Physics-Grounded Compute|Photonic & Electronic Co-Simulation

Design compute
around the physics.

Photrion models heterogeneous photonic and electronic architectures using evidence-backed physical parameters, helping researchers and engineers evaluate performance, identify bottlenecks, and understand what hardware must achieve to win.

Zero Fitted ParametersAPI-backed literature reconstructionTraceable Derivations
FIG 01 // HETEROGENEOUS_TRIAD
E/O PARAMETER GRAPH
Top ParticlePhoton (Laser Source)Coherent light propagation
Base ParticlesElectrons (CMOS)Accumulator & control
API-first
Scientific result surface
Provenance
Evidence traceability
Scoped
Explicit model limits
First-Principles
Physical Traceability
LIVE VALIDATION

Literature reconstruction,
with an evidence trail.

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CORE CAPABILITIES

System-level intelligence
for next-gen hardware.

Photrion bridges first-principles physics and full-stack computer architecture, enabling rapid evaluation of photonic, electronic, and hybrid compute substrates.

VALIDATION

Benchmark Real Systems

Inspect certified engine outputs with evidence and provenance attached.

Photrion Physics KernelExplore Model →
MAPPING

Map Hybrid Architectures

Compare electronic, photonic, and conversion domains through the core engine.

Photrion Physics KernelExplore Model →
TRACEABILITY

Trace the Inputs

Follow results back to explicit parameter provenance and known limitations.

Photrion Physics KernelExplore Model →
SYNTHETIC

Explore Synthetic Sweeps

Use clearly labeled synthetic fixtures to study controlled trade-offs.

Photrion Physics KernelExplore Model →
Live engine capability status
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EXECUTION PIPELINE

How Photrion Works

Photrion turns physics, architecture, and evidence into actionable system-level understanding.

PHASE 01 // IRHeterogeneous Execution Protocol

Frozen semantic computation graph

A stable graph defines computation independently from its hardware mapping.

Real-time Physical Boundary Enforcement Multi-scale Waveguide & Circuit Grid
Kernel Data Signature
struct Phase_01 { stage_name: "IR", fitted_parameters: 0, provenance_verifiable: true, engine_status: "SOLVED" }
CERTIFIED SYNTHETIC DEMO

Architecture sandbox,
served by the engine.

This is synthetic fixture output, not a hardware claim. The frontend does not calculate latency or break-even results.

Experiment 0001 inputs
Run the certified demo to load semantic and latency results.
THE ROADMAP AHEAD

Building the modeling layer
for next-generation compute.

As silicon scaling hits thermal and wire-delay walls, compute must evolve across photonic and electronic substrates. Photrion provides the evidence-backed foundation to navigate this transition.

01 // PHOTONICS

Photonics

Photonic domains and propagation-aware parameter contracts.

R&D FOCUS
02 // ELECTRONICS

Electronics

Electronic resources and explicit conversion boundaries.

R&D FOCUS
03 // PROVENANCE

Provenance

Evidence classifications, source versions, and fingerprints.

R&D FOCUS
04 // ARCHITECTURE MAPPING

Architecture Mapping

Hardware graphs, routes, and execution witnesses.

R&D FOCUS
05 // CERTIFIED DEMOS

Certified Demos

Synthetic fixtures clearly separated from literature reconstruction.

R&D FOCUS

Are you designing or evaluating future photonic architectures?

Photrion works with hardware researchers, foundry engineers, and architecture teams to evaluate custom physical parameters and compute limits.