FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2198124994> ?p ?o ?g. }

• W2198124994 endingPage "273" @default.
• W2198124994 startingPage "247" @default.
• W2198124994 abstract "In vapour permeation the feed is a vapour, in contrast to pervaporation, where the feed is a liquid. The process employs a membrane to provide a semipermeable barrier between the feed side under high pressure and the permeate side under low pressure. Separation is achieved by the different degrees to which components are dissolved in and diffuse through the membrane; the system works according to a solution-diffusion mechanism. The materials used in the membrane depend on the types of compounds being separated, and polar polymers are preferred for water transport. Therefore hydrophilic membranes, whether organic or inorganic, have been thoroughly explored; in particular those made from poly(vinyl alcohol), which is the basis for several commercial membranes. Incorporation of inorganic nanoparticles such as silica allows operation at high fluxes and temperatures, as required for steam separation for example. Furthermore, adding particular nanoparticles can improve the antiviral and antibacterial properties of polymeric membranes. Other mixed matrix membranes include an annealed sodium alginate/poly(vinyl alcohol) membrane that is complexed with calcium ions. The annealing process markedly affected the membrane morphology and led to shrinkage of the free volume between the polymer chains. Purely inorganic zeolite membranes have been prepared by depositing a zeolite on a porous α-alumina support seeded with zeolite NaA crystals. Dense intergrown zeolite crystals were formed on the outer surface, to give a system that was highly permeable to water. Novel metal–organic frameworks in nanoparticle form have been incorporated in silicone rubber to produce membranes suitable for use in biorefining. The species employed was a zeolitic imidazolate framework of exceptional thermal and chemical stability. The membranes produced are capable of avoiding severe plasticisation under aggressive feed conditions. They can have very selective adsorption characteristics that are capable of being tailored at the pore level to create unique interactions with guest molecules to meet a particular need. So far only a limited number of types of hydrophobic frameworks have been examined, with most effort going toward gas separation applications. Some may give rise to fouling, so this is an area that needs to be evaluated, and at worst, an appropriate pretreatment devised; additives with hydrophilic pore surfaces seem to be an essentially unexplored territory." @default.
• W2198124994 created "2016-06-24" @default.
• W2198124994 creator A5023860809 @default.
• W2198124994 creator A5029254668 @default.
• W2198124994 creator A5059580170 @default.
• W2198124994 creator A5073329267 @default.
• W2198124994 date "2015-01-01" @default.
• W2198124994 modified "2023-10-16" @default.
• W2198124994 title "New generation vapour permeation membranes" @default.
• W2198124994 cites W1553105343 @default.
• W2198124994 cites W1964377432 @default.
• W2198124994 cites W1966219059 @default.
• W2198124994 cites W1969307158 @default.
• W2198124994 cites W1972109234 @default.
• W2198124994 cites W1972885828 @default.
• W2198124994 cites W1974966064 @default.
• W2198124994 cites W1982997385 @default.
• W2198124994 cites W1983174319 @default.
• W2198124994 cites W1988709609 @default.
• W2198124994 cites W1992294571 @default.
• W2198124994 cites W1996229457 @default.
• W2198124994 cites W1998737646 @default.
• W2198124994 cites W1999525438 @default.
• W2198124994 cites W2007317060 @default.
• W2198124994 cites W2008662569 @default.
• W2198124994 cites W2008795542 @default.
• W2198124994 cites W2010369860 @default.
• W2198124994 cites W2011771287 @default.
• W2198124994 cites W2012971549 @default.
• W2198124994 cites W2013030637 @default.
• W2198124994 cites W2014312431 @default.
• W2198124994 cites W2017515307 @default.
• W2198124994 cites W2021681230 @default.
• W2198124994 cites W2024574648 @default.
• W2198124994 cites W2025007641 @default.
• W2198124994 cites W2029122177 @default.
• W2198124994 cites W2029822559 @default.
• W2198124994 cites W2031067210 @default.
• W2198124994 cites W2031132485 @default.
• W2198124994 cites W2032087542 @default.
• W2198124994 cites W2033650017 @default.
• W2198124994 cites W2040287828 @default.
• W2198124994 cites W2042266255 @default.
• W2198124994 cites W2042383152 @default.
• W2198124994 cites W2045568071 @default.
• W2198124994 cites W2049117152 @default.
• W2198124994 cites W2049305561 @default.
• W2198124994 cites W2053434765 @default.
• W2198124994 cites W2054702743 @default.
• W2198124994 cites W2055602920 @default.
• W2198124994 cites W2057127585 @default.
• W2198124994 cites W2057248761 @default.
• W2198124994 cites W2058930189 @default.
• W2198124994 cites W2060111152 @default.
• W2198124994 cites W2061666740 @default.
• W2198124994 cites W2061949207 @default.
• W2198124994 cites W2063223230 @default.
• W2198124994 cites W2064362679 @default.
• W2198124994 cites W2064752845 @default.
• W2198124994 cites W2065517828 @default.
• W2198124994 cites W2068538071 @default.
• W2198124994 cites W2076521954 @default.
• W2198124994 cites W2088456660 @default.
• W2198124994 cites W2090367167 @default.
• W2198124994 cites W2091161882 @default.
• W2198124994 cites W2094115139 @default.
• W2198124994 cites W2105677359 @default.
• W2198124994 cites W2110006228 @default.
• W2198124994 cites W2110183837 @default.
• W2198124994 cites W2111027567 @default.
• W2198124994 cites W2112518928 @default.
• W2198124994 cites W2117315934 @default.
• W2198124994 cites W2135967593 @default.
• W2198124994 cites W2139219604 @default.
• W2198124994 cites W2161985192 @default.
• W2198124994 cites W2312293795 @default.
• W2198124994 cites W2333378737 @default.
• W2198124994 cites W3146672398 @default.
• W2198124994 doi "https://doi.org/10.1016/b978-1-78242-246-4.00009-x" @default.
• W2198124994 hasPublicationYear "2015" @default.
• W2198124994 type Work @default.
• W2198124994 sameAs 2198124994 @default.
• W2198124994 citedByCount "5" @default.
• W2198124994 countsByYear W21981249942018 @default.
• W2198124994 countsByYear W21981249942020 @default.
• W2198124994 countsByYear W21981249942021 @default.
• W2198124994 countsByYear W21981249942023 @default.
• W2198124994 crossrefType "book-chapter" @default.
• W2198124994 hasAuthorship W2198124994A5023860809 @default.
• W2198124994 hasAuthorship W2198124994A5029254668 @default.
• W2198124994 hasAuthorship W2198124994A5059580170 @default.
• W2198124994 hasAuthorship W2198124994A5073329267 @default.
• W2198124994 hasConcept C127413603 @default.
• W2198124994 hasConcept C155515750 @default.
• W2198124994 hasConcept C155672457 @default.
• W2198124994 hasConcept C159985019 @default.
• W2198124994 hasConcept C161790260 @default.
• W2198124994 hasConcept C171250308 @default.

• next