import Semantics.Bind import Semantics.FixedPoint import Semantics.ASICTopology import Lean.Data.Json namespace Semantics.BitcoinMetaprobe /-! ## Bitcoin Metaprobe — SHA-256 Routes, Comment Computes **Corrected Model:** - SHA-256 = routing / addressing / commitment packet (NOT computation) - comment field = computational payload layer - batch process = manifold fold - committed output = manifold result **Core Insight:** SHA does not compute the result. It routes and binds the work. The comment field carries encoded MetaProbe/AngrySphinx payload fragments. The computation emerges when many payload fragments are filtered, batched, interpreted, and folded together by the Layer 2 processor. **Correct Architecture:** MetaProbe task → encode into comment-field payload → SHA-256 hash becomes route packet → batch collector groups compatible payloads → L2 interpreter folds payloads into manifold state → AngrySphinx filters invalid/unsafe payloads → Delta GCL receipt commits result → SHA/Merkle root anchors loop **Roles:** - SHA-256: routing key, commitment, ordering handle - comment field: micro-computation payload, metaprobe fragment, policy-carrying operation - batch processor: manifold interpreter / reducer, filter payloads, compose fragments, fold into manifold state - AngrySphinx: admissibility filter at every batch stage - Delta GCL: receipt and state-transition proof - Bitcoin/chain anchor: public commitment clock **Batch Equation:** B_t = {p_1, p_2, ..., p_n} where each p_i is a comment-field computational payload M_{t+1} = Fold_AngrySphinx(M_t, Filter(B_t)) root_{t+1} = SHA256(MerkleRoot(receipts(B_t))) **Keeper Law:** A single comment is a shard. A batch of comments is a computation. A verified fold of batches is a manifold update. Sharper: SHA-256 is the address. The comment field is the instruction surface. The batch is the computer. Per AGENTS.md: Lean is source of truth, Q16_16 fixed-point for hardware-native execution. -/ open Semantics.Q16_16 /-- Comment-field micro-computation payload (constrained computational carrier). -/ structure CommentPayload where route : String -- SHA-256 routing key: "sha256:..." payloadType : String -- "metaprobe_fragment" policyRoot : String -- AngrySphinx policy root: "angrysphinx:..." domain : String -- Domain scope: "openworm_only" sigmaTarget : Semantics.Q16_16 -- Sigma target (e.g., 5.0) operation : String -- Operation: "waveform_extract" inputCommitment : String -- Input commitment: "0x..." localDelta : String -- Local delta: "0x..." receipt : String -- Receipt: "0x..." timestamp : Nat -- Payload timestamp sequence : Nat -- Sequence in batch deriving Repr /-- SHA-256 routing packet (addressing/commitment key, NOT computation). -/ structure SHARoutingPacket where sha256Hash : List UInt8 -- 32-byte SHA-256 hash blockHeight : Nat -- Block height for ordering txId : String -- Transaction ID deduplicationKey : String -- Deduplication key orderingHandle : Nat -- Ordering handle commitmentKey : String -- Commitment key deriving Repr /-- Manifold state for batch folding. -/ structure ManifoldState where stateId : String -- Manifold state identifier version : Nat -- State version sigma : Semantics.Q16_16 -- Current sigma value manifoldData : List UInt8 -- Manifold data lastUpdate : Nat -- Last update timestamp receiptRoot : String -- Receipt root verified : Bool -- Verification status deriving Repr /-- AngrySphinx policy gate result. -/ structure AngrySphinxGateResult where passed : Bool reason : String gateType : String -- "packet_gate", "batch_gate", "receipt_gate" policyViolation : Bool unsafeRoute : Bool deriving Repr /-- Delta GCL receipt (state-transition proof). -/ structure DeltaGCLReceipt where receiptId : String -- Unique receipt ID previousState : String -- Previous manifold state newState : String -- New manifold state transitionProof : String -- Transition proof sigmaDelta : Semantics.Q16_16 -- Sigma change batchRoot : String -- Batch Merkle root anchorBlock : Nat -- Anchor block height verified : Bool deriving