SummaryUCS proteins, such as UNC-45, influence muscle contraction and other myosin-dependent motile processes. We report the first X-ray crystal structure of a UCS domain-containing protein, the UNC-45 myosin chaperone from Drosophila melanogaster (DmUNC-45). The structure reveals that the central and UCS domains form a contiguous arrangement of 17 consecutive helical layers that arrange themselves into five discrete armadillo repeat subdomains. Small-angle X-ray scattering data suggest that free DmUNC-45 adopts an elongated conformation and exhibits flexibility in solution. Protease sensitivity maps to a conserved loop that contacts the most carboxy-terminal UNC-45 armadillo repeat subdomain. Amino acid conservation across diverse UCS prot...
The folding of the myosin head often requires a UCS (Unc45, Cro1, She4) domain-containing chaperone....
Abstract Background Proper muscle function is heavily dependent on highly ordered protein complexes....
AbstractContraction of muscles is mediated by highly organized arrays of myosin motor proteins. We r...
SummaryUCS proteins, such as UNC-45, influence muscle contraction and other myosin-dependent motile ...
Title from first page of PDF file (viewed Aug. 27, 2010)Available free in the San Diego State Univer...
The UCS family of proteins is important for myosin folding, stability, and maintenance. To understan...
Myosin is a motor protein that is essential for a variety of processes ranging from intracellular tr...
SummaryThe UCS (UNC-45/CRO1/She4) chaperones play an evolutionarily conserved role in promoting myos...
Includes bibliographical references (pages 47-54).Molecular chaperones bind and stabilize proteins d...
The organization of myosin into motile cellular structures requires precise temporal and spatial reg...
AbstractThe proper folding of many proteins can only be achieved by interaction with molecular chape...
The organization of myosin into motile cellular structures requires precise temporal and spatial reg...
AbstractRecent studies indicate that myosin molecular motors interact inside cells with proteins con...
The folding of the myosin head often requires a UCS (Unc45, Cro1, She4) domain-containing chaperone....
AbstractMyosins are molecular motors that convert chemical energy into mechanical work. Allosterical...
The folding of the myosin head often requires a UCS (Unc45, Cro1, She4) domain-containing chaperone....
Abstract Background Proper muscle function is heavily dependent on highly ordered protein complexes....
AbstractContraction of muscles is mediated by highly organized arrays of myosin motor proteins. We r...
SummaryUCS proteins, such as UNC-45, influence muscle contraction and other myosin-dependent motile ...
Title from first page of PDF file (viewed Aug. 27, 2010)Available free in the San Diego State Univer...
The UCS family of proteins is important for myosin folding, stability, and maintenance. To understan...
Myosin is a motor protein that is essential for a variety of processes ranging from intracellular tr...
SummaryThe UCS (UNC-45/CRO1/She4) chaperones play an evolutionarily conserved role in promoting myos...
Includes bibliographical references (pages 47-54).Molecular chaperones bind and stabilize proteins d...
The organization of myosin into motile cellular structures requires precise temporal and spatial reg...
AbstractThe proper folding of many proteins can only be achieved by interaction with molecular chape...
The organization of myosin into motile cellular structures requires precise temporal and spatial reg...
AbstractRecent studies indicate that myosin molecular motors interact inside cells with proteins con...
The folding of the myosin head often requires a UCS (Unc45, Cro1, She4) domain-containing chaperone....
AbstractMyosins are molecular motors that convert chemical energy into mechanical work. Allosterical...
The folding of the myosin head often requires a UCS (Unc45, Cro1, She4) domain-containing chaperone....
Abstract Background Proper muscle function is heavily dependent on highly ordered protein complexes....
AbstractContraction of muscles is mediated by highly organized arrays of myosin motor proteins. We r...