## SEARCH

#### Author

##### ( see all 6)

- Ferraz-Mello, Sylvio [x] 5 (%)
- Celletti, Alessandra 2 (%)
- Hussmann, Hauke 2 (%)
- Rodríguez, Adrián 2 (%)
- Dvorak, Rudolf 1 (%)

#### Subject

- Astronomy [x] 5 (%)
- Physics [x] 5 (%)
- Mathematics, general 4 (%)
- Astrophysics 2 (%)
- Dynamical Systems and Ergodic Theory 2 (%)

## CURRENTLY DISPLAYING:

Most articles

Fewest articles

# Search Results

Showing 1 to 5 of 5 matching Articles
Results per page:

## Preface

### Celestial Mechanics and Dynamical Astronomy (2006-05-01) 95: 1-2 , May 01, 2006

## Preface

### Celestial Mechanics and Dynamical Astronomy (2009-06-01) 104: 1-2 , June 01, 2009

## Preface

### Celestial Mechanics and Dynamical Astronomy (2008-09-01) 102: 1-2 , September 01, 2008

## Errata to “Tidal friction in close-in satellites and exoplanets. The Darwin theory re-visited”

### Celestial Mechanics and Dynamical Astronomy (2009-07-01) 104: 319-320 , July 01, 2009

## Tidal friction in close-in satellites and exoplanets: The Darwin theory re-visited

### Celestial Mechanics and Dynamical Astronomy (2008-05-01) 101: 171-201 , May 01, 2008

This report is a review of Darwin’s classical theory of bodily tides in which we present the analytical expressions for the orbital and rotational evolution of the bodies and for the energy dissipation rates due to their tidal interaction. General formulas are given which do not depend on any assumption linking the tidal lags to the frequencies of the corresponding tidal waves (except that equal frequency harmonics are assumed to span equal lags). Emphasis is given to the cases of companions having reached one of the two possible final states: (1) the super-synchronous stationary rotation resulting from the vanishing of the average tidal torque; (2) capture into the 1:1 spin-orbit resonance (true synchronization). In these cases, the energy dissipation is controlled by the tidal harmonic with period equal to the orbital period (instead of the semi-diurnal tide) and the singularity due to the vanishing of the geometric phase lag does not exist. It is also shown that the true synchronization with non-zero eccentricity is only possible if an extra torque exists opposite to the tidal torque. The theory is developed assuming that this additional torque is produced by an equatorial permanent asymmetry in the companion. The results are model-dependent and the theory is developed only to the second degree in eccentricity and inclination (obliquity). It can easily be extended to higher orders, but formal accuracy will not be a real improvement as long as the physics of the processes leading to tidal lags is not better known.