That will never happen - it can't happen actually. Any time you apply a force to an object, it will accelerate - its velocity will change.
Romeo and the nurse talk about how immature Juliet, Benvolio, and Mercutio are, and then fall in love and engage in sexual intercourse.
Horizon line?
It is impossible for a juggernaut and an immovable object to exist in the same universe and dimension.
Yes, a falling apple meets that condition.
An object can be rated on how well it meets given criteria. For example, food can be rated on how well it tastes, or how nutritious it is. But an object's rating does not necessarily equal how well it meets the given criteria; it is a subjective measurement representing how well the rater thinks it meets the criteria. For instance, a rater with a poor understanding of nutrition may rate a food to be more nutritious than it is. In this case, when an object's rating exceeds its actual value, it is considered overrated.
The foot of a cliff is the bottom or lower end of a space or object where the cliff meets the ground or the sea.
When light meets any of the object it interacts with it...the interaction can be reflection, refraction, absorption, polarisation,diffraction or interference depending upon the nature of the body with which it interacts.
There is no such poyhedron or "normal" object.
This scenario presents a paradox, as an unstoppable object would not be able to be stopped by any force, while an immovable object cannot be moved by any force. In reality, such objects cannot coexist within the same universe.
Provide a well written explanation or description of object/idea being concerned.
It depends on the object that it goes through, because if a the surface of an object is big, the more drag it produces. If the object has a small surface that meets the air, then it won't produce drag that much.
The choice of material to make an object depends on factors such as the object's intended use, desired durability, cost constraints, availability of materials, desired aesthetic qualities, and environmental impact. Materials are chosen based on their properties, such as strength, flexibility, conductivity, weight, and corrosion resistance, to ensure that the object meets its functional requirements.