Files
PaperClipAI/server/src/services/environment-run-orchestrator.ts
T
DottaandPaperclip 57e977be72 feat: integrate Pi 1.0 into the experimental Runner (#14921)
## Thinking Path

> - Paperclip manages AI agents and their work.
> - The experimental Runner owns provider processes and durable
sessions.
> - Pi needs working task execution and human controls.
> - The five-PR stack must preserve changes already on master.
> - Each layer now carries the complete integrated source for a safe
sequential fallback.
> - This PR belongs to native GitHub stack #15602, ending at #14956.

## Linked Issues or Issue Description

Refs #14436, #14631, #14743 and #14956.

Ship Pi 1.0 through the experimental Paperclip Runner. The five PRs are
#14921, #14922, #14923, #14924 and #14956. The user authorized the
complete merge after checks pass. Existing `pi_local` execution is
unchanged. Accounting and wider provider/platform qualification remain
deferred.

## What Changed

- Recover missing final replies after workspace finalization changes
owners, using accepted-turn evidence without rerunning work or granting
external-chat publication.
- Preserve the admitted Pi instruction root across warm runs, while
retaining changed-root rejection.
- Give Pi a bounded 15-second default shutdown grace so stop, drain
acknowledgement and durable suspension can complete. Explicit deadlines
and other providers retain their existing behavior.
- Integrate the Pi 1.0 runtime and master contracts.
- Use Pi profile 22. Preserve explicit caller-selected models and exact
native thinking levels. Keep Pi's wrapper, helper, extension and
question/control behavior unchanged from the qualified profile-19
runtime.
- Preserve master's Dot lifecycle and consent fields, configured task
environment, status guards and current Codex/Claude dependency versions.
Cursor stays qualified. Copilot stays pending; profile 17 binds the
changed shared protocol validation sources.
- Exclude general AWS IAM credentials from Pi static/custom provider
bindings and selected task projections; preserve the provider-scoped
Bedrock bearer key. Profile 21 is retained as historical provenance.
Rust and cloud install probes use the current declaration.
- Patch bundled brace-expansion 5.0.9 to the exact official 5.0.12
payload. Pin the patch and complete runtime closures. Include the patch
in normal installed setup tooling. Keep the upstream Pi shrinkwrap as
provenance and permit only this exact security correction.
- Include current attestation files in the Docker build context. Keep
the repository lockfile unchanged from master. CI and private image
builds resolve manifest changes before their frozen installation.

## Verification

- Full local `pnpm -r typecheck` passes, including Runner Rust, server
and UI. Focused integration checks pass: 194 Runner
admission/environment tests, 63 profile/credential tests with one
expected skip, 152 Dot/UI configuration tests, and Pi transcript/notice
tests.
- Full local `pnpm build` passes on the final source.
- Fresh final-source checks pass: all 698 Rust workspace tests (32
binaries), 156 credential/profile/controller tests with one expected
skip, Runner TypeScript typecheck, and 20 package/setup/sandbox tests.
- The profile-21 Pi materializer passes on the native host with the
official pinned Node 24.21.0 and its npm. It verifies all 150 locked
packages, the patched dependency and the exact closure. Setup/package
bundle tests and UI token gates pass.
- The old hashes were reproduced for all three supported targets before
calculating the patched graph. New closure hashes are darwin-arm64
`282022db10150c6632b3444df421342e7d534bdf5d5fb1097a2e79d0625a2bcf`,
darwin-x64
`64e251e19009f755c0b04f73ce2138246faab71a961b0f13d75ebfcc34bef12e`, and
linux-x64
`713b1fdff42fb56a1518bdc084f181d70bee8ebadc3e4b1d76321ed9108c8410`.
Independent native platform execution is separate from graph identity
reproduction.
- Historical cloud qualification remains unchanged: all seven core cases
pass on shipping source `10dc43c9ec65d88c2f782d62afb296d09494f215`,
harness `1a4408a48cfb5a1f094a311141c257c92cd7a893`, image
`sha256:5b3a775b383591bda1b0c1889e509acc70ce7f37c53f09733c81d59037f02280`,
and accepted Sonnet 4.6/low fixture. All 215 canonical files and all
seven cleanup checks pass independent verification. These are profile-19
results and are not relabeled as fresh profile-22 runs.
- Current Pi digest:
`sha256:e92078bee3c23bec4100aa589013a44613d054cd686826534025d8019e9f39a9`.
[The readiness
plan](https://github.com/paperclipai/paperclip/blob/codex/pi-production-readiness/doc/plans/2026-10-02-pi-production-readiness.md)
preserves campaign and failed-attempt provenance.
- Merge only after every PR's current-head CI and fresh review pass.
Linux CI covers the full suites, build and browser tests. The local
embedded Postgres API-authority suite cannot start on this macOS/Node 26
host, so Linux CI must confirm that suite.

