The Clinical Role of SRSF1 Expression in Cancer: A Review of the Current Literature

• Published in: Applied sciences 2022-03, Vol.12 (5), p.2268
• Main Authors: Lo Giudice, Arturo, Asmundo, Maria Giovanna, Broggi, Giuseppe, Cimino, Sebastiano, Morgia, Giuseppe, Di Trapani, Ettore, Luzzago, Stefano, Musi, Gennaro, Ferro, Matteo, de Cobelli, Ottavio, Russo, Giorgio I.
• Format: Article
• Language: English
• Subjects: Alternative splicing; Apoptosis; Biological activity; Breast; Breast cancer; Cell cycle; Chemoresistance; Colon; Cyclin-dependent kinases; Cytoplasm; DNA biosynthesis; DNA repair; Education; Gene expression; Genomes; Glioblastoma; Kinases; Literature reviews; lung; Lung cancer; Medical libraries; Medical prognosis; Medical research; mRNA; Nucleotide excision repair; Nucleotides; p53 Protein; Phosphorylation; prostate; Prostate cancer; Proteins; Proteolysis; Regulatory sequences; Splicing; Splicing factors; SRSF1; Survival analysis; Tumorigenesis; Ubiquitin
• ISSN: 2076-3417; 2076-3417
• DOI: 10.3390/app12052268

Background: SFRS1 is a member of the splicing factor protein family. Through a specific sequence of alteration, SRSF1 can move from the cytoplasm to the nucleus where it can work autonomously as a splicing activator, or as a silencer when interacting with other regulators. Alternative splicing (AS) is a fundamental biological process that ensures protein diversity. In fact, different proteins, produced by alternative splicing, can gain different and even antagonistic biological functions. Methods: Our review is based on English articles published in the MEDLINE/PubMed medical library between 2000 and 2021. We retrieved articles that were specifically related to SRSF1 and cancers, and we excluded other reviews and meta-analyses. We included in vitro studies, animal studies and clinical studies, evaluated using the Medical Education Research Study Quality Instrument (MERSQI) and the Newcastle–Ottawa Scale-Education (NOSE). Result: SRSF1 is related to various genes and plays a role in cell cycle, ubiquitin-mediated proteolysis, nucleotide excision repair, p53 pathway, apoptosis, DNA replication and RNA degradation. In most cases, SRSF1 carries out its cancer-related function via abnormal alternative splicing (AS). However, according to the most recent literature, SRSF1 may also be involved in mRNA translation and cancer chemoresistance or radio-sensitivity. Conclusion: Our results showed that SRSF1 plays a key clinical role in tumorigenesis and tumor progression in several types of cancer (such as Prostate, Lung, Breast, Colon, Glioblastoma), through various mechanisms of action and different cellular pathways. This review could be a starting point for several studies regarding the biology of and therapies for cancer.