k Dynamin enzyme, molecular model Dynamin enzyme. Computer model showing the tertiary structure of the enzyme dynamin. Alpha helices green coils, beta sheets arrows and linking regions thin, wirelike can be seen, forming a pleckstrin homology PH domain. Domains are structural regions of enzymes that are often actively involved in biological processes. Dynamin is primarily responsible for facilitating the absorption of material from outside the cell endocytosis in eukaryotic cells. Dynamins PH domain is thought to play an important role in the enzymes function in endocytosis. Stock Photo - Afloimages
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Dynamin enzyme, molecular model Dynamin enzyme. Computer model showing the tertiary structure of the enzyme dynamin. Alpha helices  green coils , beta sheets  arrows  and linking regions  thin, wire like  can be seen, forming a pleckstrin homology  PH  domain. Domains are structural regions of enzymes that are often actively involved in biological processes. Dynamin is primarily responsible for facilitating the absorption of material from outside the cell  endocytosis  in eukaryotic cells. Dynamin s PH domain is thought to play an important role in the enzyme s function in endocytosis.
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Dynamin enzyme, molecular model

Dynamin enzyme. Computer model showing the tertiary structure of the enzyme dynamin. Alpha helices (green coils), beta sheets (arrows) and linking regions (thin, wire-like) can be seen, forming a pleckstrin homology (PH) domain. Domains are structural regions of enzymes that are often actively involved in biological processes. Dynamin is primarily responsible for facilitating the absorption of material from outside the cell (endocytosis) in eukaryotic cells. Dynamin's PH domain is thought to play an important role in the enzyme's function in endocytosis.

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