it does not depends on the material dimensions (cross sectional area and length) and the force exterted on the material.
It only depends on nature of the material
The advantage of a first class lever is that by using less input force, you get more output force. Teehee!
Deflection of beam depends upon load and length of beam. Larger the beam, larger will be it's selfweight
axial shift depends upon the gap between rotot blade and fixed blade , not on float
Saturation temperature of steam is the Temperature at whihc any addition of heat does not increase the temperature of the water but produces steam.It depends upon the pressue and for every pressure there is a saturation temperature.
it will depend upon the load and moment applied on the beam.
the young modulus of titanium varies from 100 - 110 GPa which depends upon the grade of titanium used based upon the application purpose. anees
Elasticity depends upon the material of an object but also on environmental things such as pressure, temperature and humidity. You can try this yourself by taking two identical elastic bands and putting one on a heater for a while. You will notice a difference in elasticity!
The speed of sound depends upon elasticity and inertia of the medium which in turn depend upon the temperature of the medium.That's why speed of sound depends upon the temperature of the medium.
both of their masses and the distance between them
The impact force depends upon the height from which it has fallen (IE- its velocity upon impact), and the duration of impact (determined by the elasticity of the collision). However, the object exerts no force upon the ground *while* falling.
The strength of the gravitation force between two objects depends upon the distance between the two objects and their masses. F = (M1*M2*G)/R2 (Newton's Law of Gravitation) Here M1 and M2 are the masses of the two objects, G is the universal gravitational constant, and R is the distance between the two objects. If the masses of the two objects are large the attraction between them will also be large. However, as the radius increases the gravitational force between the two decreases by the square of the distance. So, the gravitational force depends mainly upon the distance between the two objects, but also significantly upon the masses of the two objects.
The strength of the gravitation force between two objects depends upon the distance between the two objects and their masses. F = (M1*M2*G)/R2 (Newton's Law of Gravitation) Here M1 and M2 are the masses of the two objects, G is the universal gravitational constant, and R is the distance between the two objects. If the masses of the two objects are large the attraction between them will also be large. However, as the radius increases the gravitational force between the two decreases by the square of the distance. So, the gravitational force depends mainly upon the distance between the two objects, but also significantly upon the masses of the two objects.
The modulus of rupture is the same as the breaking strength. It is a term used for ceramics where strength is dependent upon statistical distribution of flaw size, flaw shape, and moisture.
The size of an electric force depends on the amount of charge on the objects involved and the distance between them. The force increases with the magnitude of the charges and decreases as the distance between the charges increases.
The speed of any mechanical wave depends on the density of the medium. Since solids are the densest, the speed of sound is minimum in solids. It is the maximum in gases, since the medium is the least densest.
Resilience is the ability of a material to absorb energy when it is deformed elastically, and release that energy upon unloading. The modulus of resilience is defined as the maximum energy that can be absorbed per unit volume without creating a permanent distortion.It can be calculated by integrating the stress-strain curve from zero to the elastic limit. In uniaxial tension,whereUr is the modulus of resilience,σy is the yield strength,andE is the Young's modulus.
Different objects make different sounds when dropped on a floor because of their material composition, shape, and size. These characteristics determine the object's density, elasticity, and surface area, which all influence how the object interacts with the floor upon impact, creating unique sound frequencies.