Scheduling Delays and Curtailment for Household Appliances with Deterministic Load Profiles using MPC
Yingzhao Lian, Yuning Jiang, Colin N. Jones, and Daniel F. Opila

TL;DR
This paper introduces a self-triggered model predictive control scheme for scheduling household appliances with deterministic load profiles, effectively managing delays and curtailment to optimize power demand within thresholds.
Contribution
It presents a novel continuous optimization approach with an inhomogeneous time grid for scheduling deterministic load profiles, improving upon existing methods.
Findings
Outperforms mixed-integer MPC in numerical tests
Successfully manages appliance scheduling with delay and curtailment
Demonstrates effectiveness in a case study with multiple appliances
Abstract
Smart home appliances can time-shift and curtail their power demand to assist demand side management or allow operation with limited power, as in an off-grid application. This paper proposes a scheduling process to start appliances with time-varying deterministic load profiles. Self-triggered model predictive control is used to limit the household net power demand below a given threshold. Meanwhile, deterministic load profiles are more difficult to schedule compared to variable charging or thermal loads because system failure will occur once power demand is not satisfied. The proposed scheme formulates the decision of the load shifting time as a continuous optimization problem, and an inhomogeneous time grid system is introduced to handle the optimization of different appliances and their consensus at this resolution. The efficacy of the proposed scheme is studied by numerical…
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Taxonomy
TopicsSmart Grid Energy Management · Microgrid Control and Optimization · Advanced Control Systems Optimization
