“…Since its origination, a variety of numerical and analytical methods have been employed to address the one-dimensional Burgers' equation. In the past two decades, progress in finding solutions has been made through various approaches such as finite element method [2], variational approach utilizing temporal discretization [3], leastsquares quadratic B-spline finite element method [4], modified Adomianʼs decomposition method [5], variational iteration method [6], collocation of cubic B-splines over finite elements [7], fourth-order finite difference method [8], modified extended tanh-function method [9], Crank-Nicolson finite difference method [10], fourth-order compact finite difference method [11], cubic B-spline quasi-interpolation method [12], differential transformation method [13], uniform Haar wavelet quasilinearization approach [14], modified cubic B-splines collocation method [15], modified cubic-B-spline differential quadrature method [16], weighted average differential quadrature method [17], hybrid scheme [18], high order splitting methods [19], fifth-order finite volume weighted compact scheme [20], exponential modified cubic B-spline differential quadrature method [21], hybrid trigonometric differential quadrature method [22], polynomial based differential quadrature method [23], hybrid Galerkin approximation exponential Euler method [24], fully implicit finite difference method [25], space-time kernel-based numerical approach [26], time symmetric splitting method [27], unified Mahgoub transform and homotopy perturbation method [28], non-standard finite difference scheme [29], spectral solutions [30], undetermined coefficient method [31], modified quartic hyperbolic B-spline DQM [32], and an hybridized non-standard numerical scheme integrating a compact finite difference approach…”