Funding opportunity
| Who? | Canadian university researchers working in partnership with international1 collaborators from the academic sector from G7 member countries (France, Germany, Italy, Japan, the United Kingdom and the United States) |
|---|---|
| How much? | $20,000 to $25,000 |
| How long? | 1 year |
| Application deadline | Applications will be accepted until January 8, 2026, 8:00 pm (ET). |
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Description -
How to apply -
Policy on Sensitive Technology Research and Affiliations of Concern -
Equity, diversity and inclusion -
Post Award -
Resources -
Apply now -
Contact -
Results
Quantum science is the study, manipulation and control of systems at the atomic and subatomic level. Quantum technologies are at the leading edge of science and innovation, both in Canada and worldwide. They will support the growth and transformation of key sectors, enable new economic opportunities and help advance a range of benefits for society. Canada is a leader in quantum research, and Canadian scientists are well positioned to capitalize on these opportunities.
Following up on Budget 2021 , the Government of Canada launched the
At the 2025 G7 Leaders’ summit, members developed the
The G7 Countries Alliance International Catalyst Quantum grants provide up to $25,000 for one year to support Canadian academic researchers in initiating and developing research collaborations with international researchers from the academic sector in G7 member countries in the areas of quantum science and quantum technologies. It is expected that 25 to 40 grants will be awarded. Important: For this call, applications including collaborators outside of G7 member countries are not accepted. A separate funding opportunity has been established to support collaborations exclusively with academic researchers from other countries. Please refer to the
Proposals may address any challenge in quantum science, but their thrust must aim to advance one or more of the
- quantum algorithms/encryption, including post-quantum cryptography
- quantum communications
- quantum computing
- quantum materials
- quantum sensing
Proposals may also synergistically couple any of these quantum technology thrusts to other research topics in the natural sciences and engineering. Proposals that do not address one or more of the
Additional information and guidelines governing Alliance International Catalyst Quantum grants are provided on the
All expenditures are subject to the principles and directives governing the appropriate use of grant funds outlined in the
Award decisions will be subject to the availability of funds and may include a random selection process.
You can apply at any time up until January 8, 2026, at 8:00 pm (ET). You and any Canadian co-applicants must hold, as a primary applicant, an active NSERC peer-reviewed grant at the time of application. This funding opportunity is only intended to fund academic-to-academic collaborations. Your international academic collaborator must be the equivalent of an assistant, associate or full professor from an accredited degree-granting postsecondary institution. For this funding opportunity, non-academic collaborators and partner organizations (private, public or not-for-profit sectors) are not permitted.
You are limited to one application as either applicant or co-applicant. This limit only applies to the G7 Countries Alliance International Catalyst Quantum grants and does not count against application limits for other Alliance International grants or calls.
To start your application:
- log in to the
online system and choose Create a new form 101 - select Research partnerships programs, then Alliance grants
- for the Proposal type field, select Full proposal
- for the Type of call field, select International - Catalyst – Quantum-G7 from the drop-down menu
You are responsible for providing the following documents and information to NSERC:
- A completed application for a grant (Form 101) completed following the
instructions for completing an Alliance International grants application , and containing: - a summary of your proposed research
- a list of keywords describing your proposed research
- the G7 Countries Alliance International
Catalyst Quantum proposal template - Completed attestation forms for each researcher with a named role (i.e., applicant, co-applicant, collaborator) in the grant application, as this call is directed to technologies listed in the
Sensitive Technology Research Areas - A budget and accompanying justification for the funds you are requesting from NSERC
- A completed and up-to-date
personal data form with CCV attachment (Form 100A) for yourself and all Canadian co-applicants. College faculty may submit a CCI format CV; all other co-applicants must submit the CCV in NSERC format - A two-page bio sketch for each of your collaborators through
NSERC’s online system
Submit your application and all other documents as required via NSERC’s
Incomplete or late applications will not be considered. Consult with your institution’s research office to confirm internal deadlines for the submission of your application.
To ensure that the Canadian research ecosystem is as open as possible and as safeguarded as necessary, the Government of Canada has introduced the
The STRAC Policy addresses risks related to
To comply with the policy, applicants must identify whether the grant application aims to advance a sensitive technology research area. If so, the submission of
The
NSERC is acting on the evidence that achieving a more equitable, diverse and inclusive Canadian research enterprise is essential to creating the excellent, innovative and impactful research necessary to advance knowledge and understanding, and to respond to local, national and global challenges. This principle informs the commitments described in the
Excellent research considers EDI both in the research environment (forming a research team, student training) and in the research process. For Alliance grants, EDI considerations are currently evaluated in the training, mentorship and professional development opportunities for students and trainees. The aim is to remove barriers to the recruitment and promote full participation of individuals from underrepresented groups, including women, Indigenous Peoples (First Nations, Inuit, and Métis), persons with disabilities, members of visible minority/racialized groups and members of 2SLGBTQI+ communities. Applicants are encouraged to increase the inclusion and advancement of underrepresented groups as one way to enhance the excellence in research and training. For additional guidance, applicants should refer to
Acknowledging NSERC
You must acknowledge NSERC support in any communications or presentations about your research supported by this funding opportunity.
