Bladder neoplasms and NF-κB: an unfathomed association.
Charles Emmanuel Jebaraj WalterSankari DurairajanPeriandavan KalaiselviGeorge Priya Doss CDicky John Davis GHannah Rachel Vasanthi AThanka JohnsonHatem ZayedPublished in: Expert review of molecular diagnostics (2020)
Introduction: Bladder cancer is the second most common genitourinary tract cancer and is often recurrent and/or chemoresistant after tumor resection. Cigarette smoking, exposure to aromatic amines, and chronic infection/inflammation are bladder cancer risk factors. NF-κB is a transcription factor that plays a critical role in normal physiology and bladder cancer. Bladder cancer patients have constitutively active NF-κB triggered by pro-inflammatory cytokines, chemokines, and hypoxia, augmenting carcinogenesis and progression.Areas covered: NF-κB orchestrates protein interactions (PTEN, survivin, VEGF), regulation (CYLD, USP13) and gene expression (Trp 53) resulting in bladder cancer progression, recurrence and resistance to therapy. This review focuses on NF-κB in bladder inflammation, cancer and resistance to therapy.Expert opinion: NF-κB and bladder cancer necessitate further research to develop better diagnostic and treatment regimens that address progression, recurrence and resistance to therapy. NF-κB is a master regulator that can act with or on minimally one cancer hallmark gene or protein, leading to bladder cancer progression (Tp53, PTEN, VEGF, HMGB1, CYLD, USP13), recurrence (PCNA, BcL-2, JUN) and resistance to therapy (P-gp, twist, SETD6). Thus, an understanding of bladder cancer in relation to NF-κB will offer improved strategies and efficacious targeted therapies resulting in minimal progression, recurrence and resistance to therapy.
Keyphrases
- signaling pathway
- pi k akt
- lps induced
- oxidative stress
- nuclear factor
- gene expression
- transcription factor
- papillary thyroid
- risk factors
- spinal cord injury
- inflammatory response
- squamous cell carcinoma
- dna methylation
- immune response
- stem cells
- squamous cell
- amino acid
- cell therapy
- replacement therapy
- muscle invasive bladder cancer
- clinical practice
- drug induced
- dna binding
- binding protein
- urinary tract