### Fresh profile-22 core qualification — 2026-10-08

All seven accepted core cases pass canonically on Pi profile 22, with
`openrouter/anthropic/claude-sonnet-4.6` and native-confirmed low
thinking. This model is a fixture; production accepts the caller's
explicit Pi provider/model.

Runtime/install source: `3241a992f2a7703e59e97ed0fd3e5d6405de4401`.
Frozen accepted harness: `1a4408a48cfb5a1f094a311141c257c92cd7a893`.
Immutable cloud image:
`ghcr.io/paperclipai/paperclip-daytona-runner@sha256:506f22db7edd78f37c0c40bec1cc084af1850455026dbf467194bfbb8fcef141`.
Pi digest:
`sha256:e92078bee3c23bec4100aa589013a44613d054cd686826534025d8019e9f39a9`.

[Hosted Linux image and clean-install
verification](https://github.com/paperclipai/paperclip/actions/runs/37868328023)
passes, including all 20 source-bound archives, normal CLI/Pi setup,
companion import and the production pack reader. This exact installation
source includes the latest master integration and the corrected Pi warm
instruction-root fence. Full local typecheck/build and current-head
hosted CI verify the final stack. All 13 focused real-root regressions
pass. The full local executor suite passed 662 tests; 15 database tests
could not start the Mac embedded PostgreSQL service. Hosted Linux CI
passes the full required verification and E2E checks. These fresh
results keep their own source identity; profile-19 results remain
historical.

| Core path | Canonical campaign | Retained archive SHA-256 |
| --- | --- | --- |
| File edit, validation, download and Done |
`pi-core22-replyfix-0-1791511228` | 23 files;
`a473e8603a3dd4737863291f8d3d1e392391f0b16d433c3e0e0e9d8baf7a97b0` |
| Pending question and controller restart |
`pi-core22-replyfix-1-1791511376` | 33 files;
`6b829c4eb74e1f32a89c692a4ae7130dbfc1c6d3cf13915effe2103d9e242c8e` |
| Three-turn session/process/workspace continuity |
`pi-core22-replyfix-2-1791511587` | 23 files;
`7a87021f8f9a3fdd3c58bb4467f8d82c635e3ea4795d6e75f144d9aa14818df8` |
| Four typed questions and browser reconnects |
`pi-core22-replyfix-3-1791511881` | 42 files;
`9e31755252be1f4f9cb0626c984c142d4d1ae5f5bee3a7af08444db8d12c280a` |
| Plan approval and completion | `pi-core22-replyfix-4-1791512031` | 22
files;
`a0383ce1aab38e7b5a25ce0e9dd3bebea5c037ebd96ae6b29dae19015da2ae2c` |
| Same-turn steering and permission denial |
`pi-core22-replyfix-5-1791512261` | 39 files;
`c929b8c7070f0b66aedc17e65ca46e6beab1e363926ac9f7e2a75fb250f05949` |
| Stop during pending permission | `pi-core22-replyfix-6-1791512390` |
33 files;
`7f0a58ae0f4d5bfc76149435f4e322537089c5bd16e7ffe9b5ad71f10a621a07` |

All 215 canonical files (28714587 bytes) are independently
hash-verified. All seven cleanup grades pass, with no owned runtime
process or temporary root after each case. Automatic retries are zero.
The owned cloud host stopped normally after retention. The prior
profile-22 warm attempt remains failed and separately retained: archive
SHA-256
`1e54eba5ec72b50cee1534b23d1d1d4f21a090006b8a64501ba70db972abfde5`. Its
original canonical classification is preserved. Diagnosis reproduced a
product bug comparing an agent-files root against an unset
checkpoint-only field. The fix stores the admitted physical root
separately from the adopted per-run collection capability. The real-root
regression fails before the fix and passes afterward, including
rejection of a changed physical root. Fixture, grader, model and all
seven accepted case IDs are unchanged; this fresh campaign tests
final-reply publication after file registration first. The intermediate
restart attempt also remains failed and retained: archive SHA-256
`5dcaefdf1d17cf4cd54fd4cf810f45e736667392339b8ce7caf08bb4e225277f`. Its
original canonical classification is preserved. Pi resumed, wrote the
verified answer and completed its task; exact runner suspension was
proven, but idle stop consumed about 5.2s and left under 3s for the
drain acknowledgement. The Pi-only default shutdown grace is now 15s,
preserving a full 5s drain round trip and a finite suspension reserve.
Explicit caller deadlines, other provider defaults, literal drain
receipts and exact suspension identity checks remain unchanged. The
timing regression fails before this correction and passes afterward; all
18 focused settlement tests and Runner typecheck pass. The final-source
file attempt is also preserved as failed (`candidate_failure`), archive
SHA-256
`db6767b6773ea618997927ac77bdb005a5ac81492c7b9c0ffbc900449f829bc9`.
Native edit, validation, exact downloadable artifact and Done/succeeded
all passed, and the exact final reply was durably recorded. A workspace
recovery owner completed before the live heartbeat reached presentation,
leaving that reply absent from task chat. Recovery now materializes only
a completed final reply from the accepted turn of an ordinary internal
Done task, preserving issue/run/contract binding, suppression,
external-chat authorization and same-run deduplication. The database
regression covers the generated file-preparation receipt, suppression,
unapproved external continuation and replay. Server typecheck and all 49
response-selection tests pass; hosted Linux verifies the database
regression because embedded PostgreSQL cannot start on this Mac.

