CURICULUM VITAE. CONSTANTINE PHILIPPOPOULOS Professor

Similar documents
Presentation by. Prof. Iacovos A. Vasalos CPERI & Department of Chemical Engineering Aristotle University of Thessaloniki (AUTH)

BAE 820 Physical Principles of Environmental Systems

CFD Simulation of Catalytic Combustion of Benzene

Plasma and catalysts. Part-financed by the European Union (European Regional Development Fund

Chemical Oxidation Overview. Jim Jacobs Tel:

INTRODUCTION TO CATALYTIC COMBUSTION

Catalytic Removal of Pharmaceutical Compounds in Water Medium under a H2 stream over Various Metal Supported Catalysts: A Promising Process

Affiliation Index. Subject Index

Oxidation Power of Various Reactive Species (Chlorine=1) Oxidation Power of Various Reactive Species (Chlorine=1)

AUTOMOTIVE EXHAUST AFTERTREATMENT

Rate of reaction refers to the amount of reactant used up or product created, per unit time. We can therefore define the rate of a reaction as:

Rates of Reaction HL

University of Oulu, Dept. Process and Environmental Engineering, FI University of Oulu, P.O.Box 4300

Oxidation of Phenolic Wastewater by Fenton's Reagent

Comparative study of UV-activated processes for the degradation of organic pollutants in

OH, is an important feedstock for the chemical industry.

H 8. ) is a member of the homologous series of alkenes. But-1-ene has structural isomers (2)... (1)...

IN SITU FORMATION OF HYDROGEN PEROXIDE FOR THE CATALYTIC REMOVAL OF PHARMACEUTICAL COMPOUNDS IN WASTEWATER USING HYDROGEN IN EXCESS OF OXYGEN/AIR

Chapter 9. Organic Chemistry: The Infinite Variety of Carbon Compounds. Organic Chemistry

Oxidation Behaviors of Gasohol Deposit

Oxidation Processes: Experimental Study and Theoretical Investigations

Synthesis gas production via the biogas reforming reaction over Ni/MgO-Al 2 O 3 and Ni/CaO-Al 2 O 3 catalysts

PAPER No. 4: Environmental Chemistry MODULE No. 19: Photochemical reaction in atmosphere and smog formation

Page 2. Q1.Which of these substances does not contribute to the greenhouse effect? Unburned hydrocarbons. Carbon dioxide. Water vapour. Nitrogen.

Chapter - III THEORETICAL CONCEPTS. AOPs are promising methods for the remediation of wastewaters containing

1 (a) Describe a chemical test which shows the presence of water. Describe how water is treated before it is supplied to homes and industry.

Nonlinear dynamics of three-way catalyst with microkinetics and internal diffusion

H 22. (a) Give the general formula of alkanes. (1) (b) Carbon monoxide, CO, is formed during the incomplete combustion of decane.

CHEMICAL KINETICS C.H. BAMFORD C.F.H. TIPPER WSSSKUH EDITED BY

PROCESS TECHNOLOGY- ORGANIC II. 51. Gas phase dehydrogenation of ethyl-benzene to styrene occurs over catalyst based on

3.2 Alkanes. Refining crude oil. N Goalby chemrevise.org 40 C 110 C 180 C. 250 C fuel oil 300 C 340 C. Fractional Distillation: Industrially

Organic Chemistry. Alkanes are hydrocarbons in which the carbon atoms are joined by single covalent bonds.

Cracking. 191 minutes. 186 marks. Page 1 of 27

Introduction to Chemical Reactions. Chapter 6

Oxygenate Formation from n-butane Oxidation at Short Contact Times: Different Gauze Sizes and Multiple Steady States 1

EFFECT OF SULFATE IONS ON THE OXIDATION OF MTBE BY FENTON S REAGENT

Nomenclature. 133 minutes. 130 marks. Page 1 of 22

Ch 9 Stoichiometry Practice Test

Unit 12: Chemical Kinetics

Journal of Innovative Engineering R Senthilkumar et al., Journal of Innovative Engineering 2014, 2(2): 5

3.30 TITANIUM DIOXIDE

Photolytic Degradation of Rhodamine B in Water Using H 2 O 2 /UV System

Student Laboratory Module: The Kinetics of NH 3 Cracking. Jason C. Ganley 23 September

Alcohols and Phenols. Classification of Alcohols. Learning Check. Lecture 4 Alcohols, Phenols, and Thiols. Alcohols, Phenols, and Thiols

Q1. Which one of the following is least likely to occur in the reaction between methane and chlorine?

