“…However, solving this equation can be very arduous, and the obtainment of exact analytical solutions occurs only in few cases [16] since the solution of wave equations with some potentials are exactly solvable for𝑙 = 0, while other potentials are unsolvable and nontrivial for any arbitrary 𝑙 ≠ 0 angular momentum quantumnumber. Consequently, different advanced mathematical techniques have been developed for solving such problems arising from the application of the solution of quantum wave equations; and amongst the most well-known techniques/methods are the Nikiforov-Uvarov (NU) method [17][18][19][20][21], supersymmetric (SUSY) technique [22][23][24], asymptotic iteration method (AIM) [25][26][27], Wavefunction ansatz Method [28], Formula Method [29], Feynman integral technique [28][29][30], factorization technique [31,[33][34][35], Laplace transform approach [36], exact and proper quantization rules [37,38], the path integral [39] and others. Furthermore, these techniques/methods also utilize some approximation schemes like the Greene-Aldrich approximation [32,40,41], Pekeris approximation [42,43], etc., to manage the orbit-centrifugal terms especially for obtaining exact analytic solutions of the SE when 𝑙 ≠ 0.…”