ARPAV (2015). Indagine sul consumo domestico di biomasse legnose in Veneto. Regional Agency for Environmental Protection of Veneto (ARPAV). Available at https://www.arpa.veneto.it/temiambientali/aria/file-e-allegati/Consumi%20domestici%20legna% 20in%20Veneto_1.0.pdf/view (in Italian)
Bergman T, Lavine A (2017). Fundamental of Heat and Mass Transfer, 8th edn. Hoboken, NJ, USA: John Wiley and Sons
Cablé A, Georges L, Peigné P, et al. (2019). Evaluation of a new system combining wood-burning stove, flue gas heat exchanger and mechanical ventilation with heat recovery in highly-insulated houses. Applied Thermal Engineering, 157: 113693.
Cai N, Chow WK (2014). Numerical studies on heat release rate in a room fire burning wood and liquid fuel. Building Simulation, 7: 511–524.
Calderón C, Avagianos I, Jossart J (2020). Report Bioheat. Bioenergy Europe. Available at: https://bioenergyeurope.org/article.html/258.
Carlon E, Verma VK, Schwarz M, et al. (2015). Experimental validation of a thermodynamic boiler model under steady state and dynamic conditions. Applied Energy, 138: 505–516.
Carlon E, Schwarz M, Prada A, et al. (2016). On-site monitoring and dynamic simulation of a low energy house heated by a pellet boiler. Energy and Buildings, 116: 296–306.
Carvalho RL, Jensen OM, Afshari A, et al. (2013). Wood-burning stoves in low-carbon dwellings. Energy and Buildings, 59: 244–251.
Carvalho RL, Jensen OM, Tarelho LAC (2016). Mapping the performance of wood-burning stoves by installations worldwide. Energy and Buildings, 127: 658–679.
Caserini S, Livio S, Giugliano M, et al. (2010). LCA of domestic and centralized biomass combustion: The case of Lombardy (Italy). Biomass and Bioenergy, 34: 474–482.
Cespi D, Passarini F, Ciacci L, et al. (2014). Heating systems LCA: Comparison of biomass-based appliances. The International Journal of Life Cycle Assessment, 19: 89–99.
Collins L (2012). Predicting annual energy consumption with thermal simulation: a UK perspective on mitigation of risks in estimation and operation. Building Simulation, 5: 117–125.
Cóstola D, Blocken B, Hensen JLM (2009). Overview of pressure coefficient data in building energy simulation and airflow network programs. Building and Environment, 44: 2027–2036.
De Carli M, Marigo M, Zulli F, et al. (2020). Action D3. Bilancio energetico del settore residenziale—Report sui consumi dei vettori energetici impiegati nel riscaldamento delle abitazioni del Bacino Padano. Available at https://www.lifeprepair.eu/wp-content/uploads/2020/10/D3_Report-sul-bilancio-energetico_Rev3_per_pubblicazione.pdf (in Italian)
Dols WS, Polidoro BJ (2015).CONTAM user guide and program documentation. Version 3.2. NIST Technical note 1887. Available at: https://doi.org/10.6028/NIST.TN.1887
Duanmu L, Yuan P, Wang Z, Xu C (2017). Heat transfer model of hot-wall Kang based on the non-uniform Kang surface temperature in Chinese rural residences. Building Simulation, 10: 145–163.
Elnakat A, Gomez JD (2016). The flame dilemma: A data analytics study of fireplace influence on winter energy consumption at the residential household level. Energy Reports, 2: 14–20.
European Commission (2019). The European Green Deal. Available at https://ec.europa.eu/info/sites/default/files/european-green-deal-communication_en.pdf. Accessed 14 Sept 2021.
European Committee for Standardization (2006). EN 14785:2006, Residential space heating appliances fired by wood pellets. Requirements and test methods, European Standard.
European Committee for Standardization (2008). EN 15603:2008, Energy performance of buildings—Overall energy use and definition of energy ratings, European Standard.
European Committee for Standardization (2017). EN 15316:2017, Heating systems in building. Method for calculation of system energy requirements and system efficiencies—Part 1: General and energy performance expression, European Standard.
European Committee for Standardization (2018). EN 16510:2018, Residential solid fuel burning appliances—Part 1: General requirements and test methods, European Standard.
