Departments | |
---|---|
Book Series (92) |
1307
|
Humanities |
2291
|
Natural Sciences |
5354
|
Mathematics | 224 |
Informatics | 313 |
Physics | 975 |
Chemistry | 1354 |
Geosciences | 131 |
Human medicine | 242 |
Stomatology | 10 |
Veterinary medicine | 99 |
Pharmacy | 147 |
Biology | 830 |
Biochemistry, molecular biology, gene technology | 117 |
Biophysics | 25 |
Domestic and nutritional science | 44 |
Agricultural science | 996 |
Forest science | 201 |
Horticultural science | 20 |
Environmental research, ecology and landscape conservation | 145 |
Engineering |
1745
|
Common |
91
|
Leitlinien Unfallchirurgie
5. Auflage bestellen |
Extract, PDF (130 KB)
Table of Contents, PDF (51 KB)
In order to improve knowledge on macromolecular structural formation and self-assembly, this work proposes a physics-based and data-driven multiscale modeling framework capable of describing structural formation on micro-meter and milli-second scales near molecular-level precision. The framework abstracts macromolecules as anisotropic unit objects and models the interactions and environment using data-driven approaches. The models are parameterized in a bottom-up fashion and validated top-down by comparison with literature and collaborator data for self-assembly of three model system: alginate gelation, hepatitis B virus capsids, and the pyruvate dehydrogenase complex.
ISBN-13 (Hard Copy) | 9783736979727 |
ISBN-13 (eBook) | 9783736969728 |
Language | English |
Page Number | 296 |
Lamination of Cover | matt |
Edition | 1. |
Book Series | SPE-Schriftenreihe |
Volume | 25 |
Publication Place | Göttingen |
Place of Dissertation | TU Hamburg |
Publication Date | 2024-02-27 |
General Categorization | Dissertation |
Departments |
Biochemistry, molecular biology, gene technology
Biophysics Mechanical and process engineering |
Keywords | multiscale modeling, molecular modeling, Molecular Discrete Element Method, MDEM, Discrete Element Method, DEM, coarse-graining, Molecular Dynamics, MD, Langevin dynamics, machine learning, ML, supervised learning, Kriging, macromolecular self-assembly, structural formation simulation, anisotropic macromolecules, assembly pathways, assembly kinetics, molecular collisions, 6D intermolecular interaction potentials, specialized force-fields, molecular binding, bonded interaction, hepatitis B core antigen, HBcAg, capsid formation, virus-like particles, VLP, pyruvate dehydrogenase complex, PDC, alginate, alginic acid, biopolymer, gelation, gel, aerogel, porous nanomaterial, anisotropic diffusion, ion binding model, calcium, proteins, enzymes, multi-enzymatic biocatalysis, metabolic channeling, high performance computing, HLRS, GPU implementation, MUSEN |