#!RFC-AI/2;id=38;draft=7;v=0.7.0;status=draft;lang=en;dir=auto;theme=chatgpt-mono;sha256=30b5620b76b8ee9cc0c91557c8bda89c49a96da1e671743f3ccf0f6ecaf7300b
For easier reading, view RFC-AI documents using RFC-AI Reader software.

RFC-AI 38 — EFFICIENT OPERATIONS AND VERIFIED STORAGE SAVES
STATUS: DRAFT FOR CEO REVIEW — NOT AN ACTIVE STANDARD OR DEPLOYED SERVICE
VERSION: Draft 7 | DATE: 2026-11-02 UTC | AUTHOR: FOUNDER
SCOPE: Human and AI corporate workflows; corporate storage adapters, cloud connectors, gateway, browser clients, worker contact interface, audit and release evidence.
RELATED: RFC-AI 1 (format), 4 (continuity), 5 (research receipts), 9 (governance), 28 (current CEO direction), 31 (Deterministic AI), 32 (execution authorization), 33–37 (identity, source, continuity, context, provider profiles).

ABSTRACT
Prevent repeated excessive cloud operations, unwarranted latency and human interruption by making efficient direct execution and independently verified saves a framework capability rather than an AI's discretionary habit. A worker requests one authorized save and receives a storage-interface verification receipt. Do not force 76 repeated readbacks because 76 files were edited: verify each changed file via provider-returned hash when available, and fall back only where proof is absent or inconsistent. Speed is never grounds to bypass identity, authorization, concurrency protection, source fidelity or CEO release authority.

1. FOUNDATIONAL PRINCIPLES AND DEFINITIONS
1.1 EFFECTIVE OPERATION: the smallest reliable set of source-grounded, authorized actions that reaches and verifies the user's intended result without needless delay or human steps. Deep research is proportionate and reusable. DAVG finds actual risks, not a quota of tests.
1.2 WORKER: caller who selects an authorized objective and requests changes. STORAGE INTERFACE: trusted, authenticated code performing actual provider operations. PROVIDER: authoritative storage service. Independent digest: content hash calculated by the provider from bytes it actually stored, or by a separate trusted server component from independently retrieved stored bytes; NEVER an unvalidated echo of the client hash.
1.3 Canonical source remains the exact pre-existing authorized Drive file ID and parent, without staging/duplicate production source. Derived test artifacts, receipt evidence and backups follow separate explicitly authorized preservation paths; no shadow authoritative files.
1.4 This RFC describes executable contracts and acceptance criteria, not an already implemented validator. Only CEO approval can adopt the standard; only runtime evidence can prove enforcement coverage.

2. FAST-PATH DEFAULT FOR ALL WORKERS
2.1 Before a task, identify actual authorized final result, known exact target and current revision, possible reusable research receipts and relevant evidence. Reuse previously verified source IDs, objective/DA records, provider profiles and documented fixes; refresh when material facts change, not ritualistically.
2.2 Execute the authorized result directly. Batch independent requests when supported, appropriate to the provider and permission boundaries. Do not create local staging/deployment alternatives or invent multiple preparatory phases against the CEO's direction.
2.3 A successful verified storage-interface response closes the routine file-save verification obligation. Workers MUST NOT initiate an additional whole-file download, parent-directory inventory or repeated hash check solely to reassure themselves. A mismatch, unknown proof, conflict or new consequential risk requires a targeted inspection, not an unconditional full-system scan.
2.4 Record useful operation counts and elapsed time; a repeated request of unchanged data without stated need is a cost defect. Budget proportional effort but never suppress necessary safety, security or correctness checks. Prefer data-driven diagnostics only upon observed failure. Avoid arbitrary fixed performance thresholds as universal failure gates.
2.5 If a provider API does not support batching, independently authorized parallel operations may run concurrently with bounded concurrency, backoff and rate-limit respect. Do not retry rate-limited operations in a tight loop. Retry ambiguous writes only after reconciliation to prevent duplicate effects.

