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Separate customer sessions help prevent cross-tenant context leakage, but isolation does not erase an already stored case when its owner requests deletion. Apply the organization's deletion and retention rules to saved session transcripts, checkpoints and linked artifacts, verifying authorized removal paths.

Persisting evidence summaries supports future task resumption, but it conflicts with a valid deletion request if old case context remains in checkpoint files. Apply retention and deletion controls to all saved session and attached artifact stores instead of retaining another copy for convenience.

Blindly repeating an uncertain external operation can duplicate side effects. Although useful elsewhere, it is not the direct mechanism to govern session retention and attached evidence.

A generic approval could belong to another review or an obsolete document version, and must not resume this compliance action. Bind approval to the exact pending review, document revision and authorized approver; otherwise a prior approval could accidentally authorize an unrelated change.

An approval token should be tied to the specific review version and the named approver, not treated as an unrestricted permission to resume any suspended work. If the content has changed while the agent was paused, revalidate that the approval still covers the proposed action before continuation.

A saved plan is only valid against the version it examined. The scenario instead requires a way to bind resume authorization to the correct review state.

Human-readable names are helpful, but stable unique keys prevent resuming the wrong investigation. The decisive requirement here is to isolate external side effects between forks.

Fork identifiers keep two experimental lines of work distinguishable, but do not prevent both from writing conflicting edits to the same infrastructure file. Use isolated branches or workspaces and require an explicit conflict-aware merge rather than allowing last-writer-wins integration.

Customer-scoped sessions prevent data leakage across separate clients, but these two forks already share an authorized task. The conflict is simultaneous modification of one file. Branch-local workspaces and merge preconditions control concurrent writes; tenant isolation alone cannot detect the overwrite.

Changing the operation identifier defeats deduplication and can cause a second write even if the first tool invocation already committed. The controller must inspect its saved transaction state and original correlation ID, then resume from the verified outcome. Only a proven safe retry should be attempted, preserving the original idempotency identity where applicable.

A resumed reasoning context does not freeze the outside world. This alternative does not establish how to reconcile interrupted tool transactions during resume in the stated workflow.

Session persistence creates retained state that must follow privacy and retention policy. Although useful elsewhere, it is not the direct mechanism to reconcile interrupted tool transactions during resume.

Applying edits to the old snapshot can overwrite changes made after the saved checkpoint. Fetch the current document revision, compare its content with the deferred patch, and resolve conflicts before committing. A successful earlier review is not authorization to ignore intervening edits.

Comparing the saved checkpoint with the current workspace is useful during a general agent resumption, but this case identifies a specific document whose revision has advanced. Re-read that document, compare its new version to the deferred changes, and resolve conflicts before applying an edit. A generic environment check without source-document reconciliation risks overwriting intervening changes.

A chat transcript alone may not prove which side effects committed. That addresses a different part of the system, not the requirement to resolve stale-document conflicts before continuation.

The decomposition graph identifies tasks that can run concurrently and the final task that depends on both. This alternative does not establish how to give editorial review its own enforceable work stage in the stated workflow.

Author-side declaration and syntax checks cannot replace independent factual review and approval. Syntax checks verify formatting, not source truth, legal clearance or required editorial approval. A publication gate must demand recorded audit artifacts from the authorized reviewer roles before allowing release.

Hierarchical decomposition can reserve expensive reasoning for cases that need it. The decisive requirement here is to give editorial review its own enforceable work stage.

A session fork enables controlled comparison without contamination between competing experiments. Here, an agent resumes a long task after interruption but loses accepted constraints. Persist a checkpoint containing goals, decisions, completed steps and pending work. Explicit state allows safe continuation without relying on a model to recreate lost conversational history.

Resume must be aware of durable external state or it can duplicate irreversible work. This is not a substitute for “Persist a checkpoint containing goals, decisions, completed steps and pending work”; that control is necessary in the stated circumstances. Explicit state allows safe continuation without relying on a model to recreate lost conversational history.

An explicit session ID targets the intended history instead of guessing which recent conversation to continue. Here, an agent resumes a long task after interruption but loses accepted constraints. Persist a checkpoint containing goals, decisions, completed steps and pending work. Explicit state allows safe continuation without relying on a model to recreate lost conversational history.

Resume must be aware of durable external state or it can duplicate irreversible work. The direct remedy is “Fork a session from the same checkpoint and keep subsequent trajectories independent”, which the alternative does not itself accomplish. A session fork enables controlled comparison without contamination between competing experiments.

An explicit session ID targets the intended history instead of guessing which recent conversation to continue. The required action is “Fork a session from the same checkpoint and keep subsequent trajectories independent”; the other measure addresses a separate concern. A session fork enables controlled comparison without contamination between competing experiments.

Lossy history compression is unsafe when critical requirements are not retained explicitly. Here, two experimental solutions must begin from identical prior decisions. Fork a session from the same checkpoint and keep subsequent trajectories independent. A session fork enables controlled comparison without contamination between competing experiments.

An explicit session ID targets the intended history instead of guessing which recent conversation to continue. Here, a resumed agent wants to rerun all completed side-effecting tools. Reconcile saved operation receipts and skip previously committed actions. Resume must be aware of durable external state or it can duplicate irreversible work.

Lossy history compression is unsafe when critical requirements are not retained explicitly. The required action is “Reconcile saved operation receipts and skip previously committed actions”; the other measure addresses a separate concern. Resume must be aware of durable external state or it can duplicate irreversible work.

Forked sessions intentionally diverge and require reconciliation before shared output is updated. This is not a substitute for “Reconcile saved operation receipts and skip previously committed actions”; that control is necessary in the stated circumstances. Resume must be aware of durable external state or it can duplicate irreversible work.

Lossy history compression is unsafe when critical requirements are not retained explicitly. Here, an operator needs to reopen a specific interrupted Claude Code run. Use session resumption with the preserved session identifier. An explicit session ID targets the intended history instead of guessing which recent conversation to continue.

Forked sessions intentionally diverge and require reconciliation before shared output is updated. The direct remedy is “Use session resumption with the preserved session identifier”, which the alternative does not itself accomplish. An explicit session ID targets the intended history instead of guessing which recent conversation to continue.

Safe resumption must distinguish a not-yet-executed operation from a completed operation with a lost acknowledgement. Here, an operator needs to reopen a specific interrupted Claude Code run. Use session resumption with the preserved session identifier. An explicit session ID targets the intended history instead of guessing which recent conversation to continue.

Forked sessions intentionally diverge and require reconciliation before shared output is updated. This is not a substitute for “Carry a durable, concise constraint summary into the continued context”; that control is necessary in the stated circumstances. Lossy history compression is unsafe when critical requirements are not retained explicitly.

Safe resumption must distinguish a not-yet-executed operation from a completed operation with a lost acknowledgement. Here, compaction removed an important original system constraint. Carry a durable, concise constraint summary into the continued context. Lossy history compression is unsafe when critical requirements are not retained explicitly.

Explicit state allows safe continuation without relying on a model to recreate lost conversational history. The direct remedy is “Carry a durable, concise constraint summary into the continued context”, which the alternative does not itself accomplish. Lossy history compression is unsafe when critical requirements are not retained explicitly.