Abstract
The objective of this article was to document the energy-transducing and regulatory interactions in supramolecular complexes such as motor, pump, and clock ATPases. The dynamics and structural features were characterized by motion and distance measurements using spin-labeling electron paramagnetic resonance (EPR) spectroscopy. In particular, we focused on myosin ATPase with actin–troponin–tropomyosin, neural kinesin ATPase with microtubule, P-type ion-motive ATPase, and cyanobacterial clock ATPase. Finally, we have described the relationships or common principles among the molecular mechanisms of various energy-transducing systems and how the large-scale thermal structural transition of flexible elements from one state to the other precedes the subsequent irreversible chemical reactions.
Author supplied keywords
- (points)the fittedwithspectrumthe fittedmodulationspectrum(continuousmodulationline).(continuousOnly theline).singleOnlyGaussianthe singledistributionGaussianshowndistributionin the
- EPR spectroscopy
- Energy transduction
- KaiC
- Kinesin
- Myosin
- P-type ATPase
- Protein structural dynamics
- Spin labeling
- Tropomyosin
- Troponin
Cite
CITATION STYLE
Arata, T. (2020, January 2). Myosin and other energy-transducing ATPases: Structural dynamics studied by electron paramagnetic resonance. International Journal of Molecular Sciences. MDPI AG. https://doi.org/10.3390/ijms21020672
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