Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor

Studies have shown that climate change is caused primarily by increasing carbon dioxide (COz) levels in the atmosphere. Carbon Capture and Storage (CCS) is one of the approaches being taken to address the problem by capturing CO, from large point sources and storing instead of releasing. AWL (Advanc...

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Main Authors: Villavert, Ricardo T., de Leon, Rizalinda L., Pilario, Karl Ezra S.
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Published: Animo Repository 2011
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Online Access:https://animorepository.dlsu.edu.ph/faculty_research/13287
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Institution: De La Salle University
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spelling oai:animorepository.dlsu.edu.ph:faculty_research-148812024-11-04T00:29:21Z Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor Villavert, Ricardo T. de Leon, Rizalinda L. Pilario, Karl Ezra S. Studies have shown that climate change is caused primarily by increasing carbon dioxide (COz) levels in the atmosphere. Carbon Capture and Storage (CCS) is one of the approaches being taken to address the problem by capturing CO, from large point sources and storing instead of releasing. AWL (Advanced Weathering of Limestone) is an economically promising CCS technology where CO, is absorbed in the mixture of limestone and water to produce an effluent beneficial to the growth of calcifying marine organisms. To augment the gap in previous studies, this research determined the effect of Gas to Liquid Ratio (G/L.), superficial velocity (Us), limestone particle size (d), and column height to diameter ratio (H/D) to the capture of CO, in an AWL reactor system. A model based from chemical equilibrium relationships and limestone contactor designs was developed and validated experimentally. The model predicted within the region of low Us, low G/L, high H/D and a low d where COz capture is highest. If AWL is opted as one of the initiatives in climate change mitigation, the optimum conditions obtained in this research can be used as benchmarks in investment analysis such as in reactor fabrication, scale-up, and operational cost. 2011-01-01T08:00:00Z text https://animorepository.dlsu.edu.ph/faculty_research/13287 Faculty Research Work Animo Repository Carbon sequestration Carbon dioxide mitigation Chemical weathering Chemical Engineering
institution De La Salle University
building De La Salle University Library
continent Asia
country Philippines
Philippines
content_provider De La Salle University Library
collection DLSU Institutional Repository
topic Carbon sequestration
Carbon dioxide mitigation
Chemical weathering
Chemical Engineering
spellingShingle Carbon sequestration
Carbon dioxide mitigation
Chemical weathering
Chemical Engineering
Villavert, Ricardo T.
de Leon, Rizalinda L.
Pilario, Karl Ezra S.
Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
description Studies have shown that climate change is caused primarily by increasing carbon dioxide (COz) levels in the atmosphere. Carbon Capture and Storage (CCS) is one of the approaches being taken to address the problem by capturing CO, from large point sources and storing instead of releasing. AWL (Advanced Weathering of Limestone) is an economically promising CCS technology where CO, is absorbed in the mixture of limestone and water to produce an effluent beneficial to the growth of calcifying marine organisms. To augment the gap in previous studies, this research determined the effect of Gas to Liquid Ratio (G/L.), superficial velocity (Us), limestone particle size (d), and column height to diameter ratio (H/D) to the capture of CO, in an AWL reactor system. A model based from chemical equilibrium relationships and limestone contactor designs was developed and validated experimentally. The model predicted within the region of low Us, low G/L, high H/D and a low d where COz capture is highest. If AWL is opted as one of the initiatives in climate change mitigation, the optimum conditions obtained in this research can be used as benchmarks in investment analysis such as in reactor fabrication, scale-up, and operational cost.
format text
author Villavert, Ricardo T.
de Leon, Rizalinda L.
Pilario, Karl Ezra S.
author_facet Villavert, Ricardo T.
de Leon, Rizalinda L.
Pilario, Karl Ezra S.
author_sort Villavert, Ricardo T.
title Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
title_short Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
title_full Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
title_fullStr Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
title_full_unstemmed Effect of gas to liquid ratio (G/L), superficial (Us), limestone particle size (d), and height to diameter ratio (H/D) to the capture of CO2 in an AWL reactor
title_sort effect of gas to liquid ratio (g/l), superficial (us), limestone particle size (d), and height to diameter ratio (h/d) to the capture of co2 in an awl reactor
publisher Animo Repository
publishDate 2011
url https://animorepository.dlsu.edu.ph/faculty_research/13287
_version_ 1816861321125167104