Research on energy-saving and exhaust gas emissions compared between catalytic combustion and gas-phase combustion of natural gas

INORGANIC SUPPORTED POLYMERIC CATALYSTS INORGANIC SUPPORTED POLYMERIC CATALYSTS PDF ELENA GROPPO UNIVERSITY OF TORINO - ACADEMIA.

Q1.Central heating fuel, obtained by the fractional distillation of crude oil, contains saturated hydrocarbons with the molecular formula C 16 H 34

Application Challenges for Nanostructured Porous Materials

Elements and Their Oxides

Methane contains atoms of two elements, combined chemically. Methane is a mixture of two different elements.

Chapter 1 Reactions of Organic Compounds. Reactions Involving Hydrocarbons

Phenols removal using ozonation-adsorption with granular activated carbon (GAC) in rotating packed bed reactor

Adsorption and conversion of various hydrocarbons on monolithic hydrocarbon adsorber

AP Chem Chapter 14 Study Questions

Photo catalytic degradation of methylene blue in aqueous solutions using TiO2 nanoparticles

(g) 2NH 3. (g) ΔH = 92 kj mol 1

Catalytic materials for plasma-based VOC removal

Catalytic Chemistry. Bruce C. Gates. John Wiley & Sons, Inc. New York Chichester Brisbane Toronto Singapore. University of Delaware ^.'-'.

Chapter 9 Rates of Chemical Reactions

EDEXCEL IGCSE chemistry (double award)

Investigation of photochemical processes on TiO2 supported catalysts

The Seeding of Methane Oxidation

Second Interim Report NTIS GRA&I. 0 Michael Grttzel, Ph.D. By. Professor of Chemistry. June 20, United States Army

Emissions Catalyst Design using GT-SUITE. Dr. Chaitanya Sampara Viridis Chemicals Private Limited

Hydrogen addition to the Andrussow process for HCN synthesis

DETAILED MODELLING OF SHORT-CONTACT-TIME REACTORS

The Simplest Alkanes. Physical Properties 2/16/2012. Butanes are still gases. bp -160 C bp -89 C bp -42 C. CH 3 CH 2 CH 2 CH 2 CH 3 n-pentane.

HYDROGEN PERMEABILITY OF PALLADIUM MEMBRANE FOR STEAM- REFORMING OF BIO-ETHANOL USING THE MEMBRANE REACTOR

!n[a] =!n[a] o. " kt. Half lives. Half Life of a First Order Reaction! Pressure of methyl isonitrile as a function of time!

Modification of Alkanes by Cracking

Techniques for effluent treatment. Lecture 5

less stable intermediate

Instrumental Analysis

Chemical Kinetics Computations of Fuel Decomposition to Aldehydes for NOx Reduction in Engine Exhaust Gas

Dr Ali Jawarneh Department of Mechanical Engineering Hashemite University

Engineering. Green Chemical. S. Suresh and S. Sundaramoorthy. and Chemical Processes. An Introduction to Catalysis, Kinetics, CRC Press

(Home) Permanent Address: Chemistry Department, Faculty of Science, Assiut University, Assiut, Egypt. Postal code: 71516

1. What is the letter of the alphabet in parentheses that follows EXAM I in the title above? a. a b. b c. c d. d e. e

Combustion Generated Pollutants

Chemical Oxidation Oxidizing agents

Catalytic Aromatization of Methane

Fourier Transform Infrared Spectrometry Prelab Last modified: June 17, 2014

MICROSTRUCTURE-BASED PROCESS ENGINEERING AND CATALYSIS

Heterogeneous catalytic degradation of polyacrylamide solution

have also been successfully tested in low temperature NH 3 Noble metals, especially platinum, have been reported to be active catalysts in NH 3

Kinetic Parameter Identification for a DOC Catalyst Using SGB test and Advanced Optimization Algorithms

Unit 3(a) Introduction to Organic Chemistry

Predicting the Effect of Catalyst Axial Active Site Distributions on a Diesel Oxidation Catalyst Performance

Balancing chemical reaction equations (stoichiometry)

Supports, Zeolites, Mesoporous Materials - Chapter 9

CHEM Chemical Kinetics

Author Index. See for options on how to legitimately share published articles. Affiliation Index.

