diff --git a/learning/courses/designing-and-leading-quantum-projects/grant-writing.mdx b/learning/courses/designing-and-leading-quantum-projects/grant-writing.mdx index 0e30a4654fb..b040a57d408 100644 --- a/learning/courses/designing-and-leading-quantum-projects/grant-writing.mdx +++ b/learning/courses/designing-and-leading-quantum-projects/grant-writing.mdx @@ -64,7 +64,7 @@ In the following paragraphs we outline some key considerations in implementing t * Call out the preliminary work above. * Propose work that is realistic in terms of timelines, in-house expertise, the state of the science, collaborations, and funds. - * We estimate that the minimum access for novel quantum computing research requires 400 minutes, which is the minimum purchase limit for the (Flex offering)[https://www.ibm.com/quantum/products]. Actual needs will vary by project. + * We estimate that the minimum access for novel quantum computing research requires 400 minutes, which is the minimum purchase limit for the [Flex offering](https://www.ibm.com/quantum/products). Actual needs will vary by project. * Typically one needs more than 400 minutes, so make sure to allocate a realistic amount for cloud QPU time. * Familiarize yourself with the current state of job runtime, qubit counts, and so forth. * Be mindful that the biggest impact applications are likely to leverage both quantum and high-performance computing.​ @@ -90,7 +90,8 @@ Outline institutional resources, facilities, and partnerships that increase feas * Include open-source commitments (for example, Qiskit extensions) to meet NSF data-sharing mandates and enable broader impacts * Draw connections between academia and industry, and broader impacts generally   -**Potentially important points unique to the quantum computing industry:** +**Potentially important points unique to the quantum computing industry** + * State specifically why you want to use the architecture/systems you propose. For example, you might structure your proposal around fixed-frequency transmon qubits like those in IBM® quantum computers for the following reasons: - They have very fast gate times and can perform many operations within the coherence time - They have high gate fidelity @@ -105,9 +106,9 @@ Outline institutional resources, facilities, and partnerships that increase feas The limits of what is possible in quantum computing are changing every day. But it is important to keep the current constraints in mind in outlining your project. For detailed information on each quantum computer, and even on each qubit, check out the [compute resources page](https://quantum.cloud.ibm.com/computers) on [IBM Quantum Platform](https://quantum.cloud.ibm.com/). The following high-level technical information might be useful. These are not hard limits that apply to all circumstances, but general guidelines to be adapted to your specific case. -**Qubit count** - IBM Nighthawk processors have 120 qubits. Some systems have slightly more. These systems offer utility-scale research for novel discoveries that are not classically accessible.. -**Circuit depth** - The maximum circuit depth depends on many factors. Be sure you are considering the transpiled depth of two-qubit gates as the primary measure of depth. Transpiled, two-qubit depths around 30 are often manageable with modern error suppression and mitigation techniques. A few niche applications might encounter difficulties at lower depths, and some circuits can certainly go beyond that. This is a good depth at which to explore. -**QPU time** - This is entirely dependent on your application. We estimate that a minimum of 400 minutes is required for novel quantum computing research. You might also check the QPU time required for individual runs of the projects listed on the advantage tracker. Most fall between 30-120 minutes. When we allow for experimentation, benchmarking of your problem, and multiple attempts, this time range is consistent with the aforementioned minimum. +**Qubit count** - IBM Nighthawk processors have 120 qubits. Some systems have slightly more. These systems offer utility-scale research for novel discoveries that are not classically accessible. +**Circuit depth** - The maximum circuit depth depends on many factors. Be sure you are considering the transpiled depth of two-qubit gates as the primary measure of depth. Transpiled, two-qubit depths around 30 are often manageable with modern error suppression and mitigation techniques. A few niche applications might encounter difficulties at lower depths, and some circuits can certainly go beyond that. This is a good depth at which to explore. +**QPU time** - This is entirely dependent on your application. We estimate that a minimum of 400 minutes is required for novel quantum computing research. You might also check the QPU time required for individual runs of the projects listed on the advantage tracker. Most fall between 30-120 minutes. When we allow for experimentation, benchmarking of your problem, and multiple attempts, this time range is consistent with the aforementioned minimum. @@ -126,10 +127,12 @@ The following are good candidate organizations for QC funding. | Eureka Network Quantum Calls | Applied R&D (computing, sensing) | Multi-national | [Applied Quantum Technologies](https://www.eurekanetwork.org/programmes-and-calls/network-projects/network-projects-applied-quantum-technologies-2025/) | | DOE Chemistry/Materials | Quantum algorithms for electronic structure | U.S. | BES novel simulation methods | | Regional/State Quantum Hubs | Translational prototypes, ecosystem building | U.S. | State-level seed grants | +   To search for specific grants, we recommend going directly to funding agency calls or consulting grant funding tracker websites. The following resources may be helpful: +   -Key Curator Websites +**Key Curator Websites** * [Quantum Computing Report](https://quantumcomputingreport.com): Dedicated section listing government and non-profit quantum funders worldwide (for example, NSF and DOE centers), with notes on research focus and contacts. * [Qureca](https://qureca.com/quantum-initiatives-worldwide): Comprehensive tracker of global quantum initiatives, including national missions, budgets, and specific grant programs. @@ -155,8 +158,8 @@ Key Curator Websites **General Repositories** -* SBIR.gov Portfolio: Filter for "quantum" to show awards with abstracts. -* Grants.gov Success Stories: Archived federal quantum SBIR narratives. +* [SBIR.gov Portfolio filtered by "quantum" keyword](https://www.sbir.gov/awards?keywords=quantum): Search for information on all prior awards by Small Business Innovation Research (SBIR) program. +* [Grants.gov](https://simpler.grants.gov/search?status=archived&query=quantum): Archived federal quantum SBIR narratives. ## Concise wording on common grant needs @@ -258,4 +261,4 @@ The following references might be especially useful in crafting a well-informed *Ecosystem/Network Context* -* AInvest / MarketPulse. ["IBM’s Quantum System Two & hybrid integration at RIKEN,"](https://www.ainvest.com/news/ibm-quantum-computing-leap-system-implications-ai-enterprise-tech-2507/) July 18, 2025. \ No newline at end of file +* AInvest / MarketPulse. ["IBM’s Quantum System Two & hybrid integration at RIKEN,"](https://www.ainvest.com/news/ibm-quantum-computing-leap-system-implications-ai-enterprise-tech-2507/) July 18, 2025.