Publication record · 18.cifr/2006.carrion.thermal-uc-milp
18.cifr/2006.carrion.thermal-uc-milpA computationally efficient mixed-integer linear programming (MILP) formulation for the thermal unit commitment (UC) problem is presented. The proposed formulation is based on a set of tighter constraints for the minimum up and down time conditions, leading to a significantly improved LP relaxation. Startup costs are modeled using binary variables that track unit transitions, avoiding auxiliary continuous variables. Numerical results on standard test systems demonstrate order-of-magnitude speedups over previous MILP-based UC formulations while guaranteeing global optimality.
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Authors suggest extending to stochastic UC for demand/renewable uncertainty. Incorporating DC/AC network constraints into the tight MILP is a natural next step. Further polyhedral tightening via valid inequalities derived from the startup/shutdown variable structure is also flagged.