Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

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Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

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Eqolisins are rare acid proteases found in archaea, bacteria and fungi. Certain fungi secrete acids as part of their lifestyle and interestingly these also have many eqolisin paralogs, up to nine paralogs have been recorded. |

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Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

Eqolisins are rare acid proteases found in archaea, bacteria and fungi. Certain fungi secrete acids as part of their lifestyle and interestingly these also have many eqolisin paralogs, up to nine paralogs have been recorded. |

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Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

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Đang chuẩn bị liên kết để tải về tài liệu: Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

Eqolisins are rare acid proteases found in archaea, bacteria and fungi. Certain fungi secrete acids as part of their lifestyle and interestingly these also have many eqolisin paralogs, up to nine paralogs have been recorded. |

Integrated 3D-QSAR, molecular docking, and molecular dynamics simulation studies on 1,2,3-triazole based derivatives for designing new acetylcholinesterase inhibitors

Timescales for convergence in all-atom molecular dynamics simulations of hydrated amorphous xylan

Design, structure prediction and molecular dynamics simulation of a fusion construct containing malaria pre-erythrocytic vaccine candidate, PfCelTOS, and human interleukin 2 as adjuvant

Structure and physicochemical properties of the Aβ42 tetramer: Multiscale molecular dynamics simulations

Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins

Integrating protein structural dynamics and evolutionary analysis with Bio3D

Investigation of pressure effect on the structure of 3Al2O3.2SiO2 system

Influence of pressure and atomic concentration on structure and mechanical properties of CuNi alloy by molecular dynamics simulation

Investigating the structure and thermodynamic properties of silicene materials when cooling fast by molecular dynamics simulation

Molecular dynamics study of pressure effect on structure and mechanical properties of CuNi alloy

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Molecular dynamics and structure function analysis show that substrate binding and specificity are major forces in the functional diversification of Eqolisins