You're probably thinking of methane hydrate-clathrate.
Turbulent winds and rapidly changing temperatures would not be associated with stable atmospheric conditions. Stable conditions typically involve calm winds and consistent temperatures over a period of time.
Density is crucial in the atmosphere as it determines air pressure, which in turn influences weather patterns and air movements. In regions with higher density, due to colder temperatures or higher pressure, air sinks, leading to stable weather conditions. Conversely, in regions with lower density, warmer temperatures or lower pressures, air rises, causing convection and possibly inclement weather.
Nitrogen is not highly reactive under normal conditions. It is a relatively inert gas, making up about 78% of Earth's atmosphere in the form of diatomic nitrogen (N2). It typically requires high temperatures or pressures to react with other elements.
H2 technically does contain molecules. Or at least, molecule. H2 is two hydrogens covalently bonded, so that the lowest energy level is filled. Since H2 has two atoms (hydrogen and hydrogen), it is not an element, because there is more than one atom. H2 is a molecule itself. However, in context of nature, it is rare that you would ever find an H2 molecule on its own unless you were working with one in a laboratory. So, if you were considering the whole of an H2 gas, there would be many molecules of H2. Short answer: H2 is a molecule itself. Many H2 means there are many molecules of H2.
Oxygen must bond twice to become stable. In its stable form, oxygen molecules have a double bond (O=O), with each oxygen atom sharing two electrons.
You're probably thinking of methane hydrate-clathrate.
Organic molecules are more stable than inorganic molecules because they contain strong covalent bonds between carbon atoms, which provide high stability. Inorganic molecules often involve ionic or metallic bonding, which can be more susceptible to environmental factors causing them to be less stable. Additionally, organic molecules have complex structures that can contribute to their stability.
Yes, it is possible.
Yes, the oxygen molecule O2 has covalent bonds. The oxygen atoms share their electrons.
Cholesterol helps maintain membrane fluidity by preventing excessive movement of phospholipid molecules at high temperatures. It acts as a buffer, reducing the fluidity of the membrane to a more stable level.
Engine oil is typically not soluble in any solvent; instead, it forms a suspension. It is designed to remain stable and maintain its lubricating properties under high temperatures and pressures in an engine.
When rock changes into metamorphic rock, its appearance, texture, crystal structure, and mineral content change.
Oxygen and nitrogen are both stable, non-reactive gases and do not readily react with each other under normal conditions. However, at very high temperatures and pressures, they can react to form nitrogen oxides.
Carbon dioxide is a gas because its molecular structure consists of one carbon atom bonded to two oxygen atoms, creating a stable and lightweight compound that exists in a gaseous state at normal temperatures and pressures.
NO2 dimerizes to form N2O4 due to the reversible reaction between two NO2 molecules. This dimerization occurs at low temperatures and high pressures, resulting in the formation of more stable N2O4 molecules. The equilibrium between NO2 and N2O4 shifts towards the formation of N2O4 as the temperature decreases.
Most organic compounds contain the element carbon. Carbon is essential for forming the backbone of organic molecules due to its ability to form diverse and stable bonds with various other elements.
Stable temperatures refer to a situation where temperature remains fairly constant or consistent over a period of time, showing minimal fluctuations or variations. This can be beneficial for maintaining a comfortable environment or for the stability of certain processes that are sensitive to temperature changes.