docs/** or fern/** are validated by .github/workflows/branch-docs.yml, and they get a preview when FERN_TOKEN is available to the workflow.

Fern docs publishing is handled by the publish-fern-docs job in .github/workflows/release-tag.yml when a release tag is created.

docs/ is the source-of-truth docs tree. fern/ contains the site config, components, and theme assets that publish those pages.

See docs/CONTRIBUTING.mdx for the current docs authoring guide.

Pull Requests

  1. Create a feature branch from main.
  2. Make your changes with tests.
  3. Run mise run ci to verify.
  4. Open a PR using the create-github-pr skill or manually following the PR template.

PRs for new features, user-visible behavior changes, public API changes, architecture changes, or multi-PR efforts must link an accepted issue. Small documentation fixes, mechanical maintenance, and obvious localized bug fixes may omit a separate issue when the PR contains enough context to review the decision and implementation together.

In the PR's Related Issue section, use Fixes #NNN or Closes #NNN when an issue is required. For an exempt change, write No issue required: followed by a brief reason. Security fixes follow the private disclosure process in SECURITY.md.

Commit Messages

This project uses Conventional Commits. All commit messages must follow the format:

<type>(<scope>): <description>

[optional body]

[optional footer(s)]

Types:

  • feat - New feature
  • fix - Bug fix
  • docs - Documentation only
  • chore - Maintenance tasks (dependencies, build config)
  • refactor - Code change that neither fixes a bug nor adds a feature
  • test - Adding or updating tests
  • ci - CI/CD changes
  • perf - Performance improvements

Examples:

feat(cli): add --verbose flag to openshell run
fix(sandbox): handle timeout errors gracefully
docs: update installation instructions
chore(deps): bump tokio to 1.40

DCO

All human contributions must include a Signed-off-by line in each commit message. This certifies you have the right to submit the work under the project license. See the Developer Certificate of Origin. Dependabot-authored dependency update PRs are allowlisted because the bot cannot sign commits.

git commit -s -m "feat(sandbox): add new capability"

DCO sign-off is separate from cryptographic commit signing. CI requires signing for org members so that copy-pr-bot can mirror your PR automatically; see CI.md for setup.

CI

How PR CI runs, the test:e2e, test:e2e-gpu, and test:e2e-kubernetes labels, copy-pr-bot, and commit-signing setup are documented in CI.md.