03 / Connect the system

The chip is
only the beginning.

Light becomes current. Electronics turn it into a signal we can inspect.

Separate the chip from the board. Follow the detector, amplifier and converter, then switch to the heat view. This assembly study connects optical design, electronic readout and the questions a physical prototype must answer.

Explore the design workflowNative CAD geometry · enlarged optical detail
OPTICAL STRUCTURES. ELECTRONIC READOUT.AIFIELD / INTEGRATE Bottom mask · 0.01 mmBottom copper · 0.035 mmPrepreg 2 · 0.21 mmInner 2 · 0.0152 mm · nominal plane, fill not exportedCore · 1.065 mmInner 1 · 0.0152 mm · nominal plane, fill not exportedPrepreg 1 · 0.21 mmTop mask · 0.01 mmPIC1 / OPTICAL ENGINEAIFIELD · RECEIVER / REV. CAD70 × 57 mm · 4 Cu layersTop copper · 0.035 mmU1 · TIA op-amp (B) · SOIC-8U1PD1 · ext. InGaAs PD φ0.5 mm · TO-46-3 PD1RF1 · 1.5 MΩ · R0603CF1 · 2.10 pF · C0805C3 · 100 nF · C0402R5 · 1 kΩ · R0402C5 · 1 nF · C0402U6 · TIA op-amp (C) · SOIC-8U6PD2 · ext. InGaAs PD φ0.5 mm · TO-46-3 PD2RF2 · 4.7 MΩ · R0603CF2 · 1.19 pF · C0805C8 · 100 nF · C0402R7 · 1 kΩ · R0402C9 · 1 nF · C0402U7 · TIA op-amp (A) · SOIC-8U7PD3 · ext. InGaAs PD φ0.5 mm · TO-46-3 PD3RF3 · 6.8 MΩ · R0603CF3 · 0.99 pF · C0805C10 · 100 nF · C0402R8 · 1 kΩ · R0402C11 · 1 nF · C0402J1 · FPC 16p 0.5 mm · FPC-16-0.5J1U3 · LDO 3.3 V · SOT-23-5U3C1 · 1 µF · C0603C2 · 1 µF · C0603R3 · 100 kΩ · R0402R4 · 100 kΩ · R0402C4 · 100 nF · C0402U2 · 20-bit ADC, 3 inputs · QFN-16ADCU2C6 · 100 nF · C0402U4 · LED driver, 1000 Hz chop · SOT-23-5U4R6 · ISET · R0402D1 · LED · LED0603D1U5 · MEMS pressure · LGA-8-2x2.5U5C7 · 100 nF · C0402UA01 · monitor TIA A01 · SOT-23-5UA01RFA01 · 1.0 MΩ · R0402CFA01 · 2.79 pF · C0402UA02 · monitor TIA A02 · SOT-23-5UA02RFA02 · 1.0 MΩ · R0402CFA02 · 2.79 pF · C0402UA03 · monitor TIA A03 · SOT-23-5UA03RFA03 · 1.0 MΩ · R0402CFA03 · 2.79 pF · C0402UA04 · monitor TIA A04 · SOT-23-5UA04RFA04 · 1.0 MΩ · R0402CFA04 · 2.79 pF · C0402UA05 · monitor TIA A05 · SOT-23-5UA05RFA05 · 1.0 MΩ · R0402CFA05 · 2.79 pF · C0402UA06 · monitor TIA A06 · SOT-23-5UA06RFA06 · 1.0 MΩ · R0402CFA06 · 2.79 pF · C0402UA07 · monitor TIA A07 · SOT-23-5UA07RFA07 · 1.0 MΩ · R0402CFA07 · 2.79 pF · C0402UA08 · monitor TIA A08 · SOT-23-5UA08RFA08 · 1.0 MΩ · R0402CFA08 · 2.79 pF · C0402UA09 · monitor TIA A09 · SOT-23-5UA09RFA09 · 1.0 MΩ · R0402CFA09 · 2.79 pF · C0402UA10 · monitor TIA A10 · SOT-23-5UA10RFA10 · 1.0 MΩ · R0402CFA10 · 2.79 pF · C0402UA11 · monitor TIA A11 · SOT-23-5UA11RFA11 · 1.0 MΩ · R0402CFA11 · 2.79 pF · C0402UA12 · monitor TIA A12 · SOT-23-5UA12RFA12 · 1.0 MΩ · R0402CFA12 · 2.79 pF · C0402UA13 · monitor TIA A13 · SOT-23-5UA13RFA13 · 1.0 MΩ · R0402CFA13 · 2.79 pF · C0402UA14 · monitor TIA A14 · SOT-23-5UA14RFA14 · 1.0 MΩ · R0402CFA14 · 2.79 pF · C0402UA15 · monitor TIA A15 · SOT-23-5UA15RFA15 · 1.0 MΩ · R0402CFA15 · 2.79 pF · C0402UA16 · monitor TIA A16 · SOT-23-5UA16RFA16 · 1.0 MΩ · R0402CFA16 · 2.79 pF · C0402UB01 · monitor TIA B01 · SOT-23-5UB01RFB01 · 1.0 MΩ · R0402CFB01 · 2.79 pF · C0402UB02 · monitor TIA B02 · SOT-23-5UB02RFB02 · 1.0 MΩ · R0402CFB02 · 2.79 pF · C0402UB03 · monitor TIA B03 · SOT-23-5UB03RFB03 · 1.0 MΩ · R0402CFB03 · 2.79 pF · C0402UB04 · monitor TIA B04 · SOT-23-5UB04RFB04 · 1.0 MΩ · R0402CFB04 · 2.79 pF · C0402UB05 · monitor TIA B05 · SOT-23-5UB05RFB05 · 1.0 MΩ · R0402CFB05 · 2.79 pF · C0402UB06 · monitor TIA B06 · SOT-23-5UB06RFB06 · 1.0 MΩ · R0402CFB06 · 2.79 pF · C0402UB07 · monitor TIA B07 · SOT-23-5UB07RFB07 · 1.0 MΩ · R0402CFB07 · 2.79 pF · C0402UB08 · monitor TIA B08 · SOT-23-5UB08RFB08 · 1.0 MΩ · R0402CFB08 · 2.79 pF · C0402UB09 · monitor TIA B09 · SOT-23-5UB09RFB09 · 1.0 MΩ · R0402CFB09 · 2.79 pF · C0402UB10 · monitor TIA B10 · SOT-23-5UB10RFB10 · 1.0 MΩ · R0402CFB10 · 2.79 pF · C0402UB11 · monitor TIA B11 · SOT-23-5UB11RFB11 · 1.0 MΩ · R0402CFB11 · 2.79 pF · C0402UB12 · monitor TIA B12 · SOT-23-5UB12RFB12 · 1.0 MΩ · R0402CFB12 · 2.79 pF · C0402UB13 · monitor TIA B13 · SOT-23-5UB13RFB13 · 1.0 MΩ · R0402CFB13 · 2.79 pF · C0402UB14 · monitor TIA B14 · SOT-23-5UB14RFB14 · 1.0 MΩ · R0402CFB14 · 2.79 pF · C0402UB15 · monitor TIA B15 · SOT-23-5UB15RFB15 · 1.0 MΩ · R0402CFB15 · 2.79 pF · C0402UB16 · monitor TIA B16 · SOT-23-5UB16RFB16 · 1.0 MΩ · R0402CFB16 · 2.79 pF · C0402CM1 · 100 nF · C0402CM2 · 100 nF · C0402CM3 · 100 nF · C0402CM4 · 100 nF · C0402U8 · monitor ADC, band B · QFN-32ADCU8C12 · 100 nF · C0402U9 · monitor ADC, band A · QFN-32ADCU9C13 · 100 nF · C0402Q1 · heater driver · SOT-363Q1R9 · 100 kΩ · R0402R10 · 100 kΩ · R0402U11 · LED 1 sink, 1000 Hz chop · SOT-23-5U11R11 · ISET 1 · R0402U12 · LED 2 sink, 1000 Hz chop · SOT-23-5U12R12 · ISET 2 · R0402U13 · LED 3 sink, 1000 Hz chop · SOT-23-5U13R13 · ISET 3 · R0402U14 · LED 4 sink, 1000 Hz chop · SOT-23-5U14R14 · ISET 4 · R040201 / PHOTONICSSiN · 2 ECHELLE SPECTROMETERS · 32 CHANNELS02 / ELECTRONICS151 COMPONENTS · 521 ROUTES · 308 VIASOPTICAL STRUCTURES. ELECTRONIC READOUT.

