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Michael Böttiger

Researcher at Dresden University of Technology

Publications -  5
Citations -  64

Michael Böttiger is an academic researcher from Dresden University of Technology. The author has contributed to research in topics: Battery (electricity) & Photovoltaic system. The author has an hindex of 4, co-authored 5 publications receiving 45 citations.

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Comparison of particle swarm and genetic algorithm based design algorithms for PV-hybrid systems with battery and hydrogen storage path

TL;DR: A new optimizing design concept for autonomous power supply systems employing an enhanced particle swarm algorithm taking into account both component sizing and energy management parameters is described.
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Systematic experimental pulse test investigation for parameter identification of an equivalent based lithium-ion battery model

TL;DR: In this paper, an equivalent circuit based simulation model for the static and dynamic behavior of lithium-ion battery systems is presented, which describes the voltage-current characteristic, the state of charge behavior and the occurring losses of the battery system.
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Comparison of optimization solvers in the model predictive control of a PV-battery-heat pump system

TL;DR: A model predictive control approach for a home energy system with a heat pump, a thermal storage, a photovoltaic system and a battery, demonstrated in the mixed-integer linear programming framework.
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Innovative Reactive Energy Management for a Photovoltaic Battery System

TL;DR: In this article, an optimizing model-based energy management system for an AC-coupled grid connected photovoltaic battery system is presented, which consists of a prediction module, an optimization module, and a reactive management module.
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Modular hybrid battery storage system for peak-shaving and self-consumption optimization in industrial applications

TL;DR: Results developing an innovative power supply system on the basis of a modular, flexibly customizable and cost-effective lithium-ion battery and power converter unit for peak-shaving and load levelling applications in the industrial sector including advanced self-consumption optimization strategies for renewable energies are presented.