Heat and Mass Transfer Intensification and Shape Optimization

Lingai LUO received her Bachelor's (1982) and Master's (1984) degrees in thermal energy engineering from Harbin Institute of Technology, China. She received her Ph.D. degree (1991) in mechanic and thermal engineering from National Polytechnic Institute of Lorraine (INPL), Nancy, France. She worked as assistant professor (1991-1993) at INPL, as associate professor (1993-1996) at University of Nancy I, and at INPL (1996-2003). From 2003 until 2012 she was a professor at University of Savoie, France. She is now senior research director of French National Center for Scientific Research (CNRS). Prof. Luo's research covers a wide range of topics in thermal, process and energy engineering and focus on a fundamental strategy based on thermodynamic analysis and centered on the transfer intensification and energy systems optimization. More recently, it concerns firstly the design, fabrication, characterization, simulation and optimization of innovative fluidic, thermal and reactive components, and secondly the development of new thermo-chemical systems and processes for low-grade thermal energy transportation and valorization, and inter-seasonal solar energy storage for their applications in buildings. She proposed a multi-scale approach for optimization of global performance of energy systems and process. Prof. Luo was the head of laboratory of design optimization and environmental engineering (LOCIE) of CNRS and University of Savoie from 2007 until 2012. She was the cofounder and coordinator of Sino-French Collaboratory for Environmental and Process Engineering (1998-2006) and is the head of Sino-French Laboratory for Sustainable Energy (since 2008) of French CNRS and Chinese Academy of Sciences. She is also an invited professor at 5 Chinese universities/institutions, and Leuphana University at Luneburg, Germany.

• 1. General Introduction.- 2. Intensification of Adsorption Process in Porous Media.- 3. Flow Equipartition and Shape Optimization of Fluidic Channel Networks.- 4.Design of Compact Heat Exchangers for Transfer Intensification.- 5.Mass Transfer Intensification in Micro Fluidic Devices.- 6.Cellular Automaton Method for Heat and Mass Transfer Intensification.- 7.Conclusion and Perspectives.