Google academic research awards in Quantum Computing

[1]  Early Fault-Tolerant Quantum Algorithms & Applications:  This CfP focuses on the immediate frontier of quantum computing: the early fault-tolerant era. The call seeks to identify algorithms and applications that can run on early fault-tolerant devices – specifically targeting research that utilizes a relatively small number of logical qubits to solve classically intractable problems.  This award targets the leanest possible path to utility. We are seeking proposals that can achieve quantum advantage within the constraints of early fault tolerant hardware.  We welcome proposals across these primary tracks:

• Low-Resource Novel Algorithms: Development of entirely new quantum algorithms feasible to run on early fault-tolerant architectures.
• Early Fault Tolerant Practical Applications: Mapping high-impact, real-world problems to know early fault tolerant algorithms.
• Resource Reduction & Overhead Optimization: Breakthrough compilation, error correction, error mitigation, or algorithmic optimization techniques that drastically lower physical resources required for beyond classical applications.

[2]  Quantum Computing Security:  The potential national security applications and scientific and commercial opportunities of quantum computers have led to increased focus… on the importance of protecting quantum computing efforts from IP theft and other attacks. One underexplored aspect of this security landscape is the potential for practical exploits targeting the classical-to-quantum interface.  Quantum processing units (QPUs) rely on classical computers to compile code, trigger control systems, and translate software gates into physical forces. This interface creates a unique attack surface, with several vulnerability categories:

1. Gate-to-Pulse Inconsistency (Software-Hardware Interface)
2. Physical Controller Side-Channels
3. Weak Reset Interfaces (Data Remanence)
4. Multi-Tenant Crosstalk in Cloud QPUs

Research topics / questions:  A primary challenge in quantum security is ensuring the integrity and confidentiality of the entire computation stack, particularly at the interface where high-level logical instructions are translated into physical control pulses. As quantum systems scale and move toward multi-tenant cloud environments, the attack surface expands beyond classical network security into physical layer vulnerabilities and cross-layer inconsistencies. We are seeking research proposals that advance our understanding of these threats and develop robust, verifiable defense mechanisms.

Funding (for both programs): up to $100k, but we may consider larger amounts for exceptional proposals that demonstrate a clear and compelling rationale for the increased funding.

https://research.google/programs-and-events/google-academic-research-awards/

APPLICATION TERMS: https://research.google/programs-and-events/google-academic-research-awards/terms-for-google-academic-research-awards/