Table 1.
Clinically Relevant Genomic Alterations in Prostate Cancer
Gene | Alteration Type | Frequency (%) | Potential Treatment Hypotheses |
---|---|---|---|
ETS transcription factors | Rearrangement | 507 | Indirect targeting of ETS gene fusions through PARP or DNAPK inhibitors8 |
Androgen receptor | Mutation | 509,10 | Androgen synthesis inhibitors, next-generation androgen receptor antagonists |
Amplification | 509,10 | ||
PTEN | Loss | 509 | PI3K pathway inhibitors11 |
RB1 | Loss | 25 to 609 | Role in disease progression and castrate resistance12 with potential for targeting |
PIK3CA | Amplification | 1010 | PI3K pathway inhibitors11 |
Mutation | 510 | ||
MYC | Amplification | 99 | Potential for targeting13 |
4010 | Neuroendocrine prostate cancer | ||
AURKA | Amplification | 510 | Aurora kinase inhibitors14; co-occurs with MYC in 40% of neuroendocrine prostate cancers |
AKT | Mutation | 1 to 215 | AKT inhibitors |
RAF | Rearrangement | 1 to 216 | RAF inhibitors |
Mutation | |||
KRAS | Mutation | 19,18,18 | RAF, MEK, or PI3K inhibitors |
Rearrangement |
NOTE. Summarizes alterations in prostate cancer that have a treatment hypothesis currently being explored preclinically or in clinical trials. The most common alterations with a treatment hypothesis involve ETS rearrangements, androgen receptor, and PTEN loss. With only a limited number of samples assessed, a majority of these alterations are not necessarily mutually exclusive.
Abbreviation: PI3K, phosphatidylinositide 3-kinase.