ReframeWeb reconciliation
Type: agentic-system-analyses/types/agentic-system-reconciliation-report.md
Reconciliation
Evidence and identity dispositions
The members share the frozen boundary and its Source register. This reconciliation uses the supplied members only; no source ambiguity required a further source read. Their implementation findings do not establish observed operation or causal benefit. The workflow declares no additional records and annotates existing runtime routes. No duplicate identity requiring supersession is established, and no Amendment is made. The containment and overlap decisions below rule out replacement rather than choose a preferred analyst's finding.
Request context and execution
MEM-RTE-context-reload and MEM-RTE-graph-selection are declared parts of RT-RTE-request-cycle, not duplicate invocations. The first identifies automatic collection/session supply; the second identifies requested graph retrieval, model ID selection and downstream project resolution. Their different selectors and delivery paths coexist. The enclosing route remains valid alongside these parts.
EPI-OBJ-task-input is the composed prompt value carried by that request route, not the request route itself. EPI-RTE-prompt-assembly isolates deterministic string packaging within it. Its preservation finding does not contradict the memory report's model-rewriting account: packaging preserves supplied strings, while semantic preservation by the composer remains unestablished. MEM-OBJ-session-memory and MEM-OBJ-context-memory are retained inputs, not alternative declarations of the transient composed prompt.
MEM-OBJ-instruction-memory names independent retained instruction bodies; MEM-BAP-linked-instructions names their delivery and advisory force at execution. Neither duplicates RT-RTE-model-task or RT-RTE-codex-task. Explicit instruction links can bypass graph relevance selection. This complements, rather than negates, the selected-context handoff described in the workflow account.
The workflow's annotations on the request and Codex routes refine the same identities without new declarations. Its failure-helper evidence shows that the accepted failed_execution parameter is not passed to the guidance model; the model instead receives summary-level information and earlier refusal text. This is compatible with the runtime's bounded retry/refinement account, not a correction of a claim that the full execution object reaches that model. Both accounts distinguish fresh ephemeral Codex execution from workspace reuse and distinguish bounded host return from task success.
History, completion and recovery
RT-OBJ-tool-attempt and MEM-OBJ-task-history are distinct objects: in-process authority/uncertainty state versus persisted tool outcomes. Their call and attempt identifiers connect them but do not make receipts an enforcement ledger or independently verified world truth.
MEM-RTE-history-summary is a declared part of RT-RTE-model-task, not a replacement. EPI-OBJ-output-summary is the later completion input, including failure text, with normal-summary and agent-feedback producers. A transformation route and its output object have different referents. The epistemic ledger's citation of the enclosing normal route for summary generation is compatible with the memory part declaration.
EPI-RTE-completion-check and EPI-RTE-completion-gate separate model judgment from deterministic disposition within RT-RTE-request-cycle. Neither supersedes the enclosing request loop. EPI-CLM-completion-evidence records the evaluator's compact-failure criterion; RT-CLM-agent-output records executor-output doctrine. Different criteria and producers rule out claim identity.
Runtime and workflow independently converge on executor-supplied Codex feedback rather than a second summary-model conversation. The epistemic report uses that same distinction. Their shared finding is compatible with the completion prompt's tolerance of uncertainty: PASS remains subject to null execution/summary failures, while neither PASS nor exhaustion authenticates all outcome assertions. Effects precede review; retry is not rollback. The source-native routing comment suggesting a second conversation is an implementation/comment discrepancy retained by runtime and workflow, not a disagreement between their findings.
Guidance review and alternative writers
EPI-OBJ-candidate-entry, EPI-RTE-guidance-check, EPI-RTE-guidance-disposition, and EPI-CLM-supported-guidance identify candidate content, review, admission and criterion inside RT-RTE-guidance-review. These declared parts do not invalidate their container. Candidate entries are not identical to MEM-OBJ-context-memory: the latter includes retained guidance and preferences with different or unresolved initial lineage; candidates are transient proposals whose selected text can enter five guidance collections.
