In a hypothetical two-dimensional universe where electromagnetic forces follow a $1/r$ law rather than a $1/r^2$ law and orbital angular momentum admits only clockwise or counterclockwise orientations, the periodic table structure is redefined by 2D-specific electron fillings. The chemical properties of atoms are determined exclusively by the outermost occupied orbitals within this constrained dimensionality, resulting in distinct energy level spacings and a reduced number of available orbital states per shell. This theoretical framework allows for the derivation of element classification based on either proton count or analogous chemical behaviors inherent to 2D physics constraints.
In a hypothetical two-dimensional universe where electromagnetic forces follow a $1/r$ law rather than a $1/r^2$ law and orbital angular momentum admits only clockwise or counterclockwise orientation…