참고문헌 (40)

1. Crabtree RH . Hydrogen storage in liquid organic heterocycles . Energ Environ Sci . 2008 ; 1 ( 1 ): 134 ‐ 138 . 

2. Preuster P , Papp C , Wasserscheid P . Liquid organic hydrogen carriers (LOHCs): toward a hydrogen‐free hydrogen economy . Account Chem Res . 2017 ; 50 ( 1 ): 74 ‐ 85 . 

3. Niermann M , Timmerberg S , Drünert S , Kaltschmitt M . Liquid organic hydrogen carriers and alternatives for international transport of renewable hydrogen . Renew Sustain Energy Rev . 2021 ; 135 : 110171 . 

4. Modisha PM , Ouma CN , Garidzirai R , Wasserscheid P , Bessarabov D . The prospect of hydrogen storage using liquid organic hydrogen carriers . Energy Fuels . 2019 ; 33 ( 4 ): 2778 ‐ 2796 . 

   상세보기

5. Barelli L , Bidini G , Gallorini F , Servili S . Hydrogen production through sorption‐enhanced steam methane reforming and membrane technology: a review . Energy . 2008 ; 33 ( 4 ): 554 ‐ 570 . 

6. Tran A , Aguirre A , Durand H , Crose M , Christofides PD . CFD modeling of a industrial‐scale steam methane reforming furnace . Chem Eng Sci . 2017 ; 171 : 576 ‐ 598 . 

   상세보기

7. Hong SK , Dong SK , Han JO , Lee JS , Lee YC . Numerical study of effect of operating and design parameters for design of steam reforming reactor . Energy . 2013 ; 61 : 410 ‐ 418 . 

8. Lee S , Bae J , Lim S , Park J . Improved configuration of supported nickel catalysts in a steam reformer for effective hydrogen production from methane . J Power Sources . 2008 ; 180 ( 1 ): 506 ‐ 515 . 

   상세보기

9. Lao L , Aguirre A , Tran A , Wu Z , Durand H , Christofidesa PD . CFD modeling and control of a steam methane reforming reactor . Chem Eng Sci . 2016 ; 148 : 78 ‐ 92 . 

   상세보기

10. Tran A , Aguirre A , Crose M , Durand H , Christofides PD . Temperature balancing in steam methane reforming furnace via an integrated CFD/data‐based optimization approach . Comput Chem Eng. 2017 ; 104 : 185 ‐ 200 . 

    상세보기

11. Kumar A , Baldea M , Edgar TF . A physics‐based model for industrial steam‐methane reformer optimization with non‐uniform temperature field . ComputChemEng . 2017 ; 105 : 224 ‐ 236 . 

    상세보기

12. Förster T , Voloshchuk Y , Richter A , Meyer B . 3D numerical study of the performance of different burner concepts for the high‐pressure non‐catalytic natural gas reforming based on the Freiberg semi‐industrial test facility HP POX . Fuel . 2017 ; 203 : 954 ‐ 963 . 

13. Ngo SI , Lim YI , Kim W , Seo DJ , Yoon WL . Computational fluid dynamics and experimental validation of a compact steam methane reformer for hydrogen production from natural gas . Appl Energ . 2019 ; 236 : 340 ‐ 353 . 

14. Nguyen DD , Ngo SI , Lim YI , et al. Optimal design of a sleeve‐type steam methane reforming reactor for hydrogen production from natural gas . Int J Hydrogen Energy . 2019 ; 44 ( 3 ): 1973 ‐ 1987 . 

    상세보기

15. Pashchenko D . Experimental investigation of synthesis gas production by methane reforming with flue gas over a NiO‐Al 2 O 3 catalyst: reforming characteristics and pressure drop . Int J Hydrogen Energy . 2019 ; 44 ( 14 ): 7073 ‐ 7082 . 

    상세보기

16. Pashchenko D . Numerical study of steam methane reforming over a pre‐heated Ni‐based catalyst with detailed fluid dynamics . Fuel . 2019 ; 236 : 686 ‐ 694 . 

    상세보기

17. Pashchenko D . Comparative analysis of hydrogen/air combustion CFD‐modeling for 3D and 2D computational domain of micro‐cylindrical combustor . Int J Hydrogen Energy . 2017 ; 42 ( 49 ): 29545 ‐ 29556 . 

    상세보기

18. Pashchenko D . Effect of the geometric dimensionality of computational domain on the results of CFD‐modeling of steam methane reforming . Int J Hydrogen Energy . 2018 ; 43 ( 18 ): 8662 ‐ 8673 . 

    상세보기

19. Pashchenko D . Thermodynamic equilibrium analysis of steam methane reforming based on a conjugate solution of material balance and law action mass equations with the detailed energy balance . Int J Energ Res . 2020 ; 44 ( 1 ): 438 ‐ 447 . 

20. Fernandez JR , Abanades JC , Murillo R . Modeling of sorption enhanced steam methane reforming in an adiabatic fixed bed reactor . Chem Eng Sci . 2012 ; 84 : 1 ‐ 11 . 