Ph. D. Thesis INFRARED STUDY OF SURFACE SPECIES AND INTERMEDIATES FORMED IN THE REACTION OF SMALL MOLECULES. Tímea Süli Zakar

slurry photoreactor ENEA - C.R. "Casaccia Guido Spanò

Same theme covered in Combined but extra content Extra parts atomic symbols (first 20, Group 1 and Group 7)

Reaction Rate Constants for Hydrogen Peroxide Oxidation of Phenol and Chlorinated Phenols in a Continuous Stirred Tank Reactor

Parametric Sensitivity in Chemical Systems

Prof. Em. E.F. Vansant

Use your knowledge of organic reaction mechanisms to complete the mechanism for this step by drawing two curly arrows on the following equation.

Transcription:

CURICULUM VITAE CONSTANTINE PHILIPPOPOULOS Professor NATIONAL TECHNICAL UNIVERSITY OF ATHENS DEPARTEMENT OF CHEMICAL ENGINEERING, Section II Chemical Process Engineering Laboratory 9 Heroon Polytechniou Str. GR 157 73 Athens, GREECE Tel: (+30 1) 772 3224, Fax: (+30 1) 772 3155 e-mail: kphilip@ chemeng.ntua.gr Place of Birth: Athens, Greece Date of Birth: February 5, 1956 Undergraduate Studies: October 1974-July 1979 Dept. of Chemical Engineering, National Technical University of Athens B.Sc in Chemical Engineering Postgraduate Studies: September 1979-May 1984, Ph.D Chemical Engineering, National Technical University of Athens, Title "Photochemical Conversion and Storage of Solar Energy" Teaching Experience: Teaching for over twenty five years Chemical Engineering Courses as follows: (i) Introduction to Chemical Engineering (ii) Basic Principles and Calculations in Chemical Engineering (iii) Chemical Reaction Engineering (iv) Chemical Engineering Lab. Dept. of Chem. Engineering National Technical University of Athens Research Interests: Energy Conversion Catalyst Preparation and Heterogeneous Reaction Kinetics Air Pollution Control (Catalytic and Photocatalytic oxidation of pollutants in gaseous and aqueous phase) Publications: 1. C.Philippopoulos, J.Marangozis, Photochemical Solar Energy Conversion in flat-plate collectors - An Engineering Analysis, J.Photochem., 17, 157, (1981).

