Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Nature Cancer

Quantum computing for oncology

Siddhi Ramesh, Teague Tomesh, Samantha J. Riesenfeld, Frederic T. Chong, Alexander T. Pearson

Published May 17, 2024• 12 citations
Publisher
DOI
10.1038/s43018-024-00770-9

Related papers

Quantum Oncology: The Applications of Quantum Computing in Cancer Research

Jiaran Li, Li Li, Ning Liu +3 more

Journal of Medical Systems•Jul 23, 2025•6 citations

Quantum oncology

E.L. Albuquerque

Annual reports in medicinal chemistry•Jan 1, 2026•0 citations

Unlocking clinical quantum oncology through quantum control

Bruno F. E. Matarèse, Arnie D. Purushotham

European Journal of Cancer•Jul 15, 2025•7 citations

The Rise of Generalist Foundation Models and Quantum Computing in Oncology

Manish Kakar

In the field of oncology, Artificial intelligence (AI) and deep learning (DL) are an essential component of decision-support. However, traditional narrow-AI models have significant limitations in clinics with respect to narrow, task-specificity (TS), high data requirement and interpretability. Moreover, the absence of common clinical criteria and the lack of doctors in the co-development of explainable AI (XAI) have undermined the implementation causing conflict with general data protection regulation (GDPR), trust and ethical integration requirements. The application of AI/DL tools in clinics are often constrained by TS, heavy dependency on hyperparameter tuning and large data volume. This review fills in these gaps by creating a cohesive framework that links problem-driven clinical demands with emerging technologies, specifically, the convergence of Generalist Medical AI (GMAI) and Quantum Oncology (QO). Although GMAI's use foundation models, have high computational requirements and have inherent complexity in their validation pipelines, they are designed to be based on self-supervised learning from multimodal data to address a range of downstream clinical tasks. This review aims to critically discuss the potential of quantum computing (QC) to augment GMAI for more efficient data processing, medical imaging, drug discovery, and genomic analysis, owing to the inherent strengths of quantum superposition and entanglement that surpass the capabilities of classical AI/DL systems. Structural and technical trade-offs of this paradigm change are also discussed. We also give recommendations for safe bedside translation by facilitating a common assessment through clinician in the loop design, the CLAIM checklist, and the framework FUTURE-AI. Finally, this analysis outlines oncology and quantum convergence into quantum oncology (QO). This enables scalable, sustainable, and precision oncology while respecting ethics and privacy.

Technology in Cancer Research & Treatment•Aug 1, 2026•0 citations

Quantum Computing as a Foundational Framework for Advancing Cancer Research

Muhammad Vanalli

•Jan 1, 2026•0 citations

The Integration of Quantum Computing in Radiation Oncology: A New Paradigm for Treatment Optimization and Dose Estimation

H. B. SHARMA

Modern radiation oncology depends heavily on computational algorithms for inverse treatment planning, Monte Carlo dose simulations, and real-time image guidance. Classical computing architectures face critical scaling bottlenecks as clinical techniques advance toward ultra-high-resolution volumetric modulated arc therapy (VMAT) and adaptive radiotherapy. This paper explores the transformation of radiotherapy by integration of quantum computing for handling complex planning problems. Quantum computing in radiation oncology promises drastic reduction in planning time by leveraging quantum algorithms for optimization and dose estimation. Preliminary.

•Jul 11, 2026•0 citations
In the field of oncology, Artificial intelligence (AI) and deep learning (DL) are an essential component of decision-support. However, traditional narrow-AI models have significant limitations in clinics with respect to narrow, task-specificity (TS), high data requirement and interpretability. Moreover, the absence of common clinical criteria and the lack of doctors in the co-development of explainable AI (XAI) have undermined the implementation causing conflict with general data protection regulation (GDPR), trust and ethical integration requirements. The application of AI/DL tools in clinics are often constrained by TS, heavy dependency on hyperparameter tuning and large data volume. This review fills in these gaps by creating a cohesive framework that links problem-driven clinical demands with emerging technologies, specifically, the convergence of Generalist Medical AI (GMAI) and Quantum Oncology (QO). Although GMAI's use foundation models, have high computational requirements and have inherent complexity in their validation pipelines, they are designed to be based on self-supervised learning from multimodal data to address a range of downstream clinical tasks. This review aims to critically discuss the potential of quantum computing (QC) to augment GMAI for more efficient data processing, medical imaging, drug discovery, and genomic analysis, owing to the inherent strengths of quantum superposition and entanglement that surpass the capabilities of classical AI/DL systems. Structural and technical trade-offs of this paradigm change are also discussed. We also give recommendations for safe bedside translation by facilitating a common assessment through clinician in the loop design, the CLAIM checklist, and the framework FUTURE-AI. Finally, this analysis outlines oncology and quantum convergence into quantum oncology (QO). This enables scalable, sustainable, and precision oncology while respecting ethics and privacy.
Modern radiation oncology depends heavily on computational algorithms for inverse treatment planning, Monte Carlo dose simulations, and real-time image guidance. Classical computing architectures face critical scaling bottlenecks as clinical techniques advance toward ultra-high-resolution volumetric modulated arc therapy (VMAT) and adaptive radiotherapy. This paper explores the transformation of radiotherapy by integration of quantum computing for handling complex planning problems. Quantum computing in radiation oncology promises drastic reduction in planning time by leveraging quantum algorithms for optimization and dose estimation. Preliminary.