3. ONE SAVE, ONE VERIFIED RECEIPT — NORMATIVE PROPOSED CLIENT INTERFACE
3.1 SaveVerified(request) accepts authenticated principal and authorized role, exact target provider and canonical immutable file ID (or authorized create destination), expected parent ID, current expected revision/etag when supported, exact byte content or authenticated upload stream, byte length, content type, proposed SHA-256 computed by the CLIENT over EXACT bytes to be uploaded, permitted operation, task ID and stable idempotency key. It never accepts permissions merely from nickname, RFC text, filename or an AI claim.
3.2 The storage interface checks authorization and source revision just before writing. It sends file bytes and optionally the expected checksum to the provider using its real supported checksum/conditional mechanisms; it NEVER assumes Google Drive accepts arbitrary client SHA-256 upload metadata as server-verified evidence. Uploading an RFC .txt includes the first-line packet and all UTF-8 CRLF bytes; the packet's body-only digest is a distinct format check, not the uploaded-file SHA-256.
3.3 On the authoritative provider's successful commit, obtain the returned file ID, parent ID, revision/version/etag if available, byte count and provider-computed checksum if available. Request these output fields in the write response where supported. A provider checksum may also require a small metadata-only query; do NOT download the entire file if equivalent independent metadata is available.
3.4 Google Drive file metadata may expose sha256Checksum (or md5Checksum) for stored binary/text content, but NOT native Google Docs Editors or shortcut files; provider hash fields can be absent or excluded from a connector's response. Compare the same algorithm and exact bytes; prefer SHA-256. MD5 may be treated only as basic accidental-transfer corruption detection under an explicit integrity-only policy, never cryptographic authenticity or an adversarial forgery defense. An absent or algorithm-incompatible checksum cannot be called a SHA-256 match.
3.5 The storage interface independently validates that the provider value is from the actually stored object, not copied from the client's submission. It compares provider digest against client digest using the same algorithm, plus expected file ID, parent/destination and observed revision/size. Hash match proves content identity subject to normal hash limitations; it does NOT prove authorization, appropriate destination, reader compatibility, CEO approval or durability beyond provider guarantees.
3.6 For native editor documents and providers lacking comparable returned checksums, perform ONE bounded, provider-supported targeted readback/export and hash canonical comparable content/normalized semantics; bind it to a revision to avoid a race. If no comparable representation is available, report PROVIDER_ACCEPTED_UNVERIFIED and the reason. A local cached rclone/FUSE read or hash from a forwarded request is not independent provider proof.
3.7 Receipt fields: transaction_id; authenticated principal; target provider and requested/actual file ID; expected and actual parent; old/new revision; byte length; client_sha256; provider_hash_algorithm, provider_hash_value and origin; verification_method; committed UTC instant; status; actual request count, elapsed time and evidence reference. Provider-returned fields cannot be replaced with client assertions. Do not expose secret contents or credentials in receipts.
3.8 Allowed statuses: VERIFIED (correct object, current revision and independent content match); PROVIDER_ACCEPTED_UNVERIFIED (write accepted but proof incomplete); MISMATCH (content or target conflict); CONFLICT (stale revision or concurrent writer); FAILED (no provider-confirmed commit); UNKNOWN_RESULT (ambiguous outcome). Only VERIFIED satisfies the default integrity gate. Explicitly distinguish a failed pre-write from a commit that may have happened.