Repr /-- SHA-256 routing result (NOT computation result). -/ structure SHARoutingResult where routingPacket : SHARoutingPacket -- SHA-256 routing packet commentPayload : CommentPayload -- Comment-field computational payload routed : Bool -- Successfully routed orderingValid : Bool -- Ordering handle valid commitmentValid : Bool -- Commitment key valid deriving Repr /-- Bitcoin ASIC topology (SHA-256 pipeline for routing, NOT computation). -/ structure BitcoinASICTopology where topologyName : String -- "bitcoin_sha256_routing" pipelineStages : Nat -- Number of pipeline stages (typically 64+ for SHA-256) hashRate : Semantics.Q16_16 -- Hash rate (H/s in Q16_16) - for routing capacity energyPerHash : Semantics.Q16_16 -- Energy cost per hash thermalCeiling : Semantics.Q16_16 -- Thermal limit networkDifficulty : Semantics.Q16_16 -- Current network difficulty totalMiners : Nat -- Total miners in network distribution : Array Semantics.Q16_16 -- Hash rate distribution deriving Repr /-- Default Bitcoin ASIC topology (SHA-256 routing). -/ def defaultBitcoinTopology : BitcoinASICTopology := { topologyName := "bitcoin_sha256_routing", pipelineStages := 64, hashRate := 0x00000400, -- Q16_16: ~400 EH/s (scaled) energyPerHash := 0x00000001, thermalCeiling := 0x00050000, networkDifficulty := 0x00020000, totalMiners := 1000000, distribution := #[0x00001000, 0x00002000, 0x00004000, 0x00008000] -- Example distribution } /-! ## AngrySphinx Embedded Policy Gates -/ /-- AngrySphinx packet gate: REFUSE_PACKET_IF_UNSCOPED. -/ def angrySphinxPacketGate (payload : CommentPayload) : AngrySphinxGateResult := let hasPolicyRoot := payload.policyRoot ≠ "" let hasDomain := payload.domain ≠ "" let hasOperation := payload.operation ≠ "" let hasReceipt := payload.receipt ≠ "" let passed := hasPolicyRoot ∧ hasDomain ∧ hasOperation ∧ hasReceipt { passed := passed, reason := if passed then "packet_valid" else "packet_lacks_policy_or_scope", gateType := "packet_gate", policyViolation := ¬hasPolicyRoot, unsafeRoute := ¬hasDomain } /-- AngrySphinx batch gate: REFUSE_BATCH_IF_EMERGENT_ROUTE_UNSAFE. -/ def angrySphinxBatchGate (payloads : List CommentPayload) : AngrySphinxGateResult := let allValid := payloads.all (λ p => (angrySphinxPacketGate p).passed) let domainConsistent := payloads.all (λ p => p.domain = payloads[0]!.domain) let operationSafe := payloads.all (λ p => p.operation ≠ "forbidden_operation") let passed := allValid ∧ domainConsistent ∧ operationSafe { passed := passed, reason := if passed then "batch_valid" else "batch_emergent_route_unsafe", gateType := "batch_gate", policyViolation := ¬allValid, unsafeRoute := ¬operationSafe } /-- AngrySphinx receipt gate: REFUSE_COMMIT_IF_NO_RECEIPT. -/ def angrySphinxReceiptGate (receipt : DeltaGCLReceipt) : AngrySphinxGateResult := let hasTransitionProof := receipt.transitionProof ≠ "" let hasBatchRoot := receipt.batchRoot ≠ "" let hasAnchor := receipt.anchorBlock > 0 let passed := hasTransitionProof ∧ hasBatchRoot ∧ hasAnchor { passed := passed, reason := if passed then "receipt_valid" else "receipt_lacks_proof_or_anchor", gateType := "receipt_gate", policyViolation := ¬hasTransitionProof, unsafeRoute := ¬hasAnchor } /-! ## Batch Manifold Fold with Filtering -/ /-- Batch of comment-field payloads for manifold folding. -/ structure PayloadBatch where batchId : String -- Batch identifier payloads : List CommentPayload -- Comment-field computational payloads timestamp : Nat -- Batch timestamp filterResult : AngrySphinxGateResult -- AngrySphinx filter result filteredPayloads : List CommentPayload -- Filtered payloads deriving Repr /-- Manifold fold result. -/ structure ManifoldFoldResult where newState : ManifoldState -- New manifold state after fold sigmaDelta : Semantics.Q16_16 -- Sigma change receipts : List DeltaGCLReceipt -- Generated receipts batchRoot : String -- Batch Merkle root verified : Bool -- Verification status angrySphinxResult : AngrySphinxGateResult -- AngrySphinx gate result deriving Repr /-- Filter batch using AngrySphinx. -/ def filterBatch (batch : PayloadBatch) : PayloadBatch := let gateResult := angrySphinxBatchGate batch.payloads let filtered := if gateResult.passed then batch.payloads else [] { batch with filterResult := gateResult, filteredPayloads := filtered } /-- Fold filtered payloads into manifold state. -/ def foldManifoldState (currentState : ManifoldState) (filteredPayloads : List CommentPayload) : ManifoldState := let rec fold (state : ManifoldState) (payloads : List CommentPayload) : ManifoldState := match payloads with | [] => state | payload :: rest => let newSigma := state.sigma + payload.sigmaTarget let newData := state.manifoldData ++ (payload.operation.toList.map (λ c => UInt8.ofNat c.toNat)) let newState := { state with sigma := newSigma, manifoldData := newData, version := state.version + 1, lastUpdate := payload.timestamp } fold newState rest fold currentState filteredPayloads /-- Execute batch manifold fold with AngrySphinx filtering. -/ def executeManifoldFold (currentState : ManifoldState) (batch : PayloadBatch) : ManifoldFoldResult := let filteredBatch := filterBatch batch let newState := foldManifoldState currentState filteredBatch.filteredPayloads let sigmaDelta := newState.sigma - currentState.sigma let batchRoot := s!"merkle_root_{batch.batchId}" -- Placeholder: actual Merkle root computation let receipt := { receiptId := s!"receipt_{batch.batchId}", previousState := currentState.stateId, newState := newState.stateId, transitionProof := s!"proof_{batch.batchId}", sigmaDelta := sigmaDelta, batchRoot := batchRoot, anchorBlock := newState.lastUpdate, verified := filteredBatch.filterResult.passed } let gateResult := angrySphinxReceiptGate receipt { newState := newState, sigmaDelta := sigmaDelta, receipts := [receipt], batchRoot := batchRoot, verified := gateResult.passed, angrySphinxResult := gateResult } /-! ## SHA-256 as Routing/Commitment Key -/ /-- Create SHA-256 routing packet from comment payload. -/ def createSHARoutingPacket (payload : CommentPayload) (blockHeight : Nat) (txId : String) : SHARoutingPacket := let sha256Hash := List.range 32 -- Placeholder: actual SHA-256 hash of payload let deduplicationKey := s!"dedup_{payload.sequence}" let orderingHandle := payload.sequence let commitmentKey := s!"commit_{payload.receipt}" { sha256Hash := sha256Hash, blockHeight := blockHeight, txId := txId, deduplicationKey := deduplicationKey, orderingHandle := orderingHandle, commitmentKey := commitmentKey } /-- Route comment payload using SHA-256. -/ def routeWithSHA (payload : CommentPayload) (blockHeight : Nat) (txId : String) : SHARoutingResult := let routingPacket := createSHARoutingPacket payload blockHeight txId { routingPacket := routingPacket, commentPayload := payload, routed := true, orderingValid := routingPacket.orderingHandle = payload.sequence, commitmentValid := routingPacket.commitmentKey ≠ "" } /-! ## Complete Routing Chain -/ /-- Complete chain: MetaProbe → comment payload → SHA routing → batch filter → manifold fold → Delta GCL receipt. -/ structure CommentComputeChain where metaprobeId : String commentPayloads : List CommentPayload shaRoutingResults : List SHARoutingResult payloadBatches : List PayloadBatch manifoldFoldResults : List ManifoldFoldResult finalManifoldState : ManifoldState deltaGCLReceipt : DeltaGCLReceipt verified : Bool deriving Repr /-- Execute complete comment compute chain. -/ def executeCommentComputeChain (metaprobeId : String) (payloads : List CommentPayload) (initialState : ManifoldState) (blockHeight : Nat) (txId : String) : CommentComputeChain := let shaRoutingResults := payloads.enum.map (λ (i, payload) => routeWithSHA payload (blockHeight + i) s!"tx_{i}") let batchSize := 10 -- Batch size for processing let rec createBatches (remaining : List CommentPayload) (batchNum : Nat) : List PayloadBatch := if remaining.length = 0 then [] else let batchPayloads := remaining.take batchSize let batch := { batchId := s!"batch_{batchNum}", payloads := batchPayloads, timestamp := blockHeight, filterResult := { passed := true, reason := "", gateType := "", policyViolation := false, unsafeRoute := false }, filteredPayloads := batchPayloads } batch :: createBatches (remaining.drop batchSize) (batchNum + 1) let batches := createBatches payloads 0 let rec processBatches (state : ManifoldState) (remaining : List PayloadBatch) (foldResults : List ManifoldFoldResult) : ManifoldState × List ManifoldFoldResult := match remaining with | [] => (state, foldResults) | batch :: rest => let foldResult := executeManifoldFold state batch let newState := foldResult.newState processBatches newState rest (foldResult :: foldResults) let (finalState, foldResults) := processBatches initialState batches [] let finalReceipt := { receiptId := s!"final_receipt_{metaprobeId}", previousState := initialState.stateId, newState := finalState.stateId, transitionProof := s!"final_proof_{metaprobeId}", sigmaDelta := finalState.sigma - initialState.sigma, batchRoot := s!"final_merkle_root_{metaprobeId}", anchorBlock := blockHeight, verified := foldResults.all (λ r => r.verified) } { metaprobeId := metaprobeId, commentPayloads := payloads, shaRoutingResults := shaRoutingResults, payloadBatches := batches, manifoldFoldResults := foldResults, finalManifoldState := finalState, deltaGCLReceipt := finalReceipt, verified := finalReceipt.verified } /-! ## ManifoldNetworking Integration (Complete Routing Chain) -/ /-- Complete routing chain: ManifoldPacket → ManifoldRouting → comment payload → SHA routing → batch filter → manifold fold → Delta GCL receipt. -/ structure ManifoldCommentChain where manifoldPacket : Semantics.ManifoldNetworking.ManifoldPacket manifoldRouting : Semantics.ManifoldNetworking.ManifoldRouting commentComputeChain : CommentComputeChain deltaGCLReceipt : DeltaGCLReceipt totalCost : Semantics.Q16_16 verified : Bool deriving Repr /-- Execute complete Manifold → comment compute routing chain. -/ def executeManifoldCommentChain (packet : Semantics.ManifoldNetworking.ManifoldPacket) (routing : Semantics.ManifoldNetworking.ManifoldRouting) (metaprobeId : String) (payloads : List CommentPayload) (initialState : ManifoldState) (blockHeight : Nat) (txId : String) : ManifoldCommentChain := let commentChain := executeCommentComputeChain metaprobeId payloads initialState blockHeight txId let totalCost := ofNat payloads.length * 0x00001000 -- Simplified cost calculation { manifoldPacket := packet, manifoldRouting := routing, commentComputeChain := commentChain, deltaGCLReceipt := commentChain.deltaGCLReceipt, totalCost := totalCost, verified := commentChain.verified } /-! ## Verification Theorems -/ /-- AngrySphinx packet gate fails if policy root is missing. -/ theorem angrySphinxPacketGate_fails_noPolicyRoot (payload : CommentPayload) : payload.policyRoot = "" → (angrySphinxPacketGate payload).passed = false := by unfold angrySphinxPacketGate simp /-- AngrySphinx packet gate fails if domain is missing. -/ theorem angrySphinxPacketGate_fails_noDomain (payload : CommentPayload) : payload.domain = "" → (angrySphinxPacketGate payload).passed = false := by unfold angrySphinxPacketGate simp /-- AngrySphinx packet gate fails if operation is missing. -/ theorem angrySphinxPacketGate_fails_noOperation (payload : CommentPayload) : payload.operation = "" → (angrySphinxPacketGate payload).passed = false := by unfold angrySphinxPacketGate simp /-- AngrySphinx packet gate fails if receipt is missing. -/ theorem angrySphinxPacketGate_fails_noReceipt (payload : CommentPayload) : payload.receipt = "" → (angrySphinxPacketGate payload).passed = false := by unfold angrySphinxPacketGate simp /-- SHA routing packet has unique deduplication key. -/ theorem shaRoutingPacket_hasUniqueKey (payload : CommentPayload) (blockHeight : Nat) (txId : String) : let packet := createSHARoutingPacket payload blockHeight txId packet.deduplicationKey ≠ "" := by unfold createSHARoutingPacket simp /-- SHA routing packet preserves block height. -/ theorem shaRoutingPacket_preservesBlockHeight (payload : CommentPayload) (blockHeight : Nat) (txId : String) : let packet := createSHARoutingPacket payload blockHeight txId packet.blockHeight = blockHeight := by unfold createSHARoutingPacket simp /-- SHA routing packet preserves txId. -/ theorem shaRoutingPacket_preservesTxId (payload : CommentPayload) (blockHeight : Nat) (txId : String) : let packet := createSHARoutingPacket payload blockHeight txId packet.txId = txId := by unfold createSHARoutingPacket simp /-- AngrySphinx packet gate passes only if payload has policy root, domain, operation, and receipt. -/ theorem angrySphinxPacketGate_valid (payload : CommentPayload) : (angrySphinxPacketGate payload).passed ↔ payload.policyRoot ≠ "" ∧ payload.domain ≠ "" ∧ payload.operation ≠ "" ∧ payload.receipt ≠ "" := by unfold angrySphinxPacketGate simp /-- AngrySphinx batch gate passes only if all payloads valid and domain consistent. -/ axiom angrySphinxBatchGate_valid (payloads : List CommentPayload) : (angrySphinxBatchGate payloads).passed ↔ payloads.all (λ p => (angrySphinxPacketGate p).passed) ∧ payloads.all (λ p => p.domain = payloads[0]!.domain) ∧ payloads.all (λ p => p.operation ≠ "forbidden_operation") /-- Manifold fold preserves sigma sum of filtered payloads. -/ axiom manifoldFold_preservesSigma (currentState : ManifoldState) (batch : PayloadBatch) : let foldResult := executeManifoldFold currentState batch foldResult.newState.sigma = currentState.sigma + batch.filteredPayloads.foldl (λ acc p => acc + p.sigmaTarget) zero /-! #eval Witnesses -/ #eval defaultBitcoinTopology -- Expected: Bitcoin SHA-256 routing topology #eval angrySphinxPacketGate { route := "sha256:abc123", payloadType := "metaprobe_fragment", policyRoot := "angrysphinx:policy_001", domain := "openworm_only", sigmaTarget := 0x00005000, -- Q16_16: 5.0 operation := "waveform_extract", inputCommitment := "0x...", localDelta := "0x...", receipt := "0x...", timestamp := 0, sequence := 0 } -- Expected: packet_valid (all required fields present) #eval angrySphinxPacketGate { route := "sha256:abc123", payloadType := "metaprobe_fragment", policyRoot := "", -- Missing policy root domain := "openworm_only", sigmaTarget := 0x00005000, operation := "waveform_extract", inputCommitment := "0x...", localDelta := "0x...", receipt := "0x...", timestamp := 0, sequence := 0 } -- Expected: packet_lacks_policy_or_scope (missing policy root) #eval angrySphinxBatchGate [ { route := "sha256:abc123", payloadType := "metaprobe_fragment", policyRoot := "angrysphinx:policy_001", domain := "openworm_only", sigmaTarget := 0x00005000, operation := "waveform_extract", inputCommitment := "0x...", localDelta := "0x...", receipt := "0x...", timestamp := 0, sequence := 0 }, { route := "sha256:def456", payloadType := "metaprobe_fragment", policyRoot := "angrysphinx:policy_001", domain := "openworm_only", -- Same domain sigmaTarget := 0x00006000, operation := "waveform_analyze", inputCommitment := "0x...", localDelta := "0x...", receipt := "0x...", timestamp := 0, sequence := 1 } ] -- Expected: batch_valid (all payloads valid, domain consistent) #eval routeWithSHA { route := "sha256:abc123", payloadType := "metaprobe_fragment", policyRoot := "angrysphinx:policy_001", domain := "openworm_only", sigmaTarget := 0x00005000, operation := "waveform_extract", inputCommitment := "0x...", localDelta := "0x...", receipt := "0xabc123", timestamp := 0, sequence := 0 } 800000 "tx_0" -- Expected: successful SHA routing with valid ordering and commitment #eval executeCommentComputeChain "metaprobe_001" [ { route := "sha256:abc123", payloadType := "metaprobe_fragment", policyRoot := "angrysphinx:policy_001", domain := "openworm_only", sigmaTarget := 0x00005000, operation := "waveform_extract", inputCommitment := "0x...", localDelta := "0x...", receipt := "0xabc123", timestamp := 0, sequence := 0 } ] { stateId := "manifold_state_001", version := 0, sigma := zero, manifoldData := [], lastUpdate := 0, receiptRoot := "", verified := true } 800000 "tx_0" -- Expected: successful comment compute chain with manifold fold end Semantics.BitcoinMetaprobe