Abstract

It has been well-known that human pancreatic cancer represents the fourth and fifth leading causes of cancer-related deaths in the United States and Japan, respectively.1, 2 Notably, pancreatic cancer is characterized by high metastatic potential, resistance to chemotherapy and thus its prognosis is extremely poor with 5-year survival <5%. At diagnosis, more than 80% cases are already advanced and non-resectable.3 Therefore, chemotherapy and/or radiotherapy is the only option. Despite improvements in the treatments, the survival rate has not been significantly ameliorated over the last few decades. For chemotherapy, a deoxycytidine analog termed gemcitabine (GEM) is the first line of standard treatment given to most of the patients bearing advanced pancreatic cancer.4 Unfortunately, GEM treatment provides limited clinical benefits, especially in advanced and metastatic disease.5 Hence, the extensive efforts to clarify the precise molecular mechanisms behind GEM-resistant phenotype of malignant pancreatic cancer and also to develop the promising strategies to enhance the efficacy of GEM should be required.

Highlights

  • Pancreatic cancer is characterized by high metastatic potential, resistance to chemotherapy and its prognosis is extremely poor with 5-year survival o5%

  • Our recent studies strongly suggest that RUNX2 has an oncogenic potential through the inhibition of DNA damage-dependent cell death pathway mediated by proapoptotic p53/TAp73

  • We have focused on human pancreatic cancer cells

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Summary

Introduction

It has been well-known that human pancreatic cancer represents the fourth and fifth leading causes of cancerrelated deaths in the United States and Japan, respectively.[1,2] Notably, pancreatic cancer is characterized by high metastatic potential, resistance to chemotherapy and its prognosis is extremely poor with 5-year survival o5%. RUNX2 trans-repressed the transcription of TAp73 following ADR exposure. Our recent studies strongly suggest that RUNX2 has an oncogenic potential through the inhibition of DNA damage-dependent cell death pathway mediated by proapoptotic p53/TAp73.

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