Dra. Nathaly Alexandre do Nascimento
Investigadora Posdoctoral SECIHTI
Doctorado, Doctor en Ciencias
* Indica publicación con otra institución de adscripción
Total de publicaciones: 11
- Tipo
- Fecha
Artículo
1 - do Nascimento,N.A., Torres-Quintero,M.C., Garcia-Gomez,B.I., Gomez,I., Pacheco,S., Bravo,A., Soberon,M. (2026). Engineering Bacillus thuringiensis Cyt1Aa to function as a surrogate receptor of Cry1A lepidopteran insecticidal proteins.
Pesticide Biochemistry And Physiology,
219 (April),
106970.
Artículo
2 - Pacheco,S., Chinas,M., Gomez,J.U., Pelaez-Aguilar,A.E., do Nascimento,N.A., Canton,P.E., Sanchez,J., Lopez-Molina,S., Gomez,I., Soberon,M., Bravo,A. (2025). ABC transporters knockout in Aedes aegypti induces upregulation of paralogous genes, avoiding resistance development to Bacillus thuringiensis Cry toxins.
PLoS ONE,
20 (7),
e0327221.
Artículo
3 - Garcia-Gomez,B.I., Sanchez,T.A., Cano,S.N., do Nascimento,N.A., Bravo,A., Soberon,M. (2023). Insect chaperones Hsp70 and Hsp90 cooperatively enhance toxicity of Bacillus thuringiensis Cry1A toxins and counteract insect resistance.
Frontiers in Immunology,
14,
1151943.
Revisión
4 - Pacheco,S., Gomez,I., Pelaez-Aguilar,A.E., Verduzco-Rosas,L.A., Garcia-Suarez,R., do Nascimento,N.A., Rivera-Najera,L.Y., Canton,P.E., Soberon,M., Bravo,A. (2023). Structural changes upon membrane insertion of the insecticidal pore-forming toxins produced by Bacillus thuringiensis.
Frontiers in Insect Science,
3,
1188891.
Artículo
5 - Lopez-Molina,S., do Nascimento,N.A., Silva-Filha,M.H.N.L., Guerrero,A., Sanchez,J., Pacheco,S., Gill,S.S., Soberon,M., Bravo,A. (2021). In vivo nanoscale analysis of the dynamic synergistic interaction of Bacillus thuringiensis Cry11Aa and Cyt1Aa toxins in Aedes aegypti.
PLoS Pathogens,
17 (1),
e1009199.
Articulo
6 - Menezes,H.S.G., Nascimento,N.A., Paiva-Cavalcanti,M., da Costa-Latge,S.G., Genta,F.A., Oliveira,C.M.F., Romao,T.P., Silva-Filha,M.H.N.L. (2021). Molecular and biological features of Culex quinquefasciatus homozygous larvae for two cqm1 alleles that confer resistance to Lysinibacillus sphaericus larvicides.
Pest Management Science,
77 (7),
3135-3144.
*
Revisión
7 - Silva-Filha,M.H.N.L., Romao,T.P., Rezende,T.M.T., Carvalho,K.D.S., de Menezes,H.S.G., do Nascimento,N.A., Soberon,M., Bravo,A. (2021). Bacterial toxins active against mosquitoes: Mode of action and resistance.
Toxins,
13 (8),
523.
Artículo
8 - do Nascimento,N.A., Torres-Quintero,M.C., Lopez-Molina,S., Pacheco,S., Romao,T.P., Pereira-Neves,A., Soberon,M., Bravo,A., Silva-Filha,M.H.N.L. (2020). Functional Bacillus thuringiensis Cyt1Aa is necessary to synergize Lysinibacillus sphaericus Binary toxin against Bin-resistant and refractory mosquito species.
Applied and Environmental Microbiology,
86 (7),
02770-19.
Artículo
9 - do Nascimento,N.A., Ferreira,L.M., Romao,T.P., Correia,D.M.D., Vasconcelos,C.R.D., Rezende,A.M., Costa,S.G., Genta,F.A., de-Melo-Neto,O.P., Silva-Filha,M.H.N.L. (2017). N-glycosylation influences the catalytic activity of mosquito alpha-glucosidases associated with susceptibility or refractoriness to Lysinibacillus sphaericus.
Insect Biochemistry and Molecular Biology,
81,
62-71.
*
Artículo
10 - Chalegre,K.D.D.M., Tavares,D.A., Romao,T.P., de Menezes,H.S.G., Nascimento,N.A., de Oliveira,C.M.F., de-Melo-Neto,O.P., Silva-Filha,M.H.N.L. (2015). Co-selection and replacement of resistance alleles to Lysinibacillus sphaericus in a Culex quinquefasciatus colony.
Febs Journal,
282 (18),
3592-3602.
*
Artículo
11 - Ferreira,L.M., Romao,T.P., do Nascimento,N.A., da Conceicao,M., da Costa,M.F., Rezende,A.M., de-Melo-Neto,O.P., Silva,M.H.N.L. (2014). Non conserved residues between Cqm1 and Aam1 mosquito alpha-glucosidases are critical for the capacity of Cqm1 to bind the Binary toxin from Lysinibacillus sphaericus.
