DAVOOD IRANSHAHI - Amirkabir University of Technology

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Amirkabir University of Technology

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DAVOOD IRANSHAHI

Associate Professor
Department of Chemical Engineering
Thermokinetics & Transport Phenomena

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Email:

iranshahi

aut.ac.ir

Phone:

+98 21 64543189

h-index (Scopus):

24.00

Citations (Scopus):

2152

Journal Papers

, "76. Rahimpour, M.R., M. Jafari, and D. Iranshahi, Progress in catalytic naphtha reforming process: A review. Applied Energy, 2013. 109(0): p. 79–93.", , vol. , no. , p., .

, "90. Iranshahi, D., et al., Utilizing DE optimization approach to boost hydrogen and octane number in a novel radial-flow assisted membrane naphtha reactor. Chemical Engineering Science, 2012. 68(1): p. 236–249.", , vol. , no. , p., .

, "77. Jafari, M., et al., Combining continuous catalytic regenerative naphtha reformer with thermally coupled concept for improving the process yield. International Journal of Hydrogen Energy, 2013. 38(25): p. 10327–10344.", , vol. , no. , p., .

, "78. Iranshahi, D., et al., Utilizing DE optimization approach to boost hydrogen and octane number, through a combination of radial-flow spherical and tubular membrane reactors in catalytic naphtha reformers. Fuel, 2013. 111(0): p. 1–11.", , vol. , no. , p., .

, "79. Iranshahi, D., et al., Applying new kinetic and deactivation models in simulation of a novel thermally coupled reactor in continuous catalytic regenerative naphtha process. Chemical Engineering Journal, 2013. 229(0): p. 153–176.", , vol. , no. , p., .

, "91. Iranshahi, D., et al., A novel dynamic membrane reactor concept with radial-flow pattern for reacting material and axial-flow pattern for sweeping gas in catalytic naphtha reformers. AIChE Journal, 2012. 58(4): p. 1230–1247.", , vol. , no. , p., .

, "81. Iranshahi, D., et al., Modeling and Simulation of a Novel Membrane Reactor in Continuous Catalytic Regenerative (CCR) Naphtha Reformer Accompanied with Detailed Description of Kinetic. Energy & Fuels, 2013. 27(7): p. 4048−4070.", , vol. , no. , p., .

, "82. Amirabadi, S., et al., Differential Evolution Strategy for Optimization of Hydrogen Production via Coupling of Methylcyclohexane Dehydrogenation Reaction and Methanol Synthesis Process in a Thermally Coupled Double Membrane Reactor. Industrial and Engineering Chemistry Research, 2013. 53: p. 1508−1522.", , vol. , no. , p., .

, "83. Rahimpour, M.R., et al., Boosting the gasoline octane number in thermally coupled naphtha reforming heat exchanger reactor using de optimization technique. Fuel, 2012. 97(Supplement C): p. 109–118.", , vol. , no. , p., .

, "84. Rahimpour, M.R., et al., Enhancement in research octane number and hydrogen production via dynamic optimization of a novel spherical axial-flow membrane Naphtha reformer. Industrial and Engineering Chemistry Research, 2012. 51(1): p. 398–409.", , vol. , no. , p., .

, "85. Rahimpour, M.R., et al., Assessment and comparison of different catalytic coupling exothermic and endothermic reactions: A review. Applied Energy, 2012. 99(0): p. 496–512.", , vol. , no. , p., .

, "86. Rahimpour, M.R., et al., Utilization of cyclohexanol dehydrogenation in a novel thermally coupled reactor for Fischer–Tropsch synthesis in gas to liquid technology. Journal of Natural Gas Science and Engineering, 2012. 9(0): p. 138–14", , vol. , no. , p., .

, "87. Rafiei, R., et al., Decalin Loop in an Optimized Thermally Coupled Dual Methanol Reactor Using Differential Evolution (DE) Strategy. Energy & Fuels, 2012. 26(9): p. 5858–5871.", , vol. , no. , p., .

, "88. Pourazadi, E., et al., Optimal design of a thermally coupled fluidised bed heat exchanger reactor for hydrogen production and octane improvement in the catalytic naphtha reformers. Canadian Journal of Chemical Engineering, 2012. 91(1): p. 54–65.", , vol. , no. , p., .

, "89. Pourazadi, E., et al., Incorporating multi-membrane tubes for simultaneous management of H2/HC and hydrogenation of nitrobenzene to aniline in naphtha heat exchanger reactor. Chemical Engineering Journal, 2012. 184: p. 286–297.", , vol. , no. , p., .

, "92. Iranshahi, D., et al., Hydrogen and octane boosting through a novel configuration consists of isothermal and membrane naphtha reforming reactors- A comparative study. Petroleum and Coal, 2012. 54(2): p. 157–173.", , vol. , no. , p., .

, "93. Iranshahi, D., et al., A comparative study on optimised and non-optimised axial flow, spherical reactors in naphtha reforming process. Canadian Journal of Chemical Engineering, 2012. 90(5): p. 1102–1111.", , vol. , no. , p., .

