Generation Expansion Planning with Upstream Supply Chain Constraints on Materials, Manufacturing, and Deployment

Fuente: arXiv
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Main Authors: Yao, Boyu, Bernstein, Andrey, Dvorkin, Yury
Format: Preprint
Published: 2025
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author Yao, Boyu
Bernstein, Andrey
Dvorkin, Yury
author_facet Yao, Boyu
Bernstein, Andrey
Dvorkin, Yury
contents Rising electricity demand underscores the need for secure and reliable generation expansion planning that accounts for upstream supply chain constraints. Traditional models often overlook limitations in materials, manufacturing capacity, lead times for deployment, and field availability, which can delay availability of planned resources and thus to threaten system reliability. This paper introduces a multi-stage supply chain-constrained generation expansion planning (SC-GEP) model that optimizes long-term investments while capturing material availability, production limits, spatial and temporal constraints, and material reuse from retired assets. A decomposition algorithm efficiently solves the resulting MILP. A Maryland case study shows that supply chain constraints shift technology choices, amplify deployment delays caused by lead times, and prompt earlier investment in shorter lead-time, low-material-intensity options. In the low-demand scenario, supply chain constraints raise investment costs by $1.2 billion. Under high demand, persistent generation and reserve shortfalls emerge, underscoring the need to integrate upstream constraints into long-term planning.
format Preprint
id arxiv_https___arxiv_org_abs_2508_03001
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Generation Expansion Planning with Upstream Supply Chain Constraints on Materials, Manufacturing, and Deployment
Yao, Boyu
Bernstein, Andrey
Dvorkin, Yury
Systems and Control
Rising electricity demand underscores the need for secure and reliable generation expansion planning that accounts for upstream supply chain constraints. Traditional models often overlook limitations in materials, manufacturing capacity, lead times for deployment, and field availability, which can delay availability of planned resources and thus to threaten system reliability. This paper introduces a multi-stage supply chain-constrained generation expansion planning (SC-GEP) model that optimizes long-term investments while capturing material availability, production limits, spatial and temporal constraints, and material reuse from retired assets. A decomposition algorithm efficiently solves the resulting MILP. A Maryland case study shows that supply chain constraints shift technology choices, amplify deployment delays caused by lead times, and prompt earlier investment in shorter lead-time, low-material-intensity options. In the low-demand scenario, supply chain constraints raise investment costs by $1.2 billion. Under high demand, persistent generation and reserve shortfalls emerge, underscoring the need to integrate upstream constraints into long-term planning.
title Generation Expansion Planning with Upstream Supply Chain Constraints on Materials, Manufacturing, and Deployment
topic Systems and Control
url https://arxiv.org/abs/2508.03001