The equatorial region is more stable than the axial region because it receives more consistent sunlight and heat throughout the year, leading to a more balanced climate and fewer extreme temperature fluctuations.
In a molecule, the equatorial position is generally more stable than the axial position.
The equatorial conformation is more stable in a cyclohexane chair conformation.
The equatorial orientation is more stable in terms of energy for a substituent in a cyclohexane chair conformation.
The equatorial region is more stable compared to other regions because it receives consistent sunlight throughout the year, leading to a relatively constant temperature and climate. This consistent energy input helps maintain a balance in the region's ecosystem and weather patterns.
The axial bond is 158 pm and the equatorial is 152 pm. One explanation is that the hybridisation of the equatorial bonds is sp2 and the hybridisation of the equatorial is pd, the greater s character of the equatorial making the bond shorter. (taken from text book Inorganic chemistry by House) I know of no theretical study that backs this up. Most text books duck this ,e.g Greenwood and Wiberg.
In a molecule, the equatorial position is generally more stable than the axial position.
The equatorial conformation is more stable in a cyclohexane chair conformation.
The equatorial orientation is more stable in terms of energy for a substituent in a cyclohexane chair conformation.
The equatorial region is more stable compared to other regions because it receives consistent sunlight throughout the year, leading to a relatively constant temperature and climate. This consistent energy input helps maintain a balance in the region's ecosystem and weather patterns.
In PCl5, the two chlorine atoms that are more reactive are located in the axial positions, while the three equatorial chlorine atoms are in a more stable, sterically hindered arrangement. The axial chlorine atoms experience greater repulsion from the equatorial chlorines and are less shielded, making them more susceptible to reacting with other species. Additionally, the axial positions allow for better overlap with potential reactants, further enhancing their reactivity compared to the equatorial chlorines.
The axial bond is 158 pm and the equatorial is 152 pm. One explanation is that the hybridisation of the equatorial bonds is sp2 and the hybridisation of the equatorial is pd, the greater s character of the equatorial making the bond shorter. (taken from text book Inorganic chemistry by House) I know of no theretical study that backs this up. Most text books duck this ,e.g Greenwood and Wiberg.
Beta is more stable. It is in the equatorial position. When glucose is in monomeric form this does not matter much but when polymerized. Alpha produces starch (OH Down) and Beta produces cellulose (OH UP).
Chair form (of hexane) is more stable configuration because out of eight hydrogen four form the equatorial bonds and four axial bonds so its a symmetrical structure and repulsive force among the hydrogens is minimum.
In PCl3F2, both fluorine atoms are positioned in the axial positions of the trigonal bipyramidal molecular geometry due to their higher electronegativity compared to chlorine. This arrangement minimizes steric repulsion, as the larger chlorine atoms occupy the equatorial positions, where they have more space. The axial positions are also less crowded, allowing for a more stable configuration. Thus, placing the more electronegative fluorine atoms axially helps achieve a lower energy state for the molecule.
Polar groups prefer the axial position in cyclohexane because it minimizes steric hindrance with neighboring atoms, allowing for better overlap of orbitals and stabilizing the molecule. In the axial position, the polar group experiences less repulsion from other groups compared to being in the equatorial position, which leads to a more energetically favorable conformation.
Surface salinity is higher in the subtropics than in the equatorial regions because of the combination of high evaporation rates and low precipitation levels in the subtropics. This leads to a concentration of salt in the surface waters as water evaporates, while the equatorial regions receive more rainfall that dilutes the salinity.
That's not true at all.