3.9 SIMPLE ACKNOWLEDGMENT LADDER — ONE REQUEST, ONE RESPONSE (CEO REFINEMENT)
The caller receives one concise structured outcome containing the following ordered checks, each PASS/FAIL/UNKNOWN with evidence-source identification; checks that depend on an earlier failed check are SKIPPED, not falsely PASS:
  CHECK 1 — RECEIVED_EXPECTED_BYTES. The trusted interface independently counts the bytes actually received and hashes THOSE received bytes (not just the request header or claimed digest). Compare them with caller-supplied byte_count and sha256. If they differ, reject BEFORE contacting the provider. A retry of the SAME intended request is appropriate when the receiver can prove the write was never sent, using bounded retry/backoff; if the prior attempt may have committed, first reconcile using transaction_id and idempotency safeguards. If complete bytes were received, PASS. If the connection broke before trustworthy receipt, UNKNOWN, not a fake failure/success.
  CHECK 2 — PROVIDER_COMMITTED. The trusted adapter gets the authoritative provider commit acknowledgment and actual object/file ID, rather than assuming that its own receipt means the provider stored anything. A provider error means FAIL; a timeout after sending means UNKNOWN_RESULT and requires reconciliation before retry.
  CHECK 3 — CORRECT_ID_AND_DESTINATION. Compare provider-reported immutable object/file ID with requested ID for updates, actual parent/drive/bucket/key with authorized destination, and operation create-versus-update. Provider response fields missing? Perform at most one small metadata fetch, else UNKNOWN. Matching bytes in the WRONG file never passes.
  CHECK 4 — STORED_BYTES_MATCH. Compare client SHA-256 against provider-origin SHA-256 computed over independently stored EXACT bytes, on the SAME object revision. Request digest as part of commit response if provider supports that, else targeted metadata query, else one bounded independent readback when absolutely necessary. Distinguish digest from client-echoed hash and from an ETag that is not a byte digest. Unsupported comparable hash yields UNKNOWN/UNVERIFIED rather than claimed success.
  CHECK 5 — REVISION_AND_RIGHTS. Confirm intended expected revision/precondition, actual resulting revision/ETag when supported, and current authorized principal/operation. A correct file saved by an unauthorized actor or over a concurrently modified version is not VERIFIED.
  FINAL — VERIFIED only if all REQUIRED applicable checks passed. Return receipt, provider file ID, destination, revision and elapsed/request counters. A single false/unknown required check returns NOT_VERIFIED with the exact reason and next safe recovery action; the worker need not conduct additional arbitrary checks.
This ladder is basic ordered validation, not AI reasoning or repeated per-worker verification. Checks are performed as parts of the authorized client/storage transaction, not by sending five independent queries where the same provider reply contains adequate evidence.
3.10 RESPONSE SHAPE (illustrative schema, not an operational API):
{ "status": "VERIFIED | NOT_VERIFIED | UNKNOWN_RESULT | CONFLICT", "transaction_id": "...", "checks": { "1_received_bytes": "PASS", "2_provider_commit": "PASS", "3_target": "PASS", "4_content_hash": "PASS", "5_revision_authorization": "PASS" }, "requested_file_id": "...", "actual_file_id": "...", "actual_parent_id": "...", "bytes_received": 0, "client_sha256": "...", "provider_sha256": "...", "provider_digest_source": "provider-metadata", "revision": "...", "retry_safe": false, "next_action": "none", "provider_requests": 1, "elapsed_ms": 0 }
Every actual receipt must contain real values and measured times; the example zeroes and ellipses are not a claim of evidence. In the first check, a SHA-256 recomputed by the interface over bytes it directly received demonstrates client-to-interface integrity, but is NOT an independent stored-content checksum. Only the fourth check can establish provider-storage content integrity.

