AbstractThe thick filaments of mammalian and avian skeletal muscle fibers are disordered at low temperature, but become increasingly ordered into an helical structure as the temperature is raised. Wray and colleagues (Schlichting, I., and J. Wray. 1986. J. Muscle Res. Cell Motil. 7:79; Wray, J., R. S. Goody, and K. Holmes. 1986. Adv. Exp. Med. Biol. 226:49–59) interpreted the transition as reflecting a coupling between nucleotide state and global conformation with M·ATP (disordered) being favored at 0°C and M·ADP·Pi (ordered) at 20°C. However, hitherto this has been limited to a qualitative correlation and the biochemical state of the myosin heads required to obtain the helical array has not been unequivocally identified. In the present stu...
AbstractIt is well established that in a skeletal muscle under relaxing conditions, cross-bridges ex...
Adenosine triphosphate-dependent changes in myosin filament structure have been directly observed in...
Skeletal muscles power body movement by converting free energy of ATP hydrolysis into mechanical wor...
AbstractThe degree of helical order of the thick filament of mammalian skeletal muscle is highly dep...
AbstractRaising the temperature of rabbit skeletal muscle from ∼0°C to ∼20°C has been shown to enhan...
Raising the temperature of rabbit skeletal muscle from similar to 0 degrees C to similar to 20 degre...
AbstractLow angle x-ray diffraction patterns from relaxed permeabilized rabbit cardiac trabeculae an...
International audienceContraction of skeletal muscle is regulated by structural changes in both acti...
By using synchrotron radiation and an imaging plate for recording diffraction patterns, we have obta...
AbstractIn isolated thick filaments from many types of muscle, the two head domains of each myosin m...
Using x-rays from a laboratory source and an area detector, myosin layer lines and the diffuse scatt...
Complementation of alternating zones of positive and negative charge in the myosin rod enables molec...
AbstractWhen myosin is attached to actin in a muscle cell, various structures in the filaments are f...
X-ray diffraction patterns were obtained from skinned rabbit psoas muscle under relaxing and rigor c...
The thick (myosin-containing) filaments of vertebrate skeletal muscle are arranged in a hexagonal la...
AbstractIt is well established that in a skeletal muscle under relaxing conditions, cross-bridges ex...
Adenosine triphosphate-dependent changes in myosin filament structure have been directly observed in...
Skeletal muscles power body movement by converting free energy of ATP hydrolysis into mechanical wor...
AbstractThe degree of helical order of the thick filament of mammalian skeletal muscle is highly dep...
AbstractRaising the temperature of rabbit skeletal muscle from ∼0°C to ∼20°C has been shown to enhan...
Raising the temperature of rabbit skeletal muscle from similar to 0 degrees C to similar to 20 degre...
AbstractLow angle x-ray diffraction patterns from relaxed permeabilized rabbit cardiac trabeculae an...
International audienceContraction of skeletal muscle is regulated by structural changes in both acti...
By using synchrotron radiation and an imaging plate for recording diffraction patterns, we have obta...
AbstractIn isolated thick filaments from many types of muscle, the two head domains of each myosin m...
Using x-rays from a laboratory source and an area detector, myosin layer lines and the diffuse scatt...
Complementation of alternating zones of positive and negative charge in the myosin rod enables molec...
AbstractWhen myosin is attached to actin in a muscle cell, various structures in the filaments are f...
X-ray diffraction patterns were obtained from skinned rabbit psoas muscle under relaxing and rigor c...
The thick (myosin-containing) filaments of vertebrate skeletal muscle are arranged in a hexagonal la...
AbstractIt is well established that in a skeletal muscle under relaxing conditions, cross-bridges ex...
Adenosine triphosphate-dependent changes in myosin filament structure have been directly observed in...
Skeletal muscles power body movement by converting free energy of ATP hydrolysis into mechanical wor...