Materials that bounce back to shape after the force applied is stopped are called Elastic Materials.
The nucleus is make up of Protons and Neutrons. These protons and neutrons are then make up of even smaller particles called quarks.Nothing has been listed as the followings. Any way nucleus would have nucleons. Mainly protons positively charged and neutrons being neutral. Apart from this there is trasaction of meson particles between these nucleons which brings, as an outcome, an extremely large attractive force called nuclear force. This nuclear force keeps the repulsive protons within a distance of the order of 10-15m
The force that keeps objects from floating off into space is called gravity. Gravity is the force of attraction between two objects with mass, such as the Earth and an object on its surface. It is responsible for keeping objects grounded on the Earth's surface.
A retrovirus is a type of virus that stores its genetic information in the form of RNA instead of DNA. It replicates by converting its RNA into DNA using an enzyme called reverse transcriptase, which allows the virus to integrate its genetic material into the host cell's DNA. Examples of retroviruses include HIV and HTLV.
The greatest velocity a falling object can reach is called terminal velocity. Terminal velocity occurs when the force of air resistance on the object matches the force of gravity pulling it down, resulting in a constant speed.
The nucleus is held together by the strong nuclear force, which overcomes the electromagnetic repulsion between positively charged protons. This force is carried by particles called mesons and helps to bind protons and neutrons together in the nucleus.
The ability of a material to bounce after being disturbed is called resilience. It is a measure of how well a material can return to its original shape or position after being deformed by an external force. Materials with high resilience are able to absorb energy and then release it, allowing them to bounce back effectively.
The force needed to make a ball bounce depends on factors like the weight and material of the ball, the surface it lands on, and the height of the bounce desired. Generally, a greater force will result in a higher bounce, but it must be applied at the right angle and with the right timing to achieve the desired effect.
That depends on the elasticity of the material used to make the rugby ball, the pressure to which it is inflated, and the force exerted on the ball to make it bounce.
A basketball will typically bounce higher than a baseball or soccer ball due to its higher air pressure and elastic properties of its material. However, factors such as the surface on which they bounce and the force with which they are dropped can also affect the height of the bounce.
The weight of the basketball does not affect the height of its bounce. The height of the bounce is determined by factors like the force applied to the ball, the material it's made of, and the surface it bounces on.
The force pulling a material apart is called tensile force. It acts along the axis of the material and tends to stretch or elongate it. Tensile force is resisted by the material's internal structure, such as molecular bonds.
If you mean to bounce across water that's called skipping.
bouncing is determined by a physical characteristic the object has called elasticity, or due to the force exerted on the round object by whatever it lands on. for example, a snowball probably won't bounce if you throw it on pavement, but it might bounce off a trampoline. to make a round object not bounce, you can A) make it out of something that will break apart on contact, B) make it out a of a really inelastic material, or C) drop it onto a slanted surface where it's more likely to roll than bounce.
The ability of a material to bounce back after being disturbed is known as resilience. It is a measure of the material's ability to absorb energy when deformed and return to its original shape once the deforming force is removed. Resilience is important in various applications, such as in engineering materials and sports equipment.
When the ball hits the floor, it gets deformed, and the force of the ball compressing stores potential energy in the ball. This potential energy is released, causing the ball to bounce back up. This bounce-back force is a combination of the stored potential energy and the elasticity of the ball material.
Balls bounce when they deform upon impact, storing energy in the form of compression, and then release that energy upon rebounding. If a ball fails to bounce, it could be due to a lack of elasticity in the material, insufficient force applied to the ball, or if the surface it lands on absorbs too much of the energy.
To maximize the bounce of a very bouncy ball, you can try techniques like dropping it from a higher height, ensuring a clean and flat surface for it to bounce on, and applying force evenly when bouncing it. Additionally, using a ball made of a material that is known for its high bounce properties can also help achieve a better bounce.