, "94. Gooshehneshin, A., et al., Simultaneous production and utilization of methanol for methyl formate synthesis in a looped heat exchanger reactor configuration. Journal of Natural Gas Chemistry, 2012. 21(6): p. 661–672.", , vol. , no. , p., .

, "95. Arabpour, M., et al., Evaluation of maximum gasoline production of Fischer-Tropsch synthesis reactions in GTL technology: a discretized approach. Journal of Natural Gas Science & Engineering, 2012. 9(0): p. 209–219.", , vol. , no. , p., .

, "96. Vakili, R., et al., Utilizing differential evolution (DE) technique to optimize operating conditions of an integrated thermally coupled direct DME synthesis reactor. Chemical Engineering Journal, 2011. 168(1): p. 321–332.", , vol. , no. , p., .

, "97. Rahimpour, M.R., et al., A novel integrated, thermally coupled fluidized bed configuration for catalytic naphtha reforming to enhance aromatic and hydrogen productions in refineries. International Journal of Hydrogen Energy, 2011. 36(4): p. 2979–2991.", , vol. , no. , p., .

, "98. Rahimpour, M.R., et al., Enhancement of hydrogen production via coupling of MCH dehydrogenation reaction and methanol synthesis process by using thermally coupled heat exchanger reactor. International Journal of Hydrogen Energy, 2011. 36(5): p. 3371–3383.", , vol. , no. , p., .

, "99. Rahimpour, M.R., et al., Methanol synthesis in a novel axial-flow, spherical packed bed reactor in the presence of catalyst deactivation. Chemical Engineering Research and Design, 2011. 89(11): p. 2457–2469.", , vol. , no. , p., .

, "100. Rahimpour, M.R., et al., The aromatic enhancement in the axial-flow spherical packed-bed membrane naphtha reformers in the presence of catalyst deactivation. AIChE Journal, 2011. 57(11): p. 3182–3198.", , vol. , no. , p., .

, "101. Rahimpour, M.R., et al., Evaluation of optimum design parameters and operating conditions of axial- and radial-flow tubular naphtha reforming reactors, using the differential evolution method, considering catalyst deactivation. Energy and Fuels, 2011. 25(2): p. 762–772.", , vol. , no. , p., .

, "102. Rahimpour, M.R., et al., A comparative study on a novel combination of spherical and membrane tubular reactors of the catalytic naphtha reforming process. International Journal of Hydrogen Energy, 2011. 36(1): p. 505–517.", , vol. , no. , p., .

, "103. Meidanshahi, V., et al., Theoretical investigation of aromatics production enhancement in thermal coupling of naphtha reforming and hydrodealkylation of toluene. Chemical Engineering and Processing: Process Intensification, 2011. 50(9): p. 893–903.", , vol. , no. , p., .

, "104. Iranshahi, D., et al., A dynamic membrane reactor concept for naphtha reforming, considering radial-flow patterns for both sweeping gas and reacting materials. Chemical Engineering Journal, 2011. 178: p. 264–275.", , vol. , no. , p., .

, "105. Iranshahi, D., et al., Enhancement of aromatic production in naphtha reforming process by simultaneous operation of isothermal and adiabatic reactors. International Journal of Hydrogen Energy, 2011. 36(3): p. 2076–2085.", , vol. , no. , p., .

, "106. Iranshahi, D., et al., A comparison of two different flow types on performance of a thermally coupled recuperative reactor containing naphtha reforming process and hydrogenation of nitrobenzene. International Journal of Hydrogen Energy, 2011. 36(5): p. 3483–3495.", , vol. , no. , p., .

, "107. Iranshahi, D., et al., Simultaneous hydrogen and aromatics enhancement by obtaining optimum temperature profile and hydrogen removal in naphtha reforming process; A novel theoretical study. International Journal of Hydrogen Energy, 2011. 36(14): p. 8316–8326.", , vol. , no. , p., .

, "108. Rahimpour, M.R., D. Iranshahi, and A.M. Bahmanpour, Dynamic optimization of a multi-stage spherical, radial flow reactor for the naphtha reforming process in the presence of catalyst deactivation using differential evolution (DE) method. International Journal of Hydrogen Energy, 2010. 35(14): p. 7498–7511.", , vol. , no. , p., .

, "109. Iranshahi, D., M.R. Rahimpour, and A. Asgari, A novel dynamic radial-flow, spherical-bed reactor concept for naphtha reforming in the presence of catalyst deactivation. International Journal of Hydrogen Energy, 2010. 35(12): p. 6261–6275.", , vol. , no. , p., .

, "110. Iranshahi, D., et al., Modeling of an axial flow, spherical packed-bed reactor for naphtha reforming process in the presence of the catalyst deactivation. International Journal of Hydrogen Energy, 2010. 35(23): p. 12784–12799.", , vol. , no. , p., .

, "111. Iranshahi, D., et al., Mathematical modeling of a multi-stage naphtha reforming process using novel thermally coupled recuperative reactors to enhance aromatic production. International Journal of Hydrogen Energy, 2010. 35(20): p. 10984–10993.", , vol. , no. , p., .