Tidal bulges are caused by the gravitational pull of the moon and the sun on the Earth's oceans, creating a slight distortion in the shape of the water.
The rotational force of the Earth-moon system causes tidal bulges in the ocean. This force creates a gravitational pull that leads to the rise and fall of ocean levels in a predictable pattern known as tides.
During high tide, there are two bulges because of the gravitational pull of the moon and the sun on the Earth's water. This causes the water to rise in two areas on opposite sides of the Earth, creating the two bulges.
The moon's gravitational pull creates tidal bulges on the Earth's surface. These bulges create friction with the ocean floors, transferring angular momentum from the Earth's rotation to the moon's orbit. Over time, this process causes Earth's rotation to slow down and the moon's orbit to expand.
It's an outdated theory that assumed that solar systems (i.e. planets) were very rare and were caused by two stars passing so close to each other that they pulled matter out of each others substance. The debris supposedly condensed into planets. If you read old sci-fi stories from the 1930's and 40's you'll see this taken as fact.
A tidal bore - is formed when the sea is 'forced' into a narrow place such as the mouth of a river etc. The river Severn in the UK is well-known for its tidal bore. The effect lasts long enough to allow people to water-ski without being towed behind a boat !
it means a tidal that bulges when the moon is a full moon.
a spit
Tidal currents are primarily caused by the gravitational pull of the moon and to a lesser extent the sun on the Earth's water bodies. As the moon orbits Earth, its gravitational pull creates bulges in the ocean water, causing high and low tides which in turn generate tidal currents as the water moves to balance out these bulges.
two tidal bulges
When an observer is located between tidal bulges, they experience low tide. This occurs because the gravitational pull of the moon and the sun creates bulges of water on opposite sides of the Earth, leaving lower water levels in the areas between these bulges. As a result, the observer will notice a significant drop in water level during this phase of the tidal cycle.
The pull of the Moon - and, to a lesser degree, of the Sun - causes "tidal bulges". These bulges of water cause the high tides on Earth. The Moon's gravitational pull on the bulge of water nearest to the Moon, causes the Earth's rotation to very gradually slow down, due to frictional forces. Finally, (because of the need to conserve "angular momentum") it causes the Moon to gradually move away from Earth.
Two. Tides result from the two tidal bulges that "move" around the earth daily as a result of the gravitational attractions of the moon and sun and the rotation of the earth.
The gravitational pull of the Sun and the Moon cause the tidal bulges.
The pull of the Moon - and, to a lesser degree, of the Sun - causes "tidal bulges". These bulges of water cause the high tides on Earth. The Moon's gravitational pull on the bulge of water nearest to the Moon, causes the Earth's rotation to very gradually slow down, due to frictional forces. Finally, (because of the need to conserve "angular momentum") it causes the Moon to gradually move away from Earth.
Moon. Tidal bulges are caused by the gravitational force of the Moon pulling on the Earth's water, creating two high tides on opposite sides of the Earth that align with the Moon.
When an observer is located between tidal bulges, they typically experience a low tide. This is because tidal bulges are formed by the gravitational pull of the moon and the sun, causing water to be drawn towards those celestial bodies. As a result, areas between the bulges experience lower water levels. Therefore, when positioned between these bulges, the observer is at a point of minimal water level, indicating low tide.
No, tidal bulges are caused by the gravitational pull of the moon and the sun on the Earth's oceans, resulting in a slight distortion of the water's surface. Turbidity currents are fast-moving underwater sediment flows that are driven by gravity, occurring independently of tidal forces.