4. FAILURES, RECONCILIATION AND RACE CONDITIONS
4.1 On verified matching hash, no redundant read is performed. On provider hash mismatch, stop publication, record expected/actual metadata, and inspect exact object/revision only; do not destroy it by immediate blind rewrite.
4.2 On wrong file ID, parent, revision or permission, fail closed for protected writes, and do not mark as VERIFIED even when bytes match. Idempotency/revision checks must prevent accidental duplicate creates or overwriting another worker's edits.
4.3 On timeout or uncertain result, query the exact transaction/file/revision or idempotency record before deciding whether to retry; never turn an uncertain create into a duplicate. If provider has no conditional writer primitive, coordinate edits through the single authorized gateway or serialize per target.
4.4 SHA-256 or the RFC body checksum does not authenticate the worker, defend against a malicious privileged store, or prove independent source custody on its own. Separate authenticated provenance, authorization, revision and audit controls remain required.
4.5 Provider throttling/unavailability invokes bounded retry with exponential backoff and jitter where safe; use alternative authorized route only if its actual permissions and evidence are equally valid. Report true blockers after reasonable investigation and preserve task continuity without fabricated success.

4.6 AUTOMATIC RETRY TABLE: FAIL check 1 before provider submission -> at most bounded retry of same transaction after local transport reset, no human intervention; FAIL check 2 definitively before commit -> bounded safe retry; UNKNOWN check 2 -> reconcile transaction or actual object state before retry; FAIL check 3 -> stop and report wrong target; FAIL check 4 -> stop, investigate exact corrupted revision, retry only with safe expected-revision guard; FAIL check 5 -> stop on CONFLICT/UNAUTHORIZED. Never retry blindly for every failure, and never turn a checksum mismatch into silent overwrite. No unbounded loop.

5. SYSTEM-WIDE ENFORCEMENT DESIGN
5.1 Put the save/verify implementation into the common storage client/gateway used by every AI and human corporate workflow. APIs/desktop/extension callers receive a single structured receipt; they do not author custom re-download scripts. Enumerate bypass routes and classify as NOT_COVERED until individually controlled, per RFC-AI 32.
5.2 Provider adapters MUST document whether they can (a) accept an upload checksum, (b) return an independently calculated digest with upload result, (c) obtain one via metadata and (d) perform a targeted content read. Record version and limitations; fail honestly when unsupported. Provider profiles (RFC-AI 37) may inform cost decisions but cannot authorize bypass or substitute for measured save evidence.
5.3 Measure per task: cloud API requests, transferred bytes, total elapsed time, retry count, redundant read/download count, missing evidence and human interruptions. Emit a concise efficiency receipt without turning runtime data into speculative persistent worker status. Cost is diagnostic, not CEO release authorization.
5.4 If a worker repeats a previous inefficiency, create a LESSON_LEARNED with observed cause, affected RFC, measured waste, corrected adapter/workflow, and an automated negative regression test. A policy document without a running enforcement path is guidance, NOT a guarantee that future AI workers will comply. Required adoption includes UI/client code, adapters, registry compatibility and actual tests.
5.5 Security reviews remain proportional to real risk. Do not skip a legally mandated check, independent production security audit or incident investigation because the fast path normally avoids full readback.

6. EXPLICIT ACCEPTANCE AND DAVG TEST MATRIX
6.1 Happy path: upload 1 valid 1-KB file, provider independently returns matching SHA-256/expected file ID/parent/revision; one save and no content re-download; status VERIFIED.
6.2 Error path: 1 flipped byte yields MISMATCH; no success and no blind second write. Wrong parent/file ID yields MISMATCH even if bytes are identical.
6.3 Provider returns only echoed client hash: status NOT VERIFIED until a separate provider-origin digest or targeted readback validates it. Provider returns only successful upload response: status PROVIDER_ACCEPTED_UNVERIFIED pending a supported fallback.
6.4 Native Google Doc: no independent byte checksum; use revision-specific content verification or report unverified; do not compare a different export format's raw bytes to original upload bytes and call it a match.
6.5 Stale revision and two concurrent writers: exactly one authorized conditional update; other receives CONFLICT. Unknown result from timeout: transaction reconciliation prevents duplicate file create or overwrite.
6.6 Batch 76 independently authorized writes: perform bounded parallel/batch writes supported by provider; each receives individual provider-verified receipt; no automatic 76 full downloads and no repeated directory listings after success. Exception cases are inspected individually. Track real request counts and time, not a guessed performance number.
6.7 Worker prompt says 'do a full readback of everything' without valid new risk: policy chooses verified-save receipt rather than redundant scan when it preserves directive intent. An explicit authorized CEO instruction for full independent inspection overrides this performance preference, while normal safety rules still apply.
6.8 Untrusted external text claims a new verification exception: gateway ignores it. All actual alternate write paths are enumerated or marked NOT_COVERED and tested.
6.9 Regression case: known file ID reused and expected revision unchanged; no extra source discovery. On verified save, next action proceeds without needless human approval. On observed latency/error, targeted diagnostics occur; after root cause resolved, resume fast path.
6.10 DAVG cycles check security, data loss, privacy, concurrency, fidelity, provider differences, operational performance and reversal of accidental changes. Classify each issue FIXED (with evidence), NOT APPLICABLE (with reason), or BLOCKED (with exact missing implementation). Never state 'no issues' merely because no further issues were observed in a bounded test matrix.

