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GARRF RESEARCH LAB

PHOTONIC & QUANTUM - Virtual Photonic Integrated Circuits & Quantum Chip Lab

"Illuminating the Future with Light and Quantum Coherence"

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Integrated Optical & Quantum Chip Layout

Gopalkrishna Advanced Rural Research Foundation • Photonic & Quantum Lab •
SOI SUBSTRATE (300nm Si / 3um SiO2) V(t) CRYO QUBIT GRID (10mK) |Q0⟩ |Q1⟩ JJ Coupler SNSPD Laser Input λ=1550nm Ring Resonator
STATUS: Live Optical Coherence Active
Multi-Step Guided Lab

Interactive Photonic & Quantum Experiments

Optical Mode Field & Loss Profile

REAL-TIME SIMULATION

What Changed? What Did We Observe?

Adjusting the waveguide width directly influences the effective refractive index ($n_{eff}$) and mode confinement. A wider core reduces propagation loss but risks introducing higher-order spatial modes.

Key Metric: Propagation Loss: 1.24 dB/cm

Photonic & Quantum AI Lab Assistant

Instant answers powered by GARRF Quantum Physics Knowledgebase

Try asking:
AI Assistant: Welcome to the Photonic Integrated Circuits & Quantum Chip Virtual Lab! Select an experiment step above or ask me any question about waveguides, MZI modulators, or superconducting qubits.