This course gives an introduction to the field of radiation therapy, based on the fundamental principles by which ionizing radiation interacts with biological systems. Blending physics, chemistry, and biology, we will delve into the cellular determinants of radiation response, including DNA damage and repair, modes of cell death, and radiation response modifiers. We will then zoom out and explore the response of normal tissues and tumors to radiation, including acute effects, carcinogenesis, heritable effects, and clinical radiobiology. Beyond these foundational principles, students will also be introduced to innovative topics, including the interaction of radiation therapy with the immune system and the development of radiotheranostics. This course provides a unique blend of theoretical knowledge and practical applications, equipping participants with a holistic understanding of radiation biology's pivotal role in improving cancer therapies. No prerequisites.
3 units · Medical Option (Med-Ltr-CR/NC)
This course gives an introduction to the field of radiation therapy, based on the fundamental principles by which ionizing radiation interacts with biological systems. Blending physics, chemistry, and biology, we will delve into the cellular determinants of radiation response, including DNA damage and repair, modes of cell death, and radiation response modifiers. We will then zoom out and explore the response of normal tissues and tumors to radiation, including acute effects, carcinogenesis, heritable effects, and clinical radiobiology. Beyond these foundational principles, students will also be introduced to innovative topics, including the interaction of radiation therapy with the immune system and the development of radiotheranostics. This course provides a unique blend of theoretical knowledge and practical applications, equipping participants with a holistic understanding of radiation biology's pivotal role in improving cancer therapies. No prerequisites.
Offered in Spring 2026 at Stanford University.