The delayed-final-answer database regression passes on [the final
root-source Linux server
shard](https://github.com/paperclipai/paperclip/actions/runs/37868262553/job/113628594152),
alongside 1,108 passing tests. The first root Runner shard had one
unchanged durable-resume test exceed its 5-second timeout; the identical
top-source shard and the isolated exact test passed. One rerun of that
failed job and its required aggregate passed without source or test
changes. The original failed job log and the single-rerun receipt remain
retained.

### October 9 merge verification

Current merge head: `5a8fe63512a7166aaef5cf50065a25008aa8b44b`. All
current-head checks pass, including `ci / verify` and `ci / e2e`;
exact-head Greptile review is 5/5 with no unresolved threads. Current
master conflicts are resolved. The user authorized the maintainer
override of the code-owner review gate after these checks. The seven
retained live core cases remain bound to source
`3241a992f2a7703e59e97ed0fd3e5d6405de4401` and its recorded cloud image.

## Risks

- The security correction changes the dependency closure and profile
identity. Old sessions must reopen on the new profile. Exact identities
and credential bindings fail closed.
- The runner remains experimental and requires explicit selection.
Legacy Pi Local is unchanged. Caller model IDs pass through; the E2E
model is a fixture.
- Accounting and the broad platform/provider matrix remain deferred.
This merge does not publish a release or deploy a service.

## Model Used

OpenAI GPT-6 through Codex assisted with reasoning, repository
inspection, editing and tool use. The exact serving ID and context
window are not exposed in this session. Final live qualification uses Pi
1.0.0 with `openrouter/anthropic/claude-sonnet-4.6` and native-confirmed
low thinking.

## Checklist

- [x] I have included a thinking path that traces from project context
to this change
- [x] I have specified the model used (with version and capability
details)
- [x] I have checked ROADMAP.md and confirmed this PR does not duplicate
planned core work
- [x] I have searched GitHub for duplicate or related PRs and linked
them above
- [x] I have either (a) linked existing issues with `Fixes: #` / `Closes
#` OR (b) described the issue in-PR following the relevant issue
template
- [x] I have not referenced internal/instance-local Paperclip issues or
links (only public GitHub `#NNN` / `github.com/paperclipai/paperclip`
URLs)
- [x] My branch name describes the change (e.g. `docs/...`, `fix/...`)
and contains no internal Paperclip ticket id or instance-derived details
- [x] I have run tests locally and they pass
- [x] I have added or updated tests where applicable
- [x] I have updated relevant documentation to reflect my changes
- [x] I have considered and documented any risks above
- [x] All Paperclip CI gates are green
- [x] Greptile is 5/5 with no open P2s, recommendations, or follow-ups
- [x] I will address all Greptile and reviewer comments before
requesting merge

