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Selected Works

Ellen Moomaw

Protein domains

Articles 1 - 2 of 2

Full-Text Articles in Biochemistry, Biophysics, and Structural Biology

Protein Similarity Networks Reveal Relationships Among Sequence, Structure, And Function Within The Cupin Superfamily, Richard Uberto, Ellen W. Moomaw Jun 2016

Protein Similarity Networks Reveal Relationships Among Sequence, Structure, And Function Within The Cupin Superfamily, Richard Uberto, Ellen W. Moomaw

Ellen Moomaw

The cupin superfamily is extremely diverse and includes catalytically inactive seed storage proteins, sugar-binding metal-independent epimerases, and metal-dependent enzymes possessing dioxygenase, decarboxylase, and other activities. Although numerous proteins of this superfamily have been structurally characterized, the functions of many of them have not been experimentally determined. We report the first use of protein similarity networks (PSNs) to visualize trends of sequence and structure in order to make functional inferences in this remarkably diverse superfamily. PSNs provide a way to visualize relatedness of structure and sequence among a given set of proteins. Structure- and sequence-based clustering of cupin members reflects functional …


Protein Similarity Networks Reveal Relationships Among Sequence, Structure, And Function Within The Cupin Superfamily, Richard Uberto, Ellen W. Moomaw Jun 2016

Protein Similarity Networks Reveal Relationships Among Sequence, Structure, And Function Within The Cupin Superfamily, Richard Uberto, Ellen W. Moomaw

Ellen Moomaw

The cupin superfamily is extremely diverse and includes catalytically inactive seed storage proteins, sugar-binding metal-independent epimerases, and metal-dependent enzymes possessing dioxygenase, decarboxylase, and other activities. Although numerous proteins of this superfamily have been structurally characterized, the functions of many of them have not been experimentally determined. We report the first use of protein similarity networks (PSNs) to visualize trends of sequence and structure in order to make functional inferences in this remarkably diverse superfamily. PSNs provide a way to visualize relatedness of structure and sequence among a given set of proteins. Structure- and sequence-based clustering of cupin members reflects functional …