The sudden emergence of an epidemic of Zika virus infections in South America has raised concerns of its virulence and transmission potential, especially in view of mass gatherings at carnivals, Olympic Games, Hajj and others within this year [1]; the as yet unproven link between the Zika epidemic and heightened cases of microcephaly among newborns for which the World Health Organization (WHO) have declared on February 1, 2016 the suspected association of the virus to cases of microcephaly and Guillain-Barre disease to be Public Health Emergency of International Concern [2] has added to the anxieties. The main vector of the Zika virus is the Aedes aegypti mosquito prevalent in tropical countries but whose range is increasing with the effects of global warming, recognized as causing shifts in distribution of vector-borne diseases [3]; spread of the virus through mass gatherings to other countries becomes an additional worrying possibility. The issues here are of serious concern since the Aedes aegypti mosquito is also a primary carrier of the dengue virus and Brazil has not had much success in controlling that [4]. Coming soon after the scare of Ebola virus, and with the background of the 2009 H1N1 pandemic, the MERS and SARS epidemics, the near-pandemic of H5N1 bird flu and fatalities associated with the H7N9, the Zika virus epidemic has focused questions on containment and mitigation of viral activity and further zoonotic issues that may arise.Such recurrent viral incidences and emergence necessitate a combinatorial analysis and perspective on confronting and containing the menace. Given the nature and diversity of infective viruses, it would seem difficult for such a task to be contemplated by a priori experimental means, whereas theories behind such phenomena are yet to be devised. In such a circumstance, phenomenological approaches as offered by numerical characterizations of bio-molecular sequences arising from their graphical representations hold some promise of approaching the issue. Numerical characterizations of DNA, RNA and protein sequences provide descriptors that are characteristic of each sequence, albeit depending upon the particular methodology used [5]. Developing upon initial work on DNA sequences, these descriptors have been used to characterize genes to genomes [5] and proteins [6] to proteomes [7], and have seen applications in many areas. While Nandy [8-10], Nandy and Nandy [11] and Larionov et al [12] have used 2D graphical systems to determine DNA systematics, Liao et al [13,14] used the novel techniques for alignment-free phylogeny to determine sequence ancestry, Wiesner and Wiesnerova [15] found the new methodology giving better insights into germ-plasm identifiers, Gonzalez-Diaz and his group presented several papers using the concept for alignment-free prediction of polygalacturonases [16], alternative "in silico" technique for chemical research in toxicology [17] and predicting antimicrobial drugs and targets [18], Nandy et al [19] were able to model influenza hemagglutinin and neura...