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Grant: Alliance Grants

Université de Sherbrooke

$996,000.00

Canadian consortium for Quantum-Engineered States and Transduction (CanQuEST)

EF 2023-24

Résumé
Quantum technologies are playing an increasingly important role in our society and the limitations imposed by classical networks are becoming apparent. To mention one notable example, the development of quantum computers offer a new computational paradigm relying on quantum mechanical phenomena to solve problems that would otherwise be provably hard for classical computers. In this context, the realization of quantum networks would not only enable quantum secure communications, but would also allow connecting computing nodes, further facilitating the development of quantum computers. Nevertheless, since quantum information cannot be copied, processing quantum information poses numerous challenges. It is thus necessary to involve various quantum systems in order to precisely control and manipulate the information across different modes such as optical photon and microwave signals. Hybrid quantum interfaces, combining superconducting circuits, solid-state systems and photonic devices, constitute a central element for quantum computing and communication. Yet, their design, development, and fabrication remains extremely challenging and require the collaboration of multiple partners.With the development of key technologies for the quantum internet as main goal, this NSERC Canadian consortium for Quantum-Engineered Sources and Transduction (CanQuEST) proposal is uniquely positioned to tackle this challenge. Indeed, the team brings together experts on complementary aspects of quantum science and technology. Concretely, by combining multiple aspects of quantum technologies such as quantum circuits, photonics, micromechanics and artificial atoms, we propose to realize hybrid quantum interfaces operating between microwave frequencies and telecommunication wavelengths. CanQuEST will focus on two applications with the development of bidirectional transducers as well as the generation of complex states of interest for quantum sensing and communication. Such enabling devices are still critically missing to realize quantum network capable of processing information between different quantum nodes.
Programme
Alliance Grants
Emplacement
Quebec, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
NSERC's Awards Data

Tel que publié

Application id
578464-2022
Name nom
Juan, Mathieu ML
Department département
Physique
Organization id
68
Institution établissement
Université de Sherbrooke
Province en
Québec
Province fr
Québec
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2022
Award amount
996000
Program id
ALLRP
Program name en
Alliance Grants
Program name fr
Subventions Alliance
Group en
RESEARCH PARTNERSHIPS
Group fr
PARTENARIATS DE RECHERCHE
Committee code
96
Committee name en
RPP Internal Decision Cttee
Committee name fr
Cté de décision interne - PPR
Area of application code
800
Area of application group en
Information and communication services
Area of application group fr
Services d'information et de télécommunications
Area of application en
Information and communication services
Area of application fr
Services d'information et de télécommunications
Research subject code
2500
Research subject group en
Electrical and electronic engineering
Research subject group fr
Electrical and electronic engineering
Research subject en
Génie électrique et électronique
Research subject fr
Génie électrique et électronique
Application title
Canadian consortium for Quantum-Engineered States and Transduction (CanQuEST)
Keyword
Circuit quantum electrodynamics; Device integration; Diamond colour centres; Microfabrication; Micromechanics; Microwave quantum circuits; Photonic; Quantum information; Quantum optomechanics; Solid-state spin systems
Application summary
Quantum technologies are playing an increasingly important role in our society and the limitations imposed by classical networks are becoming apparent. To mention one notable example, the development of quantum computers offer a new computational paradigm relying on quantum mechanical phenomena to solve problems that would otherwise be provably hard for classical computers. In this context, the realization of quantum networks would not only enable quantum secure communications, but would also allow connecting computing nodes, further facilitating the development of quantum computers. Nevertheless, since quantum information cannot be copied, processing quantum information poses numerous challenges. It is thus necessary to involve various quantum systems in order to precisely control and manipulate the information across different modes such as optical photon and microwave signals. Hybrid quantum interfaces, combining superconducting circuits, solid-state systems and photonic devices, constitute a central element for quantum computing and communication. Yet, their design, development, and fabrication remains extremely challenging and require the collaboration of multiple partners.With the development of key technologies for the quantum internet as main goal, this NSERC Canadian consortium for Quantum-Engineered Sources and Transduction (CanQuEST) proposal is uniquely positioned to tackle this challenge. Indeed, the team brings together experts on complementary aspects of quantum science and technology. Concretely, by combining multiple aspects of quantum technologies such as quantum circuits, photonics, micromechanics and artificial atoms, we propose to realize hybrid quantum interfaces operating between microwave frequencies and telecommunication wavelengths. CanQuEST will focus on two applications with the development of bidirectional transducers as well as the generation of complex states of interest for quantum sensing and communication. Such enabling devices are still critically missing to realize quantum network capable of processing information between different quantum nodes.