Author
Listed:
- Sakthivelu, Adhithyan
- Chapin, Fletcher T.
- Bolorinos, Jose
- Mauter, Meagan S.
Abstract
Incentive Based Demand Response (IBDR) program participation delivers financial benefits to the consumers and resiliency benefits to the electricity grid. Effectively participating in these programs as an industrial consumer requires bidding strategies that balance financial risk with operational constraints. Existing bidding tools tend not to fully incorporate stochastic IBDR event modeling, program specific baseline and payment/penalty calculations, or demand reduction process control schemes that account for the cascading impacts of shutdown in complex facilities. This work presents an IBDR event simulator and risk-aware bidding framework tool integrating three key components: a flexible, parameterized demand response event generator that rigorously accounts for program structures and stochasticity, a demand response operational simulation model that generates explicit control strategies for load reduction, and a Monte Carlo simulator to evaluate financial risk for varied capacity bids. A case study at a wastewater treatment plant participating in PG&E's Capacity Bidding Program demonstrates the framework's utility. In the peak capacity price month of August, optimal bidding by the wastewater treatment plant nets a mean IBDR benefit of $101,000 (67% of the August electricity bill) with 0.4% probability of a financial loss. This framework enables industrial operators to make informed bidding decisions, negotiate better program terms with demand response load aggregators, and analyze energy flexibility investments at their facilities. Ultimately, this work reduces participation barriers in IBDR programs and supports the broader goal of enhancing grid reliability and renewable energy integration.
Suggested Citation
Sakthivelu, Adhithyan & Chapin, Fletcher T. & Bolorinos, Jose & Mauter, Meagan S., 2026.
"Demand response event simulator and risk-aware bidding tool for industrial customers,"
Applied Energy, Elsevier, vol. 409(C).
Handle:
RePEc:eee:appene:v:409:y:2026:i:c:s030626192600108x
DOI: 10.1016/j.apenergy.2026.127456
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