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Geometry & model

Native AIFIELD CAD: 70 × 57 mm, four copper layers, 151 component placements, 521 routes and 308 vias. The floating optical detail uses the monitor receiver die's actual generated geometry: two compact echelle spectrometers, band filter, output gratings and detector interfaces. The separated die is enlarged ×4.3 for inspection; assembling restores the physical relative size. This is a design study: provisional package pin maps, assembly and foundry assumptions remain. Material shading, electrical activity marks and the optional heat overlay are illustrative, not field, timing or thermal solutions.

A photonic glucose chip-design example

The engineering question connects an optical sensing objective to a photonic design. AIFIELD contributes the design and simulation workflow; the intended measurement belongs to ArtiSense. A design output is useful evidence of engineering activity, while physical sensing remains a separate validation task.

Research & validation

Reading the evidence record

AreaWhat we haveLimit
Worked designPhotonic glucose chip-design exampleDesign activity, not sensing validation
Classical simulationInternal comparisons against our own reference solver, September 2026We will publish them with their reference, conditions and misses
Assisted workflowIn-app assistant, command line and MCPAssistance with human review, not autonomous design
Neural predictionResearch experiments given the boundary fieldGeneralization and practical speed remain open

A benchmark is more than a number

A publishable comparison needs the reference tool or method, geometry, materials, boundary conditions, numerical settings, evaluation measure, runtime environment and date. It must include misses as well as successes. Accuracy and acceleration claims require that supporting evidence.

Make the next result reproducible

Our next milestone is a demonstration you can check: design inputs, relevant settings, outputs and our interpretation, shared as one package. Ask us for it.

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