456
26. Scotti G, Franssila S (2014) A micro heat exchanger microfabricated from bulk aluminium. J
Phys Conf Ser 557:012069
27. Yang C-Y, Yeh C-T, Liu W-C, Yang B-C (2007) Advanced micro-heat exchangers for high heat
flux. Heat Transf Eng 28:788–794
28. Roydhouse MD et al (2014) Operating ranges of gas–liquid capillary microseparators: experiments and theory. Chem Eng Sci 114:30–39
29. Breeze P (2016) Chapter 8 - Microturbines. In: Breeze P (ed) Gas-turbine power generation.
Academic Press, Boston, pp 77–82
30. Zhao S, Nagineni VS, Seetala NV, Kuila D (2008) Microreactors for syngas conversion to
higher alkanes: effect of ruthenium on silica-supported iron−cobalt nanocatalysts. Ind Eng
Chem Res 47:1684–1688
31. Mehta S, Deshmane V, Zhao S, Kuila D (2014) Comparative studies of silica-encapsulated iron,
cobalt, and ruthenium nanocatalysts for Fischer–Tropsch synthesis in silicon- microchannel
microreactors. Ind Eng Chem Res 53:16245–16253
32. Basha O, Gamwo I, Morsi B, Siefert N (2017) Computational fluid dynamics modeling and
optimization of absorber design for pre-combustion CO2 capture. In: 34th Annual international pittsburgh coal conference, Pittsburgh
33. Basha OM, Morsi BI (2018) CFD for the design and optimization of slurry bubble column
reactors. In: Computational fluid dynamics-basic instruments and applications in science.
InTech, Rijeka
34. Basha Omar M, Weng L, Men Z, Badie IM (2016) CFD Modeling with Experimental
Validation of the Internal Hydrodynamics in a Pilot-Scale Slurry Bubble Column Reactor. Int
J Chem React Eng 14:599
35. Shaker M, Ghaedamini H, Sasmito AP, Kurnia JC, Jangam SV, Mujumdar AS (2012) Numerical
investigation of laminar mass transport enhancement in heterogeneous gaseous microreactors.
Chem Eng Process Process Intens 54:1–11
36. Perego C, Bortolo R, Zennaro R (2009) Gas to liquids technologies for natural gas reserves
valorization: the Eni experience. Catal Today 142:9–16
37. Wang L, Wu B, Li Y (2011) Effects of Ru and cu promoters on Fischer-Tropsch synthesis over
Fe-based catalysts. Chin J Catal 32:495–501
38. Taghavi S, Tavasoli A, Asghari A, Signoretto M (2019) Loading and promoter effects on
the performance of nitrogen functionalized graphene nanosheets supported cobalt FischerTropsch synthesis catalysts. Int J Hydrogen Energy 44:10604–10615
39. Phienluphon R et al (2014) Ruthenium promoted cobalt catalysts prepared by an autocombustion method directly used for Fischer–Tropsch synthesis without further reduction. Catal Sci
Technol 4(9):3099–3107. https://doi.org/10.1039/C4CY00402G
40. Olesen SE, Andersson KJ, Damsgaard CD, Chorkendorff I (2017) Deactivating carbon formation on a Ni/Al2O3 catalyst under methanation conditions. J Phys Chem C
121(29):15556–15564
41. Fajín JLC, Gomes JRB, Cordeiro MNDS (2015) Mechanistic study of carbon monoxide
methanation over pure and rhodium- or ruthenium-doped nickel catalysts. J Phys Chem C
119(29):16537–16551
42. Vora BV, Marker T, Arnold EC, Nilsen H, Kvisle S, Fuglerud T (1998) Conversion of natural
gas to ethylene and propylene: the most-profitable option. In: Parmaliana A, Sanfilippo D,
Frusteri F, Vaccari A, Arena F (eds) Studies in surface science and catalysis, vol 119. Elsevier,
Amsterdam, pp 955–960
43. Lappas A, Heracleous E (2016) 18 - Production of biofuels via Fischer–Tropsch synthesis:
biomass-to-liquids. In: Luque R, Lin CSK, Wilson K, Clark J (eds) Handbook of biofuels