The memory annotation supplies the title/description persistence and later MEM-RTE-context-reload consumer. Memory and epistemic independently inspect the bounded review interface and converge that candidate/stored text is supplied without a separate interaction trace or structured rejection argument. Runtime's proposal/admission finding does not require independent factual corroboration. Memory's qualifying trace-fed guidance architecture and epistemic's unestablished claim-level acceptance therefore are not conflicting statuses: they assess different properties. No concrete candidate or later behavior trace closes the stronger learning or factual-warrant conclusions.
The memory integration issues request no correction and identify no intentional duplicate. Their warning against generalizing model review is resolved by keeping MEM-RTE-node-curation, MEM-RTE-memory-migration, and MEM-RTE-project-locator distinct. These name browser/guarded edits, import/visibility migration, and verified/saved session-locator writes, respectively. None replaces guidance admission. Unresolved preference and pre-existing content authorship limits per-content human-control conclusions, not the known subsequent computational writes.
Checkpoints, Store testing and production change
MEM-OBJ-filesystem-memory, MEM-OBJ-workspace-store, and MEM-OBJ-instruction-memory identify graph locators, backing/recovery bytes and independent prose. These are distinct operative objects used by RT-RTE-saved-store, not competing declarations of its admission/activation route. Directory locators and checkpoint locators remain different source forms inside the memory account; directory registration is not an immutable checkpoint.
MEM-RTE-project-locator shares checkpoint production with the saved-Store route but has separate verification/save predicates and a session-memory consumer. That overlap does not establish identity with saved metadata CAS, startup membership or live activation. The memory annotation also distinguishes graph-before-outbox-acknowledgment publication from a global transaction encompassing locator creation and Store activation. This is compatible with runtime's partial-failure and recovery limits.
EPI-RTE-candidate-startup is the declared isolated-test part of the saved-Store container. EPI-OBJ-test-result names its emitted evidence, not production configuration. Epistemic's directly inspected startup/cleanup predicate fills the test detail runtime explicitly left open. Both retain that generic publication records caller verification text without a mandatory test-result gate. RT-RTE-application-publish has a separate matching-receipt predicate and also edits task prompts/grants and instruction links. Its stronger initial gate cannot be generalized to later graph edits or generic host publication, and receipt matching alone does not establish authentic successful acceptance.
RT-BAP-store-callback, RT-BAP-panel-import, and MEM-BAP-linked-instructions have different consumers and force: activation-bound guest checks, capability-checked native imports, and interpreted instruction prose. Shared Store/task participation does not establish identity or a universal task-tool/sandbox monitor.
Evidence acquisition and evaluation
EPI-OBJ-rendered-evidence and EPI-RTE-panel-evidence name visual/CDP evidence and its acquisition/retention/attachment chain. They are not the tool authority object or either complete execution route. The epistemic ledger separates functions without allocating replacement records. Its newest-eight image attachment rule and lossy preview finding coexist with memory's graph-context budgets: these are different selectors and channels, not conflicting global-budget findings.
MEM-CLM-selection-evaluation describes the relevance benchmark's expected-ID evaluator; EPI-RTE-benchmark-checks describes executable reference and prompt-shape checks across benchmark cases. They overlap in the relevance evaluator but are a claim and a multi-target checking route, not duplicate records. Epistemic's multiplicity-sensitive ID equality and structural-only prompt criterion add domain detail without changing the memory claim. Both separate benchmark oracles/report metrics from production admission and retain missing observed results and causal comparisons.
Conflicts and remaining integration limits
No unresolved disagreement between the supplied reports is established. No required undeclared part is identified by their connections above. No analyst correction answers or declined objections were supplied; none is presumed resolved or defective.
The remaining integration issues are compatible local limits, not conflicts: unresolved initial memory authorship; uninspected native cleanup, durability and application internal persistence; opaque provider/Codex state; missing concrete model outputs and downstream behavior; and missing causal comparisons. The memory limitations, epistemic coverage and limits, runtime account, and workflow account retain these with their prevented conclusions. A whole-system functional boundary does not turn the members' selective inspections into exhaustive implementation coverage. Their positive wiring findings remain separate from unestablished operation, warrant, compliance and benefit.