Entangled Code

Stage 4: QRL Runs on Photonic Cloud

quantum computing

QRL

photonic QC

MBQC

Perceval

graphix

Quandela

cloud

QRL programs now run on Quandela Cloud. Built a direct path-encoded converter to bypass the polarization/path encoding mismatch. Bell state verified on sim:belenos.

Stage 3: Adaptive Corrections and Teleportation

quantum computing

QRL

MBQC

teleportation

adaptive corrections

QRL now tracks measurement outcomes and applies Pauli corrections automatically. Stage 3 completes the MBQC compiler with working quantum teleportation.

Published on Zenodo + Renamed to QRL

quantum computing

QRL

publishing

open science

Zenodo

Two major updates: The project is now officially published on Zenodo with DOI 10.5281/zenodo.18292199, and we’ve renamed from QPL to QRL (Quantum Relational Language) to avoid confusion with existing academic work.

QRL Meets Photonics: The First Relations-Based Compiler for Photonic Quantum Computers

quantum computing

QRL

photonic QC

MBQC

Quandela

Perceval

graphix

hardware

Photonic quantum computers are MBQC-native. QRL’s relations-first approach compiles directly to photonic circuits, bypassing gate decomposition entirely. This changes everything.

Stage 2 Complete: QRL Now Compiles to MBQC Patterns

quantum computing

QRL

MBQC

quantum teleportation

compiler

measurement patterns

The MBQC compiler is working! QRL now extracts graph states, generates measurement patterns, and performs quantum teleportation with adaptive corrections. Here’s what changed and why it matters.

Why QRL is Adopting Measurement-Based Quantum Computing

quantum computing

QRL

MBQC

research

quantum foundations

Gates are not how quantum mechanics works. QRL is adopting Measurement-Based Quantum Computing (MBQC) as its compilation target—not because it’s easier, but because it’s what the physics actually says. Here’s the theory, the motivation, and the research program ahead.

Stage 1: Scaling Relations-First Quantum Programming to n Qubits

quantum computing

QRL

physics

GHZ states

entanglement

tensor networks

Stage Zero proved relations-first quantum programming works for 2 qubits. Stage 1 scales to arbitrary n-qubit systems with GHZ states, W states, and proper tensor algebra. Here’s what changed and why it matters.

Stage Zero: Programming Quantum Reality Through Relations, Not Gates

quantum computing

QRL

physics

programming languages

research

Most quantum frameworks force you to think in gates. QRL Stage Zero proves you can build from entanglement instead. Here’s why relations-first quantum programming might unlock something bigger.

Quantum Computing Foundations: The Theory Behind QRL

quantum computing

theory

physics

tutorial

A comprehensive guide to the quantum mechanics you need to understand relations-first quantum programming. From superposition to entanglement entropy.