In linear programming, every problem, referred to as the primal problem, has a corresponding counterpart known as the dual problem. A software tool designed for this purpose accepts the coefficients of the primal objective function and constraints and automatically generates the corresponding dual formulation. For instance, a maximization problem with constraints defined by “less than or equal to” inequalities will have a corresponding minimization dual with “greater than or equal to” constraints. This automated transformation allows users to readily explore both problem forms.
This automated conversion offers several advantages. Analyzing both the primal and dual problems can provide deeper insights into the original problem’s structure and potential solutions. Furthermore, in certain cases, solving the dual might be computationally more efficient than tackling the primal problem directly. Historically, duality theory has been fundamental in advancing linear programming algorithms and understanding optimization problems more broadly.