---------

Co-authored-by: Paperclip <noreply@paperclip.ing>
2026-10-09 08:56:41 -05:00

698 lines
26 KiB
TypeScript

/**
* Centralized environment run orchestrator.
*
* Owns the full environment lifecycle for a heartbeat run:
* 1. Resolve selected environment
* 2. Validate environment is active and allowed
* 3. Acquire or resume lease
* 4. Realize workspace in the environment
* 5. Resolve execution target for the adapter
* 6. Release / retain / fail lease according to policy
* 7. Record activity and operator-visible status
*
* Heartbeat callers delegate to this service instead of inlining
* environment resolution, lease management, workspace realization,
* and transport logic.
*/
import type { Db } from "@paperclipai/db";
import type {
Environment,
EnvironmentLease,
EnvironmentLeasePolicy,
EnvironmentLeaseStatus,
ExecutionWorkspace,
ExecutionWorkspaceConfig,
IssueExecutionWorkspaceSettings,
} from "@paperclipai/shared";
import { resolveRunnerEnvironmentForRun } from "./runner-environment-lifecycle.js";
import { environmentService } from "./environments.js";
import {
environmentRuntimeService,
buildEnvironmentLeaseContext,
type EnvironmentRuntimeLeaseRecord,
type EnvironmentRuntimeService,
type ProviderResourceDisposition,
} from "./environment-runtime.js";
import { ENVIRONMENT_DRIVER_TRAITS } from "./environment-driver-traits.js";
import {
resolveEnvironmentExecutionTarget,
resolveEnvironmentExecutionTransport,
} from "./environment-execution-target.js";
import {
adapterExecutionTargetToRemoteSpec,
type AdapterExecutionTarget,
type AdapterRemoteExecutionSpec,
type AdapterWorkspaceRealization,
} from "@paperclipai/adapter-utils/execution-target";
import type { DuplexObservabilityRecorder } from "@paperclipai/adapter-utils/duplex-observability";
import { buildWorkspaceRealizationRequest } from "./workspace-realization.js";
import { executionWorkspaceService } from "./execution-workspaces.js";
import { logActivity } from "./activity-log.js";
import { logger } from "../middleware/logger.js";
import { parseObject } from "../adapters/utils.js";
import type { RealizedExecutionWorkspace } from "./workspace-runtime.js";
import type { PluginWorkerManager } from "./plugin-worker-manager.js";
// ---------------------------------------------------------------------------
// Error types
// ---------------------------------------------------------------------------
export type EnvironmentErrorCode =
| "environment_not_found"
| "environment_inactive"
| "unsupported_environment"
| "unsupported_adapter_environment"
| "probe_failed"
| "lease_acquire_failed"
| "workspace_realization_failed"
| "transport_resolution_failed"
| "lease_release_failed"
| "lease_cleanup_failed";
export class EnvironmentRunError extends Error {
code: EnvironmentErrorCode;
environmentId?: string;
driver?: string;
provider?: string;
cause?: unknown;
constructor(
code: EnvironmentErrorCode,
message: string,
details?: {
environmentId?: string;
driver?: string;
provider?: string;
cause?: unknown;
},
) {
super(message);
this.name = "EnvironmentRunError";
this.code = code;
this.environmentId = details?.environmentId;
this.driver = details?.driver;
this.provider = details?.provider;
this.cause = details?.cause;
}
}
// ---------------------------------------------------------------------------
// Orchestration result types
// ---------------------------------------------------------------------------
export interface EnvironmentAcquisitionResult {
environment: Environment;
lease: EnvironmentLease;
leaseContext: ReturnType<typeof buildEnvironmentLeaseContext>;
executionTransport: Record<string, unknown> | null;
}
export interface EnvironmentRealizationResult {
lease: EnvironmentLease;
workspaceRealization: Record<string, unknown>;
executionTarget: AdapterExecutionTarget | null;
remoteExecution: AdapterRemoteExecutionSpec | null;
persistedExecutionWorkspace: ExecutionWorkspace | null;
}
export interface EnvironmentReleaseResult {
released: EnvironmentRuntimeLeaseRecord[];
errors: Array<{ leaseId: string; error: unknown }>;
}
function firstNonEmptyLine(text: string | null | undefined): string | null {
if (!text) return null;
for (const rawLine of text.split(/\r?\n/)) {
const line = rawLine.trim();
if (line) return line;
}
return null;
}
function formatProvisionFailureDetail(result: {
exitCode: number | null;
signal?: string | null;
timedOut: boolean;
stdout: string;
stderr: string;
}): string {
if (result.timedOut) {
return "provision command timed out";
}
const signal = typeof result.signal === "string" && result.signal.trim().length > 0
