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[70] C. Niamnuy, P. Prapaitrakul, N. Panchan, A. Seubsai, T. Witoon,
S. Devahastin, M. Chareonpanich. 2020. Synthesis of dimethyl ether via
CO hydrogenation: effect of the drying technique of alumina on
2
properties and performance of alumina-supported copper catalysts.
ACS Omega. 5(5):2334–2344.
[71] T. Witoon, T. Numpilai, N. Dolsiririttigul, N. Chanlek, Y. Poo-arporn,

C.K., Cheng, B.V. Ayodele, M. Chareonpanich, J. Limtrakul. 2022.
Enhanced activity and stability of SO42−/ZrO2 by addition of Cu
combined with CuZnOZrO for direct synthesis of dimethyl ether from
2
CO hydrogenation. Int. J. Hydrog. Energy. 47(98): 41374–41385.
2
[72] W. Donphai, T. Witoon, K. Faungnawakij, M. Chareonpanich. 2016.
Carbon-structure affecting catalytic carbon dioxide reforming of

methane reaction over Ni-carbon composites. J. CO2 Util. 16: 245–256.

[73] P. Phanawadee, K. Laipraseard, G.S. Yablonsky, D. Constales,
W. Jamroonrote, P. Jaipet. 2017. Estimation of the remaining lifetime
of deactivated catalyst via the spatial average catalyst activity
illustrated by the water–gas shift and steam methane reforming
processes. React. Kinet. Mech. Catal. 121(2): 371–385.

[74] T. Chompupun, S. Limtrakul, T. Vatanatham, C. Kanhari,

P.A. Ramachandran. 2018. Experiments, modeling and scaling-up of
membrane reactors for hydrogen production via steam methane
reforming. Chem. Eng. Process.: Process Intensif. 134:124–140.

[75] J. Chaisamphao, S. Kiatphuengporn, K. Faungnawakij, W. Donphai,
M. Chareonpanich. 2021. Effect of modified nanoclay surface supported

nickel catalyst on carbon dioxide reforming of methane. Top. Catal.
64(5–6): 431–445.

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