Abstract: The present invention provides methods and kits a) for predicting colorectal cancer patient survival, as well as the survival of patients harboring other invasive cancers where cellular proliferation and carcinogenesis is linked, in part, to high levels of ODC activity and increased cellular polyamine contents, and b) for selecting the corresponding treatment options for such patients based on the allelic nucleotide sequence or SNP at position +316 of the ODC1 promoter gene as well as cancer treatment methods, in each case, which include the determination of the ODC1 promoter +316 position genotype, as a means to guide treatment selection.

Abstract: The present invention provides methods and kits a) for predicting colorectal cancer patient survival, as well as the survival of patients harboring other invasive cancers where cellular proliferation and carcinogenesis is linked, in part, to high levels of ODC activity and increased cellular polyamine contents, and b) for selecting the corresponding treatment options for such patients based on the allelic nucleotide sequence or SNP at position +316 of the ODC1 promoter gene as well as cancer treatment methods, in each case, which include the determination of the ODC1 promoter +316 position genotype, as a means to guide treatment selection.

Abstract: The present invention provides methods and kits a) for predicting colorectal cancer patient survival, as well as the survival of patients harboring other invasive cancers where cellular proliferation and carcinogenesis is linked, in part, to high levels of ODC activity and increased cellular polyamine contents, and b) for selecting the corresponding treatment options for such patients based on the allelic nucleotide sequence or SNP at position +316 of the ODC1 promoter gene as well as cancer treatment methods, in each case, which include the determination of the ODC1 promoter +316 position genotype, as a means to guide treatment selection.

Abstract: The present invention provides methods and kits a) for predicting colorectal cancer patient survival, as well as the survival of patients harboring other invasive cancers where cellular proliferation and carcinogenesis is linked, in part, to high levels of ODC activity and increased cellular polyamine contents, and b) for selecting the corresponding treatment options for such patients based on the allelic nucleotide sequence or SNP at position +316 of the ODC1 promoter gene as well as cancer treatment methods, in each case, which include the determination of the ODC1 promoter +316 position genotype, as a means to guide treatment selection.

Abstract: Controlling exogenous polyamines may be used, in some aspects, as an adjunctive strategy to chemoprevention with polyamine inhibitory agents, for example, anti-carcinoma combination therapies comprising ornithine decarboxylase (ODC) inhibitor and a spermidine/spermine N1-acetyltransferase expression agonist, optionally based on a patient's ODC1 promoter genotype. Assessing a tissue polyamine level or tissue polyamine flux may be used in some aspects, for predicting the efficacy of an anti-carcinoma combination therapy comprising, for example, an ornithine decarboxylase (ODC) inhibitor and an agent that modulates the polyamine pathway to reduce overall cellular polyamine content.