? ` (signal ${result.signal.trim()})`
: "";
const detail = firstNonEmptyLine(result.stderr) ?? firstNonEmptyLine(result.stdout);
const status = `exit code ${result.exitCode ?? "null"}${signal}`;
return detail ? `${status}: ${detail}` : status;
}
// ---------------------------------------------------------------------------
// Service factory
// ---------------------------------------------------------------------------
export function environmentRunOrchestrator(
db: Db,
options: {
pluginWorkerManager?: PluginWorkerManager;
environmentRuntime?: EnvironmentRuntimeService;
} = {},
) {
const environmentsSvc = environmentService(db);
const executionWorkspacesSvc = executionWorkspaceService(db);
const environmentRuntime = options.environmentRuntime ?? environmentRuntimeService(db, {
pluginWorkerManager: options.pluginWorkerManager,
});
/**
* Resolve the selected environment for a run. The caller passes the concrete
* selected environment id plus the built-in local fallback id used to lazily
* ensure the local environment row exists.
*/
async function resolveEnvironment(input: {
companyId: string;
selectedEnvironmentId: string;
localEnvironmentId: string;
}): Promise<Environment> {
const environmentId = input.selectedEnvironmentId || input.localEnvironmentId;
const environment =
environmentId === input.localEnvironmentId
? await environmentsSvc.ensureLocalEnvironment(input.companyId)
: await environmentsSvc.getById(environmentId);
if (!environment) {
throw new EnvironmentRunError("environment_not_found", `Environment "${environmentId}" not found.`, {
environmentId,
});
}
if (environment.status !== "active") {
throw new EnvironmentRunError("environment_inactive", `Environment "${environment.name}" is not active (status: ${environment.status}).`, {
environmentId: environment.id,
driver: environment.driver,
});
}
return environment;
}
/**
* Acquire an environment lease for a heartbeat run.
* Wraps the runtime driver's acquire call with standardized error handling.
*/
async function acquireLease(input: {
companyId: string;
environment: Environment;
issueId: string | null;
agentId: string;
heartbeatRunId: string;
persistedExecutionWorkspace: Pick<ExecutionWorkspace, "id" | "mode"> | null;
executionWorkspaceSettings: IssueExecutionWorkspaceSettings | null;
adapterType: string | null;
}): Promise<EnvironmentRuntimeLeaseRecord> {
try {
return await environmentRuntime.acquireRunLease(input);
} catch (err) {
throw new EnvironmentRunError(
"lease_acquire_failed",
`Failed to acquire lease for environment "${input.environment.name}" (${input.environment.driver}): ${err instanceof Error ? err.message : String(err)}`,
{
environmentId: input.environment.id,
driver: input.environment.driver,
cause: err,
},
);
}
}
/**
* Resolve the execution transport for an adapter based on the acquired lease.
*/
async function resolveTransport(input: {
companyId: string;
adapterType: string;
environment: Environment;
leaseMetadata: Record<string, unknown> | null;
}): Promise<Record<string, unknown> | null> {
try {
return await resolveEnvironmentExecutionTransport({
db,
companyId: input.companyId,
adapterType: input.adapterType,
environment: input.environment,
leaseMetadata: input.leaseMetadata,
});
} catch (err) {
throw new EnvironmentRunError(
"transport_resolution_failed",
`Failed to resolve execution transport for "${input.environment.name}": ${err instanceof Error ? err.message : String(err)}`,
{
environmentId: input.environment.id,
driver: input.environment.driver,
cause: err,
},
);
}
}
/**
* Full acquisition flow: resolve environment, acquire lease, resolve transport.
* This is the primary entry point for heartbeat run setup.
*/
async function acquireForRun(input: {
companyId: string;
selectedEnvironmentId: string;
localEnvironmentId: string;
adapterType: string;
adapterConfig?: Record<string, unknown>;
admittedLifecycleMode?: "warm" | "per_turn";
issueId: string | null;
heartbeatRunId: string;
agentId: string;
persistedExecutionWorkspace: Pick<ExecutionWorkspace, "id" | "mode"> | null;
executionWorkspaceSettings: IssueExecutionWorkspaceSettings | null;
/** Existing live runner recovery must use its original active lease, including ephemeral leases. */
reattachRemoteLease?: { leaseId: string; providerLeaseId: string; remoteCwd: string };
}): Promise<EnvironmentAcquisitionResult> {
// Step 1: Resolve environment
const selectedEnvironment = await resolveEnvironment({
companyId: input.companyId,
selectedEnvironmentId: input.selectedEnvironmentId,
localEnvironmentId: input.localEnvironmentId,
