About

Triqee

Quantum researcher, systems architect, and the mind behind the ternary framework.

Origin

How ternary became the answer

The question that started everything was deceptively simple: why do we keep forcing three-valued logic into two-valued hardware? Ternary systems appear throughout nature and mathematics — balanced ternary was used in early Soviet computers, and three-level quantum systems are physically natural in many superconducting and photonic architectures.

After years working at the intersection of quantum error correction and compiler design, the inefficiency became impossible to ignore. Every binary-to-ternary encoding step was a tax — on circuit depth, on coherence time, on the fidelity budget that near-term hardware can barely afford.

The Triqee framework is the result of that frustration turned into a research program: a ground-up rethinking of quantum computation that treats three-level systems as first-class citizens rather than an afterthought.

Vision

What this framework is building toward

01

Hardware-native ternary

Collaborate with fabrication teams to develop qudit processors where the three-level structure is the physical default, not a software abstraction layered over qubits.

02

Open compiler toolchain

Release a fully open-source compiler that translates arbitrary quantum algorithms into optimized ternary circuits, lowering the barrier for researchers to experiment on qutrit hardware.

03

Algorithmic library

Build a reference library of ternary-native algorithms — search, optimization, simulation, cryptography — demonstrating concrete performance advantages over binary equivalents.

04

Industry partnerships

Partner with quantum hardware companies and national labs to validate the framework on real devices and establish ternary computation as a credible path to quantum advantage.

Background

Research and expertise

Quantum Error Correction

Stabilizer codes, fault-tolerant gate sets, and threshold theorems for qudit systems

Compiler Design

Circuit optimization, gate synthesis, and mixed-radix compilation for near-term hardware

Quantum Algorithms

Phase estimation, variational methods, and arithmetic circuits in ternary register models

Hardware Interfaces

Pulse-level control, calibration, and decoherence characterization on superconducting qudits

Interested in collaborating?

Whether you are a researcher, engineer, or investor — if the ternary framework resonates, reach out.

Get in touch