sulfurs fracture point is 3.62 g/cu
Sulfur typically exhibits a conchoidal fracture when it breaks, resulting in smooth, curved surfaces resembling glass. This fracture is caused by the arrangement of sulfur atoms in its crystalline structure and the brittleness of the element.
Sulfur has a conchoidal fracture, resembling the curved shape of a seashell when broken. It does not have a distinct cleavage because its atomic structure does not easily allow the mineral to break along specific planes.
Sulfur does not exhibit cleavage because it lacks a distinct crystal structure. Instead, sulfur has a conchoidal fracture, meaning it breaks along curved, irregular surfaces similar to glass.
Sulfur does not have cleavage because it is not a mineral. Instead, sulfur has a non-crystalline or amorphous structure. When broken, it tends to fracture along irregular surfaces rather than cleave along specific planes.
Sulfur does not have cleavage because it does not have a defined crystal structure like minerals do, which is necessary for exhibiting cleavage. Instead, sulfur breaks along irregular fracture planes when subjected to external force.
Sulfur does not have a fracture type because it is an element, and elements do not exhibit fracture properties like minerals or materials. Fracture types are characteristics of mineral crystals or materials with a crystalline structure, which sulfur does not possess.
Sulfur typically exhibits a conchoidal fracture when it breaks, resulting in smooth, curved surfaces resembling glass. This fracture is caused by the arrangement of sulfur atoms in its crystalline structure and the brittleness of the element.
Sulfur has a conchoidal fracture, resembling the curved shape of a seashell when broken. It does not have a distinct cleavage because its atomic structure does not easily allow the mineral to break along specific planes.
The dominant form of breakage for sulfur is brittle fracture, where the material breaks without significant deformation. This is due to the atomic structure of sulfur, which consists of weak van der Waals forces between the molecules, leading to easy cleavage and fracture.
Sulfur does not exhibit cleavage because it lacks a distinct crystal structure. Instead, sulfur has a conchoidal fracture, meaning it breaks along curved, irregular surfaces similar to glass.
Sulfur typically exhibits a conchoidal fracture, which means it breaks with smooth, curved surfaces resembling the shape of a shell. This occurs due to its atomic structure, where the bonds between sulfur atoms are relatively weak and can easily separate along certain planes. Additionally, its crystalline form can influence how it fractures, often leading to irregular shapes rather than straight lines. Overall, sulfur's unique bonding characteristics contribute to its distinctive fracture patterns.
Sulfur does not have cleavage because it is not a mineral. Instead, sulfur has a non-crystalline or amorphous structure. When broken, it tends to fracture along irregular surfaces rather than cleave along specific planes.
Sulfur does not have cleavage because it does not have a defined crystal structure like minerals do, which is necessary for exhibiting cleavage. Instead, sulfur breaks along irregular fracture planes when subjected to external force.
Sulfur is a brittle material, so it can break relatively easily under pressure. It forms a crystalline structure, and when disturbed, the bonds between the molecules can break, leading to a fracture. However, under normal conditions, sulfur is a stable and solid element.
"Luster" is a term used to characterize a mineral(Reflection of a light). Sulfur Lustre or luster is Adamantine on on crystal faces,glimmering on fracture surfaces!
Sulfur has a brittle consistency due to its crystalline structure. At room temperature, it forms orthorhombic crystals that are relatively rigid and can fracture easily when stress is applied. The weaker van der Waals forces between the molecules in sulfur contribute to its brittleness, making it break rather than bend. Additionally, the lack of metallic bonding in sulfur compounds leads to its non-ductile, brittle nature.
a fracture in which skin is intact at site of fracture is a closed fracture or simple fracture whereas compound fracture or an open fracture is a fracture in which the skin is perforated and there is an open wound down to the site of the fracture.