Since the chemical properties remain same,The physical structural form of carbons varies in both diamond and graphite.Here diamond is called as the strongest substance ever known.graphite is a good conductor on electricity as it gives out one free electron for generating electricity.
Graphite is a naturally occurring mineral that is composed of the element carbon (C). Graphite is made up of lots and lots of layers of carbon laid one on top of the other, and it is one allotrope of this element. Diamond, another natural mineral, is also made up of carbon. It is likewise an allotrope of that element, just as graphite is.
Both graphite and diamond are allotropes of carbon.
Yes, carbon.supplement. when an element exists in two or more forms, these forms are known as an allotrope. Carbon has three allotropes, graphite, diamond, and ordinary carbon.
Carbon is the mineral found in coal, graphite, and diamonds. The different arrangements of carbon atoms lead to the diverse properties of these materials.
Graphite schist is primarily composed of the mineral graphite, which gives it its characteristic dark color. It also contains other minerals like quartz, mica, and feldspar, along with variable amounts of other accessory minerals depending on the specific geological formation.
Yes, diamond and graphite are isotopes of carbon as they are both entirely made of carbon. However they have very different structures resulting in their different properties.
The 3 allotropes of Carbon are: Graphite, Diamonds, and Buckminsterfullerenes (Bucky Balls). They are composed entirely of Carbon but have different structural aspects.
Graphite is an element. It is composed entirely of carbon atoms arranged in a specific crystalline structure.
Graphite and diamonds have the same chemical composition, which is pure carbon, but their crystalline structures are different. Graphite has a layered structure, while diamonds have a tightly packed, three-dimensional crystal lattice structure. This difference in structure gives them their unique physical properties.
"Allotrope" refers to different forms of the same element that have distinct chemical and physical properties. For example, carbon has various allotropes such as graphite and diamond. These allotropes have different structures and properties, although they are composed of the same element.
Both diamonds and graphite are allotropes of carbon.
Diamond and graphite are both allotropes of carbon, meaning they are made up of the same element but have different structures. They are similar in that they are both composed of carbon atoms and have high melting points. However, they differ in their physical properties due to their different structures - diamond is the hardest natural substance, while graphite is a good conductor of electricity.
Graphite is a naturally occurring mineral that is composed of the element carbon (C). Graphite is made up of lots and lots of layers of carbon laid one on top of the other, and it is one allotrope of this element. Diamond, another natural mineral, is also made up of carbon. It is likewise an allotrope of that element, just as graphite is.
because they are of allotropes of carbon.
Diamond and graphite are polymorphic because they are composed of pure carbon atoms arranged in different crystal structures. In diamond, carbon atoms are arranged in a three-dimensional network of tetrahedral shapes, resulting in a hard and transparent structure. In graphite, carbon atoms are arranged in layered sheets that are weakly bonded between layers, giving graphite its lubricating properties and ability to conduct electricity.
No, graphite is a mineral and is composed entirely of Carbon atoms. Wood is a living material which contains celulose, among other substances, when it is burned the remains do contain carbon but there are also other elements present.
Diamond and graphite have different structures which account for their different properties. Graphite is arranged into sheets which are easily removed. Diamond, on the other hand, is a network solid that has very strong bonds and intermolecular forces holding it together.