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Full-Text Articles in Engineering
Removing Endotoxin From Metallic Biomaterials With Compressed Carbon Dioxide-Based Mixtures, Pedro Tarafa, Eve Williams, Samir Panvelker, Jian Zhang, Michael Matthews
Removing Endotoxin From Metallic Biomaterials With Compressed Carbon Dioxide-Based Mixtures, Pedro Tarafa, Eve Williams, Samir Panvelker, Jian Zhang, Michael Matthews
Michael A. Matthews
No abstract provided.
Compressed Carbon Dioxide (Co2) For Decontamination Of Biomaterials And Tissue Scaffolds, Pedro Tarafa, Aidaris Jiménez, Jian Zhang, Michael Matthews
Compressed Carbon Dioxide (Co2) For Decontamination Of Biomaterials And Tissue Scaffolds, Pedro Tarafa, Aidaris Jiménez, Jian Zhang, Michael Matthews
Michael A. Matthews
No abstract provided.
Compatibility Of Medical-Grade Polymers With Dense Co2, A. Jiménez, G. Thompson, Michael Matthews, T. Davis, K. Crocker, Jed Lyons, A. Trapotsis
Compatibility Of Medical-Grade Polymers With Dense Co2, A. Jiménez, G. Thompson, Michael Matthews, T. Davis, K. Crocker, Jed Lyons, A. Trapotsis
Michael A. Matthews
No abstract provided.
Co2 Capture By Amine-Enriched Fly Ash Carbon Sorbents, Steven Chuang, M. Gray, Y. Soong, K. Champagne, John Baltrus, R. Stevens, P. Toochinda
Co2 Capture By Amine-Enriched Fly Ash Carbon Sorbents, Steven Chuang, M. Gray, Y. Soong, K. Champagne, John Baltrus, R. Stevens, P. Toochinda
Steven S.C. Chuang
The capture of CO2 from gas streams has been achieved by the utilization of amine-enriched fly ash carbon sorbent system. The initial fly ash carbon sorbents were generated by the chemical treatment of carbon-enriched fly ash concentrates with a 3-chloropropylamine-hydrochloride (CPAHCL) solution at 25 °C. It was determined that these amine-enriched fly ash carbon sorbents performed at a 9% CO2 capture capacity based on commercially available sorbents. The chemical sorption performance of these amine-enriched fly ash carbon sorbents will be described within this paper.
Improved Immobilized Carbon Dioxide Capture Sorbents, M. Gray, Y. Soong, K. Champagne, H. Pennline, J. Baltrus, R. Stevens, R. Khatri, Steven Chuang, T. Filburn
Improved Immobilized Carbon Dioxide Capture Sorbents, M. Gray, Y. Soong, K. Champagne, H. Pennline, J. Baltrus, R. Stevens, R. Khatri, Steven Chuang, T. Filburn
Steven S.C. Chuang
The capture of carbon dioxide from simulated flue gas streams has been achieved by using immobilized and aminated-SBA-15 solid sorbents. SBA-15, a mesoporous silica material with a uniform pore size of 21 nm and a surface area of 200∼230 m2/g. The solid sorbents prepared in this study exhibit similar or improved capacities relative to those already used to control CO2 concentrations in submarine and spacecraft applications. The results suggest that immobilized secondary amines have a stronger affinity for the capture of carbon dioxide from simulated flue gas streams than primary amines. The performance of these immobilized and aminated-SBA-15 solid sorbents …