openAI-math-dataset / lean /OAI /Combinatorics /EditApproximation /Geometry /BandActionPolynomial.lean
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| import OAI.Combinatorics.EditApproximation.Binary.BinaryBandAction | |
| import OAI.Combinatorics.EditApproximation.Probability.FiniteBitPolynomial | |
| namespace OAI | |
| /-! A fixed-degree envelope for the full labeled action selector, including | |
| its final logarithm-gradient and argmax, after the iterative optimizer. -/ | |
| namespace EditApproximation | |
| private abbrev CE := FiniteBitPolynomial (Fin 12) | |
| private def baSize (a : CE) : CE := .bitLength a | |
| private def baMax (a b : CE) : CE := .maximum a b | |
| private def expressionLogStorage (B K : CE) : CE := | |
| baSize (2 * K) + 2 * (K * K * (4 * B + 18) + K * (baSize (2 * K + 1) + 1) + 1) + 1 | |
| private def expressionGradientStorage (G P L : CE) : CE := | |
| 4 * expressionLogStorage (2 * P + 2 * (5 + 50 * (baSize G + 2)) + 2) (G ^ 60) + 2 * L + 18 | |
| private def expressionPoint (K B Bv : CE) : CE := | |
| Bv + 2 * (B + K * (2 * baSize (K + 1) + B)) + 2 | |
| private def expressionLogUniversal (B K : CE) : CE := | |
| B + (baSize K + 2 * (K * K * B + K * (baSize (2 * K + 1) + 1) + 1) + 1) + | |
| (2 * ((2 * K + 1) * B + 1) + 2) + baSize (2 * K + 1) + 10 | |
| private def expressionLogStep (W K : CE) : CE := | |
| (2 * K + 1) * (2000 * (W + 1) ^ 2 + 1) + 2100 * (W + 2) ^ 2 + | |
| 6000 * (W + 1) ^ 2 + baSize (2 * K + 1) + 6 | |
| private def expressionLogBit (B K : CE) : CE := | |
| let W := expressionLogUniversal (8 * B + 22) K | |
| 12000 * (B + 4) ^ 2 + 2100 * (4 * B + 12) ^ 2 + | |
| K * expressionLogStep W K + 2000 * (W + 5) ^ 2 + 10 | |
| private def expressionGradientBit (G P L : CE) : CE := | |
| let S := 3 + 50 * (baSize G + 2) | |
| let R := 4 * P + 2 * S + 8 | |
| let logBits := expressionLogStorage R (G ^ 60) | |
| let natWidth := baMax (baSize G) 1 | |
| let powerWidth := natWidth + 3 + 50 * (2 * natWidth + 1) | |
| (1 + 50 * (2000 * (powerWidth + 1) ^ 2 + 1)) + (4 * S + 3) + | |
| 6000 * (P + S + 2) ^ 2 + expressionLogBit R (G ^ 60) + | |
| (6000 * (logBits + 4) ^ 2 + 1) + 6000 * (L + 2 * logBits + 9) ^ 2 + baSize G + 70 | |
| private def expressionMaximizer (d v B V : CE) : CE := | |
| let W := B + baSize (d * V * V) + 2 * (1 + d * (B + B)) + 1 | |
| v * (1 + d * (100000 * (W + 1) ^ 2) + 1000 * (W + 1) ^ 2 + 2) + d + 1 | |
| private def expressionUpdate (d K P : CE) : CE := | |
| let C := baSize (K + 2) + 8 | |
| let W := P + 2 * C + 8 | |
| 2100 * (baSize (K + 2) + 6) ^ 2 + (6000 * (C + 4) ^ 2 + 1) + | |
| d * (110000 * (W + 1) ^ 2 + 6) + baSize (K + 2) + 4 | |
| private def expressionOptimizer (d v G K B Bv L V : CE) : CE := | |
| let P := expressionPoint K B Bv | |
| let W := expressionGradientStorage G (2 * P + 1) (2 * L + 1) | |
| d + 1 + K * (d * (expressionGradientBit G P L + 6) + | |
| expressionMaximizer d v (baMax P W) (2 * G ^ 60 + 1 + V + 1) + expressionUpdate d K P + 3) | |
| private def expressionBandSumStorage (n B : CE) : CE := | |
| baSize n + B + 2 * (1 + n * (B + 1)) + 2 | |
| private def expressionBandVertexWord (M B : CE) : CE := | |
| 2 * B + expressionBandSumStorage M B + 3 | |
| private def expressionStoredSumWord (n B : CE) : CE := | |
| (B + 1) + baSize n + 2 * (B + 2) + 2 * (1 + n * ((B + 1) + (B + 1))) + 1 | |
| private def expressionStoredSumBit (n B : CE) : CE := | |
| 1 + n * (100000 * (expressionStoredSumWord n B + 1) ^ 2) | |
