The concept of precision medicine can be arguably dated back into the 1960s when such medicines were introduced for the first time through the concept encompassing the terms pharmacogenetics/pharmacogenomics by Evans and Clark (1). With the advent of high-throughput data generated through next generation sequencing (NGS) technologies, the term started metamorphosing from 'Systems medicine' or 'Systems biomedicine' to 'Precision medicine' and 'Personalized medicine' (1-5). Later, with more genome level data analysis and systems biological data pouring in, terms like 'Genomic-era medicine' (6), 'Predictive, preventative, personalized and participatory (P4) medicine' (7), 'Me medicine' (8), 'P4 systems medicine' (9) and 'Computational systems biomedicine' (10) were referred to the same concept. Essentially, this involves intervention therapies encompassing the impact of any genes of individuals and their exposures to lifestyle and environment (11). Despite almost similar in thoughts, 'Personalized medicine' and 'Precision medicine' differ vividly (12). In the words of Ginsburg and Phillips, the former refers to an approach to patients that considers their genetic make-up but with attention to their preferences, beliefs, attitudes, knowledge and social context. In contrast, the latter 'describes a model for health care delivery that relies heavily on data, analytics, and information' (12). The main concept of precision medicine, however, revolves around the rapid identification of new drug targets and an interpretation of the patient-specific mechanisms causing or contributing to the genetic variation of the diseases (13). This concept has revolutionized the medical treatment of many complex diseases. Mentionable among them is cancer, which had been proliferating at the mercy of unimpressive efficacy of earlier developed drugs, mainly due to its heterogeneous causes (13). To this end, side-effects, arising from the pleiotropic nature of genes, has also been taken into account while addressing the pressing need of identifying new cancer drug targets (14). While research continues to identify novel cancer protein targets, there is a necessity for further therapeutic exploration. Moreover, advances in high-throughput genomics and proteomics have vastly increased the scope to better understand such cancer pathogenesis cropping