Compression is pushing things together and tension is pulling things apart. A clothesline is under tension and a stack of firewood is under compression.
How it affects the bridge depends on how well it is engineered. Properly built it'll hold up to its various loads w/o problems,
In structural engineering, tension and compression are two types of forces that act on materials. Tension is a pulling force that stretches or elongates a material, while compression is a pushing force that shortens or compresses a material. The main difference between tension and compression is the direction in which the force is applied: tension pulls the material apart, while compression pushes the material together. These forces can affect the stability and strength of structures, so engineers must consider them carefully when designing buildings and bridges.
Temperature can affect the compression and tension of a rubber band by changing its elasticity. At higher temperatures, rubber bands become more flexible and stretchier, reducing their resistance to compression and tension. Conversely, at lower temperatures, rubber bands become stiffer and less stretchy, increasing their resistance to compression and tension.
Tension forces pull materials apart, while compression forces push them together. Tension can cause stretching and weakening, while compression can cause crushing and buckling. Both forces can affect the structural integrity of a material by causing deformation or failure if the material cannot withstand the applied forces.
The main forces that affect bridges are gravitational forces (weight of the bridge and loads on it), tension forces (pulling forces on the bridge elements), compression forces (pushing forces on the bridge elements), and lateral forces (such as wind or earthquakes). These forces can cause stress, deflection, or deformation in the bridge structure, potentially leading to structural failure if not properly managed.
The different types of stress that can affect rocks are compression, tension, and shear stress. Compression occurs when rocks are squeezed together, tension occurs when rocks are pulled apart, and shear stress occurs when rocks slide past each other in opposite directions. These stresses can cause rocks to deform and break, leading to the formation of faults and other geological features.
In structural engineering, tension and compression are two types of forces that act on materials. Tension is a pulling force that stretches or elongates a material, while compression is a pushing force that shortens or compresses a material. The main difference between tension and compression is the direction in which the force is applied: tension pulls the material apart, while compression pushes the material together. These forces can affect the stability and strength of structures, so engineers must consider them carefully when designing buildings and bridges.
Temperature can affect the compression and tension of a rubber band by changing its elasticity. At higher temperatures, rubber bands become more flexible and stretchier, reducing their resistance to compression and tension. Conversely, at lower temperatures, rubber bands become stiffer and less stretchy, increasing their resistance to compression and tension.
Compression is pushing things together and tension is pulling things apart. A clothesline is under tension and a stack of firewood is under compression. How it affects the bridge depends on how well it is engineered. Properly built it'll hold up to its various loads w/o problems,
Tension forces pull materials apart, while compression forces push them together. Tension can cause stretching and weakening, while compression can cause crushing and buckling. Both forces can affect the structural integrity of a material by causing deformation or failure if the material cannot withstand the applied forces.
Compression and tension can indeed affect the thickness of the Earth's crust. Compression can thicken the crust by folding and faulting, while tension can cause stretching and thinning of the crust through processes like rifting and faulting. These tectonic forces play a significant role in shaping the Earth's crust over geological time scales.
I think its thickness that's wat i put on my hw
It creates dramatic tension.
No. Low compression does not effect timing but timing can affect compression.
Shearing, tension, and compression work over millions of years to change the shape and volume of rock. Those are types of stress.
Shearing, tension, and compression work over millions of years to change the shape and volume of rock. Those are types of stress.
The main forces that affect bridges are gravitational forces (weight of the bridge and loads on it), tension forces (pulling forces on the bridge elements), compression forces (pushing forces on the bridge elements), and lateral forces (such as wind or earthquakes). These forces can cause stress, deflection, or deformation in the bridge structure, potentially leading to structural failure if not properly managed.
The different types of stress that can affect rocks are compression, tension, and shear stress. Compression occurs when rocks are squeezed together, tension occurs when rocks are pulled apart, and shear stress occurs when rocks slide past each other in opposite directions. These stresses can cause rocks to deform and break, leading to the formation of faults and other geological features.