    상세보기

21. Fernandez JR , Abanades JC , Grasa G . Modeling of sorption enhanced steam methane reforming—part II: simulation within a novel Ca/Cu chemical loop process for hydrogen production . Chem Eng Sci . 2012 ; 84 : 12 ‐ 20 . 

    상세보기

22. Jakobsen JP , Halmøy E . Reactor modeling of sorption enhanced steam methane reforming . Enrgy Proced . 2009 ; 1 ( 1 ): 725 ‐ 732 . 

23. Reijers HTJ , Boon J , Elzinga GD , Cobden PD , Haije WG , van den Brink RW . Modeling study of the sorption‐enhanced reaction process for CO 2 capture. I. Model development and validation . Ind Eng Chem Res . 2009 ; 48 ( 15 ): 6966 ‐ 6974 . 

    상세보기

24. Li ZS , Cai NS . Modeling of multiple cycles for sorption‐enhanced steam methane reforming and sorbent regeneration in fixed bed reactor . Energ Fuel . 2007 ; 21 ( 5 ): 2909 ‐ 2918 . 

25. Neni A , Benguerba Y , Balsamo M , Erto A , Ernst B , Benachour D . Numerical study of sorption‐enhanced methane steam reforming over Ni/Al 2 O 3 catalyst in a fixed‐bed reactor . Int J Heat Mass Tran . 2021 ; 165 : 120635 . 

26. ANSYS . Fluent 16.0 Users' Manual and Documentation . 

27. Jeong A , Shin D , Baek SM , Nam JH . Effectiveness factor correlations from simulations of washcoat nickel catalyst layers for small‐scale steam methane reforming applications . Int J Hydrogen Energy . 2018 ; 43 ( 32 ): 15398 ‐ 15411 . 

    상세보기

28. Xu J , Froment GF . Methane steam reforming, methanation and water‐gas shift: I. Intrinsic kinetics . AIChE J . 1989 ; 35 ( 1 ): 88 ‐ 96 . 

    상세보기

29. Yapıcı H , Kayataş N , Albayrak B , Baştürk G . Numerical calculation of local entropy generation in a methane–air burner . Energ Convers Manage . 2005 ; 46 ( 11–12 ): 1885 ‐ 1919 . 

30. Latham DA , McAuley KB , Peppley BA , Raybold TM . Mathematical modeling of an industrial steam‐methane reformer for on‐line deployment . Fuel Process Technol . 2011 ; 92 ( 8 ): 1574 ‐ 1586 . 

    상세보기

31. Roychowdhury S , Sundararajan T , Das SK . Conjugate heat transfer studies on steam reforming of ethanol in micro‐channel systems . Int J Heat Mass Tran . 2019 ; 139 : 660 ‐ 674 . 

32. Bartolucci L , Cordiner S , Mulone V , Rocco V . Natural gas partially stratified lean combustion: analysis of the enhancing mechanisms into a constant volume combustion chamber . Fuel . 2018 ; 211 : 737 ‐ 753 . 

    상세보기

33. Katheria S , Kunzru D , Deo G . Kinetics of steam reforming of methane on Rh–Ni/MgAl 2 O 4 catalyst . React Kinet Mech Cat . 2020 ; 2020 : 1 ‐ 11 . 

34. Liu JA . Kinetics, Catalysis and Mechanism of Methane Steam Reforming . Massachusetts : Worcester Polytechnic Institute ; 2006 . 

35. Barrio VL , Schaub G , Rohde M , et al. Reactor modeling to simulate catalytic partial oxidation and steam reforming of methane. Comparison of temperature profiles and strategies for hot spot minimization . Int J Hydrogen Energy . 2007 ; 32 ( 10‐11 ): 1421 ‐ 1428 . 

36. De‐Souza M , Zanin GM , Moraes FF . Parametric study of hydrogen production from ethanol steam reforming in a membrane microreactor . Braz J Chem Eng . 2013 ; 30 ( 2 ): 355 ‐ 367 . 

    상세보기

37. Yu W , Ohmori T , Yamamoto T , et al. Simulation of a porous ceramic membrane reactor for hydrogen production . Int J Hydrogen Energy . 2005 ; 30 ( 10 ): 1071 ‐ 1079 . 

    상세보기

38. Yeh CL . Numerical investigation of the effects of steam mole fraction and the inlet velocity of reforming reactants on an industrial‐scale steam methane reformer . Energies . 2018 ; 11 ( 8 ): 2082 . 

    상세보기

39. Gallucci F , Paturzo L , Famà A , Basile A . Experimental study of the methane steam reforming reaction in a dense Pd/ag membrane reactor . Ind Eng Chem Res . 2004 ; 43 ( 4 ): 928 ‐ 933 . 

    상세보기

40. Katz A , Sankaran V . Mesh quality effects on the accuracy of CFD solutions on unstructured meshes . J Comput Phys . 2011 ; 230 ( 20 ): 7670 ‐ 7686 . 

    상세보기