3D Stacked Kernel Board - Ar Gas Gap Design

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3D Kernel Board: Ar Gas Gap

Grid Size 8×8×8

Cores 512

Pressure 0 MPa

Status LEAKING

⚙️ Board Controls

🌡️ Ar Pressure Control

Ar Gas Pressure: 0.1 MPa

0 MPa 2.0 GPa

1.0 GPa Target: Ar density ↑, photon tunneling blocked, O1 diffusion stopped

📊 Element Legend

Si 3s2 3p2

Ti 4s2 3d2

Cu 4s1 3d10

Zn 4s2 3d10

Ag 5s1 4d10

Au 6s1 5d10

Ar 3s2 3p6 (0 lasers)

System Metrics

D per Core 0.000

OUT Current 0.0000 A

Leak Rate 99.99%

Photon Block 0.0%

Ar Density 0.00180 g/cm³

📖 README - Wet Chip Design

Ar Gas Isolation Layer

Ar (3s² 3p⁶) has 0 unpaired electrons = 0 lasers
Fills capsid gaps between Ti3SiC2 cores
At 1 GPa: density increases 100×, becomes photon barrier
Prevents O1 diffusion and electrical shorts

Wet Chip Stack Logic

Ti3SiC2 stack: 3 Ti atom layers + 1 SiC atomic ribbon
Ar capsid surrounds each stack as inert insulator
Cu/Zn/Ag/Au provide conduction paths
1 GPa pressure = diamond anvil cell equivalent

Operation

Build: Create 10×10×10 lattice with Ar gaps
Stack: Add Ti3SiC2 + Ar isolation layer
IN Pulse: Inject electron carriers
10kHz: Toggle clock for D computation
O1: Oxygen test injection (blocked by Ar at 1GPa)
Pressure: Control Ar density 0-2 GPa

Physics Model

Leak = 100% at 0.1MPa, 0% at 1.0GPa+
D = d_toggled / total_cores per 100ms
OUT = D × conduction_factor × num_cores
Photon tunneling ∝ 1/Ar_density²