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  2023 (4)
Increasing CO2 gasification rates of longan-seed char by a technique of char pre-oxidation. Lawtae, P.; Tangsathitkulchai, C.; Phothong, K.; and Wongkoblap, A. Bioresource Technology Reports, 23: 101525. 2023.
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Analysis of gas adsorption and pore development of microporous-mesoporous activated carbon based on GCMC simulation and a surface defect model. Lawtae, P.; Phothong, K.; Tangsathitkulchai, C.; and Wongkoblap, A. Journal of Porous Materials,1–17. 2023.
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The Enhancement of CO2 and CH4 Capture on Activated Carbon with Different Degrees of Burn-Off and Surface Chemistry. Inthawong, S.; Wongkoblap, A.; Intomya, W.; and Tangsathitkulchai, C. Molecules, 28(14): 5433. 2023.
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Nickel effects on carbon dioxide and methane adsorptions on porous glass: experimental and monte carlo simulation studies. Kohmuean, P.; Inthawong, S.; and Wongkoblap, A. Adsorption,1–15. 2023.
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  2021 (2)
Monte Carlo simulation and experimental studies of CO2, CH4 and their mixture capture in porous carbons. Kohmuean, P.; Inthomya, W.; Wongkoblap, A.; and Tangsathitkulchai, C. Molecules, 26(9): 2413. 2021.
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Equilibrium and kinetics of CO2 adsorption by coconut shell activated carbon impregnated with sodium hydroxide. Tangsathitkulchai, C.; Naksusuk, S.; Wongkoblap, A.; Phadungbut, P.; and Borisut, P. Processes, 9(2): 201. 2021.
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  2020 (2)
Carbon Dioxide Capture in Homogeneous and Heterogeneous Surfaces of Porous Silica Glass. Boonfung, C.; Tangsathitkulchai, C.; and Wongkoblap, A. Processes, 8(10): 1260. 2020.
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Biogas production from cassava waste: effect of concentration. Kohmuean, P; Boonrod, N; and Wongkoblap, A In IOP conference series: materials science and engineering, volume 778, pages 012115, 2020. IOP Publishing
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  2019 (1)
Computer Simulation Study for Functional Group Effect on Methane Adsorption in Porous Silica Glass. Teerachawanwong, P.; Makkaroon, B.; Boonfung, C.; Tangsathitkulchai, C.; and Wongkoblap, A. Engineering Journal, 23(5): 197–204. 2019.
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  2018 (2)
Study for Adsorption of Gas Mixture in Activated Carbon by Grand Canonical Monte Carlo Simulation. Phothong, K.; Janseedar, C.; Tangsathitkulchai, C.; and Wongkoblap, A. วารสาร วิชาการ พระจอมเกล้า พระนครเหนือ, 28(2): 333–340. 2018.
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Effects of Functional Group and Surface Roughness on Adsorption of Carbon Dioxide in Porous Glass by Grand Canonical Monte Carlo Simulation Study. Boonfung, C.; Ketprasoet, N.; Tangsathitkulchai, C.; and Wongkoblap, A. วารสาร วิชาการ พระจอมเกล้า พระนครเหนือ, 28(1): 113–121. 2018.
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  2016 (1)
Computer simulation study for methane and hydrogen adsorption on activated carbon based catalyst. Sriling, P; Wongkoblap, A; and Tangsathitkulchai, C Adsorption, 22: 707–715. 2016.
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  2013 (2)
Heavy metal removal from aqueous solution by using bentonite clay and activated carbon. Wongkoblap, A.; Ngernyen, Y.; Budsaereechai, S.; and Charoenbood, A. In Chemeca 2013: Challenging Tomorrow, pages 689–694. Engineers Australia Barton, ACT, 2013.
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Characterization of single wall carbon nanotubes and activated carbon with water adsorption in finite-length pore models. Wongkoblap, A.; Tangsathitkulchai, C.; Klomkliang, N.; Do, D. D; and Ngernyen, Y. Engineering Journal, 17(4): 93–110. 2013.
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  2012 (2)
Multilayer adsorption of benzene on graphitised thermal carbon black—The importance of quadrupole and explicit hydrogen in the potential model. Klomkliang, N.; Do, D.; Nicholson, D; Tangsathitkulchai, C; and Wongkoblap, A Chemical engineering science, 69(1): 472–482. 2012.
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Simulation Study for Adsorption of Carbon Dioxide and Methane in Carbon-nanotubes. Phadungbut, P; Julklang, W; Sriling, P; Intomya, W; Wongkoblap, A; and Tangsathitkulchai, C Engineering Transactions: A Research Publication of Mahanakorn University of Technology, 15(2): 72–77. 2012.
