Ternary-Wave

Dual-Mode Phase-Encoded Semiconductor

⬡ Beyond the Cartesian Grid

Native ternary logic (t ∈ {−1, 0, +1}) embedded in curved wave-guides. Phase-encoded states replace static voltage thresholds — computation through constructive and destructive wave interference, not Boolean gate cascades.

Phase-Encoded Ternary · Tri-Axial Nodes · Spiral Routing
0
Equilibrium
0° · Destructive Null
Neutral state — wave interference cancels to equilibrium.
+1
Expansion
+120°
Positive phase shift — constructive expansion.
−1
Contraction
−120° / 240°
Negative phase shift — constructive contraction.
Tri-Axial Node Field — LIVE

⬡ Dual-Rail Binary Bridge

The "functional Trojan horse" — wraps the ternary core in a binary translation layer for legacy compatibility. Each trit maps across a dual-rail binary pair at the chip perimeter.

00
→
0
0°
01
→
+1
+120°
10
→
−1
−120°

⬡ Logarithmic Spiral Routing

r = a·ebθ  ·  E9: ψ(x) = 1 + ((x−1) mod 9)
1 · Cell Init
Tri-Axial Nodes
Instantiated at polar coordinates (r, θ, φ) along expanding spiral arms.
2 · Placement
Field-Driven
Energy minimization via attraction/repulsion weighted by connectivity + RSM flow.
3 · Routing
Curved Vectors
Cubic Bézier arcs + spiral interpolation — oblique intersections, zero cross-talk.
4 · Export
GDSII
Curved geometry translated to polygons for physical mask generation.

⬡ Why It Transcends CMOS

No Static Leakage

Power restricted to active phase-shifting events — eliminates static leakage current common in traditional transistors.

Energy Efficiency

Zero Cross-Talk

Curved routing intersects at oblique angles, not parallel — reduces electromagnetic coupling and capacitive crosstalk.

Non-Rectilinear

Native Wave Logic

Local update rules execute through physical wave mechanics — amplitudes and phases add naturally via interference.

Hardware-Level

Legacy Compatible

Dual-rail bridge runs existing software while internally abandoning binary logic.

Bridge Strategy