An Example Design using the Analog Photonics Component Library. 3/21/2017 Benjamin Moss

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Transcription:

An Example Design using the Analog Photonics Component Library 3/21/2017 Benjamin Moss

Component Library Elements Passive Library Elements: Component Current specs 1 Edge Couplers (Si) <3dB Loss (1500-1600nm) 2 Edge Coupler (SiN) <3dB Loss (1500-1600nm) 3 Vertical Coupler (Si) <4dB Loss (C-Band) 4 Vertical Coupler <4dB Loss (C-Band) (SiN) 5 3dB 4-Port Coupler (Si) <2% Split Ratio Deviation (target 1%) <0.5dB Loss (C-Band) 6 3dB 4-Port Coupler (SiN) <2% Split Ratio Deviation (target 1%) <0.5dB Loss (C-Band) 7 Y- Junction (Si) <1% Split Ratio Deviation <1dB Loss (C-Band) 8 Y-Junction (SiN) <1% Split Ratio Deviation <1dB Loss (C-Band) 9 Directional Coupler (Si) <4% Split Ratio Deviation (1550nm) <0.5dB Loss 10 Directional Coupler (SiN) <4% Split Ratio Deviation (1550nm) <0.5dB Loss 11 Si-to-SiN Coupler <0.25dB Loss (TE-Only, 1500-1600nm) 12 Crossing (Si) <0.25dB Loss, <-50dB Crosstalk Active Library Elements: Component Specs 13 Microdisk Modulator <2ns switching time (10-90), >200GHz electro-optic tuning, 1.2V applied; 4 lambdas 14 Digital Mach-Zehnder >10GHz capable, <4V pp, >6dB Modulator extinction 15 Ge Photodetector >25GHz, <100nA dark current 16 Thermo-Optic Phase <25mW/π-phase shift Shifter (Si) 17 Analog Mach-Zehnder P 1dB >20mW, SFDR>100dB/Hz 2/3 Modulator @ 1Hz, f 3dB >15GHz 18 Analog Ge P 1dB >20mW, SFDR>100dB/Hz 2/3 Photodetector @ 1Hz, f 3dB >25GHz 19 Thermo-Optic Switch <25mW/π-phase shift, >10dB (Si) extinction, 4 lambdas 20 Tunable Filter (Si) 35nm tuning range, <25mW power, 4 lambdas Library Elements Include: Layout abstract Schematic and symbol representation Compact model Thorough documentation

Supported Software Environments

Getting The Process Design Kit Create MOSIS Account & Download Set Up Software CAD Environment Determine a software flow Install tech files & display files Install simulation models Check out documentation

Component Library Documentation Documentation includes: Performance Specifications Port names Port sizes and types Design layer usage Thorough placement instructions Footprint size and description

How We Create a Library Component Design using 3D FDTD/EME with losses and dispersion Define universal specs and models Create the true geometry and the abstract (for MPW users) Verify using wafer scale characterization

Implementing a model: Detector example Empirical calibration and complex 3D FDTD simulation a b S12 e-o S12 e-o Symbol and Port Definition Geometry/Abstract Definition

Implementing a model: Detector example Use built-in functions for preserving time and frequency domain info Aggregate into compact/compound models Finally: Measure! Verify in time and frequency domain

Hello-World Design Example: Layout & Sim 15 Gb/s end-to-end photonic link using a Mach-Zehnder modulator External Laser PRBS Fiber Example Chip Fiber Electrical Oscillocope This simple design example exclusively uses Component Library elements Simple design examples like this will be part of next PDK release

Designer Environment (Cadence Virtuoso) Cadence Library Manager Virtuoso Design Layout Component Libraries Component Cells Layers Cadence Design Framework

Example Chip Layout (Cadence Virtuoso)

Example Chip Layout (Cadence Virtuoso) 6mm 8.5mm Chip Frame (Provided) Simple Design Example

Simple Example Design: Layout

Simple Example Design: Layout Chip Frame (Provided) Fiber Array Receive Block Transmit Block 1mm

Transmitter Layout Pads for probe/wirebond; Heaters, MZM arms MZM Termination Resistor Library Component Digital Mach-Zehnder Component 1m m Edge Couplers Silicon Waveguides

Receiver Layout Pads for probe/wirebond; Photodiode connections Chipframe Cleaved Fiber Input Edge Coupler Component Photodiode Component 200um Silicon Waveguide

Modeling the End-to-End Link (Lumerical) Designer s view of simulation testbench: External Electrical Drive Transmit Receive

External Drive Electronics Simulation Testbench PRBS-Driven Push- Pull Electrical Driver Top Arm Drive: DATA: 15Gb/s, 1Vpp Bottom Arm Drive: DATA: 15Gb/s, 1Vpp Electrical Eye Diagram: 10-to-90%: ~4ps

Transmitter Simulation Schematic External Laser Edge Coupler MZM Edge Coupler Average Power [dbm] 0dBm Coupler -2dBm Component MZM Specifications: Drive voltage: 1 Vpp push-pull 10-to-90% transition: ~4 ps Datarate shown: 15Gb/s Modulator bandwidth: ~15GHz Power: 60mW -5dBm -10dBm NRZ MZM Coupler -12dBm

Photodiode Simulation Schematic Optical Signal from TX Edge Coupler Photodiode (External) Oscilloscope Average Power [dbm] -12dBm Coupler -14dBm, 32µA Components Photodiode Specifications: Responsivity: 0.8 A/W Footprint: Datarate shown: 15Gb/s Modulator bandwidth: ~15GHz Power: 60mW Link Optical Eye @ 15 Gbps

Conclusion State-of-the-art performance from the first release onward The roadmap introduces new components and signifcantly improves existing components with each subsequent release Measured results at a wafer-scale will be fed back into compact models for manufacturing readiness and high yield. Many software flows are possible; as industry support for photonics improves, we will take advantage.