2. C.Philippopoulos, D.Economou, C.Economou, J.Marangozis, Norbornadiene-Quadricyclane System in the Photochemical Conversion and Storage of Solar Energy, Ind.Eng.Chem.Prod.Res.Dev., 22, 627-633, (1983). 3. C.Philippopoulos, J.Marangozis, Kinetics and Efficiency of Solar Energy Storage in the Photochemical Isomerization of Norbornadiene to Quadricyclane, Ind.Eng.Chem.Prod.Res.Dev., 23,4 58-466, (1984). 4. C.Philippopoulos, N.Papayannakos, Intraparticle Diffusional Effects and Kinetics of Desulfurization Reactions and Asphaltenes Cracking during Catalytic Hydrotreatment of a Residue, Ind.Eng.Chem.Res., 27, 415-420, (1988). 5. V.Blachou, D.Goula, C.Philippopoulos, Wet Milling of Alumina and Preparation of Slurries for Monolithic Structures Impregnation, Ind.Eng.Chem.Res., 31, 364-369, (1992). 6. A.Psyllos, C.Philippopoulos, Modelling of Monolithic Catalyst Converters used in Automotive Pollution Control, Appl.Math.Modelling,16:9, 484-490, (1992). 7. C.Philippopoulos, Effect of Pore Structure on the Performance of Catalytic Monoliths Used in Automotive Emission Control, J.Mater.Sci.Let., 11, 592-594, (1992). 8. V.Blachou, C.Philippopoulos, Adsorption of Hexachloroplatinic Acid on ã-alumina Coatings for Preparation of Monolithic Structure Catalysts, Chem.Eng.Comm.,119, 41-53, (1993). 9. A.Psyllos, C.Philippopoulos, Performance of a monolithic Catalytic Converter Used in Automotive Emission Control: the Effect of a Longitudinal Parabolic Active Metal Distribution, Ind.Eng.Chem.Res., 32, 1555-1560, (1993). 10. A.Psyllos, C.Philippopoulos, Modelling of Monolithic Converters with Axial Catalyst Distribution, Appl.Math.Modelling,17, 459-467, (1993). 11. G.Lydatakis, C.Koufopanos, V.Kaloidas, C.Philippopoulos, Catalytic Conversion of Automotive Exhaust Gases, Tech. Chron., Section C, vol. 13, 3-4, 61-78, (1993), (in Greek). 12. V. Kyriacopoulou, A. Psyllos, C. Philippopoulos, Diffusional Effects and Intrinsic Kinetics for NO Reduction by CO over Pt-Rh /ã- Al 2 O 3 Monolithic Catalysts, Ind.Eng.Chem.Res., 33, 1699-1679, (1994).

13. A.Psyllos, N.Papayannakos,C.Philippopoulos, CO Oxidation in a Carberry Reactor: Manifestation of Reaction Kinetics by Controlled Reaction/Transport, J. Chem. Eng. Japan, 27, No 5, 693-695, (1994). 14. D. Svoronos, H. Grigoropoulou, C. Philippopoulos, The Effect of Pt/Al 2 O 3 Catalyst Preparation conditions upon its Activity on Nitric Oxide Reduction, Appl. Catalysis B, 5, 319-328, (1995). 15. V.Kaloidas,C.Koufopanos,C. Philippopoulos, BaO Addition for Stabilization of Automotive Catalysts, React. Kinet. & Cat. Let., 55 (1), 227-233, (1995) 16. A.Liapi, A. Psyllos, C. Philippopoulos, Monolithic Catalysts: Diffusional Mass Transfer of CO through γ-alumina Substrates under Reacting Conditions, Chem.Eng.Comm., 145, 22-32, (1996). 17. C. Philippopoulos, N. Gangas, N.Papayannakos, Catalytic Reduction of NO with CO over a Rh/Al-PILC Catalyst J.Mater.Sci.Let.,15(22), 1940-1943, (1996). 18. A. Strouvalis, H. Grigoropoulou, C.Philippopoulos, The influence of ph on the activity of Rh/γ-alumina catalysts, Chem. Biochem. Eng. Q, 11(2), 97-100,(1997). 19. J. Karafyllis, C. Philippopoulos, H. Grigoropoulou, Oxidation of Ethanol over CuO/g-Al 2 O 3 Catalyst: Influence of Oxygen Concentration on Acetaldehyde Yield, Chem. Biochem. Eng. Q, 11(3), 121-125,(1997). 20. H. Grigoropoulou and C. Philippopoulos, Homogeneous Oxidation of Phenols in Aqueous Solution with Hydrogen Peroxide and Ferric Ions, Wat. Sci. Tech., 36,(2-3), 151-154, (1997). 21. S.Morfis, C.Philippopoulos and N. Papayannakos, The Effect of Carrier on the Catalytic Activity of Rh/PILCs Catalysts for the Reaction of NO with CO, Applied Clay Science, 13, 203-212, (1998) 22. V. Tavlarides, S. Poulopoulos and C. Philippopoulos, MTBE Addition in Gasoline: The Effect on Automotive Exhaust Emissions, Tech. Chron. Sci. J. TCG, V, No 1-2, 17-28, (2000). In Greek 23. S. Poulopoulos and C. Philippopoulos, Influence of MTBE Addition in Gasoline on Automotive Exhaust Emissions, Atmos. Environ. 34, 4781-4786,(2000) 24. C.Liakopoulos, S. Poulopoulos and C. Philippopoulos, Kinetic Studies of Acetaldehyde Oxidation over Pt/Rh and Pd Monolithic Catalysts in a Spinning Basket Flow Reactor, Ind. Eng. Chem. Res., 40, 1476-1481, (2001)