production, 2nd edn. Woodhead Publishing, Sawston, pp 549–593
44. Bartholomew CH, Farrauto RJ (2011) Fundamentals of Industrial Catalytic Processes. Wiley,
Chichester
N. Mohammad et al.
26. Scotti G, Franssila S (2014) A micro heat exchanger microfabricated from bulk aluminium. J
Phys Conf Ser 557:012069
27. Yang C-Y, Yeh C-T, Liu W-C, Yang B-C (2007) Advanced micro-heat exchangers for high heat
flux. Heat Transf Eng 28:788–794
28. Roydhouse MD et al (2014) Operating ranges of gas–liquid capillary microseparators: experiments and theory. Chem Eng Sci 114:30–39
29. Breeze P (2016) Chapter 8 - Microturbines. In: Breeze P (ed) Gas-turbine power generation.
Academic Press, Boston, pp 77–82
30. Zhao S, Nagineni VS, Seetala NV, Kuila D (2008) Microreactors for syngas conversion to
higher alkanes: effect of ruthenium on silica-supported iron−cobalt nanocatalysts. Ind Eng
Chem Res 47:1684–1688
31. Mehta S, Deshmane V, Zhao S, Kuila D (2014) Comparative studies of silica-encapsulated iron,
cobalt, and ruthenium nanocatalysts for Fischer–Tropsch synthesis in silicon- microchannel
microreactors. Ind Eng Chem Res 53:16245–16253
32. Basha O, Gamwo I, Morsi B, Siefert N (2017) Computational fluid dynamics modeling and
optimization of absorber design for pre-combustion CO2 capture. In: 34th Annual international pittsburgh coal conference, Pittsburgh
33. Basha OM, Morsi BI (2018) CFD for the design and optimization of slurry bubble column
reactors. In: Computational fluid dynamics-basic instruments and applications in science.
InTech, Rijeka
34. Basha Omar M, Weng L, Men Z, Badie IM (2016) CFD Modeling with Experimental
Validation of the Internal Hydrodynamics in a Pilot-Scale Slurry Bubble Column Reactor. Int
J Chem React Eng 14:599
35. Shaker M, Ghaedamini H, Sasmito AP, Kurnia JC, Jangam SV, Mujumdar AS (2012) Numerical
investigation of laminar mass transport enhancement in heterogeneous gaseous microreactors.
Chem Eng Process Process Intens 54:1–11
36. Perego C, Bortolo R, Zennaro R (2009) Gas to liquids technologies for natural gas reserves
valorization: the Eni experience. Catal Today 142:9–16
37. Wang L, Wu B, Li Y (2011) Effects of Ru and cu promoters on Fischer-Tropsch synthesis over
Fe-based catalysts. Chin J Catal 32:495–501
38. Taghavi S, Tavasoli A, Asghari A, Signoretto M (2019) Loading and promoter effects on
the performance of nitrogen functionalized graphene nanosheets supported cobalt FischerTropsch synthesis catalysts. Int J Hydrogen Energy 44:10604–10615
39. Phienluphon R et al (2014) Ruthenium promoted cobalt catalysts prepared by an autocombustion method directly used for Fischer–Tropsch synthesis without further reduction. Catal Sci
Technol 4(9):3099–3107. https://doi.org/10.1039/C4CY00402G
40. Olesen SE, Andersson KJ, Damsgaard CD, Chorkendorff I (2017) Deactivating carbon formation on a Ni/Al2O3 catalyst under methanation conditions. J Phys Chem C
121(29):15556–15564
41. Fajín JLC, Gomes JRB, Cordeiro MNDS (2015) Mechanistic study of carbon monoxide
methanation over pure and rhodium- or ruthenium-doped nickel catalysts. J Phys Chem C
119(29):16537–16551
42. Vora BV, Marker T, Arnold EC, Nilsen H, Kvisle S, Fuglerud T (1998) Conversion of natural
gas to ethylene and propylene: the most-profitable option. In: Parmaliana A, Sanfilippo D,
Frusteri F, Vaccari A, Arena F (eds) Studies in surface science and catalysis, vol 119. Elsevier,
Amsterdam, pp 955–960
43. Lappas A, Heracleous E (2016) 18 - Production of biofuels via Fischer–Tropsch synthesis:
biomass-to-liquids. In: Luque R, Lin CSK, Wilson K, Clark J (eds) Handbook of biofuels
production, 2nd edn. Woodhead Publishing, Sawston, pp 549–593
44. Bartholomew CH, Farrauto RJ (2011) Fundamentals of Industrial Catalytic Processes. Wiley,
Chichester
N. Mohammad et al.