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Why a massive body is easier to break than a tiny body despite the force bonding two particle is the same?
The answer to this question lies in the concept of force and pressure. When a force is applied to an object, it exerts pressure on the object. The larger the object, the more area there is to distribute the force, resulting in less pressure. This means that a massive body can withstand more force before breaking compared to a tiny body, which has less area to distribute the force and therefore experiences higher pressure.
The shape of an object can also play a role in its breakability. Objects with sharp edges or points are more susceptible to breaking because they have smaller areas to distribute the force. This means that the pressure exerted on these points is higher, making them easier to break compared to objects with smoother, more rounded shapes.
Yes, the material of an object is a crucial factor in its breakability. Some materials, such as glass, are more brittle and prone to breaking under pressure compared to others, like metal. This is because the molecular structure of the material determines its strength and ability to withstand force. So, a tiny body made of a brittle material is easier to break compared to a massive body made of a stronger material.
Yes, the speed of impact can also play a role in the breakability of an object. When an object is impacted at a high speed, the force exerted on it is greater, resulting in higher pressure. This makes it easier for the object to break, especially if it is a tiny body with less area to distribute the force. On the other hand, a massive body may be able to withstand the impact better due to its larger surface area.
Aside from the factors mentioned above, there are other factors that can affect an object's breakability. These include temperature, humidity, and the presence of defects or weak points in the object's structure. All of these can influence the strength and integrity of an object, making it more or less susceptible to breaking under pressure.