});
const environment = resolveRunnerEnvironmentForRun(
selectedEnvironment, input.adapterType, input.adapterConfig, input.admittedLifecycleMode,
);
// Step 2: Acquire lease
const acquisitionInput = {
companyId: input.companyId,
environment,
issueId: input.issueId,
agentId: input.agentId,
heartbeatRunId: input.heartbeatRunId,
persistedExecutionWorkspace: input.persistedExecutionWorkspace,
executionWorkspaceSettings: input.executionWorkspaceSettings,
adapterType: input.adapterType ?? null,
};
let leaseRecord: EnvironmentRuntimeLeaseRecord;
if (input.reattachRemoteLease) {
// Reattachment is inspection of an already running sandbox, never a new
// acquisition or a lifecycle resume. Those paths can create a replacement
// when the admitted per-turn policy deliberately disables reusable leases.
const expected = input.reattachRemoteLease;
const lease = await environmentsSvc.getLeaseById(expected.leaseId);
if (!lease || environment.driver !== "sandbox" ||
lease.companyId !== input.companyId || lease.environmentId !== environment.id ||
lease.heartbeatRunId !== input.heartbeatRunId || lease.issueId !== input.issueId ||
lease.executionWorkspaceId !== (input.persistedExecutionWorkspace?.id ?? null) ||
lease.metadata?.agentId !== input.agentId || lease.status !== "active" ||
lease.releasedAt !== null || lease.cleanupStatus !== null ||
(lease.expiresAt !== null && new Date(lease.expiresAt).getTime() <= Date.now()) ||
lease.provider !== environment.config.provider || lease.providerLeaseId !== expected.providerLeaseId ||
lease.metadata?.remoteCwd !== expected.remoteCwd) {
throw new Error("native_remote_recovery_lease_mismatch");
}
leaseRecord = { environment, lease, leaseContext: buildEnvironmentLeaseContext(input) };
} else {
leaseRecord = await acquireLease(acquisitionInput);
}
// Step 3: Log lease acquisition activity
await logActivity(db, {
companyId: input.companyId,
actorType: "agent",
actorId: input.agentId,
agentId: input.agentId,
runId: input.heartbeatRunId,
action: "environment.lease_acquired",
entityType: "environment_lease",
entityId: leaseRecord.lease.id,
issueId: input.issueId,
details: {
environmentId: environment.id,
driver: environment.driver,
leasePolicy: leaseRecord.lease.leasePolicy,
provider: leaseRecord.lease.provider,
executionWorkspaceId: leaseRecord.leaseContext.executionWorkspaceId,
issueId: input.issueId,
networkEgress: input.executionWorkspaceSettings?.networkEgress ?? null,
},
});
// Step 4: Resolve execution transport
const executionTransport = await resolveTransport({
companyId: input.companyId,
adapterType: input.adapterType,
environment,
leaseMetadata: leaseRecord.lease.metadata,
});
return {
environment,
lease: leaseRecord.lease,
leaseContext: leaseRecord.leaseContext,
executionTransport,
};
}
/**
* Realize workspace in the environment and resolve the execution target.
*
* After lease acquisition, this method:
* 1. Builds a workspace realization request
* 2. Calls the environment runtime driver to realize the workspace
* 3. Persists realization metadata on the lease and execution workspace
* 4. Resolves the adapter execution target (local/ssh/sandbox)
*
* Returns the updated lease, realization metadata, and the execution
* target spec that the adapter needs to run.
*/
async function realizeForRun(input: {
environment: Environment;
lease: EnvironmentLease;
adapterType: string;
companyId: string;
issueId: string | null;
heartbeatRunId: string;
executionWorkspace: RealizedExecutionWorkspace;
effectiveExecutionWorkspaceMode: string | null;
persistedExecutionWorkspace: ExecutionWorkspace | null;
/**
* The host duplex observability recorder for this run. The orchestrator threads
* it to `resolveEnvironmentExecutionTarget`, which stamps it on the sandbox
* target. Absent keeps the safe no-op default in the bridge.
*/
duplexObservabilityRecorder?: DuplexObservabilityRecorder | null;
}): Promise<EnvironmentRealizationResult> {
const {
environment,
adapterType,
companyId,
issueId,
heartbeatRunId,
executionWorkspace,
effectiveExecutionWorkspaceMode,
} = input;
let { lease, persistedExecutionWorkspace } = input;
// Step 1: Build workspace realization request
const workspaceRealizationRequest = buildWorkspaceRealizationRequest({
adapterType,
companyId,
environmentId: environment.id,
executionWorkspaceId: persistedExecutionWorkspace?.id ?? null,
issueId,
heartbeatRunId,
requestedMode: persistedExecutionWorkspace?.mode ?? effectiveExecutionWorkspaceMode,
workspace: executionWorkspace,
workspaceConfig: persistedExecutionWorkspace?.config ?? null,
});