6.11 RECEIPT-LADDER REGRESSION: (a) send body with correct declared length but wrong payload hash -> interface independently detects fail at check 1; no provider operation and safe bounded retry; (b) correct reception but provider denies commit -> check 1 PASS, check 2 FAIL; (c) authoritative commit to wrong parent -> check 3 FAIL; (d) server echoes caller digest instead of stored-content digest -> check 4 UNKNOWN; (e) provider hash mismatch -> check 4 FAIL, no blind overwrite; (f) stale expected revision -> check 5 CONFLICT; (g) all five pass from genuine evidence -> one VERIFIED response with no redundant full-file read. Log measured API request counts for each.

7. AUTHORITY AND RESEARCH
7.1 This entire document is a DRAFT, not active company policy and not deployed client/gateway code. CEO approval is required for adoption, while live verification requires real provider-returned digests, revision evidence and bypass testing.
7.2 Primary prior art: Google Drive Files resource metadata (https://developers.google.com/workspace/drive/api/reference/rest/v3/files) explains sha256Checksum when available and its absence for native Docs. AWS S3 PutObject (https://docs.aws.amazon.com/AmazonS3/latest/API/API_PutObject.html) and AWS's integrity guidance (https://aws.amazon.com/blogs/aws/introducing-default-data-integrity-protections-for-new-objects-in-amazon-s3/) illustrate server-verified checksums and one-call integrity. These are patterns, not claims that Google Drive behaves identically.
7.3 Legacy Peostectica issue: full reread of 76 RFC/paired-objective files following direct Drive edits; one target metadata/status receipt per updated file should replace unnecessary full downloads. This recurrence is a design/automation defect, not an excuse to burden the CEO.

8. CHANGE LOG
2026-11-02 UTC: Draft 1 created following CEO instruction to prevent recurrence of redundant reads and writes, and CEO instruction to put independent save verification within the client interface; examples and platform differences researched before draft.


DOCUMENT CLASSIFICATION — RFC-AI RESEARCH-FIRST RECONCILIATION (2026-11-02T20:28:09.285Z)
DOCUMENT CLASS: STANDARD — TECHNICAL STANDARD DRAFT
This document contains normative technical format, protocol, security, interface, or evidence contract detail for its defined subject. The detail is an intended Standard rather than evidence that software has been built or deployed. Legacy software and its records are background research only; no RFC-AI component is implemented.
DAVG judges future objectives and observed results, rather than presuming legacy implementation or declaring these drafts active. CEO approval and independently observed operational evidence are still required for any future activation.


## HISTORICAL FAILURE EVIDENCE — RESEARCH ONLY; NOT AN RFC-AI IMPLEMENTATION
Historical context: Save receipt, file present and verification of the correct final content were often treated as equivalent; failures sometimes encouraged unsafe workarounds.
Historical reports have mixed evidence quality; verify primary facts before adopting a claimed root cause. Preserve source provenance and do NOT operationalize retired legacy policies as current RFC authority.

