FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2794178725> ?p ?o ?g. }

• W2794178725 endingPage "776" @default.
• W2794178725 startingPage "761" @default.
• W2794178725 abstract "Concentrated solar energy is an ideal energy source for high-temperature energy conversion processes such as concentrated solar power generation, solar thermochemical fuel production, and solar driven high-temperature electrolysis. Indirectly irradiated solar receiver designs utilizing tubular absorbers enclosed by a cavity are possible candidates for direct steam generation, allowing for design flexibility and high efficiency. We developed a coupled heat and mass transfer model of cavity receivers with tubular absorbers to guide the design of solar-driven direct steam generation. The numerical model consisted of a detailed 1D two-phase flow model of the absorber tubes coupled to a 3D heat transfer model of the cavity receiver. The absorber tube model simulated the flow boiling phenomena inside the tubes by solving 1D continuity, momentum, and energy conservation equations based on a control volume formulation. The Thome-El Hajal flow pattern maps were used to predict liquid-gas distributions in the tubular cross-sections, and heat transfer coefficients and pressure drop along the tubes. The heat transfer coefficient and fluid temperature of the absorber tubes’ inner surfaces were then extrapolated to the circumferential of the tube and used in the 3D cavity receiver model. The 3D steady state model of the cavity receiver coupled radiative, convective, and conductive heat transfer. The complete model was validated with experimental data and used to analyze different receiver types and designs made of different materials and exposed to various operational conditions. The proposed numerical model and the obtained results provide an engineering design tool for cavity receivers with tubular absorbers (in terms of tube shapes, tube diameter, and water-cooled front), support the choice of best-performant operation (in terms of radiative flux, mass flow rate, and pressure), and aid in the choice of the component materials. The model allows for an in-depth understanding of the coupled heat and mass transfer in the solar receiver for direct steam generation and can be exploited to quantify the optimization potential of such solar receivers." @default.
• W2794178725 created "2018-03-29" @default.
• W2794178725 creator A5000861946 @default.
• W2794178725 creator A5041466191 @default.
• W2794178725 creator A5065748208 @default.
• W2794178725 creator A5075090522 @default.
• W2794178725 date "2018-04-01" @default.
• W2794178725 modified "2023-10-03" @default.
• W2794178725 title "Modeling and design guidelines for direct steam generation solar receivers" @default.
• W2794178725 cites W1410936862 @default.
• W2794178725 cites W1505236782 @default.
• W2794178725 cites W1835045856 @default.
• W2794178725 cites W1971261841 @default.
• W2794178725 cites W1972646671 @default.
• W2794178725 cites W1983233221 @default.
• W2794178725 cites W1984020769 @default.
• W2794178725 cites W1984229939 @default.
• W2794178725 cites W1984637066 @default.
• W2794178725 cites W1986126396 @default.
• W2794178725 cites W1988518769 @default.
• W2794178725 cites W1989359263 @default.
• W2794178725 cites W1993764617 @default.
• W2794178725 cites W1996662218 @default.
• W2794178725 cites W2001849711 @default.
• W2794178725 cites W2003477035 @default.
• W2794178725 cites W2003498032 @default.
• W2794178725 cites W2004945472 @default.
• W2794178725 cites W2012273177 @default.
• W2794178725 cites W2016656745 @default.
• W2794178725 cites W2020309076 @default.
• W2794178725 cites W2023360057 @default.
• W2794178725 cites W2025006068 @default.
• W2794178725 cites W2025555428 @default.
• W2794178725 cites W2034751371 @default.
• W2794178725 cites W2038889431 @default.
• W2794178725 cites W2041303592 @default.
• W2794178725 cites W2041606062 @default.
• W2794178725 cites W2042017590 @default.
• W2794178725 cites W2042180823 @default.
• W2794178725 cites W2043569006 @default.
• W2794178725 cites W2044040768 @default.
• W2794178725 cites W2045319094 @default.
• W2794178725 cites W2058524174 @default.
• W2794178725 cites W2059398190 @default.
• W2794178725 cites W2059484951 @default.
• W2794178725 cites W2065386238 @default.
• W2794178725 cites W2066641305 @default.
• W2794178725 cites W2071815548 @default.
• W2794178725 cites W2075303783 @default.
• W2794178725 cites W2076422580 @default.
• W2794178725 cites W2076580587 @default.
• W2794178725 cites W2084310584 @default.
• W2794178725 cites W2090241924 @default.
• W2794178725 cites W2110635249 @default.
• W2794178725 cites W2120360341 @default.
• W2794178725 cites W2132728299 @default.
• W2794178725 cites W2135536698 @default.
• W2794178725 cites W2135781140 @default.
• W2794178725 cites W2150734984 @default.
• W2794178725 cites W2167724312 @default.
• W2794178725 cites W2313917416 @default.
• W2794178725 cites W2520914481 @default.
• W2794178725 cites W2525204006 @default.
• W2794178725 cites W2594094828 @default.
• W2794178725 cites W339782288 @default.
• W2794178725 doi "https://doi.org/10.1016/j.apenergy.2018.02.044" @default.
• W2794178725 hasPublicationYear "2018" @default.
• W2794178725 type Work @default.
• W2794178725 sameAs 2794178725 @default.
• W2794178725 citedByCount "37" @default.
• W2794178725 countsByYear W27941787252018 @default.
• W2794178725 countsByYear W27941787252019 @default.
• W2794178725 countsByYear W27941787252020 @default.
• W2794178725 countsByYear W27941787252021 @default.
• W2794178725 countsByYear W27941787252022 @default.
• W2794178725 countsByYear W27941787252023 @default.
• W2794178725 crossrefType "journal-article" @default.
• W2794178725 hasAuthorship W2794178725A5000861946 @default.
• W2794178725 hasAuthorship W2794178725A5041466191 @default.
• W2794178725 hasAuthorship W2794178725A5065748208 @default.
• W2794178725 hasAuthorship W2794178725A5075090522 @default.
• W2794178725 hasBestOaLocation W27941787252 @default.
• W2794178725 hasConcept C116915560 @default.
• W2794178725 hasConcept C119599485 @default.
• W2794178725 hasConcept C120665830 @default.
• W2794178725 hasConcept C121332964 @default.
• W2794178725 hasConcept C127413603 @default.
• W2794178725 hasConcept C144822601 @default.
• W2794178725 hasConcept C192562407 @default.
• W2794178725 hasConcept C2779473208 @default.
• W2794178725 hasConcept C50517652 @default.
• W2794178725 hasConcept C541104983 @default.
• W2794178725 hasConcept C57879066 @default.
• W2794178725 hasConcept C74902906 @default.
• W2794178725 hasConcept C78519656 @default.
• W2794178725 hasConcept C97355855 @default.
• W2794178725 hasConceptScore W2794178725C116915560 @default.
• W2794178725 hasConceptScore W2794178725C119599485 @default.

• next