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  2011 (1)
A critical assessment of capillary condensation and evaporation equations: A computer simulation study. Wongkoblap, A; Do, D.; Birkett, G; and Nicholson, D Journal of colloid and interface science, 356(2): 672–680. 2011.
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  2010 (2)
The role of accessibility in the characterization of porous solids and their adsorption properties. Do, D.; Herrera, L; Fan, C.; Wongkoblap, A; and Nicholson, D Adsorption, 16: 3–15. 2010.
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Pore size distribution of carbon with different probe molecules. Wongkoblap, A.; Intomya, W.; Somrup, W.; Charoensuk, S.; Junpirom, S.; and Tangsathitkulchai, C. Engineering Journal, 14(3): 45–56. 2010.
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  2009 (1)
Adsorption of polar and non-polar fluids in carbon nanotube bundles: Computer simulation and experimental studies. Wongkoblap, A; Do, D.; and Wang, K Journal of colloid and interface science, 331(1): 65–76. 2009.
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  2008 (7)
Adsorption of polar and nonpolar fluids in finite-length carbon slit pore: a Monte Carlo simulation study. Wongkoblap, A.; and Do, D. D Chemical Engineering Communications, 195(11): 1382–1395. 2008.
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The effects of curvature and surface heterogeneity on the adsorption of water in finite length carbon nanopores: a computer simulation study. Wongkoblap, A; and Do, D. Molecular Physics, 106(5): 627–641. 2008.
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WATER IN CARBON NANOTUBES'. WONGKOBLAP, A.; and DO, D. D In Nanoporous Materials: Proceedings of the 5th International Symposium, Vancouver, Canada, 25-28 May 2008, pages 407, 2008. World Scientific
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Henry constant and isosteric heat at zero-loading for gas adsorption in carbon nanotubes. Do, D.; Do, H.; Wongkoblap, A; and Nicholson, D Physical Chemistry Chemical Physics, 10(48): 7293–7303. 2008.
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Explanation of the unusual peak of calorimetric heat in the adsorption of nitrogen, argon and methane on graphitized thermal carbon black. Wongkoblap, A.; Do, D. D; and Nicholson, D. Physical Chemistry Chemical Physics, 10(8): 1106–1113. 2008.
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Adsorption of Fluids in Finite Sized Carbon Pores with Functional Groups. Wongkoblap, A. . 2008.
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COMPUTER SIMULATION STUDY IN ADSORPTION OF WATER IN CARBON NANOTUBES. WONGKOBLAP, A.; and DO, D. D In Nanoporous Materials, pages 407–422. World Scientific, 2008.
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  2007 (2)
Characterization of Cabot non-graphitized carbon blacks with a defective surface model: Adsorption of argon and nitrogen. Wongkoblap, A; and Do, D. Carbon, 45(7): 1527–1534. 2007.
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Adsorption of water in finite length carbon slit pore: comparison between computer simulation and experiment. Wongkoblap, A.; and Do, D. D The Journal of Physical Chemistry B, 111(50): 13949–13956. 2007.
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  2006 (4)
Graphical Contents. Wongkoblap, A; Do, D.; Cestari, A. R; Vieira, E. F.; Silva, E. S; Chiem, L. T; Le Huynh, J. R.; and Beattie, D. A Journal of Colloid and Interface Science, 297: 22. 2006.
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The effects of energy sites on adsorption of Lennard–Jones fluids and phase transition in carbon slit pore of finite length a computer simulation study. Wongkoblap, A; and Do, D. Journal of colloid and interface science, 297(1): 1–9. 2006.
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Effects of graphene layer size on the adsorption of fluids on graphitized thermal carbon black. A Computer simulation study. Luangkiattikhun, P; Wongkoblap, A; and Do, D. Adsorption Science & Technology, 24(3): 193–204. 2006.
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Effect of pore constriction on adsorption behaviour in nanoporous carbon slit pore: a computer simulation. Wongkoblap, A; and Do, D. Molecular Simulation, 32(7): 539–549. 2006.
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  2005 (1)
Adsorption of Lennard-Jones fluids in carbon slit pores of a finite length. A computer simulation study. Wongkoblap, A; Junpirom, S; and Do, D. Adsorption Science & Technology, 23(1): 1–18. 2005.
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  undefined (2)
Invited Contribution Adsorption of Lennard-Jones Fluids in Carbon Slit Pores of a Finite Length. A Computer Simulation Study. Wongkoblap, A; Junpirom, S; and Do, D. . .
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A Computer Simulation Study for the Gas Hydrate Nucleation in the Bulk and the Confined Space of Pores. Wongkoblap, A.; and Do, D. . .
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