WD40 repeat proteins commonly form seven-bladed beta-propellers that function as versatile platforms for protein interactions, signaling, transcription, protein degradation, and cellular regulation.
Beta-propeller proteins can be classified by blade number, sequence repeats, structural features, and biological function. Explore four-, five-, six-, seven-, and eight-bladed beta-propellers, WD40 and Kelch proteins, and important examples.
The beta-propeller is a distinctive protein fold formed by multiple beta-sheet blades arranged around a central axis. Learn how its blades, loops, hydrogen bonds, and central region determine its structure and function.
WD40 repeat proteins commonly form seven-bladed beta-propellers that function as versatile platforms for protein interactions, signaling, transcription, protein degradation, and cellular regulation.
Beta-propeller proteins can be classified by blade number, sequence repeats, structural features, and biological function. Explore four-, five-, six-, seven-, and eight-bladed beta-propellers, WD40 and Kelch proteins, and important examples.
The beta-propeller is a distinctive protein fold formed by multiple beta-sheet blades arranged around a central axis. Learn how its blades, loops, hydrogen bonds, and central region determine its structure and function.