Insect Biochemistry and Molecular Biology,
50,
34-42.
*
Artículo
12 - do Nascimento,N.A., Torres-Quintero,M.C., Garcia-Gomez,B.I., Gomez,I., Pacheco,S., Bravo,A., Soberon,M.. Engineering Bacillus thuringiensis Cyt1Aa to function as a surrogate receptor of Cry1A lepidopteran insecticidal proteins.
Pesticide Biochemistry And Physiology,
219 (April),
106970.
Artículo
13 - Pacheco,S., Chinas,M., Gomez,J.U., Pelaez-Aguilar,A.E., do Nascimento,N.A., Canton,P.E., Sanchez,J., Lopez-Molina,S., Gomez,I., Soberon,M., Bravo,A.. ABC transporters knockout in Aedes aegypti induces upregulation of paralogous genes, avoiding resistance development to Bacillus thuringiensis Cry toxins.
PLoS ONE,
20 (7),
e0327221.
Artículo
14 - Garcia-Gomez,B.I., Sanchez,T.A., Cano,S.N., do Nascimento,N.A., Bravo,A., Soberon,M.. Insect chaperones Hsp70 and Hsp90 cooperatively enhance toxicity of Bacillus thuringiensis Cry1A toxins and counteract insect resistance.
Frontiers in Immunology,
14,
1151943.
Revisión
15 - Pacheco,S., Gomez,I., Pelaez-Aguilar,A.E., Verduzco-Rosas,L.A., Garcia-Suarez,R., do Nascimento,N.A., Rivera-Najera,L.Y., Canton,P.E., Soberon,M., Bravo,A.. Structural changes upon membrane insertion of the insecticidal pore-forming toxins produced by Bacillus thuringiensis.
Frontiers in Insect Science,
3,
1188891.
Artículo
16 - Lopez-Molina,S., do Nascimento,N.A., Silva-Filha,M.H.N.L., Guerrero,A., Sanchez,J., Pacheco,S., Gill,S.S., Soberon,M., Bravo,A.. In vivo nanoscale analysis of the dynamic synergistic interaction of Bacillus thuringiensis Cry11Aa and Cyt1Aa toxins in Aedes aegypti.
PLoS Pathogens,
17 (1),
e1009199.
Articulo
17 - Menezes,H.S.G., Nascimento,N.A., Paiva-Cavalcanti,M., da Costa-Latge,S.G., Genta,F.A., Oliveira,C.M.F., Romao,T.P., Silva-Filha,M.H.N.L.. Molecular and biological features of Culex quinquefasciatus homozygous larvae for two cqm1 alleles that confer resistance to Lysinibacillus sphaericus larvicides.
Pest Management Science,
77 (7),
3135-3144.
*
Revisión
18 - Silva-Filha,M.H.N.L., Romao,T.P., Rezende,T.M.T., Carvalho,K.D.S., de Menezes,H.S.G., do Nascimento,N.A., Soberon,M., Bravo,A.. Bacterial toxins active against mosquitoes: Mode of action and resistance.
Toxins,
13 (8),
523.
Artículo
19 - do Nascimento,N.A., Torres-Quintero,M.C., Lopez-Molina,S., Pacheco,S., Romao,T.P., Pereira-Neves,A., Soberon,M., Bravo,A., Silva-Filha,M.H.N.L.. Functional Bacillus thuringiensis Cyt1Aa is necessary to synergize Lysinibacillus sphaericus Binary toxin against Bin-resistant and refractory mosquito species.
Applied and Environmental Microbiology,
86 (7),
02770-19.
Artículo
20 - do Nascimento,N.A., Ferreira,L.M., Romao,T.P., Correia,D.M.D., Vasconcelos,C.R.D., Rezende,A.M., Costa,S.G., Genta,F.A., de-Melo-Neto,O.P., Silva-Filha,M.H.N.L.. N-glycosylation influences the catalytic activity of mosquito alpha-glucosidases associated with susceptibility or refractoriness to Lysinibacillus sphaericus.
Insect Biochemistry and Molecular Biology,
81,
62-71.
*
Artículo
21 - Chalegre,K.D.D.M., Tavares,D.A., Romao,T.P., de Menezes,H.S.G., Nascimento,N.A., de Oliveira,C.M.F., de-Melo-Neto,O.P., Silva-Filha,M.H.N.L.. Co-selection and replacement of resistance alleles to Lysinibacillus sphaericus in a Culex quinquefasciatus colony.
Febs Journal,
282 (18),
3592-3602.
*
Artículo
22 - Ferreira,L.M., Romao,T.P., do Nascimento,N.A., da Conceicao,M., da Costa,M.F., Rezende,A.M., de-Melo-Neto,O.P., Silva,M.H.N.L.. Non conserved residues between Cqm1 and Aam1 mosquito alpha-glucosidases are critical for the capacity of Cqm1 to bind the Binary toxin from Lysinibacillus sphaericus.
Insect Biochemistry and Molecular Biology,
50,
34-42.
*