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NQ

Nord Quantique

Nord Quantique develops superconducting circuits that implement bosonic codes for quantum error correction, effectively mitigating errors at the qubit level. This technology enables the creation of fault-tolerant quantum computers, significantly reducing the number of physical qubits required for reliable computations across various industrial applications.

Brossard, CanadaFounded 2021343K+ followers
Updated 20 months ago

Funding

$8.2M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.

BV
Funding rounds are not available yet.

Founders

Product

Problem

Quantum computing faces a significant hurdle in error correction, requiring a large number of physical qubits to maintain the integrity of computations. Traditional approaches to error correction often demand substantial qubit redundancy, leading to increased energy consumption and larger, less efficient systems.

Solution

Nord Quantique is developing superconducting quantum computers that implement bosonic codes for quantum error correction, addressing errors directly at the qubit level. This approach reduces the overhead of physical qubits needed for fault-tolerant quantum computing, enabling more efficient and reliable computations. By focusing on error correction at the source, Nord Quantique aims to create quantum computers that are both effective and practical for various industrial applications. Their technology facilitates advanced calculations using deep circuits and complex algorithms, providing solutions for challenges in materials science, pharmaceuticals, and other sectors.

Target Audience

Nord Quantique's primary customers are enterprises in sectors such as materials science and pharmaceuticals, as well as government entities requiring advanced computational capabilities.

Features

  • Superconducting circuits implementing bosonic codes for quantum error correction
  • Error correction approach that minimizes the number of physical qubits required
  • High clock speeds for rapid computation and timely information delivery
  • Scalable architecture designed for fault tolerance and operational reliability
  • Focus on correcting bit-flips and phase-flips, the most common types of quantum errors
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