Conceptual model shows tidal forces and energy dissipation in Earth–Moon system, highlighting lunar distance effects.
This work presents an integrated conceptual model describing the early tidal evolution of the Earth–Moon system following the lunar-forming impact. The model combines conservation of angular momentum, tidal torque scaling proportional to 1/D^6, nonlinear tidal dissipation, atmospheric tides, climatic modulation, and tectonic influences. When the Moon is assumed to have initially formed at a distance of approximately 25–35 thousand km from Earth, tidal forces become several thousand times stronger than today. This produces kilometer-scale tidal amplitudes and extremely strong energy dissipation in the early oceans. The analysis suggests that a significant fraction of the lunar orbital expansion likely occurred during the earliest stage of the system’s evolution, followed by a long-term gradual recession toward the present orbital distance.
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Kujtim Gjoka (2026) studied this question.
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