| private def expressionBandCoordinateBit (M B : CE) : CE := | |
| 2100 * (B + expressionBandSumStorage M B + 2) ^ 2 | |
| private def expressionBandPreparation (M d v B : CE) : CE := | |
| expressionStoredSumBit M B + v * (d * (expressionBandCoordinateBit M B + 6)) + 6 * v | |
| private def expressionOptimisticStorage (Bm Bt Bc : CE) : CE := 20 * Bt + 8 * Bm + 4 * Bc + 30 | |
| private def expressionOnlineStorage (Be Bk Bm Bt t : CE) : CE := | |
| 2 * Be + 2 * expressionBandSumStorage t (expressionOptimisticStorage Bm Bt (4 * Bk + 18)) + | |
| 2 * (2 * Bt + 2 * Bm + 4) + 3 | |
| private def expressionGainBit (Bm Bt : CE) : CE := 2100 * (Bm + Bt + 2) ^ 2 + 1 | |
| private def expressionDecrementBit (Bm Bt : CE) : CE := | |
| 6000 * (Bt + 1) ^ 2 + 2100 * (8 * Bt + Bm + 8) ^ 2 + 2 | |
| private def expressionCoefficientBit (Bk : CE) : CE := | |
| 2000 * (Bk + 3) ^ 2 + 6000 * (2 * Bk + 7) ^ 2 + 2 | |
| private def expressionOptimisticBit (Bm Bt Bc : CE) : CE := | |
| let W := 8 * Bt + 2 * Bm + 2 * Bc + 12 | |
| expressionGainBit Bm Bt + expressionDecrementBit Bm Bt + | |
| 2000 * (W + 1) ^ 2 + 6000 * (W + 1) ^ 2 + 2 | |
| private def expressionOnlineBit (Be Bk Bm Bt t : CE) : CE := | |
| let storage := expressionOptimisticStorage Bm Bt (4 * Bk + 18) | |
| let W := Be + expressionBandSumStorage t storage + (2 * Bt + 2 * Bm + 4) + 2 | |
| expressionCoefficientBit Bk + t * (expressionOptimisticBit Bm Bt (4 * Bk + 18) + 6) + | |
| expressionStoredSumBit t storage + expressionGainBit Bm Bt + | |
| 6000 * (W + 1) ^ 2 + 2000 * (2 * W + 3) ^ 2 + 3 | |
| private def expressionSelection (d v G K B Bv L V : CE) : CE := | |
| let P := expressionPoint K B Bv | |
| let W := expressionGradientStorage G (2 * P + 1) (2 * L + 1) | |
| expressionOptimizer d v G K B Bv L V + d * (expressionGradientBit G P L + 6) + | |
| expressionMaximizer d v (baMax P W) (2 * G ^ 60 + 1 + V + 1) | |
| private def expressionEnvelopeWord (M bb B : CE) : CE := B + bb + baSize M + 8 | |
| private def expressionEnvelopeWork (M bb v B : CE) : CE := | |
| let W := expressionEnvelopeWord M bb B | |
| 2100 * (bb + baSize M + 6) ^ 2 + | |
| (1 + v * (1000 * (W + 1) ^ 2 + 2)) + (1000 * (W + 1) ^ 2 + 1) + | |
| (1 + 2 * W * (1000 * (3 * W + 2) ^ 2 + 2) + 3 * W + 5) + v + 4 | |
| private def bandActionExpression : CE := | |
| let M := .input 0 | |
| let d := .input 1 | |
| let bb := .input 2 | |
| let v := .input 3 | |
| let G := .input 4 | |
| let K := .input 5 | |
| let t := .input 6 | |
| let Be := .input 7 | |
| let Bk := .input 8 | |
| let Bi := .input 9 | |
| let Bt := .input 10 | |
| let E := .input 11 | |
| let Bm := 3 * expressionEnvelopeWord M bb Bi + 1 | |
| M * (expressionEnvelopeWork M bb v Bi + 6) + | |
| (expressionBandPreparation M d v Bm + 2 * v + | |
| d * (expressionOnlineBit Be Bk Bm Bt t + 6) + | |
| expressionSelection d v G K (expressionBandVertexWord M Bm) (expressionBandVertexWord M Bm) | |
| (expressionOnlineStorage Be Bk Bm Bt t) (E * (2 * t + 1)) + 2) + 1 | |
| def bandActionBitDegree : ℕ := bandActionExpression.degree | |
| private def bandActionEnvironment (M d b v G K t Be Bk Bi Bt E : ℕ) : Fin 12 → ℕ | |
| | 0 => M | |
| | 1 => d | |
| | 2 => Nat.size b | |
| | 3 => v | |
| | 4 => G | |
| | 5 => K | |
| | 6 => t | |
| | 7 => Be | |
| | 8 => Bk | |
| | 9 => Bi | |
| | 10 => Bt | |
| | _ => E | |
| private theorem bandActionExpression_eval (M d b v G K t Be Bk Bi Bt E : ℕ) : | |
| bandActionExpression.eval (bandActionEnvironment M d b v G K t Be Bk Bi Bt E) = | |
