Explanation:
The neutron has exceptional penetrating power while having no charge. The world can accommodate many without halting.
Explanation:
Due to fluorine's high electronegativity, hydrogen bonds—which are extremely potent dipoles—are formed between HF molecules. Since no other hydrogen halide exhibits hydrogen bonding, HF has lesser intermolecular interactions than the others (and higher boiling temperatures).
Explanation:
Two moles of chromium are reduced in one mole of dichromate, each requiring three moles of electrons. Two moles of electrons are needed for each of the three moles of nickel that are being oxidized. As a result, six moles' worth of electrons is moved.
Explanation:
The bond length always marks the location where the potential bond energy, which represents the equilibrium between the forces of attraction and repulsion between the two atoms, is at its lowest level.
Explanation:
Anything that is neither a reactant nor a product is considered an intermediate. It can be challenging to find intermediates. Catalysts are compounds that can be isolated after being added to the reaction mixture and fulfill the aforementioned definition.
Explanation:
The strongest intermolecular attractive force, hydrogen bonding, is listed first. The least powerful and transient attractive forces are induced dipoles.
Explanation:
The element with the biggest electronegativity closest to fluorine in the periodic table is typically negative, whereas the atom that is farthest from fluorine is typically positive (lowest electronegativity). The P—Cl pair is the only one of the five couples where the second element is closest to fluorine.
