Shapes like triangles are strong in tension and compression due to their ability to distribute forces evenly across their three sides, preventing deformation. Arches and domes are also effective in compression, as their curved structure efficiently transfers loads downward. In contrast, long and slender shapes, like beams, are typically stronger in tension than compression, as they can withstand stretching forces better than buckling under compressive loads. Overall, the geometric configuration plays a crucial role in determining a shape's strength in tension or compression.
stress
tension is the opposite of compression, so it would be anything pulling in an object; cables on a bridge, a zipline, even when you reach out to grab something! there is so many things that are under tension or compression that are all around us.
compression&torsion&tension&bending
Steel and Titanium
faulting
tension streches it compression squeezes it
The tension and compression members should be equally strong.
Concrete is very strong in compression but weak in tension. RCC is concrete with reinforcing steel bars in it. Steel is a really good material in tension. Steel carries the tensile load and thus RCC is strong in tension too. However, designers still try to ensure concrete is in compression wherever possible.
Concrete is strong in compression, as the aggregate efficiently carries the compression load. However, it is weak in tension as the cement holding the aggregate in place can crack, allowing the structure to fail. Reinforced concrete solves these problems by adding metal reinforcing bars, glass fiber, or plastic fiber to carry tensile loads
It's all about compression and tension. Compression is the force pushing in on an object. If you sit in a chair your weight is a compressive force on the chair. Tension is the force pulling on an object. If you hang from a rope your weight puts the rope in tension. Stone is very strong under compression but can break easily under tension. An arch bridge only has compression forces within it so stone is a good material for an arch bridge.
A crack is caused by tension not compression because tension pulls matter apart while compression pushes matter together
Concrete (like stone) is very strong in compression but breaks almost instantly in tension. It is also weak in response to side forces and twisting forces. Steel bars are very strong in tension but crumple and fold instantly in compression. By putting steel reinforcement bars in concrete and pretensioning the bars before the concrete hardens creates a composite material that is strong in both compression and tension (with each material supporting the other) and also improves the response to side forces and twisting forces.
1.compression 2.tension 3.torsion 4.shear 5.gravity
it is used to measure the extension or compression in the object after it is subjected to tension or compression test it is used to measure the extension or compression in the object after it is subjected to tension or compression test
Tension and compression are not forces themselves, but rather types of forces that act on objects. Tension is a force that pulls or stretches an object, while compression is a force that pushes or squeezes an object. Both tension and compression are common forces in structural mechanics.
compression zone is an positive zone,tension zone is an negative zone..
Compression and tension are two types of stress that can act on a material. Compression occurs when forces push inward on the material, while tension occurs when forces pull outward on the material. In the context of structures, compression and tension often work together to maintain stability and strength.