Proteins can change conformation under stress, which can lead to disruption of their biological function and result in a number of diseases[1]. In an effort to understand the effect of external stresses on protein conformation, we have performed long term molecular dynamics simulations of insulin chain ß in several different environments. The conformational behaviour of the protein under thermal and electric field stresses was compared to the reference system under ambient conditions. We found the system under electric field stress to behave similarly to the system under thermal stress, both adopting conformations rarely seen under ambient conditions
A number of research studies have been conducted to understand the effects of external static and os...
Thesis: Ph. D., Massachusetts Institute of Technology, Computational and Systems Biology Program, 20...
The molecular dynamic (MD) modeling approach was applied to evaluate the effect of an external elect...
The response of proteins to different forms of stress continues to be a topic of major interest, esp...
The response of proteins to different forms of stress continues to be a topic of major interest, esp...
There are many unanswered questions regarding the precise way in which proteins respond to external ...
The use of electromagnetic devices such as microwave ovens and mobile phones has certainly brought c...
A series of molecular dynamics (MD) simulations up to 1 μs for bovine insulin monomer in different e...
A molecular dynamic (MD) modeling approach was applied to evaluate the effect of external electric f...
The effect of pulsed and oscillating electric fields with different frequencies on the conformationa...
Multiple molecular dynamics simulations totaling more than 100 ns were performed on chain B of insul...
Protein folding and unfolding under the effect of exogenous perturbations remains a topic of great i...
Previous studies on potential interactions of electromagnetic field (EMF) with proteins have reporte...
AbstractWe demonstrate that an external constant electric field is able to modify the secondary stru...
Resistance of biomolecules to high electric fields is a main concern for nanobioelectronics/nanobios...
A number of research studies have been conducted to understand the effects of external static and os...
Thesis: Ph. D., Massachusetts Institute of Technology, Computational and Systems Biology Program, 20...
The molecular dynamic (MD) modeling approach was applied to evaluate the effect of an external elect...
The response of proteins to different forms of stress continues to be a topic of major interest, esp...
The response of proteins to different forms of stress continues to be a topic of major interest, esp...
There are many unanswered questions regarding the precise way in which proteins respond to external ...
The use of electromagnetic devices such as microwave ovens and mobile phones has certainly brought c...
A series of molecular dynamics (MD) simulations up to 1 μs for bovine insulin monomer in different e...
A molecular dynamic (MD) modeling approach was applied to evaluate the effect of external electric f...
The effect of pulsed and oscillating electric fields with different frequencies on the conformationa...
Multiple molecular dynamics simulations totaling more than 100 ns were performed on chain B of insul...
Protein folding and unfolding under the effect of exogenous perturbations remains a topic of great i...
Previous studies on potential interactions of electromagnetic field (EMF) with proteins have reporte...
AbstractWe demonstrate that an external constant electric field is able to modify the secondary stru...
Resistance of biomolecules to high electric fields is a main concern for nanobioelectronics/nanobios...
A number of research studies have been conducted to understand the effects of external static and os...
Thesis: Ph. D., Massachusetts Institute of Technology, Computational and Systems Biology Program, 20...
The molecular dynamic (MD) modeling approach was applied to evaluate the effect of an external elect...