25. S. Poulopoulos and C. Philippopoulos, Speciated hydrocarbon and carbon monoxide emissions from an internal combustion engine operating on methyl tertiary butyl ether containing fuels, J. Air & Waste Manage. Assoc., 51,174-185, (2001) 26. S. Poulopoulos, D. Samaras and C. Philippopoulos, Regulated and Speciated Hydrocarbon Emissions from a Catalyst Equipped Internal Combustion Engine, Atmos. Environ., 35, 4443-4450, (2001) 27. C. Nezi, S. Poulopoulos and C. Philippopoulos, MTBE catalytic oxidation over Pt/Rh and Pd monolithic exhaust catalysts: Intrinsic Kinetics studies in a spinning basket flow reactor, Ind. Eng. Chem. Res., 40/15, 3325-3330, (2001) 28. S. Poulopoulos, D. Samaras and C. Philippopoulos, Regulated and Unregulated Emissions from an Internal Combustion Engine Operating on Ethanol-containing Fuels, Atmos. Environ., 35, 4399-4406, (2001) 29. G. D. Papakonstantopoulos, G. P. Androutsopoulos and C. J. Philippopoulos Reaction selectivity in a porous catalyst pellet: analysis of a kinetic model of two parallel, first order, irreversible reactions with a second order inhibition kinetic term in one of them Chem.Eng.Sci., 56/18, 5413-5417, (2001) 30. S.G.Poulopoulos, H.P. Grigoropoulou and C.J. Philippopoulos, Acetaldehyde yield and reaction products in the catalytic destruction of gaseous ethanol, Catalysis Let., 78(1): 291-296,(2002). 31. O. Dovletoglou, C. Philippopoulos and H. Grigoropoulou, Coagulation for Treatment of Paint Industry, J.Environ.Sci.Health,Part A, 37(7), 1361-1377, (2002). 32. E. Galanos, S.G.Poulopoulos, and C.J. Philippopoulos, Photocatalytic Destruction of MTBE in the Gas Phase using Titanium Dioxide, J.Environ.Sci.Health,Part A, 37(9), 1665-1675, (2002). 33. K. Makrodimitris, G. Papadopoulos, C.J. Philippopoulos and D.N. Theodorou, Parallel tempering method for reconstructing isotropic and anisotropic porous media, J. Chem. Phys., 117, 5876-5884, (2002). 34. S.G.Poulopoulos, and C.J. Philippopoulos, The Effect of Adding Oxygenated Compounds to Gasoline on Automotive Exhaust Emissions, ASME Journal of Engineering for Gas Turbines and Power, 125(1), 344-350, (2003). 35. C.J. Philippopoulos and S.G.Poulopoulos, Photo-assisted Oxidation of an Oily Wastewater Using Hydrogen Peroxide, J. Hazard. Mater., 98 (1-3): 201-210, (2003). 36. C.Zerva, Z. Peschos, S.G.Poulopoulos and C.J. Philippopoulos, Treatment of Industrial Oily Wastewaters by Wet Oxidation,

