That is very nifty (and probably correcet), but I don't see it if you don't post your working. Especially since you start out from zero relevant equations !isukatphysics69 said:
Call it ##M_P## and proceed. Perhaps it divides outisukatphysics69 said:
You can just keep working with Mpulley. But you don't even have to do it.isukatphysics69 said:
Yes the problem later ask me to calculate the disk mass, it is 6:30am I was too tired to type out all of the work I am going to sleep right now but I'm curious why they have velocity I was wondering if I need to consider energy on this problem or notmfb said:
A massive pulley problem is a type of physics problem that involves a system of objects connected by a pulley, with at least one of the objects having a significant mass. The goal of the problem is to determine the motion and forces acting on the objects in the system.
The key principles involved in solving a massive pulley problem are Newton's laws of motion, conservation of energy, and the concept of rotational motion. In these problems, the forces acting on the objects can be broken down into components and analyzed using these principles.
The tension in the rope can be determined by analyzing the forces acting on the objects in the system. In general, the tension will be equal at all points along the rope, with the exception of any points where the rope changes direction or goes over a frictionless pulley.
Yes, massive pulley problems are common in real-world applications, particularly in engineering and physics. Examples include systems involving cranes, elevators, and various types of machinery that use pulleys to lift or move heavy objects.
Some strategies for solving a difficult massive pulley problem include drawing free-body diagrams for each object in the system, breaking down forces into components, applying Newton's laws of motion, and using conservation of energy. It can also be helpful to identify any unknown variables and use algebra to solve for them.
