ABR Radiation Oncology study materials
ABR Radiation Oncology study resources

ABR Radiation Oncology study plan

ABR Radiation Oncology · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Medical Physics for Radiation Oncology

  • Build a one-page formula sheet covering photon and electron dosimetry, inverse square, and PDD/TMR relationships from memory

  • Derive and explain percent depth dose versus TMR conversions and when each is valid

  • Sketch and label a linear accelerator beamline from electron gun through flattening filter and target

  • Solve 10 photon and electron monitor-unit calculations without notes

Your checkpoint

Completed formula sheet plus a log of 10 solved MU problems with written reasoning for each step

Week 2

Medical Physics for Radiation Oncology

  • Explain treatment planning algorithms (pencil beam, superposition/convolution, Monte Carlo) and state their limitations

  • Compare 3D conformal, IMRT, VMAT, and SBRT in terms of planning and delivery constraints

  • Describe QA programs for linacs, including daily, monthly, and annual test categories

  • Interpret a DVH and identify plan-quality metrics for target and OAR coverage

Your checkpoint

A 2-page comparison table of planning and delivery techniques with QA implications

Week 3

Medical Physics for Radiation Oncology & Radiation and Cancer Biology

  • Explain brachytherapy source calibration, dose specification, and TG-43 formalism

  • Describe radiation protection principles, dose limits, and shielding concepts for staff and public

  • Summarize targeted and immunologic agents that modify radiation response

  • Connect DNA damage response pathways to radiosensitization strategies

Your checkpoint

A 1-page summary linking brachytherapy physics and radiobiology concepts to clinical scenarios

Week 4

Radiation and Cancer Biology

  • Draw and explain the classic radiation survival curve and its parameters

  • Compare the linear-quadratic model with alternative models and state where each breaks down

  • Calculate BED and EQD2 for at least 5 fractionation schemes

  • Explain the 4 R's of radiobiology and their clinical relevance

Your checkpoint

A worked problem set of 8 BED/EQD2 calculations with a written explanation of model assumptions

Week 5

Radiation and Cancer Biology

  • Describe acute versus late normal tissue effects and the volume and fractionation dependence of each

  • Summarize mechanisms of hypoxia, reoxygenation, and their therapeutic targeting

  • Explain tumor heterogeneity, stem cells, and radioresistance mechanisms

  • Interpret key preclinical and clinical radiobiology trials that shaped practice

Your checkpoint

A one-page concept map connecting hypoxia, reoxygenation, and fractionation to clinical outcomes

Week 6

Clinical Radiation Oncology

  • Outline workup, staging, and treatment approaches for breast, prostate, and lung cancers

  • Explain target volume definitions and margin concepts for common disease sites

  • Describe acute and late toxicities and their management for those sites

  • Compare definitive, adjuvant, and palliative treatment intents with supporting evidence

Your checkpoint

A 3-column site-by-site clinical summary for breast, prostate, and lung cancer

Week 7

Clinical Radiation Oncology

  • Outline workup, staging, and treatment for head and neck, GI, and CNS tumors

  • Explain the role of concurrent chemotherapy and evidence for common regimens

  • Describe palliative radiotherapy indications and dose-fractionation options

  • Summarize pediatric and reirradiation considerations

Your checkpoint

A 4-page clinical summary for head and neck, GI, CNS, and palliative scenarios

Week 8

Medical Physics for Radiation Oncology & Radiation and Cancer Biology & Clinical Radiation Oncology

  • Complete a timed 100-question mixed-domain practice set and score it by domain

  • Review every missed item and write a one-sentence correction for each

  • Re-derive the 5 formulas you most often missed and re-solve related problems

  • Build a final one-page high-yield review sheet covering all three domains

Your checkpoint

Practice test score report by domain plus a completed high-yield review sheet

Milestones

Week 4: Score at least 70% on a 30-question physics and radiobiology self-quiz, and complete all BED/EQD2 calculations correctly

Week 6: Explain the workup and treatment approach for breast, prostate, and lung cancer without notes in 15 minutes

Week 8: Score at least 75% overall on the timed mixed-domain practice set, with no domain below 65%