answersLogoWhite

0

It's in the outermost shell of the electron.

User Avatar

Wiki User

14y ago

What else can I help you with?

Continue Learning about Physics

What electrons are easiest to remove?

Electrons in the outermost energy level (valence electrons) are easiest to remove because they are farthest from the positively charged nucleus and experience weaker attraction. This means that valence electrons require less energy to be removed compared to electrons in inner energy levels.


What is an electron's most likely location in the electron cloud?

The Valence electrons, i.e. those in the outer shell of a compound are most likely to be involved in bonding. This is because they are further away from the nucleus of their atom, so experience less attractive force towards it. They are also shielded from this attraction by any electrons between them and the nucleus. Therefore, they require less energy to remove.


Do attractive forces have less hold on electrons farther from the nucleus?

Yes, as electrons get farther from the atomic nucleus they are less attracted to that nucleus, which is exactly what you would expect on the basis of Coulomb's Law, F=q1q2/r2 as the radius of the orbit increases the attractive force becomes decreased.


Why is mercury poor at sharing electrons?

Mercury has 80 electrons distributed in 6 energy levels,; namely:First Energy Level: 2Second Energy Level: 8Third Energy Level: 18Fourth Energy Level: 32Fifth Energy Level: 18Sixth Energy Level: 2Accordingly, Mercury has on the outer shell 2 electrons to share with in any chemical reaction by an ionic bond.


Why is that even for incident radiation that is monochromatic the photoelectrons are emitted with a range of velocities?

The range of velocities of photoelectrons emitted for a monochromatic incident radiation is due to the different depths at which the electrons are located within the material, which affects the work function required for their emission. Electrons located closer to the surface may require less energy to be emitted, resulting in a broader range of velocities. Additionally, the interactions of the emitted electrons with other particles in the material can also influence their final velocities.

Related Questions

How does ionization energy impact the reactivity of an element?

Ionization energy is the amount of energy needed to remove an electron from an atom. Elements with higher ionization energy are less likely to lose electrons and therefore are less reactive. Conversely, elements with lower ionization energy are more likely to lose electrons and are more reactive.


Where are valence electrons found?

Valence Electrons are the electrons that are located furthest away from the atom itself in the outermost electron shell. They are located on the last energy level also known as the valence level.


Why are non valence electrons not involved in reactions?

Non-valence electrons are located in inner energy levels of an atom and are shielded by the valence electrons from interacting with other atoms during chemical reactions. Since they are closer to the nucleus and have higher energy levels, they are less likely to participate in bonding interactions with other atoms. Valence electrons, on the other hand, determine an atom's reactivity and are involved in forming chemical bonds.


Which group has a complete set of valence electrons in their outer energy level?

Group 18, the noble gases, have a complete set of valence electrons in their outer energy level. This makes them stable and less likely to form chemical bonds with other elements.


When light activates the electrons of chlorophyll then those electrons have a less or more energy?

When the light "activates" the electrons, it kicks them up into higher orbitals where they have more energy. That extra energy is utilized to power the photosynthesis reaction.


In an atom is the the second shell of electrons have more energy or less?

more


What electrons are easiest to remove?

Electrons in the outermost energy level (valence electrons) are easiest to remove because they are farthest from the positively charged nucleus and experience weaker attraction. This means that valence electrons require less energy to be removed compared to electrons in inner energy levels.


What is a high energy electron and how does it differ from low energy electrons in terms of their behavior and impact on various processes?

A high energy electron has more kinetic energy and moves faster than a low energy electron. This difference in energy levels affects their behavior and impact on processes. High energy electrons are more likely to participate in chemical reactions, ionize atoms, and cause damage to biological molecules. In contrast, low energy electrons are less reactive and tend to be more stable, playing a smaller role in these processes.


Use ionization energy to explain why metals lose electrons more easily than nonmetals?

Metals lose electrons more easily than the non-metals because they require less ionization energy compared with the non-metals. The metals require less ionization energy to lose the electrons than though gain the electrons unlike the non-metals.


Electrons farther from the nucleus are said to be of?

Electrons farther from the nucleus are said to be of higher energy levels or higher orbitals. This means they have more energy and are less tightly bound to the nucleus compared to electrons closer to the nucleus.


Why are valence electrons easier to remove from an atom than core electrons?

Valence electrons are further away from the nucleus and experience less attraction to the positively charged protons in the nucleus compared to core electrons. This makes valence electrons easier to remove from an atom. Core electrons are located closer to the nucleus and are more strongly attracted to the nucleus, requiring more energy to remove them from the atom.


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.