Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design
Computationally driven engineering of proteins aims to allow them to withstand an extended range of conditions and to mediate modified or novel functions. Therefore, it is crucial to the biotechnological industry, to biomedicine and to afford new challenges in environmental sciences, such as biocata...
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doaj-93aedfa75a824d7abbfb01f6acd780982021-01-02T05:08:46ZengElsevierComputational and Structural Biotechnology Journal2001-03702020-01-011817741789Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological designFilippo Vascon0Matteo Gasparotto1Marta Giacomello2Laura Cendron3Elisabetta Bergantino4Francesco Filippini5Irene Righetto6Synthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, ItalySynthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, ItalyBioenergetic Organelles Unit, Department of Biology, University of Padua, Italy; Department of Biomedical Sciences, University of Padua, ItalySynthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, ItalySynthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, ItalySynthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, Italy; Corresponding author.Synthetic Biology and Biotechnology Unit, Department of Biology, University of Padua, Italy; Corresponding author.Computationally driven engineering of proteins aims to allow them to withstand an extended range of conditions and to mediate modified or novel functions. Therefore, it is crucial to the biotechnological industry, to biomedicine and to afford new challenges in environmental sciences, such as biocatalysis for green chemistry and bioremediation. In order to achieve these goals, it is important to clarify molecular mechanisms underlying proteins stability and modulating their interactions. So far, much attention has been given to hydrophobic and polar packing interactions and stability of the protein core. In contrast, the role of electrostatics and, in particular, of surface interactions has received less attention. However, electrostatics plays a pivotal role along the whole life cycle of a protein, since early folding steps to maturation, and it is involved in the regulation of protein localization and interactions with other cellular or artificial molecules. Short- and long-range electrostatic interactions, together with other forces, provide essential guidance cues in molecular and macromolecular assembly. We report here on methods for computing protein electrostatics and for individual or comparative analysis able to sort proteins by electrostatic similarity. Then, we provide examples of electrostatic analysis and fingerprints in natural protein evolution and in biotechnological design, in fields as diverse as biocatalysis, antibody and nanobody engineering, drug design and delivery, molecular virology, nanotechnology and regenerative medicine.http://www.sciencedirect.com/science/article/pii/S2001037020303184 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Filippo Vascon Matteo Gasparotto Marta Giacomello Laura Cendron Elisabetta Bergantino Francesco Filippini Irene Righetto |
spellingShingle |
Filippo Vascon Matteo Gasparotto Marta Giacomello Laura Cendron Elisabetta Bergantino Francesco Filippini Irene Righetto Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design Computational and Structural Biotechnology Journal |
author_facet |
Filippo Vascon Matteo Gasparotto Marta Giacomello Laura Cendron Elisabetta Bergantino Francesco Filippini Irene Righetto |
author_sort |
Filippo Vascon |
title |
Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design |
title_short |
Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design |
title_full |
Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design |
title_fullStr |
Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design |
title_full_unstemmed |
Protein electrostatics: From computational and structural analysis to discovery of functional fingerprints and biotechnological design |
title_sort |
protein electrostatics: from computational and structural analysis to discovery of functional fingerprints and biotechnological design |
publisher |
Elsevier |
series |
Computational and Structural Biotechnology Journal |
issn |
2001-0370 |
publishDate |
2020-01-01 |
description |
Computationally driven engineering of proteins aims to allow them to withstand an extended range of conditions and to mediate modified or novel functions. Therefore, it is crucial to the biotechnological industry, to biomedicine and to afford new challenges in environmental sciences, such as biocatalysis for green chemistry and bioremediation. In order to achieve these goals, it is important to clarify molecular mechanisms underlying proteins stability and modulating their interactions. So far, much attention has been given to hydrophobic and polar packing interactions and stability of the protein core. In contrast, the role of electrostatics and, in particular, of surface interactions has received less attention. However, electrostatics plays a pivotal role along the whole life cycle of a protein, since early folding steps to maturation, and it is involved in the regulation of protein localization and interactions with other cellular or artificial molecules. Short- and long-range electrostatic interactions, together with other forces, provide essential guidance cues in molecular and macromolecular assembly. We report here on methods for computing protein electrostatics and for individual or comparative analysis able to sort proteins by electrostatic similarity. Then, we provide examples of electrostatic analysis and fingerprints in natural protein evolution and in biotechnological design, in fields as diverse as biocatalysis, antibody and nanobody engineering, drug design and delivery, molecular virology, nanotechnology and regenerative medicine. |
url |
http://www.sciencedirect.com/science/article/pii/S2001037020303184 |
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