Skip to Main Content (Press Enter)

Logo UNIBG
  • ×
  • Home
  • Degrees
  • Courses
  • People
  • Outputs
  • Organizations
  • Third Mission
  • Projects
  • Expertise & Skills

UNI-FIND
Logo UNIBG

|

UNI-FIND

unibg.it
  • ×
  • Home
  • Degrees
  • Courses
  • People
  • Outputs
  • Organizations
  • Third Mission
  • Projects
  • Expertise & Skills
  1. Outputs

HyperBeta: characterizing the structural dynamics of proteins and self-assembling peptides

Academic Article
Publication Date:
2021
Short description:
(2021). HyperBeta: characterizing the structural dynamics of proteins and self-assembling peptides [journal article - articolo]. In SCIENTIFIC REPORTS. Retrieved from http://hdl.handle.net/10446/180724
abstract:
Self-assembling processes are ubiquitous phenomena that drive the organization and the hierarchical formation of complex molecular systems. The investigation of assembling dynamics, emerging from the interactions among biomolecules like amino-acids and polypeptides, is fundamental to determine how a mixture of simple objects can yield a complex structure at the nano-scale level. In this paper we present HyperBeta, a novel open-source software that exploits an innovative algorithm based on hyper-graphs to efficiently identify and graphically represent the dynamics of β-sheets formation. Differently from the existing tools, HyperBeta directly manipulates data generated by means of coarse-grained molecular dynamics simulation tools (GROMACS), performed using the MARTINI force field. Coarse-grained molecular structures are visualized using HyperBeta ’s proprietary real-time high-quality 3D engine, which provides a plethora of analysis tools and statistical information, controlled by means of an intuitive event-based graphical user interface. The high-quality renderer relies on a variety of visual cues to improve the readability and interpretability of distance and depth relationships between peptides. We show that HyperBeta is able to track the β-sheets formation in coarse-grained molecular dynamics simulations, and provides a completely new and efficient mean for the investigation of the kinetics of these nano-structures. HyperBeta will therefore facilitate biotechnological and medical research where these structural elements play a crucial role, such as the development of novel high-performance biomaterials in tissue engineering, or a better comprehension of the molecular mechanisms at the basis of complex pathologies like Alzheimer’s disease.
Iris type:
1.1.01 Articoli/Saggi in rivista - Journal Articles/Essays
List of contributors:
Nobile, Marco S.; Fontana, Federico; Manzoni, Luca; Cazzaniga, Paolo; Mauri, Giancarlo; Saracino, Gloria A. A.; Besozzi, Daniela; Gelain, Fabrizio
Authors of the University:
CAZZANIGA Paolo
Handle:
https://aisberg.unibg.it/handle/10446/180724
Full Text:
https://aisberg.unibg.it/retrieve/handle/10446/180724/412854/s41598-021-87087-0.pdf
Published in:
SCIENTIFIC REPORTS
Journal
  • Research

Research

Concepts


Settore INF/01 - Informatica
  • Use of cookies

Powered by VIVO | Designed by Cineca | 26.3.5.1