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No: A full valence shell means the atom is very stable and has little likelihood of combining with other atoms.

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The ability of atoms to combine with other atoms is determined by?

The ability of atoms to combine with other atoms is determined by their valence electrons. Atoms with incomplete outer electron shells are more likely to form chemical bonds to achieve a stable configuration through electron sharing or transfer. Additionally, factors such as electronegativity and atomic size can also influence how atoms combine with each other.


How can you tell from an element's number of valence elns whether the element is more likely to form a caor an anion?

If an element has less than four valence electrons, it will tend to lose its valence electrons and form cations. If an element has more than four valence electrons, it will tend to gain electrons and form anions. An element that has four valence electrons will tend to form covalent bonds rather than ionic bonds.


Are unpaired valence electrons stable or unstable?

It is definitely unstable. The electrons must be equal to the protons, unless you are dealing with an isotope. An unpaired electron is going to be looking to pair up with another as soon as it finds one. What exactly are you dealing with? I would have to know more to answer it fully.


Which is more likely to form bonds an atom with 8valence electrons or an atom with fewer then 8 valence electrons?

An atom that has fewer than 8 valence electrons is more reactive, or more likely to form bonds, than an atom with 8 valence electron. Atoms bond by gaining, losing, or sharing electrons in order to have a filled outermost energy level with 8 valence electrons.


How valence electrons affects reactivity?

Valence electrons determine how easily an atom can bond with other atoms. Atoms with a few valence electrons are more likely to lose or gain electrons to achieve a stable electron configuration, making them more reactive. The number of valence electrons also influences the type of chemical bonds an atom can form with other atoms.

Related Questions

The ability of atoms to combine with other atoms is determined by?

The ability of atoms to combine with other atoms is determined by their valence electrons. Atoms with incomplete outer electron shells are more likely to form chemical bonds to achieve a stable configuration through electron sharing or transfer. Additionally, factors such as electronegativity and atomic size can also influence how atoms combine with each other.


How is an element's most likely oxidation state related to its valence electrons?

It indicates how many electrons are required to complete a full valence shell.


How can you tell from an element's number of valence elns whether the element is more likely to form a caor an anion?

If an element has less than four valence electrons, it will tend to lose its valence electrons and form cations. If an element has more than four valence electrons, it will tend to gain electrons and form anions. An element that has four valence electrons will tend to form covalent bonds rather than ionic bonds.


How is elements most likely oxidation state related to its valence electrons?

It indicates how many electrons are required to complete a full valence shell.


Are unpaired valence electrons stable or unstable?

It is definitely unstable. The electrons must be equal to the protons, unless you are dealing with an isotope. An unpaired electron is going to be looking to pair up with another as soon as it finds one. What exactly are you dealing with? I would have to know more to answer it fully.


Which electron on an atom is the most likely one to be removed during a chemical reaction?

The valence electron, which is the electron located in the outermost energy level of an atom, is the most likely to be removed during a chemical reaction. This is because valence electrons are involved in the formation of chemical bonds and determining an atom's reactivity.


Which is more likely to form bonds an atom with 8valence electrons or an atom with fewer then 8 valence electrons?

An atom that has fewer than 8 valence electrons is more reactive, or more likely to form bonds, than an atom with 8 valence electron. Atoms bond by gaining, losing, or sharing electrons in order to have a filled outermost energy level with 8 valence electrons.


How valence electrons affects reactivity?

Valence electrons determine how easily an atom can bond with other atoms. Atoms with a few valence electrons are more likely to lose or gain electrons to achieve a stable electron configuration, making them more reactive. The number of valence electrons also influences the type of chemical bonds an atom can form with other atoms.


How is an elements most likely state related to its valence electrons?

An element's most likely state is related to its valence electrons because valence electrons determine an element's reactivity and ability to form chemical bonds. Elements with a full valence shell are stable and often found in a solid state, while elements with incomplete valence shells are more reactive and tend to form compounds in order to achieve a stable electron configuration.


How are valence electrons differ from other electrons in an atom?

The closer the number of valence electrons is to the number required to completely fill or deplete its outer shell the more likely the atom is to react. With other electrons in an atom the shells are full and they have little if any affect on the reactivity of an atom. Valence electrons are the only electrons that are available to be shared/transferred in a bond.


What has 7 valence electrons and 74 neutrons?

An element with 7 valence electrons is likely in Group 17 of the periodic table, such as chlorine. With 74 neutrons, it corresponds to the isotope chlorine-81.


Are elements with very few valence electrons mostly non-metals?

Yes, elements with very few valence electrons are typically non-metals. Non-metals tend to have higher electronegativities, making them more likely to gain electrons to achieve a stable electron configuration. Elements with few valence electrons are more likely to gain electrons rather than lose them, leading to non-metallic properties.