Non-equilibrium applications of Newton's Laws of motion

In summary, to find the magnitude and direction of the net force causing a car to decelerate from 27 m/s to 17.0 m/s in 8.00s, you can calculate the acceleration using the given data and then use Newton's Second Law (F=ma) to find the net force.
  • #1
Mitsuki
1
0

Homework Statement


A 1380kg car is moving due east with an initial speed of 27 m/s . after 8.00s the car has slowed down to 17.0 m/s . Find the magnitude and direction of the net force that produces the deceleration


Homework Equations


Net force of x= MAx
Net force of y= MAy


The Attempt at a Solution


I am not sure how to start this question. Can anyone give me hints to start out this questions?
 
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  • #2
You know the mass, and can find the acceleration with the given data.
 
  • #3
Mitsuki said:

Homework Statement


A 1380kg car is moving due east with an initial speed of 27 m/s . after 8.00s the car has slowed down to 17.0 m/s . Find the magnitude and direction of the net force that produces the deceleration


Homework Equations


Net force of x= MAx
Net force of y= MAy


The Attempt at a Solution


I am not sure how to start this question. Can anyone give me hints to start out this questions?


Ok, you know the Velocity change in a certain amount of time.This is actually what we call "acceleration" and as you know if there is an acceleration then there must be a force acting in these conditions.So i advice you to calculate the acceleration then use Newton's 2nd law (F=m.a)...
 

Related to Non-equilibrium applications of Newton's Laws of motion

1. What are non-equilibrium applications of Newton's Laws of Motion?

Non-equilibrium applications of Newton's Laws of Motion refer to situations where an object is not in a state of balance or equilibrium, and therefore experiences acceleration or changes in motion. These applications are commonly seen in everyday life, such as a car accelerating or a person jumping off a diving board.

2. What is the difference between equilibrium and non-equilibrium situations?

In equilibrium situations, Newton's Laws state that the net force acting on an object is zero, resulting in no acceleration or change in motion. In non-equilibrium situations, there is a net force acting on the object, causing it to accelerate or change its motion.

3. How do Newton's Laws apply to non-equilibrium situations?

Newton's Laws of Motion still apply to non-equilibrium situations, as they explain the relationship between force, mass, and acceleration. In these cases, the net force acting on the object will result in a change in its motion, as described by the second law of motion (F=ma).

4. What are some examples of non-equilibrium applications of Newton's Laws of Motion?

Examples of non-equilibrium applications of Newton's Laws of Motion include a rocket launching into space, a ball rolling down a hill, or a person riding a skateboard. In each of these cases, there is a net force acting on the object, causing it to accelerate or change its motion.

5. How are non-equilibrium applications of Newton's Laws of Motion important in scientific research?

Non-equilibrium applications of Newton's Laws of Motion are crucial in understanding and predicting the behavior of objects in various situations. They are particularly important in fields such as engineering, physics, and biology, where the study of forces and motion is essential in developing new technologies and understanding natural phenomena.

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