// Step 2: Realize workspace in the environment via the runtime driver
let workspaceRealization: Record<string, unknown> = {};
let realizedWorkspaceCwd: string | null = null;
if (ENVIRONMENT_DRIVER_TRAITS[environment.driver].realizesWorkspace) {
try {
const remoteCwd =
typeof lease.metadata?.remoteCwd === "string" && lease.metadata.remoteCwd.trim().length > 0
? lease.metadata.remoteCwd
: undefined;
const workspaceRealizationResult = await environmentRuntime.realizeWorkspace({
environment,
lease,
workspace: {
localPath: executionWorkspace.cwd,
remotePath: remoteCwd,
mode: persistedExecutionWorkspace?.mode ?? effectiveExecutionWorkspaceMode ?? undefined,
metadata: {
workspaceRealizationRequest,
},
},
});
realizedWorkspaceCwd =
typeof workspaceRealizationResult.cwd === "string" && workspaceRealizationResult.cwd.trim().length > 0
? workspaceRealizationResult.cwd.trim()
: null;
workspaceRealization = parseObject(workspaceRealizationResult.metadata?.workspaceRealization);
} catch (err) {
throw new EnvironmentRunError(
"workspace_realization_failed",
`Failed to realize workspace for environment "${environment.name}" (${environment.driver}): ${err instanceof Error ? err.message : String(err)}`,
{
environmentId: environment.id,
driver: environment.driver,
cause: err,
},
);
}
}
const provisionCommand = workspaceRealizationRequest.runtimeOverlay.provisionCommand?.trim() ?? "";
const realizedCwd =
realizedWorkspaceCwd ??
(typeof lease.metadata?.remoteCwd === "string" && lease.metadata.remoteCwd.trim().length > 0
? lease.metadata.remoteCwd.trim()
: executionWorkspace.cwd);
// The host `provisionCommand` runs on the host worktree during the
// `workspace_provision` step, before the run reaches the environment.
// A `sandbox`-driver environment does not receive the repo tree here. The
// sandbox driver `realizeWorkspace` step only creates the remote folder.
// The adapter uploads the provisioned tree later, in its `stage.sync` step.
// So the host command must not run inside the still-empty sandbox; it fails
// there (exit 127). Skip the step for `sandbox`, and keep the existing skip
// for `local`. Keep the step for `ssh`, which runs the command on the
// remote host that shares the workspace path.
const driverSkipsHostProvision =
environment.driver === "local" || environment.driver === "sandbox";
if (provisionCommand && environment.driver === "sandbox") {
logger.info(
{
environmentId: environment.id,
driver: environment.driver,
issueId,
heartbeatRunId,
},
"Skip host provisionCommand for sandbox-driver environment; the adapter stage.sync step delivers the provisioned tree",
);
}
if (provisionCommand && !driverSkipsHostProvision) {
try {
const provisionResult = await environmentRuntime.execute({
environment,
lease,
command: "bash",
args: ["-lc", provisionCommand],
cwd: realizedCwd,
env: {
SHELL: "/bin/bash",
},
timeoutMs: 300_000,
// The provision command runs before the run opens its trace root, so it
// carries no run parent. A sandbox provider that opens a persistent
// session on the first command must not open the session here, or the
// session-setup span loses its parent and the span backend drops it.
// Bypass the session for this command; the session opens on the first
// in-run command instead, whose setup span parents to the run trace.
bypassSession: true,
});
if (provisionResult.exitCode !== 0 || provisionResult.timedOut) {
throw new Error(formatProvisionFailureDetail(provisionResult));
}
} catch (err) {
throw new EnvironmentRunError(
"workspace_realization_failed",
`Failed to provision workspace for environment "${environment.name}" (${environment.driver}): ${err instanceof Error ? err.message : String(err)}`,
{
environmentId: environment.id,
driver: environment.driver,
cause: err,
},
);
}
}
// Step 3: Persist realization metadata on lease and execution workspace
if (Object.keys(workspaceRealization).length > 0) {
const nextLeaseMetadata = {
...(lease.metadata ?? {}),
workspaceRealization,
};
const updatedLease = await environmentsSvc.updateLeaseMetadata(lease.id, nextLeaseMetadata);
if (updatedLease) {
lease = updatedLease;
}
if (persistedExecutionWorkspace) {
const updatedEw = await executionWorkspacesSvc.update(persistedExecutionWorkspace.id, {
metadata: {
...(persistedExecutionWorkspace.metadata ?? {}),
workspaceRealizationRequest,
workspaceRealization,
},
});
if (updatedEw) {
persistedExecutionWorkspace = updatedEw;
}
}
}
// Step 4: Resolve execution target for the adapter
let executionTarget: AdapterExecutionTarget | null;
try {
executionTarget = await resolveEnvironmentExecutionTarget({
