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목차
마이크로채널 반응기를 이용한 강화된 저온 피셔-트롭쉬 합성반응의 전산유체역학적 해석 = Intensified Low-Temperature Fischer-Tropsch Synthesis Using Microchannel Reactor Block : A Computational Fluid Dynamics Simulation Study / Krishnadash S. Kshetrimayum ; 나종걸 ; 박성호 ; 정익환 ; 이용규 ; 한종훈 1
요약 1
Abstract 1
I. 서론 2
II. 모델 설명 3
2.1. 촉매 충진 마이크로채널 반응기 모델 3
2.2. 마이크로채널 반응기 블록 모델 4
III. 운전조건, 모델 매개변수, 그리고 설정 4
IV. 결과 및 논의 5
4.1. 강화된 단일채널 FT 반응과 반응열 5
4.2. 강화된 다중채널 FT 반응기 6
4.3. 흐름구성과 wall boiling 냉매 7
4.4. 촉매 충진 마이크로채널 반응기 모델 8
V. 결론 8
REFERENCES 9
번호 | 참고문헌 | 국회도서관 소장유무 |
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1 | Lipski, R.,Smaller-scale GTL enters the mainstream. Gas Processing, Velocys Inc., (2012) | 미소장 |
2 | Franz, F. and Hans,T., “Process for the production of paraffin-hydrocarbons with more than one carbon atom”, U.S. Patent 1746464, February 11,(1930). | 미소장 |
3 | Microchannel reactor for Fischer–Tropsch synthesis: Adaptation of a commercial unit for testing microchannel blocks ![]() |
미소장 |
4 | Intensified Fischer–Tropsch synthesis process with microchannel catalytic reactors ![]() |
미소장 |
5 | Scale-Up of Microchannel Reactors For Fischer-Tropsch Synthesis ![]() |
미소장 |
6 | Holmen, A., Venvik, H.J., Myrstad,R., Zhu,J., and Chen, D., “Monolithic, microchannel and carbon nanofibers/carbon felt reactors for syngas conversion by Fischer-Tropsch synthesis”, Catalysis Today, 216, 150-157, (2013). | 미소장 |
7 | Fischer–Tropsch synthesis in a microstructured reactor ![]() |
미소장 |
8 | CFD Simulation of Microchannel Reactor Block for Fischer-Tropsch Synthesis: Effect of Coolant Type and Wall Boiling Condition on Reactor Temperature ![]() |
미소장 |
9 | Park, S., Jung, I., Lee, U., Na., J., Kshetrimayum, K.S., Lee, Y., Lee, C.-J., and Han, C., “Design and modeling of large-scale crosscurrent multichannel Fischer-Tropsch reactor using channel decomposition and cell-coupling method”, Chemical Engineering Science, 134, 448-456, (2015). | 미소장 |
10 | Harris, R.A., “Commercializing and deploying microchannel FT reactors for smaller scale GTL facilities”, AIChE Process Development Symposium Houston ,USA, (2015). | 미소장 |
11 | Computational fluid dynamics study of heat transfer in a microchannel reactor for low-temperature Fischer–Tropsch synthesis ![]() |
미소장 |
12 | Microchannel Reactors for Intensifying Gas-to-Liquid Technology ![]() |
미소장 |
13 | Computational Fluid Dynamics Study of Channel Geometric Effect for Fischer-Tropsch Microchannel Reactor | 소장 |
14 | Analysis on Thermal Effects of Process Channel Geometry for Microchannel Fischer-Tropsch Reactor Using Computational Fluid Dynamics | 소장 |
15 | Simulation Study of Heat Transfer Enhancement due to Wall Boiling Condition in a Microchannel Reactor Block for Fischer-Tropsch Synthesis ![]() |
미소장 |
16 | Computational Fluid Dynamics Based Optimal Design of Guiding Channel Geometry in U-Type Coolant Layer Manifold of Large-Scale Microchannel Fischer-Tropsch Reactor ![]() |
미소장 |
17 | Multi-objective optimization of microchannel reactor for Fischer-Tropsch synthesis using computational fluid dynamics and genetic algorithm ![]() |
미소장 |
18 | Design of microchannel Fischer–Tropsch reactor using cell-coupling method: Effect of flow configurations and distribution ![]() |
미소장 |
19 | Optimal design of a large scale Fischer-Tropsch microchannel reactor module using a cell-coupling method ![]() |
미소장 |
20 | Tonkovich, A.L., Yuschak, T., Neagle, P.W., Marco, J.L., Marco, J.D., Marchiando, M.A., Keyes, L.W., Deshmukh, S., and Luzenski, R.J.,“Laminated, Leak-Resistant Chemical Processors;Methods of Making, and Methods of Operating”, US Patent 0132290 A1, (2011). | 미소장 |
21 | Detailed Kinetics of the Fischer–Tropsch Synthesis on Cobalt Catalysts Based on H-Assisted CO Activation ![]() |
미소장 |
22 | Reaction and deactivation kinetics for Fischer–Tropsch synthesis on unpromoted and potassium-promoted iron catalysts ![]() |
미소장 |
23 | Selectivity Control and Catalyst Design in the Fischer-Tropsch Synthesis: Sites, Pellets, and Reactors ![]() |
미소장 |
24 | Intrinsic kinetics of the Fischer-Tropsch synthesis on a cobalt catalyst ![]() |
미소장 |
25 | Marvast, M.A., Sohrabi, M., Zarrinpashne, S., and Baghmisheh, G.,“Fischer‐Tropsch Synthesis:Modeling and Performance Study for Fe ‐HZSM5 Bifunctional Catalyst”, Chemical engineering & technology, 28(1), 78-86, (2005). | 미소장 |
26 | Modeling a channel-type reactor with a plate heat exchanger for cobalt-based Fischer–Tropsch synthesis ![]() |
미소장 |
27 | Computational fluid dynamics model of a modular multichannel reactor for Fischer–Tropsch synthesis: Maximum utilization of catalytic bed by microchannel heat exchangers ![]() |
미소장 |
28 | Kurul, N. and M. Podowski. “On the modeling of multidimensional effects in boiling channels” ANS Proceeding of the 27th National Heat Transfer Conference, (1991). | 미소장 |
29 | Krepper, E. and R. Rzehak, “CFD for subcooled flow boiling: Simulation of DEBORA experiments”, Nuclear Engineering and Design, 2011. 241(9): p. 3851-3866. | 미소장 |
30 | Perry Robert, H., W. Green Don, and O. Maloney James, Perry's chemical engineers' handbook. Mc Graw-Hills New York, 7th ed., 56-64, (1997). | 미소장 |
31 | Operating strategies for Fischer-Tropsch reactors : a model-directed study | 소장 |
32 | Zhu, X., Lu, X., Liu, X., Hildebrandt, D., and Glasser, D., “Heat transfer study with and without Fishcer-Tropsch reaction in a fixed bed reactror with TiO2, SiO2, and SiC supported cobalt catalyst”, Chemical Engineering Science, 247, 75-84, (2014) | 미소장 |
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