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Asselman, T., Sorin, M., & Paris, J. (septembre 1995). Efficacité des techniques de regénération d'eau pour une usine de fabrication de papier integrée sans effluent. Analyse exergétique [Communication écrite]. Journées européennes de thermodynamique contemporaine (JETC), Nancy, France. Publié dans Revue générale de thermique, 35(418-419). Lien externe
Cascella, F., Gaboury, S., Sorin, M., & Teyssedou, A. (2018). Proof of concept to recover thermal wastes from aluminum electrolysis cells using Stirling engines. Energy Conversion and Management, 172, 497-506. Lien externe
Dipama, J., Teyssedou, A., & Sorin, M. (2008). Synthesis of Heat Exchanger Networks Using Genetic Algorithms. Applied Thermal Engineering, 28(14-15), 1763-1773. Lien externe
Ducoulombier, M., Sorin, M., & Teyssedou, A. (2007). Thermodynamic Bounds for Food Deep Chilling Tray Tunnel Operation. International Journal of Thermal Sciences, 46(2), 172-179. Lien externe
Ducoulombier, M., Teyssedou, A., & Sorin, M. (2006). A Model for Energy Analysis in Supermarkets. Energy and Buildings, 38(4), 349-356. Lien externe
Hosatte, D. S., Sorin, M., Génois, J., Lafrance, G., Asselman, T., & Paris, J. (janvier 1993). Gestion de l'énergie thermique dans le secteur agro-alimentaire par des PACC [Communication écrite]. Heat pumps in cold climates/Proceed. Caneta research ed, Moncton/Mississauga. Lien externe
Lambert, J., Sorin, M., & Paris, J. (1997). Analysis of oxygen-enriched combustion for steam methane reforming (smr). Energy, 22(8), 817-825. Lien externe
Lambert, J., Sun, Y., Marino, M., Sorin, M., Paris, J., & Legault, A. (1997). Waste water reduction at a canadian paperboard mill. CADDET newsletter, 2, 17-19. Non disponible
Lambert, J., Sorin, M., & Paris, J. (juillet 1996). Thermodynamic efficiency of steam methane reforming with oxygen enriched combustion [Communication écrite]. 5. world congress of chemical engineering, San Diego, CA (United States). Non disponible
Leroy, C., Sorin, M., & Paris, J. (janvier 1995). Exergy and pinch analysis of a gas conversion process [Communication écrite]. ITEC'95, Agadir. Non disponible
Saloux, E., Sorin, M., & Teyssedou, A. (2019). Exergo-economic analyses of two building integrated energy systems using an exergy diagram. Solar Energy, 189, 333-343. Lien externe
Saloux, E., Sorin, M., Nesreddine, H., & Teyssedou, A. (2019). Thermodynamic Modeling and Optimal Operating Conditions of Organic Rankine Cycles (ORC) Independently of the Working Fluid. International Journal of Green Technology, 5(1), 9-22. Lien externe
Saloux, E., Sorin, M., & Teyssedou, A. (2018). Assessing the exergy performance of heat pump systems without using refrigerant thermodynamic properties. [Évaluer la performance exergétique des systèmes de pompe à chaleur sans utilisation des propriétés thermodynamiques du frigorigène]. Lien externe
Saloux, E., Sorin, M., Nesreddine, H., & Teyssedou, A. (2018). Reconstruction procedure of the thermodynamic cycle of organic Rankine cycles (ORC) and selection of the most appropriate working fluid. Applied Thermal Engineering, 129(Supplement), 628-635. Lien externe
Saloux, E., Sorin, M., & Teyssedou, A. (2016). Modeling the exergy performance of heat pump systems without using refrigerant thermodynamic properties. Energy and Buildings, 112, 69-79. Lien externe
Saloux, E., Teyssedou, A., & Sorin, M. (2015). Development of an exergy-electrical analogy for visualizing and modeling building integrated energy systems. Energy Conversion and Management, 89, 907-918. Lien externe
Saloux, E., Teyssedou, A., & Sorin, M. (2013). Analysis of photovoltaic (PV) and photovoltaic/thermal (PV/T) systems using the exergy method. Energy and Buildings, 67, 275-285. Lien externe
Sorin, M., & Paris, J. (1999). Integrated Exergy Load Distribution Method and Pinch Analysis. Computers & Chemical Engineering, 23(4-5), 497-507. Lien externe
Sorin, M., Bonhivers, J. C., & Paris, J. (1998). Exergy Efficiency and Conversion of Chemical Reactions. Energy Conversion and Management, 39(16-18), 1863-1868. Lien externe
Sorin, M., Lambert, J., & Paris, J. (1998). Exergy Flows Analysis in Chemical Reactors. Chemical Engineering Research & Design, 76(3), 389-395. Lien externe
Sorin, M., & Paris, J. (1997). Combined exergy and pinch approach to process analysis. Computers & Chemical Engineering, 21, S23-S28. Lien externe
Sorin, M., Bonhivers, J.-C., & Paris, J. (janvier 1997). Exergy efficiency and conversion of chemical reactors [Communication écrite]. Flowers'97- Florence world energy research symp. Non disponible
Sorin, M., Sapundzhiev, C., & Paris, J. (juin 1996). Thermodynamic efficiency of conventional vs. flow reversal catalytic reactors [Communication écrite]. Symposium on efficiency, costs optimization, simulation and environmental aspects of energy systems (ECOS), Stockholm (Sweden). Non disponible
Sorin, M., & Paris, J. Exergy load redistribution method for multi-step process analysis [Communication écrite]. ASME Annual Meeting, San Francisco, Calif.. Publié dans AES, 35. Non disponible
Sorin, M., & Paris, J. (janvier 1995). Exergy load redistribution methos for multi-step process analysis [Communication écrite]. ASME ann. Meet, San Francisco. Non disponible
Sorin, M., Brodyanski, V., & Paris, J. (juin 1995). Novel approach to exergy analysis [Communication écrite]. International Thermal Energy Congress (ITEC), 1995, Agadir. Non disponible
Sorin, M., Sapundzhiev, C., & Paris, J. (janvier 1994). Application of a new exergy analysis method to a flow reversal reactor [Communication écrite]. 13th intl. symp. on Chemical reaction engineering, Baltimore. Non disponible
Sorin, M., Sapundzhiev, C., & Paris, J. (1994). Application of a new exergy analysis method to a flow reversal SO₂ convertor. Chemical Engineering Science, 49(24, pt. B), 5603-5613. Lien externe
Sorin, M., Brodyansky, V., & Paris, J. (janvier 1994). Observations on exergy efficiency coefficients [Communication écrite]. Florence world energy research symposium - flowers'94, Florence. Non disponible
Sorin, M., Le Goff, P., Paris, J., & Galatone, V. (1994). Thermodynamic efficiency of sorption heat pumps. Renewable Energy, 5(1-4), 412-414. Lien externe