## MUST-DESIGN CRITERIA — CEO-DIRECTED PROPOSED FUTURE SYSTEM
MUST-38-01: MUST treat direct canonical saves through StorageInterface as safe by design through independently enforced simple logic, hardware/physics-grounded limits, atomicity and verified commit; do not require unsafe bypasses or unnecessary intermediate staging.
MUST-38-02: MUST call GetUTCDateNow() for commit timestamps and freshness instead of direct worker host-clock reads.
MUST-38-03: MUST distinguish transport acceptance, operation commitment and independently verified final bytes, with reconciliation before retrying uncertain effects.

IMPLEMENTATION STATUS: Entire RFC-AI system NOT IMPLEMENTED. Historical systems are independent past research material; no test or existing service may be counted as implementing this RFC-AI.


## ADDITIONAL MUST-DESIGN CRITERIA — 2026-11-02 (PROPOSED, NOT IMPLEMENTED)
Historical trigger: legacy materials repeatedly confused authored progress, scripts and document content with real observed execution; this is research evidence, not proof of any new RFC implementation.
MUST: StorageInterface MUST physically/deterministically prohibit stale owner writes, unqualified source evidence, conflict overrides, fake receipts, duplicate uncertain commits and claiming cross-service completion from one file's save. Use conditional revisions and independently observed storage effects.
MUST consider the concrete literal behavior of competent AI workers and enforce required hard safeguards by simple, separately running Interface logic where an actual boundary exists. MUST not delegate Interface internal details back to this guiding document. MUST preserve the requirement in relevant top-level objectives.txt and independently verify that future implementation satisfies it. New requirements here remain draft, not live controls.

## DESIGN AMENDMENT 2026-11-03 — TRANSFER, COMMIT, FINAL OUTCOME
REQ-AI-38-TRANSFER-001: If ALL expected bytes have not been received, transport MUST retry missing bytes until complete or retain explicit unresolved failure; no partial transfer can be marked complete. Transport owns byte accounting, resume and retry. StorageInterface exclusively owns persistence, atomicity where available and durable commit verification.
REQ-AI-38-IDEMPOTENCY-002: A timeout after a write is NOT proof of failed commit. StorageInterface MUST reconcile exact provider ID, expected revision, actual content and independent observed commit before repeating effects. Intent-bound idempotency tokens MUST reject changed requests under the same ID, stale ownership epochs and duplicate effects.
REQ-AI-38-SAGA-003: A confirmed save MUST NOT imply publication, approval or entire business completion. Multi-Interface orchestration separately records committed effects, compensations where safe and explicit UNKNOWN; do not double-write after ambiguous success.

DESIGN CORRECTION TXN-05 — Transfer integrity, idempotency and distributed business completion
RATIONALE: A cloud commit may succeed even when its acknowledgment is lost; a file save does not imply publication, approval or finished business outcome.
REQUIRED FUTURE BEHAVIOR: Transport MUST retry when the entire expected byte payload has not been received; StorageInterface alone owns provider persistence, conditional revision and duplicate-effect reconciliation. A post-write timeout MUST be treated as AMBIGUOUS_COMMIT until exact object ID, expected revision, content digest and idempotency-token scope are independently resolved. Changing parameters under the same intent token is forbidden. Cross-Interface orchestration MUST record each local committed effect, reversible compensation, irreversibility and independent terminal business outcome; no parent objective may be COMPLETED while required effects are PARTIAL or UNKNOWN.
ADVERSARIAL DESIGN ACCEPTANCE: Simulate successful Drive commit with lost acknowledgment and failed website publish: one file only, saved=TRUE, published=FALSE, objective=INCOMPLETE, no unbounded retry or duplicate.
SCOPE: Proposed RFC design, NOT deployed control; technical HOW belongs to the designated Standard/Interface.