The Earth Answer: As far as the "Why?" This is because the formula to calculate the magnitude of gravitaiona; attraction between two objects depends on the mass of the onjects. The formula is: Fg = G (m1m2/D2) Where: Fg = The force of gravity between objects
M = Mass
G = The universal gravitational constant
D = The distance between the two objects Substituting values for the masses of the object, the moon and the Earth and canceling out the constant values gives us: F (Earth and Object)/ F (Moon and Object) = Mass Earth/Mass Moon As the mass of the Earth is significantly larger than the mass of the moon Mass Earth/Mass Moon =80) the attraction of the Earth is stronger and the object is pulled towards the Earth.
Concave mirrors are used to give an erect and enlarged image of an object. The image formed is virtual, upright, and magnified when the object is placed between the focal point and the mirror's surface.
An object is usually placed on a glass slide or a petri dish when using a flat microscope platform for viewing. These platforms provide a stable surface for the sample to be securely positioned under the microscope lens for observation.
A satellite is an object which has been placed into orbit by human endeavor.
Cathode rays are particles with mass and energy, which can be obstructed by solid objects in their path. When an object is placed in the path of cathode rays, the particles are blocked from passing through, creating a shadow on the opposite side of the object. This occurs because the object absorbs or scatters the cathode rays, preventing them from continuing in a straight line.
A concave lens can make things appear upside down when placed in front of the eye because it diverges light rays. This causes light from the top of an object to converge towards the bottom of the retina and vice versa, resulting in an inverted image.
The image formed by a concave mirror when the object is placed between the focus and pole is virtual, upright, and magnified. This image appears on the same side as the object.
When using a concave mirror, the object distance (distance of the object from the mirror) can vary depending on where the object is placed. If the object is located beyond the focal point of the mirror, the object distance will be positive. If the object is placed between the mirror and the focal point, the object distance will be negative.
Infinite.
When an object is placed between the focal point (F) and the principal focus (P) of a concave mirror, the image formed is virtual, upright, and magnified. The image is located on the same side as the object and is larger than the object itself.
The distance between an object and a convex lens affects the position, size, and orientation of the image formed. When the object is placed beyond the focal point of the lens, it forms a real and inverted image. When the object is placed between the focal point and the lens, it forms a virtual and upright image.
When a small object is placed on the principal axis of a concave mirror between the focus and the mirror, a virtual and upright image is formed behind the mirror. The image is magnified and located further away from the mirror than the object.
[object Object]
When charged objects are placed near neutral objects, there can be a transfer of electrons between the objects, resulting in the neutral object becoming charged. The charged object can induce a separation of charges in the neutral object, causing it to attract or repel other nearby objects.
An indirect object typically comes between the verb and the direct object in a sentence. It indicates to whom or for whom the action is being done. For example, in the sentence "She gave him a gift," "him" is the indirect object placed between the verb "gave" and the direct object "gift."
When a charged insulator is placed near an uncharged metallic object, the charges in the insulator induce opposite charges in the metallic object through electrostatic induction. This causes the metallic object to become polarized, with one side becoming positively charged and the other side becoming negatively charged. The presence of the insulator affects the behavior of the metallic object by creating an attractive force between the opposite charges, causing the metallic object to be attracted towards the charged insulator.
When a charged object is placed near a neutral object, the charged object can induce a charge separation in the neutral object, causing it to become polarized. This can result in an attraction or repulsion between the two objects depending on the type of charges involved.
Convex lenses invert images when the object is placed between the focal point and the lens. This occurs because the light rays converge towards a point beyond the lens, causing the image to be formed upside down.