A diamond at room temperature will generally be at the same temperature as the room.
No room temperature liquid can dissolve diamond.
Diamond is a solid form of carbon and remains stable at room temperature in all states, including its purest form as a crystalline structure.
http://www.periodictable.com/Elements/Solid/index.html shows all solids at room temperature
Diamond is unreactive at room temperature because its carbon atoms are held together by strong covalent bonds, making it difficult for other elements to break those bonds and react with the carbon. Additionally, the tightly packed structure of the diamond lattice further inhibits the movement of atoms, reducing the likelihood of chemical reactions taking place.
propanone is liquid at room temperature
A diamond at room temperature is a solid.
No room temperature liquid can dissolve diamond.
Diamond is a solid form of carbon and remains stable at room temperature in all states, including its purest form as a crystalline structure.
solid
Carbon is a solid liquid instead of a gas at room temperature.
because of the three dimensional carbon-carbon network
http://www.periodictable.com/Elements/Solid/index.html shows all solids at room temperature
The room the hope diamond is in is the room that has a sign that labeled "Hope Diamond".
Diamond is inert at room temperature and even it does not react with air but at 1405Fahrenheit it reacts with air so that it can be oxidized.
At room temperature (around 20-25°C), carbon exists in various forms such as graphite (used in pencils) and diamond (a precious gemstone). Graphite consists of layers of carbon atoms arranged in sheets, giving it a slippery feel, while diamond has a rigid, three-dimensional structure due to its tightly bonded carbon atoms.
No, it is a solid.. like coal, for example. (Diamond and graphite being two other examples)
Diamond is unreactive at room temperature because its carbon atoms are held together by strong covalent bonds, making it difficult for other elements to break those bonds and react with the carbon. Additionally, the tightly packed structure of the diamond lattice further inhibits the movement of atoms, reducing the likelihood of chemical reactions taking place.