Energy cost reduction by optimal control of ideal sensible thermal energy storage

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Superscript * Dimensionless variables Subscript amb Ambient c Cold em Emission References f Final h Hot hl Heat loss max Maximum min Minimum ref Reference sup Supply op Operational [1] European Commission. http://ec.europa.eu/research, 2013. [2] Neil J Hewitt. Heat pumps and energy storage - the challenges of implementation. Applied Energy, 89(1):37 – 44, 2012. [3] A. Arteconi, N.J. Hewitt, and F. Polonara. Domestic demand-side management (dsm): Role of heat pumps and thermal energy storage (tes) systems. Applied Thermal Engineering, 51(1-2):155 – 165, 2013. [4] A. Arteconi, N.J. Hewitt, and F. Polonara. State of the art of thermal storage for demand-side management. Applied Energy, 93(0):371 – 389, 2012. [5] G. Reynders, T. Nuytten, and D. Saelens. Potential of structural thermal mass for demand-side management in dwellings. Building and Environment, 64(0):187 – 199, 2013. [6] Marc A. Rosen. The exergy of stratified thermal energy storages. Solar Energy, 71(3):173 – 185, 2001. [7] E. Andersen and S. Furbo. Theoretical comparison of solar water/space-heating combi systems and strat- ification design options. JOURNAL OF SOLAR ENERGY ENGINEERING-TRANSACTIONS OF THE ASME, 129(4):438–448, NOV 2007. [8] Roman Spur, Dusan Fiala, Dusan Nevrala, and Doug Probert. Performances of modern domestic hot-water stores. Applied Energy, 83(8):893 – 910, 2006. [9] K.G.T. Hollands and M.F. Lightstone. A review of low-flow, stratified-tank solar water heating systems. Solar Energy, 43(2):97 – 105, 1989. [10] YousefH.Zurigat,PedroR.Liche,andAfshinJ.Ghajar.Influenceofinletgeometryonmixinginthermocline thermal energy storage. International Journal of Heat and Mass Transfer, 34(1):115 – 125, 1991. [11] Gregor P. Henze, Clemens Felsmann, and Gottfried Knabe. Evaluation of optimal control for active and passive building thermal storage. International Journal of Thermal Sciences, 43(2):173 – 183, 2004. [12] H. Ren, W. Gao, and Y. Ruan. Optimal sizing for residential chp system. Applied Thermal Engineering, 28 (5-6):514–523, 2008. [13] Phillip Oliver Kriett and Matteo Salani. Optimal control of a residential microgrid. Energy, 42(1):321 – 330, 2012. [14] E.D. Mehleri, H. Sarimveis, N.C. Markatos, and L.G. Papageorgiou. Optimal design and operation of distributed energy systems: Application to greek residential sector. Renewable Energy, 51(0):331 – 342, 2013. [15] Ramanunni P. Menon, Mario Paolone, and Fran c ̧ois Mar ́echal. Study of optimal design of polygeneration systems in optimal control strategies. Energy, 55(0):134 – 141, 2013. [16] D. Ariens, B. Houska, H. Ferreau, and F. Logist. ACADO: Toolkit for Automatic Control and Dynamic Optimization. Optimization in Engineering Center (OPTEC). [17] Clara Verhelst. Model predictive control of hybrid ground coupled heat pump systems. PhD thesis, KULeuven, Leuven, Belgium, 2012. [18] D.P. Jenkins, S. Patidar, P.F.G. Banfill, and G.J. Gibson. Probabilistic climate projections with dynamic building simulation: Predicting overheating in dwellings. Energy and Buildings, 43(7):1723 – 1731, 2011. [19] ASHRAE Handbook of Fundamentals, chapter 14: Climatic design information, page 11. American Society of Heating Refrigeration and Air-Conditioning Engineers, 2009. [20] Elia. http://www.elia.be/en/grid-data/dashboard, 2014. [21] K. Bruninx, D. Patteeuw, E. Delarue, L. Helsen, and W. D’haeseleer. Short-term demand response of flexible electric heating systems: The need for integrated simulations. In European Energy Market (EEM), 2013 10th International Conference on the, pages 1–10, 2013. 10

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