FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3216172021> ?p ?o ?g. }

• W3216172021 abstract "We present results for a one-dimensional quasi-steady-state thermodynamic model developed for a 111.7 MW e concentrating solar power (CSP) system using a redox-active metal oxide as the heat storage media and heat transfer agent integrated with a combined cycle air Brayton power block. In the energy charging and discharging processes, the metal oxide CaAl 0.2 Mn 0.8 O 2.9-δ (CAM28) undergoes a reversible, high temperature redox cycle including an endothermic oxygen-releasing reaction and exothermic oxygen-incorporation reaction. Concentrated solar radiation heats the redox-active oxide particles under partial vacuum to drive the reduction extent deeper for increased energy density at a fixed temperature, thereby increasing storage capacity while limiting the required on sun temperature. Direct counter-current contact of the reduced particles with compressed air from the Brayton compressor releases stored chemical and sensible energy, heating the air to 1,200°C at the turbine inlet while cooling and reoxidizing the particles. The cool oxidized particles recirculate through the solar receiver subsystem for another cycle of heating and reduction (oxygen release). We applied the techno-economic model to 1) size components, 2) examine intraday operation with varying solar insolation, 3) estimate annual performance characteristics over a simulated year, 4) estimate the levelized cost of electricity (LCOE), and 5) perform sensitivity analyses to evaluate factors that affect performance and cost. Simulations use hourly solar radiation data from Barstow, California to assess the performance of a 111.7 MW e system with solar multiples (SMs) varying from 1.2 to 2.4 and storage capacities of 6–14 h. The baseline system with 6 h storage and SM of 1.8 has a capacity factor of 54.2%, an increase from 32.3% capacity factor with no storage, and an average annual energy efficiency of 20.6%. Calculations show a system with an output of 710 GWh e net electricity per year, 12 h storage, and SM of 2.4 to have an installed cost of $329 million, and an LCOE of 5.98 ¢/kWh e . This value meets the U.S. Department of Energy’s SunShot 2020 target of 6.0 ¢/kWh e ( U. S Department of Energy, 2012 ), but falls just shy of the 5.0 ¢/kWh e 2030 CSP target for dispatchable electricity ( U. S Department of Energy, 2017 ). The cost and performance results are minimally sensitive to most design parameters. However, a one-point change in the weighted annual cost of capital from 8 to 7% (better understood as a 12.5% change) translates directly to an 11% decrease (0.66 ¢/kWhe) in the LCOE." @default.
• W3216172021 created "2021-12-06" @default.
• W3216172021 creator A5001464383 @default.
• W3216172021 creator A5001720994 @default.
• W3216172021 creator A5003303498 @default.
• W3216172021 creator A5024175805 @default.
• W3216172021 creator A5087757716 @default.
• W3216172021 date "2021-12-01" @default.
• W3216172021 modified "2023-09-26" @default.
• W3216172021 title "Techno-Economic Analysis of a Concentrating Solar Power Plant Using Redox-Active Metal Oxides as Heat Transfer Fluid and Storage Media" @default.
• W3216172021 cites W101507059 @default.
• W3216172021 cites W134712614 @default.
• W3216172021 cites W139811357 @default.
• W3216172021 cites W1505103134 @default.
• W3216172021 cites W1529184125 @default.
• W3216172021 cites W1561044459 @default.
• W3216172021 cites W1846759314 @default.
• W3216172021 cites W1966368201 @default.
• W3216172021 cites W1968671164 @default.
• W3216172021 cites W1972358605 @default.
• W3216172021 cites W1977988694 @default.
• W3216172021 cites W1986823125 @default.
• W3216172021 cites W1987316103 @default.
• W3216172021 cites W1993181920 @default.
• W3216172021 cites W1996596606 @default.
• W3216172021 cites W2006072715 @default.
• W3216172021 cites W2008366412 @default.
• W3216172021 cites W2009437481 @default.
• W3216172021 cites W2014265184 @default.
• W3216172021 cites W2017758176 @default.
• W3216172021 cites W2025516135 @default.
• W3216172021 cites W2027862064 @default.
• W3216172021 cites W2053984576 @default.
• W3216172021 cites W2056979917 @default.
• W3216172021 cites W2064116065 @default.
• W3216172021 cites W2068123987 @default.
• W3216172021 cites W2075303783 @default.
• W3216172021 cites W2075409469 @default.
• W3216172021 cites W2080341436 @default.
• W3216172021 cites W2098784824 @default.
• W3216172021 cites W2112790930 @default.
• W3216172021 cites W2135536698 @default.
• W3216172021 cites W2192780982 @default.
• W3216172021 cites W2256388825 @default.
• W3216172021 cites W2277180583 @default.
• W3216172021 cites W2290730039 @default.
• W3216172021 cites W2479659029 @default.
• W3216172021 cites W2546971871 @default.
• W3216172021 cites W2585182781 @default.
• W3216172021 cites W2604249414 @default.
• W3216172021 cites W2612033127 @default.
• W3216172021 cites W2625890880 @default.
• W3216172021 cites W2732710489 @default.
• W3216172021 cites W2799916340 @default.
• W3216172021 cites W2803416289 @default.
• W3216172021 cites W2888153045 @default.
• W3216172021 cites W3013803109 @default.
• W3216172021 cites W3111606922 @default.
• W3216172021 cites W3120865854 @default.
• W3216172021 cites W4229604961 @default.
• W3216172021 cites W4230007838 @default.
• W3216172021 cites W4238930633 @default.
• W3216172021 cites W769540069 @default.
• W3216172021 doi "https://doi.org/10.3389/fenrg.2021.734288" @default.
• W3216172021 hasPublicationYear "2021" @default.
• W3216172021 type Work @default.
• W3216172021 sameAs 3216172021 @default.
• W3216172021 citedByCount "7" @default.
• W3216172021 countsByYear W32161720212022 @default.
• W3216172021 countsByYear W32161720212023 @default.
• W3216172021 crossrefType "journal-article" @default.
• W3216172021 hasAuthorship W3216172021A5001464383 @default.
• W3216172021 hasAuthorship W3216172021A5001720994 @default.
• W3216172021 hasAuthorship W3216172021A5003303498 @default.
• W3216172021 hasAuthorship W3216172021A5024175805 @default.
• W3216172021 hasAuthorship W3216172021A5087757716 @default.
• W3216172021 hasBestOaLocation W32161720211 @default.
• W3216172021 hasConcept C116915560 @default.
• W3216172021 hasConcept C119599485 @default.
• W3216172021 hasConcept C121332964 @default.
• W3216172021 hasConcept C127413603 @default.
• W3216172021 hasConcept C150394285 @default.
• W3216172021 hasConcept C163258240 @default.
• W3216172021 hasConcept C178790620 @default.
• W3216172021 hasConcept C183287310 @default.
• W3216172021 hasConcept C185592680 @default.
• W3216172021 hasConcept C192562407 @default.
• W3216172021 hasConcept C20976626 @default.
• W3216172021 hasConcept C21880701 @default.
• W3216172021 hasConcept C2778449969 @default.
• W3216172021 hasConcept C2779473208 @default.
• W3216172021 hasConcept C39432304 @default.
• W3216172021 hasConcept C423512 @default.
• W3216172021 hasConcept C42611778 @default.
• W3216172021 hasConcept C45119746 @default.
• W3216172021 hasConcept C50517652 @default.
• W3216172021 hasConcept C541104983 @default.
• W3216172021 hasConcept C5979214 @default.
• W3216172021 hasConcept C73916439 @default.
• W3216172021 hasConcept C97355855 @default.

• next