Reporting progress
You will be informed of reporting requirements upon reception of your award letter. You must provide a final report within three months of the end of your project.
Notifying NSERC about changes
You must notify NSERC if any of your international collaborators leave the project. In this case you should discuss with NSERC the impact on your ability to achieve the original goals of the project and whether the project may need to be amended or terminated.
If you fail to provide the requested feedback, your subsequent applications may be denied.
Extension of grants
NSERC automatically provides an extension period of one year for using the grant funds. This extension period allows you to complete your research activities planned for within the specified term of your grant.
Alliance International grants funding opportunity Alliance International grants terms and conditions of applying for applicants Alliance International grants terms and conditions of award Presentation on Alliance Quantum grants and Alliance Consortia Quantum grants: slides Presentation on Alliance Quantum grants and Alliance Consortia Quantum grants: slides with notes
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Applications with collaborators from other countries (including other countries of the European Union) must be submitted to the Alliance International Catalyst Quantum funding opportunity.
| Year | Researcher | Project Title | Institution | Partner(s) | Area(s) of Application | Funding Amount | Type of Call |
|---|---|---|---|---|---|---|---|
| 2025 | Karatas, Ahmet | Scalable Flame-Derived Quantum Dots for Next-Generation Photonic and Quantum Technologies | Toronto Metropolitan University | Materials sciences; Materials performance | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Ikki, Salama | Quantum Communication and OTFS Integration for 6G Wireless Networks | Lakehead University | Communications technologies (satellites, radar, etc.); Computer communications | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Ahamed, Mohammed | Development of MEMS-Quantum Silicon Spin-Photon Qubits for Tunable, Chip-Scale Quantum Sensing | University of Windsor | Electrical and electronic machinery and equipment (including computer hardware) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Barzanjeh, Shabir | Quantum Sensing for Inertial Navigation with a Squeezed-Light Optomechanical Accelerometer | University of Calgary | Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Gao, Jianbo | Ultrafast photophysics of electron spin in biological DNA Qubit | Brock University | Biomedical engineering; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Kang, Kang | Coordinated experimental-computational engineering of biomass-derived quantum carbon dots for critical mineral sensing | Lakehead University | Alternative energy resources; Energy resources (including production, exploration, processing, distribution and use) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Rondeau-Gagné, Simon | Engineering Conjugated Polymers for Room-Temperature Spin-Selective Transport | University of Windsor | Information, computer and communication technologies; Materials sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Adesina, Adeyemi | Quantum Layered Materials for Early-Stage Sensing and Durability Monitoring in Low-Carbon Cementitious Systems | University of Windsor | Construction, urban and rural planning | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | He, Quan | Doped Carbon Quantum Dots decorated photocatalysts for enhancing photocatalytic H2 generation | Dalhousie University | Materials sciences; Materials performance | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Rochefort, Alain | Caractérisation de commutateurs optomagnétiques organiques pour la spintronique | École Polytechnique de Montréal | Physical sciences; Materials sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Taghipour, Sharareh | Mission reliability for quantum systems under operational states using benchmarking and telemetry | Toronto Metropolitan University | Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Anpalagan, Alagan | QML-enabled Digital Twin for Ubiquitous Intelligence of Things | Toronto Metropolitan University | Communications technologies (satellites, radar, etc.); Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Dagdeviren, Omur Erdinc | Triangulene Quantum Materials: Stability, Assembly, and Measurement | École de technologie supérieure | Materials sciences; Instrumentation technology | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Dudding, Travis | Beating "the Big C" though Quantum Computing | Brock University | Human health (including medically-related psychological research); Medical and health sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Brannan, Michael | Mathematical Foundations of Quantum Communication | University of Waterloo | Computer communications; Mathematical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Kim, Seonghwan | Quantum-Enabled 0D/2D Fluorophore Heterostructures for Ultra-Trace Heavy-Metal Monitoring in Water | University of Calgary | Water; Materials performance | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Zhang, Yizhou | Verified Noise-Aware Quantum Circuit Cutting | University of Waterloo | Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Das, Gautam | Quantum gas sensor: Generation of entangled photons in near infrared and mid-infrared regions and building a Nonlinear Interferometer | Lakehead University | Agricultural chemicals (fertilizers, herbicides, pesticides); Climate and atmosphere | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Bardouille, Timothy | Improving quantum sensor performance for magnetic imaging: Magnetic field compensation in a cylindrical shield | Dalhousie University | Medical and health sciences; Physical sciences | 24998 | International - Catalyst - Quantum - G7 | |
