Detalhe da pesquisa
1.
Intracellular Pathways Involved in Bone Regeneration Triggered by Recombinant Silk-silica Chimeras.
Adv Funct Mater
; 28(27)2018 Jul 04.
Artigo
em Inglês
| MEDLINE | ID: mdl-30140193
2.
Poly-3-Hydroxybutyrate Functionalization with BioF-Tagged Recombinant Proteins.
Appl Environ Microbiol
; 84(4)2018 02 15.
Artigo
em Inglês
| MEDLINE | ID: mdl-29196289
3.
Synergistic Integration of Experimental and Simulation Approaches for the de Novo Design of Silk-Based Materials.
Acc Chem Res
; 50(4): 866-876, 2017 04 18.
Artigo
em Inglês
| MEDLINE | ID: mdl-28191922
4.
A holistic view of polyhydroxyalkanoate metabolism in Pseudomonas putida.
Environ Microbiol
; 18(2): 341-57, 2016 Feb.
Artigo
em Inglês
| MEDLINE | ID: mdl-25556983
5.
Design of Multistimuli Responsive Hydrogels Using Integrated Modeling and Genetically Engineered Silk-Elastin-Like Proteins.
Adv Funct Mater
; 26(23): 4113-4123, 2016 Jun 20.
Artigo
em Inglês
| MEDLINE | ID: mdl-28670244
6.
Fibrous proteins: At the crossroads of genetic engineering and biotechnological applications.
Biotechnol Bioeng
; 113(5): 913-29, 2016 May.
Artigo
em Inglês
| MEDLINE | ID: mdl-26332660
7.
A phasin with extra talents: a polyhydroxyalkanoate granule-associated protein has chaperone activity.
Environ Microbiol
; 17(5): 1765-76, 2015 May.
Artigo
em Inglês
| MEDLINE | ID: mdl-25297625
8.
Smart polyhydroxyalkanoate nanobeads by protein based functionalization.
Nanomedicine
; 11(4): 885-99, 2015 May.
Artigo
em Inglês
| MEDLINE | ID: mdl-25720989
9.
Swapping of phasin modules to optimize the in vivo immobilization of proteins to medium-chain-length polyhydroxyalkanoate granules in Pseudomonas putida.
Biomacromolecules
; 14(9): 3285-93, 2013 Sep 09.
Artigo
em Inglês
| MEDLINE | ID: mdl-23885896
10.
The turnover of medium-chain-length polyhydroxyalkanoates in Pseudomonas putida KT2442 and the fundamental role of PhaZ depolymerase for the metabolic balance.
Environ Microbiol
; 12(1): 207-21, 2010 Jan.
Artigo
em Inglês
| MEDLINE | ID: mdl-19788655
11.
Expanding Canonical Spider Silk Properties through a DNA Combinatorial Approach.
Materials (Basel)
; 13(16)2020 Aug 14.
Artigo
em Inglês
| MEDLINE | ID: mdl-32823912
12.
Recursive Directional Ligation Approach for Cloning Recombinant Spider Silks.
Methods Mol Biol
; 1777: 181-192, 2018.
Artigo
em Inglês
| MEDLINE | ID: mdl-29744835
13.
Predicting rates of in vivo degradation of recombinant spider silk proteins.
J Tissue Eng Regen Med
; 12(1): e97-e105, 2018 01.
Artigo
em Inglês
| MEDLINE | ID: mdl-27943629
14.
Integrated Modeling and Experimental Approaches to Control Silica Modification of Design Silk-Based Biomaterials.
ACS Biomater Sci Eng
; 3(11): 2877-2888, 2017 Nov 13.
Artigo
em Inglês
| MEDLINE | ID: mdl-33418709
15.
Osteoinductive recombinant silk fusion proteins for bone regeneration.
Acta Biomater
; 49: 127-139, 2017 02.
Artigo
em Inglês
| MEDLINE | ID: mdl-27940162
16.
Predicting Silk Fiber Mechanical Properties through Multiscale Simulation and Protein Design.
ACS Biomater Sci Eng
; 3(8): 1542-1556, 2017 Aug 14.
Artigo
em Inglês
| MEDLINE | ID: mdl-28966980
17.
Effect of Terminal Modification on the Molecular Assembly and Mechanical Properties of Protein-Based Block Copolymers.
Macromol Biosci
; 17(9)2017 09.
Artigo
em Inglês
| MEDLINE | ID: mdl-28665510
18.
Recombinant protein blends: silk beyond natural design.
Curr Opin Biotechnol
; 39: 1-7, 2016 06.
Artigo
em Inglês
| MEDLINE | ID: mdl-26686863
19.
Influence of silk-silica fusion protein design on silica condensation in vitro and cellular calcification.
RSC Adv
; 6(26): 21776-21788, 2016 Jan 01.
Artigo
em Inglês
| MEDLINE | ID: mdl-26989487
20.
Conformation Transitions of Recombinant Spidroins via Integration of Time-Resolved FTIR Spectroscopy and Molecular Dynamic Simulation.
ACS Biomater Sci Eng
; 2(8): 1298-1308, 2016 Aug 08.
Artigo
em Inglês
| MEDLINE | ID: mdl-33434983