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Josh0768
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In high school I learned about three kinds of motion in classical mechanics - translation, rotation, and oscillation. Are there any other kinds of motion in the physical world?
I think that the inclusion of oscillation in the OP really opened the door to a lot of patterns of motion. I don't know how much the OP would really want to include, but I think that Brownian motion is certainly a fundamental pattern. There are a lot of patterns of motion that can be modeled as a time series with different random distributions.anorlunda said:Brownian
Edit: Also diffusion.
Perhaps he is looking for the types of motion that can be sustained with no forces applied and with energy conserved.anorlunda said:@Josh0768, I have a question for you. Motion is motion. Who cares whether people choose to describe it as 3 kinds of motion or 30 kinds? That doesn't change the physics.
anorlunda said:That doesn't change the physics.
Top Trumps rides again. Beware.anorlunda said:@Josh0768, I have a question for you. Motion is motion. Who cares whether people choose to describe it as 3 kinds of motion or 30 kinds? That doesn't change the physics.
Translation refers to the movement of an object in a straight line, while rotation refers to the movement of an object around a fixed point or axis. Oscillation, on the other hand, refers to the repetitive back and forth movement of an object around a central point or equilibrium position.
Some examples of motion beyond translation, rotation, and oscillation include circular motion, projectile motion, and simple harmonic motion. These types of motion involve a combination of translation, rotation, and oscillation.
The study of motion beyond translation, rotation, and oscillation is relevant in many real-world applications, such as understanding the movement of planets and celestial bodies, designing roller coasters and other amusement park rides, and developing technologies like gyroscopes and accelerometers.
Some key principles and laws that govern motion beyond translation, rotation, and oscillation include Newton's laws of motion, the law of conservation of energy, and the laws of thermodynamics. These principles and laws help explain and predict the behavior of objects in motion.
Understanding motion beyond translation, rotation, and oscillation is crucial for making advancements in the field of physics. It allows scientists to develop new theories and technologies, improve existing models and equations, and gain a deeper understanding of the fundamental laws that govern the universe.