| 2025 | Zhang, Jin | Hybrid Opto-Spintronic Quantum Materials for Self-Powered Magnetic Sensing | Western University | Materials performance; Manufacturing processes and products | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Mehta, Arthur | On the complexity of quantum channel capacities | University of Ottawa | Advancement of knowledge; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Lantagne-Hurtubise, Etienne | Orbital magnetism in two-dimensional van der Waals materials | Université de Sherbrooke | Advancement of knowledge | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Kiani, Amirkianoosh | Quantum-Enhanced Modeling and Optimization of Nano-Engineered Energy Materials via Nanophotonic-Inspired Feature Maps | Ontario Tech University | Energy storage and conversion; Manufacturing processes and products | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Ménard, Jean-Michel | Quantum-enabled THz polarimetry | University of Ottawa | Instrumentation technology; Medical and health sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Li, Heng | Leveraging Quantum State Invariants for Enhanced Quantum Error Correction | École Polytechnique de Montréal | Information, computer and communication technologies; Computer software | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Shastri, Bhavin | Quantum-photonic-enhanced sensing platform | Queen's University | Information systems and technology; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Clancy, Patrick | Exploring Quantum Materials with Tailored Neutron Beams | McMaster University | Materials sciences; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Lei, Antonio | Towers of isogeny graphs and modular curves in the context of post-quantum cryptography | University of Ottawa | Computer communications | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Kavanagh, Ryan | Reliable foundations for hybrid quantum-classical languages | Université du Québec à Montréal | Computer software; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Lu, Tao | Feasibility study of cavity quantum optomechanical magnetometry at Ga2O3 defect centre | University of Victoria | Materials sciences; Life sciences (including biotechnology) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Rayan, Steven | Frustrated Quantum Magnets and Topological Qubits | University of Saskatchewan | Materials sciences; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Lagos, Maureen | Mapping oxygen isotopes at Josephson junctions in high temperature superconductor-based SQUIDs | McMaster University | Materials performance; Instrumentation technology | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Huang, Kai | Size-Tunable Lanthanide Quantum Nanocrystals for Enhanced, Multicolor Upconverted Superfluorescence | University of Toronto | Materials sciences; Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Jian, Cuiying | Hybrid Multiscale Simulations of Quantum Electronic Response in Electrolyte-Gated Graphene Electrodes | York University | Engineering; Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Feng, Chen | Efficient Multi-Mode GKP Codes for Photonic Quantum Computing | The University of British Columbia | Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Rubel, Oleg | Advancing altermagnetic quantum materials for next-generation spintronic applications | McMaster University | Physical sciences; Instrumentation technology | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Chi, Hang | Topological Semimetals for Quantum Applications | University of Ottawa | Physical sciences; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Islam, Kazi Rajibul | Simulating high energy physics models with a trapped ion quantum simulator | University of Waterloo | Modelling and mathematical simulation of natural processes; Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Zhang, Lihong | Quantum Electronic Design Automation for Automated Synthesis of Delta-Sigma Modulators | Memorial University of Nfld | Computer software; Electrical and electronic machinery and equipment (including computer hardware) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Pope, Michael | Scalable Transition Metal Dichalcogenide Inks for Quantum-Enabled Sensing Applications | University of Waterloo | Materials sciences; Physical sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Langar, Rami | Trust-Fed-QGAN: Reliable Quantum Generative Adversarial Networks for Anomaly and Attack Detection in Next-Generation Mobile Networks | École de technologie supérieure | Information systems and technology; Communication systems and services (planning, organization, services) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Ameli, Amir | Quantum-Enabled Cybersecurity for Communication-Assisted Protection Systems in Power Grids | Lakehead University | Electrical energy; Energy resources (including production, exploration, processing, distribution and use) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Bryce, David | Development and Application of Multinuclear Magnetic Resonance NV Quantum Sensing | University of Ottawa | Instrumentation technology; Advancement of knowledge | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Bassim, Nabil | Advanced Fabrication and Correlative Characterization of Quantum Materials using Electron Microscopy | McMaster University | Materials sciences; Information, computer and communication technologies | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Mandal, Kalikinkar | Quantum-Safe and Byzantine-Resilient Cryptographic Protocols for Privacy-Preserving Machine Learning | University of New Brunswick | Information and communication services; Information systems and technology | 24500 | International - Catalyst - Quantum - G7 | |
| 2025 | St-Jean, Philippe | Nonreciprocal light amplification in Er-doped photonic crystals | Université de Montréal | Information systems and technology; Communications technologies (satellites, radar, etc.) | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Broadbent, Anne | Reusable Quantum Proof Systems | University of Ottawa | Advancement of knowledge; Information and communication services | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Ebrahimi, Maryam | Nanoscale formation and chemical analysis of quantum materials: From low-dimensional metal-organic frameworks to 1D/2D covalent nanostructures with one atom thickness | Lakehead University | Physical sciences; Materials sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Kim, Young-June | Piezomagnetism and Domain Control in Altermagnets for Quantum Technologies | University of Toronto | Information, computer and communication technologies; Materials sciences | 25000 | International - Catalyst - Quantum - G7 | |
| 2025 | Wei, John | Raising the Quantum Efficiency of High-Tc Superconducting Nanowire Single Photon Detectors | University of Toronto | Information, computer and communication technologies; Aerospace | 25000 | International - Catalyst - Quantum - G7 |