European Committee for Standardization (2019). EN 16798–1:2019, Energy performance of buildings—Ventilation of buildings—Part 1: Indoor environmental input parameters for design and assessment of energy performance of buildings addressing indoor air quality, thermal environment, lighting and acoustics, European Standard.
European Parliament and Council (2018). On the promotion of the use of energy from renewable sources (Directive 2018/2001). Official Journal of the European Union. 82–209. Available at https://eur-lex.europa.eu/legal-content/EN/TXT/PDF/?uri=CELEX:32018L2001&from=EN.
Eurostat (2018). Energy consumption in households. Available at https://ec.europa.eu/eurostat/statistics-explained/index.php?title= Energy_consumption_in_households#Energy_products_used_in_the_residential_sector. Accessed 13 Sept 2021.
Feist W, Schnieders J, Dorer V, et al. (2005). Re-inventing air heating: Convenient and comfortable within the frame of the Passive House concept. Energy and Buildings, 37: 1186–1203.
Fine JP, Gray J, Tian X, et al. (2020). An investigation of alternative methods for determining envelope airtightness from suite-based testing in multi-unit residential buildings. Energy and Buildings, 214: 109845.
Francescato V, Rossi D (2019). Rapporto statistico AIEL 2019 — Evoluzione del consumo di biocombustibili e delle emissioni della combustione in Italia, a scala domestica e commerciale. (In Italian)
Fritsche UR, Greß H-W (2015). Development of the Primary Energy Factor of Electricity Generation in the EU-28 from 2010–2013.
International Institute for Sustainability Analysis and Strategy (IINAS). Available at https://www.ehpa.org/fileadmin/red/03._Media/03.02_Studies_and_reports/2015_IINAS_PEF_EU-28_Electricity_2010–2013.pdf.
Gauthier G, Avagianos I, Calderón C, et al. (2020). Report Pellets. Bioenergy Europe. Available at https://bioenergyeurope.org/article.html/268. Accessed 13 Sept 2021.
Georges L, Novakovic V (2012). On the integration of wood stoves for the space-heating of passive houses: Assessment using dynamic simulation. In: Proceedings of the First Building Simulation Optim Conference.
Georges L, Skreiberg Ø, Novakovic V (2014). On the proper integration of wood stoves in passive houses under cold climates. Energy and Buildings, 72: 87–95.
Haller MY, Paavilainen J, Konersmann L, et al. (2011). A unified model for the simulation of oil, gas and biomass space heating boilers for energy estimating purposes. Part I: Model development. Journal of Building Performance Simulation, 4: 1–18.
Harkouss F, Fardoun F, Biwole PH (2018). Optimization approaches and climates investigations in NZEB—A review. Building Simulation, 11: 923–952.
Heiselberg P (2006). Modelling of natural and hybrid ventilation. DCE Lecture notes No. 4. Department of Civil Engineering, Aalborg University.
Holst S (1996). TRNSYS—Models for radiator heating systems.
Italian Organisation for Standardisation (2012). UNI/TS 11300–4, Energy performance of buildings, Part 4: Renewable energy and other generation systems for space heating and domestic hot water production. (in Italian)
Italian Organisation for Standardisation (2014). UNI/TR 11552, Opaque envelope components of buildings, Thermo-physical parameters. (in Italian)
ISTAT (2011). 15° Censimento Generale della Popolazione e delle Abitazioni. National Institute of Statistics (ISTAT). Available at http://dati-censimentopopolazione.istat.it/Index.aspx. Accessed 1 Jun 2020. (in Italian)
ISTAT (2013). Censimento sui Consumi Energetici delle Famiglie. National Institute of Statistics (ISTAT). Available at: https://www.istat.it/it/archivio/58343. Accessed 14 Sept 2021. (in Italian)
Jenkins D, Jackson F (2010). Wood pellet heating systems: The Earthscan expert handbook on planning, design and installation. Available at https://doi.org/10.4324/9781849774963.
Klein SA, Beckman WA, Mitchell JW, et al. (2014). TRNSYS 17, a TRaNsient SYstem Simulation program: vol. 4, Mathematical Reference. Available at http://web.mit.edu/parmstr/Public/TRNSYS/04-MathematicalReference.pdf.
Krarouch M, Ruesch F, Hamdi H, et al. (2020). Dynamic simulation and economic analysis of a combined solar thermal and pellet heating system for domestic hot water production in a traditional Hammam. Applied Thermal Engineering, 180: 115839.
