A Consensus-ADMM Approach for Strategic Generation Investment in Electricity Markets
Vladimir Dvorkin, Jalal Kazempour, Luis Baringo, Pierre Pinson

TL;DR
This paper develops a novel consensus-ADMM method to solve complex stochastic bilevel optimization problems for strategic generation investment in electricity markets, balancing computational efficiency and solution quality.
Contribution
It introduces a consensus-ADMM approach for large-scale stochastic MILP problems in electricity market investment, with bounds for solution quality assessment.
Findings
The proposed method effectively decomposes the problem by scenarios.
Trade-off identified between computational time and solution accuracy.
Bounds enable evaluation of solution quality over iterations.
Abstract
This paper addresses a multi-stage generation investment problem for a strategic (price-maker) power producer in electricity markets. This problem is exposed to different sources of uncertainty, including short-term operational (e.g., rivals' offering strategies) and long-term macro (e.g., demand growth) uncertainties. This problem is formulated as a stochastic bilevel optimization problem, which eventually recasts as a large-scale stochastic mixed-integer linear programming (MILP) problem with limited computational tractability. To cope with computational issues, we propose a consensus version of alternating direction method of multipliers (ADMM), which decomposes the original problem by both short- and long-term scenarios. Although the convergence of ADMM to the global solution cannot be generally guaranteed for MILP problems, we introduce two bounds on the optimal solution, allowing…
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Taxonomy
TopicsElectric Power System Optimization · Optimal Power Flow Distribution · Energy Load and Power Forecasting