J. Hazard. Mater., 97 (1-3): 257-265, (2003). 37. D. Mamma, S. Gerontas, C. Philippopoulos, P. Christakopoulos, B. Makris and D. Kekos, Combined photo-assisted and biological treatment of industrial oily wastewater, J.Environ.Sci.Health,Part A, 39(3), 729-740, (2004). 38. S. Poulopoulos and C.Philippopoulos, Photo-assisted oxidation of chlorophenol in aqueous solutions using hydrogen peroxide and titanium dioxide, J.Environ.Sci.Health,Part A, 39(6), 1385-1397, (2004). 39. S.Poulopoulos and C.Philippopoulos, MTBE Methane, Ethylene and Regulated Exhaust Emissions from Vehicles with Deactivated Catalytic Converters, Atmos. Environ., 38, 4495-4500, (2004). 40. M. K. Krokida and C. Philippopoulos, Rehydration of dehydrated foods, Drying Technology, Special issue, 23 (4), 799-830, (2005). 41. S. G. Poulopoulos, E. C. Voutsas, H. P. Grigoropoulou, C. J. Philippopoulos, Air Stripping as a Pretreatment Process of Industrial Oily Wastewater, J. Hazard. Mater., 117, 135-139, (2005). 42. M.D. Nikolaki, A.G. Oreopoulou, C.J. Philippopoulos, Photo-Fenton assisted reaction of dimethoate in aqueous solutions, J.Environ.Sci.Health,Part Β, 40(2), 233-246, (2005). 43. M. K. Krokida and C. Philippopoulos, Volatiles of apple during air and freeze drying, Journal of Food Engineering, 73(2), 135-141, (2006). 44. S. G. Poulopoulos, F. Arvanitakis, C. J. Philippopoulos, Photochemical treatment of phenol aqueous solutions using ultraviolet radiation and hydrogen peroxide, J. Hazard. Mater., 129 (1-3), 64-68, (2006). 45. E. Zervas, S. G. Poulopoulos, C. J. Philippopoulos, Formation of Oxygenated Compounds from Isooctane Flames, FUEL, 85, 333-339, (2006). 46. C. Zerva and C. Philippopoulos, Ceria Catalysts for Water Gas Shift Reaction: Influence of Preparation Method on their Activity, Appl. Catalysis B, 67, 105-112, (2006) 47. M.D. Nikolaki, D. Malamis, S.G. Poulopoulos and C.J. Philippopoulos, Photocatalytical degradation of 1,3-dichloro-2-propanol aqueous solutions by using an immobilized TiO 2 photoreactor J. Hazard. Mater., 137, 1189-1196, (2006). 48. E.Zervas, S. Poulopoulos and C. Philippopoulos, CO 2 emissions change from the introduction of diesel passenger cars: Case of Greece Energy, 31 (14), 2915-2925, (2006)

49. S.G. Poulopoulos, C.A. Korologos, A. Boulamanti and C. J. Philippopoulos, Treatment of 2-chlorophenol aqueous solutions by wet oxidation, Water Research, 41 [6),1263-1268, (2007) 50. M.D. Nikolaki and C.J. Philippopoulos, Photochemical degradation of 1,3-dichloro-2-propanol aqueous solutions, J. Hazard. Mater., 146/3, 674-679,(2007). 51. S.G. Poulopoulos, M.D. Nikolaki, D. Karampetsos and C.J. Philippopoulos, Photochemical treatment of 2-chlorophenol aqueous solutions using ultraviolet radiation, hydrogen peroxide and photo-fenton reaction J. Hazard. Mater., 153/1-2, 582-587, (2008). 52. A. Boulamanti and C. J. Philippopoulos, Photocatalytic degradation of methyl tert-butyl ether in the gas phase: a kinetic study, J. Hazard. Mater., 160, 83-87, (2008). 53. E. Zervas,S.Poulopoulos S, C.Philippopoulos, CO2 control by means of the increased penetration of diesel passenger cars in Finland, GLOBAL NEST JOURNAL, 10 (2): 174-182, (2008) 54. O. Katsanou, E. Zervas,S.Poulopoulos S, C.Philippopoulos, Photocatalytic oxidation of TCE and MTBE in the gas phase, GLOBAL NEST JOURNAL, 10 (2): 237-240, (2008) 55. A. Boulamanti, C. Korologos, C. Philippopoulos, The rate of photocatalytic oxidation of aromatic volatile organic compounds in the gas-phase, Atmos. Environ., 42(34), 7844-7850, (2008) 56. M.D. Nikolaki, C.N. Zerva and C.J. Philippopoulos, Photocatalytic oxidation of 1,3-dichloro-2-propanol aqueous solutions with modified TiO 2 catalysts, Appl. Catalysis B, 90(1-2), 89-98, (2009) 57. A. Boulamanti and C. Philippopoulos, Photocatalytic degradation of C5 - C7 alkanes in the gas - phase, Atmos. Environ., 43, 3168-3174, (2009)