Our Technology

Explore the patent-pending technology behind Quantonic's hybrid photonic-classical computing platform. 16 detailed technical diagrams showing system architecture, photonic processing, and educational interface.

Patent Pending: AU 2025/2025234266

Our Technology

The QL-series platform combines photonic quantum processing with classical acceleration through a patent-pending hybrid architecture. Below are technical diagrams from our patent application illustrating key system components.

System Architecture

Figure 1: System Architecture Overview
Figure 1

System Architecture Overview

High-level overview of the QL-series hybrid photonic-classical computing platform, showing the integration between classical processing units and the photonic subsystem.

Figure 2: Photonic Processing Unit
Figure 2

Photonic Processing Unit

Detailed architecture of the photonic processing unit (PPU) showing Mach-Zehnder interferometer mesh and optical pathways.

Figure 3: Hybrid Execution Model
Figure 3

Hybrid Execution Model

Workflow diagram illustrating how computations are partitioned between classical and photonic processors for optimal performance.

Figure 4: AI-Augmented Circuit Partitioning
Figure 4

AI-Augmented Circuit Partitioning

Machine learning engine that dynamically determines optimal workload distribution between classical and quantum subsystems.

Figure 5: Optical Interconnect Architecture
Figure 5

Optical Interconnect Architecture

Silicon photonics-based interconnect system enabling high-bandwidth, low-latency communication between processing elements.

Figure 6: Quantum State Preparation
Figure 6

Quantum State Preparation

Single-photon source array and state preparation circuits for initializing quantum computations.

Figure 7: Measurement and Readout
Figure 7

Measurement and Readout

Single-photon detector array and classical post-processing pipeline for quantum measurement results.

Platform Infrastructure

Figure 8: Multi-Tenant Architecture
Figure 8

Multi-Tenant Architecture

Software architecture enabling concurrent access for 100+ users while maintaining isolation and fair resource allocation.

Figure 9: Error Mitigation Pipeline
Figure 9

Error Mitigation Pipeline

Real-time error detection and mitigation techniques for maintaining computational fidelity in the photonic subsystem.

Figure 10: Thermal Management System
Figure 10

Thermal Management System

Passive and active cooling architecture maintaining room-temperature operation without cryogenic requirements.

Figure 11: Control Electronics
Figure 11

Control Electronics

FPGA-based control system managing photonic component timing, phase control, and detector synchronization.

Software & User Experience

Figure 12: Software Stack
Figure 12

Software Stack

Layered software architecture from low-level hardware abstraction to high-level quantum programming interfaces.

Figure 13: Desktop Form Factor
Figure 13

Desktop Form Factor

Physical enclosure design optimized for laboratory deployment with standard rack-mount compatibility.

Figure 14: Quantum Algorithm Workflow
Figure 14

Quantum Algorithm Workflow

End-to-end workflow for executing quantum algorithms, from high-level description to photonic circuit compilation and execution.

Figure 14A: Circuit Compilation Pipeline
Figure 14A

Circuit Compilation Pipeline

Detailed view of the quantum circuit compilation process, transforming abstract quantum operations into photonic gate sequences.

Figure 15: Educational Interface
Figure 15

Educational Interface

Multi-tenant user interface designed for educational environments, enabling concurrent student access with progress tracking and curriculum integration.

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