We build fault-tolerant quantum computers with efficiency and speed to unlock industrial impact.

Mission

Moving the frontier of compute by unlocking quantum.

Computing power has become the critical resource of modern society. Demand is exploding while classical technologies are saturating. Moving forward takes a radically new approach. Quantum computers offer the next leap but they still make errors. Today’s correction schemes are highly inefficient. The result: extreme costs, complexity and no industrial applications. Reaching fault-tolerance is thus the single most important challenge for building useful quantum computers.

Efficiency

Reducing resource overhead

Catching errors at the source to reach algorithmically viable performance with far fewer resources, while keeping clock speeds at record levels.

Speed

Superconducting qubits

x1000 faster computations than competing modalities.

Scalability

Making scalable QC feasible

Combining superconducting qubits with breakthrough error-correction efficiency allows rapid scaling to industrial-scale computing.

Technology
  1. Physical Element
  2. Error-Correction
  3. Logical qubit

Error correction right at the hardware

Our patented architecture corrects errors in a novel multilayer scheme: The majority of errors is suppressed at the hardware level – correction algorithms only have to catch what remains.

Hardware

Superconducting qubits enable error-correction cycle times below a microsecond.

Architecture

Our error-corrected qubits need orders of magnitude fewer redundancies.

Research

Built on decades of expertise in quantum technologies, error correction and applications.

Quantum information is fragile. Every qubit faces two kinds of errors: bit-flips and phase-flips. Today’s error correction fights them with brute force, forming each reliable qubit out of hundreds to thousands of redundancies.

Quint takes a different route. We design circuit elements that suppress most errors directly on the chip. Correction algorithms only have to catch what remains.

We run state-of-the-art cryogenic setups and use leading device fabrication facilities. Excellent R&D is the backbone of Quint. We provide an environment to turn ideas into working hardware.

A gloved hand holds a superconducting chip package with gold connectors, next to a copper mount wired with coaxial cables.
A researcher looks through a microscope while wire-bonding a chip.
Gold-plated stages of a dilution refrigerator with coaxial wiring.
Careers

Build the future of computing with us.

If you want to build game-changing technology in a fast-moving, agile environment, take a look at our open roles.

Open roles
About Us

Leadership

Prof. Christopher Eichler
Prof. Christopher EichlerCEO
Prof. Michael J. Hartmann
Prof. Michael J. HartmannCTO
Dr. Jona Stinner
Dr. Jona StinnerCFO / COO

Advisory Board

Prof. Florian Marquardt
Prof. Florian MarquardtAdvisor
Dr. Reinhard Ploss
Dr. Reinhard PlossAdvisor
Dr. Markus Hoffmann
Dr. Markus HoffmannAdvisor

Partners

  • Friedrich-Alexander-Universität Erlangen-Nürnberg
  • Max Planck Institute for the Science of Light
  • Fraunhofer EMFT
  • Erlangen National High Performance Computing Center (NHR@FAU)
  • Leibniz-Rechenzentrum der Bayerischen Akademie der Wissenschaften
  • Munich Quantum Valley
  • TUM Venture Labs
  • UnternehmerTUM Accelerator
  • Ansys, part of Synopsys
  • DB Systel
Contact

Talk to us.

LinkedIn ↗