Research projects of the PEPR Quantum

OQuLus

The OQuLus project brings together French experts in photonics and quantum technologies to build two prototypes of NISQ optical quantum computers.

e-DIAMANT

e-DIAMANT federates the knowledge and expertise of 11 partners to create diamond samples optimized for quantum application.

QMemo

The QMemo project develops quantum memories that will eventually bring together the figures of merit required for their integration into future French and European experimental quantum networks.

QARES

The aim of the QARES project is to design quantum algorithms to solve the important problem of electronic structure.

EPiQ

The EPiQ project aims to develop the algorithmic techniques available for both NISQ machines and fault-tolerant machines, and to make it easier to put them into practice.

QAFCA

Among the many anticipated applications for atomic sensors, the QAFCA project focuses on the field of geophysics.

CARAMELS

The aim of the CARAMELS project is to create a national consortium to push the limits of existing Rydberg sensors beyond the state of the art, and to develop new applications.

Presquile

As early as 2016, PRESQUILE scientists demonstrated that industrial CMOS technology could be used to produce a qubit. The challenge now is to assemble and control a large number of these qubits.

PQ-TLS

The aim of the PQ-TLS project is to develop post-quantum cryptography schemes over a 5-year period, to be implemented in a web browser.

Dyn1D

The Dyn1D project aims to study the dynamics of one-dimensional N-body quantum systems using analog quantum simulators.

QUTISYM

The QUTISYM project explores problems associated with quantum transport, using a “quantum simulation” approach.

QuMOMI

The QUMOMI project aims to develop in France a quantum interface between microwaves and infrared optics.

QubitAF

QubitAF aims at developping the potential of cold atom platforms that have already shown interest for quantum simulation: arrays of interacting atoms in optical tweezers and in optical lattices.

QUANTIN

The aim of the QUANTIN project is to explore new superconducting/semiconducting and superconducting/topological material platforms for quantum devices with improved structural properties and performance.

QCommTestbed

The QCommTestbed project aims to provide France with a nationally coordinated testbed, used for demonstrations of quantum communication applications.

MolQif

The MolQIF project aims to explore the potential of paramagnetic complexes (PCs) to act as robust, solid-state, spin-based quantum bits (qubits) for quantum information processing (QIP).

Miracle_Q

MIRACLE_Q aims to manufacture, validate and test the elementary module of a new quantum computer platform.

eQubitFly

The eQubitFly project aims to develop a novel quantum architecture by harnessing flying electron qubits.

DIQKD

The aim of the DIQKD project is to create the first prototype of “black box” quantum key distribution with optical elements.

NISQ2LSQ

The NISQ2LSQ project aims to significantly accelerate R&D in the theory and design of hardware-efficient error-correcting codes.

RobustSuperQ

The RobustSuperQ project aims at accelerating French R&D on superconducting and hybrid qubits protected by construction against decoherence.

aQCess

aQCess aims at establishing a public platform for digital quantum computing based on ultra-cold Rydberg atoms, with over 400 high-quality programmable qubits for academic and industrial research and training.

Projects