Fluorine. It is the most electronegative element.
its flourine because it only needs one electon to complete its stability.
The most electronegative elements are found in the top right corner of the Periodic Table (excluding inert gases). So they are: Boron - B Carbon - C Nitrogen - N Oxygen - O Fluorine - F Fluorine is the most electronegative element.
F (fluorine) is the most strongly electronegative element.
Hydrogen bonding occurs when hydrogen is bonded to highly electronegative elements such as nitrogen (N), oxygen (O), or fluorine (F). The high electronegativity of these elements causes a partial negative charge to form, which then allows for hydrogen bonding to occur with another electronegative element.
There are more than one. They are F, O and N
Fluorine is the most electronegative of all open shelled and it is the most reactive of all the elements. If we take closed shelled elements also in to account, it is neon. But it is the most inert gas (even inerter than the previously thought helium) in the periodic table. The spectroscopic electronegativity (allen electronegativity) of elements: Ne(4.79) > F(4.19) > He (4.16) > O (3.61) > Ar (3.24) > N (3.07) > Kr (2.97) > Cl (2.87) ....
N is less electronegative than F. Therefore, NF3 is considered a covalent compound rather than an ionic compound.
what element C or N has the highest ionization energy
Hydrogen bonding typically occurs between hydrogen and highly electronegative elements like oxygen (O), nitrogen (N), or fluorine (F). These elements have partially negative charges that attract the partially positive hydrogen atom, leading to the formation of hydrogen bonds.
Answer this question…When hydrogen is attached to N, F, or O
The highest amount of nonmetals can be found in the p-block of the periodic table, specifically in periods 2 and 3. These periods contain elements like oxygen, nitrogen, fluorine, and chlorine, which are all nonmetals.
n ∑(f(x)/n) x = 0 Where f(x) represents the xth element in the set you're averaging, and n represents the number of elements in that set.