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Your search keyword '"Borrusch, Melissa"' showing total 4 results
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4 results on '"Borrusch, Melissa"'

1. ‘Candidatus Liberibacter asiaticus’, Causal Agent of Citrus Huanglongbing, Is Reduced by Treatment with Brassinosteroids

Author

Canales, Eduardo, primary, Coll, Yamilet, additional, Hernández, Ingrid, additional, Portieles, Roxana, additional, Rodríguez García, Mayra, additional, López, Yunior, additional, Aranguren, Miguel, additional, Alonso, Eugenio, additional, Delgado, Roger, additional, Luis, Maritza, additional, Batista, Lochy, additional, Paredes, Camilo, additional, Rodríguez, Meilyn, additional, Pujol, Merardo, additional, Ochagavia, María Elena, additional, Falcón, Viviana, additional, Terauchi, Ryohei, additional, Matsumura, Hideo, additional, Ayra-Pardo, Camilo, additional, Llauger, Raixa, additional, Pérez, María del Carmen, additional, Núñez, Mirian, additional, Borrusch, Melissa S., additional, Walton, Jonathan D., additional, Silva, Yussuan, additional, Pimentel, Eulogio, additional, Borroto, Carlos, additional, and Borrás-Hidalgo, Orlando, additional

Published
2016
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3. Towards chloroplastic nanofactories: formation of proteinaceous scaffolds for metabolic engineering.

Author

Dwyer, Matthew E., Froehlich, John E., Raba, Daniel A., Borrusch, Melissa, Danhof, Linda, Sharma, Naveen, Young, Eric J., Brandizzi, Federica, Benning, Christoph, and Kerfeld, Cheryl A.

Subjects
*BIOENGINEERING, *MOLECULAR biology, *SMALL molecules, *ESCHERICHIA coli, *PEPTIDES
Abstract

This article explores the use of specialized bacterial microcompartments (BMCs) as a platform for metabolic engineering in plants. The researchers conducted experiments using Arabidopsis thaliana chloroplasts and introduced genes encoding synthetic BMC shell proteins. The study successfully demonstrated the potential for assembling nanofactories within the chloroplasts to enhance metabolic processes in plants. The researchers were able to construct and purify wiffle ball shells in Arabidopsis chloroplasts, showcasing the potential of this synthetic scaffold system. The research was supported by the Department of Energy and MSU AgBioResearch. [Extracted from the article]

Published
2024
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