| BinaryFraction.bandActionBitBudget M d b v G K t Be Bk Bi Bt E := by | |
| have hnat : (BinaryFraction.nat G).width = max (Nat.size G) 1 := by | |
| simp only [BinaryFraction.nat, BinaryFraction.width, SignedBinary.ofInt, | |
| Int.natAbs_natCast, ← Nat.size_eq_bits_len, List.length_cons, List.length_nil] | |
| simp only [bandActionExpression, bandActionEnvironment, expressionSelection, | |
| expressionEnvelopeWord, expressionEnvelopeWork, expressionBandPreparation, | |
| expressionBandCoordinateBit, expressionBandVertexWord, expressionBandSumStorage, | |
| expressionStoredSumBit, expressionStoredSumWord, expressionOnlineBit, | |
| expressionOnlineStorage, expressionOptimisticStorage, expressionOptimisticBit, | |
| expressionGainBit, expressionDecrementBit, expressionCoefficientBit, | |
| expressionOptimizer, expressionPoint, expressionGradientStorage, | |
| expressionGradientBit, expressionLogStorage, expressionLogBit, expressionLogUniversal, | |
| expressionLogStep, expressionMaximizer, expressionUpdate, baSize, baMax, | |
| FiniteBitPolynomial.eval, BinaryFraction.bandActionBitBudget, | |
| BinaryFraction.preparedBandActionBitBudget, BinaryFraction.selectionBitBudget, | |
| BinaryFraction.bandEnvelopeWordBudget, BinaryFraction.bandEnvelopeBitBudget, | |
| BinaryFraction.bandPreparationBitBudget, BinaryFraction.bandCoordinateBitBudget, | |
| BinaryFraction.bandVertexWordBudget, BinaryFraction.bandMassTotalStorageBudget, | |
| BinaryFraction.storedSumBitBudget, BinaryFraction.storedSumWordBudget, | |
| BinaryFraction.onlineLinearBitBudget, BinaryFraction.onlineLinearStorageBudget, | |
| BinaryFraction.onlineFinalWordBudget, BinaryFraction.optimisticTermStorageBudget, | |
| BinaryFraction.optimisticTermBitBudget, BinaryFraction.optimisticTermWordBudget, | |
| BinaryFraction.gainBitBudget, BinaryFraction.decrementBitBudget, | |
| BinaryFraction.coefficientBitBudget, BinaryFraction.optimizerBitBudget, | |
| BinaryFraction.optimizerRoundBitBudget, BinaryFraction.optimizerPointWordBudget, | |
| BinaryFraction.optimizerGradientWordBudget, UnreducedRational.gradientStorageBudget, | |
| UnreducedRational.logarithmStorageBudget, BinaryFraction.gradientCellBitBudget, | |
| BinaryFraction.generalPowerWordBudget, BinaryFraction.smoothingStorageBudget, | |
| BinaryFraction.shiftedStorageBudget, BinaryFraction.gradientLogStorageBudget, | |
| BinaryFraction.logarithmBitBudget, BinaryFraction.logarithmUniversalWordBudget, | |
| BinaryFraction.logarithmPartialBitStep, BinaryFraction.maximizerBitBudget, | |
| BinaryFraction.maximizerWordBudget, BinaryFraction.dotWordBudget, | |
| BinaryFraction.optimizerUpdateBitBudget, BinaryFraction.updateCoordinateWordBudget, | |
| BinaryFraction.updateCoefficientWordBudget, hnat] | |
| rfl | |
| theorem bandActionBitBudget_fixedPower (M d b v G K t Be Bk Bi Bt E S : ℕ) | |
| (hS : 2 ≤ S) (hM : M ≤ S) (hd : d ≤ S) (hb : Nat.size b ≤ S) | |
| (hv : v ≤ S) (hG : G ≤ S) (hK : K ≤ S) (ht : t ≤ S) | |
| (hBe : Be ≤ S) (hBk : Bk ≤ S) (hBi : Bi ≤ S) (hBt : Bt ≤ S) (hE : E ≤ S) : | |
| BinaryFraction.bandActionBitBudget M d b v G K t Be Bk Bi Bt E ≤ S ^ bandActionBitDegree := by | |
| have henv : ∀ i, bandActionEnvironment M d b v G K t Be Bk Bi Bt E i ≤ S := by | |
| intro i | |
| fin_cases i <;> simp only [bandActionEnvironment] <;> assumption | |
| simpa only [bandActionExpression_eval, bandActionBitDegree] using | |
| bandActionExpression.eval_le_pow _ S hS henv | |
| end EditApproximation | |
| end OAI | |