Abstract: A molecular model for chemistry that shows a molecular structure by expressing the distance between the atoms obtained by molecular structure analysis as the total length from two atoms and one bond as well as accurately visualizing the molecular structure without using numeric values of the van der Waals radius or covalent bond radius. The molecular model is provided with a spherical body representing the atom and a bonding rod representing an inter-atomic bond. The molecular model is to establish a general solution with versatility by (a) differentiating the radiuses of the spherical atoms in the valence state rather than an element unit, and applying different radial lengths even within the same element, and (b) applying the bonding rod differentiated by the bonding state between the atoms.

Abstract: A molecular model for chemistry that shows a molecular structure by expressing the distance between the atoms obtained by molecular structure analysis as the total length from two atoms and one bond as well as accurately visualizing the molecular structure without using numeric values of the van der Waals radius or covalent bond radius. The molecular model is provided with a spherical body representing the atom and a bonding rod representing an inter-atomic bond. The molecular model is to establish a general solution with versatility by (a) differentiating the radiuses of the spherical atoms in the valence state rather than an element unit, and applying different radial lengths even within the same element, and (b) applying the bonding rod differentiated by the bonding state between the atoms.

Abstract: The present invention relates to a structure of molecular model that can express the distance between the atoms obtained by molecular structure analysis as the total length from two spherical atoms and one bonding rod as well as accurately visualize the molecular structure without using numeric values of the van der Waals radius or covalent bond radius. The molecular model is to establish a general solution with versatility by (a) differentiating the radiuses of the spherical atoms in the valence state rather than an element unit, and applying different radial lengths even within the same element, and (b) applying the bonding rod differentiated by the bonding state between the atoms.