Electrons are arranged in electron clouds around the nucleus. The reactivity is determined by the number of valence electrons, or electrons in the outermost energy levels. All atoms (except for hydrogen who wants 2 electrons and boron who wants 6) want 8 valence electrons, or a full outer energy level. This makes them stable (like the noble gases). If an atom has 1 valence electron it will desperately want to lose that electron while an atom with 7 electrons will want to gain one electron. All atoms have the goal of 8 valence electrons. Also, the 1st energy level only has 2 electrons. After that there is 8 electrons (approximately, because you can never truly determine where an electron is inside of an atom at any given time).
Electrons do not have a color because they are subatomic particles. However, they are often represented as negative charges in diagrams. The behavior of electrons in atomic structures is influenced by their energy levels and interactions with other electrons and the nucleus. This affects the electron's position and movement within the atom, ultimately determining the atom's chemical properties and reactivity.
Protons determine what the element is. Although the number of electrons and protons are the same(since the atom in electrically neutral), the number of electrons is more closely tied to the chemical properties than the number of protons, especially in reactions.
A negative charge is an electrical property that some particles, like electrons, have. In an atom, negatively charged electrons are attracted to the positively charged nucleus, which contains protons. This attraction keeps the electrons in orbit around the nucleus, creating a stable structure for the atom.
A negative charge is an electrical property that indicates an excess of electrons. In an atom, negatively charged particles, such as electrons, are attracted to positively charged particles, like protons, in the nucleus. This attraction holds the electrons in orbit around the nucleus, creating a stable structure.
The shape of an atom is typically spherical, with a dense nucleus at the center surrounded by electron clouds. This shape influences an atom's chemical properties by determining how it interacts with other atoms. For example, the arrangement of electrons in the electron clouds can affect an atom's reactivity and ability to form bonds with other atoms.
The interference of inner electrons in an atom can shield the attraction of outer electrons to the nucleus. This is because the inner electrons create a repulsive force that counteracts the attractive force between the outer electrons and the nucleus. As a result, the outer electrons may not be held as tightly to the nucleus, leading to weaker bonding and reactivity in the atom.
nigg3rs
Electrostatic forces play a crucial role in the behavior of electrons within an atom. The positively charged nucleus attracts negatively charged electrons, keeping them in orbit around the nucleus. This attraction helps maintain the stability of the atom, as the balance between the electrostatic forces and the electrons’ kinetic energy determines their energy levels and arrangement in orbitals. Additionally, these forces influence interactions between different atoms, affecting chemical bonding and reactivity.
An atom's electrons typically do not directly affect its radioactivity. Radioactivity is mainly determined by the nucleus of the atom, which contains protons and neutrons. The arrangement of electrons around the nucleus may play a role in the stability of the nucleus, but it is the composition of the nucleus itself that primarily determines an atom's radioactivity.
I think no, as electrons move with uniform velocity.
Electrons do not have a color because they are subatomic particles. However, they are often represented as negative charges in diagrams. The behavior of electrons in atomic structures is influenced by their energy levels and interactions with other electrons and the nucleus. This affects the electron's position and movement within the atom, ultimately determining the atom's chemical properties and reactivity.
no actually this didn't answer my f-ing question
Increase in positive charge draws electrons closer to the nucleus. Increase in the number of occupied orbitals shields electrons in the highest occupied energy level from the attraction of proteins in the nucleus.
The nucleus of an atom does not directly affect the atomic spectra of different elements. The atomic spectra are mainly a result of the electron configuration and transitions in the electron energy levels. However, the nucleus can indirectly influence the spectra through its impact on the arrangement and energy levels of the electrons.
Protons determine what the element is. Although the number of electrons and protons are the same(since the atom in electrically neutral), the number of electrons is more closely tied to the chemical properties than the number of protons, especially in reactions.
As you go down a period in the periodic table, the shell number increases, meaning that atoms have additional electron shells. This leads to an increase in atomic size, as electrons occupy higher energy levels that are further from the nucleus. Additionally, the increased distance between the nucleus and the outermost electrons results in weaker attraction, which can affect the element's chemical properties. Consequently, elements tend to exhibit a gradual change in reactivity and other characteristics as you move down a period.
The distance of the electron cloud from the nucleus affects the atom's stability. When the electron cloud is closer to the nucleus, the atom is more stable. This is because the positively charged nucleus and negatively charged electrons are closer together, creating a stronger attraction. Conversely, if the electron cloud is further from the nucleus, the atom is less stable as the attraction between the nucleus and electrons is weaker.