Newton's Three Laws of Motion

I think your post is both informative and explorative. In a bid to complement your post, it is crucial to understand that the forces involved in this task are the Newtonian forces. The forces, as stated in Newton’s first law act in the sense that an object at rest will not leave that state until a force is applied. For instance, pulling a rope overcomes the force of gravity on an object. Also, as the object approaches the intended elevation, less energy will be applied on the rope, and the object will start to decelerate as the force of gravity becomes more significant than the force produced. To stop the object from moving, a force equal to gravity must be produced to ensure the object’s distance from its current position does not decrease or increase. Newton’s third law of motion directly explores the conservation of momentum. However, to get the conservation of this energy other things must be assumed; that all forces may be exhibited as derivatives of a function of the immediate positions of the masses on which the objects act and this are the kinetic and potential energy. 

In addition to the insight you have provided, it is essential to consider that temperature and heat affect Newton’s first law in the sense that, an increase in a system’s internal energy is equal to the quantity of heat transferred to the system by the amount of work done by the system. The amount of work done by heat transferred to the system involves both potential and kinetic energy. For example, to convert heat from the fire into useful work, a machine, which is more effective at fetching water from deep mines, can be used. With a cylinder filled with steam, down washing with cold water will lead to condensation of the steam, thus, forming a partial vacuum and pulling water up the suction pipe. The steam supply pipe is opened up, and the boiler pressure will force the water up the emission pipe for ground-level disposal. The example provided describes how heat and temperature affect Newtonian forces.