Molecular imaging in oncology sits at the intersection of science, technology, and patient care, offering powerful tools for advancing diagnosis and personalized treatment. Future developments are driven by scientific ambition and clinical need, aiming to improve patient outcomes by translating complex biological insights into practical applications. Key opportunities include improved biomarkers, higher-resolution imaging, and multimodal integration. Chronobiology adds the time dimension, enabling dynamic monitoring of tumor processes, though challenges remain in quantifying kinetics due to technical and procedural constraints. Risks include tool-driven research, where technology dictates clinical questions, rather than vice versa. This calls for needs-based development guided by clear scientific objectives. AI, especially deep learning, promises integration of complex datasets, though ethical and professional responsibility in its use is critical. Barriers include high costs, limited reimbursement, regulatory hurdles, and logistical challenges. Clinical translation is often delayed by insufficient funding and a lack of standardized protocols. Despite these, real-world clinical benefit is increasingly influencing adoption. Interdisciplinary collaboration is essential, supported by translational centers and data-sharing networks. Ultimately, molecular imaging enhances the continuum between anatomical imaging, histology, and molecular profiling. It enables dynamic, noninvasive assessment of cancer biology, supporting adaptive and personalized treatment strategies and reinforcing its role in precision oncology.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Future Challenges of Molecular Imaging in Oncology

  • Otmar Schober,
  • Fabian Kiessling,
  • Jürgen Debus

摘要

Molecular imaging in oncology sits at the intersection of science, technology, and patient care, offering powerful tools for advancing diagnosis and personalized treatment. Future developments are driven by scientific ambition and clinical need, aiming to improve patient outcomes by translating complex biological insights into practical applications. Key opportunities include improved biomarkers, higher-resolution imaging, and multimodal integration. Chronobiology adds the time dimension, enabling dynamic monitoring of tumor processes, though challenges remain in quantifying kinetics due to technical and procedural constraints. Risks include tool-driven research, where technology dictates clinical questions, rather than vice versa. This calls for needs-based development guided by clear scientific objectives. AI, especially deep learning, promises integration of complex datasets, though ethical and professional responsibility in its use is critical. Barriers include high costs, limited reimbursement, regulatory hurdles, and logistical challenges. Clinical translation is often delayed by insufficient funding and a lack of standardized protocols. Despite these, real-world clinical benefit is increasingly influencing adoption. Interdisciplinary collaboration is essential, supported by translational centers and data-sharing networks. Ultimately, molecular imaging enhances the continuum between anatomical imaging, histology, and molecular profiling. It enables dynamic, noninvasive assessment of cancer biology, supporting adaptive and personalized treatment strategies and reinforcing its role in precision oncology.