FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2084161818> ?p ?o ?g. }

• W2084161818 endingPage "261" @default.
• W2084161818 startingPage "251" @default.
• W2084161818 abstract "Biogas consisting mainly of methane and carbon dioxide can be utilized as renewable energy source in combined heat and power plant, vehicle fuel, or substitute for natural gas after upgrading process. In this work, biogas upgrading with pressure swing adsorption is studied with dynamic process simulation method using the modified Skarstrom cycle, which gives the variation of the pressure and stream concentration with cycle time in the column, while the variation of these variables with cycle time are difficult to be observed by experiments. Thus the simulation results would supply more dynamic information of the process. The pressure swing adsorption performance of the novel adsorbent metal-organic framework 508b is simulated and compared with the processes using traditional adsorbents such as zeolite 13X and carbon molecular sieve 3 K. A two-column six-step pressure swing adsorption simulation model involving parametric sensitivity analysis is established. The Langmuir adsorption isotherm models of the three adsorbents are built by fitting experiment data. The energy consumption of the pressure swing adsorption process with different adsorbents is calculated by fixing a 98% purity and 85% recovery ratio of methane product after investigating the key parameters, i.e., adsorption pressure, desorption pressure and purge to feed ratio. Simulation results reveal that the order of the energy consumption in the process is zeolite 13X > carbon molecular sieve 3 K > metal-organic framework 508b. For metal-organic framework 508b has linear carbon dioxide isotherm compared with zeolite 13X, which makes the desorption of the carbon dioxide easier, and its adsorption capacity is higher than with carbon molecular sieve 3 K under the same partial pressure. In conclusion, the energy consumption of pressure swing adsorption process using metal-organic framework 508b adsorbent is 56% lower than that using zeolite 13X, and the column packed with metal-organic framework 508b is estimated to be 13% smaller in diameter than that with zeolite 13X. The simulation results can help to provide guidelines for development of new adsorbents to meet higher product purity and recovery ratio along with lower process energy consumption." @default.
• W2084161818 created "2016-06-24" @default.
• W2084161818 creator A5009340564 @default.
• W2084161818 creator A5015167590 @default.
• W2084161818 creator A5045790623 @default.
• W2084161818 creator A5056233203 @default.
• W2084161818 creator A5062283137 @default.
• W2084161818 date "2015-08-01" @default.
• W2084161818 modified "2023-10-16" @default.
• W2084161818 title "Assessment of the energy consumption of the biogas upgrading process with pressure swing adsorption using novel adsorbents" @default.
• W2084161818 cites W1977123960 @default.
• W2084161818 cites W1981111528 @default.
• W2084161818 cites W1982478978 @default.
• W2084161818 cites W1983816416 @default.
• W2084161818 cites W1985310126 @default.
• W2084161818 cites W1987169249 @default.
• W2084161818 cites W1991016706 @default.
• W2084161818 cites W1997982003 @default.
• W2084161818 cites W2003509580 @default.
• W2084161818 cites W2005947717 @default.
• W2084161818 cites W2006977375 @default.
• W2084161818 cites W2018893323 @default.
• W2084161818 cites W2022396826 @default.
• W2084161818 cites W2022852132 @default.
• W2084161818 cites W2024737048 @default.
• W2084161818 cites W2032951726 @default.
• W2084161818 cites W2034114116 @default.
• W2084161818 cites W2037407662 @default.
• W2084161818 cites W2042699930 @default.
• W2084161818 cites W2044198425 @default.
• W2084161818 cites W2050606264 @default.
• W2084161818 cites W2055489140 @default.
• W2084161818 cites W2059800313 @default.
• W2084161818 cites W2062396111 @default.
• W2084161818 cites W2063027344 @default.
• W2084161818 cites W2065013083 @default.
• W2084161818 cites W2066566477 @default.
• W2084161818 cites W2073836121 @default.
• W2084161818 cites W2079174662 @default.
• W2084161818 cites W2079653147 @default.
• W2084161818 cites W2089202453 @default.
• W2084161818 cites W2092760909 @default.
• W2084161818 cites W2102090342 @default.
• W2084161818 cites W2150465994 @default.
• W2084161818 cites W2158895390 @default.
• W2084161818 cites W2160381227 @default.
• W2084161818 cites W2318198236 @default.
• W2084161818 cites W2324409001 @default.
• W2084161818 cites W2331003141 @default.
• W2084161818 cites W2333309786 @default.
• W2084161818 cites W2333824955 @default.
• W2084161818 cites W2335233917 @default.
• W2084161818 doi "https://doi.org/10.1016/j.jclepro.2015.03.082" @default.
• W2084161818 hasPublicationYear "2015" @default.
• W2084161818 type Work @default.
• W2084161818 sameAs 2084161818 @default.
• W2084161818 citedByCount "74" @default.
• W2084161818 countsByYear W20841618182015 @default.
• W2084161818 countsByYear W20841618182016 @default.
• W2084161818 countsByYear W20841618182017 @default.
• W2084161818 countsByYear W20841618182018 @default.
• W2084161818 countsByYear W20841618182019 @default.
• W2084161818 countsByYear W20841618182020 @default.
• W2084161818 countsByYear W20841618182021 @default.
• W2084161818 countsByYear W20841618182022 @default.
• W2084161818 countsByYear W20841618182023 @default.
• W2084161818 crossrefType "journal-article" @default.
• W2084161818 hasAuthorship W2084161818A5009340564 @default.
• W2084161818 hasAuthorship W2084161818A5015167590 @default.
• W2084161818 hasAuthorship W2084161818A5045790623 @default.
• W2084161818 hasAuthorship W2084161818A5056233203 @default.
• W2084161818 hasAuthorship W2084161818A5062283137 @default.
• W2084161818 hasConcept C104779481 @default.
• W2084161818 hasConcept C105281773 @default.
• W2084161818 hasConcept C115033672 @default.
• W2084161818 hasConcept C127413603 @default.
• W2084161818 hasConcept C140205800 @default.
• W2084161818 hasConcept C150394285 @default.
• W2084161818 hasConcept C159985019 @default.
• W2084161818 hasConcept C161790260 @default.
• W2084161818 hasConcept C162711632 @default.
• W2084161818 hasConcept C178790620 @default.
• W2084161818 hasConcept C185592680 @default.
• W2084161818 hasConcept C192562407 @default.
• W2084161818 hasConcept C194439259 @default.
• W2084161818 hasConcept C201416721 @default.
• W2084161818 hasConcept C21880701 @default.
• W2084161818 hasConcept C2778077586 @default.
• W2084161818 hasConcept C39432304 @default.
• W2084161818 hasConcept C42360764 @default.
• W2084161818 hasConcept C512968161 @default.
• W2084161818 hasConcept C516920438 @default.
• W2084161818 hasConcept C548081761 @default.
• W2084161818 hasConcept C67077129 @default.
• W2084161818 hasConcept C75212476 @default.
• W2084161818 hasConceptScore W2084161818C104779481 @default.
• W2084161818 hasConceptScore W2084161818C105281773 @default.
• W2084161818 hasConceptScore W2084161818C115033672 @default.

• next