1. Overview of sex differences in cancer | |
 Table 1 Cancers with a clear sex disparity in age-adjusted incidence rates per 100,000 according to SEER explorer incidence data | |
2. Epigenetics | |
 2.1: Epigenetics and cancer | |
 2.2: Sex differences in epigenetics | |
 2.3: Implications for targeting epigenetics | |
 Fig. 1 Sex-specific epigenetic programming may contribute to differential barriers to tumorigenesis in males and females | |
3. Metabolism | |
 3.1: Metabolism and cancer | |
 3.2: Sex differences in metabolism | |
 3.3: Implications for targeting metabolism | |
 Fig. 2 Sex differences in metabolic pathways may contribute to sex differences in cancer development | |
4. p53 | |
 4.1: p53 and cancer | |
 4.2 Sex differences in p53 | |
 4.3: Implications for targeting p53 | |
5. Cellular senescence | |
 5.1: Senescence and cancer | |
 5.2: Sex differences in senescence | |
 5.3: Implications for targeting senescence | |
 Fig. 3 Sex differences in senescence and SASP may contribute to the increasing sex disparity in cancer incidence with age | |
6. Immunity | |
 6.1: The immune system in cancer | |
 6.2: Sex differences in the immune system | |
 6.3: Implications for immunotherapy | |
 Fig. 4 Sex differences in immune cells affecting cancer development | |
7. Angiogenesis | |
 7.1: Angiogenesis and cancer | |
 7.2: Sex differences in angiogenesis | |
 7.3: Implications for targeting tumor angiogenesis | |
 Fig. 5 Sex differences in endothelial cells, endothelial progenitor cells, circulating angiogenic factors, and sex hormones contribute to sex differences in tumor angiogenesis | |
8. Statistical considerations | |
 Fig. 6 Visualizing statistical interaction | |
9. Perspectives and significance |