db,
companyId,
adapterType,
environment,
leaseId: lease.id,
leaseMetadata: (lease.metadata as Record<string, unknown> | null) ?? null,
lease,
environmentRuntime,
duplexObservabilityRecorder: input.duplexObservabilityRecorder ?? null,
});
const realizationMode = workspaceRealization.mode === "in_place" ? "in_place" : "copy";
const authoritativeRoot =
typeof workspaceRealization.authoritativeRoot === "string" && workspaceRealization.authoritativeRoot.trim().length > 0
? workspaceRealization.authoritativeRoot.trim()
: realizedCwd;
const workspaceTargetMetadata: AdapterWorkspaceRealization = {
mode: realizationMode,
authoritativeRoot,
pathAliases: Array.isArray(workspaceRealization.pathAliases)
? workspaceRealization.pathAliases.filter(
(entry): entry is { path: string; target: string } =>
typeof entry === "object" && entry !== null &&
typeof (entry as { path?: unknown }).path === "string" &&
typeof (entry as { target?: unknown }).target === "string",
)
: [],
outboundRestorePaths: Array.isArray(workspaceRealization.outboundRestorePaths)
? workspaceRealization.outboundRestorePaths.filter((entry): entry is string => typeof entry === "string")
: [],
};
if (executionTarget) {
executionTarget = {
...executionTarget,
...(executionTarget.kind === "remote" && realizationMode === "in_place"
? { remoteCwd: authoritativeRoot }
: {}),
workspaceRealization: workspaceTargetMetadata,
} as AdapterExecutionTarget;
}
} catch (err) {
throw new EnvironmentRunError(
"transport_resolution_failed",
`Failed to resolve execution target for "${environment.name}": ${err instanceof Error ? err.message : String(err)}`,
{
environmentId: environment.id,
driver: environment.driver,
cause: err,
},
);
}
return {
lease,
workspaceRealization,
executionTarget,
remoteExecution: adapterExecutionTargetToRemoteSpec(executionTarget),
persistedExecutionWorkspace,
};
}
/**
* Release all active leases for a heartbeat run.
* Tracks cleanup status per lease. Errors during individual lease release
* are captured but do not prevent other leases from being released.
* The original run failure (if any) is never hidden by cleanup errors.
*/
async function releaseForRun(input: {
heartbeatRunId: string;
companyId: string;
agentId: string;
status?: Extract<EnvironmentLeaseStatus, "released" | "expired" | "failed">;
failureReason?: string;
/** Explicit Stop during adapter startup; never used for ordinary cleanup. */
cancelActiveWork?: boolean;
/** Explicit paperclip_runner resource lifecycle. Omitted for legacy adapters. */
providerResourceDisposition?: ProviderResourceDisposition;
nativeLifecycleTelemetry?: {
provider: string;
harness: string;
lifecycleMode: "per_turn" | "warm";
sandboxResource:
| "keep_running"
| "stop_and_reuse"
| "destroy_after_turn";
};
}): Promise<EnvironmentReleaseResult> {
const status = input.status ?? "released";
const result: EnvironmentReleaseResult = { released: [], errors: [] };
let releasedLeases: EnvironmentRuntimeLeaseRecord[];
try {
releasedLeases = await environmentRuntime.releaseRunLeases(
input.heartbeatRunId,
status,
(leaseId, error) => result.errors.push({ leaseId, error }),
input.providerResourceDisposition,
...(input.cancelActiveWork ? [true] as const : []),
);
} catch (err) {
result.errors.push({ leaseId: "*", error: err });
return result;
}
for (const released of releasedLeases) {
try {
await logActivity(db, {
companyId: input.companyId,
actorType: "agent",
actorId: input.agentId,
agentId: input.agentId,
runId: input.heartbeatRunId,
action: "environment.lease_released",
entityType: "environment_lease",
entityId: released.lease.id,
issueId: released.lease.issueId,
details: {
environmentId: released.lease.environmentId,
driver: released.environment.driver,
leasePolicy: released.lease.leasePolicy,
provider: released.lease.provider,
executionWorkspaceId: released.lease.executionWorkspaceId,
issueId: released.lease.issueId,
status: released.lease.status,
cleanupStatus: released.lease.cleanupStatus,
failureReason: input.failureReason ?? released.lease.failureReason,
providerResourceDisposition:
input.providerResourceDisposition ?? "legacy_default",
},
});
} catch {
// Activity logging failure should not block lease release
}
result.released.push(released);
}
return result;
}
return {
resolveEnvironment,
acquireLease,
resolveTransport,
acquireForRun,
realizeForRun,
releaseForRun,
// Expose the underlying runtime for cases that need direct driver access
runtime: environmentRuntime,
};
}
export type EnvironmentRunOrchestrator = ReturnType<typeof environmentRunOrchestrator>;