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52 lines
2 KiB
Text
52 lines
2 KiB
Text
import Semantics.Waveprobe
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import Semantics.AVMR
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import Semantics.Adaptation
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open Semantics
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open Semantics.Spectrum
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open AVMR
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open Waveprobe
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namespace KimiProber
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/-! # Kimi k2.6 Weight Attestation
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Logic to map neural weights to genome states and filter them via RGFlow.
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-/
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/-- A quantized Kimi weight segment. -/
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structure KimiWeight where
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val : Q1616
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deriving Repr, DecidableEq
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/-- Map a weight to an EventType (DNA base).
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Heuristic: map the weight range [-1, 1] to A, T, G, C. -/
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def weightToEventType (w : KimiWeight) : EventType :=
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let raw := w.val.toNat
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if raw < 16384 then .a -- [0, 0.25)
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else if raw < 32768 then .t -- [0.25, 0.5)
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else if raw < 49152 then .g -- [0.5, 0.75)
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else .c -- [0.75, 1.0]
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/-- Attest a weight segment using Waveprobe coincidence.
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A segment is attested if its complex inner product with the lawfulness gate is high. -/
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def attestWeight (w : KimiWeight) (gate : Waveprobe.State 1) : Bool :=
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-- Represent the weight as a complex amplitude ψ = e^{i * weight * 2π}
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let theta := (w.val.toNat.toFloat / 65536.0) * 2.0 * 3.14159
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let psi : Waveprobe.State 1 := fun _ => Complex.exp (Complex.I * (Complex.ofReal theta))
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-- Waveprobe.cdot gate psi returns the overlap
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let overlap := Waveprobe.cdot gate psi
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-- For now, we assume a simple threshold on the real part of the overlap
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overlap.re > 0.5
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/-- The core purification predicate for Kimi Weights.
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A weight is "hardened" if it is attested and satisfies RGFlow lawfulness. -/
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def isHardened (w : KimiWeight) (g : Adaptation.Genome) (gate : Waveprobe.State 1) : Bool :=
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attestWeight w gate && Adaptation.isScaleCoherent g
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/-- Map a list of weights to an AVMR Node (Unified Compression). -/
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def weightStreamToNode (weights : List KimiWeight) (maxN : Nat) : List AVMR.Node :=
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let events := weights.map (λ w => weightToEventType w)
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let indices := List.range events.length
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indices.zip events |>.filterMap (λ (i, e) => AVMR.mkLeaf i maxN i)
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end KimiProber
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