Kristjansson K, Næss E, Skreiberg Ø (2016). Dampening of wood batch combustion heat release using a phase change material heat storage: Material selection and heat storage property optimization. Energy, 115: 378–385.
Lamberg H, Sippula O, Tissari J, et al. (2017). Operation and emissions of a hybrid stove fueled by pellets and log wood. Energy & Fuels, 31: 1961–1968.
Li Q, Jiang J, Wang S, et al. (2017). Impacts of household coal and biomass combustion on indoor and ambient air quality in China: Current status and implication. Science of the Total Environment, 576: 347–361.
Li G, Zhang J, Li H, et al. (2021). Towards high-quality biodiesel production from microalgae using original and anaerobically-digested livestock wastewater. Chemosphere, 273: 128578.
McDowell TP, Emmerich S, Thornton JW, et al. (2003). Integration of airflow and energy simulation using CONTAM and TRNSYS. ASHRAE Transactions, 109(2): 757–770.
Ng LC, Musser A, Persily AK, et al. (2013). Multizone airflow models for calculating infiltration rates in commercial reference buildings. Energy and Buildings, 58: 11–18.
Oehler H, Mark R, Hartmann H, et al. (2016). Development of a test procedure to reflect real life operation of pellet stoves. In: Proceedings of the 24th European Biomass Conference and Exhibition, Amsterdam, The Netherlands.
Patti S, Pillon S, Intini B, et al. (2020). Action D3. Wood consumption estimation in the Po Valley—Report on the survey to estimate woody biomasses consumption in households. Available at http://www.lifeprepair.eu/wp-content/uploads/2017/06/D3_Report-on-woody-biomasses-consumption-in-households_01feb2020–1.pdf
Pedersen TH, Hedegaard RE, Kristensen KF, et al. (2019). The effect of including hydronic radiator dyamics in model predictive control of space heating. Energy and Buildings, 183: 772–784.
Persson T, Nordlander S, Rönnelid M (2005). Electrical savings by use of wood pellet stoves and solar heating systems in electrically heated single-family houses. Energy and Buildings, 37: 920–929.
Persson T, Fiedler F, Nordlander S, et al. (2009). Validation of a dynamic model for wood pellet boilers and stoves. Applied Energy, 86: 645–656.
Persson T, Wiertzema H, Win KM, et al. (2019). Modelling of dynamics and stratification effects in pellet boilers. Renewable Energy, 134: 769–782.
Petrocelli D, Lezzi AM (2014). Modeling operation mode of pellet boilers for residential heating. Journal of Physics: Conference Series, 547: 012017.
Quinteiro P, Tarelho L, Marques P, et al. (2019). Life cycle assessment of wood pellets and wood split logs for residential heating. Science of the Total Environment, 689: 580–589.
Risberg D, Risberg M, Westerlund L (2016). CFD modelling of radiators in buildings with user-defined wall functions. Applied Thermal Engineering, 94: 266–273.
Schumack M (2016). A computational model for a rocket mass heater. Applied Thermal Engineering, 93: 763–778.
Seem JE (1987). Modelling of heat transfer in buildings. Ph.D Thesis, University of Wisconsin Madison, USA.
Skreiberg Ø, Georges L (2018). Transient heat production and release profiles for wood stoves. Chemical Engineering Transactions, 65: 223–228.
Swami MV, Chandra S (1988). Correlations for pressure distribution on buildings and calculation of natural-ventilation airflow. ASHRAE Transactions, 94(1): 243–266.
TESS (2012). TESS component libraries — General description. Thermal Energy Storage Specialists (TESS). Available at: http://www.trnsys.com/tess-libraries/. Accessed 13 Sept 2021.
Tol Hİ (2020). Improved space-heating radiator model: Focus on set-back operation, radiator over-dimensioning, and add-on fans. Building Simulation, 13: 317–334.
Xu B, Fu L, Di H (2008). Dynamic simulation of space heating systems with radiators controlled by TRVs in buildings. Energy and Buildings, 40: 1755–1764.
Yu K, Cao Z, Liu Y (2017). Research on the optimization control of the central air-conditioning system in university classroom buildings based on TRNSYS software. Procedia Engineering, 205: 1564–1569.
Zhao N, Li B, Li H, et al. (2021). The potential co-benefits for health, economy and climate by substituting raw coal with waste cooking oil as a winter heating fuel in rural households of Northern China. Environmental Research, 194: 110683.