Molecular Dynamics (MD) simulations have been used to understand how protein structure, dynamics, and flexibility are affected by adaptation to high temperature for several years. We report here the results of the high temperature MD simulations of Bacillus stearothermophilus L1 (L1 lipase). We found that the N-terminal moiety of the enzyme showed a high flexibility and dynamics during high temperature simulations which preceded and followed by clear structural changes in two specific regions; the small domain and the main catalytic domain or core domain of the enzyme. These two domains interact with each other through a Zn(2+)-binding coordination with Asp-61 and Asp-238 from the core domain and His-81 and His-87 from the small domain. Int...
Proteins in thermophilic organisms remain stable and function optimally at high temperatures. Owing ...
<p>Simulations were performed at several temperatures (shown in Kelvin in the inset of the upper pan...
The adaptation of microorganisms to extreme living temperatures requires the evolution of enzymes wi...
An all-atom level MD simulation in explicit solvent at high temperature is a powerful technique to i...
The stability of biocatalysts is an important criterion for a sustainable industrial operation econo...
Structural of thermostable enzyme offers insightninto mechanisms used to enhance thermal stability w...
Lipases are known for their versatility in addition to their ability to digest fat. They can be used...
The structure, dynamics and flexibility of thermoalkalophilic lipases of Bacillus stearothermophilu...
Improving the thermostability of industrial enzymes is an important protein engineering challenge. P...
The L1 lipase derived from Bacillus stearothermophilus is one of the most applied enzymes that shows...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Proteins in thermophilic organisms remain stable and function optimally at high temperatures. Owing ...
The psychrophilic enzyme is an interesting subject to study due to its special ability to adapt to e...
Proteins in thermophilic organisms remain stable and function optimally at high temperatures. Owing ...
<p>Simulations were performed at several temperatures (shown in Kelvin in the inset of the upper pan...
The adaptation of microorganisms to extreme living temperatures requires the evolution of enzymes wi...
An all-atom level MD simulation in explicit solvent at high temperature is a powerful technique to i...
The stability of biocatalysts is an important criterion for a sustainable industrial operation econo...
Structural of thermostable enzyme offers insightninto mechanisms used to enhance thermal stability w...
Lipases are known for their versatility in addition to their ability to digest fat. They can be used...
The structure, dynamics and flexibility of thermoalkalophilic lipases of Bacillus stearothermophilu...
Improving the thermostability of industrial enzymes is an important protein engineering challenge. P...
The L1 lipase derived from Bacillus stearothermophilus is one of the most applied enzymes that shows...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Molecular dynamics simulations were employed to study how protein solution structure and dynamics ar...
Proteins in thermophilic organisms remain stable and function optimally at high temperatures. Owing ...
The psychrophilic enzyme is an interesting subject to study due to its special ability to adapt to e...
Proteins in thermophilic organisms remain stable and function optimally at high temperatures. Owing ...
<p>Simulations were performed at several temperatures (shown in Kelvin in the inset of the upper pan...
The adaptation of microorganisms to extreme living temperatures requires the evolution of enzymes wi...