In general, as temperature increases, materials become less elastic or more flexible. This is because higher temperatures cause atoms and molecules in the material to vibrate more, disrupting the orderly arrangement of their structure and reducing their ability to return to their original shape when deformed. Conversely, lower temperatures tend to make materials more rigid and elastic.
Temperature can affect elasticity by changing the molecular structure of materials. In general, increasing temperature tends to decrease elasticity as the increased thermal energy disrupts the bonds between molecules, making the material more flexible. However, extreme cold temperatures can also decrease elasticity by making materials more rigid and prone to breakage.
Yes, temperature can affect the elasticity of an object. In general, most materials become less elastic at higher temperatures due to increased molecular motion and reduced forces between atoms or molecules, which can lead to a decrease in stiffness and an increase in deformation under stress. Conversely, at lower temperatures, most materials tend to become more brittle and less ductile.
The decrease in elasticity with temperature can be attributed to the increase in molecular motion and vibrations as temperature rises. This increased thermal energy disrupts the organization and alignment of molecular structures in the material, leading to decreased elasticity. Additionally, at higher temperatures, materials may also undergo phase transitions or structural changes that can affect their elastic properties.
Temperature affects the elasticity of an object by changing the vibration of its atoms or molecules. As temperature increases, the atoms or molecules have more energy and vibrate more, causing the material to become less elastic. Conversely, at low temperatures, the material becomes more rigid and its elasticity increases.
Yes, the elasticity of a medium affects sound propagation because it determines how easily sound waves can travel through the material. Temperature can also impact sound propagation by influencing the speed of sound through the medium. Changes in elasticity and temperature can alter how sound waves behave and travel through a medium.
a higher temperature increases elasticity to fabric as temperature breaks bonds between molecules of the fabric
Temperature can affect elasticity by changing the molecular structure of materials. In general, increasing temperature tends to decrease elasticity as the increased thermal energy disrupts the bonds between molecules, making the material more flexible. However, extreme cold temperatures can also decrease elasticity by making materials more rigid and prone to breakage.
inversly proportional
Such thermometers are based on the fact that the liquid expands when the temperature increases. That's what the thermometers measure.
There is NO relation at all.
or RUBBER BAND ELASTICITY AND TEMPERATURE
distinguish between price elasticity of demand and income elasticity of demand
Yes, rubber is an example of a substance whose elasticity is relatively independent of temperature. This is due to its unique molecular structure, which allows it to maintain its elasticity over a wide range of temperatures.
temperature(it is whats changed on purpose)
Yes, temperature can affect the elasticity of an object. In general, most materials become less elastic at higher temperatures due to increased molecular motion and reduced forces between atoms or molecules, which can lead to a decrease in stiffness and an increase in deformation under stress. Conversely, at lower temperatures, most materials tend to become more brittle and less ductile.
The decrease in elasticity with temperature can be attributed to the increase in molecular motion and vibrations as temperature rises. This increased thermal energy disrupts the organization and alignment of molecular structures in the material, leading to decreased elasticity. Additionally, at higher temperatures, materials may also undergo phase transitions or structural changes that can affect their elastic properties.
The ability and tendency to return to a certain, beginning, shape, even after being stretched beyond it's natural limits is elasticity. The petrochemical industries involve processing or refining of the natural and petroleum gases. There seems not to be a specific relation between the two.