Planning of Off-Grid Renewable Power to Ammonia Systems with Heterogeneous Flexibility: A Multistakeholder Equilibrium Perspective
<|reference_start|>Planning of Off-Grid Renewable Power to Ammonia Systems with Heterogeneous Flexibility: A Multistakeholder Equilibrium Perspective: Off-grid renewable power to ammonia (ReP2A) systems present a promising pathway toward carbon neutrality in both the energy and chemical industries. However, due to chemical safety requirements, the limited flexibility of ammonia synthesis poses a challenge when attempting to align with the variable hydrogen flow produced from renewable power. This necessitates the optimal sizing of equipment capacity for effective and coordinated production across the system. Additionally, an ReP2A system may involve multiple stakeholders with varying degrees of operational flexibility, complicating the planning problem. This paper first examines the multistakeholder sizing equilibrium (MSSE) of the ReP2A system. First, we propose an MSSE model that accounts for individual planning decisions and the competing economic interests of the stakeholders of power generation, hydrogen production, and ammonia synthesis. We then construct an equivalent optimization problem based on Karush--Kuhn--Tucker (KKT) conditions to determine the equilibrium. Following this, we decompose the problem in the temporal dimension and solve it via multicut generalized Benders decomposition (GBD) to address long-term balancing issues. Case studies based on a realistic project reveal that the equilibrium does not naturally balance the interests of all stakeholders due to their heterogeneous characteristics. Our findings suggest that benefit transfer agreements ensure mutual benefits and the successful implementation of ReP2A projects.<|reference_end|>
@article{zeng2024planning,
    title={Planning of Off-Grid Renewable Power to Ammonia Systems with
  Heterogeneous Flexibility: A Multistakeholder Equilibrium Perspective},
    author={Yangjun Zeng (1), Yiwei Qiu (1), Jie Zhu (1), Shi Chen (1), Tianlei
  Zang (1), Buxiang Zhou (1), Ge He (2), Xu Ji (2) ((1) College of Electrical
  Engineering, Sichuan University, (2) School of Chemical Engineering, Sichuan
  University)},
    journal={arXiv preprint arXiv:2408.09113},
    year={2024},
    archivePrefix={arXiv},
    eprint={2408.09113},
    primaryClass={math.OC cs.SY eess.SY}
}