258 Advances in Process Intensification


Description:
Process Intensification (PI) is an engineering expression that refers to the transformation of a chemical process to make it significantly more efficient in terms of relevant process performance figures (e.g. energy consumption and cost-effectiveness). PI requires a holistic view in order to identify and eliminate the main resistances that limit the overall process performance. Options for PI can be identified and realized on different scales of a chemical process and include e.g. the realization of new reaction routes (using new catalysts), the use of innovative solvents, alternative forms of energy, novel (e.g. structured) reactors, integrated processes (e.g. reactive or hybrid separations) or new (e.g. dynamic) operating modes. Papers on practical implementations as well as methodological contributions are equally welcome.

Sponsor:
Process Intensification & Microprocess Engineering
Co-Sponsor(s):
Process Development Division (12), Process Intensification & Modular Chemical Processing (T6B)


Chair:
Chongwei Xiao
Assistant Professor
Texas A&M University-Kingsville
Chemical and Natural Gas Engineering
700 University Blvd
Kingsville, TX
78363
Email: Chongwei.Xiao@tamuk.edu

Co-Chair:
Robert S. Huss
Research Associate
Eastman Chemical Company
PO Box 1972
Kingsport, TN
37660-5150
Phone Number: 4232296425
Email: rhuss@eastman.com


Papers:
Development and Evaluation of Oxidative Dehydrogenation Technology for Production of Light Olefins
Gennaro J. Maffia, Manhattan College; Anne Gaffney, Idaho National Laboratory; Aaron Beinstein, Manhattan College
Process Intensification through Membrane Separation of Olefins and Paraffins
Hannah Murnen, Compact Membrane Systems; Sudip Majumdar, Compact Membrane Systems; William Charlton, Compact Membrane Systems; Ken Loprete, Compact Membrane Systems; Ning Shangguan, Compact Membrane Systems; Affiq Zulkifli, Compact Membrane Systems; Kenneth J. Pennisi, Compact Membrane Systems
Evaluation of Novel Mixing and Separation Apparatus for Liquid-Liquid Extraction
Arjun Kumar Pukkella, TCS Research, TRDDC, Tata Consultancy Services; Raviraju Vysyaraju, TCS Research, TRDDC, Tata Consultancy Services; Sivakumar Subramanian, TCS Research, TRDDC, Tata Consultancy Services
2D Optimization of Fixed-Bed Reactors: Additional Degrees of Freedom for the Reactor Design to Increase Efficiency
Alexander Pietschak, Friedrich-Alexander-Universität Erlangen-Nürnberg; Hannsjörg Freund, Friedrich-Alexander-Universität Erlangen-Nürnberg
On-Sun Demonstration of Continuous Redox Driven Solar Thermochemical Hydrogen Production
Amanda Hoskins, University of Colorado Boulder; Samantha L. Millican, University of Colorado Boulder; Caitlin Czernik, University of Colorado Boulder; Judy Netter, National Renewable Energy Laboratory; Alan W. Weimer, University of Colorado Boulder
The Mechanism Investigation for Process Intensification of the Esterification Reaction By Microwave Irradiation
Xin Gao, Tianjin University; Hong Li, Tianjin University; Ying Meng, Tianjin University
Process Intensification Via Batch-to-Continuous Transition in the Production of Lubricants: Acquisition of Robust Reaction Kinetics
Nasser Al Azri, University of Pittsburgh; Edmund Sam-Gyandoh, University of Pittsburgh; Samuel Batchelder, University of Pittsburgh; Zibo Zhen, University of Pittsburgh; Hari C. Mantripragada, University of Pittsburgh; Robert M. Enick, University of Pittsburgh; Cliff Kowall, The Lubrizol Corporation; Götz Veser, University of Pittsburgh
Abstract Submissions Closed
See more of this Group/Topical: Process Development Division