Grant: Alliance Grants
École Polytechnique de Montréal
$919,445.00
QuantaMole: Consortium on Quantum molecular technologies
FY 2024-25
Summary
Quantum technologies rely on effects such as entanglement and superposition to achieve performance beyond what is possible with conventional devices. This includes sensors with a sensitivity beyond the classical limit, the ability to perform computations that would overwhelm the world's best supercomputers, and enabling schemes for secure communications that are unbreakable even given extensive ressources. A study from the National Research Council estimated that, by 2045, the Canadian quantum industry will generate $139B (including all economic effects) and account for 209,200 jobs.
At present, the vast majority of quantum technologies rely on a handful of material systems such as superconductors, defects in semiconductors, diamond and cold atoms. In contrast, the vastness of chemical space allows for the tantalizing possibility to engineer designer molecular materials for quantum technologies from the ground up. The QuantaMole Consortium brings together a team of chemists, physicists and engineers to capitalize on some of the most attractive properties of organic molecules in this context such as the ease with which they interact with light, their strong optical nonlinearities, the possibility to engineer electronic spin and to tune spin-orbit and spin-nuclei interactions, and the ability to seamlessly integrate organic materials within various device platforms. The team will develop entirely new materials to be used within bright sources of quantum light for sensing beyond the classical limit and secure communications. It will synthesize stable organic radicals whose emission can be harnessed as a sensitive magnetic field sensor. Finally, the team will develop fast and compact electro-optic switches, which are essential to scaling up current implementations of photonic quantum computing. All of these efforts will be in close interaction with partners that have a strong interest in using or developing approaches for quantum sensing, quantum communication, quantum computing, and a well-known Canadian manufacturer of specialty organic materials.
Program
Alliance Grants
Recipient
Location
Quebec, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
587593-2023
Name nom
Kéna-Cohen, Stéphane S
Department département
Génie physique
Organization id
64
Institution établissement
École Polytechnique de Montréal
Province en
Québec
Province fr
Québec
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2024
Competition year année de concours
2023
Award amount
919445
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
1207
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Information, computer and communication technologies
Area of application fr
Technologie de l'information, des ordinateurs et des réseaux de communications
Research subject code
3100
Research subject group en
Physics
Research subject group fr
Physique
Research subject en
Physics
Research subject fr
Physique
Field of research list names en
Not available
Field of research list names fr
Non disponible
Socioeconomic objective list names en
Not available
Socioeconomic objective list names fr
Non disponible
Application title
QuantaMole: Consortium on Quantum molecular technologies
Keywords
automated synthesis; electro-optic devices; fluorescent molecules; nonlinear optical components; nonlinear optical materials; odmr; optical antennas; single-molecule spectroscopy; single photon sources; stable radicals
Application summary
Quantum technologies rely on effects such as entanglement and superposition to achieve performance beyond what is possible with conventional devices. This includes sensors with a sensitivity beyond the classical limit, the ability to perform computations that would overwhelm the world's best supercomputers, and enabling schemes for secure communications that are unbreakable even given extensive ressources. A study from the National Research Council estimated that, by 2045, the Canadian quantum industry will generate $139B (including all economic effects) and account for 209,200 jobs.
At present, the vast majority of quantum technologies rely on a handful of material systems such as superconductors, defects in semiconductors, diamond and cold atoms. In contrast, the vastness of chemical space allows for the tantalizing possibility to engineer designer molecular materials for quantum technologies from the ground up. The QuantaMole Consortium brings together a team of chemists, physicists and engineers to capitalize on some of the most attractive properties of organic molecules in this context such as the ease with which they interact with light, their strong optical nonlinearities, the possibility to engineer electronic spin and to tune spin-orbit and spin-nuclei interactions, and the ability to seamlessly integrate organic materials within various device platforms. The team will develop entirely new materials to be used within bright sources of quantum light for sensing beyond the classical limit and secure communications. It will synthesize stable organic radicals whose emission can be harnessed as a sensitive magnetic field sensor. Finally, the team will develop fast and compact electro-optic switches, which are essential to scaling up current implementations of photonic quantum computing. All of these efforts will be in close interaction with partners that have a strong interest in using or developing approaches for quantum sensing, quantum communication, quantum computing, and a well-known Canadian manufacturer of specialty organic materials.