Describes in detail the main technologies for monoethylene glycol (MEG) recovery in offshore platforms for natural gas production Presents the concept of MEG recovery units, their main configurations and their finalities in offshore platforms for natural gas production

Provides a quantitative comparison and energetic analysis of MEG recovery units in offshore platforms for natural gas production

Provides case studies on the thermodynamic efficiency of general distillation-based processes with sharp and not too sharp cuts, as well as on MEG recovery processes

Presents methodology to conduct exergy analysis in complex processes using a professional process simulator

Autorentext

Alexandre M. Teixeira: He is a chemical engineer, holds a M.Sc. degree with emphasis in oil and gas field, is currently a D.Sc. student and works in a project in a partnership with Petrobras. He has experience in the field of process engineering, focusing his research on flow assurance in offshore platforms, energy efficiency and natural gas processing. He gained an outstanding scholar award (undergraduate student) in 2012 due to his academic performance and B. Sc. with honors (cum laude), and in 2014 won the best M.Sc. thesis award from Escola de Química of the Federal University of Rio de Janeiro. Lara de O. Arinelli: She is graduated in Chemical Engineering by the Federal University of Rio de Janeiro, Brazil, and holds a M.Sc. degree with emphasis in process engineering, specifically in the oil and gas field. She is currently a D.Sc. student, while working in parallel in a research project with Petrobras. The main theme of her thesis is natural gas processing, focusing on the development of unit operation extensions of membranes and supersonic separation for simulation purposes. Lara gained an outstanding scholar award (undergraduate student) in 2012 due to her academic performance, B.Sc. degree with honors (cum laude) and in 2015 won the best M.Sc. thesis award from Escola de Química of the Federal University of Rio de Janeiro. Prof. Dr. José Luiz de Medeiros***:*** He graduated in Chemical Engineering at Federal University of Rio de Janeiro (1980), Brazil. He earned MSc (1982) and DSc (1990) Chemical Engineering degrees from the same institution. He is currently an Assistant Professor in the Department of Chemical Engineering at Federal University of Rio de Janeiro since 1990. He has experience in several sectors of chemical engineering with emphasis in Petroleum, Natural Gas and Petrochemistry, with several published works in the following research lines: Applied Thermodynamics, Separation Processes, Process Identification & Optimization, Statistical & Mathematical Methods. His fields of study concentrate on Compositional Modeling, Hydro-treatment & Hydrocracking of Oil Fractions, Compressible & Incompressible Flows and Associate Separation Technologies, Flow Assurance in Natural Gas Systems, Pipeline Network Modeling for Natural Gas & Oil Transportation, Leak Detection in Compressible & Incompressible Pipeline Networks, Chemical Sequestration of CO2 , Capture of CO2 & H2S from Natural Gas via Membrane Permeation and Technologies of Contact with Aqueous Ethanolamines.

Prof. Dr. Ofélia de Queiroz Fernandes Araújo: She holds a PhD (1987) and MSc (1984) degrees in Chemical Engineering from the University of Illinois at Urbana-Champaign (USA), and BSc in Chemical Engineering from the Federal University of Rio de Janeiro (1981), Brazil. Worked at NATRON SA (1987-198) and OXITENO SA (1989-1993) in process simulation and control engineering. Joined the Federal University of Rio de Janeiro, in 1993, in the Chemical Engineering Department, where she is currently Associate Professor. Her research interests are process and environmental engineering, with special focus in natural gas processing, and CO2 separation and utilization, and green engineering. She was head of two graduate programs - Technology of Chemical and Biochemical Processes (2007-2010) and Environmental Engineering (2014-2015).

Inhalt
Chapter 1. Introduction.- Chapter 2. Hydrate Formation and Inhibition in Offshore Natural Gas Processing.- Chapter 3.MEG Loops in Offshore Natural Gas Fields.- Chapter 4.Thermodynamics of Glycol Systems.- Chapter 5.MRU Processes.- Chapter 6. Energy Consumption and CO2 Emission of MRU Processes.- Chapter 7.Thermodynamic Efficiency of Steady State Operations of MRUs.- Chapter 8.Exergy Analysis of Chemical Processes.- Chapter 9.Exergy Analysis of MRU Processes in Offshore Platforms.- Chapter 10.Influence of Design Parameters on Exergy Efficiencies of MRU Processes.- Chapter 11.Energy Performance versus Exergy Performance of MRU Processes.- Chapter 12.Concluding Remarks.