Compressive strength, also known as strength under compression, is the ability of a material or structure to endure stresses that tend to diminish size as opposed to tensile strength which withstands loads tending to elongate. In contrast to tensile strength, which opposes tension, compressive strength resists compression being forced together being pulled apart. Tensile strength, compressive strength, and shear strength may all be individually examined when studying material strength. A certain degree of deformation may be regarded as the upper limit for compressive load because certain materials deform permanently while others shatter at their compressive strength limit. For the design of structures, compressive strength is a crucial factor. A universal testing device is frequently used to determine compressive strength. Measurement circumstances and the specific test procedure have an impact on compressive strength measurements. Normal reports of compressive strengths relate them to a particular technical standard. It is said to be in tension when a material specimen is loaded in a way that causes it to stretch. Contrarily, a substance is considered to be in compression if it shortens and compresses. Atomically speaking, when there is tension, the molecules or atoms are driven apart, but when there is compression, they are pressed together. There are forces present throughout the entire material that counteract both tension and compression because atoms in solids constantly seek for an equilibrium position and space from other atoms. As a result, analogous phenomena also exist at the atomic level.






Title : A proposal of chemical sensor based on polycrystalline Cu2O nanofilm
Paulo Cesar De Morais, Catholic University of Brasilia, Brazil
Title : Ferrofluid mediated synthesis of nanomagnetic polymer materials in supercritical fluids
M G H Zaidi, G B Pant University of Agriculture & Technology, India